Auto merge of #31838 - aochagavia:trans, r=nrc

Refactor rustc_trans::save to allow other backends than CSV

r? @nrc

Things done:
* Moved `(.*)Data` structs to an own module, so they can be imported easily (`use data::*`).
* Created a `Dump` trait with callbacks for dumping items.
* Refactored `DumpCsvVisitor` to use an implementor of `Dump` instead of dumping as CSV. Renamed it to `DumpVisitor`.
* Created a `DumpCsv` struct that implements `Dump` and serializes items as CSV.

I tried to extract some of the logic contained in `FmtStr` and `Recorder`, such as normalization of ids (I put it in `DumpVisitor`). I think it makes sense to provide the same information to other implementors of `Dump`, instead of normalizing only for `DumpCsv`. However, there is still some logic related to spans implemented only for `DumpCsv`. I just thought it would be better to merge this as soon as possible, since there are so much changes, and fix this afterwards.
This commit is contained in:
bors 2016-03-15 15:03:00 -07:00
commit c66d2380a8
6 changed files with 1459 additions and 1153 deletions

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// Copyright 2012-2014 The Rust Project Developers. See the COPYRIGHT
// file at the top-level directory of this distribution and at
// http://rust-lang.org/COPYRIGHT.
//
// Licensed under the Apache License, Version 2.0 <LICENSE-APACHE or
// http://www.apache.org/licenses/LICENSE-2.0> or the MIT license
// <LICENSE-MIT or http://opensource.org/licenses/MIT>, at your
// option. This file may not be copied, modified, or distributed
// except according to those terms.
use std::io::Write;
use middle::def_id::{DefId, DefIndex};
use syntax::codemap::Span;
use super::data::*;
use super::dump::Dump;
use super::span_utils::SpanUtils;
pub struct CsvDumper<'a, 'b, W: 'b> {
output: &'b mut W,
dump_spans: bool,
span: SpanUtils<'a>
}
impl<'a, 'b, W: Write> CsvDumper<'a, 'b, W> {
pub fn new(writer: &'b mut W, span: SpanUtils<'a>) -> CsvDumper<'a, 'b, W> {
CsvDumper { output: writer, dump_spans: false, span: span }
}
fn record(&mut self, kind: &str, span: Span, values: String) {
let span_str = self.span.extent_str(span);
if let Err(_) = write!(self.output, "{},{}{}\n", kind, span_str, values) {
error!("Error writing output");
}
}
fn record_raw(&mut self, info: &str) {
if let Err(_) = write!(self.output, "{}", info) {
error!("Error writing output '{}'", info);
}
}
pub fn dump_span(&mut self, kind: &str, span: Span) {
assert!(self.dump_spans);
let result = format!("span,kind,{},{},text,\"{}\"\n",
kind,
self.span.extent_str(span),
escape(self.span.snippet(span)));
self.record_raw(&result);
}
}
impl<'a, 'b, W: Write + 'b> Dump for CsvDumper<'a, 'b, W> {
fn crate_prelude(&mut self, span: Span, data: CratePreludeData) {
let crate_root = data.crate_root.unwrap_or("<no source>".to_owned());
let values = make_values_str(&[
("name", &data.crate_name),
("crate_root", &crate_root)
]);
self.record("crate", span, values);
for c in data.external_crates {
let num = c.num.to_string();
let lo_loc = self.span.sess.codemap().lookup_char_pos(span.lo);
let file_name = SpanUtils::make_path_string(&lo_loc.file.name);
let values = make_values_str(&[
("name", &c.name),
("crate", &num),
("file_name", &file_name)
]);
self.record_raw(&format!("external_crate{}\n", values));
}
self.record_raw("end_external_crates\n");
}
fn enum_data(&mut self, span: Span, data: EnumData) {
if self.dump_spans {
self.dump_span("enum", span);
return;
}
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("qualname", &data.qualname),
("scopeid", &scope),
("value", &data.value)
]);
self.record("enum", data.span, values);
}
fn extern_crate(&mut self, span: Span, data: ExternCrateData) {
if self.dump_spans {
self.dump_span("extern_crate", span);
return;
}
let id = data.id.to_string();
let crate_num = data.crate_num.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("name", &data.name),
("location", &data.location),
("crate", &crate_num),
("scopeid", &scope)
]);
self.record("extern_crate", data.span, values);
}
fn impl_data(&mut self, span: Span, data: ImplData) {
if self.dump_spans {
self.dump_span("impl", span);
return;
}
let self_ref = data.self_ref.unwrap_or(null_def_id());
let trait_ref = data.trait_ref.unwrap_or(null_def_id());
let id = data.id.to_string();
let ref_id = self_ref.index.as_usize().to_string();
let ref_id_crate = self_ref.krate.to_string();
let trait_id = trait_ref.index.as_usize().to_string();
let trait_id_crate = trait_ref.krate.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("refid", &ref_id),
("refidcrate", &ref_id_crate),
("traitid", &trait_id),
("traitidcrate", &trait_id_crate),
("scopeid", &scope)
]);
self.record("impl", data.span, values);
}
fn inheritance(&mut self, data: InheritanceData) {
if self.dump_spans {
return;
}
let base_id = data.base_id.index.as_usize().to_string();
let base_crate = data.base_id.krate.to_string();
let deriv_id = data.deriv_id.to_string();
let deriv_crate = 0.to_string();
let values = make_values_str(&[
("base", &base_id),
("basecrate", &base_crate),
("derived", &deriv_id),
("derivedcrate", &deriv_crate)
]);
self.record("inheritance", data.span, values);
}
fn function(&mut self, span: Span, data: FunctionData) {
if self.dump_spans {
self.dump_span("function", span);
return;
}
let (decl_id, decl_crate) = match data.declaration {
Some(id) => (id.index.as_usize().to_string(), id.krate.to_string()),
None => (String::new(), String::new())
};
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("qualname", &data.qualname),
("declid", &decl_id),
("declidcrate", &decl_crate),
("scopeid", &scope)
]);
self.record("function", data.span, values);
}
fn function_ref(&mut self, span: Span, data: FunctionRefData) {
if self.dump_spans {
self.dump_span("fn_ref", span);
return;
}
let ref_id = data.ref_id.index.as_usize().to_string();
let ref_crate = data.ref_id.krate.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("refid", &ref_id),
("refidcrate", &ref_crate),
("qualname", ""),
("scopeid", &scope)
]);
self.record("fn_ref", data.span, values);
}
fn function_call(&mut self, span: Span, data: FunctionCallData) {
if self.dump_spans {
self.dump_span("fn_call", span);
return;
}
let ref_id = data.ref_id.index.as_usize().to_string();
let ref_crate = data.ref_id.krate.to_string();
let qualname = String::new();
let scope = data.scope.to_string();
let values = make_values_str(&[
("refid", &ref_id),
("refidcrate", &ref_crate),
("qualname", &qualname),
("scopeid", &scope)
]);
self.record("fn_call", data.span, values);
}
fn method(&mut self, span: Span, data: MethodData) {
if self.dump_spans {
self.dump_span("method_decl", span);
