# Copyright (c) 2021-2023, ARM Limited.
# SPDX-License-Identifier: Apache-2.0
import itertools
import math
import warnings

import generator.tosa_utils as gtu
import numpy as np
from generator.tosa_error_if import ErrorIf
from generator.tosa_error_if import TosaErrorIfArgGen
from serializer.tosa_serializer import DTypeNames
from tosa.DType import DType
from tosa.Op import Op
from tosa.ResizeMode import ResizeMode

# DTypeNames, DType, Op and ResizeMode are convenience variables to the
# flatc-generated types that should be enums, but aren't


class TosaQuantGen:
    """QuantizedInfo random generator helper functions.

    Specify with 'qgen': in the operator defintion.
    """

    def __init__(self):
        pass

    @staticmethod
    def getZeroPoint(testGen, dtype, error_name=None):

        if dtype == DType.INT8:
            if testGen.args.zeropoint is not None:
                return min(127, max(-128, testGen.args.zeropoint))
            return testGen.randInt(-128, 128)
        elif dtype == DType.UINT8:
            if testGen.args.zeropoint is not None:
                return min(255, max(0, testGen.args.zeropoint))
            return testGen.randInt(0, 256)
        elif error_name in [
            ErrorIf.InputZeroPointNotZero,
            ErrorIf.WeightZeroPointNotZero,
            ErrorIf.OutputZeroPointNotZero,
        ]:
            zero_point = testGen.randInt(-128, 128)
            if zero_point == 0:
                zero_point = 1
            return zero_point
        return 0

    @staticmethod
    def qgUnary(testGen, op, dtype, error_name=None):
        if error_name == ErrorIf.InputZeroPointNotZero:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtype, error_name),
                TosaQuantGen.getZeroPoint(testGen, dtype),
            ]
        elif error_name == ErrorIf.OutputZeroPointNotZero:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtype),
                TosaQuantGen.getZeroPoint(testGen, dtype, error_name),
            ]
        else:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtype),
                TosaQuantGen.getZeroPoint(testGen, dtype),
            ]
        return qinfo

    @staticmethod
    def qgConv(testGen, op, dtype_or_dtypeList, error_name=None):
        if isinstance(dtype_or_dtypeList, list):
            # a list of [input, weights, accumulator] dtypes
            dtypeList = dtype_or_dtypeList
        else:
            # an int, [input, weights, accumulator] dtypes are the same
            dtypeList = [dtype_or_dtypeList] * 3

        if error_name == ErrorIf.InputZeroPointNotZero:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtypeList[0], error_name),
                TosaQuantGen.getZeroPoint(testGen, dtypeList[1]),
            ]
        elif error_name == ErrorIf.WeightZeroPointNotZero:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtypeList[0]),
                TosaQuantGen.getZeroPoint(testGen, dtypeList[1], error_name),
            ]
        else:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtypeList[0]),
                TosaQuantGen.getZeroPoint(testGen, dtypeList[1]),
            ]
        return qinfo

    @staticmethod
    def qgMatmul(testGen, op, dtype, error_name=None):
        if error_name == ErrorIf.InputZeroPointNotZero:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtype, error_name),
                TosaQuantGen.getZeroPoint(testGen, dtype, error_name),
            ]
        else:
            qinfo = [
                TosaQuantGen.getZeroPoint(testGen, dtype),
                TosaQuantGen.getZeroPoint(testGen, dtype),
            ]
        return qinfo

    @staticmethod
    def computeMultiplierAndShift(scaleFp, scale32):
        # Derived from computeMultiplierAndShiftTosaScale32
        # Provide a floating-point scaling factor and the scale32 parameter
        # to compute the multiplier and shift

        if scale32:
            scaleBits = 31
        else:
            scaleBits = 15

        m, shift = math.frexp(scaleFp)

        if scaleFp < 0.0:
            m = -m

        multiplier = round(m * (1 << scaleBits))
        assert multiplier <= (1 << scaleBits)

        if multiplier == (1 << scaleBits):
            multiplier = multiplier // 2
            shift = shift + 1

        shift = (-shift) + scaleBits
        # print('scalefp {} scaleBits {} m {} mult {} shift {}'.format(
        #   scaleFp, scaleBits, m, multiplier, shift))

        # Adjust multiplier such that shift is in allowed value range.
        if shift == 0:
            multiplier = multiplier // 4
            shift = shift + 2
        elif shift == 1:
            multiplier = multiplier // 2
            shift = shift + 1
        elif shift == 63:
            multiplier = multiplier * 2
            shift = shift - 1

        assert multiplier <= (1 << scaleBits)
        assert shift >= 2 and shift <= 62

        return multiplier, shift


class TosaTensorGen:
    """Tensor generators create a shape list for the placeholder and const tensor
    data operands for the operator.

    The actual random data is generated separately for each test.
    """

    def __init__(self):
        pass

    @staticmethod
    def tgBasic(testGen, opName, rank, error_name=None):
        pl, const = opName["operands"]
        shape = testGen.makeShape(rank)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            shape = TosaErrorIfArgGen.eiRestrictDimensions(shape)

        shape_list = []
        for i in range(pl + const):
            shape_list.append(shape.copy())

            # Generates an input rank mismatch for operators with more than one input
            if error_name == ErrorIf.RankMismatch:
                if rank == 1 and i != 1:
                    shape = testGen.makeShape(rank + testGen.rng.choice([1, 2, 3]))
                elif i != 1:
                    shape = testGen.makeShape(rank + testGen.rng.choice([-1, 1]))

        return shape_list

    @staticmethod
    def tgNHWC(testGen, opName, rank, error_name=None):
        pl, const = opName["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 4

        shape = testGen.makeShape(rank)
        shape = testGen.constrictBatchSize(shape)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name and error_name != ErrorIf.MaxDimExceeded:
            shape = TosaErrorIfArgGen.eiRestrictDimensions(shape)

        shape_list = []
        for i in range(pl + const):
            shape_list.append(shape.copy())

        return shape_list

    @staticmethod
    def tgScatter(testGen, opName, rank, error_name=None):
        pl, const = opName["operands"]

        assert pl == 2
        assert const == 0
        if error_name != ErrorIf.WrongRank:
            assert rank == 3

        values_in_shape = testGen.makeShape(rank)

        # ignore max batch size if target shape is set
        if testGen.args.max_batch_size and not testGen.args.target_shapes:
            values_in_shape[0] = min(values_in_shape[0], testGen.args.max_batch_size)

        W = testGen.randInt(
            testGen.args.tensor_shape_range[0], testGen.args.tensor_shape_range[1]
        )
        # Constrict W if one dimension is too large to keep tensor size reasonable
        if max(values_in_shape) > 5000:
            W = testGen.randInt(0, 16)

        input_shape = [values_in_shape[0], W, values_in_shape[2]]

        shape_list = []
        shape_list.append(values_in_shape.copy())
        shape_list.append(input_shape.copy())

        return shape_list

    @staticmethod
    def tgBroadcastFuzz(testGen, op, rank, error_name=None):
        shape = testGen.makeShape(rank)

        pl, const = op["operands"]

        shape_list = []

        # Choose one of the inputs to broadcast
        # Note: Simplifies OutputShaper code if we don't change first shape for errors
        bcast_idx = testGen.randInt(0 if error_name is None else 1, pl + const)
        fuzz_idx = testGen.randInt(0, rank)

        for i in range(pl + const):
            shape_bcast = shape.copy()

            # To test broadcasting, the chosen fuzz index dimension should not be 1
            if shape_bcast[fuzz_idx] == 1:
                shape_bcast[fuzz_idx] += 1

            # If the chosen input, pick a random index to broadcast
            if i == bcast_idx:
                if error_name == ErrorIf.RankMismatch:
                    # Add one rank to the shape (or more for rank of 1)
                    extra_ranks = testGen.rng.choice([1, 2, 3]) if rank == 1 else 1
                    shape_bcast = np.concatenate(
                        (shape_bcast, testGen.makeShape(extra_ranks))
                    )
                    if rank != 1:
                        # Either keep the extra rank, or remove it
                        new_len = testGen.rng.choice([-2, len(shape_bcast)])
                        shape_bcast = shape_bcast[:new_len]
                elif error_name == ErrorIf.BroadcastShapesMismatch:
                    shape_bcast[fuzz_idx] += 2
                else:
                    shape_bcast[fuzz_idx] = 1

            shape_list.append(shape_bcast)

        return shape_list

    @staticmethod
    def tgConv2D(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 4

        # IFM dimensions are NHWC
        ifm_shape = testGen.makeShape(rank)
        ifm_shape = testGen.constrictBatchSize(ifm_shape)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            ifm_shape = TosaErrorIfArgGen.eiRestrictDimensions(
                ifm_shape, max_dim=24, max_items=10000
            )

        # Get the filter height/width from the operator parameters
        filter_hw = op["filter"]

        # Generate a random OFM depth
        ofm_depth = testGen.makeDimension()

        # The filter dimensions are OHWI
        filter_shape = np.asarray([ofm_depth, filter_hw[0], filter_hw[1], ifm_shape[3]])

        # The bias is OC
        bias_shape = np.asarray([ofm_depth])

        return [ifm_shape, filter_shape, bias_shape]

    @staticmethod
    def tgConv3D(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 5

        # IFM dimensions are NDHWC
        ifm_shape = testGen.makeShape(rank)
        ifm_shape = testGen.constrictBatchSize(ifm_shape)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            ifm_shape = TosaErrorIfArgGen.eiRestrictDimensions(
                ifm_shape, max_dim=24, max_items=10000
            )

        # Get the filter depth/height/width from the operator parameters
        filter_dhw = op["filter"]

        # Generate a random OFM channel
        ofm_channel = testGen.makeDimension()

        # The filter dimensions are ODHWI
        filter_shape = np.asarray(
            [ofm_channel, filter_dhw[0], filter_dhw[1], filter_dhw[2], ifm_shape[4]]
        )

        # The bias is OC
        bias_shape = np.asarray([ofm_channel])

        return [ifm_shape, filter_shape, bias_shape]

    @staticmethod
    def tgTransposeConv2D(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 4

        # IFM dimensions are NHWC
        ifm_shape = testGen.makeShape(rank)
        ifm_shape = testGen.constrictBatchSize(ifm_shape)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            ifm_shape = TosaErrorIfArgGen.eiRestrictDimensions(
                ifm_shape, max_dim=24, max_items=10000
            )

        # Get the filter height/width from the operator parameters
        filter_hw = op["filter"]

        # Generate a random OFM depth
        ofm_depth = testGen.makeDimension()

        # The filter dimensions are OHWI
        filter_shape = np.asarray([ofm_depth, filter_hw[0], filter_hw[1], ifm_shape[3]])

        # The bias is OC
        bias_shape = np.asarray([ofm_depth])

        return [ifm_shape, filter_shape, bias_shape]

    @staticmethod
    def tgDepthwiseConv2D(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 4
        assert pl == 1 and const == 2

