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

// Package time provides functionality for measuring and displaying time.
//
// The calendrical calculations always assume a Gregorian calendar, with
// no leap seconds.
//
// # Monotonic Clocks
//
// Operating systems provide both a “wall clock,” which is subject to

It is sometimes the case, though, that certain properties have a runtime impact, while others do not.
If a property is changing that does not have an impact on the runtime classpath, it may be desirable to exclude it from up-to-date checks and <<build_cache.adoc#build_cache,build cache>> key calculations.

	// Add retainExtraPercent overhead to retainedGoal. This calculation
	// looks strange but the purpose is to arrive at an integer division
	// (e.g. if retainExtraPercent = 12.5, then we get a divisor of 8)
	// that also avoids the overflow from a multiplication.
	gcPercentGoal += gcPercentGoal / (1.0 / (retainExtraPercent / 100.0))
	// Align it to a physical page boundary to make the following calculations
	// a bit more exact.

		// R10 is reserved by the assembler.
		gp   = buildReg("R0 R1 R2 R3 R4 R5 R6 R7 R8 R9 R11 R12 R14")
		gpg  = gp | buildReg("g")
		gpsp = gp | sp

		// R0 is considered to contain the value 0 in address calculations.
		ptr     = gp &^ r0
		ptrsp   = ptr | sp
		ptrspsb = ptrsp | sb

		fp         = buildReg("F0 F1 F2 F3 F4 F5 F6 F7 F8 F9 F10 F11 F12 F13 F14 F15")

// available).
func (c *gcControllerState) revise() {
	gcPercent := c.gcPercent.Load()
	if gcPercent < 0 {
		// If GC is disabled but we're running a forced GC,
		// act like GOGC is huge for the below calculations.
		gcPercent = 100000
	}
	live := c.heapLive.Load()
	scan := c.heapScan.Load()
	work := c.heapScanWork.Load() + c.stackScanWork.Load() + c.globalsScanWork.Load()

	// When adopting Pods, this operation adds an ownerRef and finalizers.
	pods, err = cm.ClaimPods(ctx, pods)
	if err != nil {
		return pods, err
	}
	// Set finalizer on adopted pods for the remaining calculations.
	for i, p := range pods {
		adopted := true
		for _, r := range p.OwnerReferences {
			if r.UID == j.UID {
				adopted = false
				break
			}
		}
		if adopted && !hasJobTrackingFinalizer(p) {

	fsu.AddUint8(0)                                     // augmentation ""
	dwarf.Uleb128put(d, fsd, 1)                         // code_alignment_factor
	dwarf.Sleb128put(d, fsd, dataAlignmentFactor)       // all CFI offset calculations include multiplication with this factor
	dwarf.Uleb128put(d, fsd, int64(thearch.Dwarfreglr)) // return_address_register

	fsu.AddUint8(dwarf.DW_CFA_def_cfa)                  // Set the current frame address..

	(MOVHstoreconst [sc.addOffset32(off)] {s} ptr mem)
(MOVBstoreconst [sc] {s} (ADDconst [off] ptr) mem) && is20Bit(sc.Off64()+int64(off)) =>
	(MOVBstoreconst [sc.addOffset32(off)] {s} ptr mem)

// Merge address calculations into loads and stores.
// Offsets from SB must not be merged into unaligned memory accesses because
// loads/stores using PC-relative addressing directly must be aligned to the
// size of the target.

                    std::vector<Output>* grad_outputs) {
  // The partial derivative for any input along a "reduced" dimension
  // is 1 when it is the min (or max) and 0 everywhere else. So the
  // gradient calculation is identical for both operators.
  //
  // There's a special case for propagating gradients when there are
  // multiple minima (or maxima) - we choose to divide the gradient
  // equally among all matching inputs.

		if tc.expectedError != nil {
			require.Error(t, err, "there should be an error calculating the replica count")
			assert.Contains(t, err.Error(), tc.expectedError.Error(), "the error message should have contained the expected error message")
			return
		}
		require.NoError(t, err, "there should not have been an error calculating the replica count")
		assert.Equal(t, tc.expectedReplicas, outReplicas, "replicas should be as expected")