use back::link;
use back::linker::LinkerInfo;
use back::symbol_export::{self, ExportedSymbols};
-use llvm::{Linkage, ValueRef, Vector, get_param};
+use llvm::{ContextRef, Linkage, ModuleRef, ValueRef, Vector, get_param};
use llvm;
use rustc::hir::def_id::LOCAL_CRATE;
use middle::lang_items::StartFnLangItem;
use middle::cstore::EncodedMetadata;
use rustc::ty::{self, Ty, TyCtxt};
-use rustc::dep_graph::{AssertDepGraphSafe, DepNode, WorkProduct};
+use rustc::dep_graph::AssertDepGraphSafe;
+use rustc::middle::cstore::LinkMeta;
use rustc::hir::map as hir_map;
use rustc::util::common::time;
use session::config::{self, NoDebugInfo};
use common::{type_is_zero_size, val_ty};
use common;
use consts;
-use context::{SharedCrateContext, CrateContextList};
+use context::{self, LocalCrateContext, SharedCrateContext, Stats};
use debuginfo;
use declare;
use machine;
use mir;
use monomorphize::{self, Instance};
use partitioning::{self, PartitioningStrategy, CodegenUnit};
-use symbol_map::SymbolMap;
use symbol_names_test;
use trans_item::{TransItem, DefPathBasedNames};
use type_::Type;
use libc::c_uint;
use std::ffi::{CStr, CString};
-use std::rc::Rc;
use std::str;
use std::i32;
use syntax_pos::Span;
s.bytes().any(|b| b == 0)
}
-fn write_metadata(cx: &SharedCrateContext,
- exported_symbols: &NodeSet)
- -> EncodedMetadata {
+fn write_metadata<'a, 'gcx>(tcx: TyCtxt<'a, 'gcx, 'gcx>,
+ link_meta: &LinkMeta,
+ exported_symbols: &NodeSet)
+ -> (ContextRef, ModuleRef, EncodedMetadata) {
use flate;
+ let (metadata_llcx, metadata_llmod) = unsafe {
+ context::create_context_and_module(tcx.sess, "metadata")
+ };
+
#[derive(PartialEq, Eq, PartialOrd, Ord)]
enum MetadataKind {
None,
Compressed
}
- let kind = cx.sess().crate_types.borrow().iter().map(|ty| {
+ let kind = tcx.sess.crate_types.borrow().iter().map(|ty| {
match *ty {
config::CrateTypeExecutable |
config::CrateTypeStaticlib |
}).max().unwrap();
if kind == MetadataKind::None {
- return EncodedMetadata {
+ return (metadata_llcx, metadata_llmod, EncodedMetadata {
raw_data: vec![],
hashes: vec![],
- };
+ });
}
- let cstore = &cx.tcx().sess.cstore;
- let metadata = cstore.encode_metadata(cx.tcx(),
- cx.link_meta(),
+ let cstore = &tcx.sess.cstore;
+ let metadata = cstore.encode_metadata(tcx,
+ &link_meta,
exported_symbols);
if kind == MetadataKind::Uncompressed {
- return metadata;
+ return (metadata_llcx, metadata_llmod, metadata);
}
assert!(kind == MetadataKind::Compressed);
let mut compressed = cstore.metadata_encoding_version().to_vec();
compressed.extend_from_slice(&flate::deflate_bytes(&metadata.raw_data));
- let llmeta = C_bytes_in_context(cx.metadata_llcx(), &compressed);
- let llconst = C_struct_in_context(cx.metadata_llcx(), &[llmeta], false);
- let name = cx.metadata_symbol_name();
+ let llmeta = C_bytes_in_context(metadata_llcx, &compressed);
+ let llconst = C_struct_in_context(metadata_llcx, &[llmeta], false);
+ let name = symbol_export::metadata_symbol_name(tcx);
let buf = CString::new(name).unwrap();
let llglobal = unsafe {
- llvm::LLVMAddGlobal(cx.metadata_llmod(), val_ty(llconst).to_ref(), buf.as_ptr())
+ llvm::LLVMAddGlobal(metadata_llmod, val_ty(llconst).to_ref(), buf.as_ptr())
};
unsafe {
llvm::LLVMSetInitializer(llglobal, llconst);
let section_name =
- cx.tcx().sess.cstore.metadata_section_name(&cx.sess().target.target);
+ tcx.sess.cstore.metadata_section_name(&tcx.sess.target.target);
let name = CString::new(section_name).unwrap();
llvm::LLVMSetSection(llglobal, name.as_ptr());
// metadata doesn't get loaded into memory.
let directive = format!(".section {}", section_name);
let directive = CString::new(directive).unwrap();
- llvm::LLVMSetModuleInlineAsm(cx.metadata_llmod(), directive.as_ptr())
+ llvm::LLVMSetModuleInlineAsm(metadata_llmod, directive.as_ptr())
}
- return metadata;
+ return (metadata_llcx, metadata_llmod, metadata);
}
/// Find any symbols that are defined in one compilation unit, but not declared
/// in any other compilation unit. Give these symbols internal linkage.
fn internalize_symbols<'a, 'tcx>(sess: &Session,
- ccxs: &CrateContextList<'a, 'tcx>,
- symbol_map: &SymbolMap<'tcx>,
+ scx: &SharedCrateContext<'a, 'tcx>,
+ translation_items: &FxHashSet<TransItem<'tcx>>,
+ llvm_modules: &[ModuleLlvm],
exported_symbols: &ExportedSymbols) {
let export_threshold =
symbol_export::crates_export_threshold(&sess.crate_types.borrow());
.map(|&(ref name, _)| &name[..])