        # IFM dimensions are NHWC
        ifm_shape = testGen.makeShape(rank)
        ifm_shape = testGen.constrictBatchSize(ifm_shape)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            ifm_shape = TosaErrorIfArgGen.eiRestrictDimensions(
                ifm_shape, max_dim=24, max_items=10000
            )

        # Get the filter height/width from the operator parameters
        # Filter is KH, HW, C, M
        filter_hw = op["filter"]

        # Generate a random OFM depth, but don't let it get too big because
        # the output depth is M * C
        filter_m = (
            testGen.makeDimension() % (testGen.args.tensor_shape_range[1] // 4)
        ) + 1

        # The filter dimensions are HWCM
        filter_shape = np.asarray([filter_hw[0], filter_hw[1], ifm_shape[3], filter_m])

        # The bias is M * C
        bias_shape = np.asarray([ifm_shape[3] * filter_m])

        return [ifm_shape, filter_shape, bias_shape]

    @staticmethod
    def tgFFT2d(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 3
        assert pl == 2 and const == 0

        # IFM dimensions are NHW
        ifm_shape = testGen.makeShape(rank)

        # Select nearest lower power of two from input height and width
        ifm_shape[1] = 2 ** int(math.log(ifm_shape[1], 2))
        ifm_shape[2] = 2 ** int(math.log(ifm_shape[2], 2))

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            ifm_shape = TosaErrorIfArgGen.eiRestrictDimensions(ifm_shape)

        # Generate an invalid kernel that is not a power of two
        if error_name == ErrorIf.KernelNotPowerOfTwo:
            inc_h = 2 if ifm_shape[1] == 1 else 1
            inc_w = 2 if ifm_shape[2] == 1 else 1
            inc_choices = [(inc_h, 0), (0, inc_w), (inc_h, inc_w)]
            selected_inc = testGen.rng.choice(inc_choices)
            ifm_shape[1] += selected_inc[0]
            ifm_shape[2] += selected_inc[1]

        ifm_shape = testGen.constrictBatchSize(ifm_shape)

        ifm_shapes = [ifm_shape.copy(), ifm_shape.copy()]
        if error_name == ErrorIf.FFTInputShapeMismatch:
            modify_shape = testGen.rng.choice([0, 1])
            # Only modify kernel (H, W)
            modify_dim = testGen.rng.choice([1, 2])
            ifm_shapes[modify_shape][modify_dim] *= 2

        return [ifm_shapes[0], ifm_shapes[1]]

    @staticmethod
    def tgRFFT2d(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 3
        assert pl == 1 and const == 0

        # IFM dimensions are NHW
        ifm_shape = testGen.makeShape(rank)

        # Select nearest lower power of two from input height and width
        ifm_shape[1] = 2 ** int(math.log(ifm_shape[1], 2))
        ifm_shape[2] = 2 ** int(math.log(ifm_shape[2], 2))

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            ifm_shape = TosaErrorIfArgGen.eiRestrictDimensions(ifm_shape)

        # Generate an invalid kernel that is not a power of two
        if error_name == ErrorIf.KernelNotPowerOfTwo:
            # We must increment by 2 if current size is 1
            inc_h = 2 if ifm_shape[1] == 1 else 1
            inc_w = 2 if ifm_shape[2] == 1 else 1
            inc_choices = [(inc_h, 0), (0, inc_w), (inc_h, inc_w)]
            selected_inc = testGen.rng.choice(inc_choices)
            ifm_shape[1] += selected_inc[0]
            ifm_shape[2] += selected_inc[1]

        ifm_shape = testGen.constrictBatchSize(ifm_shape)

        return [ifm_shape]

    @staticmethod
    def tgFullyConnected(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 2

        input_shape = testGen.makeShape(rank)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            input_shape = TosaErrorIfArgGen.eiRestrictDimensions(input_shape)

        filter_oc = testGen.rng.integers(
            low=testGen.args.tensor_shape_range[0],
            high=testGen.args.tensor_shape_range[1],
            size=1,
        )[0]
        filter_shape = np.asarray([filter_oc, input_shape[1]])

        bias_shape = np.asarray([filter_oc])

        return [input_shape, filter_shape, bias_shape]

    @staticmethod
    def tgMatmul(testGen, op, rank, error_name=None):
        pl, const = op["operands"]

        if error_name != ErrorIf.WrongRank:
            assert rank == 3
        assert pl == 2 and const == 0

        a_shape = testGen.makeShape(rank)

        # Constrict the overall size of the shape when creating ERROR_IF tests
        if error_name:
            a_shape = TosaErrorIfArgGen.eiRestrictDimensions(a_shape)

        # Get a random number for b_oc even if target shape is defined
        b_oc = np.int32(
            testGen.rng.integers(
                low=testGen.args.tensor_shape_range[0],
                high=testGen.args.tensor_shape_range[1],
                size=1,
            )
        )[0]
        # If N or H is large let b_oc be 1 to reduce output tensor size
        if max(a_shape) > 1000:
            b_oc = 1

        b_shape = np.asarray([a_shape[0], a_shape[2], b_oc])
        return [a_shape, b_shape]

    @staticmethod
    def tgConcat(testGen, opName, rank, error_name=None):
        pl, const = opName["operands"]
        shape = testGen.makeShape(rank)

        # Create extra tensors to concat.
        # Take into account value of pl when getting maximum number of concats
        num_tensors = testGen.randInt(0, 4)
        shape_list = []
        for i in range(pl + const + num_tensors):
            if error_name == ErrorIf.ConcatInputRankMismatch and i != 0:
                remove = testGen.rng.choice([True, False])
                wrongShape = shape.copy()

                if remove and len(shape) > 1:
                    wrongShape = wrongShape[1:]
                else:
                    wrongShape = list(wrongShape)
                    wrongShape.append(testGen.rng.integers(1, 10))

                shape_list.append(wrongShape)
            else:
                shape_list.append(shape.copy())

        return shape_list

    @staticmethod
    def tgConcatConstInput(testGen, shapeList, axis, error_name=None):
        if error_name in [
            ErrorIf.AxisSmallerZero,
            ErrorIf.AxisLargerRank,
            ErrorIf.ConcatInputRankMismatch,
        ]:
            return shapeList

        # Split concat shape along axis to allow for multiple const inputs
        # without making too many large tensors
        if len(shapeList) == 2 or shapeList[0][axis] < len(shapeList):
            # If axis can't be split we still need to invalidate other dimensions
            if error_name == ErrorIf.ConcatInputDimMismatch:
                for shape in shapeList[1:]:
                    # Negative test shapeLists are created individually for each test,
                    # so no need to copy the shape before altering it.
                    shape[(axis + 1) % len(shape)] += testGen.rng.integers(5, 10)
            return shapeList

        # Create copy of shape we are going to split (so we don't alter shapeList)
        shape = shapeList[0].copy()
        # Add original shape as first input
        new_shapeList = [shape.copy()]
        length_on_axis = shape[axis]
        remaining_length = length_on_axis
        for i in range(len(shapeList) - 2):
            # Calculate split on axis and remaining value
            split_shape_val = int(shape[axis] / 2)
            remaining_length = remaining_length - split_shape_val

            # Append new shape, and set remaining shape
            shape[axis] = split_shape_val
            new_shapeList.append(shape.copy())

            # invalidate dimensions
            if error_name == ErrorIf.ConcatInputDimMismatch:
                shape[(axis + 1) % len(shape)] += testGen.rng.integers(5, 10)
            else:
                shape[axis] = remaining_length

            if i == len(shapeList) - 3:
                new_shapeList.append(shape.copy())

        return new_shapeList


class TosaTensorValuesGen:
    """Tensor Value generators create the random data for each tensor in each test."""

    def __init__(self):
        pass

    class TVGInfo:
        """Enhanced tensor values information including data gen dict."""

        def __init__(self, tensorList, dataGenDict):
            self.tensorList = tensorList
            self.dataGenDict = dataGenDict

    @staticmethod
    def tvgDefault(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        pCount, cCount = op["operands"]

        tens = []
        tens.extend(
            testGen.buildPlaceholderTensors(shapeList[0:pCount], dtypeList[0:pCount])
        )
        tens.extend(testGen.buildConstTensors(shapeList[pCount:], dtypeList[pCount:]))

        return tens

    @staticmethod
    def tvgLazyGenDefault(
        testGen, opName, dtypeList, shapeList, argsDict, error_name=None
    ):
        # Variable inputs versus constants
        pCount, cCount = testGen.TOSA_OP_LIST[opName]["operands"]

        if (
            error_name is not None
            or not gtu.dtypeIsSupportedByCompliance(dtypeList[0])
            or opName in ("avg_pool2d",)
        ):
            # Fall back to original path when dealing with unsupported types

            # First turn off lazy data gen so we always produce data
            lazy_data_gen = testGen.args.lazy_data_gen
            testGen.args.lazy_data_gen = False

            tens_ser_list = TosaTensorValuesGen.tvgDefault(
                testGen,
                testGen.TOSA_OP_LIST[opName],
                dtypeList,
                shapeList,
                [],
                error_name,
            )
            # Restore lazy data gen setting
            testGen.args.lazy_data_gen = lazy_data_gen
            return TosaTensorValuesGen.TVGInfo(tens_ser_list, None)

        # Create data generator meta-data
        dg_type = argsDict["dg_type"]
        dg_tens_meta = {}
        tens_ser_list = []
        for idx, shape in enumerate(shapeList):

            tens_meta = {}
            tens_meta["generator"] = gtu.DataGenType(dg_type).name
            tens_meta["data_type"] = gtu.DTYPE_ATTRIBUTES[dtypeList[idx]]["json"]
            tens_meta["shape"] = [int(i) for i in shape]
            tens_meta["input_pos"] = idx
            tens_meta["op"] = opName.upper()

            if idx < pCount:
                tens_meta["input_type"] = "VARIABLE"
                tens = testGen.ser.addPlaceholder(shape, dtypeList[idx], None)
            else:
                tens_meta["input_type"] = "CONSTANT"
                tens = testGen.ser.addConst(shape, dtypeList[idx], None)
            tens_ser_list.append(tens)

            if dg_type == gtu.DataGenType.PSEUDO_RANDOM:
                info = {}
                # TODO - generate seed for this generator based on test
                info["rng_seed"] = 42
                info["range"] = [
                    str(v)
                    for v in testGen.getDTypeRange(dtypeList[idx], high_inclusive=True)
                ]
                tens_meta["pseudo_random_info"] = info
            elif dg_type == gtu.DataGenType.DOT_PRODUCT:
                info = {}
                info["s"] = argsDict["s"]
                info["ks"] = argsDict["ks"]
                for key in gtu.DG_DOT_PRODUCT_OPTIONAL_INFO:
                    if key in argsDict:
                        if key.endswith("_type"):
                            info[key] = gtu.DTYPE_ATTRIBUTES[argsDict[key]]["json"]
                        else:
                            info[key] = argsDict[key]
                tens_meta["dot_product_info"] = info
            else:
                # TODO - other data gen type
                assert False, "TODO: support other data gen types"
            dg_tens_meta[tens.name] = tens_meta

        tens_data = {
            "version": "0.1",
            "tensors": dg_tens_meta,
        }
        return TosaTensorValuesGen.TVGInfo(tens_ser_list, tens_data)

