fix(compiler): Refactor values [fixes LNG-57] (#821)

* Refactor parser

* Savepoint

* Refactor CliFunc and TypesInterpreter

* Fix CliFunc

* Fix parser tests

* Fix tests compilation

* Fix callArrowToRaw

* Fix co parsing, add tests

* Add par tests

* Fix field parsing, add test

* Return ability to CallArrowToken

* Fix names

* Refactor and add comments

* Refactor, add comments

* Fix
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InversionSpaces 2023-08-15 14:33:34 +04:00 committed by GitHub
parent 6146f8e40a
commit f562bd40b6
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43 changed files with 888 additions and 577 deletions

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@ -4,68 +4,61 @@ import aqua.parser.lexer.{CallArrowToken, CollectionToken, LiteralToken, VarToke
import aqua.parser.lift.Span
import aqua.raw.value.{CollectionRaw, LiteralRaw, ValueRaw, VarRaw}
import aqua.types.{ArrayType, BottomType}
import cats.data.{NonEmptyList, Validated, ValidatedNel}
import cats.data.Validated.{invalid, invalidNel, validNel}
import cats.{Id, ~>}
import cats.{~>, Id}
import cats.syntax.traverse.*
import cats.syntax.validated.*
import cats.syntax.either.*
import cats.syntax.comonad.*
import cats.syntax.option.*
case class CliFunc(name: String, args: List[ValueRaw] = Nil, ability: Option[String] = None)
case class CliFunc(name: String, args: List[ValueRaw] = Nil)
object CliFunc {
def spanToId: Span.S ~> Id = new (Span.S ~> Id) {
override def apply[A](span: Span.S[A]): Id[A] = {
span._2
}
override def apply[A](span: Span.S[A]): Id[A] = span.extract
}
def fromString(func: String): ValidatedNel[String, CliFunc] = {
CallArrowToken.callArrow.parseAll(func.trim) match {
case Right(exprSpan) =>
val expr = exprSpan.mapK(spanToId)
val argsV = expr.args.collect {
CallArrowToken.callArrow
.parseAll(func.trim)
.toValidated
.leftMap(
_.expected.map(_.context.mkString("\n"))
)
.map(_.mapK(spanToId))
.andThen(expr =>
expr.args.traverse {
case LiteralToken(value, ts) =>
validNel(LiteralRaw(value, ts))
case VarToken(name, _) =>
validNel(VarRaw(name.value, BottomType))
LiteralRaw(value, ts).valid
case VarToken(name) =>
VarRaw(name.value, BottomType).valid
case CollectionToken(_, values) =>
val hasVariables = values.exists {
case LiteralToken(_, _) => false
case _ => true
}
if (!hasVariables) {
val literals = values.collect { case LiteralToken(value, ts) =>
LiteralRaw(value, ts)
}
val hasSameTypesOrEmpty =
literals.isEmpty || literals.map(_.baseType).toSet.size == 1
if (hasSameTypesOrEmpty) {
validNel(
values.traverse {
case LiteralToken(value, ts) =>
LiteralRaw(value, ts).some
case _ => none
}.toValid(
"Array elements can only be numbers, strings, or booleans."
).ensure(
"If the argument is an array, then it must contain elements of the same type."
)(_.distinctBy(_.`type`).size <= 1)
.map(
NonEmptyList
.fromList(literals)
.fromList(_)
.map(l => CollectionRaw(l, ArrayType(l.head.baseType)))
.getOrElse(ValueRaw.Nil)
)
} else
invalidNel(
"If the argument is an array, then it must contain elements of the same type."
)
} else
invalidNel(
"Array arguments can only have numbers, strings, or booleans."
)
.toValidatedNel
case CallArrowToken(_, _, _) =>
invalidNel("Function calls as arguments are not supported.")
}.sequence
argsV.andThen(args =>
validNel(CliFunc(expr.funcName.value, args, expr.ability.map(_.name)))
"Function calls as arguments are not supported.".invalidNel
case _ =>
"Unsupported argument.".invalidNel
}.map(args => CliFunc(expr.funcName.value, args))
)
case Left(err) => invalid(err.expected.map(_.context.mkString("\n")))
}
}
}

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@ -9,6 +9,7 @@ import aqua.model.transform.TransformConfig
import aqua.model.{AquaContext, FuncArrow}
import aqua.parser.lift.FileSpan
import aqua.run.CliFunc
import cats.data.Validated.{invalidNec, validNec}
import cats.data.{Chain, NonEmptyList, Validated, ValidatedNec}
import cats.effect.IO
@ -19,6 +20,7 @@ import cats.syntax.functor.*
import cats.syntax.monad.*
import cats.syntax.show.*
import cats.syntax.traverse.*
import cats.syntax.option.*
import fs2.io.file.{Files, Path}
import scribe.Logging
@ -84,16 +86,9 @@ object FuncCompiler {
def findFunction(
contexts: Chain[AquaContext],
func: CliFunc
): ValidatedNec[String, FuncArrow] =
func.ability
.fold(
contexts
): ValidatedNec[String, FuncArrow] = contexts
.collectFirstSome(_.allFuncs.get(func.name))
)(ab => contexts.collectFirstSome(_.abilities.get(ab).flatMap(_.allFuncs.get(func.name))))
.map(validNec)
.getOrElse(
Validated.invalidNec[String, FuncArrow](
s"There is no function '${func.ability.map(_ + ".").getOrElse("")}${func.name}' or it is not exported. Check the spelling or see https://fluence.dev/docs/aqua-book/language/header/#export"
)
.toValidNec(
s"There is no function '${func.name}' or it is not exported. Check the spelling or see https://fluence.dev/docs/aqua-book/language/header/#export"
)
}

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@ -1,87 +1,7 @@
aqua Main
service Srv("srv"):
call(x: i32) -> i32
use DECLARE_CONST, decl_bar from "declare.aqua" as Declare
export SomeService, handleAb, bug214, checkAbCalls
service SomeService("wed"):
getStr(s: string) -> string
ability SomeAb:
someArrow(s: string) -> string, string
str: string
ability SecondAb:
arrow(s: string) -> string
num: u32
func funcStr(s: string) -> string, string:
strInFunc <- SomeService.getStr(Declare.DECLARE_CONST)
strInFunc2 <- SomeService.getStr(s)
<- strInFunc, strInFunc2
func handleSecAb {SomeAb, SecondAb}() -> string, string, string, u32:
SomeAb.someArrow("eferfrfrf")
b, c <- SomeAb.someArrow("efre")
d <- SecondAb.arrow(SomeAb.str)
<- b, c, d, SecondAb.num
func returnAb(s: string) -> SomeAb:
SomeAb = SomeAb(someArrow = funcStr, str = s)
<- SomeAb
func handleAb(fff: string) -> string, string, string, u32:
SomeAb = returnAb(fff)
SecondAb = SecondAb(arrow = funcStr, num = 12)
res1, res2, res3, res4 <- handleSecAb{SomeAb, SecondAb}()
<- res1, res2, res3, res4
data Struct:
int: i8
ability Simple:
st: Struct
arrow(x: i8) -> bool
ability Complex:
simple: Simple
field: string
func foo{Complex, Simple}() -> bool, bool:
closure = () -> bool:
<- Simple.st.int >= 0
res <- closure()
<- Complex.simple.arrow(
Complex.simple.st.int
), res
func bug214() -> bool, bool:
closure = (x: i8) -> bool:
<- x > 0
MyComplex = Complex(
simple = Simple(
st = Struct(int = 0),
arrow = closure
),
field = "complex"
)
res1, res2 <- foo{MyComplex, MyComplex.simple}()
<- res1, res2
ability SSS:
arrow(x: i8) -> bool
ability CCCC:
arrow(x: i8) -> bool
simple: SSS
func checkAbCalls() -> bool, bool:
closure = (x: i8) -> bool:
<- x > 20
MySSS = SSS(arrow = closure)
MyCCCC = CCCC(simple = MySSS, arrow = MySSS.arrow)
<- MySSS.arrow(42), MyCCCC.arrow(12)
func main() -> i32:
arr = [1, 2, 3]
a <- Srv.call(0)
<- arr[Srv.call(1)]

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@ -19,7 +19,8 @@ case class IntoFieldRaw(name: String, `type`: Type) extends PropertyRaw {
override def varNames: Set[String] = Set.empty
}
case class IntoArrowRaw(name: String, arrowType: Type, arguments: List[ValueRaw]) extends PropertyRaw {
case class IntoArrowRaw(name: String, arrowType: Type, arguments: List[ValueRaw])
extends PropertyRaw {
override def `type`: Type = arrowType
@ -27,10 +28,12 @@ case class IntoArrowRaw(name: String, arrowType: Type, arguments: List[ValueRaw]
override def varNames: Set[String] = arguments.flatMap(_.varNames).toSet
override def renameVars(vals: Map[String, String]): PropertyRaw = copy(arguments = arguments.map(_.renameVars(vals)))
override def renameVars(vals: Map[String, String]): PropertyRaw =
copy(arguments = arguments.map(_.renameVars(vals)))
}
case class IntoCopyRaw(`type`: StructType, fields: NonEmptyMap[String, ValueRaw]) extends PropertyRaw {
case class IntoCopyRaw(`type`: StructType, fields: NonEmptyMap[String, ValueRaw])
extends PropertyRaw {
override def map(f: ValueRaw => ValueRaw): IntoCopyRaw = copy(fields = fields.map(f))
override def varNames: Set[String] = Set.empty
@ -38,14 +41,6 @@ case class IntoCopyRaw(`type`: StructType, fields: NonEmptyMap[String, ValueRaw]
override def renameVars(vals: Map[String, String]): IntoCopyRaw = this
}
case class MethodRaw(name: String, `type`: Type) extends PropertyRaw {
override def map(f: ValueRaw => ValueRaw): MethodRaw = this
override def renameVars(vals: Map[String, String]): MethodRaw = this
override def varNames: Set[String] = Set.empty
}
case class FunctorRaw(name: String, `type`: Type) extends PropertyRaw {
override def map(f: ValueRaw => ValueRaw): FunctorRaw = this

