//
// If the format specifier includes a %w verb with an error operand,
// the returned error will implement an Unwrap method returning the operand.
// If there is more than one %w verb, the returned error will implement an
// Unwrap method returning a []error containing all the %w operands in the
// order they appear in the arguments.
// It is invalid to supply the %w verb with an operand that does not implement

      // original If op.
      if (op_to_inline.hasTrait<OpTrait::IsTerminator>()) {
        updated_results.reserve(op_to_inline.getNumOperands());
        for (Value operand : op_to_inline.getOperands())
          updated_results.push_back(mapper.lookup(operand));
        break;
      }

      // Otherwise, clone the op here.
      rewriter.clone(op_to_inline, mapper);
    }
    rewriter.replaceOp(op, updated_results);

    return success();
  }

  // Returns directly if any of the operands is not an elements attributes.
  if (std::any_of(operands.begin(), operands.end(), [](Attribute attr) {
        return !attr || !mlir::isa<ElementsAttr>(attr);
      }))
    return failure();

  SmallVector<ElementsAttr, 4> inputs;
  inputs.reserve(operands.size());
  for (auto input : operands) {
    inputs.push_back(mlir::cast<ElementsAttr>(input));
  }

    auto func =
        llvm::cast<func::FuncOp>(m.lookupSymbol(cluster_func.getFunc()));
    for (auto entry : llvm::enumerate(cluster_func.getOperands())) {
      auto operand = SkipIdentityAndReadVariable(entry.value());
      auto block_arg = mlir::dyn_cast<BlockArgument>(operand);
      if (block_arg && block_arg.getOwner() == &replicate.GetBody()) {
        // Only mirrored args of ReplicateOp can be annotated.

}

// Identical reports whether x and y are identical types.
// Receivers of [Signature] types are ignored.
//
// Predicates such as [Identical], [Implements], and
// [Satisfies] assume that both operands belong to a
// consistent collection of symbols ([Object] values).
// For example, two [Named] types can be identical only if their
// [Named.Obj] methods return the same [TypeName] symbol.

}

// Identical reports whether x and y are identical types.
// Receivers of [Signature] types are ignored.
//
// Predicates such as [Identical], [Implements], and
// [Satisfies] assume that both operands belong to a
// consistent collection of symbols ([Object] values).
// For example, two [Named] types can be identical only if their
// [Named.Obj] methods return the same [TypeName] symbol.

// format operators and their operand types.
//
// # Examples
//
// The %d format operator requires an integer operand.
// Here it is incorrectly applied to a string:
//
//	fmt.Printf("%d", "hello") // fmt.Printf format %d has arg "hello" of wrong type string
//
// A call to Printf must have as many operands as there are "verbs" in
// the format string, not too few:
//

// This file implements functions for untyped constant operands.

package types2

import (
	"cmd/compile/internal/syntax"
	"go/constant"
	"go/token"
	. "internal/types/errors"
	"math"
)

// overflow checks that the constant x is representable by its type.
// For untyped constants, it checks that the value doesn't become
// arbitrarily large.
func (check *Checker) overflow(x *operand, opPos syntax.Pos) {
	assert(x.mode == constant_)

  for (Value value : activation_values) {
    QuantizeValue(builder, value, default_params);
  }

  // Since all the non-biases operands have quantization parameters now, we
  // should be able to propagate them to the bias operand.
  for (Value bias : bias_values) {
    Operation *op = *bias.user_begin();
    auto spec = TFL::GetOpQuantSpec(op);
    for (auto &it : spec->biases_params) {

// This file implements functions for untyped constant operands.

package types

import (
	"go/constant"
	"go/token"
	. "internal/types/errors"
	"math"
)

// overflow checks that the constant x is representable by its type.
// For untyped constants, it checks that the value doesn't become
// arbitrarily large.
func (check *Checker) overflow(x *operand, opPos token.Pos) {
	assert(x.mode == constant_)