b++
	}
}

func induceSubS_8_64(text []byte, sa, freq, bucket []int64) {
	// Initialize positions for right side of character buckets.
	bucketMax_8_64(text, freq, bucket)
	bucket = bucket[:256] // eliminate bounds check for bucket[cB] below

	// Analogous to induceSubL_8_64 above,
	// as we scan the array right-to-left, each sa[i] = j > 0 is a correctly
	// sorted suffix array entry (for text[j:]) for which we know that j-1 is type S.

type cbcMode interface {
	cipher.BlockMode
	SetIV([]byte)
}

// decrypt authenticates and decrypts the record if protection is active at
// this stage. The returned plaintext might overlap with the input.
func (hc *halfConn) decrypt(record []byte) ([]byte, recordType, error) {
	var plaintext []byte
	typ := recordType(record[0])
	payload := record[recordHeaderLen:]

		})
	}

}

func statusEqual(left, right v1.PodStatus) bool {
	left.Conditions = nil
	right.Conditions = nil
	return reflect.DeepEqual(left, right)
}

func conditionsEqual(left, right []v1.PodCondition) bool {
	if len(left) != len(right) {
		return false
	}

	for _, l := range left {
		found := false
		for _, r := range right {
			if l.Type == r.Type {
				found = true

		jm.deletePod(logger, curPod, false)
		return
	}

	// Don't check if oldPod has the finalizer, as during ownership transfer
	// finalizers might be re-added and removed again in behalf of the new owner.
	// If all those Pod updates collapse into a single event, the finalizer
	// might be removed in oldPod and curPod. We want to record the latest
	// state.
	finalizerRemoved := !hasJobTrackingFinalizer(curPod)

			// The link field of a stack-allocated defer record might point
			// to a heap-allocated defer record. Keep that heap record live.
			scanblock(uintptr(unsafe.Pointer(&d.link)), goarch.PtrSize, &oneptrmask[0], gcw, &state)
		}
		// Retain defers records themselves.
		// Defer records might not be reachable from the G through regular heap
		// tracing because the defer linked list might weave between the stack and the heap.
		if d.heap {

				// In case we're loading a type out of a dictionary, we need to record
				// that the containing function might put that type in an interface.
				// That information is currently recorded in relocations in the dictionary,
				// but if we perform this load at compile time then the dictionary
				// might be dead.
				reflectdata.MarkTypeSymUsedInInterface(r.Sym, f.fe.Func().Linksym())

            return de;
        }
        Expression right = transform(de.getRightExpression());
        if (right == de.getRightExpression()) {
            fixDeclaringClass(de);
            return de;
        }
        DeclarationExpression newDeclExpr = new DeclarationExpression(left, de.getOperation(), right);
        newDeclExpr.setDeclaringClass(de.getDeclaringClass());

			// Something else is adding gp1 to the goroutine profile right now.
			// Give that a moment to finish.
			yield()
			continue
		}

		// While we have gp1.goroutineProfiled set to
		// goroutineProfileInProgress, gp1 may appear _Grunnable but will not
		// actually be able to run. Disable preemption for ourselves, to make
		// sure we finish profiling gp1 right away instead of leaving it stuck
		// in this limbo.

(Round(32|64)F ...) => (Copy ...)

// Floating-point min is tricky, as the hardware op isn't right for various special
// cases (-0 and NaN). We use two hardware ops organized just right to make the
// result come out how we want it. See https://github.com/golang/go/issues/59488#issuecomment-1553493207
// (although that comment isn't exactly right, as the value overwritten is not simulated correctly).

          Arrays.sort(sortedKs, comparator);
          Object[] sortedValues = new Object[size];

          // We might, somehow, be able to reorder values in-place.  But it doesn't seem like
          // there's a way around creating the separate sortedKeys array, and if we're allocating
          // one array of size n, we might as well allocate two -- to say nothing of the allocation
          // done in Arrays.sort.