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@ -1,8 +1,10 @@
package aqua.raw.value
import aqua.types.*
import cats.data.{Chain, NonEmptyList, NonEmptyMap}
import cats.Eq
import cats.syntax.option.*
import scribe.Logging
sealed trait ValueRaw {
@ -263,3 +265,46 @@ case class CallArrowRaw(
s"(call ${ability.fold("")(a => s"|$a| ")} (${serviceId.fold("")(_.toString + " ")}$name) [${arguments
.mkString(" ")}] :: $baseType)"
}
object CallArrowRaw {
def func(
funcName: String,
baseType: ArrowType,
arguments: List[ValueRaw] = Nil
): CallArrowRaw = CallArrowRaw(
ability = None,
name = funcName,
arguments = arguments,
baseType = baseType,
serviceId = None
)
def ability(
abilityName: String,
funcName: String,
baseType: ArrowType,
arguments: List[ValueRaw] = Nil
): CallArrowRaw = CallArrowRaw(
ability = None,
name = AbilityType.fullName(abilityName, funcName),
arguments = arguments,
baseType = baseType,
serviceId = None
)
def service(
abilityName: String,
serviceId: ValueRaw,
funcName: String,
baseType: ArrowType,
arguments: List[ValueRaw] = Nil
): CallArrowRaw = CallArrowRaw(
ability = abilityName.some,
name = funcName,
arguments = arguments,
baseType = baseType,
serviceId = Some(serviceId)
)
}

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@ -2,20 +2,15 @@ package aqua.parser.expr
import aqua.parser.Expr
import aqua.parser.lexer.Token.*
import aqua.parser.lexer.{
CallArrowToken,
CollectionToken,
InfixToken,
LiteralToken,
Name,
ValueToken
}
import aqua.parser.lexer.*
import aqua.parser.lift.LiftParser
import cats.Comonad
import cats.parse.Parser as P
import cats.~>
import aqua.parser.lift.Span
import aqua.parser.lift.Span.{P0ToSpan, PToSpan}
import aqua.parser.lexer.PrefixToken
import aqua.parser.lexer.VarToken
case class ConstantExpr[F[_]](
name: Name[F],
@ -35,20 +30,17 @@ object ConstantExpr extends Expr.Leaf {
override val p: P[ConstantExpr[Span.S]] =
(((constName ~ `?`.?).with1 <* `=` <* ` `) ~ ValueToken.`value`).flatMap {
case ((name, mark), value) =>
lazy val fail = (what: String) =>
P.failWith(
s"'$name' is $what, but only strings, numbers or booleans can be used"
)
value match {
case CollectionToken(point, _) =>
P.failWith(
s"'$name' is an array, but only strings, numbers or booleans can be used"
)
case CallArrowToken(_, _, _) =>
P.failWith(
s"'$name' is a function call, but only strings, numbers or booleans can be used"
)
case InfixToken(_, _, _) =>
P.failWith(
s"'$name' an expression, but only strings, numbers or booleans can be used"
)
case _ =>
case CollectionToken(point, _) => fail("a collection")
case CallArrowToken(_, _, _) => fail("a function call")
case InfixToken(_, _, _) | PrefixToken(_, _) => fail("an expression")
case PropertyToken(_, _) => fail("a property")
case NamedValueToken(_, _) => fail("an ability or data")
case LiteralToken(_, _) | VarToken(_) =>
P.pure(ConstantExpr(name, value, mark.nonEmpty))
}

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@ -27,9 +27,8 @@ object ArrowExpr extends Expr.AndIndented {
// It is important for IfExpr to be before CallArrowExpr
// because `if (1 + 1) == 2` is parsed as if `if(1 + 1)` is an arrow call
IfExpr ::
CallArrowExpr ::
TryExpr ::
ElseOtherwiseExpr ::
TryExpr ::
CatchExpr ::
Expr.defer(ParExpr) ::
Expr.defer(CoExpr) ::
@ -37,6 +36,10 @@ object ArrowExpr extends Expr.AndIndented {
DeclareStreamExpr ::
Expr.defer(ClosureExpr) ::
AssignmentExpr ::
// It is important for CallArrowExpr to be last
// because it can parse prefixes of other expressions
// e.g. `if` could be parsed as variable name
CallArrowExpr ::
Nil
override val validChildren: List[Expr.Lexem] =

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@ -20,7 +20,7 @@ case class AssignmentExpr[F[_]](
object AssignmentExpr extends Expr.Leaf {
override val p: P[AssignmentExpr[Span.S]] =
(((Name.cl | Name.p) <* ` = `).with1 ~ ValueToken.`value`).flatMap { case (variable, value) =>
((Name.variable <* ` = `).with1 ~ ValueToken.`value`).flatMap { case (variable, value) =>
value match {
case CollectionToken(_, values) =>
if (values.isEmpty)

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@ -12,7 +12,9 @@ import cats.{~>, Comonad}
case class CallArrowExpr[F[_]](
variables: List[Name[F]],
callArrow: CallArrowToken[F]
// Here `ValueToken` is used to allow
// a, b <- ServiceOrAbility.call()
callArrow: ValueToken[F]
) extends Expr[F](CallArrowExpr, callArrow) {
def mapK[K[_]: Comonad](fk: F ~> K): CallArrowExpr[K] =
@ -27,9 +29,9 @@ object CallArrowExpr extends Expr.Leaf {
override val p: P[CallArrowExpr[Span.S]] = {
val variables: P0[Option[NonEmptyList[Name[Span.S]]]] = (comma(Name.p) <* ` <- `).backtrack.?
(variables.with1 ~ CallArrowToken.callArrow.withContext(
"Only results of a function call can be written to a stream"
)).map { case (variables, token) =>
// TODO: Restrict to function call only
// or allow any expression?
(variables.with1 ~ ValueToken.value).map { case (variables, token) =>
CallArrowExpr(variables.toList.flatMap(_.toList), token)
}
}

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@ -3,14 +3,14 @@ package aqua.parser.expr.func
import aqua.parser.Expr
import aqua.parser.expr.*
import aqua.parser.lexer.Token.*
import aqua.parser.lexer.{ValueToken, VarToken}
import aqua.parser.lexer.{PropertyToken, ValueToken}
import aqua.parser.lift.{LiftParser, Span}
import aqua.parser.lift.Span.{P0ToSpan, PToSpan}
import cats.parse.Parser
import cats.{~>, Comonad}
import cats.data.NonEmptyList
case class JoinExpr[F[_]](values: NonEmptyList[VarToken[F]])
case class JoinExpr[F[_]](values: NonEmptyList[ValueToken[F]])
extends Expr[F](JoinExpr, values.head) {
override def mapK[K[_]: Comonad](fk: F ~> K): JoinExpr[K] =
@ -20,5 +20,5 @@ case class JoinExpr[F[_]](values: NonEmptyList[VarToken[F]])
object JoinExpr extends Expr.Leaf {
override val p: Parser[JoinExpr[Span.S]] =
(`join` *> ` ` *> comma(ValueToken.varProperty)).map(JoinExpr(_))
(`join` *> ` ` *> comma(PropertyToken.property)).map(JoinExpr(_))
}

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@ -20,7 +20,9 @@ case class ParExpr[F[_]](point: Token[F]) extends Expr[F](ParExpr, point) {
object ParExpr extends Expr.Prefix() {
override def continueWith: List[Expr.Lexem] =
CallArrowExpr :: OnExpr :: ForExpr :: JoinExpr :: Nil
// Here it is important for CallArrowExpr to be last
// because it could parse prefixes of other expressions
OnExpr :: ForExpr :: JoinExpr :: CallArrowExpr :: Nil
override val p: Parser[Expr[Span.S]] =
`par`.lift.map(Token.lift[Span.S, Unit](_)).map(ParExpr(_))

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@ -14,6 +14,8 @@ import aqua.parser.lift.Span.{P0ToSpan, PToSpan}
case class Name[F[_]: Comonad](name: F[String]) extends Token[F] {
override def as[T](v: T): F[T] = name.as(v)
def asTypeToken: NamedTypeToken[F] = NamedTypeToken(name)
override def mapK[K[_]: Comonad](fk: F ~> K): Name[K] = copy(fk(name))
def rename(newName: String): Name[F] = copy(name.as(newName))
@ -30,16 +32,12 @@ object Name {
val p: P[Name[Span.S]] =
`name`.lift.map(Name(_))
val cl: P[Name[Span.S]] =
`Class`.lift.map(Name(_))
val variable: P[Name[Span.S]] =
(name | Class).lift.map(Name(_))
val upper: P[Name[Span.S]] =
NAME.lift.map(Name(_))
val dotted: P[Name[Span.S]] =
((`Class` ~ `.`).backtrack.rep0.?.with1 ~ P.oneOf(`name` :: NAME :: Nil)).string.lift
.map(Name(_))
val nameAs: P[As[Span.S]] =
asOpt(p)
}

