package sha512

import (
	"fmt"
	"io"
	"testing"
)

// Tests the fallback code path in case the optimized asm
// implementation cannot be used.
// See also TestBlockGeneric.
func TestGenericPath(t *testing.T) {
	if !useAsm {
		t.Skipf("assembly implementation unavailable")
	}
	useAsm = false
	defer func() { useAsm = true }()
	c := New()
	in := "ΑΒΓΔΕϜΖΗΘΙΚΛΜΝΞΟΠϺϘΡΣΤΥΦΧΨΩ"

	"k8s.io/apiserver/pkg/util/flowcontrol/counter"
	promiseifc "k8s.io/apiserver/pkg/util/flowcontrol/fairqueuing/promise"
)

// countingPromise implements the WriteOnce interface.
// This implementation is based on a condition variable.
// This implementation tracks active goroutines:
// the given counter is decremented for a goroutine waiting for this
// varible to be set and incremented when such a goroutine is
// unblocked.

// are implemented by a FIPS 140 certified cryptographic module.
//
// So, FIPS 140 requires that a certified implementation of e.g. AES
// is used to implement more high-level cryptographic protocols.
// It does not require any specific security criteria for those
// high-level protocols. FIPS 140 focuses only on the implementation
// and usage of the most low-level cryptographic building blocks.
//
// [1]: https://en.wikipedia.org/wiki/FIPS_140

package sha256

import (
	"fmt"
	"io"
	"testing"
)

// Tests the fallback code path in case the optimized asm
// implementation cannot be used.
// See also TestBlockGeneric.
func TestGenericPath(t *testing.T) {
	if useAsm == false {
		t.Skipf("assembly implementation unavailable")
	}
	useAsm = false
	defer func() { useAsm = true }()
	c := New()
	in := "ΑΒΓΔΕϜΖΗΘΙΚΛΜΝΞΟΠϺϘΡΣΤΥΦΧΨΩ"

				logDryRunAction(action, opts.Writer, opts.MarshalFunc)

				return false, nil, nil
			},
		},
		// Let the DryRunGetter implementation take care of all GET requests.
		// The DryRunGetter implementation may call a real API Server behind the scenes or just fake everything
		&core.SimpleReactor{
			Verb:     "get",
			Resource: "*",

package binary

type nativeEndian struct {
	littleEndian
}

// NativeEndian is the native-endian implementation of [ByteOrder] and [AppendByteOrder].

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// The current implementation of notes on Darwin is not async-signal-safe,
// so on Darwin the sigqueue code uses different functions to wake up the
// signal_recv thread. This file holds the non-Darwin implementations of
// those functions. These functions will never be called.

//go:build !darwin && !plan9

package runtime

// completes.
//
// The first two differences can easily be handled by straightforward
// adaptation of the concept called "R(t)" in the original paper and
// "virtual time" in the implementation outline. In that
// implementation outline, the notation now() is used to mean reading
// the virtual clock. In the original paper’s terms, "R(t)" is the
// number of "rounds" that have been completed at real time t ---

		}
		if testing.Short() && i > 5 {
			break
		}
	}
}

func TestP224GenericBaseMult(t *testing.T) {
	// We use the P224 CurveParams directly in order to test the generic implementation.
	p224 := genericParamsForCurve(P224())
	for i, e := range p224BaseMultTests {
		k, ok := new(big.Int).SetString(e.k, 10)
		if !ok {
			t.Errorf("%d: bad value for k: %s", i, e.k)
		}

// without calling f.
func (o *Once) Do(f func()) {
	// Note: Here is an incorrect implementation of Do:
	//
	//	if o.done.CompareAndSwap(0, 1) {
	//		f()
	//	}
	//
	// Do guarantees that when it returns, f has finished.
	// This implementation would not implement that guarantee:
	// given two simultaneous calls, the winner of the cas would