    @staticmethod
    def tvgNegate(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        if dtypeList[0] == DType.INT32 and error_name is None:
            pCount, cCount = op["operands"]
            assert (
                pCount == 1 and cCount == 0
            ), "Op.NEGATE must have 1 placeholders, 0 consts"
            # Must create tensors with values within accumulator (int32) negatable
            # range
            max_val = (1 << 31) - 1
            min_val = -max_val
            arr = np.int32(
                testGen.rng.integers(low=min_val, high=(max_val + 1), size=shapeList[0])
            )
            placeholders = []
            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[0], dtypeList[0], arr)
            )
            return placeholders
        else:
            return TosaTensorValuesGen.tvgDefault(
                testGen, op, dtypeList, shapeList, testArgs, error_name
            )

    @staticmethod
    def tvgAddSub(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        if dtypeList[0] == DType.INT32 and error_name is None:
            # Make sure the operation does not cause value saturation - where
            # the number wraps due to limited number of bits to store the answer
            pCount, cCount = op["operands"]
            assert (
                pCount == 2 and cCount == 0
            ), "Op.ADD / Op.SUB must have 2 placeholders, 0 consts"
            placeholders = []
            add = op["op"] == Op.ADD
            a_arr = testGen.getRandTensor(shapeList[0], dtypeList[0])
            b_arr = testGen.getRandTensor(shapeList[1], dtypeList[1])
            if add:
                res_arr = np.add(a_arr, b_arr, dtype=np.int64)
            else:
                res_arr = np.subtract(a_arr, b_arr, dtype=np.int64)

            # Work out the saturation limits
            max_i32 = (1 << 31) - 1
            min_i32 = -(1 << 31)
            max_arr = np.full(shapeList[1], max_i32)
            min_arr = np.full(shapeList[1], min_i32)

            # Find how much values exceed the maximum/minimums
            sat_max_arr = np.maximum(res_arr - max_arr, 0)
            sat_min_arr = np.minimum(res_arr - min_arr, 0)

            if not add:
                # Swap saturation values and negate values as we need to perform opposite operations
                sat_max_arr, sat_min_arr = -sat_min_arr, -sat_max_arr

            # Create new array of unsaturated values by clipping values as needed
            b_unsat_arr = b_arr
            if (sat_max_arr != 0).any():
                # Clip values that cause saturation
                b_unsat_arr = np.subtract(b_unsat_arr, sat_max_arr, dtype=np.int32)
                # Reduce axes in unsaturated tensor to match original tensor
                for axis, dim in enumerate(b_arr.shape):
                    if dim != b_unsat_arr.shape[axis]:
                        assert (
                            dim == 1
                        ), "Op.ADD / SUB dimension must be 1 or matching to be broadcastable"
                        b_unsat_arr = np.amin(b_unsat_arr, axis=axis, keepdims=True)

            if (sat_min_arr != 0).any():
                # Clip values that cause saturation
                b_unsat_arr = np.subtract(b_unsat_arr, sat_min_arr, dtype=np.int32)
                # Reduce axes in unsaturated tensor to match original tensor
                for axis, dim in enumerate(b_arr.shape):
                    if dim != b_unsat_arr.shape[axis]:
                        assert (
                            dim == 1
                        ), "Op.ADD / SUB dimension must be 1 or matching to be broadcastable"
                        b_unsat_arr = np.amax(b_unsat_arr, axis=axis, keepdims=True)

            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[0], dtypeList[0], a_arr)
            )
            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[1], dtypeList[1], b_unsat_arr)
            )

            return placeholders
        else:
            return TosaTensorValuesGen.tvgDefault(
                testGen, op, dtypeList, shapeList, testArgs, error_name
            )

    @staticmethod
    def tvgCondIfWhileLoop(
        testGen, op, dtypeList, shapeList, testArgs, error_name=None
    ):
        if dtypeList[0] in (
            DType.INT32,
            DType.INT16,
            DType.INT8,
        ):
            # Limit input tensors with cond_if_binary or while_loop to stop
            # saturation of add/sub ops with int32 and keep all logical shift
            # values between 0 to 31 for int16 or int8
            pCount, cCount = op["operands"]
            pRemain = pCount
            placeholders = []
            for idx, shape in enumerate(shapeList[:]):
                if dtypeList[0] == DType.INT32:
                    arr = testGen.getRandTensor(shapeList[idx], DType.INT16)
                else:
                    arr = np.int32(
                        testGen.rng.integers(low=0, high=32, size=shapeList[idx])
                    )
                if pRemain > 0:
                    placeholders.append(
                        testGen.ser.addPlaceholder(shape, dtypeList[idx], arr)
                    )
                    pRemain -= 1
                else:
                    placeholders.append(
                        testGen.ser.addConst(shape, dtypeList[idx], arr)
                    )

            return placeholders
        else:
            return TosaTensorValuesGen.tvgDefault(
                testGen, op, dtypeList, shapeList, testArgs, error_name
            )

    @staticmethod
    def tvgArithmeticRightShift(
        testGen, op, dtypeList, shapeList, testArgs, error_name=None
    ):
        pCount, cCount = op["operands"]
        # Force value of operand[1] to be within [0, num_bits]
        assert (
            pCount == 2 and cCount == 0
        ), "Op.ArithmeticRightShift must have 2 placeholders, 0 consts"

        placeholders = []
        for idx, shape in enumerate(shapeList[:]):
            if idx == 1:
                if dtypeList[idx] == DType.INT8:
                    arr = np.int32(testGen.rng.integers(low=0, high=8, size=shape))
                elif dtypeList[idx] == DType.INT16:
                    arr = np.int32(testGen.rng.integers(low=0, high=16, size=shape))
                elif dtypeList[idx] == DType.INT32:
                    arr = np.int32(testGen.rng.integers(low=0, high=32, size=shape))
                elif error_name == ErrorIf.WrongInputType:
                    arr = np.int32(testGen.rng.integers(low=0, high=8, size=shape))
                else:
                    raise Exception("OpArithmeticRightShift: invalid input dtype")
            else:
                arr = testGen.getRandTensor(shape, dtypeList[idx])
            placeholders.append(testGen.ser.addPlaceholder(shape, dtypeList[idx], arr))

        return placeholders

    @staticmethod
    def tvgSelect(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        # Set datatype of condition tensor to boolean
        dtypeList[0] = DType.BOOL

        return TosaTensorValuesGen.tvgDefault(
            testGen, op, dtypeList, shapeList, testArgs, error_name
        )

    @staticmethod
    def tvgIntDiv(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        if error_name is None:
            pCount, cCount = op["operands"]
            assert (
                pCount == 2 and cCount == 0
            ), "Op.INTDIV must have 2 placeholders, 0 consts"

            placeholders = []

            # Two invalid cases for Op.INTDIV:
            # 1. divisor == 0
            # 2. dividend == -(1<<31) and divisor == -1
            while True:
                dividend_arr = testGen.getRandTensor(shapeList[0], dtypeList[0])
                divisor_arr = testGen.getRandTensor(shapeList[1], dtypeList[1])

                if (divisor_arr == 0).any():
                    continue

                if (dividend_arr == -(2**31)).any() and (divisor_arr == -1).any():
                    continue

                break

            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[0], dtypeList[0], dividend_arr)
            )
            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[1], dtypeList[1], divisor_arr)
            )

            return placeholders
        else:
            return TosaTensorValuesGen.tvgDefault(
                testGen, op, dtypeList, shapeList, testArgs, error_name
            )

    @staticmethod
    def tvgMul(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        if error_name is None:
            pCount, cCount = op["operands"]
            assert (
                pCount == 2 and cCount == 0
            ), "Op.MUL must have 2 placeholders, 0 consts"

            tens = []
            if dtypeList[0] in (DType.FP16, DType.BF16, DType.FP32):
                tens.extend(testGen.buildPlaceholderTensors(shapeList[:], dtypeList[:]))
            else:
                placeholders = []

                # Make sure multiply result in int32 range
                shift = testArgs[0]
                if dtypeList[0] == DType.INT8:
                    num_bits = 8
                elif dtypeList[0] == DType.INT16:
                    num_bits = 16
                elif dtypeList[0] == DType.INT32:
                    num_bits = 32
                elif error_name == ErrorIf.WrongInputType:
                    num_bits = 8
                else:
                    raise Exception("OpMul: invalid input dtype")

                for idx, shape in enumerate(shapeList[:]):
                    low = -(2 ** (num_bits - 1))
                    high = (2 ** (num_bits - 1)) - 1

                    a_arr = np.int32(
                        testGen.rng.integers(low=low, high=high, size=shapeList[0])
                    )
                    b_arr = np.int32(
                        testGen.rng.integers(low=low, high=high, size=shapeList[1])
                    )

                i = 0
                while True:

                    a_arr_64 = a_arr.astype(np.int64)
                    b_arr_64 = b_arr.astype(np.int64)

                    if shift > 0:
                        rounding = 1 << (shift - 1)
                        result_arr = ((a_arr_64 * b_arr_64) + rounding) >> shift
                    else:
                        result_arr = a_arr_64 * b_arr_64

                    if (result_arr > -(2**31)).all() and (
                        result_arr <= ((2**31) - 1)
                    ).all():
                        break

                    i = i + 1
                    a_arr = a_arr // 2
                    b_arr = b_arr // 2

                placeholders.append(
                    testGen.ser.addPlaceholder(shapeList[0], dtypeList[0], a_arr)
                )
                placeholders.append(
                    testGen.ser.addPlaceholder(shapeList[1], dtypeList[1], b_arr)
                )

                tens.extend(placeholders)

            return tens
        else:
            return TosaTensorValuesGen.tvgDefault(
                testGen, op, dtypeList, shapeList, testArgs, error_name
            )

    @staticmethod
    def tvgConcat(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        count = len(shapeList) - testGen.args.num_const_inputs_concat
        if count < 1:
            count = 1
        if testGen.args.num_const_inputs_concat == 0:
            count = len(shapeList)

