}

  // Clone the callee before making changes.
  SmallString<64> name_base = callee.getName();
  auto module = callee->getParentOfType<ModuleOp>();
  name_base += "_resource_lifted";
  auto name = name_base;
  callee = callee.clone();
  callee.setPrivate();
  callee.setName(mlir::StringAttr::get(callee->getContext(), name));
  SymbolTable(module).insert(callee);
  result->lifted_callee = callee;

      return getArgsMutable();
    }

    // Returns the callee of this operation.
    CallInterfaceCallable getCallableForCallee() { return getFAttr(); }
    // Sets the callee from the callable
    void setCalleeFromCallable(::mlir::CallInterfaceCallable callee);

    // Returns the resolved callee function of this operation.
    // Prefer passing in SymbolTableCollection to reduce lookup costs by

        // If a function call is resolved to an implicit invoke call, the FirImplicitInvokeCall will have the `invoke()` function as the
        // callee and the variable as the explicit receiver. To correctly get all candidates, we need to get the original function
        // call's explicit receiver (if there is any) and callee (i.e., the variable).
        val unwrappedExplicitReceiver = explicitReceiver?.unwrapSmartcastExpression()

      if (!llvm::isa<func::FuncOp>(symbol)) {
        func.emitError() << "Invalid callee: " << caller.getF();
        return LogicalResult::failure();
      }
      auto callee =
          llvm::dyn_cast<func::FuncOp>(symbol_table.lookup(caller.getF()));
      auto& src_region = callee.getRegion();
      auto result = inlineCall(*this, caller, callee, &src_region, true);
      if (failed(result)) {

		su.SetRelocType(rIdx, objabi.R_CALLPOWER)

		// This is a local call, so the caller isn't setting
		// up r12 and r2 is the same for the caller and
		// callee. Hence, we need to go to the local entry
		// point.  (If we don't do this, the callee will try
		// to use r12 to compute r2.)
		localEoffset := int64(ldr.SymLocalentry(targ))
		if localEoffset == 1 {
			ldr.Errorf(s, "Unsupported NOTOC call to %s", targ)
		}

  }
  if (op_name == "tfl.while") {
    // Adds two empty regions for "tfl.while". We will fill the regions after
    // creating the callee functions because the "tfl.while" input/output types
    // may be different with the callee functions, and the call ops need to sync
    // with callee function types.
    op_state.addRegion();
    op_state.addRegion();
  }
  if (op_name == "tfl.unidirectional_sequence_lstm") {

}

// Matches the following pattern that represents uniform quantization:
//
// `call @uniform_quantize(%input, %inverse_scale, %zero_point)`
//
// Provides helper functions to access the operands and the callee.
class UniformQuantizeFunctionCallPattern {
 public:
  // Returns Failure if it doesn't match. Returns the "wrapper" for the uniform
  // dequantization function call pattern when matched.

    if (!scope.empty()) {
      return scope;
    }
  }

  return std::nullopt;
}

// Returns true iff the attribute `attr_name` is attached to either the node or
// to it's callee.
static bool GetNodeOrFuncAttr(Node* node, FunctionLibraryDefinition* flib_def,
                              const char* attr_name) {
  bool out = false;
  bool attr_value;

		lastN = 0
		f := u.frame.fn
		for iu, uf := newInlineUnwinder(f, u.symPC()); uf.valid(); uf = iu.next(uf) {
			sf := iu.srcFunc(uf)
			callee := u.calleeFuncID
			u.calleeFuncID = sf.funcID
			if !(showRuntime || showframe(sf, gp, n == 0, callee)) {
				continue
			}

			if pr, stop := commitFrame(); stop {
				return
			} else if !pr {
				continue
			}

			name := sf.name()

	// Create a new thread to finish Go runtime initialization.
	MOVQ	_cgo_sys_thread_create(SB), AX
	TESTQ	AX, AX
	JZ	nocgo

	// We're calling back to C.
	// Align stack per ELF ABI requirements.
	MOVQ	SP, BX  // Callee-save in C ABI
	ANDQ	$~15, SP
	MOVQ	$_rt0_amd64_lib_go(SB), DI
	MOVQ	$0, SI
	CALL	AX
	MOVQ	BX, SP
	JMP	restore

nocgo:
	ADJSP	$16
	MOVQ	$0x800000, 0(SP)		// stacksize
	MOVQ	$_rt0_amd64_lib_go(SB), AX