MOV	$8, X9
	BLT	X11, X9, check4

	// Check alignment
	AND	$7, X10, X5
	BEQZ	X5, aligned

	// Zero one byte at a time until we reach 8 byte alignment.
	SUB	X5, X9, X5
	SUB	X5, X11, X11
align:
	SUB	$1, X5
	MOVB	ZERO, 0(X10)
	ADD	$1, X10
	BNEZ	X5, align

aligned:
	// X9 already contains $8
	BLT	X11, X9, check4
	MOV	$16, X9
	BLT	X11, X9, zero8
	MOV	$32, X9

			// Special case: sync/atomic.align64 is an
			// empty struct we recognize as a signal that
			// the struct it contains must be
			// 64-bit-aligned.
			//
			// This logic is equivalent to the logic in
			// cmd/compile/internal/types/size.go:calcStructOffset
			return 8
		}

		// spec: "For a variable x of struct type: unsafe.Alignof(x)
		// is the largest of the values unsafe.Alignof(x.f) for each

	BEQ	aligned			// aligned detected - skip copy

	// Copy the unaligned source data into the aligned temporary buffer
	// memmove(to=4(R13), from=8(R13), n=12(R13)) - Corrupts all registers
	MOVW	$buf, Rtable	// to
	MOVW	$64, Rc0		// n
	MOVM.IB	[Rtable,Rdata,Rc0], (R13)
	BL	runtime·memmove(SB)

	// Point to the local aligned copy of the data
	MOVW	$buf, Rdata

aligned:

			// Special case: sync/atomic.align64 is an
			// empty struct we recognize as a signal that
			// the struct it contains must be
			// 64-bit-aligned.
			//
			// This logic is equivalent to the logic in
			// cmd/compile/internal/types/size.go:calcStructOffset
			return 8
		}

		// spec: "For a variable x of struct type: unsafe.Alignof(x)
		// is the largest of the values unsafe.Alignof(x.f) for each

	// If the output contains this pattern, the pc-offsite of "MOVD $1, R1" is 8 bytes aligned.
	out1 := `0x0008\s00008\s\(.*\)\tMOVD\t\$1,\sR1`
	// If the output contains this pattern, the pc-offsite of "MOVD $2, R2" is 16 bytes aligned.
	out2 := `0x0010\s00016\s\(.*\)\tMOVD\t\$2,\sR2`
	var testCases = []struct {
		name string
		code []byte
		out  string
	}{

	// jump directly to tail if length < 32
	BLO	tail
	ANDS	$0x1f, R0, R9
	BEQ	chunk
	// Work with not 32-byte aligned head
	BIC	$0x1f, R0, R3
	ADD	$0x20, R3
	PCALIGN $16
head_loop:
	MOVBU.P	1(R0), R5
	CMP	R5, R1
	CINC	EQ, R11, R11
	SUB	$1, R2, R2
	CMP	R0, R3
	BNE	head_loop
	// Work with 32-byte aligned chunks
chunk:
	BIC	$0x1f, R2, R9
	// The first chunk can also be the last
	CBZ	R9, tail

	m.mutex.Lock()
	defer m.mutex.Unlock()
	for resource, requested := range accumulatedResourceRequests {
		// Only consider devices that actually contain topology information.
		if aligned := m.deviceHasTopologyAlignment(resource); !aligned {
			klog.InfoS("Resource does not have a topology preference", "resource", resource)
			deviceHints[resource] = nil
			continue
		}

// license that can be found in the LICENSE file.

//go:build ignore

package main

// This file tests that we don't generate an incorrect field location
// for a bitfield that appears aligned.

/*
struct bitfields {
    unsigned int B1     :  5;
    unsigned int B2     :  1;
    unsigned int B3     :  1;
    unsigned int B4     :  1;
    unsigned int Short1 : 16; // misaligned on 8 bit boundary

// returns memory unconditionally. It is used if an out-of-memory error has been
// detected midway through an allocation or to carve out an aligned section of
// the address space. It is okay if sysFree is a no-op only if sysReserve always
// returns a memory region aligned to the heap allocator's alignment
// restrictions.
//
// sysStat must be non-nil.
//

//
//	R14-R31
//	CR2-4
//	VR20-31
//	F14-F31
//
// xcoff(aix) and ELFv1 are similar, but may only require a
// subset of these.
//
// These macros assume a 16 byte aligned stack pointer. This
// is required by ELFv1, ELFv2, and AIX PPC64.

#define SAVE_GPR_SIZE (18*8)
#define SAVE_GPR(offset)               \
	MOVD	R14, (offset+8*0)(R1)  \
	MOVD	R15, (offset+8*1)(R1)  \