        # Ensure axis is an int
        testArgs[0] = int(testArgs[0])

        shapeList = TosaTensorGen.tgConcatConstInput(
            testGen, shapeList, testArgs[0], error_name
        )

        tens = []
        tens.extend(
            testGen.buildPlaceholderTensors(shapeList[0:count], dtypeList[0:count])
        )
        tens.extend(testGen.buildConstTensors(shapeList[count:], dtypeList[count:]))

        return tens

    @staticmethod
    def tvgLogicalShift(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        pCount, cCount = op["operands"]
        assert (
            pCount == 2 and cCount == 0
        ), "Op.LOGICAL_LEFT_SHIFT or Op.LOGICAL_RIGHT_SHIFT must have 2 placeholders, 0 consts"
        values_arr = testGen.getRandTensor(shapeList[0], dtypeList[0])
        shift_arr = np.int32(testGen.rng.integers(low=0, high=32, size=shapeList[1]))
        placeholders = []
        placeholders.append(
            testGen.ser.addPlaceholder(shapeList[0], dtypeList[0], values_arr)
        )
        placeholders.append(
            testGen.ser.addPlaceholder(shapeList[1], dtypeList[1], shift_arr)
        )

        return placeholders

    @staticmethod
    def tvgEqual(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        if error_name is None:
            pCount, cCount = op["operands"]
            assert (
                pCount == 2 and cCount == 0
            ), "Op.EQUAL must have 2 placeholders, 0 consts"
            a_arr = testGen.getRandTensor(shapeList[0], dtypeList[0])
            b_arr = testGen.getRandTensor(shapeList[1], dtypeList[1])
            # Using random numbers means that it will be very unlikely that
            # there are any matching (equal) values, therefore force that
            # there are twice the number of matching values as the tensor rank
            for num in range(0, len(shapeList[0]) * 2):
                a_index = []
                b_index = []
                # Choose an index in each axis for the whole shape
                for axis in range(0, len(shapeList[0])):
                    # Index can be up to the largest dimension in both shapes
                    index = np.int32(
                        testGen.rng.integers(
                            0, max(shapeList[0][axis], shapeList[1][axis])
                        )
                    )
                    # Reduce the index down to a shape's dim for broadcasting
                    a_index.append(min(shapeList[0][axis] - 1, index))
                    b_index.append(min(shapeList[1][axis] - 1, index))

                a_arr[tuple(a_index)] = b_arr[tuple(b_index)]

            placeholders = []
            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[0], dtypeList[0], a_arr)
            )
            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[1], dtypeList[1], b_arr)
            )
            return placeholders
        else:
            return TosaTensorValuesGen.tvgDefault(
                testGen, op, dtypeList, shapeList, testArgs, error_name
            )

    @staticmethod
    def tvgReduceSum(testGen, op, dtypeList, shapeList, testArgs, error_name=None):
        if dtypeList[0] == DType.INT32:
            pCount, cCount = op["operands"]
            assert (
                pCount == 1 and cCount == 0
            ), "Op.REDUCE_SUM must have 1 placeholders, 0 consts"
            # Limit values so that the sum cannot exceed the range of an int32 during
            # summation of any axis
            range_val = int((1 << 31) / max(shapeList[0]))
            values_arr = np.int32(
                testGen.rng.integers(low=-range_val, high=range_val, size=shapeList[0])
            )
            placeholders = []
            placeholders.append(
                testGen.ser.addPlaceholder(shapeList[0], dtypeList[0], values_arr)
            )
            return placeholders
        else:
            return TosaTensorValuesGen.tvgDefault(
                testGen, op, dtypeList, shapeList, testArgs, error_name
            )


class TosaArgGen:
    """Argument generators create exhaustive or random lists of attributes for
    operators that take attributes or other parameters.

    The return value is a list of (descriptive_name, [arglist]) tuples where
    the descriptive_name is appended to the test name and the arglist is expanded
    as arguments to the operator build function.
    """

    def __init__(self):
        pass

    @staticmethod
    def _add_data_generators(testGen, opName, dtype, arg_list, error_name):
        """Add extra tests for each type of data generator for this op."""
        if (
            error_name is None
            and "data_gen" in testGen.TOSA_OP_LIST[opName]
            and gtu.dtypeIsSupportedByCompliance(dtype)
        ):
            if dtype in [DType.FP16, DType.FP32, DType.BF16]:
                dataGenTypesList = testGen.TOSA_OP_LIST[opName]["data_gen"]["fp"]
            else:
                dataGenTypesList = testGen.TOSA_OP_LIST[opName]["data_gen"]["int"]
        else:
            # Error test or No data generator types listed - assume random
            dataGenTypesList = (gtu.DataGenType.PSEUDO_RANDOM,)

        # Expand arg list with other data generator types
        new_arg_list = []
        for dg_type in dataGenTypesList:
            for arg_str, args_dict in arg_list:
                args_dict["dg_type"] = dg_type
                if dg_type == gtu.DataGenType.PSEUDO_RANDOM:
                    # Default test
                    new_arg_list.append((arg_str, args_dict))

                elif dg_type == gtu.DataGenType.DOT_PRODUCT:
                    # Extra tests for each dot product test set
                    dot_products = args_dict["dot_products"]
                    if dot_products < testGen.TOSA_MI_DOT_PRODUCT_MIN:
                        print(
                            f"Skipping {opName} dot product test as too few calculations {dot_products} < {testGen.TOSA_MI_DOT_PRODUCT_MIN}"
                        )
                        continue
                    # KS is required by all dot product generators
                    assert "ks" in args_dict

                    for s in testGen.TOSA_MI_DOT_PRODUCT_TEST_SETS:
                        new_arg_str = f"{arg_str}_s{s}"
                        new_args_dict = args_dict.copy()
                        new_args_dict["s"] = s
                        new_arg_list.append((new_arg_str, new_args_dict))

        return new_arg_list

    @staticmethod
    def agNone(testGen, opName, shapeList, dtype, error_name=None):
        """A trivial argument generator for operators that don't take any
        non-tensor arguments"""
        return [("", [])]

    @staticmethod
    def agAxis(testGen, opName, shapeList, dtype, error_name=None):
        """Build the axis argument for operators that take a single axis"""
        axes = []
        shape = shapeList[0]

        if error_name == ErrorIf.AxisSmallerZero:
            small_axis = testGen.rng.integers(-5, 0)
            axes.append(("axis{}".format(small_axis), [small_axis]))
        elif error_name == ErrorIf.AxisLargerRank:
            large_axis = testGen.rng.integers(len(shape) + 1, len(shape) + 10)
            axes.append(("axis{}".format(large_axis), [large_axis]))
        else:
            for a in range(0, len(shape)):
                axes.append(("axis{}".format(a), [a]))

        return axes

    @staticmethod
    def _calculate_sparsity(num_tests, sparsity_factor):
        sparsity = num_tests // sparsity_factor + 1
        # If there are only a small number of tests, just select them all
        if sparsity < 13:
            sparsity = 1
        # To get a variety of parameter combinations sparsity should not be a
        # multiple of 2, 3 or 5
        while sparsity % 2 == 0 or sparsity % 3 == 0 or sparsity % 5 == 0:
            sparsity += 1
        return sparsity

    @staticmethod
    def agConv(testGen, opName, shapeList, dtypes, error_name=None):
        # Used by CONV2D, CONV3D and DEPTHWISE_CONV2D
        arg_list = []

        if testGen.args.level8k and error_name is not None:
            # Don't produce negative large tests
            return arg_list

        # Shape: Batches, (Depth), Height, Width, Channels
        ifm_shape = shapeList[0]
        # Shape: (OFM channels), (KD), KH, KW, IFM channels
        filter_shape = shapeList[1]

        accum_dtype = gtu.get_accum_dtype_from_tgTypes(dtypes)

        # Check the rank
        conv3d = opName.startswith("conv3d")
        rank = 5 if conv3d else 4
        if error_name != ErrorIf.WrongRank:
            assert len(ifm_shape) == rank
            assert len(filter_shape) == rank

        # kernel rank omits channels
        k_rank = rank - 2
        k_pos = 0 if opName.startswith("depthwise") else 1
        k_shape = tuple(filter_shape[k_pos : (k_pos + k_rank)])

        if not testGen.args.level8k:
            # Generate comprehensive argument lists
            # - except for named errors, which use specific invalid value(s)
            if error_name == ErrorIf.PadSmallerZero:
                p_vals = [testGen.rng.choice(range(-5, 0))]
            else:
                p_vals = [x for x in range(0, testGen.args.max_conv_padding + 1)]
            paddings = {x for x in itertools.product(*([p_vals] * k_rank * 2))}
            if error_name == ErrorIf.StrideSmallerOne:
                # Can't use stride=0, as it is used to derive output shape, as a divisor
                s_vals = [testGen.rng.choice(range(-5, 0))]
            else:
                # Stride must be greater than 1 to force non-integer error
                startStride = (
                    1 if error_name != ErrorIf.ConvOutputShapeNonInteger else 2
                )
                s_vals = [
                    x for x in range(startStride, testGen.args.max_conv_stride + 1)
                ]
            strides = {x for x in itertools.product(*([s_vals] * k_rank))}
            if error_name == ErrorIf.DilationSmallerOne:
                d_vals = [testGen.rng.choice(range(-5, 1))]
            else:
                d_vals = [x for x in range(1, testGen.args.max_conv_dilation + 1)]
            dilations = {x for x in itertools.product(*([d_vals] * k_rank))}

            if not error_name and testGen.args.oversize:
                # add some oversize argument values
                if max(ifm_shape) < 64:
                    bigPadding = 9
                    paddings.update(
                        {
                            x
                            for x in itertools.product(
                                *([[0, bigPadding]] * (k_rank * 2))
                            )
                        }
                    )
                bigStride = 8
                strides.update(
                    {x for x in itertools.product(*([[1, bigStride]] * k_rank))}
                )
                bigDilation = 7
                dilations.update(
                    {x for x in itertools.product(*([[1, bigDilation]] * k_rank))}
                )
            max_dim_size = None

            # There are too many parameter combinations, so generate them sparsely,
            # very sparse for negative tests
            sparsity_factor = 2 if error_name else 120
            sparsity = TosaArgGen._calculate_sparsity(
                len(paddings) * len(strides) * len(dilations), sparsity_factor
            )
        else:
            # Only test 8k levels boundaries
            bigStride = testGen.TOSA_8K_LEVEL_MAX_STRIDE
            bigKernel = testGen.TOSA_8K_LEVEL_MAX_KERNEL
            bigPadding = bigKernel

            dilation_shape = [1] * k_rank
            pad_shape = [0] * k_rank * 2
            if conv3d:
                # Small stride apart from for big kernel (see below) to keep
                # tensor size/calculation small
                stride_shape = [1] * k_rank
                for idx in range(k_rank):
                    pad_offset = idx * 2
                    if k_shape[idx] == bigKernel:
                        # Padding shape needs to account for tensor shape
                        pad_shape[pad_offset] = bigPadding - ifm_shape[idx + 1]
                        pad_shape[pad_offset + 1] = bigPadding - dilation_shape[idx] + 1
                        # Big stride to reduce output size
                        stride_shape[idx] = bigKernel
                    else:
                        # Account for kernel size
                        pad_shape[pad_offset] = k_shape[idx] - 1
            else:
                # Always have a large stride with extra padding and dilation to keep
                # tensor calculation reasonable
                stride_shape = [bigKernel] * k_rank
                for idx in range(k_rank):
                    # Dilation shape must account for kernel size
                    dilation_shape[idx] = bigKernel // k_shape[idx]
                    # Padding shape needs to accommodate tensor/kernel & dilation
                    pad_offset = idx * 2
                    pad_shape[pad_offset] = bigPadding - ifm_shape[idx + 1]
                    pad_shape[pad_offset + 1] = bigPadding - dilation_shape[idx] + 1

            strides = {tuple(stride_shape)}
            dilations = {tuple(dilation_shape)}
            paddings = {tuple(pad_shape)}
            # Create a limit for the output dimensions size
            max_dim_size = testGen.TOSA_8K_LEVEL_MAX_KERNEL

