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Author SHA1 Message Date
Thomas Arts be9935cd7e Merge branch 'master' into quickcheck-ci 2019-02-11 13:11:46 +01:00
Thomas Arts aa2e6aa218 machinery for running QuickCheck
No script needed if we make sure extra_src_dirs has different name than "eqc"

Obsolete QuickCheck property
2019-01-24 09:11:26 +01:00
203 changed files with 3373 additions and 15377 deletions
+4 -4
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@@ -19,16 +19,16 @@ jobs:
- dialyzer-cache-v2-
- run:
name: Build
command: ./rebar3 compile
command: rebar3 compile
- run:
name: Static Analysis
command: ./rebar3 dialyzer
command: rebar3 dialyzer
- run:
name: Eunit
command: ./rebar3 eunit
command: rebar3 eunit
- run:
name: Common Tests
command: ./rebar3 ct
command: rebar3 ct
- save_cache:
key: dialyzer-cache-v2-{{ .Branch }}-{{ .Revision }}
paths:
+3
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@@ -0,0 +1,3 @@
{build, "rebar3 as eqc compile"}.
{test_root, "."}.
{test_path, "_build/eqc/lib/aesophia/quickcheck"}. %% here are the properties
+4 -4
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@@ -1,5 +1,5 @@
.rebar3
_[^_]*
_*
.eunit
*.o
*.beam
@@ -16,8 +16,8 @@ _build
.idea
*.iml
rebar3.crashdump
current_counterexample.eqc
.qcci
*.erl~
*.aes~
aesophia
.qcci
current_counterexample.eqc
-223
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@@ -1,223 +0,0 @@
# Changelog
All notable changes to this project will be documented in this file.
The format is based on [Keep a Changelog](https://keepachangelog.com/en/1.0.0/),
and this project adheres to [Semantic Versioning](https://semver.org/spec/v2.0.0.html).
## [Unreleased]
### Added
### Changed
### Removed
## [4.3.0]
### Added
- Added documentation (moved from `protocol`)
- `Frac.aes` library for rational numbers
- Added some more meaningful error messages
- Exported several parsing functionalities
- With option `keep_included` it is possible to see which files were included during the parse
- There is a function `run_parser` that be used to evaluate any parsing rule
- Exported parsers: `body`, `type` and `decl`
### Changed
- Performance improvements in the standard library
- Fixed ACI encoder to handle `-` unary operator
- Fixed including by absolute path
- Fixed variant type printing in the ACI error messages
- Fixed pretty printing of combined function clauses
### Removed
- `let` definitions are no longer supported in the toplevel of the contract
- type declarations are no longer supported
## [4.2.0] - 2020-01-15
### Added
- Allow separate entrypoint/function type signature and definition, and pattern
matching in left-hand sides:
```
function
length : list('a) => int
length([]) = 0
length(x :: xs) = 1 + length(xs)
```
- Allow pattern matching in list comprehension generators (filtering out match
failures):
```
function somes(xs : list(option('a))) : list('a) =
[ x | Some(x) <- xs ]
```
- Allow pattern matching in let-bindings (aborting on match failures):
```
function test(m : map(int, int)) =
let Some(x) = Map.lookup(m, 0)
x
```
### Changed
- FATE code generator improvements.
- Bug fix: Handle qualified constructors in patterns.
- Bug fix: Allow switching also on negative numbers.
### Removed
## [4.1.0] - 2019-11-26
### Added
- Support encoding and decoding bit fields in call arguments and results.
### Changed
- Various improvements to FATE code generator.
### Removed
## [4.0.0] - 2019-10-11
### Added
- `Address.to_contract` - casts an address to a (any) contract type.
- Pragma to check compiler version, e.g. `@compiler >= 4.0`.
- Handle numeric escapes, i.e. `"\x19Ethereum Signed Message:\n"`, and similar strings.
- `Bytes.concat` and `Bytes.split` are added to be able to
(de-)construct byte arrays.
- `[a..b]` language construct, returning the list of numbers between
`a` and `b` (inclusive). Returns the empty list if `a` > `b`.
- [Standard libraries](https://github.com/aeternity/aesophia/blob/master/docs/sophia_stdlib.md)
- Checks that `init` is not called from other functions.
- FATE backend - the compiler is able to produce VM code for both `AEVM` and `FATE`. Many
of the APIs now take `{backend, aevm | fate}` to decide wich backend to produce artifacts
for.
- New builtin functions `Crypto.ecrecover_secp256k1: (hash, bytes(65)) => option(bytes(20))`
and `Crypto.ecverify_secp256k1 : (hash, bytes(20), bytes(65)) => bool` for recovering
and verifying an Ethereum address for a message hash and a signature.
- Sophia supports list comprehensions known from languages like Python, Haskell or Erlang.
Example syntax:
```
[x + y | x <- [1,2,3,4,5], let k = x*x, if (k > 5), y <- [k, k+1, k+2]]
// yields [12,13,14,20,21,22,30,31,32]
```
- A new contract, and endpoint, modifier `payable` is introduced. Contracts, and enpoints,
that shall be able to receive funds should be marked as payable. `Address.is_payable(a)`
can be used to check if an (contract) address is payable or not.
### Changed
- Nice type error if contract function is called as from a namespace.
- Fail on function definitions in contracts other than the main contract.
- Bug fix in variable optimization - don't discard writes to the store/state.
- Bug fixes in error reporting.
- Bug fix in variable liveness analysis for FATE.
- Error messages are changed into a uniform format, and more helpful
messages have been added.
- `Crypto.<hash_fun>` and `String.<hash_fun>` for byte arrays now only
hash the actual byte array - not the internal ABI format.
- More strict checks for polymorphic oracles and higher order oracles
and entrypoints.
- `AENS.claim` is updated with a `NameFee` field - to be able to do
name auctions within contracts.
- Fixed a bug in `Bytes.to_str` for AEVM.
- New syntax for tuple types. Now 0-tuple type is encoded as `unit` instead of `()` and
regular tuples are encoded by interspersing inner types with `*`, for instance `int * string`.
Parens are not necessary. Note it only affects the types, values remain as their were before,
so `(1, "a") : int * string`
- The `AENS.transfer` and `AENS.revoke` functions have been updated to take a name `string`
instead of a name `hash`.
- Fixed a bug where the `AEVM` backend complained about a missing `init` function when
trying to generate calldata from an ACI-generated interface.
- Compiler now returns the ABI-version in the compiler result map.
- Renamed `Crypto.ecverify` and `Crypto.ecverify_secp256k1` into `Crypto.verify_sig` and
`Crypto.verify_sig_secp256k1` respectively.
### Removed
## [3.2.0] - 2019-06-28
### Added
- New builtin function `require : (bool, string) => ()`. Defined as
```
function require(b, err) = if(!b) abort(err)
```
- New builtin functions
```
Bytes.to_str : bytes(_) => string
Bytes.to_int : bytes(_) => int
```
for converting a byte array to a hex string and interpreting it as a
big-endian encoded integer respectively.
### Changed
- Public contract functions must now be declared as *entrypoints*:
```
contract Example =
// Exported
entrypoint exported_fun(x) = local_fun(x)
// Not exported
function local_fun(x) = x
```
Functions in namespaces still use `function` (and `private function` for
private functions).
- The return type of `Chain.block_hash(height)` has changed, it used to
be `int`, where `0` denoted an incorrect height. New return type is
`option(hash)`, where `None` represents an incorrect height.
- Event name hashes now use BLAKE2b instead of Keccak256.
- Fixed bugs when defining record types in namespaces.
- Fixed a bug in include path handling when passing options to the compiler.
### Removed
## [3.1.0] - 2019-06-03
### Added
### Changed
- Keyword `indexed` is now optional for word typed (`bool`, `int`, `address`,
...) event arguments.
- State variable pretty printing now produce `'a, 'b, ...` instead of `'1, '2, ...`.
- ACI is restructured and improved:
- `state` and `event` types (if present) now appear at the top level.
- Namespaces and remote interfaces are no longer ignored.
- All type definitions are included in the interface rendering.
- API functions are renamed, new functions are `contract_interface`
and `render_aci_json`.
- Fixed a bug in `create_calldata`/`to_sophia_value` - it can now handle negative
literals.
### Removed
## [3.0.0] - 2019-05-21
### Added
- `stateful` annotations are now properly enforced. Functions must be marked stateful
in order to update the state or spend tokens.
- Primitives `Contract.creator`, `Address.is_contract`, `Address.is_oracle`,
`Oracle.check` and `Oracle.check_query` has been added to Sophia.
- A byte array type `bytes(N)` has been added to generalize `hash (== bytes(32))` and
`signature (== bytes(64))` and allow for byte arrays of arbitrary fixed length.
- `Crypto.ecverify_secp256k1` has been added.
### Changed
- Address literals (+ Oracle, Oracle query and remote contracts) have been changed
from `#<hex>` to address as `ak_<base58check>`, oracle `ok_<base58check>`,
oracle query `oq_<base58check>` and remote contract `ct_<base58check>`.
- The compilation and typechecking of `letfun` (e.g. `let m(f, xs) = map(f, xs)`) was
not working properly and has been fixed.
### Removed
- `let rec` has been removed from the language, it has never worked.
- The standalone CLI compiler is served in the repo `aeternity/aesophia_cli` and has
been completely removed from `aesophia`.
## [2.1.0] - 2019-04-11
### Added
- Stubs (not yet wired up) for compilation to FATE
- Add functions specific for Calldata decoding
- Support for `Auth.tx_hash`, not available in AEVM until Fortuna release
### Changed
- Improvements to the ACI generator
## [2.0.0] - 2019-03-11
### Added
- Add `Crypto.ecverify` to the compiler.
- Add `Crypto.sha3`, `Crypto.blake2`, `Crypto.sha256`, `String.blake2` and
`String.sha256` to the compiler.
- Add the `bits` type for working with bit fields in Sophia.
- Add Namespaces to Sophia in order to simplify using library contracts, etc.
- Add a missig type check on the `init` function - detects programmer errors earlier.
- Add the ACI (Aeternity Contract Interface) generator.
### Changed
- Use native bit shift operations in builtin functions, reducing gas cost.
- Improve type checking of `record` fields - generates more understandable error messages.
- Improved, more coherent, error messages.
- Simplify calldata creation - instead of passing a compiled contract, simply
pass a (stubbed) contract string.
[Unreleased]: https://github.com/aeternity/aesophia/compare/v4.3.0...HEAD
[4.3.0]: https://github.com/aeternity/aesophia/compare/v4.2.0...v4.3.0
[4.2.0]: https://github.com/aeternity/aesophia/compare/v4.1.0...v4.2.0
[4.1.0]: https://github.com/aeternity/aesophia/compare/v4.0.0...v4.1.0
[4.0.0]: https://github.com/aeternity/aesophia/compare/v3.2.0...v4.0.0
[3.2.0]: https://github.com/aeternity/aesophia/compare/v3.1.0...v3.2.0
[3.1.0]: https://github.com/aeternity/aesophia/compare/v3.0.0...v3.1.0
[3.0.0]: https://github.com/aeternity/aesophia/compare/v2.1.0...v3.0.0
[2.1.0]: https://github.com/aeternity/aesophia/compare/v2.0.0...v2.1.0
[2.0.0]: https://github.com/aeternity/aesophia/tag/v2.0.0
+6 -19
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@@ -1,29 +1,16 @@
# aesophia
This is the __sophia__ compiler for the æternity system which compiles contracts written in __sophia__ to [FATE](https://github.com/aeternity/protocol/blob/master/contracts/fate.md) instructions.
This is the __sophia__ compiler for the æternity system which compiles contracts written in __sophia__ code to the æternity VM code.
The compiler is currently being used three places
- [The command line compiler](https://github.com/aeternity/aesophia_cli)
- [The HTTP compiler](https://github.com/aeternity/aesophia_http)
- In [Aeternity node](https://github.com/aeternity/aeternity) tests
For more information about æternity smart contracts and the sophia language see [Smart Contracts](https://github.com/aeternity/protocol/blob/master/contracts/contracts.md) and the [Sophia Language](https://github.com/aeternity/protocol/blob/master/contracts/sophia.md).
## Documentation
* [Smart Contracts on aeternity Blockchain](https://github.com/aeternity/protocol/blob/master/contracts/contracts.md).
* [Sophia Documentation](docs/sophia.md).
* [Sophia Standard Library](docs/sophia_stdlib.md).
## Versioning
`aesophia` has a version that is only loosely connected to the version of the
Aeternity node - in principle they will share the major version but not
minor/patch version. The `aesophia` compiler version MUST be bumped whenever
there is a change in how byte code is generated, but it MAY also be bumped upon
API changes etc.
It is an OTP application written in Erlang and is by default included in
[the æternity node](https://github.com/aeternity/epoch). However, it can
also be included in other systems to compile contracts coded in sophia which
can then be loaded into the æternity system.
## Interface Modules
The basic modules for interfacing the compiler:
* [aeso_compiler: the Sophia compiler](./docs/aeso_compiler.md)
* [aeso_aci: the ACI interface](./docs/aeso_aci.md)
-156
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@@ -1,156 +0,0 @@
# aeso_aci
### Module
### aeso_aci
The ACI interface encoder and decoder.
### Description
This module provides an interface to generate and convert between
Sophia contracts and a suitable JSON encoding of contract
interface. As yet the interface is very basic.
Encoding this contract:
```
contract Answers =
record state = { a : answers }
type answers() = map(string, int)
stateful function init() = { a = {} }
private function the_answer() = 42
function new_answer(q : string, a : int) : answers() = { [q] = a }
```
generates the following JSON structure representing the contract interface:
``` json
{
"contract": {
"functions": [
{
"arguments": [],
"name": "init",
"returns": "Answers.state",
"stateful": true
},
{
"arguments": [
{
"name": "q",
"type": "string"
},
{
"name": "a",
"type": "int"
}
],
"name": "new_answer",
"returns": {
"map": [
"string",
"int"
]
},
"stateful": false
}
],
"name": "Answers",
"state": {
"record": [
{
"name": "a",
"type": "Answers.answers"
}
]
},
"type_defs": [
{
"name": "answers",
"typedef": {
"map": [
"string",
"int"
]
},
"vars": []
}
]
}
}
```
When that encoding is decoded the following include definition is generated:
```
contract Answers =
record state = {a : Answers.answers}
type answers = map(string, int)
function init : () => Answers.state
function new_answer : (string, int) => map(string, int)
```
### Types
```erlang
-type aci_type() :: json | string.
-type json() :: jsx:json_term().
-type json_text() :: binary().
```
### Exports
#### contract\_interface(aci\_type(), string()) -> {ok, json() | string()} | {error, term()}
Generate the JSON encoding of the interface to a contract. The type definitions
and non-private functions are included in the JSON string.
#### render\_aci\_json(json() | json\_text()) -> string().
Take a JSON encoding of a contract interface and generate a contract interface
that can be included in another contract.
### Example run
This is an example of using the ACI generator from an Erlang shell. The file
called `aci_test.aes` contains the contract in the description from which we
want to generate files `aci_test.json` which is the JSON encoding of the
contract interface and `aci_test.include` which is the contract definition to
be included inside another contract.
``` erlang
1> {ok,Contract} = file:read_file("aci_test.aes").
{ok,<<"contract Answers =\n record state = { a : answers }\n type answers() = map(string, int)\n\n stateful function"...>>}
2> {ok,JsonACI} = aeso_aci:contract_interface(json, Contract).
{ok,[#{contract =>
#{functions =>
[#{arguments => [],name => <<"init">>,
returns => <<"Answers.state">>,stateful => true},
#{arguments =>
[#{name => <<"q">>,type => <<"string">>},
#{name => <<"a">>,type => <<"int">>}],
name => <<"new_answer">>,
returns => #{<<"map">> => [<<"string">>,<<"int">>]},
stateful => false}],
name => <<"Answers">>,
state =>
#{record =>
[#{name => <<"a">>,type => <<"Answers.answers">>}]},
type_defs =>
[#{name => <<"answers">>,
typedef => #{<<"map">> => [<<"string">>,<<"int">>]},
vars => []}]}}]}
3> file:write_file("aci_test.aci", jsx:encode(JsonACI)).
ok
4> {ok,InterfaceStub} = aeso_aci:render_aci_json(JsonACI).
{ok,<<"contract Answers =\n record state = {a : Answers.answers}\n type answers = map(string, int)\n function init "...>>}
5> file:write_file("aci_test.include", InterfaceStub).
ok
6> jsx:prettify(jsx:encode(JsonACI)).
<<"[\n {\n \"contract\": {\n \"functions\": [\n {\n \"arguments\": [],\n \"name\": \"init\",\n "...>>
```
The final call to `jsx:prettify(jsx:encode(JsonACI))` returns the encoding in a
more easily readable form. This is what is shown in the description above.
+3 -3
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@@ -15,7 +15,7 @@ returns the compiled module in a map which can then be loaded.
``` erlang
contract_string() = string() | binary()
contract_map() = #{bytecode => binary(),
compiler_version => binary(),
compiler_version => string(),
contract_souce => string(),
type_info => type_info()}
type_info()
@@ -75,12 +75,12 @@ Types
Get the type representation of a type declaration.
#### version() -> {ok, Version} | {error, term()}
#### version() -> Version
Types
``` erlang
Version = binary()
Version = integer()
```
Get the current version of the Sophia compiler.
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@@ -0,0 +1,15 @@
-record(pmap, {key_t :: aeso_sophia:type(),
val_t :: aeso_sophia:type(),
parent :: none | non_neg_integer(),
size = 0 :: non_neg_integer(),
data :: #{aeso_heap:binary_value() => aeso_heap:binary_value() | tombstone}
| stored}).
-record(maps, { maps = #{} :: #{ non_neg_integer() => #pmap{} }
, next_id = 0 :: non_neg_integer() }).
-record(heap, { maps :: #maps{},
offset :: aeso_heap:offset(),
heap :: binary() | #{non_neg_integer() => non_neg_integer()} }).
-183
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@@ -1,183 +0,0 @@
namespace Frac =
private function gcd(a : int, b : int) =
if (b == 0) a else gcd(b, a mod b)
private function abs_int(a : int) = if (a < 0) -a else a
datatype frac = Pos(int, int) | Zero | Neg(int, int)
/** Checks if the internal representation is correct.
* Numerator and denominator must be positive.
* Exposed for debug purposes
*/
function is_sane(f : frac) : bool = switch(f)
Pos(n, d) => n > 0 && d > 0
Zero => true
Neg(n, d) => n > 0 && d > 0
function num(f : frac) : int = switch(f)
Pos(n, _) => n
Neg(n, _) => -n
Zero => 0
function den(f : frac) : int = switch(f)
Pos(_, d) => d
Neg(_, d) => d
Zero => 1
function to_pair(f : frac) : int * int = switch(f)
Pos(n, d) => (n, d)
Neg(n, d) => (-n, d)
Zero => (0, 1)
function sign(f : frac) : int = switch(f)
Pos(_, _) => 1
Neg(_, _) => -1
Zero => 0
function to_str(f : frac) : string = switch(f)
Pos(n, d) => String.concat(Int.to_str(n), if (d == 1) "" else String.concat("/", Int.to_str(d)))
Neg(n, d) => String.concat("-", to_str(Pos(n, d)))
Zero => "0"
/** Reduce fraction to normal form
*/
function simplify(f : frac) : frac =
switch(f)
Neg(n, d) =>
let cd = gcd(n, d)
Neg(n / cd, d / cd)
Zero => Zero
Pos(n, d) =>
let cd = gcd(n, d)
Pos(n / cd, d / cd)
/** Integer to rational division
*/
function make_frac(n : int, d : int) : frac =
if (d == 0) abort("Zero denominator")
elif (n == 0) Zero
elif ((n < 0) == (d < 0)) simplify(Pos(abs_int(n), abs_int(d)))
else simplify(Neg(abs_int(n), abs_int(d)))
function one() : frac = Pos(1, 1)
function zero() : frac = Zero
function eq(a : frac, b : frac) : bool =
let (na, da) = to_pair(a)
let (nb, db) = to_pair(b)
(na == nb && da == db) || na * db == nb * da // they are more likely to be normalized
function neq(a : frac, b : frac) : bool =
let (na, da) = to_pair(a)
let (nb, db) = to_pair(b)
(na != nb || da != db) && na * db != nb * da
function geq(a : frac, b : frac) : bool = num(a) * den(b) >= num(b) * den(a)
function leq(a : frac, b : frac) : bool = num(a) * den(b) =< num(b) * den(a)
function gt(a : frac, b : frac) : bool = num(a) * den(b) > num(b) * den(a)
function lt(a : frac, b : frac) : bool = num(a) * den(b) < num(b) * den(a)
function min(a : frac, b : frac) : frac = if (leq(a, b)) a else b
function max(a : frac, b : frac) : frac = if (geq(a, b)) a else b
function abs(f : frac) : frac = switch(f)
Pos(n, d) => Pos(n, d)
Zero => Zero
Neg(n, d) => Pos(n, d)
function from_int(n : int) : frac =
if (n > 0) Pos(n, 1)
elif (n < 0) Neg(-n, 1)
else Zero
function floor(f : frac) : int = switch(f)
Pos(n, d) => n / d
Zero => 0
Neg(n, d) => -(n + d - 1) / d
function ceil(f : frac) : int = switch(f)
Pos(n, d) => (n + d - 1) / d
Zero => 0
Neg(n, d) => -n / d
function round_to_zero(f : frac) : int = switch(f)
Pos(n, d) => n / d
Zero => 0
Neg(n, d) => -n / d
function round_from_zero(f : frac) : int = switch(f)
Pos(n, d) => (n + d - 1) / d
Zero => 0
Neg(n, d) => -(n + d - 1) / d
/** Round towards nearest integer. If two integers are in the same
* distance, choose the even one.
*/
function round(f : frac) : int =
let fl = floor(f)
let cl = ceil(f)
let dif_fl = abs(sub(f, from_int(fl)))
let dif_cl = abs(sub(f, from_int(cl)))
if (gt(dif_fl, dif_cl)) cl
elif (gt(dif_cl, dif_fl)) fl
elif (fl mod 2 == 0) fl
else cl
function add(a : frac, b : frac) : frac =
let (na, da) = to_pair(a)
let (nb, db) = to_pair(b)
if (da == db) make_frac(na + nb, da)
else make_frac(na * db + nb * da, da * db)
function neg(a : frac) : frac = switch(a)
Neg(n, d) => Pos(n, d)
Zero => Zero
Pos(n, d) => Neg(n, d)
function sub(a : frac, b : frac) : frac = add(a, neg(b))
function inv(a : frac) : frac = switch(a)
Neg(n, d) => Neg(d, n)
Zero => abort("Inversion of zero")
Pos(n, d) => Pos(d, n)
function mul(a : frac, b : frac) : frac = make_frac(num(a) * num(b), den(a) * den(b))
function div(a : frac, b : frac) : frac = switch(b)
Neg(n, d) => mul(a, Neg(d, n))
Zero => abort("Division by zero")
Pos(n, d) => mul(a, Pos(d, n))
/** `b` to the power of `e`
*/
function int_exp(b : frac, e : int) : frac =
if (sign(b) == 0 && e == 0) abort("Zero to the zero exponentation")
elif (e < 0) inv(int_exp_(b, -e))
else int_exp_(b, e)
private function int_exp_(b : frac, e : int) =
if (e == 0) from_int(1)
elif (e == 1) b
else
let half = int_exp_(b, e / 2)
if (e mod 2 == 1) mul(mul(half, half), b)
else mul(half, half)
/** Reduces the fraction's in-memory size by dividing its components by two until the
* the error is bigger than `loss` value
*/
function optimize(f : frac, loss : frac) : frac =
require(geq(loss, Zero), "negative loss optimize")
let s = sign(f)
mul(from_int(s), run_optimize(abs(f), abs(f), loss))
private function run_optimize(orig : frac, f : frac, loss : frac) : frac =
let (n, d) = to_pair(f)
let t = make_frac((n+1)/2, (d+1)/2)
if(gt(abs(sub(t, orig)), loss)) f
elif (eq(t, f)) f
else run_optimize(orig, t, loss)
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namespace Func =
function id(x : 'a) : 'a = x
function const(x : 'a) : 'b => 'a = (y) => x
function flip(f : ('a, 'b) => 'c) : ('b, 'a) => 'c = (b, a) => f(a, b)
function comp(f : 'b => 'c, g : 'a => 'b) : 'a => 'c = (x) => f(g(x))
function pipe(f : 'a => 'b, g : 'b => 'c) : 'a => 'c = (x) => g(f(x))
function rapply(x : 'a, f : 'a => 'b) : 'b = f(x)
/** The Z combinator - replacement for local and anonymous recursion.
*/
function recur(f : ('arg => 'res, 'arg) => 'res) : 'arg => 'res =
(x) => f(recur(f), x)
/** n-times composition with itself
*/
function iter(n : int, f : 'a => 'a) : 'a => 'a = iter_(n, f, (x) => x)
private function iter_(n : int, f : 'a => 'a, acc : 'a => 'a) : 'a => 'a =
if(n == 0) acc
elif(n == 1) comp(f, acc)
else iter_(n / 2, comp(f, f), if(n mod 2 == 0) acc else comp(f, acc))
/** Turns an ugly, bad and disgusting arity-n function into
* a beautiful and sweet function taking the first argument
* and returning a function watiting for the remaining ones
* in the same manner
*/
function curry2(f : ('a, 'b) => 'x) : 'a => ('b => 'x) =
(x) => (y) => f(x, y)
function curry3(f : ('a, 'b, 'c) => 'x) : 'a => ('b => ('c => 'x)) =
(x) => (y) => (z) => f(x, y, z)
function curry4(f : ('a, 'b, 'c, 'd) => 'x) : 'a => ('b => ('c => ('d => 'x))) =
(x) => (y) => (z) => (w) => f(x, y, z, w)
function curry5(f : ('a, 'b, 'c, 'd, 'e) => 'x) : 'a => ('b => ('c => ('d => ('e => 'x)))) =
(x) => (y) => (z) => (w) => (q) => f(x, y, z, w, q)
/** Opposite of curry. Gross
*/
function uncurry2(f : 'a => ('b => 'x)) : ('a, 'b) => 'x =
(x, y) => f(x)(y)
function uncurry3(f : 'a => ('b => ('c => 'x))) : ('a, 'b, 'c) => 'x =
(x, y, z) => f(x)(y)(z)
function uncurry4(f : 'a => ('b => ('c => ('d => 'x)))) : ('a, 'b, 'c, 'd) => 'x =
(x, y, z, w) => f(x)(y)(z)(w)
function uncurry5(f : 'a => ('b => ('c => ('d => ('e => 'x))))) : ('a, 'b, 'c, 'd, 'e) => 'x =
(x, y, z, w, q) => f(x)(y)(z)(w)(q)
/** Turns an arity-n function into a function taking n-tuple
*/
function tuplify2(f : ('a, 'b) => 'x) : (('a * 'b)) => 'x =
(t) => switch(t)
(x, y) => f(x, y)
function tuplify3(f : ('a, 'b, 'c) => 'x) : 'a * 'b * 'c => 'x =
(t) => switch(t)
(x, y, z) => f(x, y, z)
function tuplify4(f : ('a, 'b, 'c, 'd) => 'x) : 'a * 'b * 'c * 'd => 'x =
(t) => switch(t)
(x, y, z, w) => f(x, y, z, w)
function tuplify5(f : ('a, 'b, 'c, 'd, 'e) => 'x) : 'a * 'b * 'c * 'd * 'e => 'x =
(t) => switch(t)
(x, y, z, w, q) => f(x, y, z, w, q)
/** Opposite of tuplify
*/
function untuplify2(f : 'a * 'b => 'x) : ('a, 'b) => 'x =
(x, y) => f((x, y))
function untuplify3(f : 'a * 'b * 'c => 'x) : ('a, 'b, 'c) => 'x =
(x, y, z) => f((x, y, z))
function untuplify4(f : 'a * 'b * 'c * 'd => 'x) : ('a, 'b, 'c, 'd) => 'x =
(x, y, z, w) => f((x, y, z, w))
function untuplify5(f : 'a * 'b * 'c * 'd * 'e => 'x) : ('a, 'b, 'c, 'd, 'e) => 'x =
(x, y, z, w, q) => f((x, y, z, w, q))
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include "ListInternal.aes"
namespace List =
function is_empty(l : list('a)) : bool = switch(l)
[] => true
_ => false
function first(l : list('a)) : option('a) = switch(l)
[] => None
h::_ => Some(h)
function tail(l : list('a)) : option(list('a)) = switch(l)
[] => None
_::t => Some(t)
function last(l : list('a)) : option('a) = switch(l)
[] => None
[x] => Some(x)
_::t => last(t)
function contains(e : 'a, l : list('a)) = switch(l)
[] => false
h::t => h == e || contains(e, t)
/** Finds first element of `l` fulfilling predicate `p` as `Some` or `None`
* if no such element exists.
*/
function find(p : 'a => bool, l : list('a)) : option('a) = switch(l)
[] => None
h::t => if(p(h)) Some(h) else find(p, t)
/** Returns list of all indices of elements from `l` that fulfill the predicate `p`.
*/
function find_indices(p : 'a => bool, l : list('a)) : list(int) = find_indices_(p, l, 0, [])
private function find_indices_( p : 'a => bool
, l : list('a)
, n : int
, acc : list(int)
) : list(int) = switch(l)
[] => reverse(acc)
h::t => find_indices_(p, t, n+1, if(p(h)) n::acc else acc)
function nth(n : int, l : list('a)) : option('a) =
switch(l)
[] => None
h::t => if(n == 0) Some(h) else nth(n-1, t)
/* Unsafe version of `nth` */
function get(n : int, l : list('a)) : 'a =
switch(l)
[] => abort(if(n < 0) "Negative index get" else "Out of index get")
h::t => if(n == 0) h else get(n-1, t)
function length(l : list('a)) : int = length_(l, 0)
private function length_(l : list('a), acc : int) : int = switch(l)
[] => acc
_::t => length_(t, acc + 1)
/** Creates an ascending sequence of all integer numbers
* between `a` and `b` (including `a` and `b`)
*/
function from_to(a : int, b : int) : list(int) = [a..b]
/** Creates an ascending sequence of integer numbers betweeen
* `a` and `b` jumping by given `step`. Includes `a` and takes
* `b` only if `(b - a) mod step == 0`. `step` should be bigger than 0.
*/
function from_to_step(a : int, b : int, s : int) : list(int) = from_to_step_(a, b, s, [])
private function from_to_step_(a, b, s, acc) =
if (a > b) reverse(acc) else from_to_step_(a + s, b, s, a :: acc)
/** Unsafe. Replaces `n`th element of `l` with `e`. Crashes on over/underflow
*/
function replace_at(n : int, e : 'a, l : list('a)) : list('a) =
if(n<0) abort("insert_at underflow") else replace_at_(n, e, l, [])
private function replace_at_(n : int, e : 'a, l : list('a), acc : list('a)) : list('a) =
switch(l)
[] => abort("replace_at overflow")
h::t => if (n == 0) reverse(e::acc) ++ t
else replace_at_(n-1, e, t, h::acc)
/** Unsafe. Adds `e` to `l` to be its `n`th element. Crashes on over/underflow
*/
function insert_at(n : int, e : 'a, l : list('a)) : list('a) =
if(n<0) abort("insert_at underflow") else insert_at_(n, e, l, [])
private function insert_at_(n : int, e : 'a, l : list('a), acc : list('a)) : list('a) =
if (n == 0) reverse(e::acc) ++ l
else switch(l)
[] => abort("insert_at overflow")
h::t => insert_at_(n-1, e, t, h::acc)
/** Assuming that cmp represents `<` comparison, inserts `x` before
* the first element in the list `l` which is greater than it
*/
function insert_by(cmp : (('a, 'a) => bool), x : 'a, l : list('a)) : list('a) =
insert_by_(cmp, x, l, [])
private function insert_by_(cmp : (('a, 'a) => bool), x : 'a, l : list('a), acc : list('a)) : list('a) =
switch(l)
[] => reverse(x::acc)
h::t =>
if(cmp(x, h)) // x < h
reverse(acc) ++ (x::l)
else
insert_by_(cmp, x, t, h::acc)
function foldr(cons : ('a, 'b) => 'b, nil : 'b, l : list('a)) : 'b = switch(l)
[] => nil
h::t => cons(h, foldr(cons, nil, t))
function foldl(rcons : ('b, 'a) => 'b, acc : 'b, l : list('a)) : 'b = switch(l)
[] => acc
h::t => foldl(rcons, rcons(acc, h), t)
function foreach(l : list('a), f : 'a => unit) : unit =
switch(l)
[] => ()
e::l' =>
f(e)
foreach(l', f)
function reverse(l : list('a)) : list('a) = foldl((lst, el) => el :: lst, [], l)
function map(f : 'a => 'b, l : list('a)) : list('b) = map_(f, l, [])
private function map_(f : 'a => 'b, l : list('a), acc : list('b)) : list('b) = switch(l)
[] => reverse(acc)
h::t => map_(f, t, f(h)::acc)
/** Effectively composition of `map` and `flatten`
*/
function flat_map(f : 'a => list('b), l : list('a)) : list('b) =
ListInternal.flat_map(f, l)
function filter(p : 'a => bool, l : list('a)) : list('a) = filter_(p, l, [])
private function filter_(p : 'a => bool, l : list('a), acc : list('a)) : list('a) = switch(l)
[] => reverse(acc)
h::t => filter_(p, t, if(p(h)) h::acc else acc)
/** Take `n` first elements
*/
function take(n : int, l : list('a)) : list('a) =
if(n < 0) abort("Take negative number of elements") else take_(n, l, [])
private function take_(n : int, l : list('a), acc : list('a)) : list('a) =
if(n == 0) reverse(acc)
else switch(l)
[] => reverse(acc)
h::t => take_(n-1, t, h::acc)
/** Drop `n` first elements
*/
function drop(n : int, l : list('a)) : list('a) =
if(n < 0) abort("Drop negative number of elements")
elif (n == 0) l
else switch(l)
[] => []
h::t => drop(n-1, t)
/** Get the longest prefix of a list in which every element
* matches predicate `p`
*/
function take_while(p : 'a => bool, l : list('a)) : list('a) = take_while_(p, l, [])
private function take_while_(p : 'a => bool, l : list('a), acc : list('a)) : list('a) = switch(l)
[] => reverse(acc)
h::t => if(p(h)) take_while_(p, t, h::acc) else reverse(acc)
/** Drop elements from `l` until `p` holds
*/
function drop_while(p : 'a => bool, l : list('a)) : list('a) = switch(l)
[] => []
h::t => if(p(h)) drop_while(p, t) else l
/** Splits list into two lists of elements that respectively
* match and don't match predicate `p`
*/
function partition(p : 'a => bool, l : list('a)) : (list('a) * list('a)) = partition_(p, l, [], [])
private function partition_( p : 'a => bool
, l : list('a)
, acc_t : list('a)
, acc_f : list('a)
) : (list('a) * list('a)) = switch(l)
[] => (reverse(acc_t), reverse(acc_f))
h::t => if(p(h)) partition_(p, t, h::acc_t, acc_f) else partition_(p, t, acc_t, h::acc_f)
/** Flattens list of lists into a single list
*/
function flatten(ll : list(list('a))) : list('a) = foldr((l1, l2) => l1 ++ l2, [], ll)
function all(p : 'a => bool, l : list('a)) : bool = switch(l)
[] => true
h::t => if(p(h)) all(p, t) else false
function any(p : 'a => bool, l : list('a)) : bool = switch(l)
[] => false
h::t => if(p(h)) true else any(p, t)
function sum(l : list(int)) : int = foldl ((a, b) => a + b, 0, l)
function product(l : list(int)) : int = foldl((a, b) => a * b, 1, l)
/** Zips two list by applying bimapping function on respective elements.
* Drops longer tail.
*/
function zip_with(f : ('a, 'b) => 'c, l1 : list('a), l2 : list('b)) : list('c) = zip_with_(f, l1, l2, [])
private function zip_with_( f : ('a, 'b) => 'c
, l1 : list('a)
, l2 : list('b)
, acc : list('c)
) : list('c) = switch ((l1, l2))
(h1::t1, h2::t2) => zip_with_(f, t1, t2, f(h1, h2)::acc)
_ => reverse(acc)
/** Zips two lists into list of pairs. Drops longer tail.
*/
function zip(l1 : list('a), l2 : list('b)) : list('a * 'b) = zip_with((a, b) => (a, b), l1, l2)
function unzip(l : list('a * 'b)) : list('a) * list('b) = unzip_(l, [], [])
private function unzip_( l : list('a * 'b)
, acc_l : list('a)
, acc_r : list('b)
) : (list('a) * list('b)) = switch(l)
[] => (reverse(acc_l), reverse(acc_r))
(left, right)::t => unzip_(t, left::acc_l, right::acc_r)
/** Merges two sorted lists using `lt` comparator
*/
function
merge : (('a, 'a) => bool, list('a), list('a)) => list('a)
merge(lt, x::xs, y::ys) =
if(lt(x, y)) x::merge(lt, xs, y::ys)
else y::merge(lt, x::xs, ys)
merge(_, [], ys) = ys
merge(_, xs, []) = xs
/** Mergesort inspired by
* https://hackage.haskell.org/package/base-4.14.1.0/docs/src/Data.OldList.html#sort
*/
function
sort : (('a, 'a) => bool, list('a)) => list('a)
sort(_, []) = []
sort(lt, l) =
merge_all(lt, monotonic_subs(lt, l))
/** Splits list into compound increasing sublists
*/
private function
monotonic_subs : (('a, 'a) => bool, list('a)) => list(list('a))
monotonic_subs(lt, x::y::rest) =
if(lt(y, x)) desc(lt, y, [x], rest)
else asc(lt, y, [x], rest)
monotonic_subs(_, l) = [l]
/** Extracts the longest descending prefix and proceeds with monotonic split
*/
private function
desc : (('a, 'a) => bool, 'a, list('a), list('a)) => list(list('a))
desc(lt, x, acc, h::t) =
if(lt(x, h)) (x::acc) :: monotonic_subs(lt, h::t)
else desc(lt, h, x::acc, t)
desc(_, x, acc, []) = [x::acc]
/** Extracts the longest ascending prefix and proceeds with monotonic split
*/
private function
asc : (('a, 'a) => bool, 'a, list('a), list('a)) => list(list('a))
asc(lt, x, acc, h::t) =
if(lt(h, x)) List.reverse(x::acc) :: monotonic_subs(lt, h::t)
else asc(lt, h, x::acc, t)
asc(_, x, acc, []) = [List.reverse(x::acc)]
/** Merges list of sorted lists
*/
private function
merge_all : (('a, 'a) => bool, list(list('a))) => list('a)
merge_all(_, [part]) = part
merge_all(lt, parts) = merge_all(lt, merge_pairs(lt, parts))
/** Single round of `merge_all` pairs of lists in a list of list
*/
private function
merge_pairs : (('a, 'a) => bool, list(list('a))) => list(list('a))
merge_pairs(lt, x::y::rest) = merge(lt, x, y) :: merge_pairs(lt, rest)
merge_pairs(_, l) = l
/** Puts `delim` between every two members of the list
*/
function intersperse(delim : 'a, l : list('a)) : list('a) = intersperse_(delim, l, [])
private function intersperse_(delim : 'a, l : list('a), acc : list('a)) : list('a) = switch(l)
[] => reverse(acc)
[e] => reverse(e::acc)
h::t => intersperse_(delim, t, delim::h::acc)
/** Effectively a zip with an infinite sequence of natural numbers
*/
function enumerate(l : list('a)) : list(int * 'a) = enumerate_(l, 0, [])
private function enumerate_(l : list('a), n : int, acc : list(int * 'a)) : list(int * 'a) = switch(l)
[] => reverse(acc)
h::t => enumerate_(t, n + 1, (n, h)::acc)
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namespace ListInternal =
// -- Flatmap ----------------------------------------------------------------
function flat_map(f : 'a => list('b), xs : list('a)) : list('b) =
switch(xs)
[] => []
x :: xs => f(x) ++ flat_map(f, xs)
// -- From..to ---------------------------------------------------------------
function from_to(a : int, b : int) : list(int) = from_to_(a, b, [])
private function from_to_(a, b, acc) =
if (a > b) acc else from_to_(a, b - 1, b :: acc)
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include "List.aes"
namespace Option =
function is_none(o : option('a)) : bool = switch(o)
None => true
Some(_) => false
function is_some(o : option('a)) : bool = switch(o)
None => false
Some(_) => true
/** Catamorphism on `option`. Also known as inlined pattern matching.
*/
function match(n : 'b, s : 'a => 'b, o : option('a)) : 'b = switch(o)
None => n
Some(x) => s(x)
/** Escape option providing default if `None`
*/
function default(def : 'a, o : option('a)) : 'a = match(def, (x) => x, o)
/** Assume it is `Some`
*/
function force(o : option('a)) : 'a = switch(o)
None => abort("Forced None value")
Some(x) => x
function contains(e : 'a, o : option('a)) = o == Some(e)
function on_elem(o : option('a), f : 'a => unit) : unit = match((), f, o)
function map(f : 'a => 'b, o : option('a)) : option('b) = switch(o)
None => None
Some(x) => Some(f(x))
function map2(f : ('a, 'b) => 'c
, o1 : option('a)
, o2 : option('b)
) : option('c) = switch((o1, o2))
(Some(x1), Some(x2)) => Some(f(x1, x2))
_ => None
function map3( f : ('a, 'b, 'c) => 'd
, o1 : option('a)
, o2 : option('b)
, o3 : option('c)
) : option('d) = switch((o1, o2, o3))
(Some(x1), Some(x2), Some(x3)) => Some(f(x1, x2, x3))
_ => None
/** Like `map`, but the function is in `option`
*/
function app_over(f : option ('a => 'b), o : option('a)) : option('b) = switch((f, o))
(Some(ff), Some(xx)) => Some(ff(xx))
_ => None
/** Monadic bind
*/
function flat_map(f : 'a => option('b), o : option('a)) : option('b) = switch(o)
None => None
Some(x) => f(x)
function to_list(o : option('a)) : list('a) = switch(o)
None => []
Some(x) => [x]
/** Turns list of options into a list of elements that are under `Some`s.
* Safe.
*/
function filter_options(l : list(option('a))) : list('a) = filter_options_(l, [])
private function filter_options_(l : list (option('a)), acc : list('a)) : list('a) = switch(l)
[] => List.reverse(acc)
None::t => filter_options_(t, acc)
Some(x)::t => filter_options_(t, x::acc)
/** Just like `filter_options` but requires all elements to be `Some` and returns
* None if any of them is not
*/
function seq_options(l : list (option('a))) : option (list('a)) = seq_options_(l, [])
private function seq_options_(l : list (option('a)), acc : list('a)) : option(list('a)) = switch(l)
[] => Some(List.reverse(acc))
None::t => None
Some(x)::t => seq_options_(t, x::acc)
/** Choose `Some` out of two if possible
*/
function choose(o1 : option('a), o2 : option('a)) : option('a) =
if(is_some(o1)) o1 else o2
/** Choose `Some` from list of options if possible
*/
function choose_first(l : list(option('a))) : option('a) = switch(l)
[] => None
None::t => choose_first(t)
Some(x)::_ => Some(x)
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@@ -1,26 +0,0 @@
namespace Pair =
function fst(t : ('a * 'b)) : 'a = switch(t)
(x, _) => x
function snd(t : ('a * 'b)) : 'b = switch(t)
(_, y) => y
/** Map over first
*/
function map1(f : 'a => 'c, t : ('a * 'b)) : ('c * 'b) = switch(t)
(x, y) => (f(x), y)
/** Map over second
*/
function map2(f : 'b => 'c, t : ('a * 'b)) : ('a * 'c) = switch(t)
(x, y) => (x, f(y))
/** Map over both
*/
function bimap(f : 'a => 'c, g : 'b => 'd, t : ('a * 'b)) : ('c * 'd) = switch(t)
(x, y) => (f(x), g(y))
function swap(t : ('a * 'b)) : ('b * 'a) = switch(t)
(x, y) => (y, x)
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@@ -1,49 +0,0 @@
namespace Triple =
function fst(t : ('a * 'b * 'c)) : 'a = switch(t)
(x, _, _) => x
function snd(t : ('a * 'b * 'c)) : 'b = switch(t)
(_, y, _) => y
function thd(t : ('a * 'b * 'c)) : 'c = switch(t)
(_, _, z) => z
/** Map over first
*/
function map1(f : 'a => 'm, t : ('a * 'b * 'c)) : ('m * 'b * 'c) = switch(t)
(x, y, z) => (f(x), y, z)
/** Map over second
*/
function map2(f : 'b => 'm, t : ('a * 'b * 'c)) : ('a * 'm * 'c) = switch(t)
(x, y, z) => (x, f(y), z)
/** Map over third
*/
function map3(f : 'c => 'm, t : ('a * 'b * 'c)) : ('a * 'b * 'm) = switch(t)
(x, y, z) => (x, y, f(z))
/** Map over all elements
*/
function trimap( f : 'a => 'x
, g : 'b => 'y
, h : 'c => 'z
, t : ('a * 'b * 'c)
) : ('x * 'y * 'z) = switch(t)
(x, y, z) => (f(x), g(y), h(z))
function swap(t : ('a * 'b * 'c)) : ('c * 'b * 'a) = switch(t)
(x, y, z) => (z, y, x)
/** Right rotation
*/
function rotr(t : ('a * 'b * 'c)) : ('c * 'a * 'b) = switch(t)
(x, y, z) => (z, x, y)
/** Left rotation
*/
function rotl(t : ('a * 'b * 'c)) : ('b * 'c * 'a) = switch(t)
(x, y, z) => (y, z, x)
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%%% File : aeso_heap_eqc.erl
%%% Author : Ulf Norell
%%% Description :
%%% Created : 28 May 2018 by Ulf Norell
-module(aeso_heap_eqc).
