$n++;
		} elsif($type eq "int64" && ($openbsd || $netbsd)) {
			if (!$libc) {
				push @args, "0";
			}
			if($libc && $arm && @args % 2) {
				# arm abi specifies 64 bit argument must be 64 bit aligned.
				push @args, "0"
			}
			if($_32bit eq "big-endian") {
				push @args, "uintptr($name>>32)", "uintptr($name)";
			} elsif($_32bit eq "little-endian") {
				push @args, "uintptr($name)", "uintptr($name>>32)";

//
// The logical function signature is:
//   {{PROGRAM_SHAPE}}
//
// Memory stats:
//   arg bytes total:    {{ARG_BYTES_TOTAL}}
//   arg bytes aligned:  {{ARG_BYTES_ALIGNED}}
//   temp bytes total:   {{TEMP_BYTES_TOTAL}}
//   temp bytes aligned: {{TEMP_BYTES_ALIGNED}}
class {{CLASS}} final : public tensorflow::XlaCompiledCpuFunction {
 public:
  // Number of input arguments for the compiled computation.

// bytes with any other objects, allowing the GC program execution to
// assume an aligned start and not use atomic operations. In the current
// runtime, this means all malloc size classes larger than the cutoff must
// be multiples of four words. On 32-bit systems that's 16 bytes, and
// all size classes >= 16 bytes are 16-byte aligned, so no real constraint.
// On 64-bit systems, that's 32 bytes, and 32-byte alignment is guaranteed

	compressedSects, compressedBytes, err := machoCompressSections(ctxt, dwarfm)
	if err != nil {
		return err
	}

	// Now copy the dwarf data into the output.
	// Kernel requires all loaded segments to be page-aligned in the file,
	// even though we mark this one as being 0 bytes of virtual address space.
	dwarfstart := Rnd(int64(linkseg.Offset), *FlagRound)
	if _, err := outf.Seek(dwarfstart, 0); err != nil {
		return err
	}

// func asmcgocall_no_g(fn, arg unsafe.Pointer)
// Call fn(arg) aligned appropriately for the gcc ABI.
// Called on a system stack, and there may be no g yet (during needm).
TEXT ·asmcgocall_no_g(SB),NOSPLIT,$0-16
	MOVV	fn+0(FP), R25
	MOVV	arg+8(FP), R4
	JAL	(R25)
	RET

// func asmcgocall(fn, arg unsafe.Pointer) int32
// Call fn(arg) on the scheduler stack,
// aligned appropriately for the gcc ABI.

	default:
		ldr.Errorf(s, "unexpected relocation variant %d", rv)
		return t

	case sym.RV_NONE:
		return t

	case sym.RV_390_DBL:
		if t&1 != 0 {
			ldr.Errorf(s, "%s+%v is not 2-byte aligned", ldr.SymName(r.Sym()), ldr.SymValue(r.Sym()))
		}
		return t >> 1
	}
}

func addpltsym(target *ld.Target, ldr *loader.Loader, syms *ld.ArchSyms, s loader.Sym) {
	if ldr.SymPlt(s) >= 0 {
		return
	}

		}
		pre = cur
	}
	return true
}

// alignSparseEntries mutates src and returns dst where each fragment's
// starting offset is aligned up to the nearest block edge, and each
// ending offset is aligned down to the nearest block edge.
//
// Even though the Go tar Reader and the BSD tar utility can handle entries
// with arbitrary offsets and lengths, the GNU tar utility can only handle

		&metrics.CounterOpts{
			Subsystem:      KubeletSubsystem,
			Name:           TopologyManagerAdmissionRequestsTotalKey,
			Help:           "The number of admission requests where resources have to be aligned.",
			StabilityLevel: metrics.ALPHA,
		},
	)

	// TopologyManagerAdmissionErrorsTotal tracks the number of times the pod spec required the topology manager to admit a pod, but the admission failed

// func asmcgocall_no_g(fn, arg unsafe.Pointer)
// Call fn(arg) aligned appropriately for the gcc ABI.
// Called on a system stack, and there may be no g yet (during needm).
TEXT ·asmcgocall_no_g(SB),NOSPLIT,$0-16
	MOV	fn+0(FP), X5
	MOV	arg+8(FP), X10
	JALR	RA, (X5)
	RET

// func asmcgocall(fn, arg unsafe.Pointer) int32
// Call fn(arg) on the scheduler stack,
// aligned appropriately for the gcc ABI.

	MOVD	g, R2			// arg 0: G
	// C functions expect 160 bytes of space on caller stack frame
	// and an 8-byte aligned stack pointer
	MOVD	R15, R9			// save current stack (R9 is preserved in the Linux ABI)
	SUB	$160, R15		// reserve 160 bytes
	MOVD    $~7, R6
	AND 	R6, R15			// 8-byte align
	BL	R11			// this call clobbers volatile registers according to Linux ABI (R0-R5, R14)
	MOVD	R9, R15			// restore stack