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@ -14,15 +14,18 @@ import cats.~>
import aqua.parser.lift.Span
import aqua.parser.lift.Span.{P0ToSpan, PToSpan}
import aqua.types.LiteralType
import aqua.parser.lexer.CallArrowToken.CallBraces
sealed trait PropertyOp[F[_]] extends Token[F] {
def mapK[K[_]: Comonad](fk: F ~> K): PropertyOp[K]
}
case class IntoArrow[F[_]: Comonad](name: Name[F], arguments: List[ValueToken[F]]) extends PropertyOp[F] {
case class IntoArrow[F[_]: Comonad](name: Name[F], arguments: List[ValueToken[F]])
extends PropertyOp[F] {
override def as[T](v: T): F[T] = name.as(v)
override def mapK[K[_]: Comonad](fk: F ~> K): PropertyOp[K] = copy(name.mapK(fk), arguments.map(_.mapK(fk)))
override def mapK[K[_]: Comonad](fk: F ~> K): PropertyOp[K] =
copy(name.mapK(fk), arguments.map(_.mapK(fk)))
override def toString: String = s".$name(${arguments.map(_.toString).mkString(", ")})"
}
@ -55,10 +58,12 @@ case class IntoCopy[F[_]: Comonad](point: F[Unit], fields: NonEmptyMap[String, V
object PropertyOp {
private val parseField: P[PropertyOp[Span.S]] =
(`.` *> `name`).lift.map(IntoField(_))
(`.` *> anyName).lift.map(IntoField(_))
val parseArrow: P[PropertyOp[Span.S]] =
(`.` *> CallArrowToken.callBraces()).lift.map(p => IntoArrow(p._2._1, p._2._2 ++ p._2._3))
(`.` *> CallArrowToken.callBraces).map { case CallBraces(name, abilities, args) =>
IntoArrow(name, abilities ++ args)
}
val parseCopy: P[PropertyOp[Span.S]] =
(`.` *> (`copy`.lift ~ namedArgs)).map { case (point, fields) =>
@ -67,7 +72,10 @@ object PropertyOp {
private val parseIdx: P[PropertyOp[Span.S]] =
(P.defer(
(ValueToken.`value`.surroundedBy(`/s*`).between(`[`.between(` *`, `/s*`), `/s*` *> `]`).lift | (exclamation *> ValueToken.num).lift)
(ValueToken.`value`
.surroundedBy(`/s*`)
.between(`[`.between(` *`, `/s*`), `/s*` *> `]`)
.lift | (exclamation *> ValueToken.num).lift)
.map(v => IntoIndex(v.map(_.unit), Some(v._2)))
.backtrack
) | exclamation.lift.map(e => IntoIndex(e, None))).flatMap { ii =>

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@ -28,7 +28,9 @@ object Token {
private val inAZ = P.charIn(AZ)
private val inaz = P.charIn(az)
private val whileAnum = P.charsWhile(anum_)
private val inaZ = P.charIn(az ++ AZ)
private val whileAnum_ = P.charsWhile(anum_)
private val whileUpperAnum_ = P.charsWhile(upperAnum_)
val ` *` : P0[String] = P.charsWhile0(fSpaces)
val ` ` : P[String] = P.charsWhile(fSpaces)
@ -68,14 +70,13 @@ object Token {
val `copy`: P[Unit] = P.string("copy")
val `:` : P[Unit] = P.char(':')
val ` : ` : P[Unit] = P.char(':').surroundedBy(` `.?)
val `anum_*` : P[Unit] = whileAnum.void
val `anum_*` : P[Unit] = whileAnum_.void
val NAME: P[String] = (inAZ ~ P.charsWhile(upperAnum_).?).string
val `name`: P[String] = (inaz ~ whileAnum.?).string
val NAME: P[String] = (inAZ ~ whileUpperAnum_.?).string
val `name`: P[String] = (inaz ~ whileAnum_.?).string
val `Class`: P[String] = (inAZ ~ whileAnum_.?).string
val anyName: P[String] = (inaZ ~ whileAnum_.?).string
val `Class`: P[String] = (inAZ ~ whileAnum.backtrack.?).map { case (c, s)
c.toString ++ s.getOrElse("")
}
val `\n` : P[Unit] = P.string("\n\r") | P.char('\n') | P.string("\r\n")
val `--` : P[Unit] = ` `.?.with1 *> P.string("--") <* ` `.?
@ -119,17 +120,16 @@ object Token {
val `/s*` : P0[Unit] = ` \n+`.backtrack | ` *`.void
val namedArg: P[(String, ValueToken[S])] =
P.defer(`name`.between(` *`, `/s*`) ~
P.defer(
`name`.between(` *`, `/s*`) ~
`=`.between(` *`, `/s*`).void ~
ValueToken.`value`.between(` *`, `/s*`)).map { case ((name, _), vt) =>
ValueToken.`value`.between(` *`, `/s*`)
).map { case ((name, _), vt) =>
(name, vt)
}
val namedArgs: P[NonEmptyList[(String, ValueToken[S])]] = P.defer(
((` `.?.with1 *> P.char('(') <* `/s*`) ~ comma(
namedArg
) <* (`/s*` *> P.char(')'))).map(_._2)
)
val namedArgs: P[NonEmptyList[(String, ValueToken[S])]] =
P.defer(` `.?.with1 ~ `(` ~ `/s*` *> comma(namedArg) <* `/s*` *> `)`)
case class LiftToken[F[_]: Functor, A](point: F[A]) extends Token[F] {
override def as[T](v: T): F[T] = Functor[F].as(point, v)

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@ -16,16 +16,153 @@ import cats.{~>, Comonad, Functor}
import cats.data.{NonEmptyList, NonEmptyMap}
import cats.syntax.foldable.*
import cats.arrow.FunctionK
import cats.syntax.traverse.*
import cats.syntax.option.*
sealed trait ValueToken[F[_]] extends Token[F] {
def mapK[K[_]: Comonad](fk: F ~> K): ValueToken[K]
}
case class VarToken[F[_]](name: Name[F], property: List[PropertyOp[F]] = Nil)
extends ValueToken[F] {
case class PropertyToken[F[_]: Comonad](
value: ValueToken[F],
properties: NonEmptyList[PropertyOp[F]]
) extends ValueToken[F] {
override def as[T](v: T): F[T] = value.as(v)
def mapK[K[_]: Comonad](fk: F ~> K): PropertyToken[K] =
copy(value.mapK(fk), properties.map(_.mapK(fk)))
private def isClass(name: String): Boolean =
name.headOption.exists(_.isUpper)
private def isField(name: String): Boolean =
name.headOption.exists(_.isLower)
private def isConst(name: String): Boolean =
name.forall(c => !c.isLetter || c.isUpper)
/**
* This method tries to convert property token to
* call arrow token.
*
* Next properties pattern is transformed:
* (Class)+ arrow()
* ^^^^^^^
* this part is transformed to ability name.
*/
private def toCallArrow: Option[CallArrowToken[F]] = value match {
case VarToken(name) =>
val ability = properties.init.traverse {
case f @ IntoField(_) => f.value.some
case _ => none
}.map(
name.value +: _
).filter(
_.forall(isClass)
).map(props => name.rename(props.mkString(".")))
(properties.last, ability) match {
case (IntoArrow(funcName, args), Some(ability)) =>
CallArrowToken(
ability.asTypeToken.some,
funcName,
args
).some
case _ => none
}
case _ => none
}
/**
* This method tries to convert property token to
* property token with dotted var name inside value token.
*
* Next properties pattern is untouched:
* Class (field)*
*
* Next properties pattern is transformed:
* (Class)* (CONST | field) ..props..
* ^^^^^^^^^^^^^^^^^^^^^^^^
* this part is transformed to dotted name.
*/
private def toDottedName: Option[ValueToken[F]] = value match {
case VarToken(name) =>
// Pattern `Class (field)*` is ability access
// and should not be transformed
val isAbility = isClass(name.value) && properties.forall {
case f @ IntoField(_) => isField(f.value)
case _ => true
}
if (isAbility) none
else {
// Gather prefix of properties that are IntoField
val props = name.value +: properties.toList.view.map {
case IntoField(name) => name.extract.some
case _ => none
}.takeWhile(_.isDefined).flatten.toList
val propsWithIndex = props.zipWithIndex
// Find first property that is not Class
val classesTill = propsWithIndex.find { case (name, _) =>
!isClass(name)
}.collect { case (_, idx) =>
idx
}.getOrElse(props.length)
// Find last property after classes
// that is CONST or field
val lastSuitable = propsWithIndex
.take(classesTill)
.findLast { case (name, _) =>
isConst(name) || isField(name)
}
.collect { case (_, idx) => idx }
lastSuitable.map(last =>
val newProps = NonEmptyList.fromList(
properties.toList.drop(last + 1)
)
val newName = props.take(last + 1).mkString(".")
val varToken = VarToken(name.rename(newName))
newProps.fold(varToken)(props => PropertyToken(varToken, props))
)
}
case _ => none
}
/**
* This is a hacky method to adjust parsing result
* to format that was used previously.
* This method tries to convert property token to
* call arrow token or property token with
* dotted var name inside value token.
*
* @return Some(token) if token was adjusted, None otherwise
*/
def adjust: Option[ValueToken[F]] =
toCallArrow.orElse(toDottedName)
}
object PropertyToken {
val property: P[ValueToken[Span.S]] =
(ValueToken.basic ~ PropertyOp.ops.backtrack.?).map { case (v, ops) =>
ops.fold(v)(ops => PropertyToken(v, ops))
}
}
case class VarToken[F[_]](name: Name[F]) extends ValueToken[F] {
override def as[T](v: T): F[T] = name.as(v)
def mapK[K[_]: Comonad](fk: F ~> K): VarToken[K] = copy(name.mapK(fk), property.map(_.mapK(fk)))
def mapK[K[_]: Comonad](fk: F ~> K): VarToken[K] = copy(name.mapK(fk))
}
object VarToken {
lazy val variable: P[VarToken[Span.S]] = Name.variable.map(VarToken(_))
}
case class LiteralToken[F[_]: Comonad](valueToken: F[String], ts: LiteralType)
@ -74,6 +211,9 @@ object CollectionToken {
}
case class CallArrowToken[F[_]: Comonad](
// NOTE: Call with ability is not parsed by CallArrowToken
// it is parsed by PropertyToken and then adjusted
// It is done for legacy support reasons
ability: Option[NamedTypeToken[F]],
funcName: Name[F],
args: List[ValueToken[F]]
@ -87,17 +227,23 @@ case class CallArrowToken[F[_]: Comonad](
object CallArrowToken {
def apply[F[_]: Comonad](funcName: Name[F], args: List[ValueToken[F]]): CallArrowToken[F] =
CallArrowToken(None, funcName, args)
case class CallBraces(name: Name[S], abilities: List[ValueToken[S]], args: List[ValueToken[S]])
// {SomeAb, SecondAb} for ValueToken
def abilities(): P[NonEmptyList[ValueToken[S]]] =
`{` *> comma(ValueToken.`value`.surroundedBy(`/s*`)) <* `}`
def callBraces(): P[CallBraces] = P
lazy val callBraces: P[CallBraces] = P
.defer(
Name.p
~ abilities().? ~ comma0(ValueToken.`value`.surroundedBy(`/s*`))
.between(` `.?.with1 *> `(` <* `/s*`, `/s*` *> `)`)
Name.p ~
abilities().? ~
comma0(ValueToken.`value`.surroundedBy(`/s*`)).between(
` `.?.with1 *> `(` <* `/s*`,
`/s*` *> `)`
)
)
.map { case ((n, ab), args) =>
CallBraces(n, ab.map(_.toList).getOrElse(Nil), args)
@ -107,12 +253,8 @@ object CallArrowToken {
)
val callArrow: P[CallArrowToken[Span.S]] =
((NamedTypeToken.dotted <* `.`).?.with1 ~
callBraces()
.withContext(
"Missing braces '()' after the function call"
)).map { case (ab, callBraces) =>
CallArrowToken(ab, callBraces.name, callBraces.abilities ++ callBraces.args)
callBraces.map { braces =>
CallArrowToken(braces.name, braces.abilities ++ braces.args)
}
}
@ -135,7 +277,7 @@ object NamedValueToken {
"Missing braces '()' after the struct type"
)
.map { case (dn, args) =>
NamedValueToken(NamedTypeToken(dn), NonEmptyMap.of(args.head, args.tail: _*))
NamedValueToken(NamedTypeToken(dn), args.toNem)
}
}
@ -409,16 +551,6 @@ object PrefixToken {
object ValueToken {
val varProperty: P[VarToken[Span.S]] =
(Name.dotted ~ PropertyOp.ops.?).map { case (n, l)
VarToken(n, l.foldMap(_.toList))
}
val abProperty: P[VarToken[Span.S]] =
(Name.cl ~ PropertyOp.ops.?).map { case (n, l)
VarToken(n, l.foldMap(_.toList))
}
val bool: P[LiteralToken[Span.S]] =
P.oneOf(
("true" :: "false" :: Nil)
@ -456,20 +588,23 @@ object ValueToken {
private def brackets(basic: P[ValueToken[Span.S]]): P[ValueToken[Span.S]] =
basic.between(`(`, `)`).backtrack
// Basic element of math expression
val atom: P[ValueToken[S]] = P.oneOf(
// Basic element of value expression
// (without property access)
val basic = P.oneOf(
literal.backtrack ::
initPeerId.backtrack ::
P.defer(CollectionToken.collection).backtrack ::
P.defer(NamedValueToken.dataValue).backtrack ::
P.defer(CallArrowToken.callArrow).backtrack ::
P.defer(abProperty).backtrack ::
P.defer(VarToken.variable).backtrack ::
P.defer(PrefixToken.value).backtrack ::
P.defer(brackets(InfixToken.value)).backtrack ::
varProperty ::
P.defer(brackets(value)).backtrack ::
Nil
)
// Atomic element of math expression
val atom: P[ValueToken[S]] = P.defer(PropertyToken.property)
// One of entry points for parsing the whole math expression
val `value`: P[ValueToken[Span.S]] =
P.defer(InfixToken.value)

