// The get call is the explicit receiver of this operation call
                val getCall = operationCall.explicitReceiver as? FirFunctionCall ?: return null
                val getPartiallyAppliedSymbol = getCall.toPartiallyAppliedSymbol(arrayAccessExpression.arrayExpression) ?: return null
                CompoundArrayAccessPartiallyAppliedSymbols(

		name            string
		beforeMarkReady int
		beforeNextReady int
		beforeTimeout   int
		wantCalls       int
		patchFailures   int
		wantPatches     int
	}{
		{
			name:            "timeout after third loop",
			beforeMarkReady: 9,
			beforeNextReady: 9,
			beforeTimeout:   2,
			wantCalls:       3,
		},
		{
			name:            "already ready on third loop",
			beforeMarkReady: 9,

            toolChainPath.append("%PATH%");
        }

        String runScriptText =
              "\n@echo off"
            + "\nSETLOCAL"
            + "\n" + toolChainPath
            + "\nCALL \"%~dp0lib\\" + executable.getName() + "\" %*"
            + "\nEXIT /B %ERRORLEVEL%"
            + "\nENDLOCAL"
            + "\n";
        GFileUtils.writeFile(runScriptText, runScript);
    }

	}
}

// Rewrite p, if necessary, to access a symbol using its TOC anchor.
// This code is for AIX only.
func (c *ctxt9) rewriteToUseTOC(p *obj.Prog) {
	if p.As == obj.ATEXT || p.As == obj.AFUNCDATA || p.As == obj.ACALL || p.As == obj.ARET || p.As == obj.AJMP {
		return
	}

	if p.As == obj.ADUFFCOPY || p.As == obj.ADUFFZERO {
		// ADUFFZERO/ADUFFCOPY is considered as an ABL except in dynamic

			// when it context is actually cancelled) - we want to unblock the goroutine as
			// soon as the request is processed from the APF point of view.
			//
			// Note that we explicitly do NOT call the actuall handler using that context
			// to avoid cancelling request too early.
			handleCtx, handleCtxCancel := h.newReqWaitCtxFn(ctx)
			defer handleCtxCancel()

	ATRUNCFW
	ATRUNCDW
	AMOVWU
	AMOVFV
	AMOVDV
	AMOVVF
	AMOVVD

	/* MSA */
	AVMOVB
	AVMOVH
	AVMOVW
	AVMOVD

	ALAST

	// aliases
	AJMP = obj.AJMP
	AJAL = obj.ACALL
	ARET = obj.ARET
)

func init() {
	// The asm encoder generally assumes that the lowest 5 bits of the
	// REG_XX constants match the machine instruction encoding, i.e.

	// RegArgs is a slice of register-memory pairs that must be spilled and unspilled in the uncommon path of function entry.
	RegArgs []Spill
	// OwnAux describes parameters and results for this function.
	OwnAux *AuxCall
	// CloSlot holds the compiler-synthesized name (".closureptr")
	// where we spill the closure pointer for range func bodies.
	CloSlot *ir.Name

		p.To.Reg = v.Reg()

	case ssa.Op386LoweredWB:
		p := s.Prog(obj.ACALL)
		p.To.Type = obj.TYPE_MEM
		p.To.Name = obj.NAME_EXTERN
		// AuxInt encodes how many buffer entries we need.
		p.To.Sym = ir.Syms.GCWriteBarrier[v.AuxInt-1]

	case ssa.Op386LoweredPanicBoundsA, ssa.Op386LoweredPanicBoundsB, ssa.Op386LoweredPanicBoundsC:
		p := s.Prog(obj.ACALL)
		p.To.Type = obj.TYPE_MEM
		p.To.Name = obj.NAME_EXTERN

        writeInt4( (int)(t / 1000L), dst, dstIndex );
    }

    /*
     * These are all the smbs supported by this library. This includes requests
     * and well as their responses for each type however the actuall implementations
     * of the readXxxWireFormat and writeXxxWireFormat methods may not be in
     * place. For example at the time of this writing the readXxxWireFormat

	AVMSLEOG

	ANOPH // NOP

	// binary
	ABYTE
	AWORD
	ADWORD

	// Breakpoint
	ABRRK

	// end marker
	ALAST

	// aliases
	ABR = obj.AJMP
	ABL = obj.ACALL