-compile([export_all, nowarn_export_all]).
-include_lib("eqc/include/eqc.hrl").
-define(SANDBOX(Code), sandbox(fun() -> Code end)).
sandbox(Code) ->
Parent = self(),
Tag = make_ref(),
{Pid, Ref} = spawn_monitor(fun() -> Parent ! {Tag, Code()} end),
receive
{Tag, Res} -> erlang:demonitor(Ref, [flush]), {ok, Res};
{'DOWN', Ref, process, Pid, Reason} -> {error, Reason}
after 100 ->
exit(Pid, kill),
{error, loop}
end.
prop_from_binary() ->
?FORALL({T, Bin}, {type(), blob()},
begin
Tag = fun(X) when is_atom(X) -> X; (X) when is_tuple(X) -> element(1, X) end,
case ?SANDBOX(aeso_heap:from_binary(T, Bin)) of
{ok, Res} -> collect({Tag(T), element(1, Res)}, true);
Err -> equals(Err, {ok, '_'})
end end).
type() -> ?LET(Depth, choose(0, 2), type(Depth, true)).
type(Depth, TypeRep) ->
oneof(
[ elements([word, string] ++ [typerep || TypeRep]) ] ++
[ ?LETSHRINK([T], [type(Depth - 1, TypeRep)], {list, T}) || Depth > 0 ] ++
[ ?LETSHRINK([T], [type(Depth - 1, TypeRep)], {option, T}) || Depth > 0 ] ++
[ ?LETSHRINK(Ts, list(type(Depth - 1, TypeRep)), {tuple, Ts}) || Depth > 0 ] ++
[ ?LETSHRINK([K, V], vector(2, type(Depth - 1, TypeRep)), {map, K, V}) || Depth > 0 ] ++
[]
).
blob() ->
?LET(Blobs, list(oneof([ ?LET(Ws, words(), return(from_words(Ws)))
, binary() ])),
return(list_to_binary(Blobs))).
words() -> list(word()).
word() ->
frequency(
[ {4, ?LET(N, nat(), 32 * N)}
, {1, choose(0, 320)}
, {2, -1}
, {2, elements(["foo", "zzzzz"])} ]).
from_words(Ws) ->
<< <<(from_word(W))/binary>> || W <- Ws >>.
from_word(W) when is_integer(W) ->
<<W:256>>;
from_word(S) when is_list(S) ->
Len = length(S),
Bin = <<(list_to_binary(S))/binary, 0:(32 - Len)/unit:8>>,
<<Len:256, Bin/binary>>.
typerep() -> ?LET(Depth, choose(0, 2),
?LET(T, type(Depth, true), return(typerep(T)))).
typerep(word) -> word;
typerep(string) -> string;
typerep(typerep) -> typerep;
typerep({tuple, Ts}) -> {tuple, typerep(Ts)};
typerep({list, T}) -> {list, typerep(T)};
typerep({variant, Cs}) -> {variant, typerep(Cs)};
typerep({option, T}) -> {variant, [[], [typerep(T)]]};
typerep({map, K, V}) -> {list, typerep({tuple, [K, V]})};
typerep([]) -> [];
typerep([T | Ts]) -> [typerep(T) | typerep(Ts)].
value(word) ->
<<N:256>> = <<(-1):256>>,
choose(0, N);
value(string) ->
?LET(N, choose(0, 128), binary(N));
value(typerep) ->
typerep();
value({list, T}) ->
list(value(T));
value({option, T}) ->
weighted_default({1, none}, {3, {some, value(T)}});
value({tuple, Ts}) ->
?LET(Vs, [ value(T) || T <- Ts ], list_to_tuple(Vs));
value({map, K, V}) ->
map(value(K), value(V));
value({variant, Cs}) ->
?LET(I, choose(0, length(Cs) - 1),
{variant, I, [ value(T) || T <- lists:nth(I + 1, Cs) ]}).
typed_val() ->
?LET(T, type(), ?LET(V, value(T), return({T, V}))).
prop_roundtrip() ->
?FORALL(T, type(),
?FORALL(V, value(T),
?FORALL(B, choose(0, 4),
equals(aeso_heap:from_binary(T, aeso_heap:to_binary(V, B * 32), B * 32),
{ok, V})))).
+59
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@@ -0,0 +1,59 @@
%%% File : aeso_utils_eqc.erl
%%% Author : Ulf Norell
%%% Description :
%%% Created : 2 Jul 2018 by Ulf Norell
-module(aeso_utils_eqc).
-compile([export_all, nowarn_export_all]).
-include_lib("eqc/include/eqc.hrl").
%% QuickCheck property
graph() ->
?LET(M, map(choose(0, 10), list(choose(0, 10))),
return(complete(M))).
complete(G) ->
Is = lists:usort(lists:concat(maps:values(G))),
maps:merge(maps:from_list([ {I, []} || I <- Is ]), G).
prop_scc() ->
?FORALL(G, graph(),
begin
SCCs = aeso_utils:scc(G),
BadSCC = fun({acyclic, I}) -> reachable_from(G, I, I);
({cyclic, Is}) -> [] /= [ {I, J} || I <- Is, J <- Is, not reachable_from(G, I, J) ]
end,
ToList = fun({acyclic, I}) -> [I];
({cyclic, Is}) -> Is end,
?WHENFAIL(eqc:format("SCCs = ~p\n", [SCCs]),
conjunction(
[ {elems, equals(lists:sort(lists:flatmap(ToList, SCCs)), lists:sort(maps:keys(G)))}
, {sorted, equals([], [ {I, J} || {I, Js} <- maps:to_list(G),
J <- Js,
find_component(I, SCCs) < find_component(J, SCCs) ])}
, {precise, equals([], [ SCC || SCC <- SCCs, BadSCC(SCC) ])}
]))
end).
reachable_from(Graph, I, J) ->
reachable_from1(Graph, maps:get(I, Graph, []), J).
reachable_from1(_, [], _) -> false;
reachable_from1(_, [I | _], I) -> true;
reachable_from1(Graph, [I | Is], J) ->
case maps:get(I, Graph, undefined) of
undefined -> reachable_from1(Graph, Is, J);
Js -> reachable_from1(maps:remove(I, Graph), Js ++ Is, J)
end.
find_component(X, SCCs) ->
ISCCs = lists:zip(SCCs, lists:seq(1, length(SCCs))),
HasX = fun({acyclic, Y}) -> X == Y;
({cyclic, Ys}) -> lists:member(X, Ys) end,
case [ I || {SCC, I} <- ISCCs, HasX(SCC) ] of
[I | _] -> I;
[] -> false
end.
+24 -14
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@@ -1,24 +1,34 @@
%% -*- mode: erlang; indent-tabs-mode: nil -*-
{erl_opts, [debug_info]}.
{deps, [ {aebytecode, {git, "https://github.com/aeternity/aebytecode.git", {ref,"4f4d6d3"}}}
{deps, [ {aebytecode, {git, "https://github.com/aeternity/aebytecode.git",
{ref,"720510a"}}}
, {getopt, "1.0.1"}
, {eblake2, "1.0.0"}
, {jsx, {git, "https://github.com/talentdeficit/jsx.git",
{tag, "2.8.0"}}}
]}.
{profiles, [ {eqc, [{erl_opts, [{parse_transform, eqc_cover}]},
{deps, [{eqc_ci, "1.0.0"}]},
{extra_src_dirs, ["quickcheck"]} %% May not be called eqc!
]}
]}.
{escript_incl_apps, [aesophia, aebytecode, getopt]}.
{escript_main_app, aesophia}.
{escript_name, aesophia}.
{escript_emu_args, "%%! +sbtu +A0\n"}.
{provider_hooks, [{post, [{compile, escriptize}]}]}.
{post_hooks, [{"(linux|darwin|solaris|freebsd|netbsd|openbsd)",
escriptize,
"cp \"$REBAR_BUILD_DIR/bin/aesophia\" ./aesophia"},
{"win32",
escriptize,
"robocopy \"%REBAR_BUILD_DIR%/bin/\" ./ aesophia* "
"/njs /njh /nfl /ndl & exit /b 0"} % silence things
]}.
{dialyzer, [
{warnings, [unknown]},
{plt_apps, all_deps},
{base_plt_apps, [erts, kernel, stdlib, crypto, mnesia]}
]}.
{relx, [{release, {aesophia, "4.3.0"},
[aesophia, aebytecode, getopt]},
{dev_mode, true},
{include_erts, false},
{extended_start_script, true}]}.
+2 -20
View File
@@ -1,28 +1,10 @@
{"1.1.0",
[{<<"aebytecode">>,
{git,"https://github.com/aeternity/aebytecode.git",
{ref,"4f4d6d30cd2c46b3830454d650a424d513f69134"}},
{ref,"720510a24de32c9bad6486f34ca7babde124bf1e"}},
0},
{<<"aeserialization">>,
{git,"https://github.com/aeternity/aeserialization.git",
{ref,"47aaa8f5434b365c50a35bfd1490340b19241991"}},
1},
{<<"base58">>,
{git,"https://github.com/aeternity/erl-base58.git",
{ref,"60a335668a60328a29f9731b67c4a0e9e3d50ab6"}},
2},
{<<"eblake2">>,{pkg,<<"eblake2">>,<<"1.0.0">>},0},
{<<"enacl">>,
{git,"https://github.com/aeternity/enacl.git",
{ref,"26180f42c0b3a450905d2efd8bc7fd5fd9cece75"}},
2},
{<<"getopt">>,{pkg,<<"getopt">>,<<"1.0.1">>},0},
{<<"jsx">>,
{git,"https://github.com/talentdeficit/jsx.git",
{ref,"3074d4865b3385a050badf7828ad31490d860df5"}},
0}]}.
{<<"getopt">>,{pkg,<<"getopt">>,<<"1.0.1">>},0}]}.
[
{pkg_hash,[
{<<"eblake2">>, <<"EC8AD20E438AAB3F2E8D5D118C366A0754219195F8A0F536587440F8F9BCF2EF">>},
{<<"getopt">>, <<"C73A9FA687B217F2FF79F68A3B637711BB1936E712B521D8CE466B29CBF7808A">>}]}
].
BIN
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@@ -0,0 +1,239 @@
%%%-------------------------------------------------------------------
%%% @copyright (C) 2017, Aeternity Anstalt
%%% @doc
%%% Encode and decode data and function calls according to
%%% Sophia-AEVM-ABI.
%%% @end
%%% Created : 25 Jan 2018
%%%
%%%-------------------------------------------------------------------
-module(aeso_abi).
-define(HASH_SIZE, 32).
-export([ old_create_calldata/3
, create_calldata/5
, check_calldata/2
, function_type_info/3
, function_type_hash/3
, arg_typerep_from_function/2
, type_hash_from_function_name/2
, typereps_from_type_hash/2
, function_name_from_type_hash/2
, get_function_hash_from_calldata/1
]).
-type hash() :: <<_:256>>. %% 256 = ?HASH_SIZE * 8.
-type function_name() :: binary(). %% String
-type typerep() :: aeso_sophia:type().
-type function_type_info() :: { FunctionHash :: hash()
, FunctionName :: function_name()
, ArgType :: binary() %% binary typerep
, OutType :: binary() %% binary typerep
}.
-type type_info() :: [function_type_info()].
%%%===================================================================
%%% API
%%%===================================================================
%%%===================================================================
%%% Handle calldata
create_calldata(Contract, FunName, Args, ArgTypes, RetType) ->
case get_type_info_and_hash(Contract, FunName) of
{ok, TypeInfo, TypeHashInt} ->
Data = aeso_heap:to_binary({TypeHashInt, list_to_tuple(Args)}),
case check_calldata(Data, TypeInfo) of
{ok, CallDataType, OutType} ->
case check_given_type(FunName, ArgTypes, RetType, CallDataType, OutType) of
ok ->
{ok, Data, CallDataType, OutType};
{error, _} = Err ->
Err
end;
{error,_What} = Err -> Err
end;
{error, _} = Err -> Err
end.
get_type_info_and_hash(#{type_info := TypeInfo}, FunName) ->
FunBin = list_to_binary(FunName),
case type_hash_from_function_name(FunBin, TypeInfo) of
{ok, <<TypeHashInt:?HASH_SIZE/unit:8>>} -> {ok, TypeInfo, TypeHashInt};
{ok, _} -> {error, bad_type_hash};
{error, _} = Err -> Err
end.
%% Check that the given type matches the type from the metadata.
check_given_type(FunName, GivenArgs, GivenRet, CalldataType, ExpectRet) ->
{tuple, [word, {tuple, ExpectArgs}]} = CalldataType,
ReturnOk = if FunName == "init" -> true;
GivenRet == any -> true;
true -> GivenRet == ExpectRet
end,
ArgsOk = ExpectArgs == GivenArgs,
case ReturnOk andalso ArgsOk of
true -> ok;
false when FunName == "init" ->
{error, {init_args_mismatch,
{given, GivenArgs},
{expected, ExpectArgs}}};
false ->
{error, {call_type_mismatch,
{given, GivenArgs, '=>', GivenRet},
{expected, ExpectArgs, '=>', ExpectRet}}}
end.
-spec check_calldata(binary(), type_info()) ->
{'ok', typerep(), typerep()} | {'error', atom()}.
check_calldata(CallData, TypeInfo) ->
%% The first element of the CallData should be the function name
case get_function_hash_from_calldata(CallData) of
{ok, Hash} ->
case typereps_from_type_hash(Hash, TypeInfo) of
{ok, ArgType, OutType} ->
try aeso_heap:from_binary({tuple, [word, ArgType]}, CallData) of
{ok, _Something} ->
{ok, {tuple, [word, ArgType]}, OutType};
{error, _} ->
{error, bad_call_data}
catch
_T:_E ->
{error, bad_call_data}
end;
{error, _} ->
{error, unknown_function}
end;
{error, _What} ->
{error, bad_call_data}
end.
-spec get_function_hash_from_calldata(CallData::binary()) ->
{ok, binary()} | {error, term()}.
get_function_hash_from_calldata(CallData) ->
case aeso_heap:from_binary({tuple, [word]}, CallData) of
{ok, {HashInt}} -> {ok, <<HashInt:?HASH_SIZE/unit:8>>};
{error, _} = Error -> Error
end.
%%%===================================================================
%%% Handle type info from contract meta data
-spec function_type_info(function_name(), [typerep()], typerep()) ->
function_type_info().
function_type_info(Name, Args, OutType) ->
ArgType = {tuple, [T || {_, T} <- Args]},
{ function_type_hash(Name, ArgType, OutType)
, Name
, aeso_heap:to_binary(ArgType)
, aeso_heap:to_binary(OutType)
}.
-spec function_type_hash(function_name(), typerep(), typerep()) -> hash().
function_type_hash(Name, ArgType, OutType) when is_binary(Name) ->
Bin = iolist_to_binary([ Name
, aeso_heap:to_binary(ArgType)
, aeso_heap:to_binary(OutType)
]),
%% Calculate a 256 bit digest BLAKE2b hash value of a binary
{ok, Hash} = aeso_blake2:blake2b(?HASH_SIZE, Bin),
Hash.
-spec arg_typerep_from_function(function_name(), type_info()) ->
{'ok', typerep()} | {'error', 'bad_type_data' | 'unknown_function'}.
arg_typerep_from_function(Function, TypeInfo) ->
case lists:keyfind(Function, 2, TypeInfo) of
{_TypeHash, Function, ArgTypeBin,_OutTypeBin} ->
case aeso_heap:from_binary(typerep, ArgTypeBin) of
{ok, ArgType} -> {ok, ArgType};
{error,_} -> {error, bad_type_data}
end;
false ->
{error, unknown_function}
end.
-spec typereps_from_type_hash(hash(), type_info()) ->
{'ok', typerep(), typerep()} | {'error', 'bad_type_data' | 'unknown_function'}.
typereps_from_type_hash(TypeHash, TypeInfo) ->
case lists:keyfind(TypeHash, 1, TypeInfo) of
{TypeHash,_Function, ArgTypeBin, OutTypeBin} ->
case {aeso_heap:from_binary(typerep, ArgTypeBin),
aeso_heap:from_binary(typerep, OutTypeBin)} of
{{ok, ArgType}, {ok, OutType}} -> {ok, ArgType, OutType};
{_, _} -> {error, bad_type_data}
end;
false ->
{error, unknown_function}
end.
-spec function_name_from_type_hash(hash(), type_info()) ->
{'ok', function_name()}
| {'error', 'unknown_function'}.
function_name_from_type_hash(TypeHash, TypeInfo) ->
case lists:keyfind(TypeHash, 1, TypeInfo) of
{TypeHash, Function,_ArgTypeBin,_OutTypeBin} ->
{ok, Function};
false ->
{error, unknown_function}
end.
-spec type_hash_from_function_name(function_name(), type_info()) ->
{'ok', hash()}
| {'error', 'unknown_function'}.
type_hash_from_function_name(Name, TypeInfo) ->
case lists:keyfind(Name, 2, TypeInfo) of
{TypeHash, Name,_ArgTypeBin,_OutTypeBin} ->
{ok, TypeHash};
false ->
{error, unknown_function}
end.
%% -- Old calldata creation. Kept for backwards compatibility. ---------------
old_create_calldata(Contract, Function, Argument) when is_map(Contract) ->
case aeso_constants:string(Argument) of
{ok, {tuple, _, _} = Tuple} ->
old_encode_call(Contract, Function, Tuple);
{ok, {unit, _} = Tuple} ->
old_encode_call(Contract, Function, Tuple);
{ok, ParsedArgument} ->
%% The Sophia compiler does not parse a singleton tuple (42) as a tuple,
%% Wrap it in a tuple.
old_encode_call(Contract, Function, {tuple, [], [ParsedArgument]});
{error, _} ->
{error, argument_syntax_error}
end.
%% Call takes one arument.
%% Use a tuple to pass multiple arguments.
old_encode_call(Contract, Function, ArgumentAst) ->
Argument = old_ast_to_erlang(ArgumentAst),
case get_type_info_and_hash(Contract, Function) of
{ok, TypeInfo, TypeHashInt} ->
Data = aeso_heap:to_binary({TypeHashInt, Argument}),
case check_calldata(Data, TypeInfo) of
{ok, CallDataType, OutType} ->
{ok, Data, CallDataType, OutType};
{error, _} = Err ->
Err
end;
{error, _} = Err -> Err
end.
old_ast_to_erlang({int, _, N}) -> N;
old_ast_to_erlang({hash, _, <<N:?HASH_SIZE/unit:8>>}) -> N;
old_ast_to_erlang({hash, _, <<Hi:256, Lo:256>>}) -> {Hi, Lo}; %% signature
old_ast_to_erlang({bool, _, true}) -> 1;
old_ast_to_erlang({bool, _, false}) -> 0;
old_ast_to_erlang({string, _, Bin}) -> Bin;
old_ast_to_erlang({unit, _}) -> {};
old_ast_to_erlang({con, _, "None"}) -> none;
old_ast_to_erlang({app, _, {con, _, "Some"}, [A]}) -> {some, old_ast_to_erlang(A)};
old_ast_to_erlang({tuple, _, Elems}) ->
list_to_tuple(lists:map(fun old_ast_to_erlang/1, Elems));
old_ast_to_erlang({list, _, Elems}) ->
lists:map(fun old_ast_to_erlang/1, Elems);
old_ast_to_erlang({map, _, Elems}) ->
maps:from_list([ {old_ast_to_erlang(element(1, Elem)), old_ast_to_erlang(element(2, Elem))}
|| Elem <- Elems ]).
-363
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@@ -1,363 +0,0 @@
%%%-------------------------------------------------------------------
%%% @author Robert Virding
%%% @copyright (C) 2019, Aeternity Anstalt
%%% @doc
%%% ACI interface
%%% @end
%%% Created : 12 Jan 2019
%%%-------------------------------------------------------------------
-module(aeso_aci).
-export([ file/2
, file/3
, contract_interface/2
, contract_interface/3
, from_typed_ast/2
, render_aci_json/1
, json_encode_expr/1
, json_encode_type/1]).
-type aci_type() :: json | string.
-type json() :: jsx:json_term().
-type json_text() :: binary().
-export_type([aci_type/0]).
%% External API
-spec file(aci_type(), string()) -> {ok, json() | string()} | {error, term()}.
file(Type, File) ->
file(Type, File, []).
file(Type, File, Options0) ->
Options = aeso_compiler:add_include_path(File, Options0),
case file:read_file(File) of
{ok, BinCode} ->
do_contract_interface(Type, binary_to_list(BinCode), Options);
{error, _} = Err -> Err
end.
-spec contract_interface(aci_type(), string()) ->
{ok, json() | string()} | {error, term()}.
contract_interface(Type, ContractString) ->
contract_interface(Type, ContractString, []).
-spec contract_interface(aci_type(), string(), [term()]) ->
{ok, json() | string()} | {error, term()}.
contract_interface(Type, ContractString, CompilerOpts) ->
do_contract_interface(Type, ContractString, CompilerOpts).
-spec render_aci_json(json() | json_text()) -> {ok, binary()}.
render_aci_json(Json) ->
do_render_aci_json(Json).
-spec json_encode_expr(aeso_syntax:expr()) -> json().
json_encode_expr(Expr) ->
encode_expr(Expr).
-spec json_encode_type(aeso_syntax:type()) -> json().
json_encode_type(Type) ->
encode_type(Type).
%% Internal functions
do_contract_interface(Type, Contract, Options) when is_binary(Contract) ->
do_contract_interface(Type, binary_to_list(Contract), Options);
do_contract_interface(Type, ContractString, Options) ->
try
Ast = aeso_compiler:parse(ContractString, Options),
%% io:format("~p\n", [Ast]),
{TypedAst, _} = aeso_ast_infer_types:infer(Ast, [dont_unfold | Options]),
%% io:format("~p\n", [TypedAst]),
from_typed_ast(Type, TypedAst)
catch
throw:{error, Errors} -> {error, Errors}
end.
from_typed_ast(Type, TypedAst) ->
JArray = [ encode_contract(C) || C <- TypedAst ],
case Type of
json -> {ok, JArray};
string -> do_render_aci_json(JArray)
end.
encode_contract(Contract = {contract, _, {con, _, Name}, _}) ->
C0 = #{name => encode_name(Name)},
Tdefs0 = [ encode_typedef(T) || T <- sort_decls(contract_types(Contract)) ],
FilterT = fun(N) -> fun(#{name := N1}) -> N == N1 end end,
{Es, Tdefs1} = lists:partition(FilterT(<<"event">>), Tdefs0),
{Ss, Tdefs} = lists:partition(FilterT(<<"state">>), Tdefs1),
C1 = C0#{type_defs => Tdefs},
C2 = case Es of
[] -> C1;
[#{typedef := ET}] -> C1#{event => ET}
end,
C3 = case Ss of
[] -> C2;
[#{typedef := ST}] -> C2#{state => ST}
end,
Fdefs = [ encode_function(F)
|| F <- sort_decls(contract_funcs(Contract)),
is_entrypoint(F) ],
#{contract => C3#{functions => Fdefs, payable => is_payable(Contract)}};
encode_contract(Namespace = {namespace, _, {con, _, Name}, _}) ->
Tdefs = [ encode_typedef(T) || T <- sort_decls(contract_types(Namespace)) ],
#{namespace => #{name => encode_name(Name),
type_defs => Tdefs}}.
%% Encode a function definition. Currently we are only interested in
%% the interface and type.
encode_function(FDef = {letfun, _, {id, _, Name}, Args, Type, _}) ->
#{name => encode_name(Name),
arguments => encode_args(Args),
returns => encode_type(Type),
stateful => is_stateful(FDef),
payable => is_payable(FDef)};
encode_function(FDecl = {fun_decl, _, {id, _, Name}, {fun_t, _, _, Args, Type}}) ->
#{name => encode_name(Name),
arguments => encode_anon_args(Args),
returns => encode_type(Type),
stateful => is_stateful(FDecl),
payable => is_payable(FDecl)}.
encode_anon_args(Types) ->
Anons = [ list_to_binary("_" ++ integer_to_list(X)) || X <- lists:seq(1, length(Types))],
[ #{name => V, type => encode_type(T)}
|| {V, T} <- lists:zip(Anons, Types) ].
encode_args(Args) -> [ encode_arg(A) || A <- Args ].
encode_arg({typed, _, Id, T}) ->
#{name => encode_type(Id),
type => encode_type(T)}.
encode_typedef(Type) ->
Name = typedef_name(Type),
Vars = typedef_vars(Type),
Def = typedef_def(Type),
#{name => encode_name(Name),
vars => encode_tvars(Vars),
typedef => encode_type(Def)}.
encode_tvars(Vars) ->
[ #{name => encode_type(V)} || V <- Vars ].
%% Encode type
encode_type({tvar, _, N}) -> encode_name(N);
encode_type({id, _, N}) -> encode_name(N);
encode_type({con, _, N}) -> encode_name(N);
encode_type({qid, _, Ns}) -> encode_name(lists:join(".", Ns));
encode_type({qcon, _, Ns}) -> encode_name(lists:join(".", Ns));
encode_type({tuple_t, _, As}) -> #{tuple => encode_types(As)};
encode_type({bytes_t, _, Len}) -> #{bytes => Len};
encode_type({record_t, Fs}) -> #{record => encode_type_fields(Fs)};
encode_type({app_t, _, Id, Fs}) -> #{encode_type(Id) => encode_types(Fs)};
encode_type({variant_t, Cs}) -> #{variant => encode_types(Cs)};
encode_type({constr_t, _, C, As}) -> #{encode_type(C) => encode_types(As)};
encode_type({alias_t, Type}) -> encode_type(Type);
encode_type({fun_t, _, _, As, T}) -> #{function =>
#{arguments => encode_types(As),
returns => encode_type(T)}}.
encode_types(Ts) -> [ encode_type(T) || T <- Ts ].
encode_type_fields(Fs) -> [ encode_type_field(F) || F <- Fs ].
encode_type_field({field_t, _, Id, T}) ->
#{name => encode_type(Id),
type => encode_type(T)}.
encode_name(Name) when is_list(Name) ->
list_to_binary(Name);
encode_name(Name) when is_binary(Name) ->
Name.
%% Encode Expr
encode_exprs(Es) -> [ encode_expr(E) || E <- Es ].
encode_expr({id, _, N}) -> encode_name(N);
encode_expr({con, _, N}) -> encode_name(N);
encode_expr({qid, _, Ns}) -> encode_name(lists:join(".", Ns));
encode_expr({qcon, _, Ns}) -> encode_name(lists:join(".", Ns));
encode_expr({typed, _, E}) -> encode_expr(E);
encode_expr({bool, _, B}) -> B;
encode_expr({int, _, V}) -> V;
encode_expr({string, _, S}) -> S;
encode_expr({tuple, _, As}) -> encode_exprs(As);
encode_expr({list, _, As}) -> encode_exprs(As);
encode_expr({bytes, _, B}) ->
Digits = byte_size(B),
<<N:Digits/unit:8>> = B,
list_to_binary(lists:flatten(io_lib:format("#~*.16.0b", [Digits*2, N])));
encode_expr({Lit, _, L}) when Lit == oracle_pubkey; Lit == oracle_query_id;
Lit == contract_pubkey; Lit == account_pubkey ->
aeser_api_encoder:encode(Lit, L);
encode_expr({app, _, {'-', _}, [{int, _, N}]}) ->
encode_expr({int, [], -N});
encode_expr({app, _, F, As}) ->
Ef = encode_expr(F),
Eas = encode_exprs(As),
#{Ef => Eas};
encode_expr({record, _, Flds}) -> maps:from_list(encode_fields(Flds));
encode_expr({map, _, KVs}) -> [ [encode_expr(K), encode_expr(V)] || {K, V} <- KVs ];
encode_expr({Op,_Ann}) ->
error({encode_expr_todo, Op}).
encode_fields(Flds) -> [ encode_field(F) || F <- Flds ].
encode_field({field, _, [{proj, _, {id, _, Fld}}], Val}) ->
{encode_name(Fld), encode_expr(Val)}.
do_render_aci_json(Json) ->
Contracts =
case Json of
JArray when is_list(JArray) -> JArray;
JObject when is_map(JObject) -> [JObject];
JText when is_binary(JText) ->
case jsx:decode(Json, [{labels, atom}, return_maps]) of
JArray when is_list(JArray) -> JArray;
JObject when is_map(JObject) -> [JObject];
_ -> error(bad_aci_json)
end
end,
DecodedContracts = [ decode_contract(C) || C <- Contracts ],
{ok, list_to_binary(string:join(DecodedContracts, "\n"))}.
decode_contract(#{contract := #{name := Name,
payable := Payable,
type_defs := Ts0,
functions := Fs} = C}) ->
MkTDef = fun(N, T) -> #{name => N, vars => [], typedef => T} end,
Ts = [ MkTDef(<<"state">>, maps:get(state, C)) || maps:is_key(state, C) ] ++
[ MkTDef(<<"event">>, maps:get(event, C)) || maps:is_key(event, C) ] ++ Ts0,
[payable(Payable), "contract ", io_lib:format("~s", [Name])," =\n",
decode_tdefs(Ts), decode_funcs(Fs)];
decode_contract(#{namespace := #{name := Name, type_defs := Ts}}) when Ts /= [] ->
["namespace ", io_lib:format("~s", [Name])," =\n",
decode_tdefs(Ts)];
decode_contract(_) -> [].
decode_funcs(Fs) -> [ decode_func(F) || F <- Fs ].
%% decode_func(#{name := init}) -> [];
decode_func(#{name := Name, payable := Payable, arguments := As, returns := T}) ->
[" ", payable(Payable), "entrypoint ", io_lib:format("~s", [Name]), " : ",
decode_args(As), " => ", decode_type(T), $\n].
decode_args(As) ->
Das = [ decode_arg(A) || A <- As ],
[$(,lists:join(", ", Das),$)].
decode_arg(#{type := T}) -> decode_type(T).
decode_types(Ets) ->
[ decode_type(Et) || Et <- Ets ].
decode_type(#{tuple := Ets}) ->
Ts = decode_types(Ets),
case Ts of
[] -> ["unit"];
_ -> [$(,lists:join(" * ", Ts),$)]
end;
decode_type(#{record := Efs}) ->
Fs = decode_fields(Efs),
[${,lists:join(",", Fs),$}];
decode_type(#{list := [Et]}) ->
T = decode_type(Et),
["list",$(,T,$)];
decode_type(#{map := Ets}) ->
Ts = decode_types(Ets),
["map",$(,lists:join(",", Ts),$)];
decode_type(#{bytes := Len}) ->
["bytes(", integer_to_list(Len), ")"];
decode_type(#{variant := Ets}) ->
Ts = decode_types(Ets),
lists:join(" | ", Ts);
decode_type(#{function := #{arguments := Args, returns := R}}) ->
[decode_type(#{tuple => Args}), " => ", decode_type(R)];
decode_type(Econs) when is_map(Econs) -> %General constructor
[{Ec,Ets}] = maps:to_list(Econs),
AppName = decode_name(Ec),
AppArgs = decode_types(Ets),
case AppArgs of
[] -> [AppName];
_ -> [AppName,$(,lists:join(", ", AppArgs),$)]
end;
decode_type(T) -> %Just raw names.
decode_name(T).
decode_name(En) when is_atom(En) -> erlang:atom_to_list(En);
decode_name(En) when is_binary(En) -> binary_to_list(En).
decode_fields(Efs) ->
[ decode_field(Ef) || Ef <- Efs ].
decode_field(#{name := En, type := Et}) ->
Name = decode_name(En),
Type = decode_type(Et),
[Name," : ",Type].
%% decode_tdefs(Json) -> [TypeString].
%% Here we are only interested in the type definitions and ignore the
%% aliases. We find them as they always have variants.
decode_tdefs(Ts) -> [ decode_tdef(T) || T <- Ts ].
decode_tdef(#{name := Name, vars := Vs, typedef := T}) ->
TypeDef = decode_type(T),
DefType = decode_deftype(T),
[" ", DefType, " ", decode_name(Name), decode_tvars(Vs), " = ", TypeDef, $\n].
decode_deftype(#{record := _Efs}) -> "record";
decode_deftype(#{variant := _}) -> "datatype";
decode_deftype(_T) -> "type".
decode_tvars([]) -> []; %No tvars, no parentheses
decode_tvars(Vs) ->
Dvs = [ decode_tvar(V) || V <- Vs ],
[$(,lists:join(", ", Dvs),$)].
decode_tvar(#{name := N}) -> io_lib:format("~s", [N]).
payable(true) -> "payable ";
payable(false) -> "".
%% #contract{Ann, Con, [Declarations]}.
contract_funcs({C, _, _, Decls}) when C == contract; C == namespace ->
[ D || D <- Decls, is_fun(D)].
contract_types({C, _, _, Decls}) when C == contract; C == namespace ->
[ D || D <- Decls, is_type(D) ].
is_fun({letfun, _, _, _, _, _}) -> true;
is_fun({fun_decl, _, _, _}) -> true;
is_fun(_) -> false.
is_type({type_def, _, _, _, _}) -> true;
is_type(_) -> false.
sort_decls(Ds) ->
Sort = fun (D1, D2) ->
aeso_syntax:get_ann(line, D1, 0) =<
aeso_syntax:get_ann(line, D2, 0)
end,
lists:sort(Sort, Ds).
is_entrypoint(Node) -> aeso_syntax:get_ann(entrypoint, Node, false).
is_stateful(Node) -> aeso_syntax:get_ann(stateful, Node, false).
is_payable(Node) -> aeso_syntax:get_ann(payable, Node, false).
typedef_name({type_def, _, {id, _, Name}, _, _}) -> Name.
typedef_vars({type_def, _, _, Vars, _}) -> Vars.
typedef_def({type_def, _, _, _, Def}) -> Def.
+1
View File
@@ -17,6 +17,7 @@ line({symbol, Line, _}) -> Line.
symbol_name({symbol, _, Name}) -> Name.
pp(Ast) ->
%% io:format("Tree:\n~p\n",[Ast]),
String = prettypr:format(aeso_pretty:decls(Ast, [])),
io:format("Ast:\n~s\n", [String]).
+746 -1902
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+328 -605
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@@ -0,0 +1,149 @@
%%%=============================================================================
%%% @copyright (C) 2019, Aeternity Anstalt
%%% @doc
%%% BLAKE2b implementation in Erlang - for details see: https://blake2.net
%%% @end
%%%=============================================================================
-module(aeso_blake2).
-export([ blake2b/2
, blake2b/3
]).
-define(MAX_64BIT, 16#ffffffffffffffff).
-spec blake2b(HashLen :: integer(), Msg :: binary()) -> {ok, binary()}.
blake2b(HashLen, Msg) ->
blake2b(HashLen, Msg, <<>>).
-spec blake2b(HashLen :: integer(), Msg :: binary(), Key :: binary()) -> {ok, binary()}.
blake2b(HashLen, Msg0, Key) ->
%% If message should be keyed, prepend message with padded key.
Msg = <<(pad(128, Key))/binary, Msg0/binary>>,
%% Set up the initial state
Init = (16#01010000 + (byte_size(Key) bsl 8) + HashLen),
<<H0:64, H1_7/binary>> = blake_iv(),
H = <<(H0 bxor Init):64, H1_7/binary>>,
%% Perform the compression - message will be chopped into 128-byte chunks.
State = blake2b_compress(H, Msg, 0),
%% Just return the requested part of the hash
{ok, binary_part(to_little_endian(State), {0, HashLen})}.
blake2b_compress(H, <<Chunk:(128*8), Rest/binary>>, BCompr) when Rest /= <<>> ->
H1 = blake2b_compress(H, <<Chunk:(128*8)>>, BCompr + 128, false),
blake2b_compress(H1, Rest, BCompr + 128);
blake2b_compress(H, SmallChunk, BCompr) ->
Size = byte_size(SmallChunk),
FillSize = (128 - Size) * 8,
blake2b_compress(H, <<SmallChunk/binary, 0:FillSize>>, BCompr + Size, true).
blake2b_compress(H, Chunk0, BCompr, Last) ->
Chunk = to_big_endian(Chunk0),
<<V0_11:(12*64), V12:64, V13:64, V14:64, V15:64>> = <<H/binary, (blake_iv())/binary>>,
V12_ = V12 bxor (BCompr band ?MAX_64BIT),
V13_ = V13 bxor ((BCompr bsr 64) band ?MAX_64BIT),
V14_ = case Last of
false -> V14;
true -> V14 bxor ?MAX_64BIT
end,
V = <<V0_11:(12*64), V12_:64, V13_:64, V14_:64, V15:64>>,
<<VLow:(8*64), VHigh:(8*64)>> =
lists:foldl(fun(Round, Vx) -> blake2b_mix(Round, Chunk, Vx) end, V, lists:seq(0, 11)),
<<HInt:(8*64)>> = H,
<<((HInt bxor VLow) bxor VHigh):(8*64)>>.
blake2b_mix(Rnd, Chunk, V) ->
<<V0:64, V1:64, V2:64, V3:64, V4:64, V5:64, V6:64, V7:64, V8:64,
V9:64, V10:64, V11:64, V12:64, V13:64, V14:64, V15:64>> = V,
<<M0:64, M1:64, M2:64, M3:64, M4:64, M5:64, M6:64, M7:64, M8:64,
M9:64, M10:64, M11:64, M12:64, M13:64, M14:64, M15:64>> = Chunk,
Ms = {M0, M1, M2, M3, M4, M5, M6, M7, M8, M9, M10, M11, M12, M13, M14, M15},
M = fun(Ix) -> element(Ix+1, Ms) end,
[S0, S1, S2, S3, S4, S5, S6, S7, S8, S9, S10, S11, S12, S13, S14, S15] = sigma(Rnd rem 10),
{Vx0, Vx4, Vx8, Vx12} = blake2b_mix(V0, V4, V8, V12, M(S0), M(S1)),
{Vx1, Vx5, Vx9, Vx13} = blake2b_mix(V1, V5, V9, V13, M(S2), M(S3)),
{Vx2, Vx6, Vx10, Vx14} = blake2b_mix(V2, V6, V10, V14, M(S4), M(S5)),
{Vx3, Vx7, Vx11, Vx15} = blake2b_mix(V3, V7, V11, V15, M(S6), M(S7)),
{Vy0, Vy5, Vy10, Vy15} = blake2b_mix(Vx0, Vx5, Vx10, Vx15, M(S8), M(S9)),
{Vy1, Vy6, Vy11, Vy12} = blake2b_mix(Vx1, Vx6, Vx11, Vx12, M(S10), M(S11)),
{Vy2, Vy7, Vy8, Vy13} = blake2b_mix(Vx2, Vx7, Vx8, Vx13, M(S12), M(S13)),
{Vy3, Vy4, Vy9, Vy14} = blake2b_mix(Vx3, Vx4, Vx9, Vx14, M(S14), M(S15)),
<<Vy0:64, Vy1:64, Vy2:64, Vy3:64, Vy4:64, Vy5:64, Vy6:64, Vy7:64, Vy8:64,
Vy9:64, Vy10:64, Vy11:64, Vy12:64, Vy13:64, Vy14:64, Vy15:64>>.
blake2b_mix(Va, Vb, Vc, Vd, X, Y) ->
Va1 = (Va + Vb + X) band ?MAX_64BIT,
Vd1 = rotr64(32, Vd bxor Va1),
Vc1 = (Vc + Vd1) band ?MAX_64BIT,
Vb1 = rotr64(24, Vb bxor Vc1),
Va2 = (Va1 + Vb1 + Y) band ?MAX_64BIT,
Vd2 = rotr64(16, Va2 bxor Vd1),
Vc2 = (Vc1 + Vd2) band ?MAX_64BIT,
Vb2 = rotr64(63, Vb1 bxor Vc2),
{Va2, Vb2, Vc2, Vd2}.
blake_iv() ->
IV0 = 16#6A09E667F3BCC908,
IV1 = 16#BB67AE8584CAA73B,
IV2 = 16#3C6EF372FE94F82B,
IV3 = 16#A54FF53A5F1D36F1,
IV4 = 16#510E527FADE682D1,
IV5 = 16#9B05688C2B3E6C1F,
IV6 = 16#1F83D9ABFB41BD6B,
IV7 = 16#5BE0CD19137E2179,
<<IV0:64, IV1:64, IV2:64, IV3:64, IV4:64, IV5:64, IV6:64, IV7:64>>.
sigma(N) ->
{_, Row} = lists:keyfind(N, 1, sigma()), Row.
sigma() ->
[{0, [ 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15]},
{1, [14, 10, 4, 8, 9, 15, 13, 6, 1, 12, 0, 2, 11, 7, 5, 3]},
{2, [11, 8, 12, 0, 5, 2, 15, 13, 10, 14, 3, 6, 7, 1, 9, 4]},
{3, [ 7, 9, 3, 1, 13, 12, 11, 14, 2, 6, 5, 10, 4, 0, 15, 8]},
{4, [ 9, 0, 5, 7, 2, 4, 10, 15, 14, 1, 11, 12, 6, 8, 3, 13]},
{5, [ 2, 12, 6, 10, 0, 11, 8, 3, 4, 13, 7, 5, 15, 14, 1, 9]},
{6, [12, 5, 1, 15, 14, 13, 4, 10, 0, 7, 6, 3, 9, 2, 8, 11]},
{7, [13, 11, 7, 14, 12, 1, 3, 9, 5, 0, 15, 4, 8, 6, 2, 10]},
{8, [ 6, 15, 14, 9, 11, 3, 0, 8, 12, 2, 13, 7, 1, 4, 10, 5]},
{9, [10, 2, 8, 4, 7, 6, 1, 5, 15, 11, 9, 14, 3, 12, 13, 0]}].
rotr64(N, I64) ->
<<I64rot:64>> = rotr641(N, <<I64:64>>),
I64rot.
rotr641(16, <<X:(64-16), Y:16>>) -> <<Y:16, X:(64-16)>>;
rotr641(24, <<X:(64-24), Y:24>>) -> <<Y:24, X:(64-24)>>;
rotr641(32, <<X:(64-32), Y:32>>) -> <<Y:32, X:(64-32)>>;
rotr641(63, <<X:(64-63), Y:63>>) -> <<Y:63, X:(64-63)>>.
pad(N, Bin) ->
case (N - (byte_size(Bin) rem N)) rem N of
0 -> Bin;
Pad -> <<Bin/binary, 0:(Pad *8)>>
end.
to_big_endian(Bin) -> to_big_endian(Bin, <<>>).
to_big_endian(<<>>, Acc) -> Acc;
to_big_endian(<<UInt64:1/little-unsigned-integer-unit:64, Rest/binary>>, Acc) ->
to_big_endian(Rest, <<Acc/binary, UInt64:1/big-unsigned-integer-unit:64>>).
to_little_endian(Bin) -> to_little_endian(Bin, <<>>).
to_little_endian(<<>>, Acc) -> Acc;
to_little_endian(<<UInt64:1/big-unsigned-integer-unit:64, Rest/binary>>, Acc) ->
to_little_endian(Rest, <<Acc/binary, UInt64:1/little-unsigned-integer-unit:64>>).