return;
}
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("qualname", &data.qualname),
("scopeid", &scope)
]);
self.record("method_decl", span, values);
}
fn method_call(&mut self, span: Span, data: MethodCallData) {
if self.dump_spans {
self.dump_span("method_call", span);
return;
}
let (dcn, dck) = match data.decl_id {
Some(declid) => (declid.index.as_usize().to_string(), declid.krate.to_string()),
None => (String::new(), String::new()),
};
let ref_id = data.ref_id.unwrap_or(null_def_id());
let def_id = ref_id.index.as_usize().to_string();
let def_crate = ref_id.krate.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("refid", &def_id),
("refidcrate", &def_crate),
("declid", &dcn),
("declidcrate", &dck),
("scopeid", &scope)
]);
self.record("method_call", data.span, values);
}
fn macro_data(&mut self, span: Span, data: MacroData) {
if self.dump_spans {
self.dump_span("macro", span);
return;
}
let values = make_values_str(&[
("name", &data.name),
("qualname", &data.qualname)
]);
self.record("macro", data.span, values);
}
fn macro_use(&mut self, span: Span, data: MacroUseData) {
if self.dump_spans {
self.dump_span("macro_use", span);
return;
}
let scope = data.scope.to_string();
let values = make_values_str(&[
("callee_name", &data.name),
("qualname", &data.qualname),
("scopeid", &scope)
]);
self.record("macro_use", data.span, values);
}
fn mod_data(&mut self, data: ModData) {
if self.dump_spans {
return;
}
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("qualname", &data.qualname),
("scopeid", &scope),
("def_file", &data.filename)
]);
self.record("module", data.span, values);
}
fn mod_ref(&mut self, span: Span, data: ModRefData) {
if self.dump_spans {
self.dump_span("mod_ref", span);
return;
}
let (ref_id, ref_crate) = match data.ref_id {
Some(rid) => (rid.index.as_usize().to_string(), rid.krate.to_string()),
None => (0.to_string(), 0.to_string())
};
let scope = data.scope.to_string();
let values = make_values_str(&[
("refid", &ref_id),
("refidcrate", &ref_crate),
("qualname", &data.qualname),
("scopeid", &scope)
]);
self.record("mod_ref", data.span, values);
}
fn struct_data(&mut self, span: Span, data: StructData) {
if self.dump_spans {
self.dump_span("struct", span);
return;
}
let id = data.id.to_string();
let ctor_id = data.ctor_id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("ctor_id", &ctor_id),
("qualname", &data.qualname),
("scopeid", &scope),
("value", &data.value)
]);
self.record("struct", data.span, values);
}
fn struct_variant(&mut self, span: Span, data: StructVariantData) {
if self.dump_spans {
self.dump_span("variant_struct", span);
return;
}
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("ctor_id", &id),
("qualname", &data.qualname),
("type", &data.type_value),
("value", &data.value),
("scopeid", &scope)
]);
self.record("variant_struct", data.span, values);
}
fn trait_data(&mut self, span: Span, data: TraitData) {
if self.dump_spans {
self.dump_span("trait", span);
return;
}
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("qualname", &data.qualname),
("scopeid", &scope),
("value", &data.value)
]);
self.record("trait", data.span, values);
}
fn tuple_variant(&mut self, span: Span, data: TupleVariantData) {
if self.dump_spans {
self.dump_span("variant", span);
return;
}
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("name", &data.name),
("qualname", &data.qualname),
("type", &data.type_value),
("value", &data.value),
("scopeid", &scope)
]);
self.record("variant", data.span, values);
}
fn type_ref(&mut self, span: Span, data: TypeRefData) {
if self.dump_spans {
self.dump_span("type_ref", span);
return;
}
let (ref_id, ref_crate) = match data.ref_id {
Some(id) => (id.index.as_usize().to_string(), id.krate.to_string()),
None => (0.to_string(), 0.to_string())
};
let scope = data.scope.to_string();
let values = make_values_str(&[
("refid", &ref_id),
("refidcrate", &ref_crate),
("qualname", &data.qualname),
("scopeid", &scope)
]);
self.record("type_ref", data.span, values);
}
fn typedef(&mut self, span: Span, data: TypedefData) {
if self.dump_spans {
self.dump_span("typedef", span);
return;
}
let id = data.id.to_string();
let values = make_values_str(&[
("id", &id),
("qualname", &data.qualname),
("value", &data.value)
]);
self.record("typedef", data.span, values);
}
fn use_data(&mut self, span: Span, data: UseData) {
if self.dump_spans {
self.dump_span("use_alias", span);
return;
}
let mod_id = data.mod_id.unwrap_or(null_def_id());
let id = data.id.to_string();
let ref_id = mod_id.index.as_usize().to_string();
let ref_crate = mod_id.krate.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("refid", &ref_id),
("refidcrate", &ref_crate),
("name", &data.name),
("scopeid", &scope)
]);
self.record("use_alias", data.span, values);
}
fn use_glob(&mut self, span: Span, data: UseGlobData) {
if self.dump_spans {
self.dump_span("use_glob", span);
return;
}
let names = data.names.join(", ");
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("value", &names),
("scopeid", &scope)
]);
self.record("use_glob", data.span, values);
}
fn variable(&mut self, span: Span, data: VariableData) {
if self.dump_spans {
self.dump_span("variable", span);
return;
}
let id = data.id.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("id", &id),
("name", &data.name),
("qualname", &data.qualname),
("value", &data.value),
("type", &data.type_value),
("scopeid", &scope)
]);
self.record("variable", data.span, values);
}
fn variable_ref(&mut self, span: Span, data: VariableRefData) {
if self.dump_spans {
self.dump_span("var_ref", span);
return;
}
let ref_id = data.ref_id.index.as_usize().to_string();
let ref_crate = data.ref_id.krate.to_string();
let scope = data.scope.to_string();
let values = make_values_str(&[
("refid", &ref_id),
("refidcrate", &ref_crate),
("qualname", ""),
("scopeid", &scope)
]);
self.record("var_ref", data.span, values)
}
}
// Helper function to escape quotes in a string
fn escape(s: String) -> String {
s.replace("\"", "\"\"")
}
fn make_values_str(pairs: &[(&'static str, &str)]) -> String {
let pairs = pairs.into_iter().map(|&(f, v)| {
// Never take more than 1020 chars
if v.len() > 1020 {
(f, &v[..1020])
} else {
(f, v)
}
});
let strs = pairs.map(|(f, v)| format!(",{},\"{}\"", f, escape(String::from(v))));
strs.fold(String::new(), |mut s, ss| {
s.push_str(&ss[..]);
s
})
}
fn null_def_id() -> DefId {
DefId {
krate: 0,
index: DefIndex::new(0),
}
}

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// Copyright 2012-2014 The Rust Project Developers. See the COPYRIGHT
// file at the top-level directory of this distribution and at
// http://rust-lang.org/COPYRIGHT.
