auds := []string{}
		for i := 0; i < rr.Intn(4); i++ {
			auds = append(auds, string(uuid.NewUUID()))
		}
		choice := rr.Float64()
		switch {
		case choice < 0.9:
			r.ok = true
			r.err = nil

			// add some realistic annotations on ~20% of successful authentications
			if f := rr.Float64(); f < 0.2 {
				r.annotations = map[string]string{

				},
			}

			if c.requestTweaks != nil {
				c.requestTweaks(tr)
			}

			mgr := NewManager(nil)
			mgr.clock = clock

			rr := mgr.requiresRefresh(tr)
			if rr != c.expectRefresh {
				t.Fatalf("unexpected requiresRefresh result, got: %v, want: %v", rr, c.expectRefresh)
			}
		})
	}
}

func TestDeleteServiceAccountToken(t *testing.T) {
	type request struct {
		name, namespace string

// RGBToCMYK converts an RGB triple to a CMYK quadruple.
func RGBToCMYK(r, g, b uint8) (uint8, uint8, uint8, uint8) {
	rr := uint32(r)
	gg := uint32(g)
	bb := uint32(b)
	w := rr
	if w < gg {
		w = gg
	}
	if w < bb {
		w = bb
	}
	if w == 0 {
		return 0, 0, 0, 0xff
	}
	c := (w - rr) * 0xff / w
	m := (w - gg) * 0xff / w
	y := (w - bb) * 0xff / w
	return uint8(c), uint8(m), uint8(y), uint8(0xff - w)

		running: atomic.NewBool(false),
	}
}

type RunnableRegistry struct {
	serviceregistry.Instance
	running *atomic.Bool
}

func (rr *RunnableRegistry) Run(stop <-chan struct{}) {
	if rr.running.Load() {
		panic("--- registry has been run twice ---")
	}
	rr.running.Store(true)
	<-stop
}

func expectRunningOrFail(t *testing.T, ctrl *Controller, want bool) {

// Otherwise, it returns p.
func (p *P256Point) SetBytes(b []byte) (*P256Point, error) {
	// p256Mul operates in the Montgomery domain with R = 2²⁵⁶ mod p. Thus rr
	// here is R in the Montgomery domain, or R×R mod p. See comment in
	// P256OrdInverse about how this is used.
	rr := p256Element{0x0000000000000003, 0xfffffffbffffffff,
		0xfffffffffffffffe, 0x00000004fffffffd}

	switch {
	// Point at infinity.
	case len(b) == 1 && b[0] == 0:

	hi, _ = bits.Add64(hi, incHi, c)
	p.lo = lo
	p.hi = hi
	return hi, lo
}

// Uint64 return a uniformly-distributed random uint64 value.
func (p *PCG) Uint64() uint64 {
	hi, lo := p.next()

	// XSL-RR would be
	//	hi, lo := p.next()
	//	return bits.RotateLeft64(lo^hi, -int(hi>>58))
	// but Numpy uses DXSM and O'Neill suggests doing the same.
	// See https://github.com/golang/go/issues/21835#issuecomment-739065688

		if err1 == nil {
			rr = rr1
			err = nil
		}
	}

	// Should have been taken care of above, but make sure.
	if err == nil && strings.Contains(importPath, "...") && strings.Contains(rr.Root, "...") {
		// Do not allow wildcards in the repo root.
		rr = nil
		err = importErrorf(importPath, "cannot expand ... in %q", importPath)
	}
	return rr, err
}

    //      the plugin manager provides.

    @Test
    void testRemoteResourcesPlugin() throws Exception {
        // TODO turn an equivalent back on when the RR plugin is released.

        /*

        This will not work until the RR plugin is released to get rid of the binding to the reporting exception which is a mistake.

        This happens after removing the reporting API from the core:

	uint32n(uint32) uint32
	exp2() int
	bool() bool

	save(randState, randInc *uint64)
	restore(randState, randInc uint64)
}

// The functions in pcg implement a 32 bit PRNG with a 64 bit period: pcg xsh rr
// 64 32. See https://www.pcg-random.org/ for more information. This
// implementation is geared specifically towards the needs of fuzzing: Simple
// creation and use, no reproducibility, no concurrency safety, just the

// This permits reusing a [Reader] rather than allocating a new one.
func (z *Reader) Reset(r io.Reader) error {
	*z = Reader{
		decompressor: z.decompressor,
		multistream:  true,
	}
	if rr, ok := r.(flate.Reader); ok {
		z.r = rr
	} else {
		z.r = bufio.NewReader(r)
	}
	z.Header, z.err = z.readHeader()
	return z.err
}

// Multistream controls whether the reader supports multistream files.
//