+27 -211
View File
@@ -10,7 +10,6 @@
-module(aeso_builtins).
-export([ builtin_function/1
, bytes_to_raw_string/2
, check_event_type/1
, used_builtins/1 ]).
@@ -45,9 +44,7 @@ builtin_deps1(addr_to_str) -> [{baseX_int, 58}];
builtin_deps1({baseX_int, X}) -> [{baseX_int_pad, X}];
builtin_deps1({baseX_int_pad, X}) -> [{baseX_int_encode, X}];
builtin_deps1({baseX_int_encode, X}) -> [{baseX_int_encode_, X}, {baseX_tab, X}, {baseX_digits, X}];
builtin_deps1({bytes_to_str, _}) -> [bytes_to_str_worker, bytes_to_str_worker_x];
builtin_deps1(string_reverse) -> [string_reverse_];
builtin_deps1(require) -> [abort];
builtin_deps1(_) -> [].
dep_closure(Deps) ->
@@ -63,14 +60,12 @@ v(X) when is_list(X) -> #var_ref{name = X}.
option_none() -> {tuple, [{integer, 0}]}.
option_some(X) -> {tuple, [{integer, 1}, X]}.
-define(HASH_BYTES, 32).
-define(call(Fun, Args), #funcall{ function = #var_ref{ name = {builtin, Fun} }, args = Args }).
-define(I(X), {integer, X}).
-define(V(X), v(X)).
-define(A(Op), aeb_opcodes:mnemonic(Op)).
-define(LET(Var, Expr, Body), {switch, Expr, [{v(Var), Body}]}).
-define(DEREF(Var, Ptr, Body), {switch, operand(Ptr), [{{tuple, [v(Var)]}, Body}]}).
-define(DEREF(Var, Ptr, Body), {switch, v(Ptr), [{{tuple, [v(Var)]}, Body}]}).
-define(NXT(Ptr), op('+', Ptr, 32)).
-define(NEG(A), op('/', A, {unop, '-', {integer, 1}})).
-define(BYTE(Ix, Word), op('byte', Ix, Word)).
@@ -90,18 +85,18 @@ option_some(X) -> {tuple, [{integer, 1}, X]}.
-define(BSL(X, B), op('bsl', ?MUL(B, 8), X)).
-define(BSR(X, B), op('bsr', ?MUL(B, 8), X)).
op(Op, A, B) -> simpl({binop, Op, operand(A), operand(B)}).
%% We generate a lot of B * 8 for integer B from BSL and BSR.
simpl({binop, '*', {integer, A}, {integer, B}}) when A >= 0, B >= 0, A * B < 1 bsl 256 ->
{integer, A * B};
simpl(Op) -> Op.
op(Op, A, B) -> {binop, Op, operand(A), operand(B)}.
operand(A) when is_atom(A) -> v(A);
operand(I) when is_integer(I) -> {integer, I};
operand(T) -> T.
str_to_icode(String) when is_list(String) ->
str_to_icode(list_to_binary(String));
str_to_icode(BinStr) ->
Cpts = [size(BinStr) | aeso_memory:binary_to_words(BinStr)],
#tuple{ cpts = [ #integer{value = X} || X <- Cpts ] }.
check_event_type(Icode) ->
case maps:get(event_type, Icode) of
{variant_t, Cons} ->
@@ -111,23 +106,21 @@ check_event_type(Icode) ->
end.
check_event_type(Evts, Icode) ->
[ check_event_type(Name, Ix, T, Icode)
|| {constr_t, Ann, {con, _, Name}, Types} <- Evts,
{Ix, T} <- lists:zip(aeso_syntax:get_ann(indices, Ann), Types) ].
[ check_event_type(Name, T, Icode)
|| {constr_t, _, {con, _, Name}, Types} <- Evts, T <- Types ].
check_event_type(EvtName, Ix, Type, Icode) ->
check_event_type(EvtName, Type, Icode) ->
VMType =
try
aeso_ast_to_icode:ast_typerep(Type, Icode)
catch _:_ ->
error({EvtName, could_not_resolve_type, Type})
end,
case {Ix, VMType, Type} of
{indexed, word, _} -> ok;
{notindexed, string, _} -> ok;
{notindexed, _, {bytes_t, _, N}} when N > 32 -> ok;
{indexed, _, _} -> error({EvtName, indexed_field_should_be_word, is, VMType});
{notindexed, _, _} -> error({EvtName, payload_should_be_string, is, VMType})
case aeso_syntax:get_ann(indexed, Type, false) of
true when VMType == word -> ok;
false when VMType == string -> ok;
true -> error({EvtName, indexed_field_should_be_word, is, VMType});
false -> error({EvtName, payload_should_be_string, is, VMType})
end.
bfun(B, {IArgs, IExpr, IRet}) ->
@@ -137,8 +130,6 @@ builtin_function(BF) ->
case BF of
{event, EventT} -> bfun(BF, builtin_event(EventT));
abort -> bfun(BF, builtin_abort());
block_hash -> bfun(BF, builtin_block_hash());
require -> bfun(BF, builtin_require());
{map_lookup, Type} -> bfun(BF, builtin_map_lookup(Type));
map_put -> bfun(BF, builtin_map_put());
map_delete -> bfun(BF, builtin_map_delete());
@@ -166,12 +157,6 @@ builtin_function(BF) ->
{baseX_int_pad, X} -> bfun(BF, builtin_baseX_int_pad(X));
{baseX_int_encode, X} -> bfun(BF, builtin_baseX_int_encode(X));
{baseX_int_encode_, X} -> bfun(BF, builtin_baseX_int_encode_(X));
{bytes_to_int, N} -> bfun(BF, builtin_bytes_to_int(N));
{bytes_to_str, N} -> bfun(BF, builtin_bytes_to_str(N));
{bytes_concat, A, B} -> bfun(BF, builtin_bytes_concat(A, B));
{bytes_split, A, B} -> bfun(BF, builtin_bytes_split(A, B));
bytes_to_str_worker -> bfun(BF, builtin_bytes_to_str_worker());
bytes_to_str_worker_x -> bfun(BF, builtin_bytes_to_str_worker_x());
string_reverse -> bfun(BF, builtin_string_reverse());
string_reverse_ -> bfun(BF, builtin_string_reverse_())
end.
@@ -184,24 +169,18 @@ builtin_event(EventT) ->
A = fun(X) -> aeb_opcodes:mnemonic(X) end,
VIx = fun(Ix) -> v(lists:concat(["v", Ix])) end,
ArgPats = fun(Ts) -> [ VIx(Ix) || Ix <- lists:seq(0, length(Ts) - 1) ] end,
IsIndexed = fun(T) -> aeso_syntax:get_ann(indexed, T, false) end,
Payload = %% Should put data ptr, length on stack.
fun([]) -> {inline_asm, [A(?PUSH1), 0, A(?PUSH1), 0]};
([{{id, _, "string"}, V}]) ->
{seq, [V, {inline_asm, [A(?DUP1), A(?MLOAD), %% length, ptr
A(?SWAP1), A(?PUSH1), 32, A(?ADD)]}]}; %% ptr+32, length
([{{bytes_t, _, N}, V}]) -> {seq, [V, {integer, N}, {inline_asm, A(?SWAP1)}]}
fun([]) -> {inline_asm, [A(?PUSH1), 0, A(?PUSH1), 0]};
([V]) -> {seq, [V, {inline_asm, [A(?DUP1), A(?MLOAD), %% length, ptr
A(?SWAP1), A(?PUSH1), 32, A(?ADD)]}]} %% ptr+32, length
end,
Ix =
fun({bytes_t, _, N}, V) when N < 32 -> ?BSR(V, 32 - N);
(_, V) -> V end,
Clause =
fun(_Tag, {con, _, Con}, IxTypes) ->
Types = [ T || {_Ix, T} <- IxTypes ],
Indexed = [ Ix(Type, Var) || {Var, {indexed, Type}} <- lists:zip(ArgPats(Types), IxTypes) ],
Data = [ {Type, Var} || {Var, {notindexed, Type}} <- lists:zip(ArgPats(Types), IxTypes) ],
{ok, <<EvtIndexN:256>>} = eblake2:blake2b(?HASH_BYTES, list_to_binary(Con)),
EvtIndex = {integer, EvtIndexN},
{event, lists:reverse(Indexed) ++ [EvtIndex], Payload(Data)}
fun(_Tag, {con, _, Con}, Types) ->
Indexed = [ Var || {Var, Type} <- lists:zip(ArgPats(Types), Types),
IsIndexed(Type) ],
EvtIndex = {unop, 'sha3', str_to_icode(Con)},
{event, lists:reverse(Indexed) ++ [EvtIndex], Payload(ArgPats(Types) -- Indexed)}
end,
Pat = fun(Tag, Types) -> {tuple, [{integer, Tag} | ArgPats(Types)]} end,
@@ -210,8 +189,8 @@ builtin_event(EventT) ->
{[{"e", event}],
{switch, v(e),
[{Pat(Tag, Types), Clause(Tag, Con, lists:zip(aeso_syntax:get_ann(indices, Ann), Types))}
|| {Tag, {constr_t, Ann, Con, Types}} <- lists:zip(Tags, Cons) ]},
[{Pat(Tag, Types), Clause(Tag, Con, Types)}
|| {Tag, {constr_t, _, Con, Types}} <- lists:zip(Tags, Cons) ]},
{tuple, []}}.
%% Abort primitive.
@@ -222,17 +201,6 @@ builtin_abort() ->
A(?REVERT)]}, %% Stack: 0,Ptr
{tuple,[]}}.
builtin_block_hash() ->
{[{"height", word}],
?LET(hash, #prim_block_hash{ height = ?V(height)},
{ifte, ?EQ(hash, 0), option_none(), option_some(?V(hash))}),
aeso_icode:option_typerep(word)}.
builtin_require() ->
{[{"c", word}, {"msg", string}],
{ifte, ?V(c), {tuple, []}, ?call(abort, [?V(msg)])},
{tuple, []}}.
%% Map primitives
builtin_map_lookup(Type) ->
Ret = aeso_icode:option_typerep(Type),
@@ -469,10 +437,6 @@ builtin_baseX_int_pad(X = 10) ->
?call({baseX_int_encode, X}, [?NEG(src), ?I(1), ?BSL($-, 31)]),
?call({baseX_int_encode, X}, [?V(src), ?V(ix), ?V(dst)])},
word};
builtin_baseX_int_pad(X = 16) ->
{[{"src", word}, {"ix", word}, {"dst", word}],
?call({baseX_int_encode, X}, [?V(src), ?V(ix), ?V(dst)]),
word};
builtin_baseX_int_pad(X = 58) ->
{[{"src", word}, {"ix", word}, {"dst", word}],
{ifte, ?GT(?ADD(?DIV(ix, 31), ?BYTE(ix, src)), 0),
@@ -507,77 +471,6 @@ builtin_baseX_digits(X) ->
{ifte, ?EQ(x1, 0), ?V(dgts), ?call({baseX_digits, X}, [?V(x1), ?ADD(dgts, 1)])}),
word}.
builtin_bytes_to_int(32) ->
{[{"w", word}], ?V(w), word};
builtin_bytes_to_int(N) when N < 32 ->
{[{"w", word}], ?BSR(w, 32 - N), word};
builtin_bytes_to_int(N) when N > 32 ->
LastFullWord = N div 32 - 1,
Body = case N rem 32 of
0 -> ?DEREF(n, ?ADD(b, LastFullWord * 32), ?V(n));
R ->
?DEREF(hi, ?ADD(b, LastFullWord * 32),
?DEREF(lo, ?ADD(b, (LastFullWord + 1) * 32),
?ADD(?BSR(lo, 32 - R), ?BSL(hi, R))))
end,
{[{"b", pointer}], Body, word}.
%% Two versions of this helper function, worker for sections not even 16 bytes long
%% and worker_x for the full sized chunks.
builtin_bytes_to_str_worker_x() ->
<<Tab:256>> = <<"0123456789ABCDEF________________">>,
{[{"w", word}, {"offs", word}, {"acc", word}],
{ifte, ?EQ(offs, 16), {seq, [?V(acc), {inline_asm, [?A(?MSIZE), ?A(?MSTORE), ?A(?MSIZE)]}]},
?LET(b, ?BYTE(offs, w),
?LET(lo, ?BYTE(?MOD(b, 16), Tab),
?LET(hi, ?BYTE(op('bsr', 4 , b), Tab),
?call(bytes_to_str_worker_x, [?V(w), ?ADD(offs, 1), ?ADD(?BSL(acc, 2), ?ADD(?BSL(hi, 1), lo))]))))
},
word}.
builtin_bytes_to_str_worker() ->
<<Tab:256>> = <<"0123456789ABCDEF________________">>,
{[{"w", word}, {"offs", word}, {"acc", word}, {"stop", word}],
{ifte, ?EQ(stop, offs), {seq, [?BSL(acc, ?MUL(2, ?SUB(16, offs))), {inline_asm, [?A(?MSIZE), ?A(?MSTORE), ?A(?MSIZE)]}]},
?LET(b, ?BYTE(offs, w),
?LET(lo, ?BYTE(?MOD(b, 16), Tab),
?LET(hi, ?BYTE(op('bsr', 4 , b), Tab),
?call(bytes_to_str_worker, [?V(w), ?ADD(offs, 1), ?ADD(?BSL(acc, 2), ?ADD(?BSL(hi, 1), lo)), ?V(stop)]))))
},
word}.
builtin_bytes_to_str_body(Var, N) when N < 16 ->
[?call(bytes_to_str_worker, [?V(Var), ?I(0), ?I(0), ?I(N)])];
builtin_bytes_to_str_body(Var, 16) ->
[?call(bytes_to_str_worker_x, [?V(Var), ?I(0), ?I(0)])];
builtin_bytes_to_str_body(Var, N) when N < 32 ->
builtin_bytes_to_str_body(Var, 16) ++ [{inline_asm, [?A(?POP)]}] ++
[?call(bytes_to_str_worker, [?BSL(Var, 16), ?I(0), ?I(0), ?I(N - 16)])];
builtin_bytes_to_str_body(Var, 32) ->
builtin_bytes_to_str_body(Var, 16) ++ [{inline_asm, [?A(?POP)]}] ++
[?call(bytes_to_str_worker_x, [?BSL(Var, 16), ?I(0), ?I(0)])];
builtin_bytes_to_str_body(Var, N) when N > 32 ->
WholeWords = ((N + 31) div 32) - 1,
lists:append(
[ [?DEREF(w, ?ADD(Var, 32 * I), {seq, builtin_bytes_to_str_body(w, 32)}), {inline_asm, [?A(?POP)]}]
|| I <- lists:seq(0, WholeWords - 1) ]) ++
[ ?DEREF(w, ?ADD(Var, 32 * WholeWords), {seq, builtin_bytes_to_str_body(w, N - WholeWords * 32)}) ].
builtin_bytes_to_str(N) when N =< 32 ->
{[{"w", word}],
?LET(ret, {inline_asm, [?A(?MSIZE)]},
{seq, [?I(N * 2), {inline_asm, [?A(?MSIZE), ?A(?MSTORE)]}] ++
builtin_bytes_to_str_body(w, N) ++
[{inline_asm, [?A(?POP)]}, ?V(ret)]}),
string};
builtin_bytes_to_str(N) when N > 32 ->
{[{"p", pointer}],
?LET(ret, {inline_asm, [?A(?MSIZE)]},
{seq, [?I(N * 2), {inline_asm, [?A(?MSIZE), ?A(?MSTORE)]}] ++
builtin_bytes_to_str_body(p, N) ++
[{inline_asm, [?A(?POP)]}, ?V(ret)]}),
string}.
builtin_string_reverse() ->
{[{"s", string}],
?DEREF(n, s,
@@ -605,80 +498,3 @@ builtin_string_reverse_() ->
builtin_addr_to_str() ->
{[{"a", word}], ?call({baseX_int, 58}, [?V(a)]), word}.
%% At most one word
%% | ..... | ========= | ........ |
%% Offs ^ ^- Len -^ TotalLen ^
bytes_slice(Offs, Len, TotalLen, Bytes) when TotalLen =< 32 ->
%% Bytes are packed into a single word
Masked =
case Offs of
0 -> Bytes;
_ -> ?MOD(Bytes, 1 bsl ((32 - Offs) * 8))
end,
Unpadded =
case 32 - (Offs + Len) of
0 -> Masked;
N -> ?BSR(Masked, N)
end,
case Len of
32 -> Unpadded;
_ -> ?BSL(Unpadded, 32 - Len)
end;
bytes_slice(Offs, Len, TotalLen, Bytes) when TotalLen > 32 ->
%% Bytes is a pointer to memory. The VM can read at non-aligned addresses.
%% Might read one word more than necessary.
Word = op('!', Offs, Bytes),
case Len == 32 of
true -> Word;
_ -> ?BSL(?BSR(Word, 32 - Len), 32 - Len)
end.
builtin_bytes_concat(A, B) ->
Type = fun(N) when N =< 32 -> word; (_) -> pointer end,
MkBytes = fun([W]) -> W;
(Ws) -> {tuple, Ws} end,
Words = fun(N) -> (N + 31) div 32 end,
WordsRes = Words(A + B),
Word = fun(I) when 32 * (I + 1) =< A -> bytes_slice(I * 32, 32, A, ?V(a));
(I) when 32 * I < A ->
Len = A rem 32,
Hi = bytes_slice(32 * I, Len, A, ?V(a)),
Lo = bytes_slice(0, min(32 - Len, B), B, ?V(b)),
?ADD(Hi, ?BSR(Lo, Len));
(I) ->
Offs = 32 * I - A,
Len = min(32, B - Offs),
bytes_slice(Offs, Len, B, ?V(b))
end,
Body =
case {A, B} of
{0, _} -> ?V(b);
{_, 0} -> ?V(a);
_ -> MkBytes([ Word(I) || I <- lists:seq(0, WordsRes - 1) ])
end,
{[{"a", Type(A)}, {"b", Type(B)}], Body, Type(A + B)}.
builtin_bytes_split(A, B) ->
Type = fun(N) when N =< 32 -> word; (_) -> pointer end,
MkBytes = fun([W]) -> W;
(Ws) -> {tuple, Ws} end,
Word = fun(I, Max) ->
bytes_slice(I, min(32, Max - I), A + B, ?V(c))
end,
Body =
case {A, B} of
{0, _} -> [?I(0), ?V(c)];
{_, 0} -> [?V(c), ?I(0)];
_ -> [MkBytes([ Word(I, A) || I <- lists:seq(0, A - 1, 32) ]),
MkBytes([ Word(I, A + B) || I <- lists:seq(A, A + B - 1, 32) ])]
end,
{[{"c", Type(A + B)}], {tuple, Body}, {tuple, [Type(A), Type(B)]}}.
bytes_to_raw_string(N, Term) when N =< 32 ->
{tuple, [?I(N), Term]};
bytes_to_raw_string(N, Term) when N > 32 ->
Elem = fun(I) -> #binop{op = '!', left = ?I(32 * I), right = ?V(bin)}
end,
Words = (N + 31) div 32,
?LET(bin, Term, {tuple, [?I(N) | [Elem(I) || I <- lists:seq(0, Words - 1)]]}).
-120
View File
@@ -1,120 +0,0 @@
%%%-------------------------------------------------------------------
%%% @author Ulf Norell
%%% @copyright (C) 2019, Aeternity Anstalt
%%% @doc
%%% Formatting of code generation errors.
%%% @end
%%%
%%%-------------------------------------------------------------------
-module(aeso_code_errors).
-export([format/1, pos/1]).
format({last_declaration_must_be_contract, Decl = {namespace, _, {con, _, C}, _}}) ->
Msg = io_lib:format("Expected a contract as the last declaration instead of the namespace '~s'\n",
[C]),
mk_err(pos(Decl), Msg);
format({missing_init_function, Con}) ->
Msg = io_lib:format("Missing init function for the contract '~s'.\n", [pp_expr(Con)]),
Cxt = "The 'init' function can only be omitted if the state type is 'unit'.\n",
mk_err(pos(Con), Msg, Cxt);
format({missing_definition, Id}) ->
Msg = io_lib:format("Missing definition of function '~s'.\n", [pp_expr(Id)]),
mk_err(pos(Id), Msg);
format({parameterized_state, Decl}) ->
Msg = "The state type cannot be parameterized.\n",
mk_err(pos(Decl), Msg);
format({parameterized_event, Decl}) ->
Msg = "The event type cannot be parameterized.\n",
mk_err(pos(Decl), Msg);
format({invalid_entrypoint, Why, Ann, {id, _, Name}, Thing}) ->
What = case Why of higher_order -> "higher-order (contains function types)";
polymorphic -> "polymorphic (contains type variables)" end,
ThingS = case Thing of
{argument, X, T} -> io_lib:format("argument\n~s\n", [pp_typed(X, T)]);
{result, T} -> io_lib:format("return type\n~s\n", [pp_type(2, T)])
end,
Bad = case Thing of
{argument, _, _} -> io_lib:format("has a ~s type", [What]);
{result, _} -> io_lib:format("is ~s", [What])
end,
Msg = io_lib:format("The ~sof entrypoint '~s' ~s.\n",
[ThingS, Name, Bad]),
case Why of
polymorphic -> mk_err(pos(Ann), Msg, "Use the FATE backend if you want polymorphic entrypoints.\n");
higher_order -> mk_err(pos(Ann), Msg)
end;
format({cant_compare_type_aevm, Ann, Op, Type}) ->
StringAndTuple = [ "- type string\n"
"- tuple or record of word type\n" || lists:member(Op, ['==', '!=']) ],
Msg = io_lib:format("Cannot compare values of type\n"
"~s\n"
"The AEVM only supports '~s' on values of\n"
"- word type (int, bool, bits, address, oracle(_, _), etc)\n"
"~s",
[pp_type(2, Type), Op, StringAndTuple]),
Cxt = "Use FATE if you need to compare arbitrary types.\n",
mk_err(pos(Ann), Msg, Cxt);
format({invalid_aens_resolve_type, Ann, T}) ->
Msg = io_lib:format("Invalid return type of AENS.resolve:\n"
"~s\n"
"It must be a string or a pubkey type (address, oracle, etc).\n",
[pp_type(2, T)]),
mk_err(pos(Ann), Msg);
format({unapplied_contract_call, Contract}) ->
Msg = io_lib:format("The AEVM does not support unapplied contract call to\n"
"~s\n", [pp_expr(2, Contract)]),
Cxt = "Use FATE if you need this.\n",
mk_err(pos(Contract), Msg, Cxt);
format({unapplied_builtin, Id}) ->
Msg = io_lib:format("The AEVM does not support unapplied use of ~s.\n", [pp_expr(0, Id)]),
Cxt = "Use FATE if you need this.\n",
mk_err(pos(Id), Msg, Cxt);
format({invalid_map_key_type, Why, Ann, Type}) ->
Msg = io_lib:format("Invalid map key type\n~s\n", [pp_type(2, Type)]),
Cxt = case Why of
polymorphic -> "Map keys cannot be polymorphic in the AEVM. Use FATE if you need this.\n";
function -> "Map keys cannot be higher-order.\n"
end,
mk_err(pos(Ann), Msg, Cxt);
format({invalid_oracle_type, Why, What, Ann, Type}) ->
WhyS = case Why of higher_order -> "higher-order (contain function types)";
polymorphic -> "polymorphic (contain type variables)" end,
Msg = io_lib:format("Invalid oracle type\n~s\n", [pp_type(2, Type)]),
Cxt = io_lib:format("The ~s type must not be ~s.\n", [What, WhyS]),
mk_err(pos(Ann), Msg, Cxt);
format({higher_order_state, {type_def, Ann, _, _, State}}) ->
Msg = io_lib:format("Invalid state type\n~s\n", [pp_type(2, State)]),
Cxt = "The state cannot contain functions in the AEVM. Use FATE if you need this.\n",
mk_err(pos(Ann), Msg, Cxt);
format(Err) ->
mk_err(aeso_errors:pos(0, 0), io_lib:format("Unknown error: ~p\n", [Err])).
pos(Ann) ->
File = aeso_syntax:get_ann(file, Ann, no_file),
Line = aeso_syntax:get_ann(line, Ann, 0),
Col = aeso_syntax:get_ann(col, Ann, 0),
aeso_errors:pos(File, Line, Col).
pp_typed(E, T) ->
prettypr:format(prettypr:nest(2,
lists:foldr(fun prettypr:beside/2, prettypr:empty(),
[aeso_pretty:expr(E), prettypr:text(" : "),
aeso_pretty:type(T)]))).
pp_expr(E) ->
pp_expr(0, E).
pp_expr(N, E) ->
prettypr:format(prettypr:nest(N, aeso_pretty:expr(E))).
pp_type(N, T) ->
prettypr:format(prettypr:nest(N, aeso_pretty:type(T))).
mk_err(Pos, Msg) ->
aeso_errors:new(code_error, Pos, lists:flatten(Msg)).
mk_err(Pos, Msg, Cxt) ->
aeso_errors:new(code_error, Pos, lists:flatten(Msg), lists:flatten(Cxt)).
+147 -548
View File
@@ -2,7 +2,7 @@
%%% @author Happi (Erik Stenman)
%%% @copyright (C) 2017, Aeternity Anstalt
%%% @doc
%%% Compiler from Aeterinty Sophia language to both AEVM and FATE VM.
%%% Compiler from Aeterinty Sophia language to the Aeternity VM, aevm.
%%% @end
%%% Created : 12 Dec 2017
%%%-------------------------------------------------------------------
@@ -11,500 +11,175 @@
-export([ file/1
, file/2
, from_string/2
, check_call/4
, create_calldata/3 %% deprecated
, create_calldata/4
, check_call/2
, create_calldata/3
, version/0
, numeric_version/0
, sophia_type_to_typerep/1
, to_sophia_value/4 %% deprecated, need a backend
, to_sophia_value/5
, decode_calldata/3 %% deprecated
, decode_calldata/4
, parse/2
, add_include_path/2
, validate_byte_code/3
]).
-include_lib("aebytecode/include/aeb_opcodes.hrl").
-include("aeso_icode.hrl").
-type option() :: pp_sophia_code
| pp_ast
| pp_types
| pp_typed_ast
| pp_icode
| pp_assembler
| pp_bytecode
| no_code
| keep_included
| debug_mode
| {backend, aevm | fate}
| {include, {file_system, [string()]} |
{explicit_files, #{string() => binary()}}}
| {src_file, string()}
| {aci, aeso_aci:aci_type()}.
-type option() :: pp_sophia_code | pp_ast | pp_types | pp_typed_ast |
pp_icode| pp_assembler | pp_bytecode.
-type options() :: [option()].
-export_type([ option/0
, options/0
]).
-spec version() -> {ok, binary()} | {error, term()}.
-define(COMPILER_VERSION_1, 1).
-define(COMPILER_VERSION_2, 2).
-define(COMPILER_VERSION, ?COMPILER_VERSION_2).
-spec version() -> pos_integer().
version() ->
case lists:keyfind(aesophia, 1, application:loaded_applications()) of
false ->
case application:load(aesophia) of
ok ->
case application:get_key(aesophia, vsn) of
{ok, VsnString} ->
{ok, list_to_binary(VsnString)};
undefined ->
{error, failed_to_load_aesophia}
end;
Err = {error, _} ->
Err
end;
{_App, _Des, VsnString} ->
{ok, list_to_binary(VsnString)}
end.
?COMPILER_VERSION.
-spec numeric_version() -> {ok, [non_neg_integer()]} | {error, term()}.
numeric_version() ->
case version() of
{ok, Bin} ->
[NoSuf | _] = binary:split(Bin, <<"-">>),
Numbers = binary:split(NoSuf, <<".">>, [global]),
{ok, [binary_to_integer(Num) || Num <- Numbers]};
{error, _} = Err ->
Err
end.
-spec file(string()) -> {ok, map()} | {error, [aeso_errors:error()]}.
-spec file(string()) -> {ok, map()} | {error, binary()}.
file(Filename) ->
file(Filename, []).
-spec file(string(), options()) -> {ok, map()} | {error, [aeso_errors:error()]}.
file(File, Options0) ->
Options = add_include_path(File, Options0),
-spec file(string(), options()) -> {ok, map()} | {error, binary()}.
file(File, Options) ->
case read_contract(File) of
{ok, Bin} -> from_string(Bin, [{src_file, File} | Options]);
{ok, Bin} -> from_string(Bin, Options);
{error, Error} ->
Msg = lists:flatten([File,": ",file:format_error(Error)]),
{error, [aeso_errors:new(file_error, Msg)]}
ErrorString = [File,": ",file:format_error(Error)],
{error, join_errors("File errors", [ErrorString], fun(E) -> E end)}
end.
add_include_path(File, Options) ->
case lists:keymember(include, 1, Options) of
true -> Options;
false ->
Dir = filename:dirname(File),
{ok, Cwd} = file:get_cwd(),
[{include, {file_system, [Cwd, Dir]}} | Options]
end.
-spec from_string(binary() | string(), options()) -> {ok, map()} | {error, [aeso_errors:error()]}.
from_string(Contract, Options) ->
from_string(proplists:get_value(backend, Options, aevm), Contract, Options).
from_string(Backend, ContractBin, Options) when is_binary(ContractBin) ->
from_string(Backend, binary_to_list(ContractBin), Options);
from_string(Backend, ContractString, Options) ->
-spec from_string(binary() | string(), options()) -> {ok, map()} | {error, binary()}.
from_string(ContractBin, Options) when is_binary(ContractBin) ->
from_string(binary_to_list(ContractBin), Options);
from_string(ContractString, Options) ->
try
from_string1(Backend, ContractString, Options)
Ast = parse(ContractString, Options),
ok = pp_sophia_code(Ast, Options),
ok = pp_ast(Ast, Options),
TypedAst = aeso_ast_infer_types:infer(Ast, Options),
%% pp_types is handled inside aeso_ast_infer_types.
ok = pp_typed_ast(TypedAst, Options),
ICode = to_icode(TypedAst, Options),
TypeInfo = extract_type_info(ICode),
ok = pp_icode(ICode, Options),
Assembler = assemble(ICode, Options),
ok = pp_assembler(Assembler, Options),
ByteCodeList = to_bytecode(Assembler, Options),
ByteCode = << << B:8 >> || B <- ByteCodeList >>,
ok = pp_bytecode(ByteCode, Options),
{ok, #{byte_code => ByteCode,
compiler_version => version(),
contract_source => ContractString,
type_info => TypeInfo
}}
catch
throw:{error, Errors} -> {error, Errors}
%% The compiler errors.
error:{parse_errors, Errors} ->
{error, join_errors("Parse errors", Errors, fun(E) -> E end)};
error:{type_errors, Errors} ->
{error, join_errors("Type errors", Errors, fun(E) -> E end)};
error:{code_errors, Errors} ->
{error, join_errors("Code errors", Errors,
fun (E) -> io_lib:format("~p", [E]) end)}
%% General programming errors in the compiler just signal error.
end.
from_string1(aevm, ContractString, Options) ->
#{ icode := Icode
, folded_typed_ast := FoldedTypedAst } = string_to_code(ContractString, Options),
TypeInfo = extract_type_info(Icode),
Assembler = assemble(Icode, Options),
pp_assembler(aevm, Assembler, Options),
ByteCodeList = to_bytecode(Assembler, Options),
ByteCode = << << B:8 >> || B <- ByteCodeList >>,
pp_bytecode(ByteCode, Options),
{ok, Version} = version(),
Res = #{byte_code => ByteCode,
compiler_version => Version,
contract_source => ContractString,
type_info => TypeInfo,
abi_version => aeb_aevm_abi:abi_version(),
payable => maps:get(payable, Icode)
},
{ok, maybe_generate_aci(Res, FoldedTypedAst, Options)};
from_string1(fate, ContractString, Options) ->
#{ fcode := FCode
, folded_typed_ast := FoldedTypedAst } = string_to_code(ContractString, Options),
FateCode = aeso_fcode_to_fate:compile(FCode, Options),
pp_assembler(fate, FateCode, Options),
ByteCode = aeb_fate_code:serialize(FateCode, []),
{ok, Version} = version(),
Res = #{byte_code => ByteCode,
compiler_version => Version,
contract_source => ContractString,
type_info => [],
fate_code => FateCode,
abi_version => aeb_fate_abi:abi_version(),
payable => maps:get(payable, FCode)
},
{ok, maybe_generate_aci(Res, FoldedTypedAst, Options)}.
join_errors(Prefix, Errors, Pfun) ->
Ess = [ Pfun(E) || E <- Errors ],
list_to_binary(string:join([Prefix|Ess], "\n")).
maybe_generate_aci(Result, FoldedTypedAst, Options) ->
case proplists:get_value(aci, Options) of
undefined ->
Result;
Type ->
{ok, Aci} = aeso_aci:from_typed_ast(Type, FoldedTypedAst),
maps:put(aci, Aci, Result)
end.
-spec string_to_code(string(), options()) -> map().
string_to_code(ContractString, Options) ->
Ast = parse(ContractString, Options),
pp_sophia_code(Ast, Options),
pp_ast(Ast, Options),
{TypeEnv, FoldedTypedAst, UnfoldedTypedAst} = aeso_ast_infer_types:infer(Ast, [return_env | Options]),
pp_typed_ast(UnfoldedTypedAst, Options),
case proplists:get_value(backend, Options, aevm) of
aevm ->
Icode = ast_to_icode(UnfoldedTypedAst, Options),
pp_icode(Icode, Options),
#{ icode => Icode
, unfolded_typed_ast => UnfoldedTypedAst
, folded_typed_ast => FoldedTypedAst
, type_env => TypeEnv
, ast => Ast };
fate ->
Fcode = aeso_ast_to_fcode:ast_to_fcode(UnfoldedTypedAst, Options),
#{ fcode => Fcode
, unfolded_typed_ast => UnfoldedTypedAst
, folded_typed_ast => FoldedTypedAst
, type_env => TypeEnv
, ast => Ast }
end.
-define(CALL_NAME, "__call").
-define(DECODE_NAME, "__decode").
-define(CALL_NAME, "__call").
%% Takes a string containing a contract with a declaration/prototype of a
%% function (foo, say) and adds function __call() = foo(args) calling this
%% function (foo, say) and a function __call() = foo(args) calling this
%% function. Returns the name of the called functions, typereps and Erlang
%% terms for the arguments.
%% NOTE: Special treatment for "init" since it might be implicit and has
%% a special return type (typerep, T)
-spec check_call(string(), string(), [string()], options()) -> {ok, string(), {[Type], Type}, [term()]}
| {ok, string(), [term()]}
| {error, [aeso_errors:error()]}
-spec check_call(string(), options()) -> {ok, string(), {[Type], Type | any}, [term()]} | {error, term()}
when Type :: term().
check_call(Source, "init" = FunName, Args, Options) ->
case check_call1(Source, FunName, Args, Options) of
Err = {error, _} when Args == [] ->
%% Try with default init-function
case check_call1(insert_init_function(Source, Options), FunName, Args, Options) of
{error, _} -> Err; %% The first error is most likely better...
Res -> Res
end;
Res ->
Res
check_call(ContractString, Options) ->
try
Ast = parse(ContractString, Options),
ok = pp_sophia_code(Ast, Options),
ok = pp_ast(Ast, Options),
TypedAst = aeso_ast_infer_types:infer(Ast, [permissive_address_literals]),
{ok, {FunName, {fun_t, _, _, ArgTypes, RetType}}} = get_call_type(TypedAst),
ok = pp_typed_ast(TypedAst, Options),
Icode = to_icode(TypedAst, Options),
ArgVMTypes = [ aeso_ast_to_icode:ast_typerep(T, Icode) || T <- ArgTypes ],
RetVMType = case RetType of
{id, _, "_"} -> any;
_ -> aeso_ast_to_icode:ast_typerep(RetType, Icode)
end,
ok = pp_icode(Icode, Options),
#{ functions := Funs } = Icode,
ArgIcode = get_arg_icode(Funs),
ArgTerms = [ icode_to_term(T, Arg) ||
{T, Arg} <- lists:zip(ArgVMTypes, ArgIcode) ],
{ok, FunName, {ArgVMTypes, RetVMType}, ArgTerms}
catch
error:{parse_errors, Errors} ->
{error, join_errors("Parse errors", Errors, fun (E) -> E end)};
error:{type_errors, Errors} ->
{error, join_errors("Type errors", Errors, fun (E) -> E end)};
error:{badmatch, {error, missing_call_function}} ->
{error, join_errors("Type errors", ["missing __call function"],
fun (E) -> E end)};
throw:Error -> %Don't ask
{error, join_errors("Code errors", [Error],
fun (E) -> io_lib:format("~p", [E]) end)}
end.
-spec create_calldata(map(), string(), string()) ->
{ok, binary(), aeso_sophia:type(), aeso_sophia:type()}
| {error, argument_syntax_error}.
create_calldata(Contract, "", CallCode) when is_map(Contract) ->
case check_call(CallCode, []) of
{ok, FunName, {ArgTypes, RetType}, Args} ->
aeso_abi:create_calldata(Contract, FunName, Args, ArgTypes, RetType);
{error, _} = Err -> Err
end;
check_call(Source, FunName, Args, Options) ->
check_call1(Source, FunName, Args, Options).
check_call1(ContractString0, FunName, Args, Options) ->
try
case proplists:get_value(backend, Options, aevm) of
aevm ->
%% First check the contract without the __call function
#{ast := Ast} = string_to_code(ContractString0, Options),
ContractString = insert_call_function(Ast, ContractString0, ?CALL_NAME, FunName, Args),
#{unfolded_typed_ast := TypedAst,
icode := Icode} = string_to_code(ContractString, Options),
{ok, {FunName, {fun_t, _, _, ArgTypes, RetType}}} = get_call_type(TypedAst),
ArgVMTypes = [ aeso_ast_to_icode:ast_typerep(T, Icode) || T <- ArgTypes ],
RetVMType = case RetType of
{id, _, "_"} -> any;
_ -> aeso_ast_to_icode:ast_typerep(RetType, Icode)
end,
#{ functions := Funs } = Icode,
ArgIcode = get_arg_icode(Funs),
ArgTerms = [ icode_to_term(T, Arg) ||
{T, Arg} <- lists:zip(ArgVMTypes, ArgIcode) ],
RetVMType1 =
case FunName of
"init" -> {tuple, [typerep, RetVMType]};
_ -> RetVMType
end,
{ok, FunName, {ArgVMTypes, RetVMType1}, ArgTerms};
fate ->
%% First check the contract without the __call function
#{ fcode := OrgFcode
, ast := Ast } = string_to_code(ContractString0, Options),
FateCode = aeso_fcode_to_fate:compile(OrgFcode, []),
%% collect all hashes and compute the first name without hash collision to
SymbolHashes = maps:keys(aeb_fate_code:symbols(FateCode)),
CallName = first_none_match(?CALL_NAME, SymbolHashes,
lists:seq($1, $9) ++ lists:seq($A, $Z) ++ lists:seq($a, $z)),
ContractString = insert_call_function(Ast, ContractString0, CallName, FunName, Args),
#{fcode := Fcode} = string_to_code(ContractString, Options),
CallArgs = arguments_of_body(CallName, FunName, Fcode),
{ok, FunName, CallArgs}
end
catch
throw:{error, Errors} -> {error, Errors}
create_calldata(Contract, Function, Argument) when is_map(Contract) ->
%% Slightly hacky shortcut to let you get away without writing the full
%% call contract code.
%% Function should be "foo : type", and
%% Argument should be "Arg1, Arg2, .., ArgN" (no parens)
case string:lexemes(Function, ": ") of
%% If function is a single word fallback to old calldata generation
[FunName] -> aeso_abi:old_create_calldata(Contract, FunName, Argument);
[FunName | _] ->
Args = lists:map(fun($\n) -> 32; (X) -> X end, Argument), %% newline to space
CallContract = lists:flatten(
[ "contract Call =\n"
, " function ", Function, "\n"
, " function __call() = ", FunName, "(", Args, ")"
]),
create_calldata(Contract, "", CallContract)
end.
arguments_of_body(CallName, _FunName, Fcode) ->
#{body := Body} = maps:get({entrypoint, list_to_binary(CallName)}, maps:get(functions, Fcode)),
{def, _FName, Args} = Body,
%% FName is either {entrypoint, list_to_binary(FunName)} or 'init'
[ aeso_fcode_to_fate:term_to_fate(A) || A <- Args ].
first_none_match(_CallName, _Hashes, []) ->
error(unable_to_find_unique_call_name);
first_none_match(CallName, Hashes, [Char|Chars]) ->
case not lists:member(aeb_fate_code:symbol_identifier(list_to_binary(CallName)), Hashes) of
true ->
CallName;
false ->
first_none_match(?CALL_NAME++[Char], Hashes, Chars)
end.
%% Add the __call function to a contract.
-spec insert_call_function(aeso_syntax:ast(), string(), string(), string(), [string()]) -> string().
insert_call_function(Ast, Code, Call, FunName, Args) ->
Ind = last_contract_indent(Ast),
lists:flatten(
[ Code,
"\n\n",
lists:duplicate(Ind, " "),
"stateful entrypoint ", Call, "() = ", FunName, "(", string:join(Args, ","), ")\n"
]).
-spec insert_init_function(string(), options()) -> string().
insert_init_function(Code, Options) ->
Ast = parse(Code, Options),
Ind = last_contract_indent(Ast),
lists:flatten(
[ Code,
"\n\n",
lists:duplicate(Ind, " "), "entrypoint init() = ()\n"
]).
last_contract_indent(Decls) ->
case lists:last(Decls) of
{_, _, _, [Decl | _]} -> aeso_syntax:get_ann(col, Decl, 1) - 1;
_ -> 0
end.
-spec to_sophia_value(string(), string(), ok | error | revert, aeb_aevm_data:data()) ->
{ok, aeso_syntax:expr()} | {error, [aeso_errors:error()]}.
to_sophia_value(ContractString, Fun, ResType, Data) ->
to_sophia_value(ContractString, Fun, ResType, Data, [{backend, aevm}]).
-spec to_sophia_value(string(), string(), ok | error | revert, binary(), options()) ->
{ok, aeso_syntax:expr()} | {error, [aeso_errors:error()]}.
to_sophia_value(_, _, error, Err, _Options) ->
{ok, {app, [], {id, [], "error"}, [{string, [], Err}]}};
to_sophia_value(_, _, revert, Data, Options) ->
case proplists:get_value(backend, Options, aevm) of
aevm ->
case aeb_heap:from_binary(string, Data) of
{ok, Err} ->
{ok, {app, [], {id, [], "abort"}, [{string, [], Err}]}};
{error, _} ->
Msg = "Could not interpret the revert message\n",
{error, [aeso_errors:new(data_error, Msg)]}
end;
fate ->
try aeb_fate_encoding:deserialize(Data) of
Err -> {ok, {app, [], {id, [], "abort"}, [{string, [], Err}]}}
catch _:_ ->
Msg = "Could not deserialize the revert message\n",
{error, [aeso_errors:new(data_error, Msg)]}
end
end;
to_sophia_value(ContractString, FunName, ok, Data, Options0) ->
Options = [no_code | Options0],
try
Code = string_to_code(ContractString, Options),
#{ unfolded_typed_ast := TypedAst, type_env := TypeEnv} = Code,
{ok, _, Type0} = get_decode_type(FunName, TypedAst),
Type = aeso_ast_infer_types:unfold_types_in_type(TypeEnv, Type0, [unfold_record_types, unfold_variant_types]),
case proplists:get_value(backend, Options, aevm) of
aevm ->
Icode = maps:get(icode, Code),
VmType = aeso_ast_to_icode:ast_typerep(Type, Icode),
case aeb_heap:from_binary(VmType, Data) of
{ok, VmValue} ->
try
{ok, aeso_vm_decode:from_aevm(VmType, Type, VmValue)}
catch throw:cannot_translate_to_sophia ->
Type0Str = prettypr:format(aeso_pretty:type(Type0)),
Msg = io_lib:format("Cannot translate VM value ~p\n of type ~p\n to Sophia type ~s\n",
[Data, VmType, Type0Str]),
{error, [aeso_errors:new(data_error, Msg)]}
end;
{error, _Err} ->
Msg = io_lib:format("Failed to decode binary as type ~p\n", [VmType]),
{error, [aeso_errors:new(data_error, Msg)]}
end;
fate ->
try
{ok, aeso_vm_decode:from_fate(Type, aeb_fate_encoding:deserialize(Data))}
catch throw:cannot_translate_to_sophia ->
Type1 = prettypr:format(aeso_pretty:type(Type0)),
Msg = io_lib:format("Cannot translate FATE value ~p\n of Sophia type ~s\n",
[aeb_fate_encoding:deserialize(Data), Type1]),
{error, [aeso_errors:new(data_error, Msg)]};
_:_ ->
Type1 = prettypr:format(aeso_pretty:type(Type0)),
Msg = io_lib:format("Failed to decode binary as type ~s\n", [Type1]),
{error, [aeso_errors:new(data_error, Msg)]}
end
end
catch
throw:{error, Errors} -> {error, Errors}
end.
