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Linalg

linalg

Linalg = Dialect('linalg', [GenericOp, YieldOp, IndexOp, AddOp, ExpOp, LogOp, SubOp, SqrtOp, SelectOp, FillOp, CopyOp, MaxOp, MinOp, MulOp, TransposeOp, MatmulOp, QuantizedMatmulOp, PoolingNchwMaxOp, Conv2DNchwFchwOp, Conv2DNhwgcGfhwcOp, Conv2DNhwc_HwcfOp, Conv2DNgchwGfchwOp, Conv2DNgchwFgchwOp, Conv2DNhwc_FhwcOp, BroadcastOp, ReduceOp], [IteratorTypeAttr]) module-attribute

IteratorType

Bases: StrEnum

Iterator type for linalg trait

Source code in xdsl/dialects/linalg.py 
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class IteratorType(StrEnum):
    "Iterator type for linalg trait"

    PARALLEL = auto()
    REDUCTION = auto()
    WINDOW = auto()

PARALLEL = auto() class-attribute instance-attribute

REDUCTION = auto() class-attribute instance-attribute

WINDOW = auto() class-attribute instance-attribute

IteratorTypeAttr dataclass

Bases: EnumAttribute[IteratorType]

Source code in xdsl/dialects/linalg.py 
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@irdl_attr_definition
class IteratorTypeAttr(EnumAttribute[IteratorType]):
    name = "linalg.iterator_type"

    @classmethod
    def parallel(cls) -> IteratorTypeAttr:
        return IteratorTypeAttr(IteratorType.PARALLEL)

    @classmethod
    def reduction(cls) -> IteratorTypeAttr:
        return IteratorTypeAttr(IteratorType.REDUCTION)

    @classmethod
    def window(cls) -> IteratorTypeAttr:
        return IteratorTypeAttr(IteratorType.WINDOW)

    @classmethod
    def parse_parameter(cls, parser: AttrParser) -> IteratorType:
        with parser.in_angle_brackets():
            return super().parse_parameter(parser)

    def print_parameter(self, printer: Printer) -> None:
        with printer.in_angle_brackets():
            super().print_parameter(printer)

name = 'linalg.iterator_type' class-attribute instance-attribute

parallel() -> IteratorTypeAttr classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def parallel(cls) -> IteratorTypeAttr:
    return IteratorTypeAttr(IteratorType.PARALLEL)

reduction() -> IteratorTypeAttr classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def reduction(cls) -> IteratorTypeAttr:
    return IteratorTypeAttr(IteratorType.REDUCTION)

window() -> IteratorTypeAttr classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def window(cls) -> IteratorTypeAttr:
    return IteratorTypeAttr(IteratorType.WINDOW)

parse_parameter(parser: AttrParser) -> IteratorType classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def parse_parameter(cls, parser: AttrParser) -> IteratorType:
    with parser.in_angle_brackets():
        return super().parse_parameter(parser)

print_parameter(printer: Printer) -> None

Source code in xdsl/dialects/linalg.py 
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def print_parameter(self, printer: Printer) -> None:
    with printer.in_angle_brackets():
        super().print_parameter(printer)

LinalgOperation dataclass

Bases: IRDLOperation, ABC

Abstract base class for linalg operations, allowing them to be processed in with a unified interface.

Source code in xdsl/dialects/linalg.py 
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class LinalgOperation(IRDLOperation, ABC):
    """
    Abstract base class for linalg operations, allowing them to be processed in with a
    unified interface.
    """

    @abstractmethod
    def get_indexing_maps(self) -> Sequence[AffineMap]:
        """
        Get the indexing maps corresponding to this operation's operands, in order.
        """

    def get_num_loops(self) -> int:
        return self.get_indexing_maps()[0].num_dims

    def get_loops_to_shapes_map(self) -> AffineMap:
        """
        Returns a map to answer the question: "given an iteration space over
        the codomain, what are the subshapes of the operands involved in the
        computation".
        The default behavior is to just concatenate all the indexing maps.
        """
        result_exprs = tuple(
            res for map in self.get_indexing_maps() for res in map.results
        )

        dims = self.get_num_loops()

        # FIXME: Support symbols.
        for map in self.get_indexing_maps():
            if map.num_symbols != 0:
                raise NotImplementedError(
                    "Indexing maps with symbols not supported for now."
                )

        syms = 0
        return AffineMap(dims, syms, result_exprs)

    def get_shapes_to_loops_map(self) -> AffineMap:
        """
        Returns a map to answer the question: "Given a list of operand ranges,
        what is the subportion of the iteration space involved in the
        computation". This is the inverse problem of `get_loops_to_shapes_map`.
        Return the empty AffineMap when such an AffineMap cannot be
        constructed. The default behavior is based on a very simple inference
        procedure that only works with permutation affine maps. A more advanced
        Tensor-Comprehension like inference is possible but has proven to be
        ambiguous in unfavorable case. A safer and more robust alternative is
        to allow each op to define its own AffineMap.
        """
        loops_to_shapes = self.get_loops_to_shapes_map()
        inverse = loops_to_shapes.inverse_permutation()
        if not inverse:
            raise NotImplementedError(
                "Non-invertible maps need dynamic shapes, which are not implemented."
            )
        return inverse

    def get_static_shapes(self) -> list[int]:
        return [
            dim
            for operand in self.operands
            if isinstance(operand.type, ShapedType)
            for dim in operand.type.get_shape()
        ]

    def get_static_loop_ranges(self) -> tuple[int, ...]:
        shapes_to_loops = self.get_shapes_to_loops_map()
        static_shapes = self.get_static_shapes()
        return shapes_to_loops.eval(static_shapes, [])

get_indexing_maps() -> Sequence[AffineMap] abstractmethod

Get the indexing maps corresponding to this operation's operands, in order.

Source code in xdsl/dialects/linalg.py 
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@abstractmethod
def get_indexing_maps(self) -> Sequence[AffineMap]:
    """
    Get the indexing maps corresponding to this operation's operands, in order.
    """

get_num_loops() -> int

Source code in xdsl/dialects/linalg.py 
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def get_num_loops(self) -> int:
    return self.get_indexing_maps()[0].num_dims

get_loops_to_shapes_map() -> AffineMap

Returns a map to answer the question: "given an iteration space over the codomain, what are the subshapes of the operands involved in the computation". The default behavior is to just concatenate all the indexing maps.

Source code in xdsl/dialects/linalg.py 
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def get_loops_to_shapes_map(self) -> AffineMap:
    """
    Returns a map to answer the question: "given an iteration space over
    the codomain, what are the subshapes of the operands involved in the
    computation".
    The default behavior is to just concatenate all the indexing maps.
    """
    result_exprs = tuple(
        res for map in self.get_indexing_maps() for res in map.results
    )

    dims = self.get_num_loops()

    # FIXME: Support symbols.
    for map in self.get_indexing_maps():
        if map.num_symbols != 0:
            raise NotImplementedError(
                "Indexing maps with symbols not supported for now."
            )

    syms = 0
    return AffineMap(dims, syms, result_exprs)

get_shapes_to_loops_map() -> AffineMap

Returns a map to answer the question: "Given a list of operand ranges, what is the subportion of the iteration space involved in the computation". This is the inverse problem of get_loops_to_shapes_map. Return the empty AffineMap when such an AffineMap cannot be constructed. The default behavior is based on a very simple inference procedure that only works with permutation affine maps. A more advanced Tensor-Comprehension like inference is possible but has proven to be ambiguous in unfavorable case. A safer and more robust alternative is to allow each op to define its own AffineMap.

Source code in xdsl/dialects/linalg.py 
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def get_shapes_to_loops_map(self) -> AffineMap:
    """
    Returns a map to answer the question: "Given a list of operand ranges,
    what is the subportion of the iteration space involved in the
    computation". This is the inverse problem of `get_loops_to_shapes_map`.
    Return the empty AffineMap when such an AffineMap cannot be
    constructed. The default behavior is based on a very simple inference
    procedure that only works with permutation affine maps. A more advanced
    Tensor-Comprehension like inference is possible but has proven to be
    ambiguous in unfavorable case. A safer and more robust alternative is
    to allow each op to define its own AffineMap.
    """
    loops_to_shapes = self.get_loops_to_shapes_map()
    inverse = loops_to_shapes.inverse_permutation()
    if not inverse:
        raise NotImplementedError(
            "Non-invertible maps need dynamic shapes, which are not implemented."
        )
    return inverse

get_static_shapes() -> list[int]

Source code in xdsl/dialects/linalg.py 
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def get_static_shapes(self) -> list[int]:
    return [
        dim
        for operand in self.operands
        if isinstance(operand.type, ShapedType)
        for dim in operand.type.get_shape()
    ]

get_static_loop_ranges() -> tuple[int, ...]