//
// Licensed under the Apache License, Version 2.0 <LICENSE-APACHE or
// http://www.apache.org/licenses/LICENSE-2.0> or the MIT license
// <LICENSE-MIT or http://opensource.org/licenses/MIT>, at your
// option. This file may not be copied, modified, or distributed
// except according to those terms.
//! Structs representing the analysis data from a crate.
//!
//! The `Dump` trait can be used together with `DumpVisitor` in order to
//! retrieve the data from a crate.
use std::hash::Hasher;
use middle::def_id::DefId;
use middle::ty;
use syntax::ast::{CrateNum, NodeId};
use syntax::codemap::Span;
#[macro_export]
macro_rules! down_cast_data {
($id:ident, $kind:ident, $this:ident, $sp:expr) => {
let $id = if let super::Data::$kind(data) = $id {
data
} else {
$this.sess.span_bug($sp, &format!("unexpected data kind: {:?}", $id));
}
};
}
pub struct CrateData {
pub name: String,
pub number: u32,
}
/// Data for any entity in the Rust language. The actual data contained varies
/// with the kind of entity being queried. See the nested structs for details.
#[derive(Debug)]
pub enum Data {
/// Data for Enums.
EnumData(EnumData),
/// Data for extern crates.
ExternCrateData(ExternCrateData),
/// Data about a function call.
FunctionCallData(FunctionCallData),
/// Data for all kinds of functions and methods.
FunctionData(FunctionData),
/// Data about a function ref.
FunctionRefData(FunctionRefData),
/// Data for impls.
ImplData(ImplData2),
/// Data for trait inheritance.
InheritanceData(InheritanceData),
/// Data about a macro declaration.
MacroData(MacroData),
/// Data about a macro use.
MacroUseData(MacroUseData),
/// Data about a method call.
MethodCallData(MethodCallData),
/// Data for method declarations (methods with a body are treated as functions).
MethodData(MethodData),
/// Data for modules.
ModData(ModData),
/// Data for a reference to a module.
ModRefData(ModRefData),
/// Data for a struct declaration.
StructData(StructData),
/// Data for a struct variant.
StructVariantDat(StructVariantData),
/// Data for a trait declaration.
TraitData(TraitData),
/// Data for a tuple variant.
TupleVariantData(TupleVariantData),
/// Data for a typedef.
TypeDefData(TypedefData),
/// Data for a reference to a type or trait.
TypeRefData(TypeRefData),
/// Data for a use statement.
UseData(UseData),
/// Data for a global use statement.
UseGlobData(UseGlobData),
/// Data for local and global variables (consts and statics), and fields.
VariableData(VariableData),
/// Data for the use of some variable (e.g., the use of a local variable, which
/// will refere to that variables declaration).
VariableRefData(VariableRefData),
}
/// Data for the prelude of a crate.
#[derive(Debug)]
pub struct CratePreludeData {
pub crate_name: String,
pub crate_root: Option<String>,
pub external_crates: Vec<ExternalCrateData>
}
/// Data for external crates in the prelude of a crate.
#[derive(Debug)]
pub struct ExternalCrateData {
pub name: String,
pub num: CrateNum
}
/// Data for enum declarations.
#[derive(Clone, Debug)]
pub struct EnumData {
pub id: NodeId,
pub value: String,
pub qualname: String,
pub span: Span,
pub scope: NodeId,
}
/// Data for extern crates.
#[derive(Debug)]
pub struct ExternCrateData {
pub id: NodeId,
pub name: String,
pub crate_num: CrateNum,
pub location: String,
pub span: Span,
pub scope: NodeId,
}
/// Data about a function call.
#[derive(Debug)]
pub struct FunctionCallData {
pub span: Span,
pub scope: NodeId,
pub ref_id: DefId,
}
/// Data for all kinds of functions and methods.
#[derive(Clone, Debug)]
pub struct FunctionData {
pub id: NodeId,
pub name: String,
pub qualname: String,
pub declaration: Option<DefId>,
pub span: Span,
pub scope: NodeId,
}
/// Data about a function call.
#[derive(Debug)]
pub struct FunctionRefData {
pub span: Span,
pub scope: NodeId,
pub ref_id: DefId,
}
#[derive(Debug)]
pub struct ImplData {
pub id: NodeId,
pub span: Span,
pub scope: NodeId,
pub trait_ref: Option<DefId>,
pub self_ref: Option<DefId>,
}
#[derive(Debug)]
// FIXME: this struct should not exist. However, removing it requires heavy
// refactoring of dump_visitor.rs. See PR 31838 for more info.
pub struct ImplData2 {
pub id: NodeId,
pub span: Span,
pub scope: NodeId,
// FIXME: I'm not really sure inline data is the best way to do this. Seems
// OK in this case, but generalising leads to returning chunks of AST, which
// feels wrong.
pub trait_ref: Option<TypeRefData>,
pub self_ref: Option<TypeRefData>,
}
#[derive(Debug)]
pub struct InheritanceData {
pub span: Span,
pub base_id: DefId,
pub deriv_id: NodeId
}
/// Data about a macro declaration.
#[derive(Debug)]
pub struct MacroData {
pub span: Span,
pub name: String,
pub qualname: String,
}
/// Data about a macro use.
#[derive(Debug)]
pub struct MacroUseData {
pub span: Span,
pub name: String,
pub qualname: String,
// Because macro expansion happens before ref-ids are determined,
// we use the callee span to reference the associated macro definition.
pub callee_span: Span,
pub scope: NodeId,
pub imported: bool,
}
/// Data about a method call.