View File

@ -20,6 +20,7 @@ import aqua.parser.lift.Span
import aqua.parser.lift.Span.{P0ToSpan, PToSpan}
import cats.~>
import cats.syntax.bifunctor.*
import cats.data.NonEmptyList
import scala.collection.mutable
import scala.language.implicitConversions
@ -33,35 +34,43 @@ object AquaSpec {
}
}
implicit def toAb(str: String): Ability[Id] = Ability[Id](str)
def toName(str: String): Name[Id] = Name[Id](str)
implicit def toName(str: String): Name[Id] = Name[Id](str)
implicit def toNameOp(str: Option[String]): Option[Name[Id]] = str.map(s => toName(s))
def toNameOp(str: Option[String]): Option[Name[Id]] = str.map(s => toName(s))
implicit def toFields(fields: List[String]): List[IntoField[Id]] =
fields.map(f => IntoField[Id](f))
def toAb(str: String): Ability[Id] = Ability[Id](str)
implicit def toVar(name: String): VarToken[Id] = VarToken[Id](toName(name), Nil)
def toVar(name: String): VarToken[Id] = VarToken[Id](toName(name))
implicit def toVarOp(name: Option[String]): Option[VarToken[Id]] =
name.map(s => VarToken[Id](toName(s), Nil))
def toVarOp(name: Option[String]): Option[VarToken[Id]] =
name.map(toVar)
implicit def toVarLambda(name: String, fields: List[String]): VarToken[Id] =
VarToken[Id](toName(name), toFields(fields))
def toVarLambda(name: String, fields: List[String]): ValueToken[Id] =
NonEmptyList
.fromList(fields)
.fold(toVar(name))(fs =>
PropertyToken(
toVar(name),
fs.map(IntoField[Id].apply)
)
)
implicit def toVarIndex(name: String, idx: Int): VarToken[Id] =
VarToken[Id](toName(name), IntoIndex[Id](toNumber(idx).unit, Some(toNumber(idx))) :: Nil)
implicit def toLiteral(name: String, t: LiteralType): LiteralToken[Id] = LiteralToken[Id](name, t)
def toVarIndex(name: String, idx: Int): PropertyToken[Id] =
PropertyToken[Id](
VarToken[Id](toName(name)),
NonEmptyList.one(IntoIndex[Id](toNumber(idx).unit, Some(toNumber(idx))))
)
implicit def toNumber(n: Int): LiteralToken[Id] =
LiteralToken[Id](n.toString, LiteralType.forInt(n))
implicit def toBool(n: Boolean): LiteralToken[Id] = LiteralToken[Id](n.toString, bool)
implicit def toStr(n: String): LiteralToken[Id] = LiteralToken[Id]("\"" + n + "\"", string)
def toLiteral(name: String, t: LiteralType): LiteralToken[Id] = LiteralToken[Id](name, t)
implicit def toNamedType(str: String): NamedTypeToken[Id] = NamedTypeToken[Id](str)
def toNumber(n: Int): LiteralToken[Id] = LiteralToken[Id](n.toString, LiteralType.forInt(n))
def toBool(n: Boolean): LiteralToken[Id] = LiteralToken[Id](n.toString, bool)
def toStr(n: String): LiteralToken[Id] = LiteralToken[Id]("\"" + n + "\"", string)
def toNamedType(str: String): NamedTypeToken[Id] = NamedTypeToken[Id](str)
def toArrayType(str: String): ArrayTypeToken[Id] = ArrayTypeToken[Id]((), str)
implicit def toArrowType(
def toArrowType(
args: List[DataTypeToken[Id]],
res: Option[DataTypeToken[Id]]
): ArrowTypeToken[Id] =
@ -73,18 +82,23 @@ object AquaSpec {
): ArrowTypeToken[Id] =
ArrowTypeToken[Id]((), args.map(ab => Some(Name[Id](ab._1)) -> ab._2), res)
implicit def toNamedArg(str: String, customType: String): Arg[Id] =
def toNamedArg(str: String, customType: String): Arg[Id] =
Arg[Id](str, toNamedType(customType))
implicit def toArg(str: String, typeToken: TypeToken[Id]): Arg[Id] = Arg[Id](str, typeToken)
def toArg(str: String, typeToken: TypeToken[Id]): Arg[Id] = Arg[Id](str, typeToken)
implicit def toArgSc(str: String, scalarType: ScalarType): Arg[Id] =
def toArgSc(str: String, scalarType: ScalarType): Arg[Id] =
Arg[Id](str, scToBt(scalarType))
implicit def scToBt(sc: ScalarType): BasicTypeToken[Id] = BasicTypeToken[Id](sc)
def scToBt(sc: ScalarType): BasicTypeToken[Id] = BasicTypeToken[Id](sc)
val boolSc: BasicTypeToken[Id] = BasicTypeToken[Id](ScalarType.bool)
val stringSc: BasicTypeToken[Id] = BasicTypeToken[Id](ScalarType.string)
given Conversion[String, Name[Id]] = toName
given Conversion[String, NamedTypeToken[Id]] = toNamedType
given Conversion[Int, LiteralToken[Id]] = toNumber
given Conversion[ScalarType, BasicTypeToken[Id]] = scToBt
}
trait AquaSpec extends EitherValues {
@ -116,8 +130,8 @@ trait AquaSpec extends EitherValues {
def parseAssign(str: String): AssignmentExpr[Id] =
AssignmentExpr.p.parseAll(str).value.mapK(spanToId)
def parseVar(str: String): VarToken[Id] =
ValueToken.varProperty.parseAll(str).value.mapK(spanToId)
def parseVar(str: String): ValueToken[Id] =
ValueToken.value.parseAll(str).value.mapK(spanToId)
def parseData(str: String): NamedValueToken[Id] =
NamedValueToken.dataValue.parseAll(str).value.mapK(spanToId)

View File

@ -16,14 +16,15 @@ class AbilityValueExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec.*
private def parseAndCheckAbility(str: String) = {
parseData(
str
) should be(
parseData(str) should be(
NamedValueToken(
NamedTypeToken[Id]("AbilityA"),
NonEmptyMap.of(
"v1" -> toNumber(1),
"f1" -> VarToken(Name[Id]("input"), IntoField[Id]("arrow") :: Nil)
"f1" -> PropertyToken[Id](
VarToken(toName("input")),
NonEmptyList.one(IntoField("arrow"))
)
)
)
)

View File

@ -9,7 +9,7 @@ import org.scalatest.matchers.should.Matchers
class AliasExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
"alias" should "be parsed properly" in {
parseAlias("alias SomeAlias : u32") should be(

View File

@ -10,7 +10,7 @@ import org.scalatest.matchers.should.Matchers
class ArrowTypeExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
"arrow types" should "be parsed properly" in {
parseArrow("onIn: string -> ()") should be(
@ -31,7 +31,14 @@ class ArrowTypeExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
parseArrow("onIn{SomeAb}(a: Custom, b: Custom2)") should be(
ArrowTypeExpr[Id](
"onIn",
toNamedArrow(List("SomeAb" -> toNamedType("SomeAb"), "a" -> toNamedType("Custom"), "b" -> toNamedType("Custom2")), Nil)
toNamedArrow(
List(
"SomeAb" -> toNamedType("SomeAb"),
"a" -> toNamedType("Custom"),
"b" -> toNamedType("Custom2")
),
Nil
)
)
)

