"scream":                               "\U0001f631",
	"scream_cat":                           "\U0001f640",
	"screwdriver":                          "\U0001fa9b",
	"scroll":                               "\U0001f4dc",
	"seal":                                 "\U0001f9ad",
	"seat":                                 "\U0001f4ba",
	"secret":                               "\u3299\ufe0f",
	"see_no_evil":                          "\U0001f648",

	MOVQ ad+72(FP), adp

	CMPB ·useAVX2(SB), $1
	JE   chacha20Poly1305Seal_AVX2

	// Special optimization, for very short buffers
	CMPQ inl, $128
	JBE  sealSSE128 // About 15% faster

	// In the seal case - prepare the poly key + 3 blocks of stream in the first iteration
	MOVOU ·chacha20Constants<>(SB), A0
	MOVOU (1*16)(keyp), B0
	MOVOU (2*16)(keyp), C0
	MOVOU (3*16)(keyp), D0

	assert.Nil(t, rsErr1, "Expected no error getting real servers")
	assert.Len(t, realServers1, 0, "Expected 0 real servers")

	realServers2, rsErr2 = ipvs.GetRealServers(externalIPServer)
	assert.Nil(t, rsErr2, "Expected no error getting real servers")
	assert.Len(t, realServers2, 0, "Expected 0 real servers")
}

}

// HealHandler - POST /minio/admin/v3/heal/
// -----------
// Start heal processing and return heal status items.
//
// On a successful heal sequence start, a unique client token is
// returned. Subsequent requests to this endpoint providing the client
// token will receive heal status records from the running heal
// sequence.
//
// If no client token is provided, and a heal sequence is in progress

		select {
		case <-healTimer.C:
			c.RLock()
			enabled := c.enabled
			c.RUnlock()
			if enabled {
				refreshStart := time.Now()
				c.healIAMSystem(ctx, objAPI) // heal IAM system first
				c.healBuckets(ctx, objAPI)   // heal buckets subsequently

				took := time.Since(refreshStart).Seconds()
				if took > maxRefreshDurationSecondsForLog {
					// Log if we took a lot of time.

								PageSize: pageSize1Gb,
								NumPages: 1,
							},
						},
					},
				},
			},
			expectedError: fmt.Errorf("[memorymanager] the expected machine state is different from the real one"),
		},
		{
			description: "should fail when machine state does not have memory resource",
			machineState: state.NUMANodeMap{
				0: &state.NUMANodeState{
					MemoryMap: map[v1.ResourceName]*state.MemoryTable{

	}
}

// process sends error logs to the heal channel for an attempt to heal replication.
func (p *ReplicationPool) queueMRFHeal() error {
	p.mrfMU.Lock()
	defer p.mrfMU.Unlock()

	if !p.initialized() {
		return errServerNotInitialized
	}

	mrfRec, err := p.loadMRF()
	if err != nil {
		return err
	}

	// queue replication heal in a goroutine to avoid holding up mrf save routine

			QueueingHintFn: queueHintReturnQueue,
		},
	}
	q := NewTestQueue(ctx, newDefaultQueueSort(), WithClock(c), WithQueueingHintMapPerProfile(m))
	// To simulate the pod is failed in scheduling in the real world, Pop() the pod from activeQ before AddUnschedulableIfNotPresent()s below.
	q.activeQ.Add(q.newQueuedPodInfo(unschedulablePodInfo.Pod))
	if p, err := q.Pop(logger); err != nil || p.Pod != unschedulablePodInfo.Pod {

The built-in function <code>complex</code> constructs a complex
value from a floating-point real and imaginary part, while
<code>real</code> and <code>imag</code>
extract the real and imaginary parts of a complex value.
</p>

<pre class="grammar">
complex(realPart, imaginaryPart floatT) complexT
real(complexT) floatT
imag(complexT) floatT
</pre>

<p>

		{name: "LEAQ", argLength: 1, reg: gp11sb, asm: "LEAQ", aux: "SymOff", rematerializeable: true, symEffect: "Addr"}, // arg0 + auxint + offset encoded in aux
		{name: "LEAL", argLength: 1, reg: gp11sb, asm: "LEAL", aux: "SymOff", rematerializeable: true, symEffect: "Addr"}, // arg0 + auxint + offset encoded in aux