}

				// If the constraint contains an @ then
				// it specifies an exact mailbox name.
				if strings.Contains(constraint, "@") {
					if _, ok := parseRFC2821Mailbox(constraint); !ok {
						return nil, nil, nil, nil, fmt.Errorf("x509: failed to parse rfc822Name constraint %q", constraint)
					}
				} else {
					// Otherwise it's a domain name.

			t.Fatalf("failed to parse user unique, got error %v", err)
		}

		constraints := user.ParseUniqueConstraints()
		if len(constraints) != 1 {
			t.Fatalf("failed to find unique constraint, got %v", constraints)
		}

		for key := range constraints {
			if len(key) != 63 {
				t.Errorf("failed to find unique constraint, got %v", constraints)
			}
		}
	})

	t.Run("naming strategy", func(t *testing.T) {

			implicit = r.bool()
		}
		constraint := r.typ()
		if implicit {
			iface, _ := constraint.(*types.Interface)
			if iface == nil {
				errorf("non-interface constraint marked implicit")
			}
			iface.MarkImplicit()
		}
		// The constraint type may not be complete, if we
		// are in the middle of a type recursion involving type
		// constraints. So, we defer SetConstraint until we have

- `group`: The group of the dependency constraint.
- `module`: The module of the dependency constraint.
- `version`: optional. The version constraint of the dependency constraint.
- `reason`: optional. A explanation why the constraint is used. Can typically be used to explain why a specific version is rejected, or from where a platform comes from.

class ValueEquals<string val> : Constraint<CPred<"ValueEquals($0, " # val # ")">>;
def ValueGreaterThanZero : Constraint<CPred<"ValueGreaterThanZero($0)">>;
def ValueIsReciprocal : Constraint<CPred<"ValueIsReciprocal($0, $1)">>;
def TensorIsSign : Constraint<CPred<"TensorIsSign($_builder, $0, $1)">>;
def SameValue : Constraint<CPred<"$0 == $1">>;
def FloatOrDefaultCompare : Constraint<CPred<

			// Nodes which don't have all required topologyKeys present are ignored
			// when scoring later.
			s.IgnoredNodes.Insert(node.Node().Name)
			continue
		}
		for i, constraint := range s.Constraints {
			// per-node counts are calculated during Score.
			if constraint.TopologyKey == v1.LabelHostname {
				continue
			}

// is called through an exported API call such as AssignableTo. If constraint
// is set, T is a type constraint.
//
// If the provided cause is non-nil, it may be set to an error string
// explaining why V does not implement (or satisfy, for constraints) T.
func (check *Checker) implements(pos token.Pos, V, T Type, constraint bool, cause *string) bool {
	Vu := under(V)
	Tu := under(T)

// is called through an exported API call such as AssignableTo. If constraint
// is set, T is a type constraint.
//
// If the provided cause is non-nil, it may be set to an error string
// explaining why V does not implement (or satisfy, for constraints) T.
func (check *Checker) implements(pos syntax.Pos, V, T Type, constraint bool, cause *string) bool {
	Vu := under(V)
	Tu := under(T)

                }
            }
        }
        run ':checkDeps'

        then:
        resolve.expectGraph {
            root(":", ":test:") {
                constraint("org:foo:{prefer 1.0.0}", "org:foo:1.1.0")
                constraint("org:foo:{prefer 1.1.0}", "org:foo:1.1.0")
                edge("org:foo:[1.0.0,2.0.0)", "org:foo:1.1.0") {
                    notRequested()
                    byConstraint()

def OneElementAttr
  : ElementsAttrBase<And<[ElementsAttr.predicate, OneElementAttrPred]>,
                     "Scalar ElementsAttr">;

def HasRankedFirstOperand
  : Constraint<CPred<"(*$0.begin()).getType().isa<RankedTensorType>()">>;

def IsShapedTensor
  : Constraint<CPred<"$0.getType().isa<RankedTensorType>()">>;

// This pattern converts TensorFlow axis format to HLO axis format which