ABSF	F4, F5			// 85041401
	MOVVF	F4, F5			// 85181d01
	MOVF	F4, F5			// 85941401
	MOVD	F4, F5			// 85981401
	MOVW	R4, result+16(FP)	// 64608029
	MOVWU	R4, result+16(FP)	// 64608029
	MOVV	R4, result+16(FP)	// 6460c029
	MOVB	R4, result+16(FP)	// 64600029
	MOVBU	R4, result+16(FP)	// 64600029
	MOVW	R4, 1(R5)		// a4048029
	MOVWU	R4, 1(R5)		// a4048029
	MOVV	R4, 1(R5)		// a404c029
	MOVB	R4, 1(R5)		// a4040029

// Copyright 2025 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

TEXT errors(SB),$0
	VSHUF4IV	$16, V1, V2	// ERROR "operand out of range 0 to 15"
	XVSHUF4IV	$16, X1, X2	// ERROR "operand out of range 0 to 15"
	ADDV16		$1, R4, R5	// ERROR "the constant must be a multiple of 65536."
	ADDV16		$65535, R4, R5	// ERROR "the constant must be a multiple of 65536."

        map sigbuild-r2.16-python3.9 2.16-python3.9
        map sigbuild-r2.16-python3.10 2.16-python3.10
        map sigbuild-r2.16-python3.11 2.16-python3.11
        map sigbuild-r2.16-python3.12 2.16-python3.12
        # TF 2.16 + Clang (containers are the same, but env vars in configs.bzl are different)
        map sigbuild-r2.16-clang 2.16-python3.11
        map sigbuild-r2.16-clang-python3.9 2.16-python3.9

	VMSLTVI		$17, V2, V3			// ERROR "signed immediate 16 must be in range [-16, 15]"
	VMSLTVI		$-16, V2, V3			// ERROR "signed immediate -17 must be in range [-16, 15]"
	VMSLTUVI	$17, V2, V3			// ERROR "signed immediate 16 must be in range [-16, 15]"
	VMSLTUVI	$-16, V2, V3			// ERROR "signed immediate -17 must be in range [-16, 15]"
	VMSGEVI		$17, V2, V3			// ERROR "signed immediate 16 must be in range [-16, 15]"

The order of the code modifiers is irrelevant.
</p>

<p>
Addressing modes:
</p>

<ul>

<li>
<code>R0-&gt;16</code>
<br>
<code>R0&gt;&gt;16</code>
<br>
<code>R0&lt;&lt;16</code>
<br>
<code>R0@&gt;16</code>:
For <code>&lt;&lt;</code>, left shift <code>R0</code> by 16 bits.
The other codes are <code>-&gt;</code> (arithmetic right shift),
<code>&gt;&gt;</code> (logical right shift), and

	VSSRAVX		X10, V2, V0, V3			// d74125ac
	VSSRAVI		$16, V2, V3			// d73128ae
	VSSRAVI		$16, V2, V0, V3			// d73128ac

	// 31.12.5: Vector Narrowing Fixed-Point Clip Instructions
	VNCLIPUWV	V1, V2, V3			// d78120ba
	VNCLIPUWV	V1, V2, V0, V3			// d78120b8
	VNCLIPUWX	X10, V2, V3			// d74125ba
	VNCLIPUWX	X10, V2, V0, V3			// d74125b8
	VNCLIPUWI	$16, V2, V3			// d73128ba
	VNCLIPUWI	$16, V2, V0, V3			// d73128b8

produce output. s0 = uint32(sbox0[t0>>24])<<24 | uint32(sbox0[t1>>16&0xff])<<16 | uint32(sbox0[t2>>8&0xff])<<8 | uint32(sbox0[t3&0xff]) s1 = uint32(sbox0[t1>>24])<<24 | uint32(sbox0[t2>>16&0xff])<<16 | uint32(sbox0[t3>>8&0xff])<<8 | uint32(sbox0[t0&0xff]) s2 = uint32(sbox0[t2>>24])<<24 | uint32(sbox0[t3>>16&0xff])<<16 | uint32(sbox0[t0>>8&0xff])<<8 | uint32(sbox0[t1&0xff]) s3 = uint32(sbox0[t3>>24])<<24 | uint32(sbox0[t0>>16&0xff])<<16 | uint32(sbox0[t1>>8&0xff])<<8 | uint32(sbox0[t2&0xff]) s0 ^= xk[k+0]...

	FSTPS	(F3, F4), x+8(SB)

// FLDPQ/FSTPQ
	FLDPQ   -4000(R0), (F1, F2)  // 1b803ed1610b40ad
	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

          <item index="14" class="java.lang.String" itemvalue="org.jetbrains.annotations.Nullable" />
          <item index="15" class="java.lang.String" itemvalue="org.jspecify.annotations.Nullable" />
          <item index="16" class="java.lang.String" itemvalue="android.annotation.Nullable" />
        </list>
      </value>
    </option>
    <option name="myNotNulls">
      <value>
        <list size="17">

//
//	<chunk-size-as-hex> + ";chunk-signature=" + <signature-as-hex> + "\r\n" + <payload> + "\r\n"
//
// First, we read the chunk size but fail if it is larger
// than 16 MiB. We must not accept arbitrary large chunks.
// One 16 MiB is a reasonable max limit.
//
// Then we read the signature and payload data. We compute the SHA256 checksum
// of the payload and verify that it matches the expected signature value.
//