Source code in xdsl/dialects/linalg.py 
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def get_static_loop_ranges(self) -> tuple[int, ...]:
    shapes_to_loops = self.get_shapes_to_loops_map()
    static_shapes = self.get_static_shapes()
    return shapes_to_loops.eval(static_shapes, [])

GenericOp

Bases: LinalgOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class GenericOp(LinalgOperation):
    name = "linalg.generic"

    inputs = var_operand_def()
    outputs = var_operand_def(base(ShapedType))

    res = var_result_def(AnyTensorType)

    body = region_def("single_block")

    # Trait attributes
    indexing_maps = prop_def(ArrayAttr[AffineMapAttr])
    iterator_types = prop_def(ArrayAttr[IteratorTypeAttr])
    doc = opt_prop_def(StringAttr)
    library_call = opt_prop_def(StringAttr)

    irdl_options = (AttrSizedOperandSegments(as_property=True),)

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue],
        body: Region,
        indexing_maps: Sequence[AffineMapAttr] | ArrayAttr[AffineMapAttr],
        iterator_types: Sequence[Attribute] | ArrayAttr[Attribute],
        result_types: Sequence[Attribute] = (),
        doc: StringAttr | None = None,
        library_call: StringAttr | None = None,
    ) -> None:
        super().__init__(
            operands=[inputs, outputs],
            result_types=[result_types],
            properties={
                "indexing_maps": ArrayAttr(indexing_maps),
                "iterator_types": ArrayAttr(iterator_types),
                "doc": doc,
                "library_call": library_call,
            },
            regions=[body],
        )

    def get_indexing_maps(self) -> Sequence[AffineMap]:
        return tuple(attr.data for attr in self.indexing_maps)

    def print(self, printer: Printer):
        printer.print_string(" {indexing_maps = ")
        printer.print_attribute(self.indexing_maps)
        printer.print_string(", iterator_types = [")
        printer.print_list(
            self.iterator_types,
            lambda iterator_type: printer.print_string_literal(iterator_type.data),
        )
        printer.print_string("]")
        if self.doc:
            printer.print_string(", doc = ")
            printer.print_attribute(self.doc)
        if self.library_call:
            printer.print_string(", library_call = ")
            printer.print_attribute(self.library_call)
        printer.print_string("}")

        if self.inputs:
            printer.print_string(" ins(")
            printer.print_list(self.inputs, printer.print_ssa_value)
            printer.print_string(" : ")
            printer.print_list(self.inputs.types, printer.print_attribute)
            printer.print_string(")")

        if self.outputs:
            printer.print_string(" outs(")
            printer.print_list(self.outputs, printer.print_ssa_value)
            printer.print_string(" : ")
            printer.print_list(self.outputs.types, printer.print_attribute)
            printer.print_string(")")

        extra_attrs = self.attributes.copy()
        if "indexing_maps" in extra_attrs:
            del extra_attrs["indexing_maps"]
        if "iterator_types" in extra_attrs:
            del extra_attrs["iterator_types"]
        if "doc" in extra_attrs:
            del extra_attrs["doc"]
        if "library_call" in extra_attrs:
            del extra_attrs["library_call"]

        if extra_attrs:
            printer.print_string(" attrs = ")
            printer.print_op_attributes(extra_attrs)

        printer.print_string(" ")
        printer.print_region(self.body)

        if self.res:
            printer.print_string(" -> ")
            if len(self.res) == 1:
                printer.print_attribute(self.res[0].type)
            else:
                with printer.in_parens():
                    printer.print_list(
                        self.res, lambda res: printer.print_attribute(res.type)
                    )

    @classmethod
    def parse(cls, parser: Parser) -> Self:
        attrs_start_pos = parser.pos
        attrs = parser.parse_optional_attr_dict()
        attrs_end_pos = parser.pos

        if "indexing_maps" in attrs:
            indexing_maps = attrs["indexing_maps"]
            assert isinstance(indexing_maps, ArrayAttr)
            indexing_maps = cast(ArrayAttr[AffineMapAttr], indexing_maps)
            del attrs["indexing_maps"]
        else:
            parser.raise_error(
                "Expected indexing_maps for linalg.generic",
                attrs_start_pos,
                attrs_end_pos,
            )

        if "iterator_types" in attrs:
            # Get iterator types and make sure they're an ArrayAttr
            parsed_iterator_types = attrs["iterator_types"]
            assert isinstance(parsed_iterator_types, ArrayAttr)
            parsed_iterator_types = cast(ArrayAttr[Attribute], parsed_iterator_types)
            del attrs["iterator_types"]

            # Make sure they're iterator types
            iterator_types: list[IteratorTypeAttr] = []
            for iterator_type in parsed_iterator_types:
                match iterator_type:
                    case IteratorTypeAttr():
                        iterator_types.append(iterator_type)
                    case StringAttr():
                        iterator_type = IteratorTypeAttr(
                            IteratorType(iterator_type.data)
                        )
                        iterator_types.append(iterator_type)
                    case _:
                        parser.raise_error(
                            f"Unknown iterator type {iterator_type}",
                            attrs_start_pos,
                            attrs_end_pos,
                        )
        else:
            parser.raise_error(
                "Expected iterator_types for linalg.generic",
                attrs_start_pos,
                attrs_end_pos,
            )

        if "doc" in attrs:
            doc = attrs["doc"]
            assert isinstance(doc, StringAttr)
            del attrs["doc"]
        else:
            doc = None

        if "library_call" in attrs:
            library_call = attrs["library_call"]
            assert isinstance(library_call, StringAttr)
            del attrs["library_call"]
        else:
            library_call = None

        pos = parser.pos
        if parser.parse_optional_characters("ins"):
            parser.parse_punctuation("(")
            unresolved_ins = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_unresolved_operand
            )
            parser.parse_punctuation(":")
            ins_types = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_type
            )
            parser.parse_punctuation(")")
            ins = parser.resolve_operands(unresolved_ins, ins_types, pos)
        else:
            ins = ()

        pos = parser.pos
        if parser.parse_optional_characters("outs"):
            parser.parse_punctuation("(")
            unresolved_outs = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_unresolved_operand
            )
            parser.parse_punctuation(":")
            outs_types = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_type
            )
            parser.parse_punctuation(")")
            outs = parser.resolve_operands(unresolved_outs, outs_types, pos)
        else:
            outs = ()

        if parser.parse_optional_keyword("attrs"):
            parser.parse_punctuation("=")
            extra_attrs = parser.expect(
                parser.parse_optional_attr_dict, "expect extra attributes"
            )
        else:
            extra_attrs = {}

        body = parser.parse_region()

        if parser.parse_optional_punctuation("->"):
            res_types = parser.parse_comma_separated_list(
                parser.Delimiter.NONE, parser.parse_attribute
            )
        else:
            res_types = ()

        generic = cls(
            ins,
            outs,
            body,
            indexing_maps,
            iterator_types,
            res_types,
            doc,
            library_call,
        )
        generic.attributes |= extra_attrs

        return generic

name = 'linalg.generic' class-attribute instance-attribute

inputs = var_operand_def() class-attribute instance-attribute

outputs = var_operand_def(base(ShapedType)) class-attribute instance-attribute

res = var_result_def(AnyTensorType) class-attribute instance-attribute

body = region_def('single_block') class-attribute instance-attribute

indexing_maps = prop_def(ArrayAttr[AffineMapAttr]) class-attribute instance-attribute

iterator_types = prop_def(ArrayAttr[IteratorTypeAttr]) class-attribute instance-attribute

doc = opt_prop_def(StringAttr) class-attribute instance-attribute

library_call = opt_prop_def(StringAttr) class-attribute instance-attribute

irdl_options = (AttrSizedOperandSegments(as_property=True),) class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue], body: Region, indexing_maps: Sequence[AffineMapAttr] | ArrayAttr[AffineMapAttr], iterator_types: Sequence[Attribute] | ArrayAttr[Attribute], result_types: Sequence[Attribute] = (), doc: StringAttr | None = None, library_call: StringAttr | None = None) -> None

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue],
    body: Region,
    indexing_maps: Sequence[AffineMapAttr] | ArrayAttr[AffineMapAttr],
    iterator_types: Sequence[Attribute] | ArrayAttr[Attribute],
    result_types: Sequence[Attribute] = (),
    doc: StringAttr | None = None,
    library_call: StringAttr | None = None,
) -> None:
    super().__init__(
        operands=[inputs, outputs],
        result_types=[result_types],
        properties={
            "indexing_maps": ArrayAttr(indexing_maps),
            "iterator_types": ArrayAttr(iterator_types),
            "doc": doc,
            "library_call": library_call,
        },
        regions=[body],
    )

get_indexing_maps() -> Sequence[AffineMap]

Source code in xdsl/dialects/linalg.py 
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def get_indexing_maps(self) -> Sequence[AffineMap]:
    return tuple(attr.data for attr in self.indexing_maps)

print(printer: Printer)

Source code in xdsl/dialects/linalg.py 
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def print(self, printer: Printer):
    printer.print_string(" {indexing_maps = ")
    printer.print_attribute(self.indexing_maps)
    printer.print_string(", iterator_types = [")
    printer.print_list(
        self.iterator_types,
        lambda iterator_type: printer.print_string_literal(iterator_type.data),
    )
    printer.print_string("]")
    if self.doc:
        printer.print_string(", doc = ")
        printer.print_attribute(self.doc)
    if self.library_call:
        printer.print_string(", library_call = ")
        printer.print_attribute(self.library_call)
    printer.print_string("}")

    if self.inputs:
        printer.print_string(" ins(")
        printer.print_list(self.inputs, printer.print_ssa_value)
        printer.print_string(" : ")
        printer.print_list(self.inputs.types, printer.print_attribute)
        printer.print_string(")")

    if self.outputs:
        printer.print_string(" outs(")
        printer.print_list(self.outputs, printer.print_ssa_value)
        printer.print_string(" : ")
        printer.print_list(self.outputs.types, printer.print_attribute)
        printer.print_string(")")

    extra_attrs = self.attributes.copy()
    if "indexing_maps" in extra_attrs:
        del extra_attrs["indexing_maps"]
    if "iterator_types" in extra_attrs:
        del extra_attrs["iterator_types"]
    if "doc" in extra_attrs:
        del extra_attrs["doc"]
    if "library_call" in extra_attrs:
        del extra_attrs["library_call"]

    if extra_attrs:
        printer.print_string(" attrs = ")
        printer.print_op_attributes(extra_attrs)

    printer.print_string(" ")
    printer.print_region(self.body)

    if self.res:
        printer.print_string(" -> ")
        if len(self.res) == 1:
            printer.print_attribute(self.res[0].type)
        else:
            with printer.in_parens():
                printer.print_list(
                    self.res, lambda res: printer.print_attribute(res.type)
                )

parse(parser: Parser) -> Self classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def parse(cls, parser: Parser) -> Self:
    attrs_start_pos = parser.pos
    attrs = parser.parse_optional_attr_dict()
    attrs_end_pos = parser.pos

    if "indexing_maps" in attrs:
        indexing_maps = attrs["indexing_maps"]
        assert isinstance(indexing_maps, ArrayAttr)
        indexing_maps = cast(ArrayAttr[AffineMapAttr], indexing_maps)
        del attrs["indexing_maps"]
    else:
        parser.raise_error(
            "Expected indexing_maps for linalg.generic",
            attrs_start_pos,
            attrs_end_pos,
        )

    if "iterator_types" in attrs:
        # Get iterator types and make sure they're an ArrayAttr
        parsed_iterator_types = attrs["iterator_types"]
        assert isinstance(parsed_iterator_types, ArrayAttr)
        parsed_iterator_types = cast(ArrayAttr[Attribute], parsed_iterator_types)
        del attrs["iterator_types"]