            # Currently allow all combinations that are reasonable size
            sparsity = 1

        n = 0
        for s in sorted(list(strides)):
            for p in sorted(list(paddings)):
                for d in sorted(list(dilations)):
                    if (
                        n % sparsity == 0
                        # the padded shape must exceed the dilation * kernel to get a positive
                        # sized output shape
                        and (ifm_shape[1] - 1 + p[0] + p[1]) > d[0] * (k_shape[0] - 1)
                        and (ifm_shape[2] - 1 + p[2] + p[3]) > d[1] * (k_shape[1] - 1)
                        and (
                            k_rank < 3
                            or (
                                (ifm_shape[3] - 1 + p[4] + p[5])
                                > d[2] * (k_shape[2] - 1)
                            )
                        )
                    ):
                        remainders = []
                        outputs = []
                        for index in range(k_rank):
                            pad_offset = index * 2
                            partial = (
                                ifm_shape[index + 1]
                                - 1
                                + p[pad_offset]
                                + p[pad_offset + 1]
                                - (k_shape[index] - 1) * d[index]
                            )
                            remainders.append(partial % s[index])
                            outputs.append((partial // s[index]) + 1)

                        if (
                            # the parameters must produce integer exact output
                            error_name != ErrorIf.ConvOutputShapeNonInteger
                            and max(remainders) == 0
                        ) or (
                            error_name == ErrorIf.ConvOutputShapeNonInteger
                            and max(remainders) > 0
                        ):
                            if (
                                max_dim_size is not None
                                and max(outputs) >= max_dim_size
                            ):
                                # Test will consume too much memory - skip it
                                continue

                            # Support for larger values than 9 needs different delimiter
                            delim = "" if max(s + p + d) <= 9 else "x"
                            arg_list.append(
                                (
                                    "acc{}_st{}_pad{}_dilat{}".format(
                                        testGen.typeStr(accum_dtype),
                                        delim.join([str(x) for x in s]),
                                        delim.join([str(x) for x in p]),
                                        delim.join([str(x) for x in d]),
                                    ),
                                    [accum_dtype, s, p, d],
                                )
                            )
                    n += 1

        return arg_list

    @staticmethod
    def agFullyConnected(testGen, opName, shapeList, dtypes, error_name=None):

        assert isinstance(dtypes, list) or isinstance(
            dtypes, tuple
        ), f"{dtypes} unexpected"
        input_dtype = dtypes[0]

        if error_name == ErrorIf.WrongOutputType:
            accum_dtype = gtu.get_wrong_output_type(opName, testGen.rng, input_dtype)
        elif error_name == ErrorIf.WrongInputType:
            # Pick some potentially correct output dtype if input type is incorrect
            accum_dtype = DType.INT32
        else:
            accum_dtype = gtu.get_accum_dtype_from_tgTypes(dtypes)

        return [(f"acc{testGen.typeStr(accum_dtype)}", [accum_dtype])]

    @staticmethod
    def agMatMul(testGen, opName, shapeList, dtype, error_name=None):
        # Get valid accumulate type(s)
        if dtype == DType.INT8:
            accum_dtypes = [DType.INT32]
        elif dtype == DType.INT16:
            accum_dtypes = [DType.INT48]
        elif dtype == DType.FP16:
            accum_dtypes = [DType.FP16, DType.FP32]
        elif dtype == DType.BF16:
            accum_dtypes = [DType.FP32]
        elif dtype == DType.FP32:
            accum_dtypes = [DType.FP32]
        elif error_name is None:
            assert False, f"Invalid I/O DType for MatMul: {DTypeNames[dtype]}"

        if error_name == ErrorIf.WrongOutputType:
            # Get incorrect output dtype for ErrorIf case
            accum_dtypes = [gtu.get_wrong_output_type(opName, testGen.rng, dtype)]
        elif error_name == ErrorIf.WrongInputType:
            # Pick some potentially correct output dtype if input type is incorrect
            accum_dtypes = [DType.INT32]

        # Set up compliance info
        args_dict = {
            "ks": int(shapeList[0][2]),  # Set KS = C, from input A (N,H,C)
            # Set dot_products = N*H*W
            "dot_products": gtu.product(
                (shapeList[0][0], shapeList[0][1], shapeList[1][2])
            ),
        }

        # Create arg tuple of string and dict
        arg_list = []
        for a in accum_dtypes:
            d = args_dict.copy()
            d["acc_type"] = a
            arg_list.append((f"acc{testGen.typeStr(a)}", d))

        arg_list = TosaArgGen._add_data_generators(
            testGen,
            opName,
            dtype,
            arg_list,
            error_name,
        )
        # Return list of tuples: (arg_str, args_dict)
        return arg_list

    @staticmethod
    def agTransposeConv2D(testGen, opName, shapeList, dtypes, error_name=None):
        arg_list = []

        if testGen.args.level8k and error_name is not None:
            # Don't produce negative large tests
            return arg_list

        ifm_shape = shapeList[0]
        filter_shape = shapeList[1]

        accum_dtype = gtu.get_accum_dtype_from_tgTypes(dtypes)

        # Must be rank 4
        if error_name != ErrorIf.WrongRank:
            assert len(ifm_shape) == 4
            assert len(filter_shape) == 4

        k_shape = tuple(filter_shape[1:3])

        if not testGen.args.level8k:
            # Generate comprehensive argument lists
            # - except for named errors, which use specific invalid value(s)
            smallest_padding_size = -min(k_shape[0], k_shape[1]) + 1
            if error_name == ErrorIf.PadLargerEqualKernel:
                max_filter_size = -max(k_shape[0], k_shape[1])
                p_vals = [
                    testGen.rng.choice(range(max_filter_size - 10, max_filter_size))
                ]
            else:
                p_vals = [
                    x
                    for x in range(
                        smallest_padding_size, testGen.args.max_conv_padding + 1
                    )
                ]
            paddings = {x for x in itertools.product(*([p_vals] * 4))}
            if error_name == ErrorIf.StrideSmallerOne:
                # Can't use stride=0, as it is used to derive output shape, as a divisor
                s_vals = [testGen.rng.choice(range(-5, 0))]
            else:
                s_vals = [x for x in range(1, testGen.args.max_conv_stride + 1)]
            strides = {x for x in itertools.product(*([s_vals] * 2))}

            if not error_name and testGen.args.oversize:
                # add some oversize argument values
                if max(ifm_shape) < 64:
                    bigPadding = 9
                    paddings.update(
                        {
                            x
                            for x in itertools.product(
                                *([[smallest_padding_size, bigPadding]] * 4)
                            )
                        }
                    )
                bigStride = 8
                strides.update({x for x in itertools.product(*([[1, bigStride]] * 2))})

            # There are too many parameter combinations, so generate them sparsely,
            # very sparse for negative tests
            sparsity_factor = 2 if error_name else 10
            sparsity = len(paddings) * len(strides) // sparsity_factor + 1
            # If there are only a small number of tests, just select them all
            if sparsity < 13:
                sparsity = 1
            # To get a variety of parameter combinations sparsity should not be a
            # multiple of 2, 3 or 5
            while sparsity % 2 == 0 or sparsity % 3 == 0 or sparsity % 5 == 0:
                sparsity += 1
        else:
            # Only test 8k levels boundaries
            bigStride = testGen.TOSA_8K_LEVEL_MAX_STRIDE
            bigKernel = testGen.TOSA_8K_LEVEL_MAX_KERNEL
            bigPadding = bigKernel

            pad_shape = [0] * (len(k_shape) * 2)
            stride_shape = [1] * len(k_shape)
            # The point at which input dimension combined with the stride will
            # create large output sizes!
            LARGE_SIZE = 2
            for idx in range(len(k_shape)):
                pad_offset = idx * 2
                if k_shape[idx] == bigKernel:
                    # Set large stride
                    stride_shape[idx] = bigKernel
                    # Use negative output padding to reduce shape size
                    pad_shape[pad_offset] = -(bigPadding - 1)
                    if ifm_shape[idx + 1] > LARGE_SIZE:
                        pad_shape[pad_offset + 1] = -(bigPadding - 1)
                else:
                    # The other dimension should be the bigKernel
                    alt_idx = 1 - idx
                    if (
                        k_shape[alt_idx] == bigKernel
                        and ifm_shape[alt_idx + 1] < LARGE_SIZE
                    ):
                        # As the input is small, the large stride won't
                        # affect the output so we can add some padding
                        pad_shape[pad_offset + 1] = bigPadding

            strides = {tuple(stride_shape)}
            paddings = {tuple(pad_shape)}

            # Currently allow all combinations that are reasonable size
            sparsity = 1

        n = 0
        for s in sorted(list(strides)):
            for p in sorted(list(paddings)):
                if n % sparsity == 0:
                    # Determine the output shape
                    oh = (ifm_shape[1] - 1) * s[0] + p[0] + p[1] + k_shape[0]
                    ow = (ifm_shape[2] - 1) * s[1] + p[2] + p[3] + k_shape[1]
                    os = [ifm_shape[0], oh, ow, filter_shape[0]]

                    # Support for larger values than 9 needs different delimiter
                    delim = "" if max(s + p) <= 9 else "x"
                    arg_list.append(
                        (
                            "acc{}_st{}_pad{}_os{}".format(
                                testGen.typeStr(accum_dtype),
                                delim.join([str(x) for x in s]),
                                delim.join([str(x) for x in p]),
                                "x".join([str(x) for x in os]),
                            ),
                            [accum_dtype, s, p, os],
                        )
                    )
                n += 1

        return arg_list

    @staticmethod
    def agPad(testGen, opName, shapeList, dtype, error_name=None):
        rank = len(shapeList[0])

        # Exhaustively test combinations of padding on each side of each dimension
        # - the range of padding values is defined by pad_min and pad_max
        # - for padding >9, the name format needs to be more distinctive
        pad_min, pad_max = 0, 1
        pad_values = [x for x in range(pad_min, pad_max + 1)]
        if error_name == ErrorIf.PadSmallerZero:
            pad_values = [x for x in range(-2, 0)]
        axis_pad_values = [x for x in itertools.product(pad_values, pad_values)]
        shape_pad_values = itertools.product(*([axis_pad_values] * rank))

        if dtype in [DType.BOOL, DType.INT8, DType.INT16, DType.INT32]:
            pad_const_int = testGen.getRandNumberDType(dtype)
            pad_const_fp = 0
        elif dtype in (DType.FP16, DType.BF16, DType.FP32):
            pad_const_int = 0
            pad_const_fp = testGen.getRandNumberDType(dtype)
        else:
            return []

        list_shape_pad_values = list(shape_pad_values)
        # If we are producing tests for rank 6 or greater use sparsity
        if len(list_shape_pad_values) > 1024:
            sparsity_factor = 2 if error_name else 120
            sparsity = TosaArgGen._calculate_sparsity(
                len(list_shape_pad_values), sparsity_factor
            )
        else:
            sparsity = 1