-spec create_calldata(string(), string(), [string()]) ->
{ok, binary(), aeb_aevm_data:type(), aeb_aevm_data:type()}
| {error, [aeso_errors:error()]}.
create_calldata(Code, Fun, Args) ->
create_calldata(Code, Fun, Args, [{backend, aevm}]).
-spec create_calldata(string(), string(), [string()], [{atom(), any()}]) ->
{ok, binary()} | {error, [aeso_errors:error()]}.
create_calldata(Code, Fun, Args, Options0) ->
Options = [no_code | Options0],
case proplists:get_value(backend, Options, aevm) of
aevm ->
case check_call(Code, Fun, Args, Options) of
{ok, FunName, {ArgTypes, RetType}, VMArgs} ->
aeb_aevm_abi:create_calldata(FunName, VMArgs, ArgTypes, RetType);
{error, _} = Err -> Err
end;
fate ->
case check_call(Code, Fun, Args, Options) of
{ok, FunName, FateArgs} ->
aeb_fate_abi:create_calldata(FunName, FateArgs);
{error, _} = Err -> Err
end
end.
-spec decode_calldata(string(), string(), binary()) ->
{ok, [aeso_syntax:type()], [aeso_syntax:expr()]}
| {error, [aeso_errors:error()]}.
decode_calldata(ContractString, FunName, Calldata) ->
decode_calldata(ContractString, FunName, Calldata, [{backend, aevm}]).
decode_calldata(ContractString, FunName, Calldata, Options0) ->
Options = [no_code | Options0],
try
Code = string_to_code(ContractString, Options),
#{ unfolded_typed_ast := TypedAst, type_env := TypeEnv} = Code,
{ok, Args, _} = get_decode_type(FunName, TypedAst),
GetType = fun({typed, _, _, T}) -> T; (T) -> T end,
ArgTypes = lists:map(GetType, Args),
Type0 = {tuple_t, [], ArgTypes},
%% user defined data types such as variants needed to match against
Type = aeso_ast_infer_types:unfold_types_in_type(TypeEnv, Type0, [unfold_record_types, unfold_variant_types]),
case proplists:get_value(backend, Options, aevm) of
aevm ->
Icode = maps:get(icode, Code),
VmType = aeso_ast_to_icode:ast_typerep(Type, Icode),
case aeb_heap:from_binary({tuple, [word, VmType]}, Calldata) of
{ok, {_, VmValue}} ->
try
{tuple, [], Values} = aeso_vm_decode:from_aevm(VmType, Type, VmValue),
%% Values are Sophia expressions in AST format
{ok, ArgTypes, Values}
catch throw:cannot_translate_to_sophia ->
Type0Str = prettypr:format(aeso_pretty:type(Type0)),
Msg = io_lib:format("Cannot translate VM value ~p\n of type ~p\n to Sophia type ~s\n",
[VmValue, VmType, Type0Str]),
{error, [aeso_errors:new(data_error, Msg)]}
end;
{error, _Err} ->
Msg = io_lib:format("Failed to decode calldata as type ~p\n", [VmType]),
{error, [aeso_errors:new(data_error, Msg)]}
end;
fate ->
case aeb_fate_abi:decode_calldata(FunName, Calldata) of
{ok, FateArgs} ->
try
{tuple_t, [], ArgTypes1} = Type,
AstArgs = [ aeso_vm_decode:from_fate(ArgType, FateArg)
|| {ArgType, FateArg} <- lists:zip(ArgTypes1, FateArgs)],
{ok, ArgTypes, AstArgs}
catch throw:cannot_translate_to_sophia ->
Type0Str = prettypr:format(aeso_pretty:type(Type0)),
Msg = io_lib:format("Cannot translate FATE value ~p\n to Sophia type ~s\n",
[FateArgs, Type0Str]),
{error, [aeso_errors:new(data_error, Msg)]}
end;
{error, _} ->
Msg = io_lib:format("Failed to decode calldata binary\n", []),
{error, [aeso_errors:new(data_error, Msg)]}
end
end
catch
throw:{error, Errors} -> {error, Errors}
end.
get_arg_icode(Funs) ->
case [ Args || {[_, ?CALL_NAME], _, _, {funcall, _, Args}, _} <- Funs ] of
[Args] -> Args;
[] -> error_missing_call_function()
end.
-dialyzer({nowarn_function, error_missing_call_function/0}).
error_missing_call_function() ->
Msg = "Internal error: missing '__call'-function",
aeso_errors:throw(aeso_errors:new(internal_error, Msg)).
[Args] = [ Args || {?CALL_NAME, _, _, {funcall, _, Args}, _} <- Funs ],
Args.
get_call_type([{contract, _, _, Defs}]) ->
case [ {lists:last(QFunName), FunType}
case [ {FunName, FunType}
|| {letfun, _, {id, _, ?CALL_NAME}, [], _Ret,
{typed, _,
{app, _,
{typed, _, {qid, _, QFunName}, FunType}, _}, _}} <- Defs ] of
{typed, _, {id, _, FunName}, FunType}, _}, _}} <- Defs ] of
[Call] -> {ok, Call};
[] -> error_missing_call_function()
[] -> {error, missing_call_function}
end;
get_call_type([_ | Contracts]) ->
%% The __call should be in the final contract
get_call_type(Contracts).
-dialyzer({nowarn_function, get_decode_type/2}).
get_decode_type(FunName, [{contract, Ann, _, Defs}]) ->
GetType = fun({letfun, _, {id, _, Name}, Args, Ret, _}) when Name == FunName -> [{Args, Ret}];
({fun_decl, _, {id, _, Name}, {fun_t, _, _, Args, Ret}}) when Name == FunName -> [{Args, Ret}];
(_) -> [] end,
case lists:flatmap(GetType, Defs) of
[{Args, Ret}] -> {ok, Args, Ret};
[] ->
case FunName of
"init" -> {ok, [], {tuple_t, [], []}};
_ ->
Msg = io_lib:format("Function '~s' is missing in contract\n", [FunName]),
Pos = aeso_code_errors:pos(Ann),
aeso_errors:throw(aeso_errors:new(data_error, Pos, Msg))
end
end;
get_decode_type(FunName, [_ | Contracts]) ->
%% The __decode should be in the final contract
get_decode_type(FunName, Contracts).
%% Translate an icode value (error if not value) to an Erlang term that can be
%% consumed by aeb_heap:to_binary().
%% consumed by aeso_heap:to_binary().
icode_to_term(word, {integer, N}) -> N;
icode_to_term(word, {unop, '-', {integer, N}}) -> -N;
icode_to_term(string, {tuple, [{integer, Len} | Words]}) ->
<<Str:Len/binary, _/binary>> = << <<W:256>> || {integer, W} <- Words >>,
Str;
@@ -528,14 +203,6 @@ icode_to_term(T = {map, KT, VT}, M) ->
#{};
_ -> throw({todo, M})
end;
icode_to_term(word, {unop, 'bnot', A}) ->
bnot icode_to_term(word, A);
icode_to_term(word, {binop, 'bor', A, B}) ->
icode_to_term(word, A) bor icode_to_term(word, B);
icode_to_term(word, {binop, 'bsl', A, B}) ->
icode_to_term(word, B) bsl icode_to_term(word, A);
icode_to_term(word, {binop, 'band', A, B}) ->
icode_to_term(word, A) band icode_to_term(word, B);
icode_to_term(typerep, _) ->
throw({todo, typerep});
icode_to_term(T, V) ->
@@ -544,7 +211,10 @@ icode_to_term(T, V) ->
icodes_to_terms(Ts, Vs) ->
[ icode_to_term(T, V) || {T, V} <- lists:zip(Ts, Vs) ].
ast_to_icode(TypedAst, Options) ->
parse(C,_Options) ->
parse_string(C).
to_icode(TypedAst, Options) ->
aeso_ast_to_icode:convert_typed(TypedAst, Options).
assemble(Icode, Options) ->
@@ -558,10 +228,7 @@ to_bytecode([Op|Rest], Options) ->
to_bytecode([], _) -> [].
extract_type_info(#{functions := Functions} =_Icode) ->
ArgTypesOnly = fun(As) -> [ T || {_, T} <- As ] end,
Payable = fun(Attrs) -> proplists:get_value(payable, Attrs, false) end,
TypeInfo = [aeb_aevm_abi:function_type_info(list_to_binary(lists:last(Name)),
Payable(Attrs), ArgTypesOnly(Args), TypeRep)
TypeInfo = [aeso_abi:function_type_info(list_to_binary(Name), Args, TypeRep)
|| {Name, Attrs, Args,_Body, TypeRep} <- Functions,
not is_tuple(Name),
not lists:member(private, Attrs)
@@ -574,11 +241,9 @@ pp_sophia_code(C, Opts)-> pp(C, Opts, pp_sophia_code, fun(Code) ->
pp_ast(C, Opts) -> pp(C, Opts, pp_ast, fun aeso_ast:pp/1).
pp_typed_ast(C, Opts)-> pp(C, Opts, pp_typed_ast, fun aeso_ast:pp_typed/1).
pp_icode(C, Opts) -> pp(C, Opts, pp_icode, fun aeso_icode:pp/1).
pp_assembler(C, Opts)-> pp(C, Opts, pp_assembler, fun aeb_asm:pp/1).
pp_bytecode(C, Opts) -> pp(C, Opts, pp_bytecode, fun aeb_disassemble:pp/1).
pp_assembler(aevm, C, Opts) -> pp(C, Opts, pp_assembler, fun aeb_asm:pp/1);
pp_assembler(fate, C, Opts) -> pp(C, Opts, pp_assembler, fun(Asm) -> io:format("~s", [aeb_fate_asm:pp(Asm)]) end).
pp(Code, Options, Option, PPFun) ->
case proplists:lookup(Option, Options) of
{Option, true} ->
@@ -587,104 +252,38 @@ pp(Code, Options, Option, PPFun) ->
ok
end.
%% -- Byte code validation ---------------------------------------------------
-define(protect(Tag, Code), fun() -> try Code catch _:Err1 -> throw({Tag, Err1}) end end()).
-spec validate_byte_code(map(), string(), options()) -> ok | {error, [aeso_errors:error()]}.
validate_byte_code(#{ byte_code := ByteCode, payable := Payable }, Source, Options) ->
Fail = fun(Err) -> {error, [aeso_errors:new(data_error, Err)]} end,
case proplists:get_value(backend, Options, aevm) of
B when B /= fate -> Fail(io_lib:format("Unsupported backend: ~s\n", [B]));
fate ->
try
FCode1 = ?protect(deserialize, aeb_fate_code:strip_init_function(aeb_fate_code:deserialize(ByteCode))),
{FCode2, SrcPayable} =
?protect(compile,
begin
{ok, #{ byte_code := SrcByteCode, payable := SrcPayable }} =
from_string1(fate, Source, Options),
FCode = aeb_fate_code:deserialize(SrcByteCode),
{aeb_fate_code:strip_init_function(FCode), SrcPayable}
end),
case compare_fate_code(FCode1, FCode2) of
ok when SrcPayable /= Payable ->
Not = fun(true) -> ""; (false) -> " not" end,
Fail(io_lib:format("Byte code contract is~s payable, but source code contract is~s.\n",
[Not(Payable), Not(SrcPayable)]));
ok -> ok;
{error, Why} -> Fail(io_lib:format("Byte code does not match source code.\n~s", [Why]))
end
catch
throw:{deserialize, _} -> Fail("Invalid byte code");
throw:{compile, {error, Errs}} -> {error, Errs}
end
end.
compare_fate_code(FCode1, FCode2) ->
Funs1 = aeb_fate_code:functions(FCode1),
Funs2 = aeb_fate_code:functions(FCode2),
Syms1 = aeb_fate_code:symbols(FCode1),
Syms2 = aeb_fate_code:symbols(FCode2),
FunHashes1 = maps:keys(Funs1),
FunHashes2 = maps:keys(Funs2),
case FunHashes1 == FunHashes2 of
false ->
InByteCode = [ binary_to_list(maps:get(H, Syms1)) || H <- FunHashes1 -- FunHashes2 ],
InSourceCode = [ binary_to_list(maps:get(H, Syms2)) || H <- FunHashes2 -- FunHashes1 ],
Msg = [ io_lib:format("- Functions in the byte code but not in the source code:\n"
" ~s\n", [string:join(InByteCode, ", ")]) || InByteCode /= [] ] ++
[ io_lib:format("- Functions in the source code but not in the byte code:\n"
" ~s\n", [string:join(InSourceCode, ", ")]) || InSourceCode /= [] ],
{error, Msg};
true ->
case lists:append([ compare_fate_fun(maps:get(H, Syms1), Fun1, Fun2)
|| {{H, Fun1}, {_, Fun2}} <- lists:zip(maps:to_list(Funs1),
maps:to_list(Funs2)) ]) of
[] -> ok;
Errs -> {error, Errs}
end
end.
compare_fate_fun(_Name, Fun, Fun) -> [];
compare_fate_fun(Name, {Attr, Type, _}, {Attr, Type, _}) ->
[io_lib:format("- The implementation of the function ~s is different.\n", [Name])];
compare_fate_fun(Name, {Attr1, Type, _}, {Attr2, Type, _}) ->
[io_lib:format("- The attributes of the function ~s differ:\n"
" Byte code: ~s\n"
" Source code: ~s\n",
[Name, string:join([ atom_to_list(A) || A <- Attr1 ], ", "),
string:join([ atom_to_list(A) || A <- Attr2 ], ", ")])];
compare_fate_fun(Name, {_, Type1, _}, {_, Type2, _}) ->
[io_lib:format("- The type of the function ~s differs:\n"
" Byte code: ~s\n"
" Source code: ~s\n",
[Name, pp_fate_sig(Type1), pp_fate_sig(Type2)])].
pp_fate_sig({[Arg], Res}) ->
io_lib:format("~s => ~s", [pp_fate_type(Arg), pp_fate_type(Res)]);
pp_fate_sig({Args, Res}) ->
io_lib:format("(~s) => ~s", [string:join([pp_fate_type(Arg) || Arg <- Args], ", "), pp_fate_type(Res)]).
pp_fate_type(T) -> io_lib:format("~w", [T]).
%% -------------------------------------------------------------------
%% TODO: Tempoary parser hook below...
-spec sophia_type_to_typerep(string()) -> {error, bad_type} | {ok, aeb_aevm_data:type()}.
sophia_type_to_typerep(String) ->
Ast = aeso_parser:run_parser(aeso_parser:type(), String),
{ok, Ast} = aeso_parser:type(String),
try aeso_ast_to_icode:ast_typerep(Ast) of
Type -> {ok, Type}
catch _:_ -> {error, bad_type}
end.
-spec parse(string(), aeso_compiler:options()) -> none() | aeso_syntax:ast().
parse(Text, Options) ->
parse(Text, sets:new(), Options).
parse_string(Text) ->
%% Try and return something sensible here!
case aeso_parser:string(Text) of
%% Yay, it worked!
{ok, Contract} -> Contract;
%% Scan errors.
{error, {Pos, scan_error}} ->
parse_error(Pos, "scan error");
{error, {Pos, scan_error_no_state}} ->
parse_error(Pos, "scan error");
%% Parse errors.
{error, {Pos, parse_error, Error}} ->
parse_error(Pos, Error);
{error, {Pos, ambiguous_parse, As}} ->
ErrorString = io_lib:format("Ambiguous ~p", [As]),
parse_error(Pos, ErrorString)
end.
-spec parse(string(), sets:set(), aeso_compiler:options()) -> none() | aeso_syntax:ast().
parse(Text, Included, Options) ->
aeso_parser:string(Text, Included, Options).
parse_error({Line, Pos}, ErrorString) ->
Error = io_lib:format("line ~p, column ~p: ~s", [Line, Pos, ErrorString]),
error({parse_errors, [Error]}).
read_contract(Name) ->
file:read_file(Name).
+42
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@@ -0,0 +1,42 @@
-module(aeso_constants).
-export([string/1, get_type/1]).
string(Str) ->
case aeso_parser:string("let _ = " ++ Str) of
{ok, [{letval, _, _, _, E}]} -> {ok, E};
{ok, Other} -> error({internal_error, should_be_letval, Other});
Err -> Err
end.
get_type(Str) ->
case aeso_parser:string("let _ = " ++ Str) of
{ok, [Ast]} ->
AstT = aeso_ast_infer_types:infer_constant(Ast),
T = ast_to_type(AstT),
{ok, T};
{ok, Other} -> error({internal_error, should_be_letval, Other});
Err -> Err
end.
ast_to_type({id, _, T}) ->
T;
ast_to_type({tuple_t, _, []}) -> "()";
ast_to_type({tuple_t, _, Ts}) ->
"(" ++ list_ast_to_type(Ts) ++ ")";
ast_to_type({app_t,_, {id, _, "list"}, [T]}) ->
lists:flatten("list(" ++ ast_to_type(T) ++ ")");
ast_to_type({app_t,_, {id, _, "option"}, [T]}) ->
lists:flatten("option(" ++ ast_to_type(T) ++ ")").
list_ast_to_type([T]) ->
ast_to_type(T);
list_ast_to_type([T|Ts]) ->
ast_to_type(T)
++ ", "
++ list_ast_to_type(Ts).
-112
View File
@@ -1,112 +0,0 @@
%%%-------------------------------------------------------------------
%%% @copyright (C) 2019, Aeternity Anstalt
%%% @doc ADT for structured error messages + formatting.
%%%
%%% @end
%%%-------------------------------------------------------------------
-module(aeso_errors).
-type src_file() :: no_file | iolist().
-record(pos, { file = no_file :: src_file()
, line = 0 :: non_neg_integer()
, col = 0 :: non_neg_integer()
}).
-type pos() :: #pos{}.
-type error_type() :: type_error | parse_error | code_error
| file_error | data_error | internal_error.
-record(err, { pos = #pos{} :: pos()
, type :: error_type()
, message :: iolist()
, context = none :: none | iolist()
}).
-opaque error() :: #err{}.
-export_type([error/0, pos/0]).
-export([ err_msg/1
, msg/1
, new/2
, new/3
, new/4
, pos/2
, pos/3
, pp/1
, to_json/1
, throw/1
, type/1
]).
new(Type, Msg) ->
new(Type, pos(0, 0), Msg).
new(Type, Pos, Msg) ->
#err{ type = Type, pos = Pos, message = Msg }.
new(Type, Pos, Msg, Ctxt) ->
#err{ type = Type, pos = Pos, message = Msg, context = Ctxt }.
pos(Line, Col) ->
#pos{ line = Line, col = Col }.
pos(File, Line, Col) ->
#pos{ file = File, line = Line, col = Col }.
-spec throw(_) -> ok | no_return().
throw([]) -> ok;
throw(Errs) when is_list(Errs) ->
SortedErrs = lists:sort(fun(E1, E2) -> E1#err.pos =< E2#err.pos end, Errs),
erlang:throw({error, SortedErrs});
throw(#err{} = Err) ->
erlang:throw({error, [Err]}).
msg(#err{ message = Msg, context = none }) -> Msg;
msg(#err{ message = Msg, context = Ctxt }) -> Msg ++ Ctxt.
err_msg(#err{ pos = Pos } = Err) ->
lists:flatten(io_lib:format("~s~s", [str_pos(Pos), msg(Err)])).
str_pos(#pos{file = no_file, line = L, col = C}) ->
io_lib:format("~p:~p:", [L, C]);
str_pos(#pos{file = F, line = L, col = C}) ->
io_lib:format("~s:~p:~p:", [F, L, C]).
type(#err{ type = Type }) -> Type.
pp(#err{ type = Kind, pos = Pos } = Err) ->
lists:flatten(io_lib:format("~s~s:\n~s", [pp_kind(Kind), pp_pos(Pos), msg(Err)])).
pp_kind(type_error) -> "Type error";
pp_kind(parse_error) -> "Parse error";
pp_kind(code_error) -> "Code generation error";
pp_kind(file_error) -> "File error";
pp_kind(data_error) -> "Data error";
pp_kind(internal_error) -> "Internal error".
pp_pos(#pos{file = no_file, line = 0, col = 0}) ->
"";
pp_pos(#pos{file = no_file, line = L, col = C}) ->
io_lib:format(" at line ~p, col ~p", [L, C]);
pp_pos(#pos{file = F, line = L, col = C}) ->
io_lib:format(" in '~s' at line ~p, col ~p", [F, L, C]).
to_json(#err{pos = Pos, type = Type, message = Msg, context = Cxt}) ->
Json = #{ pos => pos_to_json(Pos),
type => atom_to_binary(Type, utf8),
message => iolist_to_binary(Msg) },
case Cxt of
none -> Json;
_ -> Json#{ context => iolist_to_binary(Cxt) }
end.
pos_to_json(#pos{ file = File, line = Line, col = Col }) ->
Json = #{ line => Line, col => Col },
case File of
no_file -> Json;
_ -> Json#{ file => iolist_to_binary(File) }
end.
File diff suppressed because it is too large Load Diff
+301
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@@ -0,0 +1,301 @@
-module(aeso_heap).
-export([ to_binary/1
, to_binary/2
, from_heap/3
, from_binary/2
, from_binary/3
, maps_with_next_id/1
, set_next_id/2
, heap_fragment/3
, heap_value/3
, heap_value/4
, heap_value_pointer/1
, heap_value_maps/1
, heap_value_offset/1
, heap_value_heap/1
, heap_fragment_maps/1
, heap_fragment_offset/1
, heap_fragment_heap/1
]).
-export_type([binary_value/0, heap_value/0, offset/0, heap_fragment/0]).
-include("aeso_icode.hrl").
-include_lib("aesophia/include/aeso_heap.hrl").
-type word() :: non_neg_integer().
-type pointer() :: word().
-opaque heap_fragment() :: #heap{}.
-type offset() :: non_neg_integer().
-type binary_value() :: binary().
-type heap_value() :: {pointer(), heap_fragment()}.
-spec maps_with_next_id(heap_fragment()) -> #maps{}.
%% Create just a maps value, don't keep rest of Heap
maps_with_next_id(#heap{maps = #maps{next_id = N}}) ->
#maps{ next_id = N }.
-spec set_next_id(heap_fragment(), non_neg_integer()) -> heap_fragment().
set_next_id(Heap, N) ->
Heap#heap{ maps = Heap#heap.maps#maps{ next_id = N } }.
%% -- data type heap_fragment
-spec heap_fragment(binary() | #{non_neg_integer() => non_neg_integer()}) -> heap_fragment().
heap_fragment(Heap) ->
heap_fragment(#maps{ next_id = 0 }, 0, Heap).
-spec heap_fragment(#maps{}, offset(),
binary() | #{non_neg_integer() => non_neg_integer()}) -> heap_fragment().
heap_fragment(Maps, Offset, Heap) ->
#heap{maps = Maps, offset = Offset, heap = Heap}.
-spec heap_fragment_maps(heap_fragment()) -> #maps{}.
heap_fragment_maps(#heap{maps = Maps}) ->
Maps.
-spec heap_fragment_offset(heap_fragment()) -> offset().
heap_fragment_offset(#heap{offset = Offs}) ->
Offs.
-spec heap_fragment_heap(heap_fragment()) -> binary() | #{non_neg_integer() => non_neg_integer()}.
heap_fragment_heap(#heap{heap = Heap}) ->
Heap.
%% -- data type heap_value
-spec heap_value(#maps{}, pointer(),
binary() | #{non_neg_integer() => non_neg_integer()}) -> heap_value().
heap_value(Maps, Ptr, Heap) ->
heap_value(Maps, Ptr, Heap, 0).
-spec heap_value(#maps{}, pointer(),
binary() | #{non_neg_integer() => non_neg_integer()}, offset()) -> heap_value().
heap_value(Maps, Ptr, Heap, Offs) ->
{Ptr, heap_fragment(Maps, Offs, Heap)}.
-spec heap_value_pointer(heap_value()) -> pointer().
heap_value_pointer({Ptr, _}) -> Ptr.
-spec heap_value_maps(heap_value()) -> #maps{}.
heap_value_maps({_, Heap}) -> Heap#heap.maps.
-spec heap_value_offset(heap_value()) -> offset().
heap_value_offset({_, Heap}) -> Heap#heap.offset.
-spec heap_value_heap(heap_value()) ->
binary() | #{non_neg_integer() => non_neg_integer()}.
heap_value_heap({_, Heap}) -> Heap#heap.heap.
%% -- Value to binary --------------------------------------------------------
-spec to_binary(aeso_sophia:data()) -> aeso_sophia:heap().
%% Encode the data as a heap where the first word is the value (for unboxed
%% types) or a pointer to the value (for boxed types).
to_binary(Data) ->
to_binary(Data, 0).
to_binary(Data, BaseAddress) ->
{Address, Memory} = to_binary1(Data, BaseAddress + 32),
R = <<Address:256, Memory/binary>>,
R.
%% Allocate the data in memory, from the given address. Return a pair
%% of memory contents from that address and the value representing the
%% data.
to_binary1(Data,_Address) when is_integer(Data) ->
{Data,<<>>};
to_binary1(Data, Address) when is_binary(Data) ->
%% a string
Words = aeso_memory:binary_to_words(Data),
{Address,<<(size(Data)):256, << <<W:256>> || W <- Words>>/binary>>};
to_binary1(none, Address) -> to_binary1({variant, 0, []}, Address);
to_binary1({some, Value}, Address) -> to_binary1({variant, 1, [Value]}, Address);
to_binary1(word, Address) -> to_binary1({?TYPEREP_WORD_TAG}, Address);
to_binary1(string, Address) -> to_binary1({?TYPEREP_STRING_TAG}, Address);
to_binary1(typerep, Address) -> to_binary1({?TYPEREP_TYPEREP_TAG}, Address);
to_binary1(function, Address) -> to_binary1({?TYPEREP_FUN_TAG}, Address);
to_binary1({list, T}, Address) -> to_binary1({?TYPEREP_LIST_TAG, T}, Address);
to_binary1({option, T}, Address) -> to_binary1({variant, [[], [T]]}, Address);
to_binary1({tuple, Ts}, Address) -> to_binary1({?TYPEREP_TUPLE_TAG, Ts}, Address);
to_binary1({variant, Cons}, Address) -> to_binary1({?TYPEREP_VARIANT_TAG, Cons}, Address);
to_binary1({map, K, V}, Address) -> to_binary1({?TYPEREP_MAP_TAG, K, V}, Address);
to_binary1({variant, Tag, Args}, Address) ->
to_binary1(list_to_tuple([Tag | Args]), Address);
to_binary1(Map, Address) when is_map(Map) ->
Size = maps:size(Map),
%% Sort according to binary ordering
KVs = lists:sort([ {to_binary(K), to_binary(V)} || {K, V} <- maps:to_list(Map) ]),
{Address, <<Size:256, << <<(byte_size(K)):256, K/binary,
(byte_size(V)):256, V/binary>> || {K, V} <- KVs >>/binary >>};
to_binary1({}, _Address) ->
{0, <<>>};
to_binary1(Data, Address) when is_tuple(Data) ->
{Elems,Memory} = to_binaries(tuple_to_list(Data),Address+32*size(Data)),
ElemsBin = << <<W:256>> || W <- Elems>>,
{Address,<< ElemsBin/binary, Memory/binary >>};
to_binary1([],_Address) ->
<<Nil:256>> = <<(-1):256>>,
{Nil,<<>>};
to_binary1([H|T],Address) ->
to_binary1({H,T},Address).
to_binaries([],_Address) ->
{[],<<>>};
to_binaries([H|T],Address) ->
{HRep,HMem} = to_binary1(H,Address),
{TRep,TMem} = to_binaries(T,Address+size(HMem)),
{[HRep|TRep],<<HMem/binary, TMem/binary>>}.
%% Interpret a return value (a binary) using a type rep.
-spec from_heap(Type :: ?Type(), Heap :: binary(), Ptr :: integer()) ->
{ok, term()} | {error, term()}.
from_heap(Type, Heap, Ptr) ->
try {ok, from_binary(#{}, Type, Heap, Ptr)}
catch _:Err ->
%% io:format("** Error: from_heap failed with ~p\n ~p\n", [Err, erlang:get_stacktrace()]),
{error, Err}
end.
%% Base address is the address of the first word of the given heap.
-spec from_binary(T :: ?Type(),
Heap :: binary(),
BaseAddr :: non_neg_integer()) ->
{ok, term()} | {error, term()}.
from_binary(T, Heap = <<V:256, _/binary>>, BaseAddr) ->
from_heap(T, <<0:BaseAddr/unit:8, Heap/binary>>, V);
from_binary(_, Bin, _BaseAddr) ->
{error, {binary_too_short, Bin}}.
-spec from_binary(?Type(), binary()) -> {ok, term()} | {error, term()}.
from_binary(T, Heap) ->
from_binary(T, Heap, 0).
from_binary(_, word, _, V) ->
V;
from_binary(_, signed_word, _, V) ->
<<N:256/signed>> = <<V:256>>,
N;
from_binary(_, bool, _, V) ->
case V of
0 -> false;
1 -> true
end;
from_binary(_, string, Heap, V) ->
StringSize = heap_word(Heap,V),
BitAddr = 8*(V+32),
<<_:BitAddr,Bytes:StringSize/binary,_/binary>> = Heap,
Bytes;
from_binary(_, {tuple, []}, _, _) ->
{};
from_binary(Visited, {tuple,Cpts}, Heap, V) ->
check_circular_refs(Visited, V),
NewVisited = Visited#{V => true},
ElementNums = lists:seq(0, length(Cpts)-1),
TypesAndPointers = lists:zip(Cpts, ElementNums),
ElementAddress = fun(Index) -> V + 32 * Index end,
Element = fun(Index) ->
heap_word(Heap, ElementAddress(Index))
end,
Convert = fun(Type, Index) ->
from_binary(NewVisited, Type, Heap, Element(Index))
end,
Elements = [Convert(T, I) || {T,I} <- TypesAndPointers],
list_to_tuple(Elements);
from_binary(Visited, {list, Elem}, Heap, V) ->
<<Nil:256>> = <<(-1):256>>,
if V==Nil ->
[];
true ->
{H,T} = from_binary(Visited, {tuple,[Elem,{list,Elem}]},Heap,V),
[H|T]
end;
from_binary(Visited, {option, A}, Heap, V) ->
from_binary(Visited, {variant_t, [{none, []}, {some, [A]}]}, Heap, V);
from_binary(Visited, {variant, Cons}, Heap, V) ->
Tag = heap_word(Heap, V),
Args = lists:nth(Tag + 1, Cons),
Visited1 = Visited#{V => true},
{variant, Tag, tuple_to_list(from_binary(Visited1, {tuple, Args}, Heap, V + 32))};
from_binary(Visited, {variant_t, TCons}, Heap, V) -> %% Tagged variants
{Tags, Cons} = lists:unzip(TCons),
{variant, I, Args} = from_binary(Visited, {variant, Cons}, Heap, V),
Tag = lists:nth(I + 1, Tags),
case Args of
[] -> Tag;
_ -> list_to_tuple([Tag | Args])
end;
from_binary(_Visited, {map, A, B}, Heap, Ptr) ->
%% FORMAT: [Size] [KeySize] Key [ValSize] Val .. [KeySize] Key [ValSize] Val
Size = heap_word(Heap, Ptr),
map_binary_to_value(A, B, Size, Heap, Ptr + 32);
from_binary(Visited, typerep, Heap, V) ->
check_circular_refs(Visited, V),
Tag = heap_word(Heap, V),
Arg1 = fun(T, I) -> from_binary(Visited#{V => true}, T, Heap, heap_word(Heap, V + 32 * I)) end,
Arg = fun(T) -> Arg1(T, 1) end,
case Tag of
?TYPEREP_WORD_TAG -> word;
?TYPEREP_STRING_TAG -> string;
?TYPEREP_TYPEREP_TAG -> typerep;
?TYPEREP_LIST_TAG -> {list, Arg(typerep)};
?TYPEREP_TUPLE_TAG -> {tuple, Arg({list, typerep})};
?TYPEREP_VARIANT_TAG -> {variant, Arg({list, {list, typerep}})};
?TYPEREP_MAP_TAG -> {map, Arg(typerep), Arg1(typerep, 2)};
?TYPEREP_FUN_TAG -> function
end.
map_binary_to_value(KeyType, ValType, N, Bin, Ptr) ->
%% Avoid looping on bogus sizes
MaxN = byte_size(Bin) div 64,
Heap = heap_fragment(Bin),
map_from_binary({value, KeyType, ValType}, min(N, MaxN), Heap, Ptr, #{}).
map_from_binary(_, 0, _, _, Map) -> Map;
map_from_binary({value, KeyType, ValType} = Output, I, Heap, Ptr, Map) ->
KeySize = get_word(Heap, Ptr),
KeyPtr = Ptr + 32,
KeyBin = get_chunk(Heap, KeyPtr, KeySize),
ValSize = get_word(Heap, KeyPtr + KeySize),
ValPtr = KeyPtr + KeySize + 32,
ValBin = get_chunk(Heap, ValPtr, ValSize),
%% Keys and values are self contained binaries
{ok, Key} = from_binary(KeyType, KeyBin),
{ok, Val} = from_binary(ValType, ValBin),
map_from_binary(Output, I - 1, Heap, ValPtr + ValSize, Map#{Key => Val}).
check_circular_refs(Visited, V) ->
case maps:is_key(V, Visited) of
true -> exit(circular_references);
false -> ok
end.
heap_word(Heap, Addr) when is_binary(Heap) ->
BitSize = 8*Addr,
<<_:BitSize,W:256,_/binary>> = Heap,
W;
heap_word(Heap, Addr) when is_map(Heap) ->
0 = Addr rem 32, %% Check that it's word aligned.
maps:get(Addr, Heap, 0).
get_word(#heap{offset = Offs, heap = Mem}, Addr) when Addr >= Offs ->
get_word(Mem, Addr - Offs);
get_word(Mem, Addr) when is_binary(Mem) ->
<<_:Addr/unit:8, Word:256, _/binary>> = Mem,
Word.
get_chunk(#heap{offset = Offs, heap = Mem}, Addr, Bytes) when Addr >= Offs ->
get_chunk(Mem, Addr - Offs, Bytes);
get_chunk(Mem, Addr, Bytes) when is_binary(Mem) ->
<<_:Addr/unit:8, Chunk:Bytes/binary, _/binary>> = Mem,
Chunk.
+13 -58
View File
@@ -9,32 +9,19 @@
%%%-------------------------------------------------------------------
-module(aeso_icode).
-export([new/1,
pp/1,
set_name/2,
set_namespace/2,
set_payable/2,
enter_namespace/2,
get_namespace/1,
in_main_contract/1,
qualify/2,
set_functions/2,
map_typerep/2,
option_typerep/1,
get_constructor_tag/2]).
-export([new/1, pp/1, set_name/2, set_functions/2, map_typerep/2, option_typerep/1, get_constructor_tag/2]).
-export_type([icode/0]).
-include("aeso_icode.hrl").
-type type_def() :: fun(([aeb_aevm_data:type()]) -> aeb_aevm_data:type()).
-type type_def() :: fun(([aeso_sophia:type()]) -> aeso_sophia:type()).
-type bindings() :: any().
-type fun_dec() :: { string()
, [modifier()]
, arg_list()
, expr()
, aeb_aevm_data:type()}.
, aeso_sophia:type()}.
-type modifier() :: private | stateful.
@@ -42,15 +29,13 @@
-type icode() :: #{ contract_name => string()
, functions => [fun_dec()]
, namespace => aeso_syntax:con() | aeso_syntax:qcon()
, env => [bindings()]
, state_type => aeb_aevm_data:type()
, event_type => aeb_aevm_data:type()
, state_type => aeso_sophia:type()
, event_type => aeso_sophia:type()
, types => #{ type_name() => type_def() }
, type_vars => #{ string() => aeb_aevm_data:type() }
, constructors => #{ [string()] => integer() } %% name to tag
, type_vars => #{ string() => aeso_sophia:type() }
, constructors => #{ string() => integer() } %% name to tag
, options => [any()]
, payable => boolean()
}.
pp(Icode) ->
@@ -68,19 +53,16 @@ new(Options) ->
, types => builtin_types()
, type_vars => #{}
, constructors => builtin_constructors()
, options => Options
, payable => false }.
, options => Options}.
builtin_types() ->
Word = fun([]) -> word end,
#{ "bool" => Word
, "int" => Word
, "char" => Word
, "bits" => Word
, "string" => fun([]) -> string end
, "address" => Word
, "hash" => Word
, "unit" => fun([]) -> {tuple, []} end
, "signature" => fun([]) -> {tuple, [word, word]} end
, "oracle" => fun([_, _]) -> word end
, "oracle_query" => fun([_, _]) -> word end
@@ -91,10 +73,10 @@ builtin_types() ->
}.
builtin_constructors() ->
#{ ["RelativeTTL"] => 0
, ["FixedTTL"] => 1
, ["None"] => 0
, ["Some"] => 1 }.
#{ "RelativeTTL" => 0
, "FixedTTL" => 1
, "None" => 0
, "Some" => 1 }.
map_typerep(K, V) ->
{map, K, V}.
@@ -109,38 +91,11 @@ new_env() ->
set_name(Name, Icode) ->
maps:put(contract_name, Name, Icode).
-spec set_payable(boolean(), icode()) -> icode().
set_payable(Payable, Icode) ->
maps:put(payable, Payable, Icode).
-spec set_namespace(aeso_syntax:con() | aeso_syntax:qcon(), icode()) -> icode().
set_namespace(NS, Icode) -> Icode#{ namespace => NS }.
-spec enter_namespace(aeso_syntax:con(), icode()) -> icode().
enter_namespace(NS, Icode = #{ namespace := NS1 }) ->
Icode#{ namespace => aeso_syntax:qualify(NS1, NS) };
enter_namespace(NS, Icode) ->
Icode#{ namespace => NS }.
-spec in_main_contract(icode()) -> boolean().
in_main_contract(#{ namespace := {con, _, Main}, contract_name := Main }) -> true;
in_main_contract(_Icode) -> false.
-spec get_namespace(icode()) -> false | aeso_syntax:con() | aeso_syntax:qcon().
get_namespace(Icode) -> maps:get(namespace, Icode, false).
-spec qualify(aeso_syntax:id() | aeso_syntax:con(), icode()) -> aeso_syntax:id() | aeso_syntax:qid() | aeso_syntax:con() | aeso_syntax:qcon().
qualify(X, Icode) ->
case get_namespace(Icode) of
false -> X;
NS -> aeso_syntax:qualify(NS, X)
end.
-spec set_functions([fun_dec()], icode()) -> icode().
set_functions(NewFuns, Icode) ->
maps:put(functions, NewFuns, Icode).
-spec get_constructor_tag([string()], icode()) -> integer().
-spec get_constructor_tag(string(), icode()) -> integer().
get_constructor_tag(Name, #{constructors := Constructors}) ->
case maps:get(Name, Constructors, undefined) of
undefined -> error({undefined_constructor, Name});
+11 -2
View File
@@ -1,5 +1,14 @@
-include_lib("aebytecode/include/aeb_typerep_def.hrl").
-define(Type(), aeso_sophia:type()).
-define(TYPEREP_WORD_TAG, 0).
-define(TYPEREP_STRING_TAG, 1).
-define(TYPEREP_LIST_TAG, 2).
-define(TYPEREP_TUPLE_TAG, 3).
-define(TYPEREP_VARIANT_TAG, 4).
-define(TYPEREP_TYPEREP_TAG, 5).
-define(TYPEREP_MAP_TAG, 6).
-define(TYPEREP_FUN_TAG, 7).
-record(arg, {name::string(), type::?Type()}).
@@ -11,7 +20,7 @@
, args :: arg_list()
, body :: expr()}).
-record(var_ref, { name :: string() | list(string()) | {builtin, atom() | tuple()}}).
-record(var_ref, { name :: string() | {builtin, atom() | tuple()}}).
-record(prim_call_contract,
{ gas :: expr()
+4 -6
View File
@@ -17,7 +17,7 @@
i(Code) -> aeb_opcodes:mnemonic(Code).
%% We don't track purity or statefulness in the type checker yet.
is_stateful({FName, _, _, _, _}) -> lists:last(FName) /= "init".
is_stateful({FName, _, _, _, _}) -> FName /= "init".
is_public({_Name, Attrs, _Args, _Body, _Type}) -> not lists:member(private, Attrs).
@@ -27,7 +27,7 @@ convert(#{ contract_name := _ContractName
},
_Options) ->
%% Create a function dispatcher
DispatchFun = {"%main", [], [{"arg", "_"}],
DispatchFun = {"_main", [], [{"arg", "_"}],
{switch, {var_ref, "arg"},
[{{tuple, [fun_hash(Fun),
{tuple, make_args(Args)}]},
@@ -44,7 +44,7 @@ convert(#{ contract_name := _ContractName
%% taken from the stack
StopLabel = make_ref(),
StatefulStopLabel = make_ref(),
MainFunction = lookup_fun(Funs, "%main"),
MainFunction = lookup_fun(Funs, "_main"),
StateTypeValue = aeso_ast_to_icode:type_value(StateType),
@@ -105,7 +105,7 @@ make_args(Args) ->
fun_hash({FName, _, Args, _, TypeRep}) ->
ArgType = {tuple, [T || {_, T} <- Args]},
<<Hash:256>> = aeb_aevm_abi:function_type_hash(list_to_binary(lists:last(FName)), ArgType, TypeRep),
<<Hash:256>> = aeso_abi:function_type_hash(list_to_binary(FName), ArgType, TypeRep),
{integer, Hash}.
%% Expects two return addresses below N elements on the stack. Picks the top
@@ -343,8 +343,6 @@ assemble_expr(Funs, Stack, _Tail, #prim_put{ state = State }) ->
%% Environment primitives
assemble_expr(_Funs, _Stack, _Tail, prim_contract_address) ->
[i(?ADDRESS)];
assemble_expr(_Funs, _Stack, _Tail, prim_contract_creator) ->
[i(?CREATOR)];
assemble_expr(_Funs, _Stack, _Tail, prim_call_origin) ->
[i(?ORIGIN)];
assemble_expr(_Funs, _Stack, _Tail, prim_caller) ->
+19
View File
@@ -0,0 +1,19 @@
%%%-------------------------------------------------------------------
%%% @copyright (C) 2018, Aeternity Anstalt
%%% @doc
%%% Memory speifics that compiler and VM need to agree upon
%%% @end
%%% Created : 19 Dec 2018
%%%-------------------------------------------------------------------
-module(aeso_memory).
-export([binary_to_words/1]).
binary_to_words(<<>>) ->
[];
binary_to_words(<<N:256,Bin/binary>>) ->
[N|binary_to_words(Bin)];
binary_to_words(Bin) ->
binary_to_words(<<Bin/binary,0>>).
+12 -76
View File
@@ -9,19 +9,17 @@
-module(aeso_parse_lib).