        # Make sure they're iterator types
        iterator_types: list[IteratorTypeAttr] = []
        for iterator_type in parsed_iterator_types:
            match iterator_type:
                case IteratorTypeAttr():
                    iterator_types.append(iterator_type)
                case StringAttr():
                    iterator_type = IteratorTypeAttr(
                        IteratorType(iterator_type.data)
                    )
                    iterator_types.append(iterator_type)
                case _:
                    parser.raise_error(
                        f"Unknown iterator type {iterator_type}",
                        attrs_start_pos,
                        attrs_end_pos,
                    )
    else:
        parser.raise_error(
            "Expected iterator_types for linalg.generic",
            attrs_start_pos,
            attrs_end_pos,
        )

    if "doc" in attrs:
        doc = attrs["doc"]
        assert isinstance(doc, StringAttr)
        del attrs["doc"]
    else:
        doc = None

    if "library_call" in attrs:
        library_call = attrs["library_call"]
        assert isinstance(library_call, StringAttr)
        del attrs["library_call"]
    else:
        library_call = None

    pos = parser.pos
    if parser.parse_optional_characters("ins"):
        parser.parse_punctuation("(")
        unresolved_ins = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_unresolved_operand
        )
        parser.parse_punctuation(":")
        ins_types = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_type
        )
        parser.parse_punctuation(")")
        ins = parser.resolve_operands(unresolved_ins, ins_types, pos)
    else:
        ins = ()

    pos = parser.pos
    if parser.parse_optional_characters("outs"):
        parser.parse_punctuation("(")
        unresolved_outs = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_unresolved_operand
        )
        parser.parse_punctuation(":")
        outs_types = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_type
        )
        parser.parse_punctuation(")")
        outs = parser.resolve_operands(unresolved_outs, outs_types, pos)
    else:
        outs = ()

    if parser.parse_optional_keyword("attrs"):
        parser.parse_punctuation("=")
        extra_attrs = parser.expect(
            parser.parse_optional_attr_dict, "expect extra attributes"
        )
    else:
        extra_attrs = {}

    body = parser.parse_region()

    if parser.parse_optional_punctuation("->"):
        res_types = parser.parse_comma_separated_list(
            parser.Delimiter.NONE, parser.parse_attribute
        )
    else:
        res_types = ()

    generic = cls(
        ins,
        outs,
        body,
        indexing_maps,
        iterator_types,
        res_types,
        doc,
        library_call,
    )
    generic.attributes |= extra_attrs

    return generic

YieldOp dataclass

Bases: AbstractYieldOperation[Attribute]

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class YieldOp(AbstractYieldOperation[Attribute]):
    name = "linalg.yield"

    traits = traits_def(IsTerminator())

name = 'linalg.yield' class-attribute instance-attribute

traits = traits_def(IsTerminator()) class-attribute instance-attribute

IndexOp

Bases: IRDLOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class IndexOp(IRDLOperation):
    name = "linalg.index"

    dim = prop_def(IntegerAttr[i64])

    result = result_def(IndexTypeConstr)

    traits = traits_def(HasParent(GenericOp))

    assembly_format = "$dim attr-dict `:` type($result)"

    def __init__(
        self,
        dim: int,
    ):
        dim_attr = IntegerAttr(dim, i64)
        super().__init__(properties={"dim": dim_attr}, result_types=[IndexType()])

name = 'linalg.index' class-attribute instance-attribute

dim = prop_def(IntegerAttr[i64]) class-attribute instance-attribute

result = result_def(IndexTypeConstr) class-attribute instance-attribute

traits = traits_def(HasParent(GenericOp)) class-attribute instance-attribute

assembly_format = '$dim attr-dict `:` type($result)' class-attribute instance-attribute

__init__(dim: int)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    dim: int,
):
    dim_attr = IntegerAttr(dim, i64)
    super().__init__(properties={"dim": dim_attr}, result_types=[IndexType()])

NamedOperation

Bases: IRDLOperation, ABC

Abstract base class for named ops with hidden region.

Source code in xdsl/dialects/linalg.py 
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class NamedOperation(IRDLOperation, ABC):
    """
    Abstract base class for named ops with hidden region.
    """

    inputs = var_operand_def()
    outputs = var_operand_def(base(ShapedType))

    res = var_result_def(AnyTensorType)

    hidden_region = region_def("single_block")

    irdl_options = (
        AttrSizedOperandSegments(as_property=True),
        ParsePropInAttrDict(),
    )

    PRINT_ATTRS_IN_FRONT: ClassVar[bool] = False

    def __init__(
        self,
        ins: Sequence[SSAValue],
        outs: Sequence[SSAValue],
        result_types: Sequence[Attribute | Sequence[Attribute] | None] | None = None,
        properties: Mapping[str, Attribute | None] | None = None,
        attributes: Mapping[str, Attribute | None] | None = None,
        hidden_region: Region | None = None,
    ):
        super().__init__(
            operands=[ins, outs],
            result_types=(
                result_types
                if result_types is not None and len(result_types) > 0
                else [[]]
            ),
            properties=properties,
            attributes=attributes,
            regions=[hidden_region],
        )

    @classmethod
    def parse(cls, parser: Parser):
        pos = parser.pos
        if cls.PRINT_ATTRS_IN_FRONT:
            attrs = parser.parse_optional_attr_dict()
        else:
            attrs = {}
        if parser.parse_optional_characters("ins"):
            parser.parse_punctuation("(")
            unresolved_ins = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_unresolved_operand
            )
            parser.parse_punctuation(":")
            ins_types = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_type
            )
            parser.parse_punctuation(")")
            ins = parser.resolve_operands(unresolved_ins, ins_types, pos)
        else:
            ins = ()

        pos = parser.pos
        if parser.parse_optional_characters("outs"):
            parser.parse_punctuation("(")
            unresolved_outs = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_unresolved_operand
            )
            parser.parse_punctuation(":")
            outs_types = parser.parse_comma_separated_list(
                Parser.Delimiter.NONE, parser.parse_type
            )
            parser.parse_punctuation(")")
            outs = parser.resolve_operands(unresolved_outs, outs_types, pos)
        else:
            outs = ()

        if not cls.PRINT_ATTRS_IN_FRONT:
            if parser.parse_optional_keyword("attrs"):
                parser.parse_punctuation("=")
                attrs = parser.expect(
                    parser.parse_optional_attr_dict, "expect extra attributes"
                )
            else:
                attrs = {}

        if parser.parse_optional_punctuation("->"):
            res_types = parser.parse_optional_comma_separated_list(
                parser.Delimiter.PAREN, parser.parse_attribute
            )
            if res_types is None:
                res_types = [parser.parse_attribute()]
        else:
            res_types = ()

        prop_names = cls.get_irdl_definition().properties

        properties = {k: v for k, v in attrs.items() if k in prop_names}
        # Drop the values in properties from attrs
        for k in properties:
            if k in attrs:
                del attrs[k]

        try:
            return cls.build(
                operands=(ins, outs),
                result_types=(res_types,),
                properties=properties,
                attributes=attrs,
                regions=(cls.get_hidden_region(ins, outs),),
            )
        except ValueError:
            parser.raise_error("Could not build linalg op")

    def print(self, printer: Printer):
        extra_attrs = {**self.attributes, **self.properties}
        if "indexing_maps" in extra_attrs:
            del extra_attrs["indexing_maps"]
        if "linalg.memoized_indexing_maps" in extra_attrs:
            del extra_attrs["linalg.memoized_indexing_maps"]
        if "iterator_types" in extra_attrs:
            del extra_attrs["iterator_types"]
        if "doc" in extra_attrs:
            del extra_attrs["doc"]
        if "library_call" in extra_attrs:
            del extra_attrs["library_call"]
        if "operandSegmentSizes" in extra_attrs:
            del extra_attrs["operandSegmentSizes"]

        if extra_attrs and self.PRINT_ATTRS_IN_FRONT:
            printer.print_op_attributes(extra_attrs)
        if self.inputs:
            printer.print_string(" ins(")
            printer.print_list(self.inputs, printer.print_ssa_value)
            printer.print_string(" : ")
            printer.print_list(self.inputs.types, printer.print_attribute)
            printer.print_string(")")

        if self.outputs:
            printer.print_string(" outs(")
            printer.print_list(self.outputs, printer.print_ssa_value)
            printer.print_string(" : ")
            printer.print_list(self.outputs.types, printer.print_attribute)
            printer.print_string(")")

        if extra_attrs and not self.PRINT_ATTRS_IN_FRONT:
            printer.print_string(" attrs = ")
            printer.print_op_attributes(extra_attrs)

        if self.res:
            printer.print_string(" -> ")
            if len(self.res) == 1:
                printer.print_attribute(self.res[0].type)
            else:
                with printer.in_parens():
                    printer.print_list(
                        self.res, lambda res: printer.print_attribute(res.type)
                    )