        # Build arg list
        arg_list = []
        for n, paddings in enumerate(list_shape_pad_values):
            paddings = list(paddings)
            args_valid = True

            if error_name == ErrorIf.PadSmallerZero:
                # Prevent negative output shapes while ensuring still testing for negative padding
                for i in range(rank):
                    dim_after_padding = (
                        paddings[i][0] + paddings[i][1] + shapeList[0][i]
                    )
                    if dim_after_padding < 1:
                        paddings[i] = (0, 0)
                if all([p > -1 for p in paddings[i]]):
                    args_valid = False
            if args_valid and n % sparsity == 0:
                name = "pad"
                for r in range(rank):
                    before, after = paddings[r]
                    name = f"{name}{before}{after}"
                    args_dict = {
                        "pad": np.array(paddings),
                        "pad_const_int": pad_const_int,
                        "pad_const_fp": pad_const_fp,
                    }
                arg_list.append((name, args_dict))

        if error_name == ErrorIf.PadSmallerZero and len(arg_list) == 0:
            warnings.warn(f"No ErrorIf test created for input shape: {shapeList[0]}")

        arg_list = TosaArgGen._add_data_generators(
            testGen,
            opName,
            dtype,
            arg_list,
            error_name,
        )

        # Return list of tuples: (arg_str, args_dict)
        return arg_list

    @staticmethod
    def agPooling(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        shape = shapeList[0]
        if error_name != ErrorIf.WrongRank:
            assert len(shape) == 4

        test_level8k = testGen.args.level8k and error_name is None

        startStride = 1 if error_name != ErrorIf.PoolingOutputShapeNonInteger else 2
        startKernel = 2
        startPad = 0
        if not test_level8k:
            # Generate comprehensive argument lists
            p_vals = [x for x in range(startPad, testGen.args.max_pooling_padding + 1)]
            paddings = {x for x in itertools.product(*([p_vals] * 4))}
            # Stride must be greater than 1 to force non-integer error
            s_vals = [
                x for x in range(startStride, testGen.args.max_pooling_stride + 1)
            ]
            strides = {x for x in itertools.product(*([s_vals] * 2))}
            k_vals = [
                x for x in range(startKernel, testGen.args.max_pooling_kernel + 1)
            ]
            kernels = {x for x in itertools.product(*([k_vals] * 2))}
            max_dim_size = None
        else:
            # Only test 8k levels
            bigStride = testGen.TOSA_8K_LEVEL_MAX_STRIDE
            bigKernel = testGen.TOSA_8K_LEVEL_MAX_KERNEL
            strides = {(1, bigStride), (bigStride, 4)}
            kernels = {(1, bigKernel), (bigKernel, 3)}
            paddings = set()
            for s in sorted(list(strides)):
                for k in sorted(list(kernels)):
                    padding = []
                    for idx in range(len(k)):
                        total_padding = s[idx] - shape[idx + 1] + k[idx]
                        while total_padding < 0:
                            # Must meet: shape + padding > kernel
                            total_padding += s[idx]
                        if total_padding < k[idx]:
                            padding.extend([0, total_padding])
                        else:
                            # Note this may produce padding >= k[idx] which is not
                            # allowed - but will be ignored in the creation loop below
                            padding.extend([k[idx] - 1, total_padding - (k[idx] - 1)])
                    paddings.add(tuple(padding))
            # Create a limit for the output dimensions size
            max_dim_size = testGen.TOSA_8K_LEVEL_MAX_KERNEL

        if opName == "max_pool2d":
            accum_dtypes = [None]  # max_pool has no accumulate dtype
        elif dtype == DType.INT8 or dtype == DType.INT16:
            accum_dtypes = [DType.INT32]
        elif dtype == DType.FP16:
            accum_dtypes = [DType.FP16, DType.FP32]
        elif dtype == DType.BF16 or dtype == DType.FP32:
            accum_dtypes = [DType.FP32]
        elif error_name is None:
            assert False, f"Invalid I/O DType for pooling: {DTypeNames[dtype]}"
        else:
            # Set to something for the ErrorIf case which has
            # incorrect input data-type
            accum_dtypes = [DType.INT32]

        if not test_level8k:
            if testGen.args.oversize:
                # add some oversize argument values
                bigStride = 7
                bigKernel = 9
                strides.update(
                    {x for x in itertools.product(*([[startStride, bigStride]] * 2))}
                )
                kernels.update(
                    {x for x in itertools.product(*([[startKernel, bigKernel]] * 2))}
                )
                if max(shape) < 64:
                    # padding must be less than the kernel size
                    bigPadding = bigKernel - 1
                    paddings.update(
                        {x for x in itertools.product(*([[startPad, bigPadding]] * 4))}
                    )

            # There are too many parameter combinations, so generate them sparsely,
            # very sparse for negative tests
            sparsity_factor = 2 if error_name else 500
            sparsity = (
                len(paddings) * len(strides) * len(kernels) // sparsity_factor + 1
            )
        else:
            # We have already limited test output combinations for 8k tests
            sparsity = 1

        arg_str = (
            "acc{}_st{}_kern{}_pad{}"
            if accum_dtypes[0] is not None
            else "st{}_kern{}_pad{}"
        )

        def get_arg_list_element(accum, stride, pad, kern, dot_products=0):
            # Return tuple containing the formatted argument string and
            # the corresponding argument values in a dictionary

            # Support for larger values than 9 needs different delimiter
            delim = "" if max(stride + kern + pad) <= 9 else "x"
            arg_str_elems = [
                delim.join([str(x) for x in stride]),
                delim.join([str(x) for x in kern]),
                delim.join([str(x) for x in pad]),
            ]
            args_dict = {
                "stride": stride,
                "pad": pad,
                "kernel": kern,
                "dot_products": dot_products,  # Ignored for error tests
                "ks": gtu.product(kern),  # avg_pool2d: KS = KX*KY
            }

            if accum is not None:
                arg_str_elems.insert(0, testGen.typeStr(accum))
                args_dict["acc_type"] = accum
            return (arg_str.format(*arg_str_elems), args_dict)

        n = 0
        for a in accum_dtypes:
            for s in sorted(list(strides)):
                for p in sorted(list(paddings)):
                    for k in sorted(list(kernels)):
                        if error_name in [
                            ErrorIf.StrideSmallerOne,
                            ErrorIf.KernelSmallerOne,
                            ErrorIf.PadSmallerZero,
                            ErrorIf.PadLargerEqualKernel,
                        ]:
                            sNew, pNew, kNew = TosaErrorIfArgGen.eiPoolingErrorIf(
                                testGen, error_name, s, p, k
                            )
                            if None not in [sNew, pNew, kNew] and n % sparsity == 0:
                                arg_list.append(
                                    get_arg_list_element(a, sNew, pNew, kNew)
                                )
                        elif (
                            n % sparsity == 0
                            # padding must not exceed the kernel size
                            and p[0] < k[0]
                            and p[1] < k[0]
                            and p[2] < k[1]
                            and p[3] < k[1]
                            # the padded shape must exceed the kernel size
                            and (shape[1] + p[0] + p[1]) > k[0]
                            and (shape[2] + p[2] + p[3]) > k[1]
                        ):
                            partial_h = shape[1] + p[0] + p[1] - k[0]
                            partial_w = shape[2] + p[2] + p[3] - k[1]
                            remainder_h = partial_h % s[0]
                            remainder_w = partial_w % s[1]
                            output_h = partial_h // s[0] + 1
                            output_w = partial_w // s[1] + 1
                            # debug print(shape, remainder_h, remainder_w, "/", output_h, output_w)
                            if (
                                # the parameters must produce integer exact output
                                error_name != ErrorIf.PoolingOutputShapeNonInteger
                                and remainder_h == 0
                                and remainder_w == 0
                            ) or (
                                error_name == ErrorIf.PoolingOutputShapeNonInteger
                                and (remainder_h != 0 or remainder_w != 0)
                            ):
                                if (
                                    max_dim_size is not None
                                    and max(output_h, output_w) > max_dim_size
                                ):
                                    # Test will consume too much memory - skip it
                                    continue
                                # Dot products = N*OH*OW*C
                                dp = gtu.product(
                                    (shape[0], output_h, output_w, shape[3])
                                )
                                arg_list.append(get_arg_list_element(a, s, p, k, dp))
                        n += 1

        # Now add data generator types
        arg_list = TosaArgGen._add_data_generators(
            testGen,
            opName,
            dtype,
            arg_list,
            error_name,
        )

        # Return list of tuples: (arg_str, args_dict)
        return arg_list

    @staticmethod
    def agCast(testGen, opName, shapeList, inDtype, error_name=None):
        arg_list = []

        # Enumerate the output types here
        if error_name == ErrorIf.WrongOutputType:
            dtypeList = TosaErrorIfArgGen.eiCastErrorIf(testGen, inDtype)
        elif inDtype == DType.INT8:
            dtypeList = [
                DType.BOOL,
                DType.INT16,
                DType.INT32,
                DType.FP16,
                DType.BF16,
                DType.FP32,
            ]
        elif inDtype == DType.INT16:
            dtypeList = [
                DType.BOOL,
                DType.INT8,
                DType.INT32,
                DType.FP16,
                DType.BF16,
                DType.FP32,
            ]
        elif inDtype == DType.INT32:
            dtypeList = [
                DType.BOOL,
                DType.INT8,
                DType.INT16,
                DType.FP16,
                DType.BF16,
                DType.FP32,
            ]
        elif inDtype == DType.BOOL:
            dtypeList = [DType.INT8, DType.INT16, DType.INT32]
        elif inDtype == DType.FP16:
            dtypeList = [DType.INT8, DType.INT16, DType.INT32, DType.FP32]
        elif inDtype == DType.BF16:
            dtypeList = [DType.INT8, DType.INT16, DType.INT32, DType.FP32]
        elif inDtype == DType.FP32:
            dtypeList = [DType.INT8, DType.INT16, DType.INT32, DType.FP16, DType.BF16]
        elif error_name == ErrorIf.WrongInputType:
            # Pick some potentially correct output type for incorrect input type
            dtypeList = [DType.BOOL, DType.INT8, DType.INT16, DType.FP32]
        else:
            raise Exception("Unexpected input dtype: {}".format(inDtype))

        for dtype in dtypeList:
            arg_list.append(("out{}".format(testGen.typeStr(dtype)), [dtype]))

        return arg_list

    @staticmethod
    def agRescale(testGen, opName, shapeList, inDtype, error_name=None):
        arg_list = []