-export([parse/2,
return/1, fail/0, fail/1, fail/2, map/2, bind/2,
return/1, fail/0, fail/1, map/2, bind/2,
lazy/1, choice/1, choice/2, tok/1, layout/0,
left/2, right/2, between/3, optional/1,
many/1, many1/1, sep/2, sep1/2,
infixl/2, infixr/2]).
-export([current_file/0, set_current_file/1]).
%% -- Types ------------------------------------------------------------------
-export_type([parser/1, parser_expr/1, pos/0, token/0, tokens/0]).
-type pos() :: {string() | no_file, integer(), integer()} | {integer(), integer()}.
-type pos() :: {integer(), integer()}.
-type token() :: {atom(), pos(), term()} | {atom(), pos()}.
-type tokens() :: [token()].
-type error() :: {pos(), string() | no_error}.
@@ -74,31 +72,25 @@
%% first argument. I.e. no backtracking to the second argument if the first
%% fails.
trampoline({bounce, Cont}) when is_function(Cont, 0) ->
trampoline(Cont());
trampoline(Res) ->
Res.
-define(BOUNCE(X), {bounce, fun() -> X end}).
%% Apply a parser to its continuation. This compiles a parser to its low-level representation.
-spec apply_p(parser(A), fun((A) -> parser1(B))) -> parser1(B).
apply_p(?lazy(F), K) -> apply_p(F(), K);
apply_p(?fail(Err), _) -> {fail, Err};
apply_p(?choice([P | Ps]), K) -> lists:foldl(fun(Q, R) -> choice1(trampoline(apply_p(Q, K)), R) end,
trampoline(apply_p(P, K)), Ps);
apply_p(?choice([P | Ps]), K) -> lists:foldl(fun(Q, R) -> choice1(apply_p(Q, K), R) end,
apply_p(P, K), Ps);
apply_p(?bind(P, F), K) -> apply_p(P, fun(X) -> apply_p(F(X), K) end);
apply_p(?right(P, Q), K) -> apply_p(P, fun(_) -> apply_p(Q, K) end);
apply_p(?left(P, Q), K) -> apply_p(P, fun(X) -> apply_p(Q, fun(_) -> K(X) end) end);
apply_p(?map(F, P), K) -> apply_p(P, fun(X) -> K(F(X)) end);
apply_p(?layout, K) -> {layout, K, {fail, {expected, layout_block}}};
apply_p(?tok(Atom), K) -> {tok_bind, #{Atom => K}};
apply_p(?return(X), K) -> ?BOUNCE(K(X));
apply_p(?return(X), K) -> K(X);
apply_p([P | Q], K) -> apply_p(P, fun(H) -> apply_p(Q, fun(T) -> K([H | T]) end) end);
apply_p(T, K) when is_tuple(T) -> apply_p(tuple_to_list(T), fun(Xs) -> K(list_to_tuple(Xs)) end);
apply_p(M, K) when is_map(M) ->
{Keys, Ps} = lists:unzip(maps:to_list(M)),
apply_p(Ps, fun(Vals) -> K(maps:from_list(lists:zip(Keys, Vals))) end);
apply_p(X, K) -> ?BOUNCE(K(X)).
apply_p(X, K) -> K(X).
%% -- Primitive combinators --------------------------------------------------
@@ -106,10 +98,6 @@ apply_p(X, K) -> ?BOUNCE(K(X)).
-spec lazy(fun(() -> parser(A))) -> parser(A).
lazy(Delayed) -> ?lazy(Delayed).
%% @doc A parser that always fails at a known location.
-spec fail(pos(), term()) -> parser(none()).
fail(Pos, Err) -> ?fail({Pos, Err}).
%% @doc A parser that always fails.
-spec fail(term()) -> parser(none()).
fail(Err) -> ?fail(Err).
@@ -166,8 +154,8 @@ layout() -> ?layout.
%% @doc Parse a sequence of tokens using a parser. Fails if the parse is ambiguous.
-spec parse(parser(A), tokens()) -> {ok, A} | {error, term()}.
parse(P, S) ->
case parse1(trampoline(apply_p(P, fun(X) -> {return_plus, X, {fail, no_error}} end)), S) of
{[], {Pos, Err}} -> {error, {add_current_file(Pos), parse_error, flatten_error(Err)}};
case parse1(apply_p(P, fun(X) -> {return_plus, X, {fail, no_error}} end), S) of
{[], {Pos, Err}} -> {error, {Pos, parse_error, flatten_error(Err)}};
{[A], _} -> {ok, A};
{As, _} -> {error, {{1, 1}, ambiguous_parse, As}}
end.
@@ -247,7 +235,7 @@ col(T) when is_tuple(T) -> element(2, pos(T)).
%% If both parsers want the next token we grab it and merge the continuations.
choice1({tok_bind, Map1}, {tok_bind, Map2}) ->
{tok_bind, merge_with(fun(F, G) -> fun(T) -> choice1(trampoline(F(T)), trampoline(G(T))) end end, Map1, Map2)};
{tok_bind, merge_with(fun(F, G) -> fun(T) -> choice1(F(T), G(T)) end end, Map1, Map2)};
%% If both parsers fail we combine the error messages. If only one fails we discard it.
choice1({fail, E1}, {fail, E2}) -> {fail, add_error(E1, E2)};
@@ -261,7 +249,7 @@ choice1(P, {return_plus, X, Q}) -> {return_plus, X, choice1(P, Q)};
%% If both sides want a layout block we combine them. If only one side wants a layout block we
%% will commit to a layout block is there is one.
choice1({layout, F, P}, {layout, G, Q}) ->
{layout, fun(N) -> choice1(trampoline(F(N)), trampoline(G(N))) end, choice1(P, Q)};
{layout, fun(N) -> choice1(F(N), G(N)) end, choice1(P, Q)};
choice1({layout, F, P}, Q) -> {layout, F, choice1(P, Q)};
choice1(P, {layout, G, Q}) -> {layout, G, choice1(P, Q)}.
@@ -284,8 +272,6 @@ parse1(P, S) ->
%% The main work horse. Returns a list of possible parses and an error message in case parsing
%% fails.
-spec parse1(parser1(A), #ts{}, [A], term()) -> {[A], error()}.
parse1({bounce, F}, Ts, Acc, Err) ->
parse1(F(), Ts, Acc, Err);
parse1({tok_bind, Map}, Ts, Acc, Err) ->
case next_token(Ts) of
{T, Ts1} ->
@@ -299,7 +285,7 @@ parse1({tok_bind, Map}, Ts, Acc, Err) ->
%% y + y)(4)
case maps:get(vclose, Map, '$not_found') of
'$not_found' ->
{Acc, unexpected_token_error(Ts, maps:keys(Map), T)};
{Acc, unexpected_token_error(Ts, T)};
F ->
VClose = {vclose, pos(T)},
Ts2 = pop_layout(VClose, Ts#ts{ last = VClose }),
@@ -336,52 +322,12 @@ current_pos(#ts{ tokens = [T | _] }) -> pos(T);
current_pos(#ts{ last = T }) -> end_pos(pos(T)).
-spec mk_error(#ts{}, term()) -> error().
mk_error(_Ts, {Pos, Err}) ->
{Pos, Err};
mk_error(Ts, Err) ->
{current_pos(Ts), Err}.
-spec unexpected_token_error(#ts{}, token()) -> error().
unexpected_token_error(Ts, T) ->
unexpected_token_error(Ts, [], T).
unexpected_token_error(Ts, Expect, {Tag, _}) when Tag == vclose; Tag == vsemi ->
Braces = [')', ']', '}'],
Fix = case lists:filter(fun(T) -> lists:member(T, Braces) end, Expect) of
[] -> " Probable causes:\n"
" - something is missing in the previous statement, or\n"
" - this line should be indented more.";
[T | _] -> io_lib:format(" Did you forget a ~p?", [T])
end,
Msg = io_lib:format("Unexpected indentation.~s", [Fix]),
mk_error(Ts, Msg);
unexpected_token_error(Ts, Expect, T) ->
ExpectCon = lists:member(con, Expect),
ExpectId = lists:member(id, Expect),
Fix = case T of
{id, _, X} when ExpectCon, hd(X) /= $_ -> io_lib:format(" Did you mean ~s?", [mk_upper(X)]);
{con, _, X} when ExpectId -> io_lib:format(" Did you mean ~s?", [mk_lower(X)]);
{qcon, _, Xs} when ExpectCon -> io_lib:format(" Did you mean ~s?", [lists:last(Xs)]);
{qid, _, Xs} when ExpectId -> io_lib:format(" Did you mean ~s?", [lists:last(Xs)]);
_ -> ""
end,
mk_error(Ts, io_lib:format("Unexpected ~s.~s", [describe(T), Fix])).
mk_upper([C | Rest]) -> string:to_upper([C]) ++ Rest.
mk_lower([C | Rest]) -> string:to_lower([C]) ++ Rest.
describe({id, _, X}) -> io_lib:format("identifier ~s", [X]);
describe({con, _, X}) -> io_lib:format("identifier ~s", [X]);
describe({qid, _, Xs}) -> io_lib:format("qualified identifier ~s", [string:join(Xs, ".")]);
describe({qcon, _, Xs}) -> io_lib:format("qualified identifier ~s", [string:join(Xs, ".")]);
describe({tvar, _, X}) -> io_lib:format("type variable ~s", [X]);
describe({char, _, _}) -> "character literal";
describe({string, _, _}) -> "string literal";
describe({hex, _, _}) -> "integer literal";
describe({int, _, _}) -> "integer literal";
describe({bytes, _, _}) -> "bytes literal";
describe(T) -> io_lib:format("token '~s'", [tag(T)]).
mk_error(Ts, io_lib:format("Unexpected token ~p", [tag(T)])).
%% Get the next token from a token stream. Inserts layout tokens if necessary.
-spec next_token(#ts{}) -> false | {token(), #ts{}}.
@@ -465,13 +411,3 @@ merge_with(Fun, Map1, Map2) ->
end, Map2, maps:to_list(Map1))
end.
%% Current source file
current_file() ->
get('$current_file').
set_current_file(File) ->
put('$current_file', File).
add_current_file({L, C}) -> {current_file(), L, C};
add_current_file(Pos) -> Pos.
+1 -1
View File
@@ -19,7 +19,7 @@
-import(aeso_parse_lib,
[tok/1, tok/2, between/3, many/1, many1/1, sep/2, sep1/2,
infixl/1, infixr/1, choice/1, choice/2, return/1, layout/0,
fail/0, fail/1, fail/2, map/2, infixl/2, infixr/2, infixl1/2, infixr1/2,
fail/0, fail/1, map/2, infixl/2, infixr/2, infixl1/2, infixr1/2,
left/2, right/2, optional/1]).
+80 -324
View File
@@ -3,87 +3,30 @@
%%% Description :
%%% Created : 1 Mar 2018 by Ulf Norell
-module(aeso_parser).
-compile({no_auto_import,[map_get/2]}).
-export([string/1,
string/2,
string/3,
auto_imports/1,
hash_include/2,
decl/0,
type/0,
body/0,
maybe_block/1,
run_parser/2,
run_parser/3]).
type/1]).
-include("aeso_parse_lib.hrl").
-import(aeso_parse_lib, [current_file/0, set_current_file/1]).
-type parse_result() :: aeso_syntax:ast() | {aeso_syntax:ast(), sets:set(include_hash())} | none().
-type include_hash() :: {string(), binary()}.
escape_errors({ok, Ok}) ->
Ok;
escape_errors({error, Err}) ->
parse_error(Err).
-spec string(string()) -> parse_result().
-spec string(string()) ->
{ok, aeso_syntax:ast()}
| {error, {aeso_parse_lib:pos(),
atom(),
term()}}
| {error, {aeso_parse_lib:pos(),
atom()}}.
string(String) ->
string(String, sets:new(), []).
parse_and_scan(file(), String).
-spec string(string(), aeso_compiler:options()) -> parse_result().
string(String, Opts) ->
case lists:keyfind(src_file, 1, Opts) of
{src_file, File} -> string(String, sets:add_element(File, sets:new()), Opts);
false -> string(String, sets:new(), Opts)
end.
type(String) ->
parse_and_scan(type(), String).
-spec string(string(), sets:set(include_hash()), aeso_compiler:options()) -> parse_result().
string(String, Included, Opts) ->
AST = run_parser(file(), String, Opts),
case expand_includes(AST, Included, Opts) of
{ok, AST1} -> AST1;
{error, Err} -> parse_error(Err)
end.
run_parser(P, Inp) ->
escape_errors(parse_and_scan(P, Inp, [])).
run_parser(P, Inp, Opts) ->
escape_errors(parse_and_scan(P, Inp, Opts)).
parse_and_scan(P, S, Opts) ->
set_current_file(proplists:get_value(src_file, Opts, no_file)),
case aeso_scan:scan(S) of
{ok, Tokens} -> aeso_parse_lib:parse(P, Tokens);
{error, {{Input, Pos}, _}} ->
{error, {Pos, scan_error, Input}}
end.
-dialyzer({nowarn_function, parse_error/1}).
parse_error(Err) ->
aeso_errors:throw(mk_error(Err)).
mk_p_err(Pos, Msg) ->
aeso_errors:new(parse_error, mk_pos(Pos), lists:flatten(Msg)).
mk_error({Pos, scan_error, Input}) ->
mk_p_err(Pos, io_lib:format("Lexical error on input: ~s\n", [Input]));
mk_error({Pos, parse_error, Err}) ->
Msg = io_lib:format("~s\n", [Err]),
mk_p_err(Pos, Msg);
mk_error({Pos, ambiguous_parse, As}) ->
Msg = io_lib:format("Ambiguous parse result: ~p\n", [As]),
mk_p_err(Pos, Msg);
mk_error({Pos, include_error, File}) ->
Msg = io_lib:format("Couldn't find include file '~s'\n", [File]),
mk_p_err(Pos, Msg).
mk_pos({Line, Col}) -> aeso_errors:pos(Line, Col);
mk_pos({File, Line, Col}) -> aeso_errors:pos(File, Line, Col).
parse_and_scan(P, S) ->
case aeso_scan:scan(S) of
{ok, Tokens} -> aeso_parse_lib:parse(P, Tokens);
Error -> Error
end.
%% -- Parsing rules ----------------------------------------------------------
@@ -93,11 +36,7 @@ decl() ->
?LAZY_P(
choice(
%% Contract declaration
[ ?RULE(keyword(contract), con(), tok('='), maybe_block(decl()), {contract, _1, _2, _4})
, ?RULE(token(payable), keyword(contract), con(), tok('='), maybe_block(decl()), add_modifiers([_1], {contract, _2, _3, _5}))
, ?RULE(keyword(namespace), con(), tok('='), maybe_block(decl()), {namespace, _1, _2, _4})
, ?RULE(keyword(include), str(), {include, get_ann(_1), _2})
, pragma()
[ ?RULE(keyword(contract), con(), tok('='), maybe_block(decl()), {contract, _1, _2, _4})
%% Type declarations TODO: format annotation for "type bla" vs "type bla()"
, ?RULE(keyword(type), id(), {type_decl, _1, _2, []})
@@ -110,49 +49,17 @@ decl() ->
, ?RULE(keyword(datatype), id(), type_vars(), tok('='), typedef(variant), {type_def, _1, _2, _3, _5})
%% Function declarations
, ?RULE(modifiers(), fun_or_entry(), maybe_block(fundef_or_decl()), fun_block(_1, _2, _3))
, ?RULE(keyword('let'), valdef(), set_pos(get_pos(_1), _2))
, ?RULE(modifiers(), keyword(function), id(), tok(':'), type(), add_modifiers(_1, {fun_decl, _2, _3, _5}))
, ?RULE(modifiers(), keyword(function), fundef(), add_modifiers(_1, set_pos(get_pos(_2), _3)))
, ?RULE(keyword('let'), valdef(), set_pos(get_pos(_1), _2))
])).
fun_block(Mods, Kind, [Decl]) ->
add_modifiers(Mods, Kind, set_pos(get_pos(Kind), Decl));
fun_block(Mods, Kind, Decls) ->
{block, get_ann(Kind), [ add_modifiers(Mods, Kind, Decl) || Decl <- Decls ]}.
fundef_or_decl() ->
choice([?RULE(id(), tok(':'), type(), {fun_decl, get_ann(_1), _1, _3}),
fundef()]).
pragma() ->
Op = choice([token(T) || T <- ['<', '=<', '==', '>=', '>']]),
?RULE(tok('@'), id("compiler"), Op, version(), {pragma, get_ann(_1), {compiler, element(1, _3), _4}}).
version() ->
?RULE(token(int), many({tok('.'), token(int)}), mk_version(_1, _2)).
mk_version({int, _, Maj}, Rest) ->
[Maj | [N || {_, {int, _, N}} <- Rest]].
fun_or_entry() ->
choice([?RULE(keyword(function), {function, _1}),
?RULE(keyword(entrypoint), {entrypoint, _1})]).
modifiers() ->
many(choice([token(stateful), token(payable), token(private), token(public)])).
many(choice([token(stateful), token(public), token(private), token(internal)])).
add_modifiers(Mods, Entry = {entrypoint, _}, Node) ->
add_modifiers(Mods ++ [Entry], Node);
add_modifiers(Mods, {function, _}, Node) ->
add_modifiers(Mods, Node).
add_modifiers([], Node) -> Node;
add_modifiers(Mods = [Tok | _], Node) ->
%% Set the position to the position of the first modifier. This is
%% important for code transformation tools (like what we do in
%% create_calldata) to be able to get the indentation of the declaration.
set_pos(get_pos(Tok),
lists:foldl(fun({Mod, _}, X) -> set_ann(Mod, true, X) end,
Node, Mods)).
add_modifiers(Mods, Node) ->
lists:foldl(fun({Mod, _}, X) -> set_ann(Mod, true, X) end,
Node, Mods).
%% -- Type declarations ------------------------------------------------------
@@ -164,7 +71,7 @@ constructors() ->
sep1(constructor(), tok('|')).
constructor() -> %% TODO: format for Con() vs Con
choice(?RULE(con(), {constr_t, get_ann(_1), _1, []}),
choice(?RULE(con(), {constr_t, get_ann(_1), _1, []}),
?RULE(con(), con_args(), {constr_t, get_ann(_1), _1, _2})).
con_args() -> paren_list(con_arg()).
@@ -176,24 +83,27 @@ con_arg() -> choice(type(), ?RULE(keyword(indexed), type(), set_ann(indexed,
%% -- Let declarations -------------------------------------------------------
letdecl() ->
?RULE(keyword('let'), letdef(), set_pos(get_pos(_1), _2)).
choice(
?RULE(keyword('let'), letdef(), set_pos(get_pos(_1), _2)),
?RULE(keyword('let'), tok(rec), sep1(letdef(), tok('and')), {letrec, _1, _3})).
letdef() -> choice(valdef(), fundef()).
valdef() ->
?RULE(pattern(), tok('='), body(), {letval, [], _1, _3}).
choice(
?RULE(id(), tok('='), body(), {letval, [], _1, type_wildcard(), _3}),
?RULE(id(), tok(':'), type(), tok('='), body(), {letval, [], _1, _3, _5})).
fundef() ->
choice(
[ ?RULE(id(), args(), tok('='), body(), {letfun, get_ann(_1), _1, _2, type_wildcard(get_ann(_1)), _4})
, ?RULE(id(), args(), tok(':'), type(), tok('='), body(), {letfun, get_ann(_1), _1, _2, _4, _6})
[ ?RULE(id(), args(), tok('='), body(), {letfun, [], _1, _2, type_wildcard(), _4})
, ?RULE(id(), args(), tok(':'), type(), tok('='), body(), {letfun, [], _1, _2, _4, _6})
]).
args() -> paren_list(pattern()).
lam_args() -> paren_list(arg()).
args() -> paren_list(arg()).
arg() -> choice(
?RULE(id(), {arg, get_ann(_1), _1, type_wildcard(get_ann(_1))}),
?RULE(id(), {arg, get_ann(_1), _1, type_wildcard()}),
?RULE(id(), tok(':'), type(), {arg, get_ann(_1), _1, _3})).
%% -- Types ------------------------------------------------------------------
@@ -205,35 +115,24 @@ type() -> ?LAZY_P(type100()).
type100() -> type200().
type200() ->
?RULE(many({type300(), keyword('=>')}), type300(), fun_t(_1, _2)).
?RULE(many({fun_domain(), keyword('=>')}), type300(), fun_t(_1, _2)).
type300() ->
?RULE(sep1(type400(), tok('*')), tuple_t(get_ann(lists:nth(1, _1)), _1)).
type300() -> type400().
type400() ->
choice(
[?RULE(typeAtom(), optional(type_args()),
?RULE(typeAtom(), optional(type_args()),
case _2 of
none -> _1;
{ok, Args} -> {app_t, get_ann(_1), _1, Args}
end),
?RULE(id("bytes"), parens(token(int)),
{bytes_t, get_ann(_1), element(3, _2)})
]).
end).
typeAtom() ->
?LAZY_P(choice(
[ parens(type())
, args_t()
, id(), token(con), token(qcon), token(qid), tvar()
[ id(), token(con), token(qcon), token(qid), tvar()
, ?RULE(keyword('('), comma_sep(type()), tok(')'), tuple_t(_1, _2))
])).
args_t() ->
?LAZY_P(choice(
[ ?RULE(tok('('), tok(')'), {args_t, get_ann(_1), []})
%% Singleton case handled separately
, ?RULE(tok('('), type(), tok(','), sep1(type(), tok(',')), tok(')'), {args_t, get_ann(_1), [_2|_4]})
])).
fun_domain() -> ?RULE(?LAZY_P(type300()), fun_domain(_1)).
%% -- Statements -------------------------------------------------------------
@@ -254,7 +153,7 @@ branch() ->
?RULE(pattern(), keyword('=>'), body(), {'case', _2, _1, _3}).
pattern() ->
?LET_P(E, expr(), parse_pattern(E)).
?LET_P(E, expr500(), parse_pattern(E)).
%% -- Expressions ------------------------------------------------------------
@@ -264,7 +163,7 @@ expr100() ->
Expr100 = ?LAZY_P(expr100()),
Expr200 = ?LAZY_P(expr200()),
choice(
[ ?RULE(lam_args(), keyword('=>'), body(), {lam, _2, _1, _3}) %% TODO: better location
[ ?RULE(args(), keyword('=>'), body(), {lam, _2, _1, _3}) %% TODO: better location
, {'if', keyword('if'), parens(Expr100), Expr200, right(tok(else), Expr100)}
, ?RULE(Expr200, optional(right(tok(':'), type())),
case _2 of
@@ -288,33 +187,19 @@ exprAtom() ->
?LAZY_P(begin
Expr = ?LAZY_P(expr()),
choice(
[ id_or_addr(), con(), token(qid), token(qcon)
, token(bytes), token(string), token(char)
[ id(), con(), token(qid), token(qcon)
, token(hash), token(string), token(char)
, token(int)
, ?RULE(token(hex), set_ann(format, hex, setelement(1, _1, int)))
, {bool, keyword(true), true}
, {bool, keyword(false), false}
, ?LET_P(Fs, brace_list(?LAZY_P(field_assignment())), record(Fs))
, ?RULE(brace_list(?LAZY_P(field_assignment())), record(_1))
, {list, [], bracket_list(Expr)}
, ?RULE(keyword('['), Expr, token('|'), comma_sep(comprehension_exp()), tok(']'), list_comp_e(_1, _2, _4))
, ?RULE(tok('['), Expr, binop('..'), Expr, tok(']'), _3(_2, _4))
, ?RULE(keyword('('), comma_sep(Expr), tok(')'), tuple_e(_1, _2))
])
end).
comprehension_exp() ->
?LAZY_P(choice(
[ comprehension_bind()
, letdecl()
, comprehension_if()
])).
comprehension_if() ->
?RULE(keyword('if'), parens(expr()), {comprehension_if, _1, _2}).
comprehension_bind() ->
?RULE(pattern(), tok('<-'), expr(), {comprehension_bind, _1, _3}).
arg_expr() ->
?LAZY_P(
choice([ ?RULE(id(), tok('='), expr(), {named_arg, [], _1, _3})
@@ -340,7 +225,7 @@ map_key(Key, {ok, {_, Val}}) -> {map_key, Key, Val}.
elim(E, []) -> E;
elim(E, [{proj, Ann, P} | Es]) -> elim({proj, Ann, E, P}, Es);
elim(E, [{app, _Ann, Args} | Es]) -> elim({app, aeso_syntax:get_ann(E), E, Args}, Es);
elim(E, [{app, Ann, Args} | Es]) -> elim({app, Ann, E, Args}, Es);
elim(E, [{rec_upd, Ann, Flds} | Es]) -> elim(record_update(Ann, E, Flds), Es);
elim(E, [{map_get, Ann, Key} | Es]) -> elim({map_get, Ann, E, Key}, Es);
elim(E, [{map_get, Ann, Key, Val} | Es]) -> elim({map_get, Ann, E, Key, Val}, Es).
@@ -351,23 +236,15 @@ record_update(Ann, E, Flds) ->
record([]) -> {map, [], []};
record(Fs) ->
case record_or_map(Fs) of
record ->
Fld = fun({field, _, [_], _} = F) -> F;
({field, Ann, LV, Id, _}) ->
bad_expr_err("Cannot use '@' in record construction", infix({lvalue, Ann, LV}, {'@', Ann}, Id));
({field, Ann, LV, _}) ->
bad_expr_err("Cannot use nested fields or keys in record construction", {lvalue, Ann, LV}) end,
{record, get_ann(hd(Fs)), lists:map(Fld, Fs)};
record -> {record, get_ann(hd(Fs)), Fs};
map ->
Ann = get_ann(hd(Fs ++ [{empty, []}])), %% TODO: source location for empty maps
KV = fun({field, _, [{map_get, _, Key}], Val}) -> {Key, Val};
({field, FAnn, LV, Id, _}) ->
bad_expr_err("Cannot use '@' in map construction", infix({lvalue, FAnn, LV}, {'@', Ann}, Id));
({field, FAnn, LV, _}) ->
bad_expr_err("Cannot use nested fields or keys in map construction", {lvalue, FAnn, LV}) end,
{map, Ann, lists:map(KV, Fs)};
record_or_map_error ->
{record_or_map_error, get_ann(hd(Fs)), Fs}
({field, _, LV, Id, _}) ->
bad_expr_err("Cannot use '@' in map construction", infix(LV, {op, Ann, '@'}, Id));
({field, _, LV, _}) ->
bad_expr_err("Cannot use nested fields or keys in map construction", LV) end,
{map, Ann, lists:map(KV, Fs)}
end.
record_or_map(Fields) ->
@@ -379,7 +256,9 @@ record_or_map(Fields) ->
case lists:usort(lists:map(Kind, Fields)) of
[proj] -> record;
[map_get] -> map;
_ -> record_or_map_error %% Defer error until type checking
_ ->
[{field, Ann, _, _} | _] = Fields,
bad_expr_err("Mixed record fields and map keys in", {record, Ann, Fields})
end.
field_assignment() ->
@@ -422,7 +301,6 @@ binop(Ops) ->
con() -> token(con).
id() -> token(id).
tvar() -> token(tvar).
str() -> token(string).
token(Tag) ->
?RULE(tok(Tag),
@@ -431,26 +309,6 @@ token(Tag) ->
{Tok, {Line, Col}, Val} -> {Tok, pos_ann(Line, Col), Val}
end).
id(Id) ->
?LET_P({id, A, X} = Y, id(),
if X == Id -> Y;
true -> fail({A, "expected '" ++ Id ++ "'"})
end).
id_or_addr() ->
?RULE(id(), parse_addr_literal(_1)).
parse_addr_literal(Id = {id, Ann, Name}) ->
case lists:member(lists:sublist(Name, 3), ["ak_", "ok_", "oq_", "ct_"]) of
false -> Id;
true ->
try aeser_api_encoder:decode(list_to_binary(Name)) of
{Type, Bin} -> {Type, Ann, Bin}
catch _:_ ->
Id
end
end.
%% -- Helpers ----------------------------------------------------------------
keyword(K) -> ann(tok(K)).
@@ -478,11 +336,10 @@ bracket_list(P) -> brackets(comma_sep(P)).
-type ann_col() :: aeso_syntax:ann_col().
-spec pos_ann(ann_line(), ann_col()) -> ann().
pos_ann(Line, Col) -> [{file, current_file()}, {line, Line}, {col, Col}].
pos_ann(Line, Col) -> [{line, Line}, {col, Col}].
ann_pos(Ann) ->
{proplists:get_value(file, Ann),
proplists:get_value(line, Ann),
{proplists:get_value(line, Ann),
proplists:get_value(col, Ann)}.
get_ann(Ann) when is_list(Ann) -> Ann;
@@ -500,18 +357,18 @@ set_ann(Key, Val, Node) ->
setelement(2, Node, lists:keystore(Key, 1, Ann, {Key, Val})).
get_pos(Node) ->
{current_file(), get_ann(line, Node), get_ann(col, Node)}.
{get_ann(line, Node), get_ann(col, Node)}.
set_pos({F, L, C}, Node) ->
set_ann(file, F, set_ann(line, L, set_ann(col, C, Node))).
set_pos({L, C}, Node) ->
set_ann(line, L, set_ann(col, C, Node)).
infix(L, Op, R) -> set_ann(format, infix, {app, get_ann(L), Op, [L, R]}).
prefixes(Ops, E) -> lists:foldr(fun prefix/2, E, Ops).
prefix(Op, E) -> set_ann(format, prefix, {app, get_ann(Op), Op, [E]}).
type_wildcard(Ann) ->
{id, [{origin, system} | Ann], "_"}.
type_wildcard() ->
{id, [{origin, system}], "_"}.
block_e(Stmts) ->
group_ifs(Stmts, []).
@@ -536,7 +393,7 @@ build_if(Ann, Cond, Then, [{elif, Ann1, Cond1, Then1} | Elses]) ->
build_if(Ann, Cond, Then, [{else, _Ann, Else}]) ->
{'if', Ann, Cond, Then, Else};
build_if(Ann, Cond, Then, []) ->
{'if', Ann, Cond, Then, {tuple, [{origin, system}], []}}.
{'if', Ann, Cond, Then, {unit, [{origin, system}]}}.
else_branches([Elif = {elif, _, _, _} | Stmts], Acc) ->
else_branches(Stmts, [Elif | Acc]);
@@ -549,21 +406,21 @@ tuple_t(_Ann, [Type]) -> Type; %% Not a tuple
tuple_t(Ann, Types) -> {tuple_t, Ann, Types}.
fun_t(Domains, Type) ->
lists:foldr(fun({{args_t, _, Dom}, Ann}, T) -> {fun_t, Ann, [], Dom, T};
({Dom, Ann}, T) -> {fun_t, Ann, [], [Dom], T} end,
lists:foldr(fun({Dom, Ann}, T) -> {fun_t, Ann, [], Dom, T} end,
Type, Domains).
tuple_e(Ann, []) -> {unit, Ann};
tuple_e(_Ann, [Expr]) -> Expr; %% Not a tuple
tuple_e(Ann, Exprs) -> {tuple, Ann, Exprs}.
list_comp_e(Ann, Expr, Binds) -> {list_comp, Ann, Expr, Binds}.
%% TODO: not nice
fun_domain({tuple_t, _, Args}) -> Args;
fun_domain(T) -> [T].
-spec parse_pattern(aeso_syntax:expr()) -> aeso_parse_lib:parser(aeso_syntax:pat()).
parse_pattern({app, Ann, Con = {'::', _}, Es}) ->
{app, Ann, Con, lists:map(fun parse_pattern/1, Es)};
parse_pattern({app, Ann, {'-', _}, [{int, _, N}]}) ->
{int, Ann, -N};
parse_pattern({app, Ann, Con = {Tag, _, _}, Es}) when Tag == con; Tag == qcon ->
parse_pattern({app, Ann, Con = {con, _, _}, Es}) ->
{app, Ann, Con, lists:map(fun parse_pattern/1, Es)};
parse_pattern({tuple, Ann, Es}) ->
{tuple, Ann, lists:map(fun parse_pattern/1, Es)};
@@ -571,14 +428,12 @@ parse_pattern({list, Ann, Es}) ->
{list, Ann, lists:map(fun parse_pattern/1, Es)};
parse_pattern({record, Ann, Fs}) ->
{record, Ann, lists:map(fun parse_field_pattern/1, Fs)};
parse_pattern({typed, Ann, E, Type}) ->
{typed, Ann, parse_pattern(E), Type};
parse_pattern(E = {con, _, _}) -> E;
parse_pattern(E = {qcon, _, _}) -> E;
parse_pattern(E = {id, _, _}) -> E;
parse_pattern(E = {unit, _}) -> E;
parse_pattern(E = {int, _, _}) -> E;
parse_pattern(E = {bool, _, _}) -> E;
parse_pattern(E = {bytes, _, _}) -> E;
parse_pattern(E = {hash, _, _}) -> E;
parse_pattern(E = {string, _, _}) -> E;
parse_pattern(E = {char, _, _}) -> E;
parse_pattern(E) -> bad_expr_err("Not a valid pattern", E).
@@ -587,115 +442,16 @@ parse_pattern(E) -> bad_expr_err("Not a valid pattern", E).
parse_field_pattern({field, Ann, F, E}) ->
{field, Ann, F, parse_pattern(E)}.
-spec ret_doc_err(ann(), prettypr:document()) -> aeso_parse_lib:parser(none()).
ret_doc_err(Ann, Doc) ->
fail(ann_pos(Ann), prettypr:format(Doc)).
return_error({L, C}, Err) ->
fail(io_lib:format("~p:~p:\n~s", [L, C, Err])).
-spec bad_expr_err(string(), aeso_syntax:expr()) -> aeso_parse_lib:parser(none()).
-spec ret_doc_err(ann(), prettypr:document()) -> no_return().
ret_doc_err(Ann, Doc) ->
return_error(ann_pos(Ann), prettypr:format(Doc)).
-spec bad_expr_err(string(), aeso_syntax:expr()) -> no_return().
bad_expr_err(Reason, E) ->
ret_doc_err(get_ann(E),
prettypr:sep([prettypr:text(Reason ++ ":"),
prettypr:nest(2, aeso_pretty:expr(E))])).
%% -- Helper functions -------------------------------------------------------
expand_includes(AST, Included, Opts) ->
Ann = [{origin, system}],
AST1 = [ {include, Ann, {string, Ann, File}}
|| File <- lists:usort(auto_imports(AST)) ] ++ AST,
expand_includes(AST1, Included, [], Opts).
expand_includes([], Included, Acc, Opts) ->
case lists:member(keep_included, Opts) of
false ->
{ok, lists:reverse(Acc)};
true ->
{ok, {lists:reverse(Acc), Included}}
end;
expand_includes([{include, Ann, {string, _SAnn, File}} | AST], Included, Acc, Opts) ->
case get_include_code(File, Ann, Opts) of
{ok, Code} ->
Hashed = hash_include(File, Code),
case sets:is_element(Hashed, Included) of
false ->
Opts1 = lists:keystore(src_file, 1, Opts, {src_file, File}),
Included1 = sets:add_element(Hashed, Included),
case parse_and_scan(file(), Code, Opts1) of
{ok, AST1} ->
expand_includes(AST1 ++ AST, Included1, Acc, Opts);
Err = {error, _} ->
Err
end;
true ->
expand_includes(AST, Included, Acc, Opts)
end;
Err = {error, _} ->
Err
end;
expand_includes([E | AST], Included, Acc, Opts) ->
expand_includes(AST, Included, [E | Acc], Opts).
read_file(File, Opts) ->
case proplists:get_value(include, Opts, {explicit_files, #{}}) of
{file_system, Paths} ->
CandidateNames = [ filename:join(Dir, File) || Dir <- Paths ],
lists:foldr(fun(F, {error, _}) -> file:read_file(F);
(_F, OK) -> OK end, {error, not_found}, CandidateNames);
{explicit_files, Files} ->
case maps:get(binary_to_list(File), Files, not_found) of
not_found -> {error, not_found};
Src -> {ok, Src}
end;
escript ->
try
Escript = escript:script_name(),
{ok, Sections} = escript:extract(Escript, []),
Archive = proplists:get_value(archive, Sections),
FileName = binary_to_list(filename:join([aesophia, priv, stdlib, File])),
case zip:extract(Archive, [{file_list, [FileName]}, memory]) of
{ok, [{_, Src}]} -> {ok, Src};
_ -> {error, not_found}
end
catch _:_ ->
{error, not_found}
end
end.
stdlib_options() ->
StdLibDir = aeso_stdlib:stdlib_include_path(),
case filelib:is_dir(StdLibDir) of
true -> [{include, {file_system, [StdLibDir]}}];
false -> [{include, escript}]
end.
get_include_code(File, Ann, Opts) ->
case {read_file(File, Opts), read_file(File, stdlib_options())} of
{{ok, Bin}, {ok, _}} ->
case filename:basename(File) == File of
true -> { error
, fail( ann_pos(Ann)
, "Illegal redefinition of standard library " ++ binary_to_list(File))};
%% If a path is provided then the stdlib takes lower priority
false -> {ok, binary_to_list(Bin)}
end;
{_, {ok, Bin}} ->
{ok, binary_to_list(Bin)};
{{ok, Bin}, _} ->
{ok, binary_to_list(Bin)};
{_, _} ->
{error, {ann_pos(Ann), include_error, File}}
end.
-spec hash_include(string() | binary(), string()) -> include_hash().
hash_include(File, Code) when is_binary(File) ->
hash_include(binary_to_list(File), Code);
hash_include(File, Code) when is_list(File) ->
{filename:basename(File), crypto:hash(sha256, Code)}.
auto_imports({comprehension_bind, _, _}) -> [<<"ListInternal.aes">>];
auto_imports({'..', _}) -> [<<"ListInternal.aes">>];
auto_imports(L) when is_list(L) ->
lists:flatmap(fun auto_imports/1, L);
auto_imports(T) when is_tuple(T) ->
auto_imports(tuple_to_list(T));
auto_imports(_) -> [].
+28 -89
View File
@@ -145,46 +145,21 @@ decl(D, Options) ->
with_options(Options, fun() -> decl(D) end).
-spec decl(aeso_syntax:decl()) -> doc().
decl({contract, Attrs, C, Ds}) ->
Mod = fun({Mod, true}) when Mod == payable ->
text(atom_to_list(Mod));
(_) -> empty() end,
block(follow( hsep(lists:map(Mod, Attrs) ++ [text("contract")])
, hsep(name(C), text("="))), decls(Ds));
decl({namespace, _, C, Ds}) ->
block(follow(text("namespace"), hsep(name(C), text("="))), decls(Ds));
decl({pragma, _, Pragma}) -> pragma(Pragma);
decl({contract, _, C, Ds}) ->
block(follow(text("contract"), hsep(name(C), text("="))), decls(Ds));
decl({type_decl, _, T, Vars}) -> typedecl(alias_t, T, Vars);
decl({type_def, _, T, Vars, Def}) ->
Kind = element(1, Def),
equals(typedecl(Kind, T, Vars), typedef(Def));
decl({fun_decl, Ann, F, T}) ->
Mod = fun({Mod, true}) when Mod == private; Mod == stateful; Mod == payable ->
text(atom_to_list(Mod));
(_) -> empty() end,
Fun = case aeso_syntax:get_ann(entrypoint, Ann, false) of
true -> text("entrypoint");
false -> text("function")
end,
hsep(lists:map(Mod, Ann) ++ [Fun, typed(name(F), T)]);
decl({fun_decl, _, F, T}) ->
hsep(text("function"), typed(name(F), T));
decl(D = {letfun, Attrs, _, _, _, _}) ->
Mod = fun({Mod, true}) when Mod == private; Mod == stateful; Mod == payable ->
Mod = fun({Mod, true}) when Mod == private; Mod == internal; Mod == public; Mod == stateful ->
text(atom_to_list(Mod));
(_) -> empty() end,
Fun = case aeso_syntax:get_ann(entrypoint, Attrs, false) of
true -> "entrypoint";
false -> "function"
end,
hsep(lists:map(Mod, Attrs) ++ [letdecl(Fun, D)]);
decl({fun_clauses, Ann, Name, Type, Clauses}) ->
above([ decl(D) || D <- [{fun_decl, Ann, Name, Type} | Clauses] ]);
decl(D = {letval, _, _, _}) -> letdecl("let", D);
decl({block, _, Ds}) ->
above([ decl(D) || D <- Ds ]).
-spec pragma(aeso_syntax:pragma()) -> doc().
pragma({compiler, Op, Ver}) ->
text("@compiler " ++ atom_to_list(Op) ++ " " ++ string:join([integer_to_list(N) || N <- Ver], ".")).
hsep(lists:map(Mod, Attrs) ++ [letdecl("function", D)]);
decl(D = {letval, _, _, _, _}) -> letdecl("let", D);
decl(D = {letrec, _, _}) -> letdecl("let", D).
-spec expr(aeso_syntax:expr(), options()) -> doc().
expr(E, Options) ->
@@ -204,10 +179,12 @@ name({tvar, _, Name}) -> text(Name);
name({typed, _, Name, _}) -> name(Name).
-spec letdecl(string(), aeso_syntax:letbind()) -> doc().
letdecl(Let, {letval, _, P, E}) ->
block_expr(0, hsep([text(Let), expr(P), text("=")]), E);
letdecl(Let, {letval, _, F, T, E}) ->
block_expr(0, hsep([text(Let), typed(name(F), T), text("=")]), E);
letdecl(Let, {letfun, _, F, Args, T, E}) ->
block_expr(0, hsep([text(Let), typed(beside(name(F), expr({tuple, [], Args})), T), text("=")]), E).
block_expr(0, hsep([text(Let), typed(beside(name(F), args(Args)), T), text("=")]), E);
letdecl(Let, {letrec, _, [D | Ds]}) ->
hsep(text(Let), above([ letdecl("rec", D) | [ letdecl("and", D1) || D1 <- Ds ] ])).
-spec args([aeso_syntax:arg()]) -> doc().
args(Args) ->
@@ -238,7 +215,7 @@ typedef({variant_t, Constructors}) ->
-spec constructor_t(aeso_syntax:constructor_t()) -> doc().
constructor_t({constr_t, _, C, []}) -> name(C);
constructor_t({constr_t, _, C, Args}) -> beside(name(C), args_type(Args)).
constructor_t({constr_t, _, C, Args}) -> beside(name(C), tuple_type(Args)).
-spec field_t(aeso_syntax:field_t()) -> doc().
field_t({field_t, _, Name, Type}) ->
@@ -250,24 +227,15 @@ type(Type, Options) ->
-spec type(aeso_syntax:type()) -> doc().
type({fun_t, _, Named, Args, Ret}) ->
follow(hsep(args_type(Named ++ Args), text("=>")), type(Ret));
type({type_sig, _, Named, Args, Ret}) ->
follow(hsep(tuple_type(Named ++ Args), text("=>")), type(Ret));
type({app_t, _, Type, []}) ->
type(Type);
type({app_t, _, Type, Args}) ->
beside(type(Type), args_type(Args));
beside(type(Type), tuple_type(Args));
type({tuple_t, _, Args}) ->
tuple_type(Args);
type({args_t, _, Args}) ->
args_type(Args);
type({bytes_t, _, any}) -> text("bytes(_)");
type({bytes_t, _, Len}) ->
text(lists:concat(["bytes(", Len, ")"]));
type({named_arg_t, _, Name, Type, _Default}) ->
%% Drop the default value
%% follow(hsep(typed(name(Name), Type), text("=")), expr(Default));
typed(name(Name), Type);
type({named_arg_t, _, Name, Type, Default}) ->
follow(hsep(typed(name(Name), Type), text("=")), expr(Default));
type(R = {record_t, _}) -> typedef(R);
type(T = {id, _, _}) -> name(T);
@@ -276,19 +244,9 @@ type(T = {con, _, _}) -> name(T);
type(T = {qcon, _, _}) -> name(T);
type(T = {tvar, _, _}) -> name(T).
-spec args_type([aeso_syntax:type()]) -> doc().
args_type(Args) ->
tuple(lists:map(fun type/1, Args)).
-spec tuple_type([aeso_syntax:type()]) -> doc().
tuple_type([]) ->
text("unit");
tuple_type(Factors) ->
beside(
[ text("(")
, par(punctuate(text(" *"), lists:map(fun type/1, Factors)), 0)
, text(")")
]).
tuple_type(Args) ->
tuple(lists:map(fun type/1, Args)).