    @staticmethod
    def body_arg_types(
        operands: Sequence[SSAValue],
    ) -> Sequence[AnyFloat | IntegerType]:
        """
        Return the element types of the arguments of the body of this operation
        """

        result: Sequence[AnyFloat | IntegerType] = []

        for op in operands:
            op_type = op.type
            if isa(op_type, MemRefType | TensorType):
                element_type = op_type.get_element_type()
            else:  # int or float
                element_type = op_type
            assert isa(element_type, AnyFloat | IntegerType)
            result.append(element_type)

        return result

    @classmethod
    @abstractmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        """
        The hidden region for this linalg NamedOperation.
        """
        raise NotImplementedError

inputs = var_operand_def() class-attribute instance-attribute

outputs = var_operand_def(base(ShapedType)) class-attribute instance-attribute

res = var_result_def(AnyTensorType) class-attribute instance-attribute

hidden_region = region_def('single_block') class-attribute instance-attribute

irdl_options = (AttrSizedOperandSegments(as_property=True), ParsePropInAttrDict()) class-attribute instance-attribute

PRINT_ATTRS_IN_FRONT: bool = False class-attribute

__init__(ins: Sequence[SSAValue], outs: Sequence[SSAValue], result_types: Sequence[Attribute | Sequence[Attribute] | None] | None = None, properties: Mapping[str, Attribute | None] | None = None, attributes: Mapping[str, Attribute | None] | None = None, hidden_region: Region | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    ins: Sequence[SSAValue],
    outs: Sequence[SSAValue],
    result_types: Sequence[Attribute | Sequence[Attribute] | None] | None = None,
    properties: Mapping[str, Attribute | None] | None = None,
    attributes: Mapping[str, Attribute | None] | None = None,
    hidden_region: Region | None = None,
):
    super().__init__(
        operands=[ins, outs],
        result_types=(
            result_types
            if result_types is not None and len(result_types) > 0
            else [[]]
        ),
        properties=properties,
        attributes=attributes,
        regions=[hidden_region],
    )

parse(parser: Parser) classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def parse(cls, parser: Parser):
    pos = parser.pos
    if cls.PRINT_ATTRS_IN_FRONT:
        attrs = parser.parse_optional_attr_dict()
    else:
        attrs = {}
    if parser.parse_optional_characters("ins"):
        parser.parse_punctuation("(")
        unresolved_ins = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_unresolved_operand
        )
        parser.parse_punctuation(":")
        ins_types = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_type
        )
        parser.parse_punctuation(")")
        ins = parser.resolve_operands(unresolved_ins, ins_types, pos)
    else:
        ins = ()

    pos = parser.pos
    if parser.parse_optional_characters("outs"):
        parser.parse_punctuation("(")
        unresolved_outs = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_unresolved_operand
        )
        parser.parse_punctuation(":")
        outs_types = parser.parse_comma_separated_list(
            Parser.Delimiter.NONE, parser.parse_type
        )
        parser.parse_punctuation(")")
        outs = parser.resolve_operands(unresolved_outs, outs_types, pos)
    else:
        outs = ()

    if not cls.PRINT_ATTRS_IN_FRONT:
        if parser.parse_optional_keyword("attrs"):
            parser.parse_punctuation("=")
            attrs = parser.expect(
                parser.parse_optional_attr_dict, "expect extra attributes"
            )
        else:
            attrs = {}

    if parser.parse_optional_punctuation("->"):
        res_types = parser.parse_optional_comma_separated_list(
            parser.Delimiter.PAREN, parser.parse_attribute
        )
        if res_types is None:
            res_types = [parser.parse_attribute()]
    else:
        res_types = ()

    prop_names = cls.get_irdl_definition().properties

    properties = {k: v for k, v in attrs.items() if k in prop_names}
    # Drop the values in properties from attrs
    for k in properties:
        if k in attrs:
            del attrs[k]

    try:
        return cls.build(
            operands=(ins, outs),
            result_types=(res_types,),
            properties=properties,
            attributes=attrs,
            regions=(cls.get_hidden_region(ins, outs),),
        )
    except ValueError:
        parser.raise_error("Could not build linalg op")

print(printer: Printer)

Source code in xdsl/dialects/linalg.py 
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def print(self, printer: Printer):
    extra_attrs = {**self.attributes, **self.properties}
    if "indexing_maps" in extra_attrs:
        del extra_attrs["indexing_maps"]
    if "linalg.memoized_indexing_maps" in extra_attrs:
        del extra_attrs["linalg.memoized_indexing_maps"]
    if "iterator_types" in extra_attrs:
        del extra_attrs["iterator_types"]
    if "doc" in extra_attrs:
        del extra_attrs["doc"]
    if "library_call" in extra_attrs:
        del extra_attrs["library_call"]
    if "operandSegmentSizes" in extra_attrs:
        del extra_attrs["operandSegmentSizes"]

    if extra_attrs and self.PRINT_ATTRS_IN_FRONT:
        printer.print_op_attributes(extra_attrs)
    if self.inputs:
        printer.print_string(" ins(")
        printer.print_list(self.inputs, printer.print_ssa_value)
        printer.print_string(" : ")
        printer.print_list(self.inputs.types, printer.print_attribute)
        printer.print_string(")")

    if self.outputs:
        printer.print_string(" outs(")
        printer.print_list(self.outputs, printer.print_ssa_value)
        printer.print_string(" : ")
        printer.print_list(self.outputs.types, printer.print_attribute)
        printer.print_string(")")

    if extra_attrs and not self.PRINT_ATTRS_IN_FRONT:
        printer.print_string(" attrs = ")
        printer.print_op_attributes(extra_attrs)

    if self.res:
        printer.print_string(" -> ")
        if len(self.res) == 1:
            printer.print_attribute(self.res[0].type)
        else:
            with printer.in_parens():
                printer.print_list(
                    self.res, lambda res: printer.print_attribute(res.type)
                )

body_arg_types(operands: Sequence[SSAValue]) -> Sequence[AnyFloat | IntegerType] staticmethod

Return the element types of the arguments of the body of this operation

Source code in xdsl/dialects/linalg.py 
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@staticmethod
def body_arg_types(
    operands: Sequence[SSAValue],
) -> Sequence[AnyFloat | IntegerType]:
    """
    Return the element types of the arguments of the body of this operation
    """

    result: Sequence[AnyFloat | IntegerType] = []

    for op in operands:
        op_type = op.type
        if isa(op_type, MemRefType | TensorType):
            element_type = op_type.get_element_type()
        else:  # int or float
            element_type = op_type
        assert isa(element_type, AnyFloat | IntegerType)
        result.append(element_type)

    return result

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region abstractmethod classmethod

The hidden region for this linalg NamedOperation.

Source code in xdsl/dialects/linalg.py 
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@classmethod
@abstractmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    """
    The hidden region for this linalg NamedOperation.
    """
    raise NotImplementedError

AddOp

Bases: NamedOperation

Adds two tensors elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class AddOp(NamedOperation):
    """
    Adds two tensors elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgadd-linalgaddop).
    """

    name = "linalg.add"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        add = arith.AddfOp if isinstance(arg_types[-1], AnyFloat) else arith.AddiOp

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = add(args[0], args[1])
            YieldOp(result)

        return hidden_region

name = 'linalg.add' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    add = arith.AddfOp if isinstance(arg_types[-1], AnyFloat) else arith.AddiOp

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = add(args[0], args[1])
        YieldOp(result)

    return hidden_region

ExpOp

Bases: NamedOperation

Applies exp(x) elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class ExpOp(NamedOperation):
    """
    Applies exp(x) elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgexp-linalgexpop).
    """

    name = "linalg.exp"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = math.ExpOp(args[0])
            YieldOp(result)

        return hidden_region

name = 'linalg.exp' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = math.ExpOp(args[0])
        YieldOp(result)

    return hidden_region

LogOp

Bases: NamedOperation

Applies log(x) elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class LogOp(NamedOperation):
    """
    Applies log(x) elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalglog-linalglogop).
    """

    name = "linalg.log"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = math.LogOp(args[0])
            YieldOp(result)

        return hidden_region

name = 'linalg.log' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = math.LogOp(args[0])
        YieldOp(result)

    return hidden_region

SubOp

Bases: NamedOperation

Subtracts two tensors elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class SubOp(NamedOperation):
    """
    Subtracts two tensors elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgsub-linalgsubop).
    """

    name = "linalg.sub"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        self.body_arg_types((*inputs, *outputs))

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        sub = arith.SubfOp if isinstance(arg_types[-1], AnyFloat) else arith.SubiOp

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = sub(args[0], args[1])
            YieldOp(result)

        return hidden_region

name = 'linalg.sub' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    self.body_arg_types((*inputs, *outputs))

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    sub = arith.SubfOp if isinstance(arg_types[-1], AnyFloat) else arith.SubiOp

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = sub(args[0], args[1])
        YieldOp(result)

    return hidden_region

SqrtOp

Bases: NamedOperation

Applies sqrt(x) elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class SqrtOp(NamedOperation):
    """
    Applies sqrt(x) elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgsqrt-linalgsqrtop).
    """

    name = "linalg.sqrt"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = math.SqrtOp(args[0])
            YieldOp(result)

        return hidden_region

name = 'linalg.sqrt' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = math.SqrtOp(args[0])
        YieldOp(result)

    return hidden_region

SelectOp

Bases: NamedOperation

Chooses one value based on a binary condition supplied as its first operand.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class SelectOp(NamedOperation):
    """
    Chooses one value based on a binary condition supplied as its first operand.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgselect-linalgselectop).
    """

    name = "linalg.select"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = arith.SelectOp(*args[: len(inputs)])
            YieldOp(result)

        return hidden_region

name = 'linalg.select' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = arith.SelectOp(*args[: len(inputs)])
        YieldOp(result)

    return hidden_region

FillOp

Bases: NamedOperation

Fills the output tensor with the given value.

Works for arbitrary ranked output tensors since the operation performs scalar accesses only and is thus rank polymorphic. Numeric casting is performed on the value operand, promoting it to the same data type as the output.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class FillOp(NamedOperation):
    """
    Fills the output tensor with the given value.