View File

@ -8,7 +8,7 @@ import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
class AssignmentExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
"assign" should "be parsed" in {
parseAssign("a = \"b\"") should be(

View File

@ -2,7 +2,9 @@ package aqua.parser
import aqua.AquaSpec
import aqua.parser.expr.func.CallArrowExpr
import aqua.parser.lexer.{CallArrowToken, Name, VarToken}
import aqua.parser.lexer.{CallArrowToken, IntoArrow, Name, PropertyToken, VarToken}
import cats.data.NonEmptyList
import cats.Id
import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
@ -12,19 +14,25 @@ class CallArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
"func calls" should "parse func()" in {
parseExpr("func()") should be(
CallArrowExpr[Id](Nil, CallArrowToken(None, toName("func"), Nil))
CallArrowExpr[Id](Nil, CallArrowToken(toName("func"), Nil))
)
parseExpr("Ab.func(arg)") should be(
CallArrowExpr[Id](
Nil,
CallArrowToken(Some(toNamedType("Ab")), Name[Id]("func"), List(VarToken[Id](toName("arg"))))
PropertyToken[Id](
VarToken[Id](toName("Ab")),
NonEmptyList.one(
IntoArrow(toName("func"), toVar("arg") :: Nil)
)
)
)
)
parseExpr("func(arg.doSomething)") should be(
CallArrowExpr[Id](
Nil,
CallArrowToken(None, Name[Id]("func"), List(toVarLambda("arg", List("doSomething"))))
CallArrowToken(Name[Id]("func"), List(toVarLambda("arg", List("doSomething"))))
)
)
@ -32,7 +40,6 @@ class CallArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
CallArrowExpr[Id](
Nil,
CallArrowToken(
None,
Name[Id]("func"),
List(toVarLambda("arg", List("doSomething", "and", "doSomethingElse")))
)
@ -43,7 +50,6 @@ class CallArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
CallArrowExpr[Id](
Nil,
CallArrowToken(
None,
Name[Id]("func"),
List(toVarLambda("arg", List("doSomething", "and", "doSomethingElse")))
)
@ -53,9 +59,11 @@ class CallArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
parseExpr("Ab.func(arg.doSomething.and.doSomethingElse, arg2.someFunc)") should be(
CallArrowExpr[Id](
Nil,
CallArrowToken(
Some(toNamedType("Ab")),
Name[Id]("func"),
PropertyToken[Id](
VarToken[Id](toName("Ab")),
NonEmptyList.one(
IntoArrow(
toName("func"),
List(
toVarLambda("arg", List("doSomething", "and", "doSomethingElse")),
toVarLambda("arg2", List("someFunc"))
@ -63,12 +71,13 @@ class CallArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
)
)
)
)
)
parseExpr("x <- func(arg.doSomething)") should be(
CallArrowExpr[Id](
List(toName("x")),
CallArrowToken(
None,
Name[Id]("func"),
List(
toVarLambda("arg", List("doSomething"))
@ -81,7 +90,6 @@ class CallArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
CallArrowExpr[Id](
toName("x") :: toName("y") :: toName("z") :: Nil,
CallArrowToken(
None,
Name[Id]("func"),
List(
toVarLambda("arg", List("doSomething"))

View File

@ -2,8 +2,16 @@ package aqua.parser
import aqua.AquaSpec
import aqua.parser.expr.{FuncExpr, RootExpr}
import aqua.parser.expr.func.{ArrowExpr, CallArrowExpr, ClosureExpr, ReturnExpr}
import aqua.parser.lexer.{Ability, CallArrowToken, NamedTypeToken, Token, VarToken}
import aqua.parser.expr.func.{ArrowExpr, AssignmentExpr, CallArrowExpr, ClosureExpr, ReturnExpr}
import aqua.parser.lexer.{
Ability,
CallArrowToken,
IntoArrow,
NamedTypeToken,
PropertyToken,
Token,
VarToken
}
import aqua.types.ScalarType.string
import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
@ -15,7 +23,7 @@ import scala.collection.mutable
class ClosureExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
val parser = Parser.spanParser
@ -53,16 +61,26 @@ class ClosureExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
qTree.d() shouldBe ArrowExpr(toNamedArrow(("s", scToBt(string)) :: Nil, scToBt(string) :: Nil))
qTree.d() shouldBe CallArrowExpr(
Nil,
CallArrowToken(Some(NamedTypeToken[Id]("LocalSrv")), toName("inside"), Nil)
PropertyToken[Id](
VarToken[Id](toName("LocalSrv")),
NonEmptyList.one(
IntoArrow[Id](toName("inside"), Nil)
)
)
)
qTree.d() shouldBe CallArrowExpr(
toName("p2Id") :: Nil,
CallArrowToken(Some(NamedTypeToken[Id]("Peer")), toName("identify"), Nil)
PropertyToken[Id](
VarToken[Id](toName("Peer")),
NonEmptyList.one(
IntoArrow[Id](toName("identify"), Nil)
)
)
)
qTree.d() shouldBe ReturnExpr(NonEmptyList(VarToken[Id](toName("p2Id")), Nil))
qTree.d() shouldBe CallArrowExpr(
toName("v") :: Nil,
CallArrowToken(None, toName("closure"), toStr("input") :: Nil)
CallArrowToken(toName("closure"), toStr("input") :: Nil)
)
qTree.d() shouldBe ReturnExpr(NonEmptyList(VarToken[Id](toName("v")), Nil))
}

View File

@ -1,34 +1,95 @@
package aqua.parser
import aqua.AquaSpec
import aqua.AquaSpec.spanToId
import aqua.parser.expr.func.{CallArrowExpr, CoExpr}
import aqua.AquaSpec.*
import aqua.parser.expr.func.{CallArrowExpr, CoExpr, ForExpr, JoinExpr, OnExpr}
import aqua.parser.lexer.{CallArrowToken, Token}
import aqua.parser.lift.LiftParser.Implicits.idLiftParser
import cats.data.Chain
import cats.data.{Chain, NonEmptyList}
import cats.free.Cofree
import cats.{Eval, Id}
import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
import org.scalatest.Inside
class CoExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
class CoExprSpec extends AnyFlatSpec with Matchers with Inside with AquaSpec {
"co" should "be parsed" in {
CoExpr.readLine.parseAll("co x <- y()").value.map(_.mapK(spanToId)).forceAll should be(
Cofree[Chain, Expr[Id]](
CoExpr[Id](Token.lift[Id, Unit](())),
def insideCo(str: String)(testFun: Ast.Tree[Id] => Any) =
inside(CoExpr.readLine.parseAll(str).map(_.map(_.mapK(spanToId)).forceAll)) {
case Right(tree) => testFun(tree)
}
def co(expr: Expr[Id]): Ast.Tree[Id] =
Cofree(
CoExpr(Token.lift(())),
Eval.now(
Chain(
Cofree[Chain, Expr[Id]](
CallArrowExpr(
List(AquaSpec.toName("x")),
CallArrowToken(None, AquaSpec.toName("y"), Nil)
),
Cofree(
expr,
Eval.now(Chain.empty)
)
)
)
)
"co" should "be parsed" in {
insideCo("co x <- y()")(
_ should be(
co(
CallArrowExpr(
List(toName("x")),
CallArrowToken(toName("y"), Nil)
)
)
)
)
insideCo("co call()")(
_ should be(
co(
CallArrowExpr(
Nil,
CallArrowToken(toName("call"), Nil)
)
)
)
)
insideCo("co on call() via relay:")(
_ should be(
co(
OnExpr(
CallArrowToken(toName("call"), Nil),
toVar("relay") :: Nil
)
)
)
)
insideCo("co join call(), x")(
_ should be(
co(
JoinExpr(
NonEmptyList.of(
CallArrowToken(toName("call"), Nil),
toVar("x")
)
)
)
)
)
insideCo("co for w <- getWorkers():")(
_ should be(
co(
ForExpr(
toName("w"),
CallArrowToken(toName("getWorkers"), Nil),
None
)
)
)
)
}
}

View File

@ -9,7 +9,7 @@ import org.scalatest.matchers.should.Matchers
class DataStructExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
"data struct" should "be parsed properly" in {
parseDataStruct("data Smth") should be(

View File

@ -8,7 +8,7 @@ import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
class FieldTypeExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
"else" should "be parsed" in {
parseFieldType("some: bool") should be(

View File

@ -7,7 +7,7 @@ import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
class ForExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
"for expression" should "be parsed" in {
parseFor("for some <- \"a\"") should be(

