let external_module = self.new_extern_crate_module(parent_link, def);
self.define(parent, name, TypeNS, (external_module, sp));
- self.build_reduced_graph_for_external_crate(&external_module);
+ self.build_reduced_graph_for_external_crate(external_module);
}
parent
}
for variant in &(*enum_definition).variants {
let item_def_id = self.ast_map.local_def_id(item.id);
self.build_reduced_graph_for_variant(variant, item_def_id,
- &module, variant_modifiers);
+ module, variant_modifiers);
}
parent
}
};
let modifiers = DefModifiers::PUBLIC; // NB: not DefModifiers::IMPORTABLE
- self.define(&module_parent, item.name, ns, (def, item.span, modifiers));
+ self.define(module_parent, item.name, ns, (def, item.span, modifiers));
self.trait_item_map.insert((item.name, def_id), item_def_id);
}
let segment_name = name.as_str();
let module_name = module_to_string(search_module);
let mut span = span;
- let msg = if "???" == &module_name[..] {
+ let msg = if "???" == &module_name {
span.hi = span.lo + Pos::from_usize(segment_name.len());
match search_parent_externals(name, &self.current_module) {
module_to_string(&*module_));
// First, check the direct children of the module.
- build_reduced_graph::populate_module_if_necessary(self, &module_);
+ build_reduced_graph::populate_module_if_necessary(self, module_);
if let Some(binding) = module_.get_child(name, namespace) {
debug!("(resolving name in module) found node as child");
}
// Descend into children and anonymous children.
- build_reduced_graph::populate_module_if_necessary(self, &module_);
+ build_reduced_graph::populate_module_if_necessary(self, module_);
module_.for_each_local_child(|_, _, child_node| {
match child_node.module() {
let containing_module;
let last_private;
match self.resolve_module_path_from_root(root_module,
- &module_path[..],
+ &module_path,
0,
span,
LastMod(AllPublic)) {
Some((span, msg)) => (span, msg),
None => {
let msg = format!("Use of undeclared module `::{}`",
- names_to_string(&module_path[..]));
+ names_to_string(&module_path));
(span, msg)
}
};
errors.extend(self.resolve_imports_for_module(module_));
self.resolver.current_module = orig_module;
- build_reduced_graph::populate_module_if_necessary(self.resolver, &module_);
+ build_reduced_graph::populate_module_if_necessary(self.resolver, module_);
module_.for_each_local_child(|_, _, child_node| {
match child_node.module() {
None => {
// We found the module that the target is contained
// within. Attempt to resolve the import within it.
if let SingleImport(target, source) = import_directive.subclass {
- self.resolve_single_import(&module_,
+ self.resolve_single_import(module_,
containing_module,
target,
source,
import_directive,
lp)
} else {
- self.resolve_glob_import(&module_, containing_module, import_directive, lp)
+ self.resolve_glob_import(module_, containing_module, import_directive, lp)
}
})
.and_then(|()| {
// We need to resolve both namespaces for this to succeed.
let (value_result, value_used_reexport) =
- self.resolve_name_in_module(&target_module, source, ValueNS, module_);
+ self.resolve_name_in_module(target_module, source, ValueNS, module_);
let (type_result, type_used_reexport) =
- self.resolve_name_in_module(&target_module, source, TypeNS, module_);
+ self.resolve_name_in_module(target_module, source, TypeNS, module_);
match (&value_result, &type_result) {
(&Success((_, ref name_binding)), _) if !value_used_reexport &&
if let (&Failed(_), &Failed(_)) = (&value_result, &type_result) {
let msg = format!("There is no `{}` in `{}`{}",
source,
- module_to_string(&target_module), lev_suggestion);
+ module_to_string(target_module), lev_suggestion);
return Failed(Some((directive.span, msg)));
}
}
// Add all children from the containing module.
- build_reduced_graph::populate_module_if_necessary(self.resolver, &target_module);
+ build_reduced_graph::populate_module_if_necessary(self.resolver, target_module);
target_module.for_each_local_child(|name, ns, name_binding| {
self.merge_import_resolution(module_,