        # Enumerate the output types here
        for outDtype in [
            DType.UINT8,
            DType.INT8,
            DType.INT16,
            DType.INT32,
            DType.UINT16,
        ]:
            if (
                outDtype in [DType.UINT8, DType.INT8, DType.UINT16]
                and error_name == ErrorIf.OutputZeroPointNotZero
            ):
                continue
            if (
                outDtype != DType.UINT16
                and error_name == ErrorIf.U16OutputZeroPointNotValid
            ) or (
                inDtype != DType.UINT16
                and error_name == ErrorIf.U16InputZeroPointNotValid
            ):
                # ErrorIfs only valid with UINT16
                continue
            if (
                inDtype == DType.UINT8
                and outDtype not in [DType.INT8, DType.INT16]
                and error_name != ErrorIf.WrongOutputType
            ):
                # The only output dtypes for UINT8 are INT8/INT16, skip all others
                continue
            if (
                inDtype not in [DType.INT8, DType.INT16]
                and outDtype == DType.UINT8
                and error_name != ErrorIf.WrongOutputType
            ):
                # The only input dtypes for UINT8 are INT8/INT16, skip all others
                continue
            if (
                inDtype == DType.UINT16
                and outDtype != DType.INT16
                and error_name != ErrorIf.WrongOutputType
            ):
                # The only output dtype for UINT16 is INT16, skip all others
                continue
            if (
                inDtype != DType.INT16
                and outDtype == DType.UINT16
                and error_name != ErrorIf.WrongOutputType
            ):
                # The only input dtype for UINT16 is INT16, skip all others
                continue
            if (
                error_name == ErrorIf.WrongOutputType
                and not TosaErrorIfArgGen.eiRescaleWrongOutputType(inDtype, outDtype)
            ):
                continue

            for scale32 in [False, True]:
                if error_name == ErrorIf.ScaleTrue and not scale32:
                    continue
                elif error_name == ErrorIf.ScaleNotTrue and scale32:
                    continue
                for double_round in [False, True]:
                    if error_name == ErrorIf.ScaleNotTrue and not double_round:
                        continue
                    for per_channel in [False, True]:

                        if (
                            inDtype == DType.INT48
                            and scale32
                            and error_name != ErrorIf.ScaleTrue
                        ):
                            # Illegal condition.  Must be scale32=False
                            continue
                        if (
                            double_round
                            and not scale32
                            and error_name != ErrorIf.ScaleNotTrue
                        ):
                            # Illegal condition.  ERROR_IF(!scale32 && double_round)
                            continue

                        arg_list.append(
                            (
                                "out{}_sc{}_dr{}_pc{}".format(
                                    testGen.typeStr(outDtype),
                                    int(scale32),
                                    int(double_round),
                                    int(per_channel),
                                ),
                                [outDtype, scale32, double_round, per_channel],
                            )
                        )

        return arg_list

    @staticmethod
    def agMul(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        if dtype is DType.INT32:
            for p in range(testGen.args.num_rand_permutations):

                shift = testGen.randInt(0, 32)

                arg_list.append(("perm{}_shift{}".format(p, shift), [shift]))
        else:
            arg_list.append(("perm0_shift0", [0]))

        return arg_list

    @staticmethod
    def agArithmeticRightShift(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        arg_list.append(("roundTrue", [True]))
        arg_list.append(("roundFalse", [False]))

        return arg_list

    @staticmethod
    def agFFT2d(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        arg_list.append(("inverseTrue", [True]))
        arg_list.append(("inverseFalse", [False]))

        return arg_list

    # Helper function for reshape.  Gets some factors of a larger number.
    @staticmethod
    def getFactors(val, start=1):
        factors = []

        for i in range(start, int(np.sqrt(val)) + 1):
            if (val % i) == 0:
                factors.append(i)

        return factors

    @staticmethod
    def agReshape(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        origShape = shapeList[0]

        totalElements = 1
        for s in origShape:
            totalElements *= s

        # This code is NOT fast.  Fortunately, the numbers are fairly small.
        factors = TosaArgGen.getFactors(totalElements)

        for p in range(testGen.args.num_rand_permutations):
            # Rank from 1 to TOSA_TENSOR_MAX_RANK
            newRank = testGen.randInt(1, (testGen.TOSA_TENSOR_MAX_RANK + 1))
            if len(factors) < newRank:
                continue

            found = True
            # escape_counter breaks while loop if it continues on for too long
            escape_counter = 0
            while found:
                newShape = []
                new_shape_inferred = []
                # Generate newShape ensuring it isn't a duplicate
                remainingElements = totalElements
                shuffledFactors = testGen.rng.permutation(factors)
                inferred_dim = testGen.rng.integers(1, newRank + 1)
                for i in range(1, newRank):
                    # pick rank-1 factors
                    newShape.append(shuffledFactors[0])
                    remainingElements = remainingElements // shuffledFactors[0]
                    if i == inferred_dim:
                        new_shape_inferred.append(-1)
                    else:
                        new_shape_inferred.append(shuffledFactors[0])
                    shuffledFactors = testGen.rng.permutation(
                        TosaArgGen.getFactors(remainingElements)
                    )
                newShape.append(remainingElements)
                if inferred_dim == newRank:
                    new_shape_inferred.append(-1)
                else:
                    new_shape_inferred.append(remainingElements)

                # Check for duplicates
                found = False
                for name, other_shape in arg_list:
                    if other_shape[0] == newShape:
                        found = True
                        break

                escape_counter += 1
                if escape_counter >= 100:
                    break

                if not found:
                    if error_name in [
                        ErrorIf.ReshapeOutputSizeNonInteger,
                        ErrorIf.ReshapeOutputSizeMultiInference,
                    ]:
                        if newRank < 2:
                            # Need at least two dimensions
                            continue
                        # NOTE: Change inferred_dim starting offset from 1 to 0
                        inferred_dim -= 1
                        extra_dim = inferred_dim + testGen.rng.integers(1, newRank)
                        extra_dim = extra_dim % newRank
                        assert extra_dim != inferred_dim
                        if error_name == ErrorIf.ReshapeOutputSizeNonInteger:
                            elements = 1
                            for i, dim_value in enumerate(new_shape_inferred):
                                if i != inferred_dim and i != extra_dim:
                                    elements *= dim_value
                            dim_value = new_shape_inferred[extra_dim]
                            while totalElements % (elements * dim_value) == 0:
                                dim_value += 1
                            new_shape_inferred[extra_dim] = dim_value
                        else:
                            assert error_name == ErrorIf.ReshapeOutputSizeMultiInference
                            new_shape_inferred[extra_dim] = -1
                    else:
                        arg_list.append(
                            ("perm{}_rank{}_outdefined".format(p, newRank), [newShape])
                        )
                    if error_name != ErrorIf.TensorSizeInputOutputMismatch:
                        arg_list.append(
                            (
                                "perm{}_rank{}_outinferred".format(p, newRank),
                                [new_shape_inferred],
                            )
                        )

        return arg_list

    @staticmethod
    def agTranspose(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        ifm_shape = shapeList[0]

        if error_name == ErrorIf.IndexOutsideBounds:
            incorrect_large_index = range(len(ifm_shape) + 1, 2 * len(ifm_shape) + 1)
            incorrect_small_index = range(-len(ifm_shape), 0)
            permutations = [p for p in itertools.permutations(incorrect_large_index)]
            permutations.extend(
                [p for p in itertools.permutations(incorrect_small_index)]
            )
        elif error_name == ErrorIf.IndexUsedTwice:
            # Create list with a duplicated index
            perm_range = list(range(len(ifm_shape)))
            index_choice = testGen.rng.choice(range(len(perm_range)))
            perm_range[(index_choice + 1) % len(perm_range)] = perm_range[index_choice]
            permutations = [p for p in itertools.permutations(perm_range)]

        else:
            # Get all permutations
            permutations = [p for p in itertools.permutations(range(len(ifm_shape)))]

        # Limit to possible permutations from shape dimension or argument setting
        limit = min(len(permutations), testGen.args.num_rand_permutations)

        # Get random permutation generator that uses all permutations
        random_permutations = testGen.rng.permutation(permutations)

        # Create list of required amount of permutations
        arg_list = [
            ("perm{}".format(p), [random_permutations[p].tolist()])
            for p in range(limit)
        ]
        return arg_list

    @staticmethod
    def agSlice(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        ifm_shape = shapeList[0]
        rank = len(ifm_shape)

        for p in range(testGen.args.num_rand_permutations):
            start = []
            size = []

            valid = True

            for i in range(rank):
                if ifm_shape[i] > 1:
                    start.append(testGen.randInt(0, ifm_shape[i]))
                    size.append(testGen.randInt(0, ifm_shape[i] - start[i]))

                    # Invalid slice size?
                    if size[i] == 0:
                        valid = False
                else:
                    start.append(0)
                    size.append(1)

            if valid:
                # If ERROR_IF test required then incorrect start, size will be returned
                start, size = TosaErrorIfArgGen.eiSliceErrorIf(
                    testGen, error_name, ifm_shape, start, size
                )
                arg_list.append(("perm{}".format(p), [start, size]))
        return arg_list

    @staticmethod
    def agTile(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        ifm_shape = shapeList[0]
        rank = len(ifm_shape)

        for p in range(testGen.args.num_rand_permutations):

            # Pick a few random, but small multiple values
            # because otherwise this has a tendency to generate
            # enormous tensors
            multiples = []
            for i in range(rank):
                if ifm_shape[i] > 1000:
                    # Multiple of 1 if ifm_shape dimension is large to reduce
                    # tensor size
                    multiples.append(1)
                elif max(ifm_shape) > 1000:
                    multiples.append(2)
                else:
                    multiples.append(testGen.randInt(1, 4))
            arg_list.append(("perm{}".format(p), [multiples]))

        return arg_list

    @staticmethod
    def agResize(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []
        ifm_shape = shapeList[0]

        def get_aspect_ratio_resize_params():
            common_aspect_ratios = ((3, 2), (16, 9), (4, 3))
            aspect_ratio = testGen.rng.choice(common_aspect_ratios)
            invert = testGen.rng.choice((False, True))
            letterbox = testGen.rng.choice((False, True))

            scale_y_n = aspect_ratio[0] if invert else aspect_ratio[1]
            scale_x_n = aspect_ratio[1] if invert else aspect_ratio[0]
            scale_y_d = scale_x_d = 1
            offset_x = offset_y = 0

            if letterbox:
                max_border = scale_y_n
                border_y = testGen.randInt(low=0, high=max_border)
                border_x = 0
            else:
                # Pillarboxing
                border_y = 0
                max_border = scale_x_n
                border_x = testGen.randInt(low=0, high=max_border)

            scale = (scale_y_n, scale_y_d, scale_x_n, scale_x_d)
            offset = (offset_y, offset_x)
            border = (border_y, border_x)

            return scale, offset, border

        def get_upscale_downscale_params():
            valid_params = False
            while not valid_params:
                upscale = testGen.rng.choice((False, True))

                # True if sampling begins from (0,0). Otherwise (-0.5,-0.5)
                origin_sampling = testGen.rng.choice((False, True))

                if upscale:
                    shift = testGen.randInt(low=1, high=4)
                    scale_x_d = scale_y_d = 1
                    scale_x_n = scale_y_n = (
                        1 << shift if origin_sampling else 2 << shift
                    )
                    border_x = border_y = 0 if origin_sampling else (1 << shift) - 1
                    offset_x = offset_y = 0 if origin_sampling else -(1 << shift) + 1
                else:
                    scale_x_n = 1
                    scale_y_n = 1

                    # Return list of valid scale_*_d values (max value 4) given input dim shape
                    def get_valid_denom(ifm_dim):
                        return [x for x in range(1, 5) if ifm_dim % x == 1]

