return err
		}
		ord := len(pods) - 1
		if pods, err = om.setPodPending(set, ord); err != nil {
			return err
		}
		pod := getPodAtOrdinal(pods, ord)
		ssc.addPod(logger, pod)
		fakeWorker(ssc)
		pod = getPodAtOrdinal(pods, ord)
		prev := *pod
		if pods, err = om.setPodRunning(set, ord); err != nil {
			return err
		}
		pod = getPodAtOrdinal(pods, ord)
		ssc.updatePod(logger, &prev, pod)

        Number n,
        Iterable<?> it,
        boolean b,
        Equivalence<String> eq,
        Exception e,
        InputStream in,
        Comparable<?> c,
        Ordering<Integer> ord,
        Charset charset,
        TimeUnit unit,
        Class<?> cls,
        Joiner joiner,
        Pattern pattern,
        UnsignedInteger ui,
        UnsignedLong ul,
        StringBuilder sb,

        Number n,
        Iterable<?> it,
        boolean b,
        Equivalence<String> eq,
        Exception e,
        InputStream in,
        Comparable<?> c,
        Ordering<Integer> ord,
        Charset charset,
        TimeUnit unit,
        Class<?> cls,
        Joiner joiner,
        Pattern pattern,
        UnsignedInteger ui,
        UnsignedLong ul,
        StringBuilder sb,

			condemned = append(condemned, pod)
		}
		// If the ordinal could not be parsed (ord < 0), ignore the Pod.
	}

	// for any empty indices in the sequence [0,set.Spec.Replicas) create a new Pod at the correct revision
	for ord := getStartOrdinal(set); ord <= getEndOrdinal(set); ord++ {
		replicaIdx := ord - getStartOrdinal(set)
		if replicas[replicaIdx] == nil {
			replicas[replicaIdx] = newVersionedStatefulSetPod(

// p256OrdElement is a P-256 scalar field element in [0, ord(G)-1] in the
// Montgomery domain (with R 2²⁵⁶) as four uint64 limbs in little-endian order.
type p256OrdElement [4]uint64

// p256OrdReduce ensures s is in the range [0, ord(G)-1].
func p256OrdReduce(s *p256OrdElement) {
	// Since 2 * ord(G) > 2²⁵⁶, we can just conditionally subtract ord(G),
	// keeping the result if it doesn't underflow.

		k, err := curve.GenerateKey(r)
		if err != nil {
			t.Fatal(err)
		}

		// GenerateKey does rejection sampling. If the masking works correctly,
		// the probability of a rejection is 1-ord(G)/2^ceil(log2(ord(G))),
		// which for all curves is small enough (at most 2^-32, for P-256) that
		// a bit flip is more likely to make this test fail than bad luck.
		// Account for the extra MaybeReadByte byte, too.

// or invalid (say, nil) both results are that value.
func match(x, y Value) (_, _ Value) {
	switch ox, oy := ord(x), ord(y); {
	case ox < oy:
		x, y = match0(x, y)
	case ox > oy:
		y, x = match0(y, x)
	}
	return x, y
}

// match0 must only be called by match.
// Invariant: ord(x) < ord(y)
func match0(x, y Value) (_, _ Value) {
	// Prefer to return the original x and y arguments when possible,

Передайте `*` в качестве первого параметра функции.

Python не будет ничего делать с `*`, но он будет знать, что все следующие параметры являются именованными аргументами (парами ключ-значение), также известными как <abbr title="From: K-ey W-ord Arg-uments"><code>kwargs</code></abbr>, даже если у них нет значений по умолчанию.

```Python hl_lines="7"
{!../../../docs_src/path_params_numeric_validations/tutorial003.py!}
```

### Лучше с `Annotated`

```Python hl_lines="7"
{!../../../docs_src/path_params_numeric_validations/tutorial003.py!}
```

		}
		f(pc, uint64(size), file, line, text)
		pc += uint64(size)
	}
}

type lookupFunc = func(addr uint64) (sym string, base uint64)
type disasmFunc func(code []byte, pc uint64, lookup lookupFunc, ord binary.ByteOrder, _ bool) (text string, size int)

func disasm_386(code []byte, pc uint64, lookup lookupFunc, _ binary.ByteOrder, gnuAsm bool) (string, int) {
	return disasm_x86(code, pc, lookup, 32, gnuAsm)
}