# FastAPI-Deployment bei Cloud-Anbietern

Sie können praktisch **jeden Cloud-Anbieter** für das <abbr title="Bereitstellen der fertigen Anwendung für die Endbenutzer">Deployment</abbr> Ihrer FastAPI-Anwendung verwenden.

In den meisten Fällen verfügen die Haupt-Cloud-Anbieter über Anleitungen zum Deployment von FastAPI.

## Cloud-Anbieter – Sponsoren

	tmp[0] = 0x80
	var t uint64
	if len%64 < 56 {
		t = 56 - len%64
	} else {
		t = 64 + 56 - len%64
	}

	// Length in bits.
	len <<= 3
	padlen := tmp[:t+8]
	byteorder.BePutUint64(padlen[t+0:], len)
	d.Write(padlen)

	if d.nx != 0 {
		panic("d.nx != 0")
	}

	var digest [Size]byte

	byteorder.BePutUint32(digest[0:], d.h[0])
	byteorder.BePutUint32(digest[4:], d.h[1])

// along with this program.  If not, see <http://www.gnu.org/licenses/>.

package cmd

import "syscall"

func direntNamlen(dirent *syscall.Dirent) (uint64, error) {
	return uint64(dirent.Namlen), nil

func summary(list []*CommentGroup) string {
	const maxLen = 40
	var buf bytes.Buffer

	// collect comments text
loop:
	for _, group := range list {
		// Note: CommentGroup.Text() does too much work for what we
		//       need and would only replace this innermost loop.
		//       Just do it explicitly.
		for _, comment := range group.List {
			if buf.Len() >= maxLen {
				break loop
			}

        // pad output to 56 mod 64; as RFC1320 puts it: congruent to 448 mod 512
        int bufferNdx = (int)(count % BLOCK_LENGTH);
        int padLen = (bufferNdx < 56) ? (56 - bufferNdx) : (120 - bufferNdx);

        // padding is alwas binary 1 followed by binary 0s
        byte[] tail = new byte[padLen + 8];
        tail[0] = (byte)0x80;

        // append length before final transform:

	// TODO: it would really be nicer for internal/cpu to figure out this
	// flag by itself. Then we wouldn't need to depend on quirks of
	// early startup initialization order.
	if cpu.S390X.HasVX {
		MaxLen = 64
	}
}

// Cutover reports the number of failures of IndexByte we should tolerate
// before switching over to Index.
// n is the number of bytes processed so far.
// See the bytes.Index implementation for details.

		}
	}
}

type randomStringAlphabet string

func (a randomStringAlphabet) makeString(minLen, maxLen int) string {
	n := minLen
	if minLen < maxLen {
		n += rand.Intn(maxLen - minLen)
	}
	var s string
	for i := 0; i < n; i++ {
		s += string(a[rand.Intn(len(a))])
	}
	return s
}

func direntReclen(buf []byte) (uint64, bool) {
	namelen, ok := direntNamlen(buf)
	return 24 + namelen, ok
}

func direntNamlen(buf []byte) (uint64, bool) {
	return readInt(buf, unsafe.Offsetof(Dirent{}.Namlen), unsafe.Sizeof(Dirent{}.Namlen))
}

// An Errno is an unsigned number describing an error condition.
// It implements the error interface. The zero Errno is by convention
// a non-error, so code to convert from Errno to error should use:

		if _, err := io.ReadFull(f, hdr[:]); err != nil {
			return "", err
		}
		// Read member name length.
		namLenStr := strings.TrimSpace(string(hdr[108:112]))
		namLen, err := strconv.ParseInt(namLenStr, 10, 32)
		if err != nil {
			return bad()
		}
		if namLen == 10 {
			var nam [10]byte
			if _, err := io.ReadFull(f, nam[:]); err != nil {
				return "", err
			}
			if string(nam[:]) == "_buildid.o" {

	// leftEncode always returns max 9 bytes
	buf := make([]byte, 0, 9+len(input)+w)
	buf = append(buf, leftEncode(uint64(w))...)
	buf = append(buf, input...)
	padlen := w - (len(buf) % w)
	return append(buf, make([]byte, padlen)...)
}

func leftEncode(value uint64) []byte {
	var b [9]byte
	binary.BigEndian.PutUint64(b[1:], value)
	// Trim all but last leading zero bytes
	i := byte(1)