                    # Generate list of valid downscale values and choose one randomly
                    valid_scale_y_ds = get_valid_denom(ifm_shape[1])
                    valid_scale_x_ds = get_valid_denom(ifm_shape[2])

                    if not valid_scale_y_ds and not valid_scale_x_ds:
                        # Bad parameters, skip
                        continue

                    if not valid_scale_y_ds:
                        scale_y_d = 1
                    else:
                        scale_y_d = testGen.rng.choice(valid_scale_y_ds)

                    if not valid_scale_x_ds:
                        scale_x_d = 1
                    else:
                        scale_x_d = testGen.rng.choice(valid_scale_x_ds)

                    border_x = border_y = 0
                    offset_y = testGen.randInt(0, 16 * scale_y_n)
                    offset_x = testGen.randInt(0, 16 * scale_x_n)
                valid_params = True

            scale = (scale_y_n, scale_y_d, scale_x_n, scale_x_d)
            offset = (offset_y, offset_x)
            border = (border_y, border_x)
            return scale, offset, border

        def get_rand_params():
            def fix_scale_to_max_scale(scale_n, scale_d, max_scale):
                scale = scale_n / scale_d
                if scale > max_scale:
                    factor = scale / max_scale
                    new_scale_d = math.ceil(scale_d * factor)
                    assert scale_n / new_scale_d <= max_scale
                    scale_d = new_scale_d
                return scale_d

            # Scale
            scale_y_n = testGen.randInt(low=1, high=(1 << 11))
            scale_x_n = testGen.randInt(low=1, high=(1 << 11))

            scale_y_d = testGen.randInt(low=1, high=(16 * scale_y_n))
            scale_x_d = testGen.randInt(low=1, high=(16 * scale_x_n))

            scale_y_d = fix_scale_to_max_scale(
                scale_y_n, scale_y_d, testGen.TOSA_8K_LEVEL_MAX_SCALE
            )
            scale_x_d = fix_scale_to_max_scale(
                scale_x_n, scale_x_d, testGen.TOSA_8K_LEVEL_MAX_SCALE
            )

            # Offsets and border within the scale
            offset_y = testGen.randInt(low=-scale_y_n, high=(16 * scale_y_n))
            offset_x = testGen.randInt(low=-scale_x_n, high=(16 * scale_x_n))
            border_y = testGen.randInt(low=(-16 * scale_y_n), high=scale_y_n)
            border_x = testGen.randInt(low=(-16 * scale_x_n), high=scale_x_n)

            scale = (scale_y_n, scale_y_d, scale_x_n, scale_x_d)
            offset = (offset_y, offset_x)
            border = (border_y, border_x)
            return scale, offset, border

        def get_level_8k_params():
            # Create 64x scale - 64/1 to 2048/32
            scale_d = testGen.randInt(
                low=1, high=(1 << 11) / testGen.TOSA_8K_LEVEL_MAX_SCALE
            )
            scale_n = scale_d * testGen.TOSA_8K_LEVEL_MAX_SCALE
            # Create half to fifth scaling
            scale_d_alt = testGen.randInt(low=2, high=6)
            scale_n_alt = 1
            switch = testGen.rng.choice((False, True))
            if switch:
                scale = (scale_n_alt, scale_d_alt, scale_n, scale_d)
            else:
                scale = (scale_n, scale_d, scale_n_alt, scale_d_alt)

            offset_y = testGen.rng.choice((-scale[0], 0, (16 * scale[0]) - 1))
            offset_x = testGen.rng.choice((-scale[2], 0, (16 * scale[2]) - 1))
            offset = (offset_y, offset_x)
            border_y = testGen.rng.choice((-16 * scale[0], 0, scale[0] - 1))
            border_x = testGen.rng.choice((-16 * scale[2], 0, scale[2] - 1))
            border = (border_y, border_x)
            return scale, offset, border

        for mode in [ResizeMode.NEAREST, ResizeMode.BILINEAR]:
            # Exclude illegal {mode, type} configurations.  Pick legal output types
            if mode == ResizeMode.NEAREST and dtype == DType.INT8:
                outputDTypeList = [DType.INT8]
            elif mode == ResizeMode.NEAREST and dtype == DType.INT16:
                outputDTypeList = [DType.INT16]
            elif mode == ResizeMode.BILINEAR and dtype == DType.INT8:
                outputDTypeList = [DType.INT32]
            elif mode == ResizeMode.BILINEAR and dtype == DType.INT16:
                outputDTypeList = [DType.INT48]
            elif dtype == DType.FP16:
                outputDTypeList = [DType.FP16]
            elif dtype == DType.BF16:
                outputDTypeList = [DType.BF16]
            elif dtype == DType.FP32:
                outputDTypeList = [DType.FP32]
            elif error_name == ErrorIf.WrongInputType:
                # If an incorrect input type is used then we set a 'correct'
                # output type to avoid other errors
                outputDTypeList = [DType.INT8, DType.INT16, DType.INT32]
            else:
                continue

            arg_str = "mode{}_out{}_sc{}x{}x{}x{}_off{}x{}_bor{}x{}"

            for outputDType in outputDTypeList:
                perm = 0
                while perm < testGen.args.num_rand_permutations:
                    # Random choice of type of params we are testing
                    if not testGen.args.level8k:
                        _rnd_param_fn = testGen.rng.choice(
                            (
                                get_rand_params,
                                get_upscale_downscale_params,
                                get_aspect_ratio_resize_params,
                            )
                        )
                        scale, offset, border = _rnd_param_fn()
                    else:
                        scale, offset, border = get_level_8k_params()

                    # Expand params for bounds-checking
                    (scale_y_n, scale_y_d, scale_x_n, scale_x_d) = scale
                    (offset_y, offset_x) = offset
                    (border_y, border_x) = border

                    # Make sure output dimensions OH and OW are integers
                    partial_output_y = (
                        (ifm_shape[1] - 1) * scale_y_n - offset_y + border_y
                    )
                    partial_output_x = (
                        (ifm_shape[2] - 1) * scale_x_n - offset_x + border_x
                    )
                    if error_name == ErrorIf.ResizeOutputShapeNonInteger:
                        # Look for non-integer test
                        if (
                            partial_output_y % scale_y_d == 0
                            and partial_output_x % scale_x_d == 0
                        ):
                            # Skip this test as it doesn't produce NonInteger output
                            if perm > 0:
                                perm += 1
                            continue
                    else:
                        # Alter the scaling factors to make the output integer
                        while partial_output_y % scale_y_d != 0:
                            scale_y_d -= 1
                        while partial_output_x % scale_x_d != 0:
                            scale_x_d -= 1
                        # Make sure we are still within max scaling
                        if (
                            scale_y_n / scale_y_d
                        ) > testGen.TOSA_8K_LEVEL_MAX_SCALE or (
                            scale_x_n / scale_x_d
                        ) > testGen.TOSA_8K_LEVEL_MAX_SCALE:
                            # Skip the test as it is using too large a scaling factor
                            if perm > 0:
                                perm += 1
                            continue

                    output_y = partial_output_y // scale_y_d + 1
                    output_x = partial_output_x // scale_x_d + 1

                    if (
                        output_y >= testGen.args.max_resize_output_dim
                        or output_x >= testGen.args.max_resize_output_dim
                    ) and error_name is None:
                        # Skip positive test if output dim will be too high
                        # Avoid high test latency and OOM issues
                        if not testGen.args.level8k or perm > 0:
                            perm += 1
                        continue

                    if (
                        output_y <= 0
                        or output_y >= gtu.MAX_RESIZE_DIMENSION
                        or output_x <= 0
                        or output_x >= gtu.MAX_RESIZE_DIMENSION
                    ):
                        # Output dimensions out of scope
                        if error_name is not None and perm > 0:
                            # As long as we have one ERROR_IF test, don't worry
                            # about creating all the other permutations
                            perm += 1
                        continue

                    if error_name == ErrorIf.ResizeOutputShapeMismatch and (
                        (
                            output_y + scale_y_d >= gtu.MAX_RESIZE_DIMENSION
                            and output_y - scale_y_d < 1
                        )
                        or (
                            output_x + scale_x_d >= gtu.MAX_RESIZE_DIMENSION
                            and output_x - scale_x_d < 1
                        )
                    ):
                        # Can't create a negative test with these params as it
                        # will create invalid output size
                        if perm > 0:
                            perm += 1
                        continue

                    scale = [scale_y_n, scale_y_d, scale_x_n, scale_x_d]
                    offset = [offset_y, offset_x]
                    border = [border_y, border_x]

                    # Common for all data types
                    if error_name is not None:
                        (
                            scale,
                            offset,
                            border,
                            outputDTypeNew,
                        ) = TosaErrorIfArgGen.eiResizeErrorIf(
                            testGen,
                            error_name,
                            mode,
                            dtype,
                            shapeList,
                            outputDType,
                            scale,
                            offset,
                            border,
                        )
                    else:
                        outputDTypeNew = outputDType

                    arg_to_append = (
                        arg_str.format(
                            "N" if mode == ResizeMode.NEAREST else "B",
                            testGen.typeStr(outputDTypeNew),
                            scale[0],
                            scale[1],
                            scale[2],
                            scale[3],
                            offset[0],
                            offset[1],
                            border[0],
                            border[1],
                        ),
                        [
                            mode,
                            scale,
                            offset,
                            border,
                            dtype,
                            outputDTypeNew,
                        ],
                    )
                    if arg_to_append in arg_list:
                        # Skip already generated test params
                        continue

                    # Valid permutation
                    perm += 1
                    arg_list.append(arg_to_append)
        return arg_list

    @staticmethod
    def agTable(testGen, opName, shapeList, dtype, error_name=None):
        arg_list = []

        if dtype == DType.INT8:
            table = np.int32(
                testGen.rng.integers(low=-128, high=128, size=[256])
            ).tolist()
        else:  # INT16
            table = np.int32(
                testGen.rng.integers(low=-32768, high=32768, size=[513])
            ).tolist()
            # Make sure all slopes are within REQUIRE min/max 16-bit int
            for idx in range(len(table) - 1):
                slope = table[idx + 1] - table[idx]
                # Alter the next table entry to force the slope to be ok
                if slope > 32767:
                    table[idx + 1] -= slope - 32767
                if slope < -32768:
                    table[idx + 1] -= slope + 32768
                slope = table[idx + 1] - table[idx]
                assert slope <= 32767 and slope >= -32768
        arg_list.append(
            (
                "",
                [table],
            )
        )
        return arg_list

    def agCondIf(testGen, opName, shapeList, dtype, error_name=None):
        # CondIf generates the condition values here.
        # Convert to tensors in the build function, along with the
        # then and else blocks
        arg_list = []

        for c in [False, True]:
            arg_list.append(("cond{}".format(int(c)), [c]))

        return arg_list

    def agWhileLoop(testGen, opName, shapeList, dtype, error_name=None):
        # While loop: 0 iterations, 1, more than 1
        arg_list = []

        for iter in [0, 1, 4]:
            arg_list.append(("iter{}".format(iter), [iter]))

        return arg_list