#[derive(Debug)]
pub struct MethodCallData {
pub span: Span,
pub scope: NodeId,
pub ref_id: Option<DefId>,
pub decl_id: Option<DefId>,
}
/// Data for method declarations (methods with a body are treated as functions).
#[derive(Clone, Debug)]
pub struct MethodData {
pub id: NodeId,
pub qualname: String,
pub span: Span,
pub scope: NodeId,
}
/// Data for modules.
#[derive(Debug)]
pub struct ModData {
pub id: NodeId,
pub name: String,
pub qualname: String,
pub span: Span,
pub scope: NodeId,
pub filename: String,
}
/// Data for a reference to a module.
#[derive(Debug)]
pub struct ModRefData {
pub span: Span,
pub scope: NodeId,
pub ref_id: Option<DefId>,
pub qualname: String
}
#[derive(Debug)]
pub struct StructData {
pub span: Span,
pub id: NodeId,
pub ctor_id: NodeId,
pub qualname: String,
pub scope: NodeId,
pub value: String
}
#[derive(Debug)]
pub struct StructVariantData {
pub span: Span,
pub id: NodeId,
pub qualname: String,
pub type_value: String,
pub value: String,
pub scope: NodeId
}
#[derive(Debug)]
pub struct TraitData {
pub span: Span,
pub id: NodeId,
pub qualname: String,
pub scope: NodeId,
pub value: String
}
#[derive(Debug)]
pub struct TupleVariantData {
pub span: Span,
pub id: NodeId,
pub name: String,
pub qualname: String,
pub type_value: String,
pub value: String,
pub scope: NodeId
}
/// Data for a typedef.
#[derive(Debug)]
pub struct TypedefData {
pub id: NodeId,
pub span: Span,
pub qualname: String,
pub value: String,
}
/// Data for a reference to a type or trait.
#[derive(Clone, Debug)]
pub struct TypeRefData {
pub span: Span,
pub scope: NodeId,
pub ref_id: Option<DefId>,
pub qualname: String,
}
#[derive(Debug)]
pub struct UseData {
pub id: NodeId,
pub span: Span,
pub name: String,
pub mod_id: Option<DefId>,
pub scope: NodeId
}
#[derive(Debug)]
pub struct UseGlobData {
pub id: NodeId,
pub span: Span,
pub names: Vec<String>,
pub scope: NodeId
}
/// Data for local and global variables (consts and statics).
#[derive(Debug)]
pub struct VariableData {
pub id: NodeId,
pub name: String,
pub qualname: String,
pub span: Span,
pub scope: NodeId,
pub value: String,
pub type_value: String,
}
/// Data for the use of some item (e.g., the use of a local variable, which
/// will refer to that variables declaration (by ref_id)).
#[derive(Debug)]
pub struct VariableRefData {
pub name: String,
pub span: Span,
pub scope: NodeId,
pub ref_id: DefId,
}
// Emitted ids are used to cross-reference items across crates. DefIds and
// NodeIds do not usually correspond in any way. The strategy is to use the
// index from the DefId as a crate-local id. However, within a crate, DefId
// indices and NodeIds can overlap. So, we must adjust the NodeIds. If an
// item can be identified by a DefId as well as a NodeId, then we use the
// DefId index as the id. If it can't, then we have to use the NodeId, but
// need to adjust it so it will not clash with any possible DefId index.
pub fn normalize_node_id<'a>(tcx: &ty::TyCtxt<'a>, id: NodeId) -> usize {
match tcx.map.opt_local_def_id(id) {
Some(id) => id.index.as_usize(),
None => id as usize + tcx.map.num_local_def_ids()
}
}
// Macro to implement a normalize() function (see below for usage)
macro_rules! impl_normalize {
($($t:ty => $($field:ident),*);*) => {
$(
impl $t {
pub fn normalize<'a>(mut self, tcx: &ty::TyCtxt<'a>) -> $t {
$(
self.$field = normalize_node_id(tcx, self.$field) as u32;
)*
self
}
}
)*
}
}
impl_normalize! {
EnumData => id, scope;
ExternCrateData => id, scope;
FunctionCallData => scope;
FunctionData => id, scope;
FunctionRefData => scope;
ImplData => id, scope;
InheritanceData => deriv_id;
MacroUseData => scope;
MethodCallData => scope;
MethodData => id, scope;
ModData => id, scope;
ModRefData => scope;
StructData => ctor_id, id, scope;
StructVariantData => id, scope;
TupleVariantData => id, scope;
TraitData => id, scope;
TypedefData => id;
TypeRefData => scope;
UseData => id, scope;
UseGlobData => id, scope;
VariableData => id;
VariableRefData => scope
}

View file

@ -0,0 +1,40 @@
// Copyright 2012-2014 The Rust Project Developers. See the COPYRIGHT
// file at the top-level directory of this distribution and at
// http://rust-lang.org/COPYRIGHT.
//
// Licensed under the Apache License, Version 2.0 <LICENSE-APACHE or
// http://www.apache.org/licenses/LICENSE-2.0> or the MIT license
// <LICENSE-MIT or http://opensource.org/licenses/MIT>, at your
// option. This file may not be copied, modified, or distributed
// except according to those terms.