View File

@ -29,9 +29,12 @@ import scala.collection.mutable
import scala.language.implicitConversions
import aqua.parser.lift.Span
import aqua.parser.lift.Span.{P0ToSpan, PToSpan}
import aqua.parser.lexer.PropertyToken
import aqua.parser.lexer.IntoArrow
import aqua.parser.expr.func.AssignmentExpr
class FuncExprSpec extends AnyFlatSpec with Matchers with Inside with Inspectors with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
private val parser = Parser.spanParser
@ -110,11 +113,19 @@ class FuncExprSpec extends AnyFlatSpec with Matchers with Inside with Inspectors
).toList
ifBody.head.head.mapK(spanToId) should be(
CallArrowExpr(List(toName("x")), CallArrowToken(Some(toNamedType("Ab")), "func", Nil))
CallArrowExpr(
List(toName("x")),
PropertyToken[Id](
VarToken[Id](toName("Ab")),
NonEmptyList.one(
IntoArrow[Id](toName("func"), Nil)
)
)
)
)
ifBody(1).head.mapK(spanToId) should be(AbilityIdExpr(toNamedType("Peer"), toStr("some id")))
ifBody(2).head.mapK(spanToId) should be(
CallArrowExpr(Nil, CallArrowToken(None, "call", List(toBool(true))))
CallArrowExpr(Nil, CallArrowToken("call", List(toBool(true))))
)
}
@ -255,7 +266,12 @@ class FuncExprSpec extends AnyFlatSpec with Matchers with Inside with Inspectors
qTree.d() shouldBe OnExpr(toStr("deeper"), List(toStr("deep")))
qTree.d() shouldBe CallArrowExpr(
List("v"),
CallArrowToken(Some(toNamedType("Local")), "gt", Nil)
PropertyToken[Id](
VarToken[Id](toName("Local")),
NonEmptyList.one(
IntoArrow[Id](toName("gt"), Nil)
)
)
)
qTree.d() shouldBe ReturnExpr(NonEmptyList.one(toVar("v")))
// genC function
@ -267,13 +283,23 @@ class FuncExprSpec extends AnyFlatSpec with Matchers with Inside with Inspectors
qTree.d() shouldBe ArrowExpr(toNamedArrow(("val" -> string) :: Nil, boolSc :: Nil))
qTree.d() shouldBe CallArrowExpr(
List("one"),
CallArrowToken(Some(toNamedType("Local")), "gt", Nil)
PropertyToken[Id](
VarToken[Id](toName("Local")),
NonEmptyList.one(
IntoArrow[Id](toName("gt"), Nil)
)
)
)
qTree.d() shouldBe OnExpr(toStr("smth"), List(toStr("else")))
qTree.d() shouldBe CallArrowExpr(List("two"), CallArrowToken(None, "tryGen", Nil))
qTree.d() shouldBe CallArrowExpr(List("two"), CallArrowToken("tryGen", Nil))
qTree.d() shouldBe CallArrowExpr(
List("three"),
CallArrowToken(Some(toNamedType("Local")), "gt", Nil)
PropertyToken[Id](
VarToken[Id](toName("Local")),
NonEmptyList.one(
IntoArrow[Id](toName("gt"), Nil)
)
)
)
qTree.d() shouldBe ReturnExpr(NonEmptyList.one(toVar("two")))
}

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@ -3,9 +3,19 @@ package aqua.parser
import aqua.AquaSpec
import aqua.parser.expr.func.IfExpr
import aqua.parser.lexer.InfixToken.Op.{Add, Sub}
import aqua.parser.lexer.{CallArrowToken, CollectionToken, InfixToken}
import aqua.parser.lexer.{
CallArrowToken,
CollectionToken,
InfixToken,
IntoArrow,
PropertyToken,
ValueToken,
VarToken
}
import aqua.parser.lexer.CollectionToken.Mode.OptionMode
import cats.Id
import cats.data.NonEmptyList
import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
@ -41,27 +51,43 @@ class IfExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
parseIf("if Op.identity(\"str\") == \"a\"") should be(
IfExpr[Id](
equ(
CallArrowToken[Id](Some(toNamedType("Op")), toName("identity"), toStr("str") :: Nil),
PropertyToken[Id](
VarToken[Id](toName("Op")),
NonEmptyList.one(
IntoArrow(toName("identity"), toStr("str") :: Nil)
)
),
toStr("a")
)
)
)
parseIf("if Op.identity(\"str\") != Op.identity(\"str\")") should be(
parseIf("if Op.identity(\"str\") != Op.identity(\"str\")") should be {
val operand = PropertyToken[Id](
VarToken[Id](toName("Op")),
NonEmptyList.one(
IntoArrow(toName("identity"), toStr("str") :: Nil)
)
)
IfExpr[Id](
neq(
CallArrowToken[Id](Some(toNamedType("Op")), toName("identity"), toStr("str") :: Nil),
CallArrowToken[Id](Some(toNamedType("Op")), toName("identity"), toStr("str") :: Nil)
)
operand,
operand
)
)
}
parseIf("if 2 - 3 != Op.identity(4) + 5") should be(
IfExpr[Id](
neq(
sub(toNumber(2), toNumber(3)),
add(
CallArrowToken[Id](Some(toNamedType("Op")), toName("identity"), toNumber(4) :: Nil),
PropertyToken[Id](
VarToken[Id](toName("Op")),
NonEmptyList.one(
IntoArrow(toName("identity"), toNumber(4) :: Nil)
)
),
toNumber(5)
)
)
@ -71,8 +97,8 @@ class IfExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
parseIf("if funcCall(3) == funcCall2(4)") should be(
IfExpr[Id](
equ(
CallArrowToken[Id](None, toName("funcCall"), toNumber(3) :: Nil),
CallArrowToken[Id](None, toName("funcCall2"), toNumber(4) :: Nil)
CallArrowToken[Id](toName("funcCall"), toNumber(3) :: Nil),
CallArrowToken[Id](toName("funcCall2"), toNumber(4) :: Nil)
)
)
)

View File

@ -1,10 +1,12 @@
package aqua.parser
import aqua.AquaSpec
import aqua.parser.lexer.{IntoArrow, PropertyOp, VarToken}
import aqua.parser.lexer.{IntoArrow, PropertyOp, PropertyToken, VarToken}
import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
import cats.Id
import cats.data.NonEmptyList
class IntoArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec.*
@ -27,7 +29,11 @@ class IntoArrowSpec extends AnyFlatSpec with Matchers with AquaSpec {
val arrowStr = "input.arrow(\"\")"
val result = parseVar(arrowStr)
val expected = VarToken[Id](toName("input"), IntoArrow[Id](toName("arrow"), toStr("") :: Nil) :: Nil)
val expected = PropertyToken[Id](
VarToken[Id](toName("input")),
NonEmptyList.one(IntoArrow[Id](toName("arrow"), toStr("") :: Nil))
)
result should be(expected)
}
}

View File

@ -1,40 +1,95 @@
package aqua.parser
import aqua.AquaSpec
import aqua.parser.expr.func.{CallArrowExpr, ParExpr}
import aqua.AquaSpec.*
import aqua.parser.expr.func.{CallArrowExpr, ForExpr, JoinExpr, OnExpr, ParExpr}
import aqua.parser.lexer.{CallArrowToken, Token}
import aqua.parser.lift.LiftParser.Implicits.idLiftParser
import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
import org.scalatest.Inside
import cats.{Eval, Id}
import aqua.parser.lift.LiftParser.Implicits.idLiftParser
import cats.data.Chain
import cats.data.{Chain, NonEmptyList}
import cats.free.Cofree
class ParExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
class ParExprSpec extends AnyFlatSpec with Matchers with Inside with AquaSpec {
import AquaSpec._
def insidePar(str: String)(testFun: Ast.Tree[Id] => Any) =
inside(ParExpr.readLine.parseAll(str).map(_.map(_.mapK(spanToId)).forceAll)) {
case Right(tree) => testFun(tree)
}
"par" should "be parsed" in {
ParExpr.readLine.parseAll("par x <- y()").value.map(_.mapK(spanToId)).forceAll should be(
Cofree[Chain, Expr[Id]](
ParExpr[Id](Token.lift[Id, Unit](())),
def par(expr: Expr[Id]): Ast.Tree[Id] =
Cofree(
ParExpr(Token.lift(())),
Eval.now(
Chain(
Cofree[Chain, Expr[Id]](
CallArrowExpr(
List(AquaSpec.toName("x")),
CallArrowToken(
None,
AquaSpec.toName("y"),
Nil
)
),
Cofree(
expr,
Eval.now(Chain.empty)
)
)
)
)
"par" should "be parsed" in {
insidePar("par x <- y()")(
_ should be(
par(
CallArrowExpr(
List(toName("x")),
CallArrowToken(toName("y"), Nil)
)
)
)
)
insidePar("par call()")(
_ should be(
par(
CallArrowExpr(
Nil,
CallArrowToken(toName("call"), Nil)
)
)
)
)
insidePar("par on call() via relay:")(
_ should be(
par(
OnExpr(
CallArrowToken(toName("call"), Nil),
toVar("relay") :: Nil
)
)
)
)
insidePar("par join call(), x")(
_ should be(
par(
JoinExpr(
NonEmptyList.of(
CallArrowToken(toName("call"), Nil),
toVar("x")
)
)
)
)
)
insidePar("par for w <- getWorkers():")(
_ should be(
par(
ForExpr(
toName("w"),
CallArrowToken(toName("getWorkers"), Nil),
None
)
)
)
)
}
}

View File

@ -7,7 +7,7 @@ import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
class PushToStreamExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
import AquaSpec._
import AquaSpec.{given, *}
"assign" should "be parsed" in {
parsePush("a <<- \"b\"") should be(

View File

@ -13,6 +13,7 @@ import aqua.parser.lexer.{
Name,
NamedTypeToken,
NamedValueToken,
PropertyToken,
Token,
ValueToken,
VarToken
@ -51,12 +52,15 @@ class StructValueExprSpec extends AnyFlatSpec with Matchers with AquaSpec {
NonEmptyMap.of(
"i1" -> two,
"i2" -> b,
"i3" -> CallArrowToken(None, Name[Id]("funcCall"), List(three)),
"i4" -> VarToken[Id](Name[Id]("value"), Nil)
"i3" -> CallArrowToken(Name[Id]("funcCall"), List(three)),
"i4" -> VarToken[Id](Name[Id]("value"))
)
),
"f6" -> CallArrowToken(None, Name[Id]("funcCall"), List(one)),
"f7" -> CallArrowToken(Option(NamedTypeToken[Id]("Serv")), Name[Id]("call"), List(two))
"f6" -> CallArrowToken(Name[Id]("funcCall"), List(one)),
"f7" -> PropertyToken[Id](
VarToken[Id](Name[Id]("Serv")),
NonEmptyList.one(IntoArrow[Id](Name[Id]("call"), List(two)))
)
)
)
)

View File

@ -26,13 +26,13 @@ class ValueTokenComplexSpec extends AnyFlatSpec with Matchers with Inside with A
}
}
import AquaSpec.*
import AquaSpec.{given, *}
private def variable(name: String): ValueToken[Id] =
VarToken(Name(name), Nil)
VarToken(Name(name))
private def func(name: String, args: List[ValueToken[Id]]): ValueToken[Id] =
CallArrowToken(None, Name(name), args)
CallArrowToken(Name(name), args)
private def literal(n: Int): ValueToken[Id] = toNumber(n)