-spec arg_expr(aeso_syntax:arg_expr()) -> doc().
arg_expr({named_arg, _, Name, E}) ->
@@ -316,8 +274,6 @@ expr_p(_, {tuple, _, Es}) ->
tuple(lists:map(fun expr/1, Es));
expr_p(_, {list, _, Es}) ->
list(lists:map(fun expr/1, Es));
expr_p(_, {list_comp, _, E, Binds}) ->
list([follow(expr(E), hsep(text("|"), par(punctuate(text(","), lists:map(fun lc_bind/1, Binds)), 0)), 0)]);
expr_p(_, {record, _, Fs}) ->
record(lists:map(fun field/1, Fs));
expr_p(_, {map, Ann, KVs}) ->
@@ -347,8 +303,6 @@ expr_p(P, E = {app, _, F = {Op, _}, Args}) when is_atom(Op) ->
{prefix, [A]} -> prefix(P, Op, A);
_ -> app(P, F, Args)
end;
expr_p(_, {app, _, C={Tag, _, _}, []}) when Tag == con; Tag == qcon ->
expr_p(0, C);
expr_p(P, {app, _, F, Args}) ->
app(P, F, Args);
%% -- Constants
@@ -359,20 +313,9 @@ expr_p(_, E = {int, _, N}) ->
end,
text(S);
expr_p(_, {bool, _, B}) -> text(atom_to_list(B));
expr_p(_, {bytes, _, Bin}) ->
Digits = byte_size(Bin),
<<N:Digits/unit:8>> = Bin,
text(lists:flatten(io_lib:format("#~*.16.0b", [Digits*2, N])));
expr_p(_, {hash, _, <<N:512>>}) -> text("#" ++ integer_to_list(N, 16));
expr_p(_, {Type, _, Bin})
when Type == account_pubkey;
Type == contract_pubkey;
Type == oracle_pubkey;
Type == oracle_query_id ->
text(binary_to_list(aeser_api_encoder:encode(Type, Bin)));
expr_p(_, {string, _, <<>>}) -> text("\"\"");
expr_p(_, {string, _, S}) ->
text(io_lib:format("\"~s\"", [binary_to_list(S)]));
expr_p(_, {hash, _, <<N:256>>}) -> text("#" ++ integer_to_list(N, 16));
expr_p(_, {unit, _}) -> text("()");
expr_p(_, {string, _, S}) -> term(binary_to_list(S));
expr_p(_, {char, _, C}) ->
case C of
$' -> text("'\\''");
@@ -401,17 +344,9 @@ stmt_p({else, Else}) ->
_ -> block_expr(200, text("else"), Else)
end.
lc_bind({comprehension_bind, P, E}) ->
follow(hsep(expr(P), text("<-")), expr(E));
lc_bind({comprehension_if, _, E}) ->
beside([text("if("), expr(E), text(")")]);
lc_bind(Let) ->
letdecl("let", Let).
-spec bin_prec(aeso_syntax:bin_op()) -> {integer(), integer(), integer()}.
bin_prec('..') -> { 0, 0, 0}; %% Always printed inside '[ ]'
bin_prec('=') -> { 0, 0, 0}; %% Always printed inside '[ ]'
bin_prec('@') -> { 0, 0, 0}; %% Only in error messages
bin_prec('||') -> {200, 300, 200};
bin_prec('&&') -> {300, 400, 300};
bin_prec('<') -> {400, 500, 500};
@@ -471,7 +406,7 @@ elim1(Get={map_get, _, _}) -> elim(Get);
elim1(Get={map_get, _, _, _}) -> elim(Get).
alt({'case', _, Pat, Body}) ->
block_expr(0, hsep(expr(Pat), text("=>")), Body).
block_expr(0, hsep(expr_p(500, Pat), text("=>")), Body).
block_expr(_, Header, {block, _, Ss}) ->
block(Header, statements(Ss));
@@ -481,8 +416,9 @@ block_expr(P, Header, E) ->
statements(Stmts) ->
above([ statement(S) || S <- Stmts ]).
statement(S = {letval, _, _, _}) -> letdecl("let", S);
statement(S = {letval, _, _, _, _}) -> letdecl("let", S);
statement(S = {letfun, _, _, _, _, _}) -> letdecl("let", S);
statement(S = {letrec, _, _}) -> letdecl("let", S);
statement(E) -> expr(E).
get_elifs(Expr) -> get_elifs(Expr, []).
@@ -494,3 +430,6 @@ get_elifs(If = {'if', Ann, Cond, Then, Else}, Elifs) ->
end;
get_elifs(Else, Elifs) -> {lists:reverse(Elifs), {else, Else}}.
fmt(Fmt, Args) -> text(lists:flatten(io_lib:format(Fmt, Args))).
term(X) -> fmt("~p", [X]).
+15 -24
View File
@@ -13,15 +13,14 @@
override/2, push/2, pop/1]).
lexer() ->
Number = fun(Digit) -> [Digit, "+(_", Digit, "+)*"] end,
DIGIT = "[0-9]",
HEXDIGIT = "[0-9a-fA-F]",
LOWER = "[a-z_]",
UPPER = "[A-Z]",
CON = [UPPER, "[a-zA-Z0-9_]*"],
INT = Number(DIGIT),
HEX = ["0x", Number(HEXDIGIT)],
BYTES = ["#", Number(HEXDIGIT)],
INT = [DIGIT, "+"],
HEX = ["0x", HEXDIGIT, "+"],
HASH = ["#", HEXDIGIT, "+"],
WS = "[\\000-\\ ]+",
ID = [LOWER, "[a-zA-Z0-9_']*"],
TVAR = ["'", ID],
@@ -37,8 +36,8 @@ lexer() ->
, {"\\*/", pop(skip())}
, {"[^/*]+|[/*]", skip()} ],
Keywords = ["contract", "include", "let", "switch", "type", "record", "datatype", "if", "elif", "else", "function",
"stateful", "payable", "true", "false", "mod", "public", "entrypoint", "private", "indexed", "namespace"],
Keywords = ["contract", "import", "let", "rec", "switch", "type", "record", "datatype", "if", "elif", "else", "function",
"stateful", "true", "false", "and", "mod", "public", "private", "indexed", "internal"],
KW = string:join(Keywords, "|"),
Rules =
@@ -54,8 +53,8 @@ lexer() ->
, {CHAR, token(char, fun parse_char/1)}
, {STRING, token(string, fun parse_string/1)}
, {HEX, token(hex, fun parse_hex/1)}
, {INT, token(int, fun parse_int/1)}
, {BYTES, token(bytes, fun parse_bytes/1)}
, {INT, token(int, fun list_to_integer/1)}
, {HASH, token(hash, fun parse_hash/1)}
%% Identifiers (qualified first!)
, {QID, token(qid, fun(S) -> string:tokens(S, ".") end)}
@@ -96,11 +95,9 @@ parse_char([$', C, $']) -> C.
unescape(Str) -> unescape(Str, []).
%% TODO: numeric escapes
unescape([$"], Acc) ->
list_to_binary(lists:reverse(Acc));
unescape([$\\, $x, D1, D2 | Chars ], Acc) ->
C = list_to_integer([D1, D2], 16),
unescape(Chars, [C | Acc]);
unescape([$\\, Code | Chars], Acc) ->
Ok = fun(C) -> unescape(Chars, [C | Acc]) end,
case Code of
@@ -118,18 +115,12 @@ unescape([$\\, Code | Chars], Acc) ->
unescape([C | Chars], Acc) ->
unescape(Chars, [C | Acc]).
strip_underscores(S) ->
lists:filter(fun(C) -> C /= $_ end, S).
parse_hex("0x" ++ Chars) -> list_to_integer(Chars, 16).
parse_hex("0x" ++ S) ->
list_to_integer(strip_underscores(S), 16).
parse_int(S) ->
list_to_integer(strip_underscores(S)).
parse_bytes("#" ++ S0) ->
S = strip_underscores(S0),
N = list_to_integer(S, 16),
Digits = (length(S) + 1) div 2,
<<N:Digits/unit:8>>.
parse_hash("#" ++ Chars) ->
N = list_to_integer(Chars, 16),
case length(Chars) > 64 of %% 64 hex digits = 32 bytes
true -> <<N:64/unit:8>>; %% signature
false -> <<N:32/unit:8>> %% address
end.
+30
View File
@@ -0,0 +1,30 @@
-module(aeso_sophia).
-export_type([data/0,
type/0,
heap/0]).
-type type() :: word | signed_word | string | typerep | function
| {list, type()}
| {option, type()}
| {tuple, [type()]}
| {variant, [[type()]]}.
-type data() :: none
| {some, data()}
| {option, data()}
| word
| string
| {list, data()}
| {tuple, [data()]}
| {variant, integer(), [data()]}
| integer()
| binary()
| [data()]
| {}
| {data()}
| {data(), data()}.
-type heap() :: binary().
-17
View File
@@ -1,17 +0,0 @@
%%%-------------------------------------------------------------------
%%% @author Radosław Rowicki
%%% @copyright (C) 2019, Aeternity Anstalt
%%% @doc
%%% Standard library for Sophia
%%% @end
%%% Created : 6 July 2019
%%%
%%%-------------------------------------------------------------------
-module(aeso_stdlib).
-export([stdlib_include_path/0]).
stdlib_include_path() ->
filename:join([code:priv_dir(aesophia), "stdlib"]).
+16 -45
View File
@@ -8,14 +8,14 @@
-module(aeso_syntax).
-export([get_ann/1, get_ann/2, get_ann/3, set_ann/2, qualify/2]).
-export([get_ann/1, get_ann/2, get_ann/3, set_ann/2]).
-export_type([ann_line/0, ann_col/0, ann_origin/0, ann_format/0, ann/0]).
-export_type([name/0, id/0, con/0, qid/0, qcon/0, tvar/0, op/0]).
-export_type([bin_op/0, un_op/0]).
-export_type([decl/0, letbind/0, typedef/0, pragma/0]).
-export_type([arg/0, field_t/0, constructor_t/0, named_arg_t/0]).
-export_type([type/0, constant/0, expr/0, arg_expr/0, field/1, stmt/0, alt/0, lvalue/0, elim/0, pat/0]).
-export_type([decl/0, letbind/0, typedef/0]).
-export_type([arg/0, field_t/0, constructor_t/0]).
-export_type([type/0, constant/0, expr/0, arg_expr/0, field/1, stmt/0, alt/0, lvalue/0, pat/0]).
-export_type([ast/0]).
-type ast() :: [decl()].
@@ -25,7 +25,7 @@
-type ann_origin() :: system | user.
-type ann_format() :: '?:' | hex | infix | prefix | elif.
-type ann() :: [{line, ann_line()} | {col, ann_col()} | {format, ann_format()} | {origin, ann_origin()} | stateful | private].
-type ann() :: [{line, ann_line()} | {col, ann_col()} | {format, ann_format()} | {origin, ann_origin()}].
-type name() :: string().
-type id() :: {id, ann(), name()}.
@@ -35,28 +35,15 @@
-type tvar() :: {tvar, ann(), name()}.
-type decl() :: {contract, ann(), con(), [decl()]}
| {namespace, ann(), con(), [decl()]}
| {pragma, ann(), pragma()}
| {type_decl, ann(), id(), [tvar()]} % Only for error msgs
| {type_decl, ann(), id(), [tvar()]}
| {type_def, ann(), id(), [tvar()], typedef()}
| {fun_clauses, ann(), id(), type(), [letfun() | fundecl()]}
| {block, ann(), [decl()]}
| fundecl()
| letfun()
| letval(). % Only for error msgs
-type compiler_version() :: [non_neg_integer()].
-type pragma() :: {compiler, '==' | '<' | '>' | '=<' | '>=', compiler_version()}.
-type letval() :: {letval, ann(), pat(), expr()}.
-type letfun() :: {letfun, ann(), id(), [pat()], type(), expr()}.
-type fundecl() :: {fun_decl, ann(), id(), type()}.
| {fun_decl, ann(), id(), type()}
| letbind().
-type letbind()
:: letfun()
| letval().
:: {letval, ann(), id(), type(), expr()}
| {letfun, ann(), id(), [arg()], type(), expr()}
| {letrec, ann(), [letbind()]}.
-type arg() :: {arg, ann(), id(), type()}.
@@ -72,8 +59,6 @@
-type type() :: {fun_t, ann(), [named_arg_t()], [type()], type()}
| {app_t, ann(), type(), [type()]}
| {tuple_t, ann(), [type()]}
| {args_t, ann(), [type()]} %% old tuple syntax, old for error messages
| {bytes_t, ann(), integer() | any}
| id() | qid()
| con() | qcon() %% contracts
| tvar().
@@ -83,11 +68,8 @@
-type constant()
:: {int, ann(), integer()}
| {bool, ann(), true | false}
| {bytes, ann(), binary()}
| {account_pubkey, ann(), binary()}
| {contract_pubkey, ann(), binary()}
| {oracle_pubkey, ann(), binary()}
| {oracle_query_id, ann(), binary()}
| {hash, ann(), binary()}
| {unit, ann()}
| {string, ann(), binary()}
| {char, ann(), integer()}.
@@ -106,10 +88,10 @@
| {proj, ann(), expr(), id()}
| {tuple, ann(), [expr()]}
| {list, ann(), [expr()]}
| {list_comp, ann(), expr(), [comprehension_exp()]}
| {typed, ann(), expr(), type()}
| {record_or_map(), ann(), [field(expr())]}
| {record_or_map(), ann(), expr(), [field(expr())]} %% record/map update
| {record, ann(), [field(expr())]}
| {record, ann(), expr(), [field(expr())]} %% record update
| {map, ann(), expr(), [field(expr())]} %% map update
| {map, ann(), [{expr(), expr()}]}
| {map_get, ann(), expr(), expr()}
| {map_get, ann(), expr(), expr(), expr()}
@@ -118,12 +100,6 @@
| id() | qid() | con() | qcon()
| constant().
-type record_or_map() :: record | map | record_or_map_error.
-type comprehension_exp() :: [ {comprehension_bind, pat(), expr()}
| {comprehension_if, ann(), expr()}
| letbind() ].
-type arg_expr() :: expr() | {named_arg, ann(), id(), expr()}.
%% When lvalue is a projection this is sugar for accessing fields in nested
@@ -148,7 +124,6 @@
-type pat() :: {app, ann(), con() | op(), [pat()]}
| {tuple, ann(), [pat()]}
| {list, ann(), [pat()]}
| {typed, ann(), pat(), type()}
| {record, ann(), [field(pat())]}
| constant()
| con()
@@ -165,7 +140,3 @@ get_ann(Key, Node) ->
get_ann(Key, Node, Default) ->
proplists:get_value(Key, get_ann(Node), Default).
qualify({con, Ann, N}, X) -> qualify({qcon, Ann, [N]}, X);
qualify({qcon, _, NS}, {con, Ann, C}) -> {qcon, Ann, NS ++ [C]};
qualify({qcon, _, NS}, {id, Ann, X}) -> {qid, Ann, NS ++ [X]}.
+81 -143
View File
@@ -6,151 +6,89 @@
%%%-------------------------------------------------------------------
-module(aeso_syntax_utils).
-export([used_ids/1, used_types/2, used/1]).
-export([used_ids/1, used_types/1]).
-record(alg, {zero, plus, scoped}).
%% Var set combinators
none() -> [].
one(X) -> [X].
union_map(F, Xs) -> lists:umerge(lists:map(F, Xs)).
minus(Xs, Ys) -> Xs -- Ys.
-type alg(A) :: #alg{ zero :: A
, plus :: fun((A, A) -> A)
, scoped :: fun((A, A) -> A) }.
%% Compute names used by a definition or expression.
used_ids(Es) when is_list(Es) ->
union_map(fun used_ids/1, Es);
used_ids({bind, A, B}) ->
minus(used_ids(B), used_ids(A));
%% Declarations
used_ids({contract, _, _, Decls}) -> used_ids(Decls);
used_ids({type_decl, _, _, _}) -> none();
used_ids({type_def, _, _, _, _}) -> none();
used_ids({fun_decl, _, _, _}) -> none();
used_ids({letval, _, _, _, E}) -> used_ids(E);
used_ids({letfun, _, _, Args, _, E}) -> used_ids({bind, Args, E});
used_ids({letrec, _, Decls}) -> used_ids(Decls);
%% Args
used_ids({arg, _, X, _}) -> used_ids(X);
used_ids({named_arg, _, _, E}) -> used_ids(E);
%% Constants
used_ids({int, _, _}) -> none();
used_ids({bool, _, _}) -> none();
used_ids({hash, _, _}) -> none();
used_ids({unit, _}) -> none();
used_ids({string, _, _}) -> none();
used_ids({char, _, _}) -> none();
%% Expressions
used_ids({lam, _, Args, E}) -> used_ids({bind, Args, E});
used_ids({'if', _, A, B, C}) -> used_ids([A, B, C]);
used_ids({switch, _, E, Bs}) -> used_ids([E, Bs]);
used_ids({app, _, E, Es}) -> used_ids([E | Es]);
used_ids({proj, _, E, _}) -> used_ids(E);
used_ids({tuple, _, Es}) -> used_ids(Es);
used_ids({list, _, Es}) -> used_ids(Es);
used_ids({typed, _, E, _}) -> used_ids(E);
used_ids({record, _, Fs}) -> used_ids(Fs);
used_ids({record, _, E, Fs}) -> used_ids([E, Fs]);
used_ids({map, _, E, Fs}) -> used_ids([E, Fs]);
used_ids({map, _, KVs}) -> used_ids([ [K, V] || {K, V} <- KVs ]);
used_ids({map_get, _, M, K}) -> used_ids([M, K]);
used_ids({map_get, _, M, K, V}) -> used_ids([M, K, V]);
used_ids({block, _, Ss}) -> used_ids_s(Ss);
used_ids({Op, _}) when is_atom(Op) -> none();
used_ids({id, _, X}) -> [X];
used_ids({qid, _, _}) -> none();
used_ids({con, _, _}) -> none();
used_ids({qcon, _, _}) -> none();
%% Switch branches
used_ids({'case', _, P, E}) -> used_ids({bind, P, E});
%% Fields
used_ids({field, _, LV, E}) -> used_ids([LV, E]);
used_ids({field, _, LV, X, E}) -> used_ids([LV, {bind, X, E}]);
used_ids({proj, _, _}) -> none();
used_ids({map_get, _, E}) -> used_ids(E).
-type kind() :: decl | type | bind_type | expr | bind_expr.
%% Statements
used_ids_s([]) -> none();
used_ids_s([S | Ss]) ->
used_ids([S, {bind, bound_ids(S), {block, [], Ss}}]).
-spec fold(alg(A), fun((kind(), _) -> A), kind(), E | [E]) -> A
when E :: aeso_syntax:decl()
| aeso_syntax:typedef()
| aeso_syntax:field_t()
| aeso_syntax:constructor_t()
| aeso_syntax:type()
| aeso_syntax:expr()
| aeso_syntax:pat()
| aeso_syntax:arg()
| aeso_syntax:alt()
| aeso_syntax:elim()
| aeso_syntax:arg_expr()
| aeso_syntax:field(aeso_syntax:expr())
| aeso_syntax:stmt().
fold(Alg = #alg{zero = Zero, plus = Plus, scoped = Scoped}, Fun, K, X) ->
Sum = fun(Xs) -> lists:foldl(Plus, Zero, Xs) end,
Same = fun(A) -> fold(Alg, Fun, K, A) end,
Decl = fun(D) -> fold(Alg, Fun, decl, D) end,
Type = fun(T) -> fold(Alg, Fun, type, T) end,
Expr = fun(E) -> fold(Alg, Fun, expr, E) end,
BindExpr = fun(P) -> fold(Alg, Fun, bind_expr, P) end,
BindType = fun(T) -> fold(Alg, Fun, bind_type, T) end,
Top = Fun(K, X),
Rec = case X of
%% lists (bound things in head scope over tail)
[A | As] -> Scoped(Same(A), Same(As));
%% decl()
{contract, _, _, Ds} -> Decl(Ds);
{namespace, _, _, Ds} -> Decl(Ds);
{type_def, _, I, _, D} -> Plus(BindType(I), Decl(D));
{fun_decl, _, _, T} -> Type(T);
{letval, _, P, E} -> Scoped(BindExpr(P), Expr(E));
{letfun, _, F, Xs, T, E} -> Sum([BindExpr(F), Type(T), Expr(Xs ++ [E])]);
{fun_clauses, _, _, T, Cs} -> Sum([Type(T) | [Decl(C) || C <- Cs]]);
%% typedef()
{alias_t, T} -> Type(T);
{record_t, Fs} -> Type(Fs);
{variant_t, Cs} -> Type(Cs);
%% field_t() and constructor_t()
{field_t, _, _, T} -> Type(T);
{constr_t, _, _, Ts} -> Type(Ts);
%% type()
{fun_t, _, Named, Args, Ret} -> Type([Named, Args, Ret]);
{app_t, _, T, Ts} -> Type([T | Ts]);
{tuple_t, _, Ts} -> Type(Ts);
%% named_arg_t()
{named_arg_t, _, _, T, E} -> Plus(Type(T), Expr(E));
%% expr()
{lam, _, Args, E} -> Scoped(BindExpr(Args), Expr(E));
{'if', _, A, B, C} -> Expr([A, B, C]);
{switch, _, E, Alts} -> Expr([E, Alts]);
{app, _, A, As} -> Expr([A | As]);
{proj, _, E, _} -> Expr(E);
{tuple, _, As} -> Expr(As);
{list, _, As} -> Expr(As);
{list_comp, _, Y, []} -> Expr(Y);
{list_comp, A, Y, [{comprehension_bind, I, E}|R]} ->
Plus(Expr(E), Scoped(BindExpr(I), Expr({list_comp, A, Y, R})));
{list_comp, A, Y, [{comprehension_if, _, E}|R]} ->
Plus(Expr(E), Expr({list_comp, A, Y, R}));
{list_comp, A, Y, [D = {letval, _, Pat, _} | R]} ->
Plus(Decl(D), Scoped(BindExpr(Pat), Expr({list_comp, A, Y, R})));
{list_comp, A, Y, [D = {letfun, _, F, _, _, _} | R]} ->
Plus(Decl(D), Scoped(BindExpr(F), Expr({list_comp, A, Y, R})));
{typed, _, E, T} -> Plus(Expr(E), Type(T));
{record, _, Fs} -> Expr(Fs);
{record, _, E, Fs} -> Expr([E | Fs]);
{map, _, E, Fs} -> Expr([E | Fs]);
{map, _, KVs} -> Sum([Expr([Key, Val]) || {Key, Val} <- KVs]);
{map_get, _, A, B} -> Expr([A, B]);
{map_get, _, A, B, C} -> Expr([A, B, C]);
{block, _, Ss} -> Expr(Ss);
%% field()
{field, _, LV, E} -> Expr([LV, E]);
{field, _, LV, _, E} -> Expr([LV, E]);
%% arg()
{arg, _, Y, T} -> Plus(BindExpr(Y), Type(T));
%% alt()
{'case', _, P, E} -> Scoped(BindExpr(P), Expr(E));
%% elim()
{proj, _, _} -> Zero;
{map_get, _, E} -> Expr(E);
%% arg_expr()
{named_arg, _, _, E} -> Expr(E);
_ -> Alg#alg.zero
end,
(Alg#alg.plus)(Top, Rec).
%% Name dependencies
used_ids(E) ->
[ X || {{term, [X]}, _} <- used(E) ].
used_types([Top] = _CurrentNS, T) ->
F = fun({{type, [X]}, _}) -> [X];
({{type, [Top1, X]}, _}) when Top1 == Top -> [X];
(_) -> []
end,
lists:flatmap(F, used(T)).
-type entity() :: {term, [string()]}
| {type, [string()]}
| {namespace, [string()]}.
-spec entity_alg() -> alg(#{entity() => aeso_syntax:ann()}).
entity_alg() ->
IsBound = fun({K, _}) -> lists:member(K, [bound_term, bound_type]) end,
Unbind = fun(bound_term) -> term; (bound_type) -> type end,
Remove = fun(Keys, Map) -> maps:without(Keys, Map) end,
Scoped = fun(Xs, Ys) ->
Bound = [E || E <- maps:keys(Xs), IsBound(E)],
Bound1 = [ {Unbind(Tag), X} || {Tag, X} <- Bound ],
Others = Remove(Bound1, Ys),
maps:merge(Remove(Bound, Xs), Others)
end,
#alg{ zero = #{}
, plus = fun maps:merge/2
, scoped = Scoped }.
-spec used(_) -> [{entity(), aeso_syntax:ann()}].
used(D) ->
Kind = fun(expr) -> term;
(bind_expr) -> bound_term;
(type) -> type;
(bind_type) -> bound_type
end,
NS = fun(Xs) -> {namespace, lists:droplast(Xs)} end,
NotBound = fun({{Tag, _}, _}) -> not lists:member(Tag, [bound_term, bound_type]) end,
Xs =
maps:to_list(fold(entity_alg(),
fun(K, {id, Ann, X}) -> #{{Kind(K), [X]} => Ann};
(K, {qid, Ann, Xs}) -> #{{Kind(K), Xs} => Ann, NS(Xs) => Ann};
(K, {con, Ann, X}) -> #{{Kind(K), [X]} => Ann};
(K, {qcon, Ann, Xs}) -> #{{Kind(K), Xs} => Ann, NS(Xs) => Ann};
(_, _) -> #{}
end, decl, D)),
lists:filter(NotBound, Xs).
bound_ids({letval, _, X, _, _}) -> one(X);
bound_ids({letfun, _, X, _, _, _}) -> one(X);
bound_ids({letrec, _, Decls}) -> union_map(fun bound_ids/1, Decls);
bound_ids(_) -> none().
used_types(Ts) when is_list(Ts) -> union_map(fun used_types/1, Ts);
used_types({type_def, _, _, _, T}) -> used_types(T);
used_types({alias_t, T}) -> used_types(T);
used_types({record_t, Fs}) -> used_types(Fs);
used_types({variant_t, Cs}) -> used_types(Cs);
used_types({field_t, _, _, T}) -> used_types(T);
used_types({constr_t, _, _, Ts}) -> used_types(Ts);
used_types({fun_t, _, Named, Args, T}) -> used_types([T | Named ++ Args]);
used_types({named_arg_t, _, _, T, _}) -> used_types(T);
used_types({app_t, _, T, Ts}) -> used_types([T | Ts]);
used_types({tuple_t, _, Ts}) -> used_types(Ts);
used_types({id, _, X}) -> one(X);
used_types({qid, _, _}) -> none();
used_types({con, _, _}) -> none();
used_types({qcon, _, _}) -> none();
used_types({tvar, _, _}) -> none().
-137
View File
@@ -1,137 +0,0 @@
%%%-------------------------------------------------------------------
%%% @copyright (C) 2017, Aeternity Anstalt
%%% @doc Decoding aevm and fate data to AST
%%%
%%% @end
%%%-------------------------------------------------------------------
-module(aeso_vm_decode).
-export([ from_aevm/3, from_fate/2 ]).
-include_lib("aebytecode/include/aeb_fate_data.hrl").
address_literal(Type, N) -> {Type, [], <<N:256>>}.
-spec from_aevm(aeb_aevm_data:type(), aeso_syntax:type(), aeb_aevm_data:data()) -> aeso_syntax:expr().
from_aevm(word, {id, _, "address"}, N) -> address_literal(account_pubkey, N);
from_aevm(word, {app_t, _, {id, _, "oracle"}, _}, N) -> address_literal(oracle_pubkey, N);
from_aevm(word, {app_t, _, {id, _, "oracle_query"}, _}, N) -> address_literal(oracle_query_id, N);
from_aevm(word, {con, _, _Name}, N) -> address_literal(contract_pubkey, N);
from_aevm(word, {id, _, "int"}, N0) ->
<<N:256/signed>> = <<N0:256>>,
if N < 0 -> {app, [{format, prefix}], {'-', []}, [{int, [], -N}]};
true -> {int, [], N} end;
from_aevm(word, {id, _, "bits"}, N0) ->
<<N:256/signed>> = <<N0:256>>,
make_bits(N);
from_aevm(word, {id, _, "bool"}, N) -> {bool, [], N /= 0};
from_aevm(word, {bytes_t, _, Len}, Val) when Len =< 32 ->
<<Bytes:Len/unit:8, _/binary>> = <<Val:32/unit:8>>,
{bytes, [], <<Bytes:Len/unit:8>>};
from_aevm({tuple, _}, {bytes_t, _, Len}, Val) ->
{bytes, [], binary:part(<< <<W:32/unit:8>> || W <- tuple_to_list(Val) >>, 0, Len)};
from_aevm(string, {id, _, "string"}, S) -> {string, [], S};
from_aevm({list, VmType}, {app_t, _, {id, _, "list"}, [Type]}, List) ->
{list, [], [from_aevm(VmType, Type, X) || X <- List]};
from_aevm({variant, [[], [VmType]]}, {app_t, _, {id, _, "option"}, [Type]}, Val) ->
case Val of
{variant, 0, []} -> {con, [], "None"};
{variant, 1, [X]} -> {app, [], {con, [], "Some"}, [from_aevm(VmType, Type, X)]}
end;
from_aevm({tuple, VmTypes}, {tuple_t, _, Types}, Val)
when length(VmTypes) == length(Types),
length(VmTypes) == tuple_size(Val) ->
{tuple, [], [from_aevm(VmType, Type, X)
|| {VmType, Type, X} <- lists:zip3(VmTypes, Types, tuple_to_list(Val))]};
from_aevm({tuple, VmTypes}, {record_t, Fields}, Val)
when length(VmTypes) == length(Fields),
length(VmTypes) == tuple_size(Val) ->
{record, [], [ {field, [], [{proj, [], FName}], from_aevm(VmType, FType, X)}
|| {VmType, {field_t, _, FName, FType}, X} <- lists:zip3(VmTypes, Fields, tuple_to_list(Val)) ]};
from_aevm({map, VmKeyType, VmValType}, {app_t, _, {id, _, "map"}, [KeyType, ValType]}, Map)
when is_map(Map) ->
{map, [], [ {from_aevm(VmKeyType, KeyType, Key),
from_aevm(VmValType, ValType, Val)}
|| {Key, Val} <- maps:to_list(Map) ]};
from_aevm({variant, VmCons}, {variant_t, Cons}, {variant, Tag, Args})
when length(VmCons) == length(Cons),
length(VmCons) > Tag ->
VmTypes = lists:nth(Tag + 1, VmCons),
ConType = lists:nth(Tag + 1, Cons),
from_aevm(VmTypes, ConType, Args);
from_aevm([], {constr_t, _, Con, []}, []) -> Con;
from_aevm(VmTypes, {constr_t, _, Con, Types}, Args)
when length(VmTypes) == length(Types),
length(VmTypes) == length(Args) ->
{app, [], Con, [ from_aevm(VmType, Type, Arg)
|| {VmType, Type, Arg} <- lists:zip3(VmTypes, Types, Args) ]};
from_aevm(_VmType, _Type, _Data) ->
throw(cannot_translate_to_sophia).
-spec from_fate(aeso_syntax:type(), aeb_fate_data:fate_type()) -> aeso_syntax:expr().
from_fate({id, _, "address"}, ?FATE_ADDRESS(Bin)) -> {account_pubkey, [], Bin};
from_fate({app_t, _, {id, _, "oracle"}, _}, ?FATE_ORACLE(Bin)) -> {oracle_pubkey, [], Bin};
from_fate({app_t, _, {id, _, "oracle_query"}, _}, ?FATE_ORACLE_Q(Bin)) -> {oracle_query_id, [], Bin};
from_fate({con, _, _Name}, ?FATE_CONTRACT(Bin)) -> {contract_pubkey, [], Bin};
from_fate({bytes_t, _, N}, ?FATE_BYTES(Bin)) when byte_size(Bin) == N -> {bytes, [], Bin};
from_fate({id, _, "bits"}, ?FATE_BITS(N)) -> make_bits(N);
from_fate({id, _, "int"}, N) when is_integer(N) ->
if N < 0 -> {app, [{format, prefix}], {'-', []}, [{int, [], -N}]};
true -> {int, [], N} end;
from_fate({id, _, "bool"}, B) when is_boolean(B) -> {bool, [], B};
from_fate({id, _, "string"}, S) when is_binary(S) -> {string, [], S};
from_fate({app_t, _, {id, _, "list"}, [Type]}, List) when is_list(List) ->
{list, [], [from_fate(Type, X) || X <- List]};
from_fate({app_t, _, {id, _, "option"}, [Type]}, Val) ->
case Val of
{variant, [0, 1], 0, {}} -> {con, [], "None"};
{variant, [0, 1], 1, {X}} -> {app, [], {con, [], "Some"}, [from_fate(Type, X)]}
end;
from_fate({tuple_t, _, []}, ?FATE_UNIT) ->
{tuple, [], []};
from_fate({tuple_t, _, Types}, ?FATE_TUPLE(Val))
when length(Types) == tuple_size(Val) ->
{tuple, [], [from_fate(Type, X)
|| {Type, X} <- lists:zip(Types, tuple_to_list(Val))]};
from_fate({record_t, [{field_t, _, FName, FType}]}, Val) ->
{record, [], [{field, [], [{proj, [], FName}], from_fate(FType, Val)}]};
from_fate({record_t, Fields}, ?FATE_TUPLE(Val))
when length(Fields) == tuple_size(Val) ->
{record, [], [ {field, [], [{proj, [], FName}], from_fate(FType, X)}
|| {{field_t, _, FName, FType}, X} <- lists:zip(Fields, tuple_to_list(Val)) ]};
from_fate({app_t, _, {id, _, "map"}, [KeyType, ValType]}, Map)
when is_map(Map) ->
{map, [], [ {from_fate(KeyType, Key),
from_fate(ValType, Val)}
|| {Key, Val} <- maps:to_list(Map) ]};
from_fate({variant_t, Cons}, {variant, Ar, Tag, Args})
when length(Cons) > Tag ->
ConType = lists:nth(Tag + 1, Cons),
Arity = lists:nth(Tag + 1, Ar),
case tuple_to_list(Args) of
ArgList when length(ArgList) == Arity ->
from_fate(ConType, ArgList);
_ -> throw(cannot_translate_to_sophia)
end;
from_fate({constr_t, _, Con, []}, []) -> Con;
from_fate({constr_t, _, Con, Types}, Args)
when length(Types) == length(Args) ->
{app, [], Con, [ from_fate(Type, Arg)
|| {Type, Arg} <- lists:zip(Types, Args) ]};
from_fate(_Type, _Data) ->
throw(cannot_translate_to_sophia).
make_bits(N) ->
Id = fun(F) -> {qid, [], ["Bits", F]} end,
if N < 0 -> make_bits(Id("clear"), Id("all"), 0, bnot N);
true -> make_bits(Id("set"), Id("none"), 0, N) end.
make_bits(_Set, Zero, _I, 0) -> Zero;
make_bits(Set, Zero, I, N) when 0 == N rem 2 ->
make_bits(Set, Zero, I + 1, N div 2);
make_bits(Set, Zero, I, N) ->
{app, [], Set, [make_bits(Set, Zero, I + 1, N div 2), {int, [], I}]}.
+3 -5
View File
@@ -1,15 +1,13 @@
{application, aesophia,
[{description, "Contract Language for aeternity"},
{vsn, "4.3.0"},
[{description, "Contract Language for Aethernity"},
{vsn, "1.2.0"},
{registered, []},
{applications,
[kernel,
stdlib,
jsx,
syntax_tools,
getopt,
aebytecode,
eblake2
aebytecode
]},
{env,[]},
{modules, []},
+71
View File
@@ -0,0 +1,71 @@
-module(aesophia).
-export([main/1]).
-define(OPT_SPEC,
[ {src_file, undefined, undefined, string, "Sophia source code file"}
, {verbose, $v, "verbose", undefined, "Verbose output"}
, {help, $h, "help", undefined, "Show this message"}
, {outfile, $o, "out", string, "Output file (experimental)"} ]).
usage() ->
getopt:usage(?OPT_SPEC, "aesophia").
main(Args) ->
case getopt:parse(?OPT_SPEC, Args) of
{ok, {Opts, []}} ->
case proplists:get_value(help, Opts, false) of
false ->
compile(Opts);
true ->
usage()
end;
{ok, {_, NonOpts}} ->
io:format("Can't understand ~p\n\n", [NonOpts]),
usage();
{error, {Reason, Data}} ->
io:format("Error: ~s ~p\n\n", [Reason, Data]),
usage()
end.
compile(Opts) ->
case proplists:get_value(src_file, Opts, undefined) of
undefined ->
io:format("Error: no input source file\n\n"),
usage();
File ->
compile(File, Opts)
end.
compile(File, Opts) ->
Verbose = proplists:get_value(verbose, Opts, false),
OutFile = proplists:get_value(outfile, Opts, undefined),
try
Res = aeso_compiler:file(File, [pp_ast || Verbose]),
write_outfile(OutFile, Res),
io:format("\nCompiled successfully!\n")
catch
%% The compiler errors.
error:{type_errors, Errors} ->
io:format("\n~s\n", [string:join(["** Type errors\n" | Errors], "\n")]);
error:{parse_errors, Errors} ->
io:format("\n~s\n", [string:join(["** Parse errors\n" | Errors], "\n")]);
error:{code_errors, Errors} ->
ErrorStrings = [ io_lib:format("~p", [E]) || E <- Errors ],
io:format("\n~s\n", [string:join(["** Code errors\n" | ErrorStrings], "\n")]);
%% General programming errors in the compiler.
error:Error ->
Where = hd(erlang:get_stacktrace()),
ErrorString = io_lib:format("Error: ~p in\n ~p", [Error,Where]),
io:format("\n~s\n", [ErrorString])
end.
write_outfile(undefined, _) -> ok;
write_outfile(Out, ResMap) ->
%% Lazy approach
file:write_file(Out, term_to_binary(ResMap)),
io:format("Output written to: ~s\n", [Out]).
+22 -188
View File
@@ -1,12 +1,9 @@
-module(aeso_abi_tests).
-include_lib("eunit/include/eunit.hrl").
-compile([export_all, nowarn_export_all]).
-compile(export_all).
-define(SANDBOX(Code), sandbox(fun() -> Code end)).
-define(DUMMY_HASH_WORD, 16#123).
-define(DUMMY_HASH, <<0:30/unit:8, 127, 119>>). %% 16#123
-define(DUMMY_HASH_LIT, "#0000000000000000000000000000000000000000000000000000000000000123").
sandbox(Code) ->
Parent = self(),
@@ -22,8 +19,8 @@ sandbox(Code) ->
malicious_from_binary_test() ->
CircularList = from_words([32, 1, 32]), %% Xs = 1 :: Xs
{ok, {error, circular_references}} = ?SANDBOX(aeb_heap:from_binary({list, word}, CircularList)),
{ok, {error, {binary_too_short, _}}} = ?SANDBOX(aeb_heap:from_binary(word, <<1, 2, 3, 4>>)),
{ok, {error, circular_references}} = ?SANDBOX(aeso_heap:from_binary({list, word}, CircularList)),
{ok, {error, {binary_too_short, _}}} = ?SANDBOX(aeso_heap:from_binary(word, <<1, 2, 3, 4>>)),
ok.
from_words(Ws) ->
@@ -57,198 +54,35 @@ encode_decode_test() ->
ok.
encode_decode_sophia_test() ->
Check = fun(Type, Str) -> case {encode_decode_sophia_string(Type, Str), Str} of
{X, X} -> ok;
Other -> Other
end end,
ok = Check("int", "42"),
ok = Check("int", "- 42"),
ok = Check("bool", "true"),
ok = Check("bool", "false"),
ok = Check("string", "\"Hello\""),
ok = Check("string * list(int) * option(bool)",
"(\"Hello\", [1, 2, 3], Some(true))"),
ok = Check("variant", "Blue({[\"x\"] = 1})"),
ok = Check("r", "{x = (\"foo\", 0), y = Red}"),
{42} = encode_decode_sophia_string("int", "42"),
{1} = encode_decode_sophia_string("bool", "true"),
{0} = encode_decode_sophia_string("bool", "false"),
{<<"Hello">>} = encode_decode_sophia_string("string", "\"Hello\""),
{<<"Hello">>, [1,2,3], {variant, 1, [1]}} =
encode_decode_sophia_string(
"(string, list(int), option(bool))",
"\"Hello\", [1,2,3], Some(true)"),
ok.
to_sophia_value_neg_test() ->
Code = [ "contract Foo =\n"
" entrypoint x(y : int) : string = \"hello\"\n" ],
{error, [Err1]} = aeso_compiler:to_sophia_value(Code, "x", ok, encode(12)),
?assertEqual("Data error:\nFailed to decode binary as type string\n", aeso_errors:pp(Err1)),
{error, [Err2]} = aeso_compiler:to_sophia_value(Code, "x", ok, encode(12), [{backend, fate}]),
?assertEqual("Data error:\nFailed to decode binary as type string\n", aeso_errors:pp(Err2)),
{error, [Err3]} = aeso_compiler:to_sophia_value(Code, "x", revert, encode(12)),
?assertEqual("Data error:\nCould not interpret the revert message\n", aeso_errors:pp(Err3)),
{error, [Err4]} = aeso_compiler:to_sophia_value(Code, "x", revert, encode(12), [{backend, fate}]),
?assertEqual("Data error:\nCould not deserialize the revert message\n", aeso_errors:pp(Err4)),
ok.
encode_calldata_neg_test() ->
Code = [ "contract Foo =\n"
" entrypoint x(y : int) : string = \"hello\"\n" ],
ExpErr1 = "Type error at line 5, col 34:\nCannot unify int\n and bool\n"
"when checking the application at line 5, column 34 of\n"
" x : (int) => string\nto arguments\n true : bool\n",
{error, [Err1]} = aeso_compiler:create_calldata(Code, "x", ["true"]),
?assertEqual(ExpErr1, aeso_errors:pp(Err1)),
{error, [Err2]} = aeso_compiler:create_calldata(Code, "x", ["true"], [{backend, fate}]),
?assertEqual(ExpErr1, aeso_errors:pp(Err2)),
ok.
decode_calldata_neg_test() ->
Code1 = [ "contract Foo =\n"
" entrypoint x(y : int) : string = \"hello\"\n" ],
Code2 = [ "contract Foo =\n"
" entrypoint x(y : string) : int = 42\n" ],
{ok, CallDataAEVM} = aeso_compiler:create_calldata(Code1, "x", ["42"]),
{ok, CallDataFATE} = aeso_compiler:create_calldata(Code1, "x", ["42"], [{backend, fate}]),
{error, [Err1]} = aeso_compiler:decode_calldata(Code2, "x", CallDataAEVM),
?assertEqual("Data error:\nFailed to decode calldata as type {tuple,[string]}\n", aeso_errors:pp(Err1)),
{error, [Err2]} = aeso_compiler:decode_calldata(Code2, "x", <<1,2,3>>, [{backend, fate}]),
?assertEqual("Data error:\nFailed to decode calldata binary\n", aeso_errors:pp(Err2)),
{error, [Err3]} = aeso_compiler:decode_calldata(Code2, "x", CallDataFATE, [{backend, fate}]),
?assertEqual("Data error:\nCannot translate FATE value \"*\"\n to Sophia type (string)\n", aeso_errors:pp(Err3)),
{error, [Err4]} = aeso_compiler:decode_calldata(Code2, "y", CallDataAEVM),
?assertEqual("Data error at line 1, col 1:\nFunction 'y' is missing in contract\n", aeso_errors:pp(Err4)),
{error, [Err5]} = aeso_compiler:decode_calldata(Code2, "y", CallDataFATE, [{backend, fate}]),
?assertEqual("Data error at line 1, col 1:\nFunction 'y' is missing in contract\n", aeso_errors:pp(Err5)),
ok.
encode_decode_sophia_string(SophiaType, String) ->
io:format("String ~p~n", [String]),
Code = [ "contract MakeCall =\n"
, " type arg_type = ", SophiaType, "\n"
, " type an_alias('a) = string * 'a\n"
, " record r = {x : an_alias(int), y : variant}\n"
, " datatype variant = Red | Blue(map(string, int))\n"
, " entrypoint foo : arg_type => arg_type\n" ],
case aeso_compiler:check_call(lists:flatten(Code), "foo", [String], [no_code]) of
{ok, _, {[Type], _}, [Arg]} ->
io:format("Type ~p~n", [Type]),
Data = encode(Arg),
case aeso_compiler:to_sophia_value(Code, "foo", ok, Data, [no_code]) of
{ok, Sophia} ->
lists:flatten(io_lib:format("~s", [prettypr:format(aeso_pretty:expr(Sophia))]));
{error, Err} ->
io:format("~s\n", [Err]),
{error, Err}
end;
{error, Err} ->
io:format("~s\n", [Err]),
{error, Err}
end.
calldata_test() ->
[42, <<"foobar">>] = encode_decode_calldata("foo", ["int", "string"], ["42", "\"foobar\""]),
Map = #{ <<"a">> => 4 },
[{variant, 1, [Map]}, {{<<"b">>, 5}, {variant, 0, []}}] =
encode_decode_calldata("foo", ["variant", "r"], ["Blue({[\"a\"] = 4})", "{x = (\"b\", 5), y = Red}"]),
[?DUMMY_HASH_WORD, 16#456] = encode_decode_calldata("foo", ["bytes(32)", "address"],
[?DUMMY_HASH_LIT, "ak_1111111111111111111111111111113AFEFpt5"]),
[?DUMMY_HASH_WORD, ?DUMMY_HASH_WORD] =
encode_decode_calldata("foo", ["bytes(32)", "hash"], [?DUMMY_HASH_LIT, ?DUMMY_HASH_LIT]),
[119, {0, 0}] = encode_decode_calldata("foo", ["int", "signature"], ["119", [$# | lists:duplicate(128, $0)]]),
[16#456] = encode_decode_calldata("foo", ["Remote"], ["ct_1111111111111111111111111111113AFEFpt5"]),
ok.
calldata_init_test() ->
encode_decode_calldata("init", ["int"], ["42"], {tuple, [typerep, word]}),
Code = parameterized_contract("foo", ["int"]),
encode_decode_calldata_(Code, "init", [], {tuple, [typerep, {tuple, []}]}).
calldata_indent_test() ->
Test = fun(Extra) ->
Code = parameterized_contract(Extra, "foo", ["int"]),
encode_decode_calldata_(Code, "foo", ["42"], word)
end,
Test(" stateful entrypoint bla() = ()"),
Test(" type x = int"),
Test(" stateful entrypoint bla(x : int) =\n"
" x + 1"),
Test(" stateful entrypoint bla(x : int) : int =\n"
" x + 1"),
ok.
parameterized_contract(FunName, Types) ->
parameterized_contract([], FunName, Types).
parameterized_contract(ExtraCode, FunName, Types) ->
lists:flatten(
["contract Remote =\n"
" entrypoint bla : () => unit\n\n"
"contract Dummy =\n",
ExtraCode, "\n",
" type an_alias('a) = string * 'a\n"
" record r = {x : an_alias(int), y : variant}\n"
" datatype variant = Red | Blue(map(string, int))\n"
" entrypoint ", FunName, " : (", string:join(Types, ", "), ") => int\n" ]).
oracle_test() ->
Contract =
"contract OracleTest =\n"
" entrypoint question(o, q : oracle_query(list(string), option(int))) =\n"
" Oracle.get_question(o, q)\n",
{ok, _, {[word, word], {list, string}}, [16#123, 16#456]} =
aeso_compiler:check_call(Contract, "question", ["ok_111111111111111111111111111111ZrdqRz9",
"oq_1111111111111111111111111111113AFEFpt5"], [no_code]),
ok.
permissive_literals_fail_test() ->
Contract =
"contract OracleTest =\n"
" stateful entrypoint haxx(o : oracle(list(string), option(int))) =\n"
" Chain.spend(o, 1000000)\n",
{error, [Err]} =
aeso_compiler:check_call(Contract, "haxx", ["#123"], []),
?assertMatch("Type error at line 3, col 5:\nCannot unify" ++ _, aeso_errors:pp(Err)),
?assertEqual(type_error, aeso_errors:type(Err)),
ok.
encode_decode_calldata(FunName, Types, Args) ->
encode_decode_calldata(FunName, Types, Args, word).
encode_decode_calldata(FunName, Types, Args, RetType) ->
Code = parameterized_contract(FunName, Types),
encode_decode_calldata_(Code, FunName, Args, RetType).
encode_decode_calldata_(Code, FunName, Args, RetVMType) ->
{ok, Calldata} = aeso_compiler:create_calldata(Code, FunName, Args, []),
{ok, _, {ArgTypes, RetType}, _} = aeso_compiler:check_call(Code, FunName, Args, [{backend, aevm}, no_code]),
?assertEqual(RetType, RetVMType),
CalldataType = {tuple, [word, {tuple, ArgTypes}]},
{ok, {_Hash, ArgTuple}} = aeb_heap:from_binary(CalldataType, Calldata),
case FunName of
"init" ->
ok;
_ ->
{ok, _ArgTypes, ValueASTs} = aeso_compiler:decode_calldata(Code, FunName, Calldata, []),
Values = [ prettypr:format(aeso_pretty:expr(V)) || V <- ValueASTs ],
?assertMatch({X, X}, {Args, Values})
end,
tuple_to_list(ArgTuple).