use syntax::codemap::Span;
use super::data::*;
pub trait Dump {
fn crate_prelude(&mut self, _: Span, _: CratePreludeData) {}
fn enum_data(&mut self, _: Span, _: EnumData) {}
fn extern_crate(&mut self, _: Span, _: ExternCrateData) {}
fn impl_data(&mut self, _: Span, _: ImplData) {}
fn inheritance(&mut self, _: InheritanceData) {}
fn function(&mut self, _: Span, _: FunctionData) {}
fn function_ref(&mut self, _: Span, _: FunctionRefData) {}
fn function_call(&mut self, _: Span, _: FunctionCallData) {}
fn method(&mut self, _: Span, _: MethodData) {}
fn method_call(&mut self, _: Span, _: MethodCallData) {}
fn macro_data(&mut self, _: Span, _: MacroData) {}
fn macro_use(&mut self, _: Span, _: MacroUseData) {}
fn mod_data(&mut self, _: ModData) {}
fn mod_ref(&mut self, _: Span, _: ModRefData) {}
fn struct_data(&mut self, _: Span, _: StructData) {}
fn struct_variant(&mut self, _: Span, _: StructVariantData) {}
fn trait_data(&mut self, _: Span, _: TraitData) {}
fn tuple_variant(&mut self, _: Span, _: TupleVariantData) {}
fn type_ref(&mut self, _: Span, _: TypeRefData) {}
fn typedef(&mut self, _: Span, _: TypedefData) {}
fn use_data(&mut self, _: Span, _: UseData) {}
fn use_glob(&mut self, _: Span, _: UseGlobData) {}
fn variable(&mut self, _: Span, _: VariableData) {}
fn variable_ref(&mut self, _: Span, _: VariableRefData) {}
}

View file

@ -28,13 +28,32 @@ use syntax::parse::token::{self, keywords};
use syntax::visit::{self, Visitor};
use syntax::print::pprust::ty_to_string;
use self::span_utils::SpanUtils;
mod csv_dumper;
#[macro_use]
mod data;
mod dump;
mod dump_visitor;
#[macro_use]
pub mod span_utils;
pub mod recorder;
mod dump_csv;
pub use self::csv_dumper::CsvDumper;
pub use self::data::*;
pub use self::dump::Dump;
pub use self::dump_visitor::DumpVisitor;
use self::span_utils::SpanUtils;
// FIXME this is legacy code and should be removed
pub mod recorder {
pub use self::Row::*;
#[derive(Copy, Clone, Debug, Eq, PartialEq)]
pub enum Row {
TypeRef,
ModRef,
VarRef,
FnRef,
}
}
pub struct SaveContext<'l, 'tcx: 'l> {
tcx: &'l TyCtxt<'tcx>,
@ -42,158 +61,10 @@ pub struct SaveContext<'l, 'tcx: 'l> {
span_utils: SpanUtils<'l>,
}
pub struct CrateData {
pub name: String,
pub number: u32,
}
/// Data for any entity in the Rust language. The actual data contained varied
/// with the kind of entity being queried. See the nested structs for details.
#[derive(Debug)]
pub enum Data {
/// Data for all kinds of functions and methods.
FunctionData(FunctionData),
/// Data for local and global variables (consts and statics), and fields.
VariableData(VariableData),
/// Data for modules.
ModData(ModData),
/// Data for Enums.
EnumData(EnumData),
/// Data for impls.
ImplData(ImplData),
/// Data for the use of some variable (e.g., the use of a local variable, which
/// will refere to that variables declaration).
VariableRefData(VariableRefData),
/// Data for a reference to a type or trait.
TypeRefData(TypeRefData),
/// Data for a reference to a module.
ModRefData(ModRefData),
/// Data about a function call.
FunctionCallData(FunctionCallData),
/// Data about a method call.
MethodCallData(MethodCallData),
/// Data about a macro use.
MacroUseData(MacroUseData),
}
/// Data for all kinds of functions and methods.
#[derive(Debug)]
pub struct FunctionData {
pub id: NodeId,
pub name: String,
pub qualname: String,
pub declaration: Option<DefId>,
pub span: Span,
pub scope: NodeId,
}
/// Data for local and global variables (consts and statics).
#[derive(Debug)]
pub struct VariableData {
pub id: NodeId,
pub name: String,
pub qualname: String,
pub span: Span,
pub scope: NodeId,
pub value: String,
pub type_value: String,
}
/// Data for modules.
#[derive(Debug)]
pub struct ModData {
pub id: NodeId,
pub name: String,
pub qualname: String,
pub span: Span,
pub scope: NodeId,
pub filename: String,
}
/// Data for enum declarations.
#[derive(Debug)]
pub struct EnumData {
pub id: NodeId,
pub value: String,
pub qualname: String,
pub span: Span,
pub scope: NodeId,
}
#[derive(Debug)]
pub struct ImplData {
pub id: NodeId,
pub span: Span,
pub scope: NodeId,
// FIXME: I'm not really sure inline data is the best way to do this. Seems
// OK in this case, but generalising leads to returning chunks of AST, which
// feels wrong.
pub trait_ref: Option<TypeRefData>,
pub self_ref: Option<TypeRefData>,
}
/// Data for the use of some item (e.g., the use of a local variable, which
/// will refer to that variables declaration (by ref_id)).
#[derive(Debug)]
pub struct VariableRefData {
pub name: String,
pub span: Span,
pub scope: NodeId,
pub ref_id: DefId,
}
/// Data for a reference to a type or trait.
#[derive(Debug)]
pub struct TypeRefData {
pub span: Span,
pub scope: NodeId,
pub ref_id: DefId,
}
/// Data for a reference to a module.
#[derive(Debug)]
pub struct ModRefData {
pub span: Span,
pub scope: NodeId,
pub ref_id: DefId,
}
/// Data about a function call.
#[derive(Debug)]
pub struct FunctionCallData {
pub span: Span,
pub scope: NodeId,
pub ref_id: DefId,
}
/// Data about a method call.
#[derive(Debug)]
pub struct MethodCallData {
pub span: Span,
pub scope: NodeId,
pub ref_id: Option<DefId>,
pub decl_id: Option<DefId>,
}
/// Data about a macro use.
#[derive(Debug)]
pub struct MacroUseData {
pub span: Span,
pub name: String,
// Because macro expansion happens before ref-ids are determined,
// we use the callee span to reference the associated macro definition.
