VPLZCNTQ X26, K2, X28                              // 6202fd0a44e2
	VPLZCNTQ -17(BP), K2, X28                          // 6262fd0a44a5efffffff
	VPLZCNTQ -15(R14)(R15*8), K2, X28                  // 6202fd0a44a4fef1ffffff
	VPLZCNTQ X9, K2, X24                               // 6242fd0a44c1
	VPLZCNTQ X15, K2, X24                              // 6242fd0a44c7

	VRCP28SS X6, X11, K2, X22                          // 62e2250acbf6
	VRCP28SS X12, X11, K2, X22                         // 62c2250acbf4
	VRCP28SS X13, X15, K2, X22                         // 62c2050acbf5
	VRCP28SS X6, X15, K2, X22                          // 62e2050acbf6
	VRCP28SS X12, X15, K2, X22                         // 62c2050acbf4
	VRCP28SS X13, X30, K2, X22                         // 62c20d02cbf5

	VPSHLDVW Y12, Y13, K2, Y31                         // 6242952a70fc
	VPSHLDVW 17(SP)(BP*1), Y13, K2, Y31                // 6262952a70bc2c11000000
	VPSHLDVW -7(CX)(DX*8), Y13, K2, Y31                // 6262952a70bcd1f9ffffff
	VPSHLDVW Y2, Y7, K2, Y31                           // 6262c52a70fa
	VPSHLDVW Y21, Y7, K2, Y31                          // 6222c52a70fd

	VGF2P8AFFINEINVQB $47, (DX), Z28, K2, Z28          // 62639d42cf222f
	VGF2P8AFFINEINVQB $47, Z3, Z14, K2, Z13            // 62738d4acfeb2f
	VGF2P8AFFINEINVQB $47, Z12, Z14, K2, Z13           // 62538d4acfec2f
	VGF2P8AFFINEINVQB $47, 99(R15)(R15*1), Z14, K2, Z13 // 62138d4acfac3f630000002f
	VGF2P8AFFINEINVQB $47, (DX), Z14, K2, Z13          // 62738d4acf2a2f

	V4FMADDPS 17(SP), [Z0-Z3], K2, Z8                  // 62727f4a9a842411000000
	V4FMADDPS -17(BP)(SI*4), [Z0-Z3], K2, Z8           // 62727f4a9a84b5efffffff
	V4FMADDPS 17(SP), [Z10-Z13], K2, Z8                // 62722f4a9a842411000000
	V4FMADDPS -17(BP)(SI*4), [Z10-Z13], K2, Z8         // 62722f4a9a84b5efffffff
	V4FMADDPS 17(SP), [Z20-Z23], K2, Z8                // 62725f429a842411000000

	replicateAll      replicationAction = "all"
)

// matches k1 with all keys, returns 'true' if one of them matches
func equals(k1 string, keys ...string) bool {
	for _, k2 := range keys {
		if strings.EqualFold(k1, k2) {
			return true
		}
	}
	return false
}

// returns replicationAction by comparing metadata between source and target

  }

  private static class TwoTypeArgs<K, V> {
    @SuppressWarnings("ClassCanBeStatic") // We want to test an inner class.
    class InnerType<K2, V2> {}
  }

  private static class StringForFirstTypeArg<V> extends TwoTypeArgs<String, V> {
    class StringInnerType<V2> extends InnerType<String, V2> {}
  }

  }

  private static class TwoTypeArgs<K, V> {
    @SuppressWarnings("ClassCanBeStatic") // We want to test an inner class.
    class InnerType<K2, V2> {}
  }

  private static class StringForFirstTypeArg<V> extends TwoTypeArgs<String, V> {
    class StringInnerType<V2> extends InnerType<String, V2> {}
  }

exposing it to applications // as a stand-alone MAC. type CMAC struct { b aes.Block k1 [aes.BlockSize]byte k2 [aes.BlockSize]byte } func NewCMAC(b *aes.Block) *CMAC { c := &CMAC{b: *b} c.deriveSubkeys() return c } func (c *CMAC) deriveSubkeys() { aes.EncryptBlockInternal(&c.b, c.k1[:], c.k1[:]) msb := shiftLeft(&c.k1) c.k1[len(c.k1)-1] ^= msb * 0b10000111 c.k2 = c.k1 msb = shiftLeft(&c.k2) c.k2[len(c.k2)-1] ^= msb * 0b10000111 } func (c *CMAC) MAC(m []byte) [aes.BlockSize]byte { fips140.RecordApproved()...

exposing it to applications // as a stand-alone MAC. type CMAC struct { b aes.Block k1 [aes.BlockSize]byte k2 [aes.BlockSize]byte } func NewCMAC(b *aes.Block) *CMAC { c := &CMAC{b: *b} c.deriveSubkeys() return c } func (c *CMAC) deriveSubkeys() { aes.EncryptBlockInternal(&c.b, c.k1[:], c.k1[:]) msb := shiftLeft(&c.k1) c.k1[len(c.k1)-1] ^= msb * 0b10000111 c.k2 = c.k1 msb = shiftLeft(&c.k2) c.k2[len(c.k2)-1] ^= msb * 0b10000111 } func (c *CMAC) MAC(m []byte) [aes.BlockSize]byte { fips140.RecordApproved()...