Você verá algo deste tipo:

<img src="/img/tutorial/security/image01.png">

!!! check "Botão de Autorizar!"
	Você já tem um novo "botão de autorizar!".

	E seu *path operation* tem um pequeno cadeado no canto superior direito que você pode clicar.

	assert.NoError(t, err)
	assert.Equal(t, p, config.Spec(&emptypb.Empty{}))
}

func TestMustNewProtoInstance_Panic_Nil(t *testing.T) {
	g := NewWithT(t)
	defer func() {
		r := recover()
		g.Expect(r).NotTo(BeNil())
	}()
	old := protoMessageType
	defer func() {
		protoMessageType = old
	}()
	protoMessageType = func(message protoreflect.FullName) (protoreflect.MessageType, error) {
		return nil, nil
	}

	feistelBoxOnce.Do(initFeistelBox)

	// apply PC1 permutation to key
	key := byteorder.BeUint64(keyBytes)
	permutedKey := permuteBlock(key, permutedChoice1[:])

	// rotate halves of permuted key according to the rotation schedule
	leftRotations := ksRotate(uint32(permutedKey >> 28))
	rightRotations := ksRotate(uint32(permutedKey<<4) >> 4)

	// generate subkeys
	for i := 0; i < 16; i++ {

change unified the key-management aspect within MinIO.

The unified KMS-based approach has several advantages:

- Key management is now centralized. There is one way to change or rotate encryption keys.
   There used to be two different mechanisms - one for regular S3 objects and one for IAM data.
- Reduced server startup time. For IAM encryption with the root credentials, MinIO had

}

// Apply sbox0 to each byte in w.
func subw(w uint32) uint32 {
	return uint32(sbox0[w>>24])<<24 |
		uint32(sbox0[w>>16&0xff])<<16 |
		uint32(sbox0[w>>8&0xff])<<8 |
		uint32(sbox0[w&0xff])
}

// Rotate
func rotw(w uint32) uint32 { return w<<8 | w>>24 }

// Key expansion algorithm. See FIPS-197, Figure 11.
// Their rcon[i] is our powx[i-1] << 24.
func expandKeyGo(key []byte, enc, dec []uint32) {

func zeroextendAndMask8to64(a int8, b int16) (x, y uint64) {
	// ppc64x: -"MOVB\t", -"ANDCC", "MOVBZ"
	x = uint64(a) & 0xFF
	// ppc64x: -"MOVH\t", -"ANDCC", "MOVHZ"
	y = uint64(b) & 0xFFFF
	return
}

// Verify rotate and mask instructions, and further simplified instructions for small types
func bitRotateAndMask(io64 [8]uint64, io32 [4]uint32, io16 [4]uint16, io8 [4]uint8) {
	// ppc64x: "RLDICR\t[$]0, R[0-9]*, [$]47, R"

Favoritando, outros usuários poderão encontrar mais facilmente e verão que já foi útil para muita gente.

## Acompanhe novos updates no repositorio do GitHub

Você pode "acompanhar" (watch) o FastAPI no GitHub (clicando no botão com um "olho" no canto superior direito): <a href="https://github.com/tiangolo/fastapi" class="external-link" target="_blank">https://github.com/tiangolo/fastapi</a>. 👀

Podendo selecionar apenas "Novos Updates".

// The carry bit is saved with SBBQ Rx, Rx: if the carry was set, Rx is -1, otherwise it is 0.
// It is restored with ADDQ Rx, Rx: if Rx was -1 the carry is set, otherwise it is cleared.
// This is faster than using rotate instructions.

// func addVV(z, x, y []Word) (c Word)
TEXT ·addVV(SB),NOSPLIT,$0
	MOVQ z_len+8(FP), DI
	MOVQ x+24(FP), R8
	MOVQ y+48(FP), R9
	MOVQ z+0(FP), R10

	MOVQ $0, CX		// c = 0