})
}

// forEachLastStmt calls onLast on each "last" statement in a list of statements.
// "Last" is defined recursively so, for example, if the last statement is
// a switch statement, then each switch case is also visited to examine
// its last statements.
func forEachLastStmt(stmts []ast.Stmt, onLast func(last ast.Stmt)) {
	if len(stmts) == 0 {
		return
	}

	s := stmts[len(stmts)-1]
	switch s := s.(type) {

		// existing import may be shadowed at any given place we want
		// to refer to it, and our name (_cover_atomic_) is less likely to
		// be shadowed. The one exception is if we're visiting the
		// sync/atomic package itself, in which case we can refer to
		// functions directly without an import prefix. See also #57445.
		if pkgconfig.PkgPath != "sync/atomic" {

//     order scan over instructions
//   - invoke b.Finish() to produce final set
//
// See the Live method comment for an IR example.
type IntervalsBuilder struct {
	s Intervals
	// index of last instruction visited plus 1
	lidx int
}

func (c *IntervalsBuilder) last() int {
	return c.lidx - 1
}

func (c *IntervalsBuilder) setLast(x int) {
	c.lidx = x + 1
}

			return true
		},
	}
	traversal.Walk(r.graph.graph, startingVertex, func(n graph.Node) bool {
		if n.ID() == nodeVertex.ID() {
			// We found the node we want
			found = true
		}
		// Stop visiting if we've found the node we want
		return found
	})
	if !found {

        doesNotResolve evicted, a
        traverses a, b
        traverses root, d
        traverses d, e
        traverses e, selected // conflict is deeper than 'b', to ensure 'b' has been visited

        when:
        def result = resolve()
        result.rethrowFailure()

        then:
        1 * conflictResolver.select(_) >> { args ->
            def details = args[0]

			// are extremely short (bounded by the nesting depth of interface
			// type declarations that recur via parameter types, an extremely
			// rare occurrence). An alternative implementation might use a
			// "visited" map, but that is probably less efficient overall.
			q := &ifacePair{xi, yi, p}
			for p != nil {
				if p.identical(q) {
					return true // same pair was compared before
				}
				p = p.prev
			}

                         /*flatten_tuple=*/true);

  // auto new_token = new_if_results[new_if_results.size() - 1];

  region_if.erase();

  // Next op to visit. The replacement is visited but at its first region.
  // The new region use the same implicit token used by the If op.
  ops_to_visit.push_back({/*region_idx=*/0, token, new_if});
}

            // set of build dependencies than actually required. This is because it takes a lot of extra information
            // from the visited graph to properly filter artifacts by dependencySpec, and we don't want capture that when
            // calculating build dependencies.
            dependencySpec -> visitedArtifacts.select(getImplicitSelectionSpec(resolveContext))

			// are extremely short (bounded by the nesting depth of interface
			// type declarations that recur via parameter types, an extremely
			// rare occurrence). An alternative implementation might use a
			// "visited" map, but that is probably less efficient overall.
			q := &ifacePair{xi, yi, p}
			for p != nil {
				if p.identical(q) {
					return true // same pair was compared before
				}
				p = p.prev
			}

//
// reqs describes the module requirement graph and provides an opaque method
// for comparing versions.
//
// BuildList traverses the graph and returns a list containing the highest
// version for each visited module. The first element of the returned list is
// target itself; reqs.Max requires target.Version to compare higher than all
// other versions, so no other version can be selected. The remaining elements