},
	{
		ObjectKey:  [32]byte{},
		ObjectInfo: ObjectInfo{ETag: "916516b396f0f4d4f2a0e7177557bec4-738"},
		ETag:       "916516b396f0f4d4f2a0e7177557bec4-738",
	},
	{
		ObjectKey:  [32]byte{},
		ObjectInfo: ObjectInfo{ETag: "916516b396f0f4d4f2a0e7177557bec4-Q"},
		ETag:       "",
		ShouldFail: true, // Q is not a number
	},
	{
		ObjectKey:  [32]byte{},

	VSLLVI		$32, V2, V3			// ERROR "unsigned immediate 32 must be in range [0, 31]"
	VSLLVI		$-1, V2, V3			// ERROR "unsigned immediate -1 must be in range [0, 31]"
	VSRLVV		X10, V2, V3			// ERROR "expected vector register in vs1 position"
	VSRLVX		V1, V2, V3			// ERROR "expected integer register in rs1 position"
	VSRLVI		$32, V2, V3			// ERROR "unsigned immediate 32 must be in range [0, 31]"

		return true
	}
	return false
}

// ParseHTTP parses the SSE-C headers and returns the SSE-C client key
// on success. SSE-C copy headers are ignored.
func (ssec) ParseHTTP(h http.Header) (key [32]byte, err error) {
	if h.Get(xhttp.AmzServerSideEncryptionCustomerAlgorithm) != xhttp.AmzEncryptionAES {
		return key, ErrInvalidCustomerAlgorithm
	}
	if h.Get(xhttp.AmzServerSideEncryptionCustomerKey) == "" {

)

const (
	// SSECustomerKeySize is the size of valid client provided encryption keys in bytes.
	// Currently AWS supports only AES256. So the SSE-C key size is fixed to 32 bytes.
	SSECustomerKeySize = 32

	// SSEIVSize is the size of the IV data
	SSEIVSize = 32 // 32 bytes

	// SSEDAREPackageBlockSize - SSE dare package block size.
	SSEDAREPackageBlockSize = 64 * 1024 // 64KiB bytes

	FLDPQ	-1024(R0), (F1, F2)  // 010860ad
	FLDPQ	(R0), (F1, F2)       // 010840ad
	FLDPQ	16(R0), (F1, F2)     // 018840ad
	FLDPQ	-16(R0), (F1, F2)    // 01887fad
	FLDPQ.W	32(R0), (F1, F2)     // 0108c1ad
	FLDPQ.P	32(R0), (F1, F2)     // 0108c1ac
	FLDPQ	11(R0), (F1, F2)     // 1b2c0091610b40ad
	FLDPQ	1024(R0), (F1, F2)   // 1b001091610b40ad
	FLDPQ   4104(R0), (F1, F2)

	CLI	$-32, X5				// 8152
	CLI	$31, X5					// fd42
	CLUI	$-32, X5				// 8172
	CLUI	$31, X5					// fd62

	// 26.5.2: Compressed Integer Register-Immediate Operations
	CADD	$-32, X5				// 8112
	CADD	$31, X5					// fd02
	CADDI	$-32, X5				// 8112
	CADDI	$31, X5					// fd02
	CADDW	$-32, X5				// 8132
	CADDW	$31, X5					// fd22
	CADDIW	$-32, X5				// 8132
	CADDIW	$31, X5					// fd22

B1.B16, T2.B16, B1.B16 VST1.P [B0.B16, B1.B16], 32(dstPtr) VLD1.P 32(srcPtr), [T1.B16, T2.B16] VEOR B2.B16, T1.B16, B2.B16 VEOR B3.B16, T2.B16, B3.B16 VST1.P [B2.B16, B3.B16], 32(dstPtr) VLD1.P 32(srcPtr), [T1.B16, T2.B16] VEOR B4.B16, T1.B16, B4.B16 VEOR B5.B16, T2.B16, B5.B16 VST1.P [B4.B16, B5.B16], 32(dstPtr) VLD1.P 32(srcPtr), [T1.B16, T2.B16] VEOR B6.B16, T1.B16, B6.B16 VEOR B7.B16, T2.B16, B7.B16 VST1.P [B6.B16, B7.B16], 32(dstPtr) VLD1.P 32(pTbl), [T1.B16, T2.B16] VREV64 B0.B16, B0.B16 VEOR ACC0.B16,...

		}
		if i > 0 {
			res = append(res, ',')
		}
		s := fmt.Sprintf(`"%s": {"bytes": %d`, string(key), len(val))
		// Check bitrot... We should only ever have one block...
		if len(val) >= 32 {
			want := val[:32]
			data := val[32:]
			const magicHighwayHash256Key = "\x4b\xe7\x34\xfa\x8e\x23\x8a\xcd\x26\x3e\x83\xe6\xbb\x96\x85\x52\x04\x0f\x93\x5d\xa3\x9f\x44\x14\x97\xe0\x9d\x13\x22\xde\x36\xa0"

register, even on architectures with a hardware frame pointer.
</p>

<p>
For assembly functions with Go prototypes, <code>go</code> <code>vet</code> will check that the argument names
and offsets match.
On 32-bit systems, the low and high 32 bits of a 64-bit value are distinguished by adding
a <code>_lo</code> or <code>_hi</code> suffix to the name, as in <code>arg_lo+0(FP)</code> or <code>arg_hi+4(FP)</code>.

	// LDPTR.{W/D} and STPTR.{W/D} instructions
	MOVWP	R5, 32764(R4)		// 85fc7f25
	MOVWP	R5, 32(R4)		// 85200025
	MOVWP	R5, 4(R4)		// 85040025
	MOVWP	R5, (R4)		// 85000025
	MOVVP	R5, 32764(R4)		// 85fc7f27
	MOVVP	R5, 32(R4)		// 85200027
	MOVVP	R5, 4(R4)		// 85040027
	MOVVP	R5, (R4)		// 85000027
	MOVWP	32764(R5), R4		// a4fc7f24
	MOVWP	32(R5), R4		// a4200024
	MOVWP	4(R5), R4		// a4040024
	MOVWP	(R5), R4		// a4000024