    Works for arbitrary ranked output tensors since the operation performs scalar accesses
    only and is thus rank polymorphic. Numeric casting is performed on the value operand,
    promoting it to the same data type as the output.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgfill-linalgfillop).
    """

    name = "linalg.fill"

    PRINT_ATTRS_IN_FRONT: ClassVar[bool] = True

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            assert isa(outputs, Sequence[SSAValue]), "cannot infer result_types"
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    def verify_(self) -> None:
        # Check the that the inputs are of scalar type (f32, f64, etc)
        for value in self.inputs:
            if not isinstance(value.type, AnyFloat | IntegerType):
                raise VerifyException(
                    f"Input type is {value.type} but must be an instance of AnyFloat or IntegerType."
                )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            YieldOp(args[0])

        return hidden_region

name = 'linalg.fill' class-attribute instance-attribute

PRINT_ATTRS_IN_FRONT: bool = True class-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        assert isa(outputs, Sequence[SSAValue]), "cannot infer result_types"
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

verify_() -> None

Source code in xdsl/dialects/linalg.py 
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def verify_(self) -> None:
    # Check the that the inputs are of scalar type (f32, f64, etc)
    for value in self.inputs:
        if not isinstance(value.type, AnyFloat | IntegerType):
            raise VerifyException(
                f"Input type is {value.type} but must be an instance of AnyFloat or IntegerType."
            )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        YieldOp(args[0])

    return hidden_region

CopyOp

Bases: NamedOperation

Copies the tensor elementwise.

Numeric casting is performed on the input operand, promoting it to the same data type as the accumulator/output.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class CopyOp(NamedOperation):
    """
    Copies the tensor elementwise.

    Numeric casting is performed on the input operand, promoting it to the same data type as the accumulator/output.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgcopy-linalgcopyop).
    """

    name = "linalg.copy"

    PRINT_ATTRS_IN_FRONT: ClassVar[bool] = True

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            assert isa(outputs, Sequence[SSAValue]), "cannot infer result_types"
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            YieldOp(args[0])

        return hidden_region

name = 'linalg.copy' class-attribute instance-attribute

PRINT_ATTRS_IN_FRONT: bool = True class-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        assert isa(outputs, Sequence[SSAValue]), "cannot infer result_types"
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        YieldOp(args[0])

    return hidden_region

MaxOp

Bases: NamedOperation

Takes the max (signed) between two inputs, elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class MaxOp(NamedOperation):
    """
    Takes the max (signed) between two inputs, elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgmax-linalgmaxop).
    """

    name = "linalg.max"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        maxop = (
            arith.MaximumfOp if isinstance(arg_types[-1], AnyFloat) else arith.MaxSIOp
        )

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = maxop(args[0], args[1])
            YieldOp(result)

        return hidden_region

name = 'linalg.max' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    maxop = (
        arith.MaximumfOp if isinstance(arg_types[-1], AnyFloat) else arith.MaxSIOp
    )

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = maxop(args[0], args[1])
        YieldOp(result)

    return hidden_region

MinOp

Bases: NamedOperation

Takes the max (signed) between two inputs, elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class MinOp(NamedOperation):
    """
    Takes the max (signed) between two inputs, elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgmax-linalgmaxop).
    """

    name = "linalg.min"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        minop = (
            arith.MinimumfOp if isinstance(arg_types[-1], AnyFloat) else arith.MinSIOp
        )

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = minop(args[0], args[1])
            YieldOp(result)

        return hidden_region

name = 'linalg.min' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    minop = (
        arith.MinimumfOp if isinstance(arg_types[-1], AnyFloat) else arith.MinSIOp
    )

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = minop(args[0], args[1])
        YieldOp(result)

    return hidden_region

MulOp

Bases: NamedOperation

Multiplies two tensors elementwise.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class MulOp(NamedOperation):
    """
    Multiplies two tensors elementwise.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgmul-linalgmulop).
    """

    name = "linalg.mul"

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(output.type for output in outputs)
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        mul = arith.MulfOp if isinstance(arg_types[-1], AnyFloat) else arith.MuliOp

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = mul(args[0], args[1])
            YieldOp(result)

        return hidden_region

name = 'linalg.mul' class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(output.type for output in outputs)
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    mul = arith.MulfOp if isinstance(arg_types[-1], AnyFloat) else arith.MuliOp

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = mul(args[0], args[1])
        YieldOp(result)

    return hidden_region

TransposeOp

Bases: IRDLOperation

Transpose operator

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class TransposeOp(IRDLOperation):
    """
    Transpose operator

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgtranspose-linalgtransposeop).
    """

    name = "linalg.transpose"

    input = operand_def(base(MemRefType) | base(AnyTensorType))
    init = operand_def(base(MemRefType) | base(AnyTensorType))
    result = var_result_def(AnyTensorType)

    hidden_region = region_def("single_block")

    permutation = prop_def(DenseArrayBase.constr(i64))

    def __init__(
        self,
        input: SSAValue,
        init: SSAValue,
        permutation: Attribute,
        result: Attribute | None = None,
    ):
        if result is None:
            if isa(init.type, TensorType):
                results = (init.type,)
            else:
                results = ()
        else:
            results = (result,)

        arg_types = NamedOperation.body_arg_types((input, init))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            YieldOp(args[0])

        super().__init__(
            properties={
                "permutation": permutation,
            },
            operands=(input, init),
            result_types=(results,),
            regions=(hidden_region,),
        )

    def verify_(self) -> None:
        assert isinstance(input_type := self.input.type, TensorType | MemRefType)
        assert isinstance(init_type := self.init.type, TensorType | MemRefType)

        input_shape = input_type.get_shape()
        init_shape = init_type.get_shape()

        if (input_rank := len(input_shape)) != (init_rank := len(init_shape)):
            raise VerifyException(
                f"Input rank ({input_rank}) does not match output rank ({init_rank})"
            )
        if (input_rank := len(input_shape)) != (
            permutation_size := len(self.permutation)
        ):
            raise VerifyException(
                f"Input rank ({input_rank}) does not match size of permutation ({permutation_size})"
            )

        permutation_shape = self.permutation.get_values()

        for i in range(len(input_shape)):
            input_dimension = input_shape[permutation_shape[i]]
            init_dimension = init_shape[i]

            if input_dimension != init_dimension:
                raise VerifyException(
                    f"dim(result, {i}) = {init_dimension} "
                    f"doesn't match dim(input, permutation[{i}]) = {input_dimension}"
                )

    def print(self, printer: Printer):
        printer.print_string(" ins")
        with printer.in_parens():
            printer.print_ssa_value(self.input)
            printer.print_string(":")
            printer.print_attribute(self.input.type)
        printer.print_string(" outs")
        with printer.in_parens():
            printer.print_ssa_value(self.init)
            printer.print_string(":")
            printer.print_attribute(self.init.type)
        printer.print_string(" permutation = ")
        with printer.in_square_brackets():
            printer.print_list(self.permutation.get_values(), printer.print_int)

    @classmethod
    def parse(cls, parser: Parser) -> Self:
        parser.parse_characters("ins")
        parser.parse_punctuation("(")
        input = parser.parse_operand()
        parser.parse_punctuation(":")
        parser.parse_type()
        parser.parse_punctuation(")")
        parser.parse_characters("outs")
        parser.parse_punctuation("(")
        init = parser.parse_operand()
        parser.parse_punctuation(":")
        parser.parse_type()
        parser.parse_punctuation(")")
        parser.parse_keyword("permutation")
        parser.parse_punctuation("=")
        permutation = parser.parse_comma_separated_list(
            parser.Delimiter.SQUARE, parser.parse_integer
        )
        transpose = cls(
            input,
            init,
            DenseArrayBase.from_list(i64, permutation),
        )
        return transpose

name = 'linalg.transpose' class-attribute instance-attribute

input = operand_def(base(MemRefType) | base(AnyTensorType)) class-attribute instance-attribute

init = operand_def(base(MemRefType) | base(AnyTensorType)) class-attribute instance-attribute

result = var_result_def(AnyTensorType) class-attribute instance-attribute

hidden_region = region_def('single_block') class-attribute instance-attribute

permutation = prop_def(DenseArrayBase.constr(i64)) class-attribute instance-attribute

__init__(input: SSAValue, init: SSAValue, permutation: Attribute, result: Attribute | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    input: SSAValue,
    init: SSAValue,
    permutation: Attribute,
    result: Attribute | None = None,
):
    if result is None:
        if isa(init.type, TensorType):
            results = (init.type,)
        else:
            results = ()
    else:
        results = (result,)

    arg_types = NamedOperation.body_arg_types((input, init))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        YieldOp(args[0])

    super().__init__(
        properties={
            "permutation": permutation,
        },
        operands=(input, init),
        result_types=(results,),
        regions=(hidden_region,),
    )

verify_() -> None

Source code in xdsl/dialects/linalg.py 
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def verify_(self) -> None:
    assert isinstance(input_type := self.input.type, TensorType | MemRefType)
    assert isinstance(init_type := self.init.type, TensorType | MemRefType)

    input_shape = input_type.get_shape()
    init_shape = init_type.get_shape()

    if (input_rank := len(input_shape)) != (init_rank := len(init_shape)):
        raise VerifyException(
            f"Input rank ({input_rank}) does not match output rank ({init_rank})"
        )
    if (input_rank := len(input_shape)) != (
        permutation_size := len(self.permutation)
    ):
        raise VerifyException(
            f"Input rank ({input_rank}) does not match size of permutation ({permutation_size})"
        )

    permutation_shape = self.permutation.get_values()

    for i in range(len(input_shape)):
        input_dimension = input_shape[permutation_shape[i]]
        init_dimension = init_shape[i]

        if input_dimension != init_dimension:
            raise VerifyException(
                f"dim(result, {i}) = {init_dimension} "
                f"doesn't match dim(input, permutation[{i}]) = {input_dimension}"
            )

print(printer: Printer)