View File

@ -10,7 +10,7 @@ import org.scalatest.matchers.should.Matchers
class PropertyOpSpec extends AnyFlatSpec with Matchers with EitherValues {
import aqua.AquaSpec._
import aqua.AquaSpec.{given, *}
"lambda ops" should "parse" in {
val opsP = (s: String) => PropertyOp.ops.parseAll(s).value.map(_.mapK(spanToId))

View File

@ -5,7 +5,9 @@ import org.scalatest.flatspec.AnyFlatSpec
import org.scalatest.matchers.should.Matchers
import aqua.parser.lift.LiftParser.Implicits.idLiftParser
import aqua.types.LiteralType
import cats.Id
import cats.data.NonEmptyList
class ValueTokenSpec extends AnyFlatSpec with Matchers with EitherValues {
@ -13,13 +15,21 @@ class ValueTokenSpec extends AnyFlatSpec with Matchers with EitherValues {
"var getter" should "parse" in {
ValueToken.`value`.parseAll("varname").value.mapK(spanToId) should be(
VarToken(Name[Id]("varname"), Nil)
VarToken(Name[Id]("varname"))
)
ValueToken.`value`.parseAll("varname.field").value.mapK(spanToId) should be(
VarToken(Name[Id]("varname"), IntoField[Id]("field") :: Nil)
PropertyToken[Id](
VarToken(Name[Id]("varname")),
NonEmptyList.one(IntoField[Id]("field"))
)
)
ValueToken.`value`.parseAll("varname.field.sub").value.mapK(spanToId) should be(
VarToken(Name[Id]("varname"), IntoField[Id]("field") :: IntoField[Id]("sub") :: Nil)
PropertyToken[Id](
VarToken(Name[Id]("varname")),
NonEmptyList.of(IntoField[Id]("field"), IntoField[Id]("sub"))
)
)
}

View File

@ -12,47 +12,43 @@ class VarLambdaSpec extends AnyFlatSpec with Matchers with EitherValues {
import aqua.AquaSpec._
"var lambda" should "parse" in {
val opsP = (s: String) => Name.dotted.parseAll(s).value.mapK(spanToId)
val opsP = (s: String) => ValueToken.value.parseAll(s).value.mapK(spanToId)
opsP("SomeClass.some_val") should be(Name[Id]("SomeClass.some_val"))
opsP("some_val") should be(
VarToken[Id](Name[Id]("some_val"))
)
opsP("some_val") should be(Name[Id]("some_val"))
opsP("SOME_CONST") should be(
VarToken[Id](Name[Id]("SOME_CONST"))
)
opsP("SOME_CONST") should be(Name[Id]("SOME_CONST"))
opsP("SomeClass.some_val") should be(
PropertyToken[Id](
VarToken[Id](Name[Id]("SomeClass")),
NonEmptyList.one(IntoField[Id]("some_val"))
)
)
opsP("SomeClass.SOME_CONST") should be(Name[Id]("SomeClass.SOME_CONST"))
}
opsP("SomeClass.Some_Other_Class") should be(
PropertyToken[Id](
VarToken[Id](Name[Id]("SomeClass")),
NonEmptyList.one(IntoField[Id]("Some_Other_Class"))
)
)
"var lambda in VarToken" should "parse" in {
val opsP = (s: String) => ValueToken.varProperty.parseAll(s).value.mapK(spanToId)
opsP("some_val") should be(VarToken[Id](Name[Id]("some_val")))
opsP("SomeClass.SOME_CONST") should be(VarToken[Id](Name[Id]("SomeClass.SOME_CONST")))
}
"var lambda in value" should "parse" in {
val opsP = (s: String) => ValueToken.atom.parseAll(s).value.mapK(spanToId)
opsP("some_val") should be(VarToken[Id](Name[Id]("some_val")))
opsP("SomeClass.SOME_CONST") should be(VarToken[Id](Name[Id]("SomeClass.SOME_CONST")))
}
"var lambda in ability" should "parse" in {
val opsP = (s: String) => ValueToken.abProperty.parseAll(s).value.mapK(spanToId)
opsP("SomeClass") should be(VarToken[Id](Name[Id]("SomeClass")))
opsP("SomeClass.SOME_CONST") should be(
PropertyToken[Id](
VarToken[Id](Name[Id]("SomeClass")),
NonEmptyList.one(IntoField[Id]("SOME_CONST"))
)
)
opsP("SomeClass.call()") should be(
VarToken[Id](Name[Id]("SomeClass"), IntoArrow(Name[Id]("call"), Nil) :: Nil)
PropertyToken[Id](
VarToken[Id](Name[Id]("SomeClass")),
NonEmptyList.one(IntoArrow[Id](Name[Id]("call"), Nil))
)
)
}
"parse Class " should "parse" in {
val opsP = (s: String) => Name.cl.parseAll(s).value.mapK(spanToId)
opsP("SomeClass") should be(Name[Id]("SomeClass"))
opsP("SC") should be(Name[Id]("SC"))
}
}

View File

@ -70,6 +70,9 @@ object Prog {
def after[Alg[_]: Monad, A](prog: A => Alg[A]): Prog[Alg, A] =
RunAround(Monad[Alg].unit, (_: Unit, a: A) => prog(a))
def after_[Alg[_]: Monad, A](prog: => Alg[A]): Prog[Alg, A] =
after(_ => prog)
def around[Alg[_]: Monad, R, A](before: Alg[R], after: (R, A) => Alg[A]): Prog[Alg, A] =
RunAround(before, after)

View File

@ -10,12 +10,13 @@ import aqua.semantics.rules.abilities.AbilitiesAlgebra
import aqua.semantics.rules.definitions.DefinitionsAlgebra
import aqua.semantics.rules.names.NamesAlgebra
import aqua.semantics.rules.types.TypesAlgebra
import aqua.types.{ArrowType, AbilityType, Type}
import aqua.types.{AbilityType, ArrowType, Type}
import cats.syntax.apply.*
import cats.syntax.flatMap.*
import cats.syntax.functor.*
import cats.syntax.applicative.*
import cats.syntax.semigroupal.*
import cats.syntax.traverse.*
import cats.Monad
import cats.data.{NonEmptyList, NonEmptyMap}
@ -25,21 +26,15 @@ class AbilitySem[S[_]](val expr: AbilityExpr[S]) extends AnyVal {
T: TypesAlgebra[S, Alg],
D: DefinitionsAlgebra[S, Alg]
): Prog[Alg, Raw] = {
Prog.after(_ =>
D.purgeDefs(expr.name).flatMap {
case Some(fields) =>
val t = AbilityType(expr.name.value, fields)
T.defineNamedType(expr.name, t).map {
case true =>
TypeRaw(
expr.name.value,
t
): Raw
case false =>
Raw.error("Ability types unresolved")
}
case None => Raw.error("Ability types unresolved").pure[Alg]
}
Prog.after_(
for {
defs <- D.purgeDefs(expr.name)
abType = defs.map(fields => AbilityType(expr.name.value, fields))
result <- abType.flatTraverse(t =>
T.defineNamedType(expr.name, t)
.map(Option.when(_)(TypeRaw(expr.name.value, t)))
)
} yield result.getOrElse(Raw.error("Ability types unresolved"))
)
}
}

View File

@ -1,6 +1,7 @@
package aqua.semantics.expr.func
import aqua.parser.expr.func.CallArrowExpr
import aqua.parser.lexer.{CallArrowToken, IntoArrow, IntoField, PropertyToken, VarToken}
import aqua.raw.Raw
import aqua.raw.ops.{Call, CallArrowRawTag, FuncOp}
import aqua.raw.value.CallArrowRaw
@ -13,6 +14,9 @@ import cats.Monad
import cats.syntax.flatMap.*
import cats.syntax.functor.*
import cats.syntax.traverse.*
import cats.syntax.option.*
import cats.syntax.applicative.*
import cats.syntax.comonad.*
class CallArrowSem[S[_]](val expr: CallArrowExpr[S]) extends AnyVal {
@ -31,12 +35,16 @@ class CallArrowSem[S[_]](val expr: CallArrowExpr[S]) extends AnyVal {
}
}
private def toModel[Alg[_]: Monad](implicit
private def toModel[Alg[_]: Monad](using
N: NamesAlgebra[S, Alg],
T: TypesAlgebra[S, Alg],
V: ValuesAlgebra[S, Alg]
): Alg[Option[FuncOp]] = for {
callArrowRaw <- V.callArrowToRaw(callArrow)
callArrowRaw <- V.valueToRaw(callArrow).map {
// TODO: Refactor this to support other results
case Some(car: CallArrowRaw) => car.some
case _ => none
}
maybeOp <- callArrowRaw.traverse(car =>
variables
.drop(car.baseType.codomain.length)