pub callee_span: Span,
pub scope: NodeId,
pub imported: bool,
}
macro_rules! option_try(
($e:expr) => (match $e { Some(e) => e, None => return None })
);
impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
pub fn new(tcx: &'l TyCtxt<'tcx>,
lcx: &'l lowering::LoweringContext<'l>)
@ -325,7 +196,8 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
TypeRefData {
span: sub_span.unwrap(),
scope: parent,
ref_id: id,
ref_id: Some(id),
qualname: String::new() // FIXME: generate the real qualname
}
});
}
@ -340,7 +212,7 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
.and_then(|tr| self.get_trait_ref_data(tr, parent));
filter!(self.span_utils, sub_span, typ.span, None);
Some(Data::ImplData(ImplData {
Some(Data::ImplData(ImplData2 {
id: item.id,
span: sub_span.unwrap(),
scope: parent,
@ -477,7 +349,8 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
Some(TypeRefData {
span: sub_span.unwrap(),
scope: parent,
ref_id: def_id,
ref_id: Some(def_id),
qualname: String::new() // FIXME: generate the real qualname
})
})
}
@ -518,7 +391,8 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
Some(Data::TypeRefData(TypeRefData {
span: sub_span.unwrap(),
scope: self.enclosing_scope(expr.id),
ref_id: def.did,
ref_id: Some(def.did),
qualname: String::new() // FIXME: generate the real qualname
}))
}
_ => {
@ -586,8 +460,9 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
Def::TyParam(_, _, def_id, _) => {
Some(Data::TypeRefData(TypeRefData {
span: sub_span.unwrap(),
ref_id: def_id,
ref_id: Some(def_id),
scope: self.enclosing_scope(id),
qualname: String::new() // FIXME: generate the real qualname
}))
}
Def::Method(decl_id) => {
@ -635,9 +510,10 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
}
Def::Mod(def_id) => {
Some(Data::ModRefData(ModRefData {
ref_id: def_id,
ref_id: Some(def_id),
span: sub_span.unwrap(),
scope: self.enclosing_scope(id),
qualname: String::new() // FIXME: generate the real qualname
}))
}
_ => None,
@ -708,6 +584,7 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
callee_span: mac_span,
scope: self.enclosing_scope(id),
imported: true,
qualname: String::new()// FIXME: generate the real qualname
});
}
@ -717,6 +594,7 @@ impl<'l, 'tcx: 'l> SaveContext<'l, 'tcx> {
callee_span: callee_span,
scope: self.enclosing_scope(id),
imported: false,
qualname: String::new() // FIXME: generate the real qualname
})
}
@ -833,16 +711,16 @@ pub fn process_crate<'l, 'tcx>(tcx: &'l TyCtxt<'tcx>,
out_name.push_str(&tcx.sess.opts.cg.extra_filename);
out_name.push_str(".csv");
root_path.push(&out_name);
let output_file = match File::create(&root_path) {
Ok(f) => box f,
Err(e) => {
let disp = root_path.display();
tcx.sess.fatal(&format!("Could not open {}: {}", disp, e));
}
};
let mut output_file = File::create(&root_path).unwrap_or_else(|e| {
let disp = root_path.display();
tcx.sess.fatal(&format!("Could not open {}: {}", disp, e));
});
root_path.pop();
let mut visitor = dump_csv::DumpCsvVisitor::new(tcx, lcx, analysis, output_file);
let utils = SpanUtils::new(&tcx.sess);
let mut dumper = CsvDumper::new(&mut output_file, utils);
let mut visitor = DumpVisitor::new(tcx, lcx, analysis, &mut dumper);
// FIXME: we don't write anything!
visitor.dump_crate_info(cratename, krate);
visit::walk_crate(&mut visitor, krate);

View file

@ -1,714 +0,0 @@
// Copyright 2012-2014 The Rust Project Developers. See the COPYRIGHT
// file at the top-level directory of this distribution and at
// http://rust-lang.org/COPYRIGHT.
//
// Licensed under the Apache License, Version 2.0 <LICENSE-APACHE or
// http://www.apache.org/licenses/LICENSE-2.0> or the MIT license
// <LICENSE-MIT or http://opensource.org/licenses/MIT>, at your
// option. This file may not be copied, modified, or distributed
// except according to those terms.
pub use self::Row::*;
use super::escape;
use super::span_utils::SpanUtils;
use middle::cstore::LOCAL_CRATE;
use middle::def_id::{CRATE_DEF_INDEX, DefId};
use middle::ty::TyCtxt;
use std::io::Write;
use syntax::ast;
use syntax::ast::NodeId;
use syntax::codemap::*;
const CRATE_ROOT_DEF_ID: DefId = DefId {
krate: LOCAL_CRATE,
index: CRATE_DEF_INDEX,
};
pub struct Recorder {
// output file
pub out: Box<Write + 'static>,
pub dump_spans: bool,
}
impl Recorder {
pub fn record(&mut self, info: &str) {
match write!(self.out, "{}", info) {
Err(_) => error!("Error writing output '{}'", info),
_ => (),
}
}
pub fn dump_span(&mut self, su: SpanUtils, kind: &str, span: Span, _sub_span: Option<Span>) {
assert!(self.dump_spans);
let result = format!("span,kind,{},{},text,\"{}\"\n",
kind,
su.extent_str(span),
escape(su.snippet(span)));
self.record(&result[..]);
}
}
pub struct FmtStrs<'a, 'tcx: 'a> {
pub recorder: Box<Recorder>,
span: SpanUtils<'a>,
tcx: &'a TyCtxt<'tcx>,
}
macro_rules! s { ($e:expr) => { format!("{}", $e) }}
macro_rules! svec {
($($e:expr),*) => ({
// leading _ to allow empty construction without a warning.
let mut _temp = ::std::vec::Vec::new();
$(_temp.push(s!($e));)*
_temp
})
}
// FIXME recorder should operate on super::Data, rather than lots of ad hoc
// data.
#[derive(Copy, Clone, Debug, Eq, PartialEq)]
pub enum Row {
Variable,
Enum,
Variant,
VariantStruct,
Function,
MethodDecl,
Struct,
Trait,
Impl,
Module,
UseAlias,
UseGlob,
ExternCrate,
Inheritance,
MethodCall,
Typedef,
ExternalCrate,
Crate,
FnCall,
ModRef,
VarRef,
TypeRef,
FnRef,
Macro,
MacroUse,
}
impl<'a, 'tcx: 'a> FmtStrs<'a, 'tcx> {
pub fn new(rec: Box<Recorder>,
span: SpanUtils<'a>,
tcx: &'a TyCtxt<'tcx>)
-> FmtStrs<'a, 'tcx> {
FmtStrs {
recorder: rec,
span: span,
tcx: tcx,
}
}
// Emitted ids are used to cross-reference items across crates. DefIds and
// NodeIds do not usually correspond in any way. The strategy is to use the
// index from the DefId as a crate-local id. However, within a crate, DefId
// indices and NodeIds can overlap. So, we must adjust the NodeIds. If an
// item can be identified by a DefId as well as a NodeId, then we use the
// DefId index as the id. If it can't, then we have to use the NodeId, but
// need to adjust it so it will not clash with any possible DefId index.