Source code in xdsl/dialects/linalg.py 
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def print(self, printer: Printer):
    printer.print_string(" ins")
    with printer.in_parens():
        printer.print_ssa_value(self.input)
        printer.print_string(":")
        printer.print_attribute(self.input.type)
    printer.print_string(" outs")
    with printer.in_parens():
        printer.print_ssa_value(self.init)
        printer.print_string(":")
        printer.print_attribute(self.init.type)
    printer.print_string(" permutation = ")
    with printer.in_square_brackets():
        printer.print_list(self.permutation.get_values(), printer.print_int)

parse(parser: Parser) -> Self classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def parse(cls, parser: Parser) -> Self:
    parser.parse_characters("ins")
    parser.parse_punctuation("(")
    input = parser.parse_operand()
    parser.parse_punctuation(":")
    parser.parse_type()
    parser.parse_punctuation(")")
    parser.parse_characters("outs")
    parser.parse_punctuation("(")
    init = parser.parse_operand()
    parser.parse_punctuation(":")
    parser.parse_type()
    parser.parse_punctuation(")")
    parser.parse_keyword("permutation")
    parser.parse_punctuation("=")
    permutation = parser.parse_comma_separated_list(
        parser.Delimiter.SQUARE, parser.parse_integer
    )
    transpose = cls(
        input,
        init,
        DenseArrayBase.from_list(i64, permutation),
    )
    return transpose

MatmulOp

Bases: NamedOperation

Performs a matrix multiplication of two 2D inputs.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class MatmulOp(NamedOperation):
    """
    Performs a matrix multiplication of two 2D inputs.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgmatmul-linalgmatmulop).
    """

    name = "linalg.matmul"

    PRINT_ATTRS_IN_FRONT: ClassVar[bool] = True

    indexing_maps = prop_def(
        ArrayAttr[AffineMapAttr],
        default_value=ArrayAttr(
            [
                AffineMapAttr(AffineMap.from_callable(lambda i, _, k: (i, k))),
                AffineMapAttr(AffineMap.from_callable(lambda _, j, k: (k, j))),
                AffineMapAttr(AffineMap.from_callable(lambda i, j, _: (i, j))),
            ]
        ),
    )

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(
                cast(AnyTensorType, output_type)
                for output in outputs
                if isinstance(output_type := output.type, TensorType)
            )
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        add, mul = (
            (arith.AddfOp, arith.MulfOp)
            if isinstance(arg_types[-1], AnyFloat)
            else (arith.AddiOp, arith.MuliOp)
        )

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = mul(args[0], args[1])
            mac = add(result, args[2])
            YieldOp(mac)

        return hidden_region

name = 'linalg.matmul' class-attribute instance-attribute

PRINT_ATTRS_IN_FRONT: bool = True class-attribute

indexing_maps = prop_def(ArrayAttr[AffineMapAttr], default_value=(ArrayAttr([AffineMapAttr(AffineMap.from_callable(lambda i, _, k: (i, k))), AffineMapAttr(AffineMap.from_callable(lambda _, j, k: (k, j))), AffineMapAttr(AffineMap.from_callable(lambda i, j, _: (i, j)))]))) class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(
            cast(AnyTensorType, output_type)
            for output in outputs
            if isinstance(output_type := output.type, TensorType)
        )
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    add, mul = (
        (arith.AddfOp, arith.MulfOp)
        if isinstance(arg_types[-1], AnyFloat)
        else (arith.AddiOp, arith.MuliOp)
    )

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = mul(args[0], args[1])
        mac = add(result, args[2])
        YieldOp(mac)

    return hidden_region

QuantizedMatmulOp

Bases: NamedOperation

Performs a matrix multiplication of two 2D inputs.

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class QuantizedMatmulOp(NamedOperation):
    """
    Performs a matrix multiplication of two 2D inputs.

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgquantized_matmul-linalgquantizedmatmulop).
    """

    name = "linalg.quantized_matmul"

    PRINT_ATTRS_IN_FRONT: ClassVar[bool] = True

    memoized_indexing_maps = attr_def(
        ArrayAttr[AffineMapAttr],
        default_value=ArrayAttr(
            [
                AffineMapAttr(AffineMap.from_callable(lambda i, _, k: (i, k))),
                AffineMapAttr(AffineMap.from_callable(lambda _, j, k: (k, j))),
                AffineMapAttr(AffineMap(3, 0, ())),
                AffineMapAttr(AffineMap(3, 0, ())),
                AffineMapAttr(AffineMap.from_callable(lambda i, j, _: (i, j))),
            ]
        ),
        attr_name="linalg.memoized_indexing_maps",
    )

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
    ):
        if res is None:
            result_types = tuple(
                cast(AnyTensorType, output_type)
                for output in outputs
                if isinstance(output_type := output.type, TensorType)
            )
        else:
            result_types = res

        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=result_types,
            attributes=attributes,
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            o1 = arith.ExtSIOp(args[0], IntegerType(32))
            o2 = arith.SubiOp(o1, args[2])
            o3 = arith.ExtSIOp(args[1], IntegerType(32))
            o4 = arith.SubiOp(o3, args[3])
            o5 = arith.MuliOp(o2, o4)
            o6 = arith.AddiOp(args[4], o5)
            YieldOp(o6)

        return hidden_region

name = 'linalg.quantized_matmul' class-attribute instance-attribute

PRINT_ATTRS_IN_FRONT: bool = True class-attribute

memoized_indexing_maps = attr_def(ArrayAttr[AffineMapAttr], default_value=(ArrayAttr([AffineMapAttr(AffineMap.from_callable(lambda i, _, k: (i, k))), AffineMapAttr(AffineMap.from_callable(lambda _, j, k: (k, j))), AffineMapAttr(AffineMap(3, 0, ())), AffineMapAttr(AffineMap(3, 0, ())), AffineMapAttr(AffineMap.from_callable(lambda i, j, _: (i, j)))])), attr_name='linalg.memoized_indexing_maps') class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
):
    if res is None:
        result_types = tuple(
            cast(AnyTensorType, output_type)
            for output in outputs
            if isinstance(output_type := output.type, TensorType)
        )
    else:
        result_types = res

    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=result_types,
        attributes=attributes,
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        o1 = arith.ExtSIOp(args[0], IntegerType(32))
        o2 = arith.SubiOp(o1, args[2])
        o3 = arith.ExtSIOp(args[1], IntegerType(32))
        o4 = arith.SubiOp(o3, args[3])
        o5 = arith.MuliOp(o2, o4)
        o6 = arith.AddiOp(args[4], o5)
        YieldOp(o6)

    return hidden_region

PoolingOperation

Bases: NamedOperation, ABC

Base class for linalg pooling operations.

Source code in xdsl/dialects/linalg.py 
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class PoolingOperation(NamedOperation, ABC):
    """Base class for linalg pooling operations."""

    PRINT_ATTRS_IN_FRONT: ClassVar[bool] = True

    strides = prop_def(DenseIntElementsAttr)
    dilations = prop_def(DenseIntElementsAttr)

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
        *,
        strides: DenseIntElementsAttr,
        dilations: DenseIntElementsAttr,
    ):
        super().__init__(
            ins=inputs,
            outs=outputs,
            result_types=res,
            attributes=attributes,
            properties={"strides": strides, "dilations": dilations},
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

PRINT_ATTRS_IN_FRONT: bool = True class-attribute

strides = prop_def(DenseIntElementsAttr) class-attribute instance-attribute

dilations = prop_def(DenseIntElementsAttr) class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None, *, strides: DenseIntElementsAttr, dilations: DenseIntElementsAttr)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
    *,
    strides: DenseIntElementsAttr,
    dilations: DenseIntElementsAttr,
):
    super().__init__(
        ins=inputs,
        outs=outputs,
        result_types=res,
        attributes=attributes,
        properties={"strides": strides, "dilations": dilations},
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

PoolingNchwMaxOp dataclass

Bases: PoolingOperation

Performs max pooling

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class PoolingNchwMaxOp(PoolingOperation):
    """
    Performs max pooling

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgpooling_nchw_max-linalgpoolingnchwmaxop).
    """

    name = "linalg.pooling_nchw_max"

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        max_op = (
            arith.MaximumfOp if isinstance(arg_types[-1], AnyFloat) else arith.MaxSIOp
        )

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            result = max_op(args[0], args[1])
            YieldOp(result)

        return hidden_region

name = 'linalg.pooling_nchw_max' class-attribute instance-attribute

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    max_op = (
        arith.MaximumfOp if isinstance(arg_types[-1], AnyFloat) else arith.MaxSIOp
    )

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        result = max_op(args[0], args[1])
        YieldOp(result)

    return hidden_region

ConvOperation

Bases: NamedOperation, ABC

Base class for linalg convolution operations.

Source code in xdsl/dialects/linalg.py 
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class ConvOperation(NamedOperation, ABC):
    """Base class for linalg convolution operations."""

