x, err := constraint.Parse(goBuildConstraint)
			if err != nil {
				return p, fmt.Errorf("%s: parsing //go:build line: %v", name, err)
			}
			shouldBuild = ctxt.eval(x, allTags)
		} else if plusBuildConstraints := tf.plusBuildConstraints(); len(plusBuildConstraints) > 0 {
			for _, text := range plusBuildConstraints {
				if x, err := constraint.Parse(text); err == nil {

// a signature, and the hash value of t must depend only on t's index and
// constraint: signatures are considered identical modulo type parameter
// renaming. To avoid infinite recursion, we only hash the type parameter
// index, and rely on types.Identical to handle signatures where constraints
// are not identical.
//
// Otherwise the hash of t depends only on t's pointer identity.

            }

            @Override
            public VersionConstraint parseVersionConstraint(String constraint) {
                throw new IllegalArgumentException("constraint not supported by this parser");
            }

            @Override
            public boolean isSnapshot(String version) {
                requireNonNull(version, "version");

        try {
            DependencyMetadata dependencyMetadata = selectorState.getDependencyMetadata();
            boolean constraint = dependencyMetadata.isConstraint();
            if (constraint) {
                ComponentSelector selector = dependencyMetadata.getSelector();

    assert(quantizedType &&
           "Converter accepted a type that it did not convert");

    // TODO: Map to a qbarrier with an attribute like [Forced] to signal that
    // this is a forced/hard-coded constraint.
    auto qbarrier = rewriter.create<QuantizeCastOp>(op.getLoc(), quantizedType,
                                                    op.getInputs());
    rewriter.replaceOpWithNewOp<DequantizeCastOp>(op, converter.input_type,

    }

    def 'locking constraints are not transitive'() {
        given:
        def constraint = DefaultModuleComponentIdentifier.newId(DefaultModuleIdentifier.newId('org', 'foo'), '1.1')
        resolutionStrategy.isDependencyLockingEnabled() >> true
        dependencyLockingProvider.loadLockState("conf", _) >> new DefaultDependencyLockingState(true, [constraint] as Set, {entry -> false })

        when:

	FMT, sort
	< internal/gover
	< go/version
	< go/token
	< go/scanner
	< go/ast
	< go/internal/typeparams;

	FMT
	< go/build/constraint;

	FMT, sort
	< go/doc/comment;

	go/internal/typeparams, go/build/constraint
	< go/parser;

	go/doc/comment, go/parser, text/tabwriter
	< go/printer
	< go/format;

	math/big, go/token
	< go/constant;

}

// IndexName generate index name
func (ns NamingStrategy) IndexName(table, column string) string {
	return ns.formatName("idx", table, ns.toDBName(column))
}

// UniqueName generate unique constraint name
func (ns NamingStrategy) UniqueName(table, column string) string {
	return ns.formatName("uni", table, ns.toDBName(column))
}

func (ns NamingStrategy) formatName(prefix, table, name string) string {

include "tensorflow/compiler/mlir/tensorflow/transforms/rewrite_util.td"

def NonScalarRankedType : Type<And<[Neg<HasAnyRankOfPred<[0]>>, HasRankPred]>,
                         "Non scalar type">;

def HasSingleElement: Constraint<CPred<"($0.size() == 1)">>;

def EmptyList: NativeCodeCall<"llvm::SmallVector<mlir::Value>{}">;

// Creates a tf.ReadVariable op that reads a resource `$2` that has the same

new" field or method of a type that is itself "too new", as this may
have false positives, for example if fields or methods are accessed
through a type alias that is guarded by a Go version constraint.
`

var Analyzer = &analysis.Analyzer{
	Name:             "stdversion",
	Doc:              Doc,
	Requires:         []*analysis.Analyzer{inspect.Analyzer},