fn normalize_node_id(&self, id: NodeId) -> usize {
match self.tcx.map.opt_local_def_id(id) {
Some(id) => id.index.as_usize(),
None => id as usize + self.tcx.map.num_local_def_ids()
}
}
// A map from kind of item to a tuple of
// a string representation of the name
// a vector of field names
// whether this kind requires a span
// whether dump_spans should dump for this kind
fn lookup_row(r: Row) -> (&'static str, Vec<&'static str>, bool, bool) {
match r {
Variable => ("variable",
vec!("id", "name", "qualname", "value", "type", "scopeid"),
true,
true),
Enum => ("enum",
vec!("id", "qualname", "scopeid", "value"),
true,
true),
Variant => ("variant",
vec!("id", "name", "qualname", "type", "value", "scopeid"),
true,
true),
VariantStruct => ("variant_struct",
vec!("id", "ctor_id", "qualname", "type", "value", "scopeid"),
true,
true),
Function => ("function",
vec!("id", "qualname", "declid", "declidcrate", "scopeid"),
true,
true),
MethodDecl => ("method_decl",
vec!("id", "qualname", "scopeid"),
true,
true),
Struct => ("struct",
vec!("id", "ctor_id", "qualname", "scopeid", "value"),
true,
true),
Trait => ("trait",
vec!("id", "qualname", "scopeid", "value"),
true,
true),
Impl => ("impl",
vec!("id",
"refid",
"refidcrate",
"traitid",
"traitidcrate",
"scopeid"),
true,
true),
Module => ("module",
vec!("id", "qualname", "scopeid", "def_file"),
true,
false),
UseAlias => ("use_alias",
vec!("id", "refid", "refidcrate", "name", "scopeid"),
true,
true),
UseGlob => ("use_glob", vec!("id", "value", "scopeid"), true, true),
ExternCrate => ("extern_crate",
vec!("id", "name", "location", "crate", "scopeid"),
true,
true),
Inheritance => ("inheritance",
vec!("base", "basecrate", "derived", "derivedcrate"),
true,
false),
MethodCall => ("method_call",
vec!("refid", "refidcrate", "declid", "declidcrate", "scopeid"),
true,
true),
Typedef => ("typedef", vec!("id", "qualname", "value"), true, true),
ExternalCrate => ("external_crate",
vec!("name", "crate", "file_name"),
false,
false),
Crate => ("crate", vec!("name", "crate_root"), true, false),
FnCall => ("fn_call",
vec!("refid", "refidcrate", "qualname", "scopeid"),
true,
true),
ModRef => ("mod_ref",
vec!("refid", "refidcrate", "qualname", "scopeid"),
true,
true),
VarRef => ("var_ref",
vec!("refid", "refidcrate", "qualname", "scopeid"),
true,
true),
TypeRef => ("type_ref",
vec!("refid", "refidcrate", "qualname", "scopeid"),
true,
true),
FnRef => ("fn_ref",
vec!("refid", "refidcrate", "qualname", "scopeid"),
true,
true),
Macro => ("macro",
vec!("name", "qualname"),
true,
true),
MacroUse => ("macro_use",
vec!("callee_name", "qualname", "scopeid"),
true,
true),
}
}
pub fn make_values_str(&self,
kind: &'static str,
fields: &Vec<&'static str>,
values: Vec<String>,
span: Span)
-> Option<String> {
if values.len() != fields.len() {
self.span.sess.span_bug(span,
&format!("Mismatch between length of fields for '{}', \
expected '{}', found '{}'",
kind,
fields.len(),
values.len()));
}
let values = values.iter().map(|s| {
// Never take more than 1020 chars
if s.len() > 1020 {
&s[..1020]
} else {
&s[..]
}
});
let pairs = fields.iter().zip(values);
let strs = pairs.map(|(f, v)| format!(",{},\"{}\"", f, escape(String::from(v))));
Some(strs.fold(String::new(),
|mut s, ss| {
s.push_str(&ss[..]);
s
}))
}
pub fn record_without_span(&mut self, kind: Row, values: Vec<String>, span: Span) {
let (label, ref fields, needs_span, dump_spans) = FmtStrs::lookup_row(kind);
if needs_span {
self.span.sess.span_bug(span,
&format!("Called record_without_span for '{}' which does \
requires a span",
label));
}
assert!(!dump_spans);
if self.recorder.dump_spans {
return;
}
let values_str = match self.make_values_str(label, fields, values, span) {
Some(vs) => vs,
None => return,
};
let mut result = String::from(label);
result.push_str(&values_str[..]);
result.push_str("\n");
self.recorder.record(&result[..]);
}
pub fn record_with_span(&mut self,
kind: Row,
span: Span,
sub_span: Span,
values: Vec<String>) {
let (label, ref fields, needs_span, dump_spans) = FmtStrs::lookup_row(kind);
if self.recorder.dump_spans {
if dump_spans {
self.recorder.dump_span(self.span.clone(), label, span, Some(sub_span));
}
return;
}
if !needs_span {
self.span.sess.span_bug(span,
&format!("Called record_with_span for '{}' which does not \
require a span",
label));
}
let values_str = match self.make_values_str(label, fields, values, span) {
Some(vs) => vs,
None => return,
};
let result = format!("{},{}{}\n",
label,
self.span.extent_str(sub_span),
values_str);
self.recorder.record(&result[..]);
}
pub fn check_and_record(&mut self,
kind: Row,
span: Span,
sub_span: Option<Span>,
values: Vec<String>) {
filter!(self.span, sub_span, span);
match sub_span {
Some(sub_span) => self.record_with_span(kind, span, sub_span, values),
None => {
let (label, _, _, _) = FmtStrs::lookup_row(kind);
self.span.report_span_err(label, span);
}
}
}
pub fn variable_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
value: &str,
typ: &str) {
// Getting a fully qualified name for a variable is hard because in
// the local case they can be overridden in one block and there is no nice way
// to refer to such a scope in english, so we just hack it by appending the
// variable def's node id
let mut qualname = String::from(name);
qualname.push_str("$");
qualname.push_str(&id.to_string());
let id = self.normalize_node_id(id);
self.check_and_record(Variable,
span,
sub_span,
svec!(id, name, qualname, value, typ, 0));
}
// formal parameters
pub fn formal_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
fn_name: &str,
name: &str,
typ: &str) {
let mut qualname = String::from(fn_name);
qualname.push_str("::");
qualname.push_str(name);
let id = self.normalize_node_id(id);
self.check_and_record(Variable,
span,
sub_span,
svec!(id, name, qualname, "", typ, 0));
}
// value is the initialising expression of the static if it is not mut, otherwise "".
