* {@code setFuture} after any cancellation will propagate cancellation to the supplied {@code
   * Future}.
   *
   * <p>Note that, even if the supplied future is cancelled and it causes this future to complete,
   * it will never trigger interruption behavior. In particular, it will not cause this future to
   * invoke the {@link #interruptTask} method, and the {@link #wasInterrupted} method will not

   * {@code setFuture} after any cancellation will propagate cancellation to the supplied {@code
   * Future}.
   *
   * <p>Note that, even if the supplied future is cancelled and it causes this future to complete,
   * it will never trigger interruption behavior. In particular, it will not cause this future to
   * invoke the {@link #interruptTask} method, and the {@link #wasInterrupted} method will not

			}
			f := fmt.Sprintf("%04d-%02d-%02d %03d %+.2d00",
				ydt.year, ydt.month, ydt.day, ydt.yday, (i-2)*4)
			dt1, err := Parse("2006-01-02 002 -0700", f)
			if err != nil {
				t.Errorf(`Parse("2006-01-02 002 -0700", %q): %v`, f, err)
				continue
			}
			if !dt1.Equal(dt) {
				t.Errorf(`Parse("2006-01-02 002 -0700", %q) = %v, want %v`, f, dt1, dt)
			}
		}
	}
}

var durationTests = []struct {

		fmt.Fprintf(b, "\n\t%s", c.Summary())
	}
	return b.String()
}

// A Conflict is a path of requirements starting at a root or proposed root in
// the requirement graph, explaining why that root either causes a module passed
// in the mustSelect list to EditBuildList to be unattainable, or introduces an
// unresolvable error in loading the requirement graph.
type Conflict struct {

	} else if minimum > maxPagesPerPhysPage {
		print("runtime: min = ", minimum, "\n")
		throw("min too large")
	}
	// max may not be min-aligned, so we might accidentally truncate to
	// a max value which causes us to return a non-min-aligned value.
	// To prevent this, align max up to a multiple of min (which is always
	// a power of 2). This also prevents max from ever being less than

				return nil, nil, InvalidUntypedConversion
			}
		case UntypedString:
			// Non-constant untyped string values are not permitted by the spec and
			// should not occur during normal typechecking passes, but this path is
			// reachable via the AssignableTo API.
			if !isString(target) {
				return nil, nil, InvalidUntypedConversion
			}
		default:
			return nil, nil, InvalidUntypedConversion
		}

	for p.activeQ.Len() == 0 {
		// When the queue is empty, invocation of Pop() is blocked until new item is enqueued.
		// When Close() is called, the p.closed is set and the condition is broadcast,
		// which causes this loop to continue and return from the Pop().
		if p.closed {
			logger.V(2).Info("Scheduling queue is closed")
			return nil, nil
		}
		p.cond.Wait()
	}
	obj, err := p.activeQ.Pop()
	if err != nil {

	}
	for _, test := range execTests {
		var tmpl *Template
		var err error
		if template == nil {
			tmpl, err = New(test.name).Funcs(funcs).Parse(test.input)
		} else {
			tmpl, err = template.New(test.name).Funcs(funcs).Parse(test.input)
		}
		if err != nil {
			t.Errorf("%s: parse error: %s", test.name, err)
			continue
		}
		b.Reset()
		err = tmpl.Execute(b, test.data)
		switch {
		case !test.ok && err == nil:

	//
	// Mirrors mspan.writeHeapBitsSmall.
	//
	// We should be using heapBits(), but unfortunately it introduces
	// both bounds checks panics and throw which causes us to exceed
	// the nosplit limit in quite a few cases.
	i := (addr - span.base()) / goarch.PtrSize / ptrBits
	j := (addr - span.base()) / goarch.PtrSize % ptrBits
	bits := span.elemsize / goarch.PtrSize

		ip, port, err := net.SplitHostPort(ep)
		if err != nil {
			proxier.logger.Error(err, "Failed to parse endpoint", "endpoint", ep)
			continue
		}
		portNum, err := strconv.Atoi(port)
		if err != nil {
			proxier.logger.Error(err, "Failed to parse endpoint port", "port", port)
			continue
		}

		newDest := &utilipvs.RealServer{
			Address: netutils.ParseIPSloppy(ip),