}
	for key, value := range b {
		if _, found := result[key]; !found {
			result[key] = value.DeepCopy()
		}
	}
	return result
}

// reuseOrClearResourceList is a helper for avoiding excessive allocations of
// resource lists within the inner loop of resource calculations.
func reuseOrClearResourceList(reuse v1.ResourceList) v1.ResourceList {
	if reuse == nil {
		return make(v1.ResourceList, 4)
	}

directory in the built-in GitHub Actions cache.
This will speed up your GitHub Actions build by avoiding the need to re-download Gradle versions and project dependencies,
as well as re-using state from the previous workflow execution.

====

[[sec:controlling_dependency_caching_command_line]]
== Controlling dependency caching from the command line

[[sec:offline-mode]]
=== Avoiding network access with offline mode

					residual = true
					continue
				}
				// Add cum weight to all nodes in stack, avoiding double counting.
				if _, ok := seenNode[n]; !ok {
					seenNode[n] = true
					n.addSample(dw, w, labels, sample.NumLabel, sample.NumUnit, o.FormatTag, false)
				}
				// Update edge weights for all edges in stack, avoiding double counting.
				if _, ok := seenEdge[nodePair{n, parent}]; !ok && parent != nil && n != parent {

		n = count
	}
	list := make([]fs.DirEntry, n)
	for i := range list {
		list[i] = &d.files[d.offset+i]
	}
	d.offset += n
	return list, nil
}

// sortSearch is like sort.Search, avoiding an import.
func sortSearch(n int, f func(int) bool) int {
	// Define f(-1) == false and f(n) == true.
	// Invariant: f(i-1) == false, f(j) == true.
	i, j := 0, n
	for i < j {

	runDataInitializer func(*cobra.Command, []string) (RunData, error)

	// runData is part of the internal state of the runner and it is used for implementing
	// a singleton in the InitData methods (thus avoiding to initialize data
	// more than one time)
	runData RunData

	// runCmd is part of the internal state of the runner and it is used to track the
	// command that will trigger the runner (only if the runner is BindToCommand).

// result on most HW (including 386/amd64) can be r1==r2==0. This is a classic
// example of what can happen when loads are allowed to be reordered with older
// stores (avoiding such reorderings lies at the heart of the classic
// Peterson/Dekker algorithms for mutual exclusion). Rather than require memory
// barriers, which will slow down both the mutator and the GC, we always grey

	// In terms of 32-bit halves, this is:
	// 	x1:x0 := r.Uint64()
	// 	0:hi, lo1:lo0 := bits.Mul64(x1:x0, 0:n)
	// Writing out the multiplication in terms of bits.Mul32 allows
	// using direct hardware instructions and avoiding
	// the computations involving these zeros.
	x := r.Uint64()
	lo1a, lo0 := bits.Mul32(uint32(x), n)
	hi, lo1b := bits.Mul32(uint32(x>>32), n)
	lo1, c := bits.Add32(lo1a, lo1b, 0)
	hi += c

	r := pr.newReader(pkgbits.RelocMeta, pkgbits.PublicRootIdx, pkgbits.SyncPublic)
	pkg := r.pkg()
	r.Bool() // TODO(mdempsky): Remove; was "has init"

	for i, n := 0, r.Len(); i < n; i++ {
		// As if r.obj(), but avoiding the Scope.Lookup call,
		// to avoid eager loading of imports.
		r.Sync(pkgbits.SyncObject)
		assert(!r.Bool())
		r.p.objIdx(r.Reloc(pkgbits.RelocObj))
		assert(r.Len() == 0)
	}

	r.Sync(pkgbits.SyncEOF)

 * with {@link Collection} itself). Prefer subtypes such as {@link ImmutableSet} or {@link
 * ImmutableList}, which have well-defined {@link #equals} semantics, thus avoiding a common source
 * of bugs and confusion.
 *
 * <h3>About <i>all</i> {@code Immutable-} collections</h3>
 *
 * <p>The remainder of this documentation applies to every public {@code Immutable-} type in this