pub fn static_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
qualname: &str,
value: &str,
typ: &str,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(Variable,
span,
sub_span,
svec!(id, name, qualname, value, typ, scope_id));
}
pub fn field_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
qualname: &str,
typ: &str,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(Variable,
span,
sub_span,
svec!(id, name, qualname, "", typ, scope_id));
}
pub fn enum_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
scope_id: NodeId,
value: &str) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(Enum, span, sub_span, svec!(id, name, scope_id, value));
}
pub fn tuple_variant_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
qualname: &str,
typ: &str,
val: &str,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(Variant,
span,
sub_span,
svec!(id, name, qualname, typ, val, scope_id));
}
pub fn struct_variant_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
typ: &str,
val: &str,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let ctor_id = id;
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(VariantStruct,
span,
sub_span,
svec!(id, ctor_id, name, typ, val, scope_id));
}
pub fn fn_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(Function,
span,
sub_span,
svec!(id, name, "", "", scope_id));
}
pub fn method_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
decl_id: Option<DefId>,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
let values = match decl_id {
Some(decl_id) => svec!(id,
name,
decl_id.index.as_usize(),
decl_id.krate,
scope_id),
None => svec!(id, name, "", "", scope_id),
};
self.check_and_record(Function, span, sub_span, values);
}
pub fn method_decl_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(MethodDecl, span, sub_span, svec!(id, name, scope_id));
}
pub fn struct_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
ctor_id: NodeId,
name: &str,
scope_id: NodeId,
value: &str) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
let ctor_id = self.normalize_node_id(ctor_id);
self.check_and_record(Struct,
span,
sub_span,
svec!(id, ctor_id, name, scope_id, value));
}
pub fn trait_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
scope_id: NodeId,
value: &str) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(Trait, span, sub_span, svec!(id, name, scope_id, value));
}
pub fn impl_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
ref_id: Option<DefId>,
trait_id: Option<DefId>,
scope_id: NodeId) {
let id = self.normalize_node_id(id);
let scope_id = self.normalize_node_id(scope_id);
let ref_id = ref_id.unwrap_or(CRATE_ROOT_DEF_ID);
let trait_id = trait_id.unwrap_or(CRATE_ROOT_DEF_ID);
self.check_and_record(Impl,
span,
sub_span,
svec!(id,
ref_id.index.as_usize(),
ref_id.krate,
trait_id.index.as_usize(),
trait_id.krate,
scope_id));
}
pub fn mod_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
name: &str,
parent: NodeId,
filename: &str) {
let id = self.normalize_node_id(id);
let parent = self.normalize_node_id(parent);
self.check_and_record(Module,
span,
sub_span,
svec!(id, name, parent, filename));
}
pub fn use_alias_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
mod_id: Option<DefId>,
name: &str,
parent: NodeId) {
let id = self.normalize_node_id(id);
let parent = self.normalize_node_id(parent);
let mod_id = mod_id.unwrap_or(CRATE_ROOT_DEF_ID);
self.check_and_record(UseAlias,
span,
sub_span,
svec!(id, mod_id.index.as_usize(), mod_id.krate, name, parent));
}
pub fn use_glob_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
values: &str,
parent: NodeId) {
let id = self.normalize_node_id(id);
let parent = self.normalize_node_id(parent);
self.check_and_record(UseGlob, span, sub_span, svec!(id, values, parent));
}
pub fn extern_crate_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
cnum: ast::CrateNum,
name: &str,
loc: &str,
parent: NodeId) {
let id = self.normalize_node_id(id);
let parent = self.normalize_node_id(parent);
self.check_and_record(ExternCrate,
span,
sub_span,
svec!(id, name, loc, cnum, parent));
}
pub fn inherit_str(&mut self,
span: Span,
sub_span: Option<Span>,
base_id: DefId,
deriv_id: NodeId) {
let deriv_id = self.normalize_node_id(deriv_id);
self.check_and_record(Inheritance,
span,
sub_span,
svec!(base_id.index.as_usize(), base_id.krate, deriv_id, 0));
}
pub fn fn_call_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: DefId,
scope_id: NodeId) {
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(FnCall,
span,
sub_span,
svec!(id.index.as_usize(), id.krate, "", scope_id));
}
pub fn meth_call_str(&mut self,
span: Span,
sub_span: Option<Span>,
defid: Option<DefId>,
declid: Option<DefId>,
scope_id: NodeId) {
let scope_id = self.normalize_node_id(scope_id);
let defid = defid.unwrap_or(CRATE_ROOT_DEF_ID);
let (dcn, dck) = match declid {
Some(declid) => (s!(declid.index.as_usize()), s!(declid.krate)),
None => ("".to_string(), "".to_string()),
};
self.check_and_record(MethodCall,
span,
sub_span,
svec!(defid.index.as_usize(), defid.krate, dcn, dck, scope_id));
}
pub fn sub_mod_ref_str(&mut self, span: Span, sub_span: Span, qualname: &str, parent: NodeId) {
let parent = self.normalize_node_id(parent);
self.record_with_span(ModRef, span, sub_span, svec!(0, 0, qualname, parent));
}
pub fn typedef_str(&mut self,
span: Span,
sub_span: Option<Span>,
id: NodeId,
qualname: &str,
value: &str) {
let id = self.normalize_node_id(id);
self.check_and_record(Typedef, span, sub_span, svec!(id, qualname, value));
}
pub fn crate_str(&mut self, span: Span, name: &str, crate_root: &str) {
self.record_with_span(Crate, span, span, svec!(name, crate_root));
}
pub fn external_crate_str(&mut self, span: Span, name: &str, num: ast::CrateNum) {
let lo_loc = self.span.sess.codemap().lookup_char_pos(span.lo);
self.record_without_span(ExternalCrate,
svec!(name, num, SpanUtils::make_path_string(&lo_loc.file.name)),
span);
}
pub fn sub_type_ref_str(&mut self, span: Span, sub_span: Span, qualname: &str) {
self.record_with_span(TypeRef, span, sub_span, svec!(0, 0, qualname, 0));
}
// A slightly generic function for a reference to an item of any kind.
pub fn ref_str(&mut self,
kind: Row,
span: Span,
sub_span: Option<Span>,
id: DefId,
scope_id: NodeId) {
let scope_id = self.normalize_node_id(scope_id);
self.check_and_record(kind,
span,
sub_span,
svec!(id.index.as_usize(), id.krate, "", scope_id));
}
pub fn macro_str(&mut self, span: Span, sub_span: Span, name: String, qualname: String) {
self.record_with_span(Macro, span, sub_span, svec!(name, qualname));
}
pub fn macro_use_str(&mut self,
span: Span,
sub_span: Span,
name: String,
qualname: String,
scope_id: NodeId) {
let scope_id = self.normalize_node_id(scope_id);
self.record_with_span(MacroUse, span, sub_span,
svec!(name, qualname, scope_id));
}
}