if i != 0 {
			b.WriteString(", ")
		}
		fldconv(b, param, fieldVerb, mode, visited, true)
	}
	b.WriteByte(')')
}

func fldconv(b *bytes.Buffer, f *Field, verb rune, mode fmtMode, visited map[*Type]int, isParam bool) {
	if f == nil {
		b.WriteString("<T>")
		return
	}

	var name string
	nameSep := " "
	if verb != 'S' {
		s := f.Sym

		// Using type aliases and embedded fields, it's possible to

	}

	star := p.expect(token.MUL)
	base := p.parseType()

	return &ast.StarExpr{star, base}
}

func (p *parser) tryVarType(isParam bool) ast.Expr {
	if isParam && p.tok == token.ELLIPSIS {
		pos := p.pos
		p.next()
		typ := p.tryIdentOrType(isParam) // don't use parseType so we can provide better error message
		if typ == nil {
			p.error(pos, "'...' parameter is missing type")

        Architectures.forInput(architecture).isArm32()
        Architectures.forInput(architecture).isArm()
        where:
        architecture << [ "arm", "armv7" ]
    }

    def "test ARM 64 aliases"() {
        expect:
        Architectures.forInput(architecture).isArm64()
        Architectures.forInput(architecture).isArm()
        where:
        architecture << [ "aarch64", "arm-v8" ]
    }

    @Internal
    boolean isI386();

    @Internal
    boolean isAmd64();

    @Internal
    boolean isIa64();

    @Internal
    default boolean isArm() {
        return isArm32() || isArm64();
    }

    @Internal
    boolean isArm32();

    @Internal
    boolean isArm64();

// OffsetOfArg returns the SP offset of argument which (indexed 0, 1, etc).
// If the call is to a method, the receiver is the first argument (i.e., index 0)
func (a *AuxCall) OffsetOfArg(which int64) int64 {
	n := int64(a.abiInfo.InParam(int(which)).Offset())
	return n
}

// RegsOfResult returns the register(s) used for result which (indexed 0, 1, etc).
func (a *AuxCall) RegsOfResult(which int64) []abi.RegIndex {

        }
        if (platform.getArchitecture().isIa64()) {
            return new LegacyPlatformWindowsSdk(BINPATHS_IA64, LIBPATHS_IA64);
        }
        if (platform.getArchitecture().isArm()) {
            return new LegacyPlatformWindowsSdk(BINPATHS_ARM, LIBPATHS_ARM);
        }
        if (platform.getArchitecture().isI386()) {
            return new LegacyPlatformWindowsSdk(BINPATHS_X86, LIBPATHS_X86);

	}
}

//
// Processor functions
//

func (t *Target) Is386() bool {
	return t.Arch.Family == sys.I386
}

func (t *Target) IsARM() bool {
	return t.Arch.Family == sys.ARM
}

func (t *Target) IsARM64() bool {
	return t.Arch.Family == sys.ARM64
}

func (t *Target) IsAMD64() bool {
	return t.Arch.Family == sys.AMD64
}

            String config = "     eachPlatform { platformToolChain ->\n";
            config += "         if (platformToolChain.platform.architecture.isI386() || platformToolChain.platform.architecture.isArm()) {\n";
            config += "             platformToolChain.cCompiler.executable='i686-pc-cygwin-gcc.exe'\n";
            config += "             platformToolChain.cppCompiler.executable='i686-pc-cygwin-g++.exe'\n";

            return targetPlatform.getOperatingSystem().isCurrent()
                && targetPlatform.getOperatingSystem().isMacOsX()
                && targetPlatform.getArchitecture().isArm();
        }

        @Override
        public void apply(DefaultGccPlatformToolChain gccToolChain) {
            final String[] compilerArgs = new String[]{"-arch", "arm64"};

		return 0
	}

	n := uint64(0)
	relocs := ldr.Relocs(s)
	for ri := 0; ri < relocs.Count(); ri++ {
		r := relocs.At(ri)
		if r.Type().IsDirectCallOrJump() {
			n++
		}
	}

	switch {
	case ctxt.IsARM():
		return n * 20 // Trampolines in ARM range from 3 to 5 instructions.
	case ctxt.IsARM64():
		return n * 12 // Trampolines in ARM64 are 3 instructions.
	case ctxt.IsPPC64():