    PRINT_ATTRS_IN_FRONT: ClassVar[bool] = True

    strides = prop_def(DenseIntElementsAttr)
    dilations = prop_def(DenseIntElementsAttr)

    def __init__(
        self,
        inputs: Sequence[SSAValue],
        outputs: Sequence[SSAValue] = (),
        res: Sequence[Attribute] | None = None,
        attributes: dict[str, Attribute] | None = None,
        *,
        strides: DenseIntElementsAttr,
        dilations: DenseIntElementsAttr,
    ):
        super().__init__(
            ins=inputs,
            outs=outputs,
            attributes=attributes,
            result_types=res,
            properties={"strides": strides, "dilations": dilations},
            hidden_region=self.get_hidden_region(inputs, outputs),
        )

    @classmethod
    def get_hidden_region(
        cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
    ) -> Region:
        arg_types = cls.body_arg_types((*inputs, *outputs))
        add, mul = (
            (arith.AddfOp, arith.MulfOp)
            if isinstance(arg_types[-1], AnyFloat)
            else (arith.AddiOp, arith.MuliOp)
        )

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            if arg_types[0] != arg_types[-1]:
                assert isinstance(arg_types[-1], IntegerType)
                a = arith.ExtSIOp(args[0], arg_types[-1])
                b = arith.ExtSIOp(args[1], arg_types[-1])
            else:
                a = args[0]
                b = args[1]
            result = mul(a, b)
            mac = add(result, args[2])
            YieldOp(mac)

        return hidden_region

PRINT_ATTRS_IN_FRONT: bool = True class-attribute

strides = prop_def(DenseIntElementsAttr) class-attribute instance-attribute

dilations = prop_def(DenseIntElementsAttr) class-attribute instance-attribute

__init__(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue] = (), res: Sequence[Attribute] | None = None, attributes: dict[str, Attribute] | None = None, *, strides: DenseIntElementsAttr, dilations: DenseIntElementsAttr)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    inputs: Sequence[SSAValue],
    outputs: Sequence[SSAValue] = (),
    res: Sequence[Attribute] | None = None,
    attributes: dict[str, Attribute] | None = None,
    *,
    strides: DenseIntElementsAttr,
    dilations: DenseIntElementsAttr,
):
    super().__init__(
        ins=inputs,
        outs=outputs,
        attributes=attributes,
        result_types=res,
        properties={"strides": strides, "dilations": dilations},
        hidden_region=self.get_hidden_region(inputs, outputs),
    )

get_hidden_region(inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]) -> Region classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def get_hidden_region(
    cls, inputs: Sequence[SSAValue], outputs: Sequence[SSAValue]
) -> Region:
    arg_types = cls.body_arg_types((*inputs, *outputs))
    add, mul = (
        (arith.AddfOp, arith.MulfOp)
        if isinstance(arg_types[-1], AnyFloat)
        else (arith.AddiOp, arith.MuliOp)
    )

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        if arg_types[0] != arg_types[-1]:
            assert isinstance(arg_types[-1], IntegerType)
            a = arith.ExtSIOp(args[0], arg_types[-1])
            b = arith.ExtSIOp(args[1], arg_types[-1])
        else:
            a = args[0]
            b = args[1]
        result = mul(a, b)
        mac = add(result, args[2])
        YieldOp(mac)

    return hidden_region

Conv2DNchwFchwOp dataclass

Bases: ConvOperation

Performs 2-D convolution

See external documentation.

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class Conv2DNchwFchwOp(ConvOperation):
    """
    Performs 2-D convolution

    See external [documentation](https://mlir.llvm.org/docs/Dialects/Linalg/#linalgconv_2d_nchw_fchw-linalgconv2dnchwfchwop).
    """

    name = "linalg.conv_2d_nchw_fchw"

name = 'linalg.conv_2d_nchw_fchw' class-attribute instance-attribute

Conv2DNgchwFgchwOp dataclass

Bases: ConvOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class Conv2DNgchwFgchwOp(ConvOperation):
    name = "linalg.conv_2d_ngchw_fgchw"

name = 'linalg.conv_2d_ngchw_fgchw' class-attribute instance-attribute

Conv2DNgchwGfchwOp dataclass

Bases: ConvOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class Conv2DNgchwGfchwOp(ConvOperation):
    name = "linalg.conv_2d_ngchw_gfchw"

name = 'linalg.conv_2d_ngchw_gfchw' class-attribute instance-attribute

Conv2DNhwc_FhwcOp dataclass

Bases: ConvOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class Conv2DNhwc_FhwcOp(ConvOperation):
    name = "linalg.conv_2d_nhwc_fhwc"

name = 'linalg.conv_2d_nhwc_fhwc' class-attribute instance-attribute

Conv2DNhwc_HwcfOp dataclass

Bases: ConvOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class Conv2DNhwc_HwcfOp(ConvOperation):
    name = "linalg.conv_2d_nhwc_hwcf"

name = 'linalg.conv_2d_nhwc_hwcf' class-attribute instance-attribute

Conv2DNhwgcGfhwcOp dataclass

Bases: ConvOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class Conv2DNhwgcGfhwcOp(ConvOperation):
    name = "linalg.conv_2d_nhwgc_gfhwc"

name = 'linalg.conv_2d_nhwgc_gfhwc' class-attribute instance-attribute

BroadcastOp

Bases: IRDLOperation

Static broadcast operator

Broadcast the input into the given shape by adding dimensions

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class BroadcastOp(IRDLOperation):
    """
    Static broadcast operator

    Broadcast the input into the given shape by adding dimensions
    """

    name = "linalg.broadcast"

    input = operand_def(base(MemRefType) | base(AnyTensorType))
    init = operand_def(base(MemRefType) | base(AnyTensorType))
    result = var_result_def(AnyTensorType)

    hidden_region = region_def("single_block")

    dimensions = prop_def(DenseArrayBase.constr(i64))

    def __init__(
        self,
        input: SSAValue,
        init: SSAValue,
        dimensions: Attribute,
        result: Attribute | None = None,
    ):
        if result is None:
            if isa(init.type, TensorType):
                results = (init.type,)
            else:
                results = ()
        else:
            results = (result,)

        arg_types = NamedOperation.body_arg_types((input, init))

        @Builder.implicit_region(arg_types)
        def hidden_region(args: tuple[BlockArgument, ...]) -> None:
            YieldOp(args[0])

        super().__init__(
            properties={
                "dimensions": dimensions,
            },
            operands=(input, init),
            result_types=(results,),
            regions=(hidden_region,),
        )

    def verify_(self) -> None:
        assert isinstance(input_type := self.input.type, TensorType | MemRefType)
        assert isinstance(init_type := self.init.type, TensorType | MemRefType)

        dimensions_shape = self.dimensions.get_values()

        input_shape = input_type.get_shape()
        init_shape = init_type.get_shape()

        if (input_and_dims_rank := (len(input_shape) + len(dimensions_shape))) != (
            init_rank := len(init_shape)
        ):
            raise VerifyException(
                f"Input rank plus added dimensions ({input_and_dims_rank}) does not match output rank ({init_rank})"
            )

        for index, dim in enumerate(dimensions_shape):
            if dim < 0 or dim >= init_rank:
                raise VerifyException(
                    f"Dimension {index} is out of range.  Expected range: [0, {init_rank - 1}], got: {dim}"
                )

        # intialise an array to store the dimensions being mapped
        dimensions_map: list[int] = []
        for dim in range(init_rank):
            if dim not in dimensions_shape:
                dimensions_map.append(dim)

        for input_dim_index, init_dim_index in enumerate(dimensions_map):
            if input_shape[input_dim_index] != init_shape[init_dim_index]:
                raise VerifyException(
                    f"input dimension {input_dim_index} should match output dimension {init_dim_index}. "
                    f"input: {input_shape[input_dim_index]}, output: {init_shape[init_dim_index]}"
                )

    def print(self, printer: Printer):
        printer.print_string(" ins")
        with printer.in_parens():
            printer.print_ssa_value(self.input)
            printer.print_string(":")
            printer.print_attribute(self.input.type)
        printer.print_string(" outs")
        with printer.in_parens():
            printer.print_ssa_value(self.init)
            printer.print_string(":")
            printer.print_attribute(self.init.type)
        printer.print_string(" dimensions = ")
        with printer.in_square_brackets():
            printer.print_list(self.dimensions.get_values(), printer.print_int)

    @classmethod
    def parse(cls, parser: Parser) -> Self:
        parser.parse_characters("ins")
        parser.parse_punctuation("(")
        input = parser.parse_operand()
        parser.parse_punctuation(":")
        parser.parse_type()
        parser.parse_punctuation(")")
        parser.parse_characters("outs")
        parser.parse_punctuation("(")
        init = parser.parse_operand()
        parser.parse_punctuation(":")
        parser.parse_type()
        parser.parse_punctuation(")")
        parser.parse_keyword("dimensions")
        parser.parse_punctuation("=")
        dimensions = parser.parse_comma_separated_list(
            parser.Delimiter.SQUARE, parser.parse_integer
        )
        broadcast = cls(
            input,
            init,
            DenseArrayBase.from_list(i64, dimensions),
        )
        return broadcast

name = 'linalg.broadcast' class-attribute instance-attribute

input = operand_def(base(MemRefType) | base(AnyTensorType)) class-attribute instance-attribute

init = operand_def(base(MemRefType) | base(AnyTensorType)) class-attribute instance-attribute

result = var_result_def(AnyTensorType) class-attribute instance-attribute

hidden_region = region_def('single_block') class-attribute instance-attribute

dimensions = prop_def(DenseArrayBase.constr(i64)) class-attribute instance-attribute

__init__(input: SSAValue, init: SSAValue, dimensions: Attribute, result: Attribute | None = None)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    input: SSAValue,
    init: SSAValue,
    dimensions: Attribute,
    result: Attribute | None = None,
):
    if result is None:
        if isa(init.type, TensorType):
            results = (init.type,)
        else:
            results = ()
    else:
        results = (result,)

    arg_types = NamedOperation.body_arg_types((input, init))

    @Builder.implicit_region(arg_types)
    def hidden_region(args: tuple[BlockArgument, ...]) -> None:
        YieldOp(args[0])

    super().__init__(
        properties={
            "dimensions": dimensions,
        },
        operands=(input, init),
        result_types=(results,),
        regions=(hidden_region,),
    )

verify_() -> None

Source code in xdsl/dialects/linalg.py 
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def verify_(self) -> None:
    assert isinstance(input_type := self.input.type, TensorType | MemRefType)
    assert isinstance(init_type := self.init.type, TensorType | MemRefType)

    dimensions_shape = self.dimensions.get_values()

    input_shape = input_type.get_shape()
    init_shape = init_type.get_shape()

    if (input_and_dims_rank := (len(input_shape) + len(dimensions_shape))) != (
        init_rank := len(init_shape)
    ):
        raise VerifyException(
            f"Input rank plus added dimensions ({input_and_dims_rank}) does not match output rank ({init_rank})"
        )

    for index, dim in enumerate(dimensions_shape):
        if dim < 0 or dim >= init_rank:
            raise VerifyException(
                f"Dimension {index} is out of range.  Expected range: [0, {init_rank - 1}], got: {dim}"
            )