View File

@ -16,6 +16,7 @@ import cats.syntax.apply.*
import cats.syntax.flatMap.*
import cats.syntax.functor.*
import cats.syntax.traverse.*
import cats.syntax.foldable.*
import cats.syntax.option.*
import cats.instances.list.*
import cats.data.{NonEmptyList, NonEmptyMap}
@ -52,75 +53,57 @@ class ValuesAlgebra[S[_], Alg[_]: Monad](implicit
case op: IntoField[S] =>
T.resolveField(rootType, op)
case op: IntoArrow[S] =>
op.arguments
.map(valueToRaw)
.sequence
.map(_.sequence)
.flatMap {
case None => None.pure[Alg]
case Some(arguments) => T.resolveArrow(rootType, op, arguments)
}
case op: IntoCopy[S] =>
op.fields
.map(valueToRaw)
.sequence
.map(_.sequence)
.flatMap {
case None => None.pure[Alg]
case Some(values) => T.resolveCopy(rootType, op, values)
}
case op: IntoIndex[S] =>
op.idx
.fold[Alg[Option[ValueRaw]]](Option(LiteralRaw.Zero).pure[Alg])(
valueToRaw
for {
maybeArgs <- op.arguments.traverse(valueToRaw)
arrowProp <- maybeArgs.sequence.flatTraverse(
T.resolveArrow(rootType, op, _)
)
.flatMap {
case None => None.pure[Alg]
case Some(values) => T.resolveIndex(rootType, op, values)
}
} yield arrowProp
case op: IntoCopy[S] =>
for {
maybeFields <- op.fields.traverse(valueToRaw)
copyProp <- maybeFields.sequence.flatTraverse(
T.resolveCopy(rootType, op, _)
)
} yield copyProp
case op: IntoIndex[S] =>
for {
maybeIdx <- op.idx.fold(LiteralRaw.Zero.some.pure)(valueToRaw)
idxProp <- maybeIdx.flatTraverse(
T.resolveIndex(rootType, op, _)
)
} yield idxProp
}
def valueToRaw(v: ValueToken[S]): Alg[Option[ValueRaw]] =
v match {
case l: LiteralToken[S] => Some(LiteralRaw(l.value, l.ts)).pure[Alg]
case VarToken(name, ops) =>
case l @ LiteralToken(value, t) =>
LiteralRaw(l.value, t).some.pure[Alg]
case VarToken(name) =>
N.read(name).flatMap {
case Some(t) =>
// Prepare property expression: take the last known type and the next op, add next op to accumulator
ops
.foldLeft[Alg[(Option[Type], Chain[PropertyRaw])]](
(Some(t) -> Chain.empty).pure[Alg]
) { case (acc, op) =>
acc.flatMap {
// Some(rootType) means that the previous property op was resolved successfully
case (Some(rootType), prop) =>
// Resolve a single property
resolveSingleProperty(rootType, op).map {
// Property op resolved, add it to accumulator and update the last known type
case Some(p) => (Some(p.`type`), prop :+ p)
// Property op is not resolved, it's an error, stop iterations
case None => (None, Chain.empty)
}
// We have already errored, do nothing
case _ => (None, Chain.empty).pure[Alg]
}
}
.map {
// Some(_) means no errors occured
case (Some(_), property) if property.length == ops.length =>
Some(property.foldLeft[ValueRaw](VarRaw(name.value, t)) { case (v, p) =>
ApplyPropertyRaw(v, p)
})
case _ => None
}
VarRaw(name.value, t).some.pure[Alg]
case None =>
None.pure[Alg]
}
case prop @ PropertyToken(value, properties) =>
prop.adjust.fold(
for {
valueRaw <- valueToRaw(value)
result <- valueRaw.flatTraverse(raw =>
properties
.foldLeftM(raw) { case (prev, op) =>
OptionT(
resolveSingleProperty(prev.`type`, op)
).map(prop => ApplyPropertyRaw(prev, prop))
}
.value
)
} yield result
)(valueToRaw)
case dvt @ NamedValueToken(typeName, fields) =>
T.resolveType(typeName).flatMap {
case Some(resolvedType) =>
@ -153,26 +136,28 @@ class ValuesAlgebra[S[_], Alg[_]: Monad](implicit
}
case ct @ CollectionToken(_, values) =>
values.traverse(valueToRaw).map(_.flatten).map(NonEmptyList.fromList).map {
case Some(raws) if raws.size == values.size =>
for {
maybeValuesRaw <- values.traverse(valueToRaw).map(_.sequence)
raw = maybeValuesRaw.map(raws =>
NonEmptyList
.fromList(raws)
.fold(ValueRaw.Nil) { nonEmpty =>
val element = raws.map(_.`type`).reduceLeft(_ `∩` _)
// In case we mix values of uncomparable types, intersection returns bottom, meaning "uninhabited type".
// But we want to get to TopType instead: this would mean that intersection is empty, and you cannot
// make any decision about the structure of type, but can push anything inside
val elementNotBottom = if (element == BottomType) TopType else element
Some(
CollectionRaw(
raws,
nonEmpty,
ct.mode match {
case CollectionToken.Mode.StreamMode => StreamType(elementNotBottom)
case CollectionToken.Mode.ArrayMode => ArrayType(elementNotBottom)
case CollectionToken.Mode.OptionMode => OptionType(elementNotBottom)
}
)
)
case _ if values.isEmpty => Some(ValueRaw.Nil)
case _ => None
}
)
} yield raw
case ca: CallArrowToken[S] =>
callArrowToRaw(ca).map(_.widen[ValueRaw])
@ -316,68 +301,61 @@ class ValuesAlgebra[S[_], Alg[_]: Monad](implicit
}
}
// Generate CallArrowRaw for arrow in ability
// WARNING: arguments are resolved at the end of the function and added to CallArrowRaw
def callAbType(
ab: String,
abType: AbilityType,
ca: CallArrowToken[S]
): Alg[Option[CallArrowRaw]] =
abType.arrows.get(ca.funcName.value) match {
case Some(arrowType) =>
Option(
CallArrowRaw(None, AbilityType.fullName(ab, ca.funcName.value), Nil, arrowType, None)
).pure[Alg]
case None => None.pure[Alg]
}
def callArrowToRaw(ca: CallArrowToken[S]): Alg[Option[CallArrowRaw]] = {
for {
raw <- ca.ability
.fold(
N.readArrow(ca.funcName)
.map(
_.map(bt =>
CallArrowRaw(
ability = None,
name = ca.funcName.value,
arguments = Nil,
baseType = bt,
serviceId = None
private def callArrowFromAbility(
ab: Name[S],
at: AbilityType,
funcName: Name[S]
): Option[CallArrowRaw] = at.arrows
.get(funcName.value)
.map(arrowType =>
CallArrowRaw.ability(
ab.value,
funcName.value,
arrowType
)
)
private def callArrowToRaw(
callArrow: CallArrowToken[S]
): Alg[Option[CallArrowRaw]] =
for {
raw <- callArrow.ability.fold(
for {
myabeArrowType <- N.readArrow(callArrow.funcName)
} yield myabeArrowType
.map(arrowType =>
CallArrowRaw.func(
funcName = callArrow.funcName.value,
baseType = arrowType
)
)
)(ab =>
// Check that we have variable as ability
N.read(ab.asName, false).flatMap {
case Some(at @ AbilityType(_, _)) =>
callAbType(ab.value, at, ca)
N.read(ab.asName, mustBeDefined = false).flatMap {
case Some(at: AbilityType) =>
callArrowFromAbility(ab.asName, at, callArrow.funcName).pure
case _ =>
// Check that we have registered ability type.
// If it exists - this is ability type in file, if not - imported ability
T.getType(ab.value).flatMap {
case Some(abType: AbilityType) =>
callAbType(ab.value, abType, ca)
case t =>
(A.getArrow(ab, ca.funcName), A.getServiceId(ab)).mapN {
case Some(at: AbilityType) =>
callArrowFromAbility(ab.asName, at, callArrow.funcName).pure
case _ =>
(A.getArrow(ab, callArrow.funcName), A.getServiceId(ab)).mapN {
case (Some(at), Right(sid)) =>
// Service call, actually
CallArrowRaw(
ability = Some(ab.value),
name = ca.funcName.value,
arguments = Nil,
baseType = at,
serviceId = Some(sid)
).some
CallArrowRaw
.service(
abilityName = ab.value,
serviceId = sid,
funcName = callArrow.funcName.value,
baseType = at
)
.some
case (Some(at), Left(true)) =>
// Ability function call, actually
CallArrowRaw(
ability = Some(ab.value),
name = ca.funcName.value,
arguments = Nil,
baseType = at,
serviceId = None
).some
CallArrowRaw
.ability(
abilityName = ab.value,
funcName = callArrow.funcName.value,
baseType = at
)
.some
case _ => none
}
}
@ -386,9 +364,13 @@ class ValuesAlgebra[S[_], Alg[_]: Monad](implicit
result <- raw.flatTraverse(r =>
val arr = r.baseType
for {
argsCheck <- T.checkArgumentsNumber(ca.funcName, arr.domain.length, ca.args.length)
argsCheck <- T.checkArgumentsNumber(
callArrow.funcName,
arr.domain.length,
callArrow.args.length
)
args <- Option
.when(argsCheck)(ca.args zip arr.domain.toList)
.when(argsCheck)(callArrow.args zip arr.domain.toList)
.traverse(
_.flatTraverse { case (tkn, tp) =>
for {
@ -406,7 +388,6 @@ class ValuesAlgebra[S[_], Alg[_]: Monad](implicit
} yield result
)
} yield result
}
}

View File

@ -244,12 +244,6 @@ class TypesInterpreter[S[_], X](implicit
else report(token, s"Cannot compare '$left' with '$right''").as(false)
}
private def extractToken(token: Token[S]) =
token match {
case VarToken(n, properties) => properties.lastOption.getOrElse(n)
case t => t
}
override def ensureTypeMatches(
token: Token[S],
expected: Type,
@ -271,11 +265,14 @@ class TypesInterpreter[S[_], X](implicit
valueFields.toSortedMap.toList.traverse { (name, `type`) =>
typeFields.lookup(name) match {
case Some(t) =>
val nextToken = extractToken(token match {
val nextToken = token match {
case NamedValueToken(_, fields) =>
fields.lookup(name).getOrElse(token)
case t => t
})
// TODO: Is it needed?
case PropertyToken(_, properties) =>
properties.last
case _ => token
}
ensureTypeMatches(nextToken, `type`, t)
case None =>
report(

View File

@ -85,8 +85,15 @@ class SemanticsSpec extends AnyFlatSpec with Matchers with Inside {
insideBody(script) { body =>
val arrowType = ArrowType(NilType, ConsType.cons(ScalarType.string, NilType))
val serviceCall =
CallArrowRawTag.service(LiteralRaw.quote("srv1"), "fn1", emptyCall, "A", arrowType).leaf
val serviceCall = CallArrowRawTag
.service(
serviceId = LiteralRaw.quote("srv1"),
fnName = "fn1",
call = emptyCall,
name = "A",
arrowType = arrowType
)
.leaf
val expected =
ParTag.wrap(

View File

@ -57,8 +57,8 @@ class ValuesAlgebraSpec extends AnyFlatSpec with Matchers with Inside {
def literal(value: String, `type`: LiteralType) =
LiteralToken(Id(value), `type`)
def variable(name: String) =
VarToken(Name(Id(name)), Nil)
def variable(name: String): VarToken[Id] =
VarToken[Id](Name[Id](name))
def allPairs[A](list: List[A]): List[(A, A)] = for {
a <- list