*
 * <pre>{@code
 * FluentFuture<UserName> userName =
 *     ClosingFuture.submit(
 *             closer -> closer.eventuallyClose(database.newTransaction(), closingExecutor),
 *             executor)
 *         .transformAsync((closer, transaction) -> transaction.queryClosingFuture("..."), executor)
 *         .transform((closer, result) -> result.get("userName"), directExecutor())

			}
			coverFile = strings.TrimSuffix(coverFile, ".go") + ".cover.go"
			if cfg.Experiment.CoverageRedesign {
				infiles = append(infiles, sourceFile)
				outfiles = append(outfiles, coverFile)
			} else {
				cover := p.Internal.CoverVars[key]
				if cover == nil {
					continue // Not covering this file.
				}
				if err := b.cover(a, coverFile, sourceFile, cover.Var); err != nil {
					return err
				}
			}

 *
 * <pre>{@code
 * FluentFuture<UserName> userName =
 *     ClosingFuture.submit(
 *             closer -> closer.eventuallyClose(database.newTransaction(), closingExecutor),
 *             executor)
 *         .transformAsync((closer, transaction) -> transaction.queryClosingFuture("..."), executor)
 *         .transform((closer, result) -> result.get("userName"), directExecutor())

//			significantly more expensive.
//		Sets -cover.
//	-coverpkg pattern1,pattern2,pattern3
//		For a build that targets package 'main' (e.g. building a Go
//		executable), apply coverage analysis to each package matching
//		the patterns. The default is to apply coverage analysis to
//		packages in the main Go module. See 'go help packages' for a
//		description of package patterns.  Sets -cover.
//	-v

		for _, mf := range mfs {
			if err := enc.Encode(mf); err != nil {
				// client may disconnect for any reasons
				// we do not have to log this.
				return
			}
		}
		if closer, ok := enc.(expfmt.Closer); ok {
			closer.Close()
		}
	})
}

func metricsBucketHandler() http.Handler {
	return metricsHTTPHandler(bucketCollector, "handler.MetricsBucket")
}

	}

	p.Internal.Imports = append(p.Internal.Imports, p1)
}

// PrepareForCoverageBuild is a helper invoked for "go install
// -cover", "go run -cover", and "go build -cover" (but not used by
// "go test -cover"). It walks through the packages being built (and
// dependencies) and marks them for coverage instrumentation when
// appropriate, and possibly adding additional deps where needed.

  /**
   * Applies a supplemental hash function to a given hash code, which defends against poor quality
   * hash functions. This is critical when the concurrent hash map uses power-of-two length hash
   * tables, that otherwise encounter collisions for hash codes that do not differ in lower or upper
   * bits.
   *
   * @param h hash code
   */
  static int rehash(int h) {
    // Spread bits to regularize both segment and index locations,

(Or(8|16|32|64) <t> (Com(8|16|32|64) x) (Com(8|16|32|64) y)) => (Com(8|16|32|64) (And(8|16|32|64) <t> x y))

// Convert multiplication by a power of two to a shift.
(Mul8  <t> n (Const8  [c])) && isPowerOfTwo8(c) => (Lsh8x64  <t> n (Const64 <typ.UInt64> [log8(c)]))
(Mul16 <t> n (Const16 [c])) && isPowerOfTwo16(c) => (Lsh16x64 <t> n (Const64 <typ.UInt64> [log16(c)]))

	if err != nil {
		return err
	}

	// Give up after 2 loops.
	// 2 * 500 pods per loop = 1000 max pods <- this should be enough for all test cases.
	// Anything slower than that (requiring more iterations) indicates a problem and should fail the test.
	maxLoops := 2
	loops := maxLoops
	for set.Status.Replicas < *set.Spec.Replicas {
		if loops < 1 {

}


def TFL_PowOp : TFL_Op<"pow", [
    ResultsBroadcastableShape,
    Pure,
    TFL_OperandsHaveSameShapesOrBroadcastableShape<[0, 1], 4>]> {
  let summary = "Power operator";

  let description = [{
    Element-wise power operation.
  }];

  let arguments = (
    ins TFL_TensorOf<[F32, I32]>:$lhs,
    TFL_TensorOf<[F32, I32]>:$rhs);