    # intialise an array to store the dimensions being mapped
    dimensions_map: list[int] = []
    for dim in range(init_rank):
        if dim not in dimensions_shape:
            dimensions_map.append(dim)

    for input_dim_index, init_dim_index in enumerate(dimensions_map):
        if input_shape[input_dim_index] != init_shape[init_dim_index]:
            raise VerifyException(
                f"input dimension {input_dim_index} should match output dimension {init_dim_index}. "
                f"input: {input_shape[input_dim_index]}, output: {init_shape[init_dim_index]}"
            )

print(printer: Printer)

Source code in xdsl/dialects/linalg.py 
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def print(self, printer: Printer):
    printer.print_string(" ins")
    with printer.in_parens():
        printer.print_ssa_value(self.input)
        printer.print_string(":")
        printer.print_attribute(self.input.type)
    printer.print_string(" outs")
    with printer.in_parens():
        printer.print_ssa_value(self.init)
        printer.print_string(":")
        printer.print_attribute(self.init.type)
    printer.print_string(" dimensions = ")
    with printer.in_square_brackets():
        printer.print_list(self.dimensions.get_values(), printer.print_int)

parse(parser: Parser) -> Self classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def parse(cls, parser: Parser) -> Self:
    parser.parse_characters("ins")
    parser.parse_punctuation("(")
    input = parser.parse_operand()
    parser.parse_punctuation(":")
    parser.parse_type()
    parser.parse_punctuation(")")
    parser.parse_characters("outs")
    parser.parse_punctuation("(")
    init = parser.parse_operand()
    parser.parse_punctuation(":")
    parser.parse_type()
    parser.parse_punctuation(")")
    parser.parse_keyword("dimensions")
    parser.parse_punctuation("=")
    dimensions = parser.parse_comma_separated_list(
        parser.Delimiter.SQUARE, parser.parse_integer
    )
    broadcast = cls(
        input,
        init,
        DenseArrayBase.from_list(i64, dimensions),
    )
    return broadcast

ReduceOp

Bases: IRDLOperation

Source code in xdsl/dialects/linalg.py 
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@irdl_op_definition
class ReduceOp(IRDLOperation):
    name = "linalg.reduce"

    input = operand_def(base(MemRefType) | base(AnyTensorType))
    init = operand_def(base(MemRefType) | base(AnyTensorType))
    result = var_result_def(AnyTensorType)

    region: Region = region_def("single_block")

    dimensions = prop_def(DenseArrayBase.constr(i64))

    def __init__(
        self,
        input: SSAValue,
        init: SSAValue,
        dimensions: Attribute,
        region: Region,
    ):
        if isa(init.type, TensorType):
            result = (init.type,)
        else:
            result = ()

        super().__init__(
            properties={
                "dimensions": dimensions,
            },
            operands=(input, init),
            regions=[region],
            result_types=[result],
        )

    def verify_(self) -> None:
        assert isinstance(input_type := self.input.type, TensorType | MemRefType)
        assert isinstance(init_type := self.init.type, TensorType | MemRefType)

        if input_type.get_element_type() != init_type.get_element_type():
            raise VerifyException(
                f"Reduction element types must be equal, but input is {input_type.get_element_type()} "
                f"and init is {init_type.get_element_type()}"
            )

        dimensions_shape = self.dimensions.get_values()
        input_shape = input_type.get_shape()
        init_shape = init_type.get_shape()

        if len(init_shape) != len(input_shape) - len(dimensions_shape):
            raise VerifyException(
                "Output rank must equal input rank minus number of dimensions being reduced over"
            )

        init_index = 0
        for input_index in range(len(input_shape)):
            if input_index not in dimensions_shape:
                if input_shape[input_index] != init_shape[init_index]:
                    raise VerifyException(
                        f"Non-reduced input dimension {input_index} must equal output dimension {init_index}"
                    )
                init_index += 1

    def print(self, printer: Printer):
        printer.print_string(" ins")
        with printer.in_parens():
            printer.print_ssa_value(self.input)
            printer.print_string(":")
            printer.print_attribute(self.input.type)
        printer.print_string(" outs")
        with printer.in_parens():
            printer.print_ssa_value(self.init)
            printer.print_string(":")
            printer.print_attribute(self.init.type)
        printer.print_string(" dimensions = ")
        with printer.in_square_brackets():
            printer.print_list(self.dimensions.get_values(), printer.print_int)
        printer.print_string("\n")
        with printer.in_parens():
            printer.print_list(self.region.blocks[0].args, printer.print_block_argument)
        printer.print_string(" ")
        printer.print_region(self.region, print_entry_block_args=False)

    @classmethod
    def parse(cls, parser: Parser) -> Self:
        parser.parse_characters("ins")
        parser.parse_punctuation("(")
        input = parser.parse_operand()
        parser.parse_punctuation(":")
        parser.parse_type()
        parser.parse_punctuation(")")
        parser.parse_characters("outs")
        parser.parse_punctuation("(")
        init = parser.parse_operand()
        parser.parse_punctuation(":")
        parser.parse_type()
        parser.parse_punctuation(")")
        parser.parse_keyword("dimensions")
        parser.parse_punctuation("=")
        dimensions = parser.parse_comma_separated_list(
            parser.Delimiter.SQUARE, parser.parse_integer
        )
        entry_args = parser.parse_comma_separated_list(
            parser.Delimiter.PAREN, parser.parse_argument
        )
        region = parser.parse_region(entry_args)
        reduction = cls(
            input,
            init,
            DenseArrayBase.from_list(i64, dimensions),
            region,
        )
        return reduction

name = 'linalg.reduce' class-attribute instance-attribute

input = operand_def(base(MemRefType) | base(AnyTensorType)) class-attribute instance-attribute

init = operand_def(base(MemRefType) | base(AnyTensorType)) class-attribute instance-attribute

result = var_result_def(AnyTensorType) class-attribute instance-attribute

region: Region = region_def('single_block') class-attribute instance-attribute

dimensions = prop_def(DenseArrayBase.constr(i64)) class-attribute instance-attribute

__init__(input: SSAValue, init: SSAValue, dimensions: Attribute, region: Region)

Source code in xdsl/dialects/linalg.py 
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def __init__(
    self,
    input: SSAValue,
    init: SSAValue,
    dimensions: Attribute,
    region: Region,
):
    if isa(init.type, TensorType):
        result = (init.type,)
    else:
        result = ()

    super().__init__(
        properties={
            "dimensions": dimensions,
        },
        operands=(input, init),
        regions=[region],
        result_types=[result],
    )

verify_() -> None

Source code in xdsl/dialects/linalg.py 
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def verify_(self) -> None:
    assert isinstance(input_type := self.input.type, TensorType | MemRefType)
    assert isinstance(init_type := self.init.type, TensorType | MemRefType)

    if input_type.get_element_type() != init_type.get_element_type():
        raise VerifyException(
            f"Reduction element types must be equal, but input is {input_type.get_element_type()} "
            f"and init is {init_type.get_element_type()}"
        )

    dimensions_shape = self.dimensions.get_values()
    input_shape = input_type.get_shape()
    init_shape = init_type.get_shape()

    if len(init_shape) != len(input_shape) - len(dimensions_shape):
        raise VerifyException(
            "Output rank must equal input rank minus number of dimensions being reduced over"
        )

    init_index = 0
    for input_index in range(len(input_shape)):
        if input_index not in dimensions_shape:
            if input_shape[input_index] != init_shape[init_index]:
                raise VerifyException(
                    f"Non-reduced input dimension {input_index} must equal output dimension {init_index}"
                )
            init_index += 1

print(printer: Printer)

Source code in xdsl/dialects/linalg.py 
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def print(self, printer: Printer):
    printer.print_string(" ins")
    with printer.in_parens():
        printer.print_ssa_value(self.input)
        printer.print_string(":")
        printer.print_attribute(self.input.type)
    printer.print_string(" outs")
    with printer.in_parens():
        printer.print_ssa_value(self.init)
        printer.print_string(":")
        printer.print_attribute(self.init.type)
    printer.print_string(" dimensions = ")
    with printer.in_square_brackets():
        printer.print_list(self.dimensions.get_values(), printer.print_int)
    printer.print_string("\n")
    with printer.in_parens():
        printer.print_list(self.region.blocks[0].args, printer.print_block_argument)
    printer.print_string(" ")
    printer.print_region(self.region, print_entry_block_args=False)

parse(parser: Parser) -> Self classmethod

Source code in xdsl/dialects/linalg.py 
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@classmethod
def parse(cls, parser: Parser) -> Self:
    parser.parse_characters("ins")
    parser.parse_punctuation("(")
    input = parser.parse_operand()
    parser.parse_punctuation(":")
    parser.parse_type()
    parser.parse_punctuation(")")
    parser.parse_characters("outs")
    parser.parse_punctuation("(")
    init = parser.parse_operand()
    parser.parse_punctuation(":")
    parser.parse_type()
    parser.parse_punctuation(")")
    parser.parse_keyword("dimensions")
    parser.parse_punctuation("=")
    dimensions = parser.parse_comma_separated_list(
        parser.Delimiter.SQUARE, parser.parse_integer
    )
    entry_args = parser.parse_comma_separated_list(
        parser.Delimiter.PAREN, parser.parse_argument
    )
    region = parser.parse_region(entry_args)
    reduction = cls(
        input,
        init,
        DenseArrayBase.from_list(i64, dimensions),
        region,
    )
    return reduction