// there are still more than one candidate, but this time we know only a subset strictly matches the required attributes
                // so we perform another round of selection on the remaining candidates
                strictlyMatchingCapabilities = attributeMatcher.matches(strictlyMatchingCapabilities, consumerAttributes, AttributeMatchingExplanationBuilder.logging());

	}

	*(*uint32)(unsafe.Pointer(&i1)) = ^uint32(1)
	if i == i1 {
		throw("float32nan2")
	}
	if i == i1 {
		throw("float32nan3")
	}

	testAtomic64()

	if fixedStack != round2(fixedStack) {
		throw("FixedStack is not power-of-2")
	}

	if !checkASM() {
		throw("assembly checks failed")
	}
}

type dbgVar struct {
	name   string

	s := runtime.AllocMSpan()
	defer runtime.FreeMSpan(s)

	// n is the number of bytes to benchmark against.
	// n must always be a multiple of 8, since gcBits is
	// always rounded up 8 bytes.
	for _, n := range []int{8, 16, 32, 64, 128} {
		b.Run(fmt.Sprintf("bits=%d", n*8), func(b *testing.B) {
			// Initialize a new byte slice with pseduo-random data.
			bits := make([]byte, n)

                     OpBuilder builder) {
  double scale = mlir::cast<FloatAttr>(scale_attr).getValueAsDouble();
  int64_t zp = mlir::cast<IntegerAttr>(zp_attr).getInt();

  int quantized = static_cast<int>(std::round(value / scale) + zp);
  quantized =
      std::min(quantized, static_cast<int>(std::numeric_limits<int8_t>::max()));
  quantized =
      std::max(quantized, static_cast<int>(std::numeric_limits<int8_t>::min()));

				t.Fatal(err)
			}
			if !reflect.DeepEqual(got, *tt.expected) {
				t.Fatalf("expected %#v, got %#v", *tt.expected, got)
			}

			roundTrip := got.String()
			if roundTrip != tt.input {
				t.Fatalf("round trip failed, expected %q got %q", tt.input, roundTrip)
			}
		})
	}

				t.Fatalf("failed to unmarshal UpdateOptions: %v", err)
			}
			got.TypeMeta = metav1.TypeMeta{}
			update.TypeMeta = metav1.TypeMeta{}
			if !reflect.DeepEqual(*update, *got) {
				t.Fatalf(`updateToCreateOptions round-trip failed:
got:  %#+v
want: %#+v`, got, update)
			}

		})
	}
}

func TestPatchToUpdateOptions(t *testing.T) {
	tests := []struct {
		name        string

//	e := unsafe.Pointer(uintptr(unsafe.Pointer(&x[0])) + i*unsafe.Sizeof(x[0]))
//
// It is valid both to add and to subtract offsets from a pointer in this way.
// It is also valid to use &^ to round pointers, usually for alignment.
// In all cases, the result must continue to point into the original allocated object.
//
// Unlike in C, it is not valid to advance a pointer just beyond the end of
// its original allocation:

		}

		// The number of endpoints per subset will be based on the propotion of endpoints
		// in this subset versus the total number of endpoints. The proportion of endpoints
		// will be rounded up which most likely will lead to the last subset having less
		// endpoints than the expected proportion.
		toBeAdded := int(math.Ceil((float64(numInSubset) / float64(numTotal)) * float64(max)))

	}
	if err := c.runtimeService.ReopenContainerLog(ctx, id); err != nil {
		// Rename the rotated log back, so that we can try rotating it again
		// next round.
		// If kubelet gets restarted at this point, we'll lose original log.
		if renameErr := c.osInterface.Rename(rotated, log); renameErr != nil {
			// This shouldn't happen.

]],[["rounded-ss",["border-start-start-radius"]],["rounded-se",["border-start-end-radius"]],["rounded-ee",["border-end-end-radius"]],["rounded-es",["border-end-start-radius"]],["rounded-tl",["border-top-left-radius"]],["rounded-tr",["border-top-right-radius"]],["rounded-br",["border-bottom-right-radius"]],["rounded-bl",["border-bottom-left-radius"]]]]),borderWidth:P("borderWidth",[["border",[["@defaults border-width",{}],"border-width"]],[["border-x",[["@defaults border-width",{}],"border-left-w...