Code = [ "contract Call =\n"
, " function foo : ", SophiaType, " => _\n"
, " function __call() = foo(", String, ")\n" ],
{ok, _, {Types, _}, Args} = aeso_compiler:check_call(lists:flatten(Code), []),
Arg = list_to_tuple(Args),
Type = {tuple, Types},
io:format("Type ~p~n", [Type]),
Data = encode(Arg),
decode(Type, Data).
encode_decode(T, D) ->
?assertEqual(D, decode(T, encode(D))),
D.
encode(D) ->
aeb_heap:to_binary(D).
aeso_heap:to_binary(D).
decode(T,B) ->
{ok, D} = aeb_heap:from_binary(T, B),
{ok, D} = aeso_heap:from_binary(T, B),
D.
-132
View File
@@ -1,132 +0,0 @@
-module(aeso_aci_tests).
-include_lib("eunit/include/eunit.hrl").
simple_aci_test_() ->
[{"Test contract " ++ integer_to_list(N),
fun() -> test_contract(N) end}
|| N <- [1, 2, 3]].
test_contract(N) ->
{Contract,MapACI,DecACI} = test_cases(N),
{ok,JSON} = aeso_aci:contract_interface(json, Contract),
?assertEqual([MapACI], JSON),
?assertEqual({ok, DecACI}, aeso_aci:render_aci_json(JSON)),
%% Check if the compiler provides correct aci
{ok,#{aci := JSON2}} = aeso_compiler:from_string(Contract, [{aci, json}]),
?assertEqual(JSON, JSON2).
test_cases(1) ->
Contract = <<"payable contract C =\n"
" payable stateful entrypoint a(i : int) = i+1\n">>,
MapACI = #{contract =>
#{name => <<"C">>,
type_defs => [],
payable => true,
functions =>
[#{name => <<"a">>,
arguments =>
[#{name => <<"i">>,
type => <<"int">>}],
returns => <<"int">>,
stateful => true,
payable => true}]}},
DecACI = <<"payable contract C =\n"
" payable entrypoint a : (int) => int\n">>,
{Contract,MapACI,DecACI};
test_cases(2) ->
Contract = <<"contract C =\n"
" type allan = int\n"
" entrypoint a(i : allan) = i+1\n">>,
MapACI = #{contract =>
#{name => <<"C">>, payable => false,
type_defs =>
[#{name => <<"allan">>,
typedef => <<"int">>,
vars => []}],
functions =>
[#{arguments =>
[#{name => <<"i">>,
type => <<"C.allan">>}],
name => <<"a">>,
returns => <<"int">>,
stateful => false,
payable => false}]}},
DecACI = <<"contract C =\n"
" type allan = int\n"
" entrypoint a : (C.allan) => int\n">>,
{Contract,MapACI,DecACI};
test_cases(3) ->
Contract = <<"contract C =\n"
" type state = unit\n"
" datatype event = SingleEventDefined\n"
" datatype bert('a) = Bin('a)\n"
" entrypoint a(i : bert(string)) = 1\n">>,
MapACI = #{contract =>
#{functions =>
[#{arguments =>
[#{name => <<"i">>,
type =>
#{<<"C.bert">> => [<<"string">>]}}],
name => <<"a">>,returns => <<"int">>,
stateful => false, payable => false}],
name => <<"C">>, payable => false,
event => #{variant => [#{<<"SingleEventDefined">> => []}]},
state => <<"unit">>,
type_defs =>
[#{name => <<"bert">>,
typedef =>
#{variant =>
[#{<<"Bin">> => [<<"'a">>]}]},
vars => [#{name => <<"'a">>}]}]}},
DecACI = <<"contract C =\n"
" type state = unit\n"
" datatype event = SingleEventDefined\n"
" datatype bert('a) = Bin('a)\n"
" entrypoint a : (C.bert(string)) => int\n">>,
{Contract,MapACI,DecACI}.
%% Roundtrip
aci_test_() ->
[{"Testing ACI generation for " ++ ContractName,
fun() -> aci_test_contract(ContractName) end}
|| ContractName <- all_contracts()].
all_contracts() -> aeso_compiler_tests:compilable_contracts().
aci_test_contract(Name) ->
String = aeso_test_utils:read_contract(Name),
Opts = case lists:member(Name, aeso_compiler_tests:debug_mode_contracts()) of
true -> [debug_mode];
false -> []
end ++ [{include, {file_system, [aeso_test_utils:contract_path()]}}],
{ok, JSON} = aeso_aci:contract_interface(json, String, Opts),
{ok, #{aci := JSON1}} = aeso_compiler:from_string(String, [{aci, json}, {backend, fate} | Opts]),
?assertEqual(JSON, JSON1),
io:format("JSON:\n~p\n", [JSON]),
{ok, ContractStub} = aeso_aci:render_aci_json(JSON),
io:format("STUB:\n~s\n", [ContractStub]),
check_stub(ContractStub, [{src_file, Name}]),
ok.
check_stub(Stub, Options) ->
try aeso_parser:string(binary_to_list(Stub), Options) of
Ast ->
try
%% io:format("AST: ~120p\n", [Ast]),
aeso_ast_infer_types:infer(Ast, [])
catch throw:{type_errors, TE} ->
io:format("Type error:\n~s\n", [TE]),
error(TE);
_:R ->
io:format("Error: ~p\n", [R]),
error(R)
end
catch throw:{error, Errs} ->
_ = [ io:format("~s\n", [aeso_errors:pp(E)]) || E <- Errs ],
error({parse_errors, Errs})
end.
+73
View File
@@ -0,0 +1,73 @@
%%%=============================================================================
%%% @copyright (C) 2019, Aeternity Anstalt
%%% @doc
%%% Unit tests for the aeso_blake2 module
%%%
%%% In addition the aeso_blake2 module was compared to the C reference
%%% implementation by writing a QuickCheck property.
%%% @end
%%%=============================================================================
-module(aeso_blake2_tests).
-ifdef(TEST).
-include_lib("eunit/include/eunit.hrl").
blake2b_test_() ->
{"Tests for BLAKE2b hash implementation",
[ fun() -> blake2b(Data) end || Data <- test_data_blake2b() ]}.
blake2b({Msg0, Key0, ExpectedOut0}) ->
Msg = mk_binary(Msg0),
Key = mk_binary(Key0),
ExpectedOut = mk_binary(ExpectedOut0),
Result = aeso_blake2:blake2b(byte_size(ExpectedOut), Msg, Key),
?assertEqual(Result, {ok, ExpectedOut}).
mk_binary(Bin) when is_binary(Bin) -> Bin;
mk_binary(HexStr) when is_list(HexStr) ->
<< << (erlang:list_to_integer([H], 16)):4 >> || H <- HexStr >>.
test_data_blake2b() ->
[ %% {Message, Key, ExpectedHash}
%% From Wikipedia
%% https://en.wikipedia.org/wiki/BLAKE_(hash_function)#BLAKE2
{<<>>,
<<>>,
"786A02F742015903C6C6FD852552D272912F4740E15847618A86E217F71F5419D25E1031AFEE585313896444934EB04B903A685B1448B755D56F701AFE9BE2CE"}
, {<<"The quick brown fox jumps over the lazy dog">>,
<<>>,
"A8ADD4BDDDFD93E4877D2746E62817B116364A1FA7BC148D95090BC7333B3673F82401CF7AA2E4CB1ECD90296E3F14CB5413F8ED77BE73045B13914CDCD6A918"}
%% From reference implementation testvectors
%% https://github.com/BLAKE2/BLAKE2/tree/master/testvectors
%%
%% Non-keyed
, {"00",
"",
"2FA3F686DF876995167E7C2E5D74C4C7B6E48F8068FE0E44208344D480F7904C36963E44115FE3EB2A3AC8694C28BCB4F5A0F3276F2E79487D8219057A506E4B"}
, {"0001",
"",
"1C08798DC641ABA9DEE435E22519A4729A09B2BFE0FF00EF2DCD8ED6F8A07D15EAF4AEE52BBF18AB5608A6190F70B90486C8A7D4873710B1115D3DEBBB4327B5"}
, {"00010203040506070809",
"",
"29102511D749DB3CC9B4E335FA1F5E8FACA8421D558F6A3F3321D50D044A248BA595CFC3EFD3D2ADC97334DA732413F5CBF4751C362BA1D53862AC1E8DABEEE8"}
%% Keyed
, {"",
"000102030405060708090a0b0c0d0e0f101112131415161718191a1b1c1d1e1f202122232425262728292a2b2c2d2e2f303132333435363738393a3b3c3d3e3f",
"10ebb67700b1868efb4417987acf4690ae9d972fb7a590c2f02871799aaa4786b5e996e8f0f4eb981fc214b005f42d2ff4233499391653df7aefcbc13fc51568"}
, {"00",
"000102030405060708090a0b0c0d0e0f101112131415161718191a1b1c1d1e1f202122232425262728292a2b2c2d2e2f303132333435363738393a3b3c3d3e3f",
"961f6dd1e4dd30f63901690c512e78e4b45e4742ed197c3c5e45c549fd25f2e4187b0bc9fe30492b16b0d0bc4ef9b0f34c7003fac09a5ef1532e69430234cebd"}
, {"0001",
"000102030405060708090a0b0c0d0e0f101112131415161718191a1b1c1d1e1f202122232425262728292a2b2c2d2e2f303132333435363738393a3b3c3d3e3f",
"da2cfbe2d8409a0f38026113884f84b50156371ae304c4430173d08a99d9fb1b983164a3770706d537f49e0c916d9f32b95cc37a95b99d857436f0232c88a965"}
, {"00010203040506070809",
"000102030405060708090a0b0c0d0e0f101112131415161718191a1b1c1d1e1f202122232425262728292a2b2c2d2e2f303132333435363738393a3b3c3d3e3f",
"4fe181f54ad63a2983feaaf77d1e7235c2beb17fa328b6d9505bda327df19fc37f02c4b6f0368ce23147313a8e5738b5fa2a95b29de1c7f8264eb77b69f585cd"}
].
-endif.
-146
View File
@@ -1,146 +0,0 @@
%%% -*- erlang-indent-level:4; indent-tabs-mode: nil -*-
%%%-------------------------------------------------------------------
%%% @copyright (C) 2019, Aeternity Anstalt
%%% @doc Test Sophia language compiler.
%%%
%%% @end
%%%-------------------------------------------------------------------
-module(aeso_calldata_tests).
-compile([export_all, nowarn_export_all]).
-include_lib("eunit/include/eunit.hrl").
%% Very simply test compile the given contracts. Only basic checks
%% are made on the output, just that it is a binary which indicates
%% that the compilation worked.
calldata_test_() ->
[ {"Testing " ++ ContractName ++ " contract calling " ++ Fun,
fun() ->
ContractString = aeso_test_utils:read_contract(ContractName),
AevmExprs =
case not lists:member(ContractName, not_yet_compilable(aevm)) of
true -> ast_exprs(ContractString, Fun, Args, [{backend, aevm}]);
false -> undefined
end,
FateExprs =
case not lists:member(ContractName, not_yet_compilable(fate)) of
true -> ast_exprs(ContractString, Fun, Args, [{backend, fate}]);
false -> undefined
end,
ParsedExprs = parse_args(Fun, Args),
[ ?assertEqual(ParsedExprs, AevmExprs) || AevmExprs /= undefined ],
[ ?assertEqual(ParsedExprs, FateExprs) || FateExprs /= undefined ],
ok
end} || {ContractName, Fun, Args} <- compilable_contracts()].
calldata_aci_test_() ->
[ {"Testing " ++ ContractName ++ " contract calling " ++ Fun,
fun() ->
ContractString = aeso_test_utils:read_contract(ContractName),
{ok, ContractACIBin} = aeso_aci:contract_interface(string, ContractString),
ContractACI = binary_to_list(ContractACIBin),
io:format("ACI:\n~s\n", [ContractACIBin]),
AevmExprs =
case not lists:member(ContractName, not_yet_compilable(aevm)) of
true -> ast_exprs(ContractACI, Fun, Args, [{backend, aevm}]);
false -> undefined
end,
FateExprs =
case not lists:member(ContractName, not_yet_compilable(fate)) of
true -> ast_exprs(ContractACI, Fun, Args, [{backend, fate}]);
false -> undefined
end,
ParsedExprs = parse_args(Fun, Args),
[ ?assertEqual(ParsedExprs, AevmExprs) || AevmExprs /= undefined ],
[ ?assertEqual(ParsedExprs, FateExprs) || FateExprs /= undefined ],
ok
end} || {ContractName, Fun, Args} <- compilable_contracts()].
parse_args(Fun, Args) ->
[{contract, _, _, [{letfun, _, _, _, _, {app, _, _, AST}}]}] =
aeso_parser:string("contract Temp = function foo() = " ++ Fun ++ "(" ++ string:join(Args, ", ") ++ ")"),
strip_ann(AST).
strip_ann(T) when is_tuple(T) ->
strip_ann1(setelement(2, T, []));
strip_ann(X) -> strip_ann1(X).
strip_ann1({map, [], KVs}) ->
{map, [], [{strip_ann(K), strip_ann(V)} || {K, V} <- KVs]};
strip_ann1(T) when is_tuple(T) ->
list_to_tuple(strip_ann1(tuple_to_list(T)));
strip_ann1(L) when is_list(L) ->
lists:map(fun strip_ann/1, L);
strip_ann1(X) -> X.
ast_exprs(ContractString, Fun, Args, Opts) ->
{ok, Data} = (catch aeso_compiler:create_calldata(ContractString, Fun, Args, Opts)),
{ok, _Types, Exprs} = (catch aeso_compiler:decode_calldata(ContractString, Fun, Data, Opts)),
?assert(is_list(Exprs)),
strip_ann(Exprs).
check_errors(Expect, ErrorString) ->
%% This removes the final single \n as well.
Actual = binary:split(<<ErrorString/binary,$\n>>, <<"\n\n">>, [global,trim]),
case {Expect -- Actual, Actual -- Expect} of
{[], Extra} -> ?assertMatch({unexpected, []}, {unexpected, Extra});
{Missing, []} -> ?assertMatch({missing, []}, {missing, Missing});
{Missing, Extra} -> ?assertEqual(Missing, Extra)
end.
%% compilable_contracts() -> [ContractName].
%% The currently compilable contracts.
compilable_contracts() ->
[
{"identity", "init", []},
{"maps", "init", []},
{"funargs", "menot", ["false"]},
{"funargs", "append", ["[\"false\", \" is\", \" not\", \" true\"]"]},
{"funargs", "bitsum", ["Bits.all"]},
{"funargs", "bitsum", ["Bits.clear(Bits.clear(Bits.all, 4), 2)"]}, %% Order matters for test
{"funargs", "bitsum", ["Bits.set(Bits.set(Bits.none, 4), 2)"]},
{"funargs", "read", ["{label = \"question 1\", result = 4}"]},
{"funargs", "sjutton", ["#0011012003100011012003100011012003"]},
{"funargs", "sextiosju", ["#01020304050607080910111213141516171819202122232425262728293031323334353637383940"
"414243444546474849505152535455565758596061626364656667"]},
{"funargs", "trettiotva", ["#0102030405060708091011121314151617181920212223242526272829303132"]},
{"funargs", "find_oracle", ["ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5"]},
{"funargs", "find_query", ["oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY"]},
{"funargs", "traffic_light", ["Green"]},
{"funargs", "traffic_light", ["Pantone(12)"]},
{"funargs", "tuples", ["()"]},
%% TODO {"funargs", "due", ["FixedTTL(1020)"]},
{"funargs", "singleton_rec", ["{x = 1000}"]},
{"variant_types", "init", []},
{"basic_auth", "init", []},
{"address_literals", "init", []},
{"bytes_equality", "init", []},
{"address_chain", "init", []},
{"counter", "init",
["-3334353637383940202122232425262728293031323334353637"]},
{"dutch_auction", "init",
["ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt", "200000", "1000"]},
{"maps", "fromlist_i",
["[(1, {x = 1, y = 2}), (2, {x = 3, y = 4}), (3, {x = 4, y = 4})]"]},
{"maps", "get_i", ["1", "{}"]},
{"maps", "get_i", ["1", "{[1] = {x = 3, y = 4}}"]},
{"maps", "get_i", ["1", "{[1] = {x = 3, y = 4}, [2] = {x = 4, y = 5}}"]},
{"maps", "get_i", ["1", "{[1] = {x = 3, y = 4}, [2] = {x = 4, y = 5}, [3] = {x = 5, y = 6}}"]},
{"strings", "str_concat", ["\"test\"","\"me\""]},
{"complex_types", "filter_some", ["[Some(11), Some(12), None]"]},
{"complex_types", "init", ["ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ"]},
{"__call" "init", []},
{"bitcoin_auth", "authorize", ["1", "#0102030405060708090a0b0c0d0e0f101718192021222324252627282930313233343536373839401a1b1c1d1e1f20212223242526272829303132333435363738"]},
{"bitcoin_auth", "to_sign", ["#0102030405060708090a0b0c0d0e0f1017181920212223242526272829303132", "2"]},
{"stub", "foo", ["42"]},
{"stub", "foo", ["-42"]},
{"payable", "foo", ["42"]}
].
not_yet_compilable(fate) ->
[];
not_yet_compilable(aevm) ->
[].
+74 -783
View File
@@ -8,120 +8,46 @@
-module(aeso_compiler_tests).
-compile([export_all, nowarn_export_all]).
-include_lib("eunit/include/eunit.hrl").
run_test(Test) ->
TestFun = list_to_atom(lists:concat([Test, "_test_"])),
[ begin
io:format("~s\n", [Label]),
Fun()
end || {Label, Fun} <- ?MODULE:TestFun() ],
ok.
%% simple_compile_test_() -> ok.
%% Very simply test compile the given contracts. Only basic checks
%% are made on the output, just that it is a binary which indicates
%% that the compilation worked.
simple_compile_test_() ->
[ {"Testing the " ++ ContractName ++ " contract with the " ++ atom_to_list(Backend) ++ " backend",
fun() ->
case compile(Backend, ContractName) of
#{byte_code := ByteCode,
contract_source := _,
type_info := _} when Backend == aevm ->
?assertMatch(Code when is_binary(Code), ByteCode);
#{fate_code := Code} when Backend == fate ->
Code1 = aeb_fate_code:deserialize(aeb_fate_code:serialize(Code)),
?assertMatch({X, X}, {Code1, Code});
ErrBin ->
io:format("\n~s", [ErrBin]),
error(ErrBin)
end
end} || ContractName <- compilable_contracts(), Backend <- [aevm, fate],
not lists:member(ContractName, not_compilable_on(Backend))] ++
[ {"Test file not found error",
fun() ->
{error, Errors} = aeso_compiler:file("does_not_exist.aes"),
ExpErr = <<"File error:\ndoes_not_exist.aes: no such file or directory">>,
check_errors([ExpErr], Errors)
end} ] ++
[ {"Testing error messages of " ++ ContractName,
fun() ->
Errors = compile(aevm, ContractName),
check_errors(ExpectedErrors, Errors)
end} ||
{ContractName, ExpectedErrors} <- failing_contracts() ] ++
[ {"Testing " ++ atom_to_list(Backend) ++ " code generation error messages of " ++ ContractName,
fun() ->
Errors = compile(Backend, ContractName),
Expect =
case is_binary(ExpectedError) of
true -> [ExpectedError];
false ->
case proplists:get_value(Backend, ExpectedError, no_error) of
no_error -> no_error;
Err -> [Err]
end
end,
check_errors(Expect, Errors)
end} ||
{ContractName, ExpectedError} <- failing_code_gen_contracts(),
Backend <- [aevm, fate] ] ++
[ {"Testing include with explicit files",
fun() ->
FileSystem = maps:from_list(
[ begin
{ok, Bin} = file:read_file(filename:join([aeso_test_utils:contract_path(), File])),
{File, Bin}
end || File <- ["included.aes", "../contracts/included2.aes"] ]),
#{byte_code := Code1} = compile(aevm, "include", [{include, {explicit_files, FileSystem}}]),
#{byte_code := Code2} = compile(aevm, "include"),
?assertMatch(true, Code1 == Code2)
end} ] ++
[ {"Testing deadcode elimination for " ++ atom_to_list(Backend),
fun() ->
#{ byte_code := NoDeadCode } = compile(Backend, "nodeadcode"),
#{ byte_code := DeadCode } = compile(Backend, "deadcode"),
SizeNoDeadCode = byte_size(NoDeadCode),
SizeDeadCode = byte_size(DeadCode),
Delta = if Backend == aevm -> 40;
Backend == fate -> 20 end,
?assertMatch({_, _, true}, {SizeDeadCode, SizeNoDeadCode, SizeDeadCode + Delta < SizeNoDeadCode}),
ok
end} || Backend <- [aevm, fate] ] ++
[].
check_errors(no_error, Actual) -> ?assertMatch(#{}, Actual);
check_errors(Expect, #{}) ->
?assertEqual({error, Expect}, ok);
check_errors(Expect0, Actual0) ->
Expect = lists:sort(Expect0),
Actual = [ list_to_binary(string:trim(aeso_errors:pp(Err))) || Err <- Actual0 ],
simple_compile_test_() ->
{setup,
fun () -> ok end, %Setup
fun (_) -> ok end, %Cleanup
[ {"Testing the " ++ ContractName ++ " contract",
fun() ->
#{byte_code := ByteCode,
contract_source := _,
type_info := _} = compile(ContractName),
?assertMatch(Code when is_binary(Code), ByteCode)
end} || ContractName <- compilable_contracts() ] ++
[ {"Testing error messages of " ++ ContractName,
fun() ->
<<"Type errors\n",ErrorString/binary>> = compile(ContractName),
check_errors(lists:sort(ExpectedErrors), ErrorString)
end} ||
{ContractName, ExpectedErrors} <- failing_contracts() ]
}.
check_errors(Expect, ErrorString) ->
%% This removes the final single \n as well.
Actual = binary:split(<<ErrorString/binary,$\n>>, <<"\n\n">>, [global,trim]),
case {Expect -- Actual, Actual -- Expect} of
{[], Extra} -> ?assertMatch({unexpected, []}, {unexpected, Extra});
{Missing, []} -> ?assertMatch({missing, []}, {missing, Missing});
{Missing, Extra} -> ?assertEqual(Missing, Extra)
end.
compile(Backend, Name) ->
compile(Backend, Name,
[{include, {file_system, [aeso_test_utils:contract_path()]}}]).
compile(Backend, Name, Options) ->
compile(Name) ->
String = aeso_test_utils:read_contract(Name),
Options1 =
case lists:member(Name, debug_mode_contracts()) of
true -> [debug_mode];
false -> []
end ++
[ {src_file, Name ++ ".aes"}, {backend, Backend}
, {include, {file_system, [aeso_test_utils:contract_path()]}}
] ++ Options,
case aeso_compiler:from_string(String, Options1) of
{ok, Map} -> Map;
{error, ErrorString} when is_binary(ErrorString) -> ErrorString;
{error, Errors} -> Errors
case aeso_compiler:from_string(String, []) of
{ok,Map} -> Map;
{error,ErrorString} -> ErrorString
end.
%% compilable_contracts() -> [ContractName].
@@ -133,7 +59,6 @@ compilable_contracts() ->
"dutch_auction",
"environment",
"factorial",
"functions",
"fundme",
"identity",
"maps",
@@ -145,735 +70,101 @@ compilable_contracts() ->
"stack",
"test",
"builtin_bug",
"builtin_map_get_bug",
"lc_record_bug",
"nodeadcode",
"deadcode",
"variant_types",
"state_handling",
"events",
"include",
"basic_auth",
"bitcoin_auth",
"address_literals",
"bytes_equality",
"address_chain",
"namespace_bug",
"bytes_to_x",
"bytes_concat",
"aens",
"tuple_match",
"cyclic_include",
"stdlib_include",
"double_include",
"manual_stdlib_include",
"list_comp",
"payable",
"unapplied_builtins",
"underscore_number_literals",
"qualified_constructor",
"let_patterns",
"lhs_matching",
"hermetization_turnoff"
"builtin_map_get_bug"
].
not_compilable_on(fate) -> [];
not_compilable_on(aevm) ->
["stdlib_include",
"manual_stdlib_include",
"hermetization_turnoff"
].
debug_mode_contracts() ->
["hermetization_turnoff"].
%% Contracts that should produce type errors
-define(Pos(Kind, File, Line, Col), (list_to_binary(Kind))/binary, " error in '",
(list_to_binary(File))/binary, ".aes' at line " ??Line ", col " ??Col ":\n").
-define(Pos(Line, Col), ?Pos(__Kind, __File, Line, Col)).
-define(ERROR(Kind, Name, Errs),
(fun() ->
__Kind = Kind,
__File = ??Name,
{__File, Errs}
end)()).
-define(TYPE_ERROR(Name, Errs), ?ERROR("Type", Name, Errs)).
-define(PARSE_ERROR(Name, Errs), ?ERROR("Parse", Name, Errs)).
failing_contracts() ->
{ok, V} = aeso_compiler:numeric_version(),
Version = list_to_binary(string:join([integer_to_list(N) || N <- V], ".")),
%% Parse errors
[ ?PARSE_ERROR(field_parse_error,
[<<?Pos(5, 26)
"Cannot use nested fields or keys in record construction: p.x">>])
, ?PARSE_ERROR(vsemi, [<<?Pos(3, 3) "Unexpected indentation. Did you forget a '}'?">>])
, ?PARSE_ERROR(vclose, [<<?Pos(4, 3) "Unexpected indentation. Did you forget a ']'?">>])
, ?PARSE_ERROR(indent_fail, [<<?Pos(3, 2) "Unexpected token 'entrypoint'.">>])
%% Type errors
, ?TYPE_ERROR(name_clash,
[<<?Pos(14, 3)
"Duplicate definitions of abort at\n"
[ {"name_clash",
[<<"Duplicate definitions of abort at\n"
" - (builtin location)\n"
" - line 14, column 3">>,
<<?Pos(15, 3)
"Duplicate definitions of require at\n"
" - (builtin location)\n"
" - line 15, column 3">>,
<<?Pos(11, 3)
"Duplicate definitions of double_def at\n"
<<"Duplicate definitions of double_def at\n"
" - line 10, column 3\n"
" - line 11, column 3">>,
<<?Pos(5, 3)
"Duplicate definitions of double_proto at\n"
<<"Duplicate definitions of double_proto at\n"
" - line 4, column 3\n"
" - line 5, column 3">>,
<<?Pos(8, 3)
"Duplicate definitions of proto_and_def at\n"
<<"Duplicate definitions of proto_and_def at\n"
" - line 7, column 3\n"
" - line 8, column 3">>,
<<?Pos(16, 3)
"Duplicate definitions of put at\n"
<<"Duplicate definitions of put at\n"
" - (builtin location)\n"
" - line 16, column 3">>,
<<?Pos(17, 3)
"Duplicate definitions of state at\n"
" - line 15, column 3">>,
<<"Duplicate definitions of state at\n"
" - (builtin location)\n"
" - line 17, column 3">>])
, ?TYPE_ERROR(type_errors,
[<<?Pos(17, 23)
"Unbound variable zz at line 17, column 23">>,
<<?Pos(26, 9)
"Cannot unify int\n"
" - line 16, column 3">>]}
, {"type_errors",
[<<"Unbound variable zz at line 17, column 21">>,
<<"Cannot unify int\n"
" and list(int)\n"
"when checking the application at line 26, column 9 of\n"
" (::) : (int, list(int)) => list(int)\n"
"to arguments\n"
" x : int\n"
" x : int">>,
<<?Pos(9, 48)
"Cannot unify string\n"
<<"Cannot unify string\n"
" and int\n"
"when checking the assignment of the field\n"
" x : map(string, string) (at line 9, column 48)\n"
" x : map(string, string) (at line 9, column 46)\n"
"to the old value __x and the new value\n"
" __x {[\"foo\"] @ x = x + 1} : map(string, int)">>,
<<?Pos(34, 47)
"Cannot unify int\n"
<<"Cannot unify int\n"
" and string\n"
"when checking the type of the expression at line 34, column 47\n"
"when checking the type of the expression at line 34, column 45\n"
" 1 : int\n"
"against the expected type\n"
" string">>,
<<?Pos(34, 52)
"Cannot unify string\n"
<<"Cannot unify string\n"
" and int\n"
"when checking the type of the expression at line 34, column 52\n"
"when checking the type of the expression at line 34, column 50\n"
" \"bla\" : string\n"
"against the expected type\n"
" int">>,
<<?Pos(32, 18)
"Cannot unify string\n"
<<"Cannot unify string\n"
" and int\n"
"when checking the type of the expression at line 32, column 18\n"
" \"x\" : string\n"
"against the expected type\n"
" int">>,
<<?Pos(11, 58)
"Cannot unify string\n"
<<"Cannot unify string\n"
" and int\n"
"when checking the type of the expression at line 11, column 58\n"
"when checking the type of the expression at line 11, column 56\n"
" \"foo\" : string\n"
"against the expected type\n"
" int">>,
<<?Pos(38, 13)
"Cannot unify int\n"
<<"Cannot unify int\n"
" and string\n"
"when comparing the types of the if-branches\n"
" - w : int (at line 38, column 13)\n"
" - z : string (at line 39, column 10)">>,
<<?Pos(22, 40)
"Not a record type: string\n"
"arising from the projection of the field y (at line 22, column 40)">>,
<<?Pos(21, 44)
"Not a record type: string\n"
"arising from an assignment of the field y (at line 21, column 44)">>,
<<?Pos(20, 40)
"Not a record type: string\n"
"arising from an assignment of the field y (at line 20, column 40)">>,
<<?Pos(19, 37)
"Not a record type: string\n"
"arising from an assignment of the field y (at line 19, column 37)">>,
<<?Pos(13, 27)
"Ambiguous record type with field y (at line 13, column 27) could be one of\n"
<<"Not a record type: string\n"
"arising from the projection of the field y (at line 22, column 38)">>,
<<"Not a record type: string\n"
"arising from an assignment of the field y (at line 21, column 42)">>,
<<"Not a record type: string\n"
"arising from an assignment of the field y (at line 20, column 38)">>,
<<"Not a record type: string\n"
"arising from an assignment of the field y (at line 19, column 35)">>,
<<"Ambiguous record type with field y (at line 13, column 25) could be one of\n"
" - r (at line 4, column 10)\n"
" - r' (at line 5, column 10)">>,
<<?Pos(26, 7)
"Repeated name x in pattern\n"
<<"Record type r2 does not have field y (at line 15, column 22)">>,
<<"The field z is missing when constructing an element of type r2 (at line 15, column 24)">>,
<<"Repeated name x in pattern\n"
" x :: x (at line 26, column 7)">>,
<<?Pos(44, 14)
"Repeated names x, y in pattern\n"
" (x : int, y, x : string, y : bool) (at line 44, column 14)">>,
<<?Pos(44, 39)
"Cannot unify int\n"
" and string\n"
"when checking the type of the expression at line 44, column 39\n"
" x : int\n"
"against the expected type\n"
" string">>,
<<?Pos(44, 72)
"Cannot unify int\n"
" and string\n"
"when checking the type of the expression at line 44, column 72\n"
" x : int\n"
"against the expected type\n"
" string">>,
<<?Pos(14, 24)
"No record type with fields y, z (at line 14, column 24)">>,
<<?Pos(15, 26)
"The field z is missing when constructing an element of type r2 (at line 15, column 26)">>,
<<?Pos(15, 24)
"Record type r2 does not have field y (at line 15, column 24)">>,
<<?Pos(47, 5)
"Let binding at line 47, column 5 must be followed by an expression">>,
<<?Pos(50, 5)
"Let binding at line 50, column 5 must be followed by an expression">>,
<<?Pos(54, 5)
"Let binding at line 54, column 5 must be followed by an expression">>,
<<?Pos(58, 5)
"Let binding at line 58, column 5 must be followed by an expression">>,
<<?Pos(63, 5)
"Cannot unify int\n"
" and bool\n"
"when checking the type of the expression at line 63, column 5\n"
" id(n) : int\n"
"against the expected type\n"
" bool">>])
, ?TYPE_ERROR(init_type_error,
[<<?Pos(7, 3)
"Cannot unify string\n"
<<"No record type with fields y, z (at line 14, column 22)">>]}
, {"init_type_error",
[<<"Cannot unify string\n"
" and map(int, int)\n"
"when checking that 'init' returns a value of type 'state' at line 7, column 3">>])
, ?TYPE_ERROR(missing_state_type,
[<<?Pos(5, 3)
"Cannot unify string\n"
" and unit\n"
"when checking that 'init' returns a value of type 'state' at line 5, column 3">>])
, ?TYPE_ERROR(missing_fields_in_record_expression,
[<<?Pos(7, 42)
"The field x is missing when constructing an element of type r('a) (at line 7, column 42)">>,
<<?Pos(8, 42)
"The field y is missing when constructing an element of type r(int) (at line 8, column 42)">>,
<<?Pos(6, 42)
"The fields y, z are missing when constructing an element of type r('a) (at line 6, column 42)">>])
, ?TYPE_ERROR(namespace_clash,
[<<?Pos(4, 10)
"The contract Call (at line 4, column 10) has the same name as a namespace at (builtin location)">>])
, ?TYPE_ERROR(bad_events,
[<<?Pos(9, 25)
"The indexed type string (at line 9, column 25) is not a word type">>,
<<?Pos(10, 25)
"The indexed type alias_string (at line 10, column 25) equals string which is not a word type">>])
, ?TYPE_ERROR(bad_events2,
[<<?Pos(9, 7)
"The event constructor BadEvent1 (at line 9, column 7) has too many non-indexed values (max 1)">>,
<<?Pos(10, 7)
"The event constructor BadEvent2 (at line 10, column 7) has too many indexed values (max 3)">>])
, ?TYPE_ERROR(type_clash,
[<<?Pos(12, 42)
"Cannot unify int\n"
" and string\n"
"when checking the record projection at line 12, column 42\n"
" r.foo : (gas : int, value : int) => Remote.themap\n"
"against the expected type\n"
" (gas : int, value : int) => map(string, int)">>])
, ?TYPE_ERROR(not_toplevel_include,
[<<?Pos(2, 11)
"Include of 'included.aes' at line 2, column 11\nnot allowed, include only allowed at top level.">>])
, ?TYPE_ERROR(not_toplevel_namespace,
[<<?Pos(2, 13)
"Nested namespaces are not allowed\nNamespace 'Foo' at line 2, column 13 not defined at top level.">>])
, ?TYPE_ERROR(not_toplevel_contract,
[<<?Pos(2, 12)
"Nested contracts are not allowed\nContract 'Con' at line 2, column 12 not defined at top level.">>])
, ?TYPE_ERROR(bad_address_literals,
[<<?Pos(11, 5)
"Cannot unify address\n"
" and oracle(int, bool)\n"
"when checking the type of the expression at line 11, column 5\n"
" ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt : address\n"
"against the expected type\n"
" oracle(int, bool)">>,
<<?Pos(9, 5)
"Cannot unify address\n"
" and Remote\n"
"when checking the type of the expression at line 9, column 5\n"
" ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt : address\n"
"against the expected type\n"
" Remote">>,
<<?Pos(7, 5)
"Cannot unify address\n"
" and bytes(32)\n"
"when checking the type of the expression at line 7, column 5\n"
" ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt : address\n"
"against the expected type\n"
" bytes(32)">>,
<<?Pos(14, 5)
"Cannot unify oracle('a, 'b)\n"
" and oracle_query(int, bool)\n"
"when checking the type of the expression at line 14, column 5\n"
" ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5 :\n"
" oracle('a, 'b)\n"
"against the expected type\n"
" oracle_query(int, bool)">>,
<<?Pos(16, 5)
"Cannot unify oracle('c, 'd)\n"
" and bytes(32)\n"
"when checking the type of the expression at line 16, column 5\n"
" ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5 :\n"
" oracle('c, 'd)\n"
"against the expected type\n"
" bytes(32)">>,
<<?Pos(18, 5)
"Cannot unify oracle('e, 'f)\n"
" and Remote\n"
"when checking the type of the expression at line 18, column 5\n"
" ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5 :\n"
" oracle('e, 'f)\n"
"against the expected type\n"
" Remote">>,
<<?Pos(21, 5)
"Cannot unify oracle_query('g, 'h)\n"
" and oracle(int, bool)\n"
"when checking the type of the expression at line 21, column 5\n"
" oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY :\n"
" oracle_query('g, 'h)\n"
"against the expected type\n"
" oracle(int, bool)">>,
<<?Pos(23, 5)
"Cannot unify oracle_query('i, 'j)\n"
" and bytes(32)\n"
"when checking the type of the expression at line 23, column 5\n"
" oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY :\n"
" oracle_query('i, 'j)\n"
"against the expected type\n"
" bytes(32)">>,
<<?Pos(25, 5)
"Cannot unify oracle_query('k, 'l)\n"
" and Remote\n"
"when checking the type of the expression at line 25, column 5\n"
" oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY :\n"
" oracle_query('k, 'l)\n"
"against the expected type\n"
" Remote">>,
<<?Pos(28, 5)
"The type address is not a contract type\n"
"when checking that the contract literal\n"
" ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ\n"
"has the type\n"
" address">>,
<<?Pos(30, 5)
"The type oracle(int, bool) is not a contract type\n"
"when checking that the contract literal\n"
" ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ\n"
"has the type\n"
" oracle(int, bool)">>,
<<?Pos(32, 5)
"The type bytes(32) is not a contract type\n"
"when checking that the contract literal\n"
" ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ\n"
"has the type\n"
" bytes(32)">>,
<<?Pos(34, 5),
"The type address is not a contract type\n"
"when checking that the call to\n"
" Address.to_contract\n"
"has the type\n"
" address">>])
, ?TYPE_ERROR(stateful,
[<<?Pos(13, 35)
"Cannot reference stateful function Chain.spend (at line 13, column 35)\nin the definition of non-stateful function fail1.">>,
<<?Pos(14, 35)
"Cannot reference stateful function local_spend (at line 14, column 35)\nin the definition of non-stateful function fail2.">>,
<<?Pos(16, 15)
"Cannot reference stateful function Chain.spend (at line 16, column 15)\nin the definition of non-stateful function fail3.">>,
<<?Pos(20, 31)
"Cannot reference stateful function Chain.spend (at line 20, column 31)\nin the definition of non-stateful function fail4.">>,
<<?Pos(35, 47)
"Cannot reference stateful function Chain.spend (at line 35, column 47)\nin the definition of non-stateful function fail5.">>,
<<?Pos(48, 57)
"Cannot pass non-zero value argument 1000 (at line 48, column 57)\nin the definition of non-stateful function fail6.">>,
<<?Pos(49, 56)
"Cannot pass non-zero value argument 1000 (at line 49, column 56)\nin the definition of non-stateful function fail7.">>,
<<?Pos(52, 17)
"Cannot pass non-zero value argument 1000 (at line 52, column 17)\nin the definition of non-stateful function fail8.">>])
, ?TYPE_ERROR(bad_init_state_access,
[<<?Pos(11, 5)
"The init function should return the initial state as its result and cannot write the state,\n"
"but it calls\n"
" - set_state (at line 11, column 5), which calls\n"
" - roundabout (at line 8, column 38), which calls\n"
" - put (at line 7, column 39)">>,
<<?Pos(12, 5)
"The init function should return the initial state as its result and cannot read the state,\n"
"but it calls\n"
" - new_state (at line 12, column 5), which calls\n"
" - state (at line 5, column 29)">>,
<<?Pos(13, 13)
"The init function should return the initial state as its result and cannot read the state,\n"
"but it calls\n"
" - state (at line 13, column 13)">>])
, ?TYPE_ERROR(modifier_checks,
[<<?Pos(11, 3)
"The function all_the_things (at line 11, column 3) cannot be both public and private.">>,
<<?Pos(3, 3)
"Namespaces cannot contain entrypoints (at line 3, column 3). Use 'function' instead.">>,
<<?Pos(5, 10)
"The contract Remote (at line 5, column 10) has no entrypoints. Since Sophia version 3.2, public\ncontract functions must be declared with the 'entrypoint' keyword instead of\n'function'.">>,
<<?Pos(12, 3)
"The entrypoint wha (at line 12, column 3) cannot be private. Use 'function' instead.">>,
<<?Pos(6, 3)
"Use 'entrypoint' for declaration of foo (at line 6, column 3):\n entrypoint foo : () => unit">>,
<<?Pos(10, 3)
"Use 'entrypoint' instead of 'function' for public function foo (at line 10, column 3):\n entrypoint foo() = ()">>,
<<?Pos(6, 3)
"Use 'entrypoint' instead of 'function' for public function foo (at line 6, column 3):\n entrypoint foo : () => unit">>])
, ?TYPE_ERROR(list_comp_not_a_list,
[<<?Pos(2, 36)
"Cannot unify int\n and list('a)\nwhen checking rvalue of list comprehension binding at line 2, column 36\n 1 : int\nagainst type \n list('a)">>
])
, ?TYPE_ERROR(list_comp_if_not_bool,
[<<?Pos(2, 44)
"Cannot unify int\n and bool\nwhen checking the type of the expression at line 2, column 44\n 3 : int\nagainst the expected type\n bool">>
])
, ?TYPE_ERROR(list_comp_bad_shadow,
[<<?Pos(2, 53)
"Cannot unify int\n and string\nwhen checking the type of the pattern at line 2, column 53\n x : int\nagainst the expected type\n string">>
])
, ?TYPE_ERROR(map_as_map_key,
[<<?Pos(5, 25)
"Invalid key type\n"
" map(int, int)\n"
"Map keys cannot contain other maps.">>,
<<?Pos(6, 25)
"Invalid key type\n"
" lm\n"
"Map keys cannot contain other maps.">>])
, ?TYPE_ERROR(calling_init_function,
[<<?Pos(7, 28)
"The 'init' function is called exclusively by the create contract transaction\n"
"and cannot be called from the contract code.">>])
, ?TYPE_ERROR(bad_top_level_decl,
[<<?Pos(1, 1) "The definition of 'square' must appear inside a contract or namespace.">>])
, ?TYPE_ERROR(missing_event_type,
[<<?Pos(3, 5)
"Unbound variable Chain.event at line 3, column 5\n"
"Did you forget to define the event type?">>])
, ?TYPE_ERROR(bad_bytes_concat,
[<<?Pos(12, 40)
"Failed to resolve byte array lengths in call to Bytes.concat with arguments of type\n"
" - 'g (at line 12, column 20)\n"
" - 'h (at line 12, column 23)\n"
"and result type\n"
" - bytes(10) (at line 12, column 28)">>,
<<?Pos(13, 28)
"Failed to resolve byte array lengths in call to Bytes.concat with arguments of type\n"
" - 'd (at line 13, column 20)\n"
" - 'e (at line 13, column 23)\n"
"and result type\n"
" - 'f (at line 13, column 14)">>,
<<?Pos(15, 5)
"Cannot unify bytes(26)\n"
" and bytes(25)\n"
"at line 15, column 5">>,
<<?Pos(17, 5)
"Failed to resolve byte array lengths in call to Bytes.concat with arguments of type\n"
" - bytes(6) (at line 16, column 24)\n"
" - 'b (at line 16, column 34)\n"
"and result type\n"
" - 'c (at line 16, column 39)">>,
<<?Pos(19, 25)
"Cannot resolve length of byte array.">>])
, ?TYPE_ERROR(bad_bytes_split,
[<<?Pos(13, 5)
"Failed to resolve byte array lengths in call to Bytes.split with argument of type\n"
" - 'f (at line 12, column 20)\n"
"and result types\n"
" - 'e (at line 12, column 25)\n"
" - bytes(20) (at line 12, column 29)">>,
<<?Pos(16, 5)
"Failed to resolve byte array lengths in call to Bytes.split with argument of type\n"
" - bytes(15) (at line 15, column 24)\n"
"and result types\n"
" - 'c (at line 16, column 5)\n"
" - 'd (at line 16, column 5)">>,
<<?Pos(19, 5)
"Failed to resolve byte array lengths in call to Bytes.split with argument of type\n"
" - 'b (at line 18, column 20)\n"
"and result types\n"
" - bytes(20) (at line 18, column 25)\n"
" - 'a (at line 18, column 37)">>])
, ?TYPE_ERROR(wrong_compiler_version,
[<<?Pos(1, 1)
"Cannot compile with this version of the compiler,\n"
"because it does not satisfy the constraint ", Version/binary, " < 1.0">>,
<<?Pos(2, 1)
"Cannot compile with this version of the compiler,\n"
"because it does not satisfy the constraint ", Version/binary, " == 9.9.9">>])
, ?TYPE_ERROR(multiple_contracts,
[<<?Pos(2, 3)
"Only the main contract can contain defined functions or entrypoints.\n"
"Fix: replace the definition of 'foo' by a type signature.">>])
, ?TYPE_ERROR(contract_as_namespace,
[<<?Pos(5, 28)
"Invalid call to contract entrypoint 'Foo.foo'.\n"
"It must be called as 'c.foo' for some c : Foo.">>])
, ?TYPE_ERROR(toplevel_let,
[<<?Pos(2, 7)
"Toplevel \"let\" definitions are not supported\n"
"Value this_is_illegal at line 2, column 7 could be replaced by 0-argument function">>])
, ?TYPE_ERROR(empty_typedecl,
[<<?Pos(2, 8)
"Empty type declarations are not supported\n"
"Type t at line 2, column 8 lacks a definition">>])
, ?TYPE_ERROR(higher_kinded_type,
[<<?Pos(2, 35)
"Type 'm is a higher kinded type variable\n"
"(takes another type as an argument)">>])
, ?TYPE_ERROR(bad_arity,
[<<?Pos(3, 20)
"Arity for id doesn't match. Expected 1, got 0">>,
<<?Pos(3, 25)
"Cannot unify int\n"
" and id\n"
"when checking the type of the expression at line 3, column 25\n"
" 123 : int\n"
"against the expected type\n"
" id">>,
<<?Pos(4, 20)
"Arity for id doesn't match. Expected 1, got 2">>,
<<?Pos(4, 35)
"Cannot unify int\n"
" and id(int, int)\n"
"when checking the type of the expression at line 4, column 35\n"
" 123 : int\n"
"against the expected type\n"
" id(int, int)">>])
, ?TYPE_ERROR(bad_unnamed_map_update_default,
[<<?Pos(4, 17)
"Invalid map update with default">>])
, ?TYPE_ERROR(non_functional_entrypoint,
[<<?Pos(2, 14)
"f at line 2, column 14 was declared with an invalid type int.\n"
"Entrypoints and functions must have functional types">>])
, ?TYPE_ERROR(bad_records,
[<<?Pos(3, 16)
"Mixed record fields and map keys in\n"
" {x = 0, [0] = 1}">>,
<<?Pos(4, 6)
"Mixed record fields and map keys in\n"
" r {x = 0, [0] = 1}">>,
<<?Pos(5, 6)
"Empty record/map update\n"
" r {}">>
])
, ?TYPE_ERROR(bad_function_block,
[<<?Pos(4, 5)
"Mismatch in the function block. Expected implementation/type declaration of g function">>,
<<?Pos(5, 5)
"Mismatch in the function block. Expected implementation/type declaration of g function">>
])
, ?TYPE_ERROR(just_an_empty_file,
[<<?Pos(0, 0)
"Empty contract">>
])
, ?TYPE_ERROR(bad_number_of_args,
[<<?Pos(3, 39)
"Cannot unify () => unit\n"
" and (int) => 'a\n",
"when checking the application at line 3, column 39 of\n"
" f : () => unit\n"
"to arguments\n"
" 1 : int">>,
<<?Pos(4, 20)
"Cannot unify (int, string) => 'e\n"
" and (int) => 'd\n"
"when checking the application at line 4, column 20 of\n"
" g : (int, string) => 'e\n"
"to arguments\n"
" 1 : int">>,
<<?Pos(5, 20)
"Cannot unify (int, string) => 'c\n"
" and (string) => 'b\n"
"when checking the application at line 5, column 20 of\n"
" g : (int, string) => 'c\nto arguments\n"
" \"Litwo, ojczyzno moja\" : string">>
])
, ?TYPE_ERROR(bad_state,
[<<?Pos(4, 16)
"Conflicting updates for field 'foo'">>])
"when checking that 'init' returns a value of type 'state' at line 7, column 3">>]}
, {"missing_state_type",
[<<"Cannot unify string\n"
" and ()\n"
"when checking that 'init' returns a value of type 'state' at line 5, column 3">>]}
, {"missing_fields_in_record_expression",
[<<"The field x is missing when constructing an element of type r('a) (at line 7, column 40)">>,
<<"The field y is missing when constructing an element of type r(int) (at line 8, column 40)">>,
<<"The fields y, z are missing when constructing an element of type r('1) (at line 6, column 40)">>]}
].
-define(Path(File), "code_errors/" ??File).
-define(Msg(File, Line, Col, Err), <<?Pos("Code generation", ?Path(File), Line, Col) Err>>).
-define(SAME(File, Line, Col, Err), {?Path(File), ?Msg(File, Line, Col, Err)}).
-define(AEVM(File, Line, Col, Err), {?Path(File), [{aevm, ?Msg(File, Line, Col, Err)}]}).
-define(FATE(File, Line, Col, Err), {?Path(File), [{fate, ?Msg(File, Line, Col, Err)}]}).
-define(BOTH(File, Line, Col, ErrAEVM, ErrFATE),
{?Path(File), [{aevm, ?Msg(File, Line, Col, ErrAEVM)},
{fate, ?Msg(File, Line, Col, ErrFATE)}]}).
failing_code_gen_contracts() ->
[ ?SAME(last_declaration_must_be_contract, 1, 1,
"Expected a contract as the last declaration instead of the namespace 'LastDeclarationIsNotAContract'")
, ?SAME(missing_definition, 2, 14,
"Missing definition of function 'foo'.")
, ?AEVM(polymorphic_entrypoint, 2, 17,
"The argument\n"
" x : 'a\n"
"of entrypoint 'id' has a polymorphic (contains type variables) type.\n"
"Use the FATE backend if you want polymorphic entrypoints.")
, ?AEVM(polymorphic_entrypoint_return, 2, 3,
"The return type\n"
" 'a\n"
"of entrypoint 'fail' is polymorphic (contains type variables).\n"
"Use the FATE backend if you want polymorphic entrypoints.")
, ?SAME(higher_order_entrypoint, 2, 20,
"The argument\n"
" f : (int) => int\n"
"of entrypoint 'apply' has a higher-order (contains function types) type.")
, ?SAME(higher_order_entrypoint_return, 2, 3,
"The return type\n"
" (int) => int\n"
"of entrypoint 'add' is higher-order (contains function types).")
, ?SAME(missing_init_function, 1, 10,
"Missing init function for the contract 'MissingInitFunction'.\n"
"The 'init' function can only be omitted if the state type is 'unit'.")
, ?SAME(parameterised_state, 3, 8,
"The state type cannot be parameterized.")
, ?SAME(parameterised_event, 3, 12,
"The event type cannot be parameterized.")
, ?SAME(polymorphic_aens_resolve, 4, 5,
"Invalid return type of AENS.resolve:\n"
" 'a\n"
"It must be a string or a pubkey type (address, oracle, etc).")
, ?SAME(bad_aens_resolve, 6, 5,
"Invalid return type of AENS.resolve:\n"
" list(int)\n"
"It must be a string or a pubkey type (address, oracle, etc).")
, ?AEVM(polymorphic_compare, 4, 5,
"Cannot compare values of type\n"
" 'a\n"
"The AEVM only supports '==' on values of\n"
"- word type (int, bool, bits, address, oracle(_, _), etc)\n"
"- type string\n"
"- tuple or record of word type\n"
"Use FATE if you need to compare arbitrary types.")
, ?AEVM(complex_compare, 4, 5,
"Cannot compare values of type\n"
" (string * int)\n"
"The AEVM only supports '!=' on values of\n"
"- word type (int, bool, bits, address, oracle(_, _), etc)\n"
"- type string\n"
"- tuple or record of word type\n"
"Use FATE if you need to compare arbitrary types.")
, ?AEVM(complex_compare_leq, 4, 5,
"Cannot compare values of type\n"
" (int * int)\n"
"The AEVM only supports '=<' on values of\n"
"- word type (int, bool, bits, address, oracle(_, _), etc)\n"
"Use FATE if you need to compare arbitrary types.")
, ?AEVM(higher_order_compare, 4, 5,
"Cannot compare values of type\n"
" (int) => int\n"
"The AEVM only supports '<' on values of\n"
"- word type (int, bool, bits, address, oracle(_, _), etc)\n"
"Use FATE if you need to compare arbitrary types.")
, ?AEVM(unapplied_contract_call, 6, 19,
"The AEVM does not support unapplied contract call to\n"
" r : Remote\n"
"Use FATE if you need this.")
, ?AEVM(unapplied_named_arg_builtin, 4, 15,
"The AEVM does not support unapplied use of Oracle.register.\n"
"Use FATE if you need this.")
, ?AEVM(polymorphic_map_keys, 4, 34,
"Invalid map key type\n"
" 'a\n"
"Map keys cannot be polymorphic in the AEVM. Use FATE if you need this.")
, ?AEVM(higher_order_map_keys, 4, 42,
"Invalid map key type\n"
" (int) => int\n"
"Map keys cannot be higher-order.")
, ?SAME(polymorphic_query_type, 3, 5,
"Invalid oracle type\n"
" oracle('a, 'b)\n"
"The query type must not be polymorphic (contain type variables).")
, ?SAME(polymorphic_response_type, 3, 5,
"Invalid oracle type\n"
" oracle(string, 'r)\n"
"The response type must not be polymorphic (contain type variables).")
, ?SAME(higher_order_query_type, 3, 5,
"Invalid oracle type\n"
" oracle((int) => int, string)\n"
"The query type must not be higher-order (contain function types).")
, ?SAME(higher_order_response_type, 3, 5,
"Invalid oracle type\n"
" oracle(string, (int) => int)\n"
"The response type must not be higher-order (contain function types).")
, ?AEVM(higher_order_state, 3, 3,
"Invalid state type\n"
" {f : (int) => int}\n"
"The state cannot contain functions in the AEVM. Use FATE if you need this.")
].
validation_test_() ->
[{"Validation fail: " ++ C1 ++ " /= " ++ C2,
fun() ->
Actual = case validate(C1, C2) of
{error, Errs} -> Errs;
ok -> #{}
end,
check_errors(Expect, Actual)
end} || {C1, C2, Expect} <- validation_fails()] ++
[{"Validation of " ++ C,
fun() ->
?assertEqual(ok, validate(C, C))
end} || C <- compilable_contracts()].
validation_fails() ->
[{"deadcode", "nodeadcode",
[<<"Data error:\n"
"Byte code does not match source code.\n"
"- Functions in the source code but not in the byte code:\n"
" .MyList.map2">>]},
{"validation_test1", "validation_test2",
[<<"Data error:\n"
"Byte code does not match source code.\n"
"- The implementation of the function code_fail is different.\n"
"- The attributes of the function attr_fail differ:\n"
" Byte code: payable\n"
" Source code: \n"
"- The type of the function type_fail differs:\n"
" Byte code: integer => integer\n"
" Source code: {tvar,0} => {tvar,0}">>]},
{"validation_test1", "validation_test3",
[<<"Data error:\n"
"Byte code contract is not payable, but source code contract is.">>]}].
validate(Contract1, Contract2) ->
ByteCode = #{ fate_code := FCode } = compile(fate, Contract1),
FCode1 = aeb_fate_code:serialize(aeb_fate_code:strip_init_function(FCode)),
Source = aeso_test_utils:read_contract(Contract2),
aeso_compiler:validate_byte_code(
ByteCode#{ byte_code := FCode1 }, Source,
case lists:member(Contract2, debug_mode_contracts()) of
true -> [debug_mode];
false -> []
end ++
[{backend, fate}, {include, {file_system, [aeso_test_utils:contract_path()]}}]).
-2
View File
@@ -12,11 +12,9 @@ groups() ->
, aeso_parser_tests
, aeso_compiler_tests
, aeso_abi_tests
, aeso_aci_tests
]}].
aeso_scan_tests(_Config) -> ok = eunit:test(aeso_scan_tests).
aeso_parser_tests(_Config) -> ok = eunit:test(aeso_parser_tests).
aeso_compiler_tests(_Config) -> ok = eunit:test(aeso_compiler_tests).
aeso_abi_tests(_Config) -> ok = eunit:test(aeso_abi_tests).
aeso_aci_tests(_Config) -> ok = eunit:test(aeso_aci_tests).
+12 -16
View File
@@ -4,8 +4,6 @@
-include_lib("eunit/include/eunit.hrl").
id(X) -> X.
simple_contracts_test_() ->
{foreach,
fun() -> ok end,
@@ -16,7 +14,7 @@ simple_contracts_test_() ->
" function id(x) = x\n",
?assertMatch(
[{contract, _, {con, _, "Identity"},
[{letfun, _, {id, _, "id"}, [{id, _, "x"}], {id, _, "_"},
[{letfun, _, {id, _, "id"}, [{arg, _, {id, _, "x"}, {id, _, "_"}}], {id, _, "_"},
{id, _, "x"}}]}], parse_string(Text)),
ok
end},
@@ -32,7 +30,7 @@ simple_contracts_test_() ->
end,
Parse = fun(S) ->
try remove_line_numbers(parse_expr(S))
catch _:_ -> ?assertMatch(ok, id({parse_fail, S})) end
catch _:_ -> ?assertMatch(ok, {parse_fail, S}) end
end,
CheckParens = fun(Expr) ->
?assertEqual(Parse(NoPar(Expr)), Parse(Par(Expr)))
@@ -40,7 +38,8 @@ simple_contracts_test_() ->
LeftAssoc = fun(Op) -> CheckParens({{a, Op, b}, Op, c}) end,
RightAssoc = fun(Op) -> CheckParens({a, Op, {b, Op, c}}) end,
NonAssoc = fun(Op) ->
?assertThrow({error, [_]},
OpAtom = list_to_atom(Op),
?assertError({error, {_, parse_error, _}},
parse_expr(NoPar({a, Op, {b, Op, c}}))) end,
Stronger = fun(Op1, Op2) ->
CheckParens({{a, Op1, b}, Op2, c}),
@@ -63,7 +62,7 @@ simple_contracts_test_() ->
%% Parse tests of example contracts
[ {lists:concat(["Parse the ", Contract, " contract."]),
fun() -> roundtrip_contract(Contract) end}
|| Contract <- [counter, voting, all_syntax, '05_greeter', aeproof, multi_sig, simple_storage, fundme, dutch_auction] ]
|| Contract <- [counter, voting, all_syntax, '05_greeter', aeproof, multi_sig, simple_storage, withdrawal, fundme, dutch_auction] ]
}.
parse_contract(Name) ->
@@ -72,28 +71,25 @@ parse_contract(Name) ->
roundtrip_contract(Name) ->
round_trip(aeso_test_utils:read_contract(Name)).
parse_string(Text) -> parse_string(Text, []).
parse_string(Text, Opts) ->
aeso_parser:string(Text, Opts).
parse_string(Text) ->
case aeso_parser:string(Text) of
{ok, Contract} -> Contract;
Err -> error(Err)
end.
parse_expr(Text) ->
[{letval, _, _, Expr}] =
[{letval, _, _, _, Expr}] =
parse_string("let _ = " ++ Text),
Expr.
round_trip(Text) ->
Contract = parse_string(Text),
Text1 = prettypr:format(aeso_pretty:decls(strip_stdlib(Contract))),
Text1 = prettypr:format(aeso_pretty:decls(Contract)),
Contract1 = parse_string(Text1),
NoSrcLoc = remove_line_numbers(Contract),
NoSrcLoc1 = remove_line_numbers(Contract1),
?assertMatch(NoSrcLoc, diff(NoSrcLoc, NoSrcLoc1)).
strip_stdlib([{namespace, _, {con, _, "ListInternal"}, _} | Decls]) ->
strip_stdlib(Decls);
strip_stdlib(Decls) -> Decls.
remove_line_numbers({line, _L}) -> {line, 0};
remove_line_numbers({col, _C}) -> {col, 0};
remove_line_numbers([H|T]) ->
+3 -3
View File
@@ -41,14 +41,14 @@ all_tokens() ->
%% Operators
lists:map(Lit, ['=', '==', '!=', '>', '<', '>=', '=<', '-', '+', '++', '*', '/', mod, ':', '::', '->', '=>', '||', '&&', '!']) ++
%% Keywords
lists:map(Lit, [contract, type, 'let', switch]) ++
lists:map(Lit, [contract, type, 'let', switch, rec, 'and']) ++
%% Comment token (not an actual token), just for tests
[{comment, 0, "// *Comment!\"\n"},
{comment, 0, "/* bla /* bla bla */*/"}] ++
%% Literals
[ Lit(true), Lit(false)
, Tok(id, "foo"), Tok(id, "_"), Tok(con, "Foo")
, Tok(bytes, Hash)
, Tok(hash, Hash)
, Tok(int, 1234567890), Tok(hex, 9876543210)
, Tok(string, <<"bla\"\\\b\e\f\n\r\t\vbla">>)
].
@@ -78,7 +78,7 @@ show_token({param, _, P}) -> "@" ++ P;
show_token({string, _, S}) -> fmt(binary_to_list(S));
show_token({int, _, N}) -> fmt(N);
show_token({hex, _, N}) -> fmt("0x~.16b", N);
show_token({bytes, _, <<N:256>>}) -> fmt("#~64.16.0b", N);
show_token({hash, _, <<N:256>>}) -> fmt("#~.16b", N);
show_token({comment, _, S}) -> S;
show_token({_, _, _}) -> "TODO".
+28
View File
@@ -0,0 +1,28 @@
-module(contract_tests).
-include_lib("eunit/include/eunit.hrl").
make_cmd() -> "make -C " ++ aeso_test_utils:contract_path().
contracts_test_() ->
{setup,
fun() -> os:cmd(make_cmd()) end,
fun(_) -> os:cmd(make_cmd() ++ " clean") end,
[ {"Testing the " ++ Contract ++ " contract",
fun() ->
?assertCmdOutput(Expected, filename:join(aeso_test_utils:contract_path(), Contract ++ "_test"))
end} || {Contract, Expected} <- contracts() ]}.
contracts() ->
[].
%% [{"voting",
%% "Delegate before vote\n"
%% "Cake: 1\n"
%% "Beer: 2\n"
%% "Winner: Beer\n"
%% "Delegate after vote\n"
%% "Cake: 1\n"
%% "Beer: 2\n"
%% "Winner: Beer\n"
%% }].
+2 -1
View File
@@ -58,7 +58,8 @@ contract Greeter =
let state = { greeting = "Hello" }
function setGreeting(greeting: string) =
let setGreeting =
(greeting: string) =>
state{ greeting = greeting }
-5
View File
@@ -1,5 +0,0 @@
contract Identity =
function main (x:int) = x
function __call() = 12
+1 -1
View File
@@ -8,7 +8,7 @@ contract AbortTest =
{ value = v }
// Aborting
public function do_abort(v : int, s : string) : unit =
public function do_abort(v : int, s : string) : () =
put_value(v)
revert_abort(s)
+3 -3
View File
@@ -1,9 +1,9 @@
contract Interface =
function do_abort : (int, string) => unit
function do_abort : (int, string) => ()
function get_value : () => int
function put_value : (int) => unit
function put_value : (int) => ()
function get_values : () => list(int)
function put_values : (int) => unit
function put_values : (int) => ()
contract AbortTestInt =
-36
View File
@@ -1,36 +0,0 @@
contract Remote =
entrypoint main : (int) => unit
contract AddrChain =
type o_type = oracle(string, map(string, int))
type oq_type = oracle_query(string, map(string, int))
entrypoint is_o(a : address) =
Address.is_oracle(a)
entrypoint is_c(a : address) =
Address.is_contract(a)
// entrypoint get_o(a : address) : option(o_type) =
// Address.get_oracle(a)
// entrypoint get_c(a : address) : option(Remote) =
// Address.get_contract(a)
entrypoint check_o(o : o_type) =
Oracle.check(o)
entrypoint check_oq(o : o_type, oq : oq_type) =
Oracle.check_query(o, oq)
// entrypoint h_to_i(h : hash) : int =
// Hash.to_int(h)
// entrypoint a_to_i(a : address) : int =
// Address.to_int(a) mod 10 ^ 16
entrypoint c_creator() : address =
Contract.creator
entrypoint is_payable(a : address) : bool =
Address.is_payable(a)
-16
View File
@@ -1,16 +0,0 @@
contract Remote =
entrypoint foo : () => unit
contract AddressLiterals =
entrypoint addr() : address =
ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt
entrypoint oracle() : oracle(int, bool) =
ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5
entrypoint query() : oracle_query(int, bool) =
oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY
entrypoint contr() : Remote =
ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ
entrypoint contr_addr() : Remote =
Address.to_contract(addr())
+33 -34
View File
@@ -3,54 +3,53 @@ contract AENSTest =
// Name resolution
stateful entrypoint resolve_word(name : string, key : string) : option(address) =
function resolve_word(name : string, key : string) : option(address) =
AENS.resolve(name, key)
stateful entrypoint resolve_string(name : string, key : string) : option(string) =
function resolve_string(name : string, key : string) : option(string) =
AENS.resolve(name, key)
// Transactions
stateful entrypoint preclaim(addr : address, // Claim on behalf of this account (can be Contract.address)
chash : hash) : unit = // Commitment hash
function preclaim(addr : address, // Claim on behalf of this account (can be Contract.address)
chash : hash) : () = // Commitment hash
AENS.preclaim(addr, chash)
stateful entrypoint signedPreclaim(addr : address, // Claim on behalf of this account (can be Contract.address)
chash : hash, // Commitment hash
sign : signature) : unit = // Signed by addr (if not Contract.address)
function signedPreclaim(addr : address, // Claim on behalf of this account (can be Contract.address)
chash : hash, // Commitment hash
sign : signature) : () = // Signed by addr (if not Contract.address)
AENS.preclaim(addr, chash, signature = sign)
stateful entrypoint claim(addr : address,
name : string,
salt : int,
name_fee : int) : unit =
AENS.claim(addr, name, salt, name_fee)
function claim(addr : address,
name : string,
salt : int) : () =
AENS.claim(addr, name, salt)
stateful entrypoint signedClaim(addr : address,
name : string,
salt : int,
name_fee : int,
sign : signature) : unit =
AENS.claim(addr, name, salt, name_fee, signature = sign)
function signedClaim(addr : address,
name : string,
salt : int,
sign : signature) : () =
AENS.claim(addr, name, salt, signature = sign)
// TODO: update() -- how to handle pointers?
stateful entrypoint transfer(owner : address,
new_owner : address,
name : string) : unit =
AENS.transfer(owner, new_owner, name)
function transfer(owner : address,
new_owner : address,
name_hash : hash) : () =
AENS.transfer(owner, new_owner, name_hash)
stateful entrypoint signedTransfer(owner : address,
new_owner : address,
name : string,
sign : signature) : unit =
AENS.transfer(owner, new_owner, name, signature = sign)
function signedTransfer(owner : address,
new_owner : address,
name_hash : hash,
sign : signature) : () =
AENS.transfer(owner, new_owner, name_hash, signature = sign)
stateful entrypoint revoke(owner : address,
name : string) : unit =
AENS.revoke(owner, name)
function revoke(owner : address,
name_hash : hash) : () =
AENS.revoke(owner, name_hash)
function signedRevoke(owner : address,
name_hash : hash,
sign : signature) : () =
AENS.revoke(owner, name_hash, signature = sign)
stateful entrypoint signedRevoke(owner : address,
name : string,
sign : signature) : unit =
AENS.revoke(owner, name, signature = sign)
+6 -4
View File
@@ -104,10 +104,10 @@ contract AEProof =
proofsByOwner : map(address, array(uint)) }
function notarize(document:string, comment:string, ipfsHash:hash) =
let _ = require(aetoken.balanceOf(caller()) > 0, "false")
let _ = require(aetoken.balanceOf(caller()) > 0)
let proofHash: uint = calculateHash(document)
let proof : proof = Map.get_(proofHash, state().proofs)
let _ = require(proof.owner == #0, "false")
let _ = require(proof.owner == #0)
let proof' : proof = proof { owner = caller()
, timestamp = block().timestamp
, proofBlock = block().height
@@ -124,12 +124,12 @@ contract AEProof =
function getProof(document) : proof =
let calcHash = calculateHash(document)
let proof = Map.get_(calcHash, state().proofs)
let _ = require(proof.owner != #0, "false")
let _ = require(proof.owner != #0)
proof
function getProofByHash(hash: uint) : proof =
let proof = Map.get_(hash, state().proofs)
let _ = require(proof.owner != #0, "false")
let _ = require(proof.owner != #0)
proof
@@ -141,3 +141,5 @@ contract AEProof =
function getProofsByOwner(owner: address): array(uint) =
Map.get(owner, state())
function require(x : bool) : unit = if(x) () else abort("false")
+34 -63
View File
@@ -1,78 +1,49 @@
// Try to cover all syntactic constructs.
@compiler > 0
@compiler =< 10.1.1.1.1.1.2.3.4
contract AllSyntaxType =
type typeDecl /* bla */
type paramTypeDecl('a, 'b)
namespace Ns =
datatype d('a) = D | S(int) | M('a, list('a), int)
private function fff() = 123
stateful entrypoint
f (1, x) = (_) => x
payable contract AllSyntaxType =
/** Multi-
* line
* comment
*/
stateful function foo : _
entrypoint bar : int => (int * 'a)
function foo : _
contract AllSyntax =
datatype mickiewicz = Adam | Mickiewicz
record goethe('a, 'b) = {
johann : int,
wolfgang : 'a,
von : 'a * 'b * int,
goethe : unit
}
type dante = Ns.d(int)
type shakespeare('a) = goethe('a, 'a)
type typeDecl = int
type paramTypeDecl('a, 'b) = (('a, 'b) => 'b) => list('a) => 'b => 'b
type state = shakespeare(int)
record nestedRecord = { x : int }
record recordType = { z : nestedRecord, y : int }
datatype variantType('a) = None | Some('a)
entrypoint init() = {
johann = 1000,
wolfgang = -10,
von = (2 + 2, 0, List.sum([x | k <- [1,2,3]
, let l = k + 1
, if(l < 10)
, let f(x) = x + 100
, Adam <- [Adam, Mickiewicz]
, let x = f(l)
])),
goethe = () }
let valWithType : map(int, int) => option(int) = (m) => Map.get(m, 42)
let valNoType =
if(valWithType(Map.empty) == None)
print(42 mod 10 * 5 / 3)
function f() =
let kp = "nietzsche"
let p = "Пушкин"
let k(x : bytes(8)) : bytes(8) = Bytes.to_int(#fedcba9876543210)
function funWithType(x : int, y) : (int, list(int)) = (x, 0 :: [y] ++ [])
function funNoType() =
let foo = (x, y : bool) =>
if (! (y && x =< 0x0b || true)) [x]
else [11..20]
let setY(r : recordType) : unit = r{ y = 5 }
let setX(r : recordType, x : int) : recordType = r { z.x = x } // nested record update
let getY(r) = switch(r) {y = y} => y
switch (funWithType(1, -2))
(x, [y, z]) => bar({x = z, y = -y + - -z * (-1)})
(x, y :: _) => ()
let f : () => address = () => ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt
if(Bits.test(Bits.all, 10))
abort("ohno")
if(true && false)
require(true, "ohyes")
elif(false || 2 == 2)
()
else
()
if(true) f(1,2)((1,2))
else switch(1::[1,2,3])
[] => 1
a::b => 123
1::2::3 => 123123
[2,3,4] => 1
_ => 13
1::[2] => 2138
put(state{johann = 1})
let m = {["foo"] = 19, /*hey wanna talk about inlined comments?*/ ["bar"] = 42}
let n = {}
m{ ["x" = 0] @ z = z + state.johann }
function mutual() =
let rec recFun(x : int) = mutFun(x)
and mutFun(x) = if(x =< 0) 1 else x * recFun(x - 1)
recFun(0)
let hash : address = #01ab0fff11
let b = false
let qcon = Mod.Con
let str = "blabla\nfoo"
let chr = '"'
let sh : shakespeare(shakespeare(int)) =
{wolfgang = state}
sh{wolfgang.wolfgang = sh.wolfgang} // comment
-35
View File
@@ -1,35 +0,0 @@
contract Remote =
entrypoint foo : () => unit
contract AddressLiterals =
entrypoint addr1() : bytes(32) =
ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt
entrypoint addr2() : Remote =
ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt
entrypoint addr3() : oracle(int, bool) =
ak_2gx9MEFxKvY9vMG5YnqnXWv1hCsX7rgnfvBLJS4aQurustR1rt
entrypoint oracle1() : oracle_query(int, bool) =
ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5
entrypoint oracle2() : bytes(32) =
ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5
entrypoint oracle3() : Remote =
ok_2YNyxd6TRJPNrTcEDCe9ra59SVUdp9FR9qWC5msKZWYD9bP9z5
entrypoint query1() : oracle(int, bool) =
oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY
entrypoint query2() : bytes(32) =
oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY
entrypoint query3() : Remote =
oq_2oRvyowJuJnEkxy58Ckkw77XfWJrmRgmGaLzhdqb67SKEL1gPY
entrypoint contr1() : address =
ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ
entrypoint contr2() : oracle(int, bool) =
ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ
entrypoint contr3() : bytes(32) =
ct_Ez6MyeTMm17YnTnDdHTSrzMEBKmy7Uz2sXu347bTDPgVH2ifJ
entrypoint contr4() : address =
Address.to_contract(Contract.address)
-4
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@@ -1,4 +0,0 @@
contract C =
type id('a) = 'a
entrypoint f() : id = 123
entrypoint g() : id(int, int) = 123
-19
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@@ -1,19 +0,0 @@
contract BytesConcat =
entrypoint test1(x : bytes(10), y : bytes(20)) =
Bytes.concat(x, y)
entrypoint test2(x : bytes(10), y) : bytes(15) =
Bytes.concat(x, y)
entrypoint test3(x, y : bytes(20)) : bytes(25) =
Bytes.concat(x, y)
entrypoint fail1(x, y) : bytes(10) = Bytes.concat(x, y)
entrypoint fail2(x, y) = Bytes.concat(x, y)
entrypoint fail3(x : bytes(6), y : bytes(20)) : bytes(25) =
Bytes.concat(x, y)
entrypoint fail4(x : bytes(6), y) : _ =
Bytes.concat(x, y)
entrypoint fail5(x) = Bytes.to_str(x)
-20
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@@ -1,20 +0,0 @@
contract BytesSplit =
entrypoint test1(x) : bytes(10) * bytes(20) =
Bytes.split(x)
entrypoint test2(x : bytes(15)) : bytes(10) * _ =
Bytes.split(x)
entrypoint test3(x : bytes(25)) : _ * bytes(20) =
Bytes.split(x)
entrypoint fail1(x) : _ * bytes(20) =
Bytes.split(x)
entrypoint fail2(x : bytes(15)) : _ =
Bytes.split(x)
entrypoint fail3(x) : bytes(20) * _ =
Bytes.split(x)
-23
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@@ -1,23 +0,0 @@
contract Events =
type alias_int = int
type alias_address = address
type alias_string = string
datatype event =
Event1(indexed alias_int, indexed int, string)
| Event2(alias_string, indexed alias_address)
| BadEvent1(indexed string)
| BadEvent2(indexed alias_string)
entrypoint f1(x : int, y : string) =
Chain.event(Event1(x, x+1, y))
entrypoint f2(s : string) =
Chain.event(Event2(s, Call.caller))
entrypoint f3(x : int) =
Chain.event(Event1(x, x + 2, Int.to_str(x + 7)))
entrypoint i2s(i : int) = Int.to_str(i)
entrypoint a2s(a : address) = Address.to_str(a)
-23
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@@ -1,23 +0,0 @@
contract Events =
type alias_int = int
type alias_address = address
type alias_string = string
datatype event =
Event1(indexed alias_int, indexed int, string)
| Event2(alias_string, indexed alias_address)
| BadEvent1(string, string)
| BadEvent2(indexed int, indexed int, indexed int, indexed address)
entrypoint f1(x : int, y : string) =
Chain.event(Event1(x, x+1, y))
entrypoint f2(s : string) =
Chain.event(Event2(s, Call.caller))
entrypoint f3(x : int) =
Chain.event(Event1(x, x + 2, Int.to_str(x + 7)))
entrypoint i2s(i : int) = Int.to_str(i)
entrypoint a2s(a : address) = Address.to_str(a)
-5
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@@ -1,5 +0,0 @@
contract C =
function
g(1) = 2
f(2) = 3
h(1) = 123
-13
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@@ -1,13 +0,0 @@
contract BadInit =
type state = int
entrypoint new_state(n) = state + n
stateful entrypoint roundabout(n) = put(n)
stateful entrypoint set_state(n) = roundabout(n)
stateful entrypoint init() =
set_state(4)
new_state(0)
state + state
-6
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@@ -1,6 +0,0 @@
contract Test =
entrypoint f() = ()
entrypoint g(x : int, y : string) = f(1)
entrypoint h() = g(1)
entrypoint i() = g("Litwo, ojczyzno moja")
-5
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@@ -1,5 +0,0 @@
contract BadRecord =
entrypoint foo() =
let r = {x = 0, [0] = 1}
r{x = 0, [0] = 1}
r{}
-5
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@@ -1,5 +0,0 @@
contract C =
record state = { foo : int }
entrypoint init(i : int) =
state{ foo = i,
foo = 42 }
-3
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@@ -1,3 +0,0 @@
function square(x) = x ^ 2
contract Main =
entrypoint main() = square(10)
@@ -1,5 +0,0 @@
contract C =
entrypoint f() =
let z = 123
{}{ [1 = 0] = z + 1 }
2
-19
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@@ -1,19 +0,0 @@
// Contract replicating "normal" Aeternity authentication
contract BasicAuth =
record state = { nonce : int, owner : address }
entrypoint init() = { nonce = 1, owner = Call.caller }
stateful entrypoint authorize(n : int, s : signature) : bool =
require(n >= state.nonce, "Nonce too low")
require(n =< state.nonce, "Nonce too high")
put(state{ nonce = n + 1 })
switch(Auth.tx_hash)
None => abort("Not in Auth context")
Some(tx_hash) => Crypto.verify_sig(to_sign(tx_hash, n), state.owner, s)
entrypoint to_sign(h : hash, n : int) =
Crypto.blake2b((h, n))
entrypoint weird_string() : string =
"\x19Weird String\x42\nMore\n"
-16
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@@ -1,16 +0,0 @@
contract BitcoinAuth =
record state = { nonce : int, owner : bytes(20) }
entrypoint init(owner' : bytes(20)) = { nonce = 1, owner = owner' }
stateful entrypoint authorize(n : int, s : bytes(65)) : bool =
require(n >= state.nonce, "Nonce too low")
require(n =< state.nonce, "Nonce too high")
put(state{ nonce = n + 1 })
switch(Auth.tx_hash)
None => abort("Not in Auth context")
Some(tx_hash) => Crypto.ecverify_secp256k1(to_sign(tx_hash, n), state.owner, s)
entrypoint to_sign(h : hash, n : int) : hash =
Crypto.blake2b((h, n))
+2 -2
View File
@@ -5,8 +5,8 @@ contract BuiltinBug =
record state = {proofs : map(address, list(string))}
entrypoint init() = {proofs = {}}
public function init() = {proofs = {}}
stateful entrypoint createProof(hash : string) =
public stateful function createProof(hash : string) =
put( state{ proofs[Call.caller] = hash :: state.proofs[Call.caller] } )
+7 -3
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@@ -1,8 +1,12 @@
contract TestContract =
record state = {_allowed : map(address, map(address, int))}
record state = {
_allowed : map(address, map(address, int))}
entrypoint init() = {_allowed = {}}
public stateful function init() = {
_allowed = {}}
public stateful function approve(spender: address, value: int) : bool =
stateful entrypoint approve(spender: address, value: int) : bool =
put(state{_allowed[Call.caller][spender] = value})
true
-4
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@@ -1,4 +0,0 @@
contract BytesConcat =
entrypoint rot(a : bytes(3)) =
switch (Bytes.split(a))
(b, c) => Bytes.concat(c : bytes(2), b)
-18
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@@ -1,18 +0,0 @@
contract BytesEquality =
entrypoint eq16(a : bytes(16), b) = a == b
entrypoint ne16(a : bytes(16), b) = a != b
entrypoint eq32(a : bytes(32), b) = a == b
entrypoint ne32(a : bytes(32), b) = a != b
entrypoint eq47(a : bytes(47), b) = a == b
entrypoint ne47(a : bytes(47), b) = a != b
entrypoint eq64(a : bytes(64), b) = a == b
entrypoint ne64(a : bytes(64), b) = a != b
entrypoint eq65(a : bytes(65), b) = a == b
entrypoint ne65(a : bytes(65), b) = a != b
-8
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@@ -1,8 +0,0 @@
contract BytesToX =
entrypoint to_int(b : bytes(42)) : int = Bytes.to_int(b)
entrypoint to_str(b : bytes(12)) : string =
String.concat(Bytes.to_str(b), Bytes.to_str(#ffff))
entrypoint to_str_big(b : bytes(65)) : string =
Bytes.to_str(b)
-7
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@@ -1,7 +0,0 @@
contract CallingInitFunction =
type state = int * int
entrypoint init() = (1, 2)
entrypoint call_init() = init()
+2 -2
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@@ -1,6 +1,6 @@
// Test more advanced chain interactions
contract ChainTest =
contract Chain =
record state = { last_bf : address }
@@ -10,4 +10,4 @@ contract ChainTest =
function miner() = Chain.coinbase
function save_coinbase() =
put(state{last_bf = Chain.coinbase})
put(state{last_bf = Chain.coinbase})
@@ -1,9 +0,0 @@
contract BadAENSresolve =
type t('a) = option(list('a))
function fail() : t(int) =
AENS.resolve("foo.aet", "whatever")
entrypoint main() = ()
@@ -1,4 +0,0 @@
contract ComplexCompare =
entrypoint test(x : string * int) =
("foo", 1) != x
@@ -1,4 +0,0 @@
contract ComplexCompare =
entrypoint test(x : int) =
(1, 2) =< (x, x + 1)
@@ -1,8 +0,0 @@
contract HigherOrderCompare =
function cmp(x : int => int, y) : bool =
x < y
entrypoint test() =
let f(x) = (y) => x + y
cmp(f(1), f(2))
@@ -1,2 +0,0 @@
contract HigherOrderEntrypoint =
entrypoint apply(f : int => int, x : int) = f(x)
@@ -1,2 +0,0 @@
contract HigherOrderEntrypoint =
entrypoint add(x : int) = (y) => x + y
@@ -1,6 +0,0 @@
contract MapAsMapKey =
type t('key) = map('key, int)
function foo(m) : t(int => int) = {[m] = 0}
entrypoint main() = ()
@@ -1,5 +0,0 @@
contract HigherOrderQueryType =
stateful function foo(o) : oracle_query(_, string ) =
Oracle.query(o, (x) => x + 1, 100, RelativeTTL(100), RelativeTTL(100))
entrypoint main() = ()

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