.collect::<FxHashSet<&str>>();
- let scx = ccxs.shared();
let tcx = scx.tcx();
let incr_comp = sess.opts.debugging_opts.incremental.is_some();
// incremental compilation, we don't need to collect. See below for more
// information.
if !incr_comp {
- for ccx in ccxs.iter_need_trans() {
- for val in iter_globals(ccx.llmod()).chain(iter_functions(ccx.llmod())) {
+ for ll in llvm_modules {
+ for val in iter_globals(ll.llmod).chain(iter_functions(ll.llmod)) {
let linkage = llvm::LLVMRustGetLinkage(val);
// We only care about external declarations (not definitions)
// and available_externally definitions.
let mut locally_defined_symbols = FxHashSet();
let mut linkage_fixed_explicitly = FxHashSet();
- for trans_item in scx.translation_items().borrow().iter() {
- let symbol_name = symbol_map.get_or_compute(scx, *trans_item);
+ for trans_item in translation_items {
+ let symbol_name = str::to_owned(&trans_item.symbol_name(tcx));
if trans_item.explicit_linkage(tcx).is_some() {
linkage_fixed_explicitly.insert(symbol_name.clone());
}
// Examine each external definition. If the definition is not used in
// any other compilation unit, and is not reachable from other crates,
// then give it internal linkage.
- for ccx in ccxs.iter_need_trans() {
- for val in iter_globals(ccx.llmod()).chain(iter_functions(ccx.llmod())) {
+ for ll in llvm_modules {
+ for val in iter_globals(ll.llmod).chain(iter_functions(ll.llmod)) {
let linkage = llvm::LLVMRustGetLinkage(val);
let is_externally_visible = (linkage == llvm::Linkage::ExternalLinkage) ||
// when using MSVC linker. We do this only for data, as linker can fix up
// code references on its own.
// See #26591, #27438
-fn create_imps(cx: &CrateContextList) {
+fn create_imps(sess: &Session,
+ llvm_modules: &[ModuleLlvm]) {
// The x86 ABI seems to require that leading underscores are added to symbol
// names, so we need an extra underscore on 32-bit. There's also a leading
// '\x01' here which disables LLVM's symbol mangling (e.g. no extra
// underscores added in front).
- let prefix = if cx.shared().sess().target.target.target_pointer_width == "32" {
+ let prefix = if sess.target.target.target_pointer_width == "32" {
"\x01__imp__"
} else {
"\x01__imp_"
};
unsafe {
- for ccx in cx.iter_need_trans() {
- let exported: Vec<_> = iter_globals(ccx.llmod())
+ for ll in llvm_modules {
+ let exported: Vec<_> = iter_globals(ll.llmod)
.filter(|&val| {
llvm::LLVMRustGetLinkage(val) ==
llvm::Linkage::ExternalLinkage &&
})
.collect();
- let i8p_ty = Type::i8p(&ccx);
+ let i8p_ty = Type::i8p_llcx(ll.llcx);
for val in exported {
let name = CStr::from_ptr(llvm::LLVMGetValueName(val));
let mut imp_name = prefix.as_bytes().to_vec();
imp_name.extend(name.to_bytes());
let imp_name = CString::new(imp_name).unwrap();
- let imp = llvm::LLVMAddGlobal(ccx.llmod(),
+ let imp = llvm::LLVMAddGlobal(ll.llmod,
i8p_ty.to_ref(),
imp_name.as_ptr() as *const _);
let init = llvm::LLVMConstBitCast(val, i8p_ty.to_ref());
///
/// This list is later used by linkers to determine the set of symbols needed to
/// be exposed from a dynamic library and it's also encoded into the metadata.
-pub fn find_exported_symbols(tcx: TyCtxt, reachable: NodeSet) -> NodeSet {
- reachable.into_iter().filter(|&id| {
+pub fn find_exported_symbols(tcx: TyCtxt, reachable: &NodeSet) -> NodeSet {
+ reachable.iter().cloned().filter(|&id| {
// Next, we want to ignore some FFI functions that are not exposed from
// this crate. Reachable FFI functions can be lumped into two
// categories:
hir_map::NodeImplItem(&hir::ImplItem {
node: hir::ImplItemKind::Method(..), .. }) => {
let def_id = tcx.hir.local_def_id(id);
- let generics = tcx.item_generics(def_id);
+ let generics = tcx.generics_of(def_id);
let attributes = tcx.get_attrs(def_id);
(generics.parent_types == 0 && generics.types.is_empty()) &&
// Functions marked with #[inline] are only ever translated
analysis: ty::CrateAnalysis,
incremental_hashes_map: &IncrementalHashesMap)
-> CrateTranslation {
- let _task = tcx.dep_graph.in_task(DepNode::TransCrate);
-
// Be careful with this krate: obviously it gives access to the
// entire contents of the krate. So if you push any subtasks of
// `TransCrate`, you need to be careful to register "reads" of the
// particular items that will be processed.
let krate = tcx.hir.krate();
- let ty::CrateAnalysis { reachable, name, .. } = analysis;
- let exported_symbols = find_exported_symbols(tcx, reachable);
+ let ty::CrateAnalysis { reachable, .. } = analysis;
+ let exported_symbols = find_exported_symbols(tcx, &reachable);
let check_overflow = tcx.sess.overflow_checks();
- let link_meta = link::build_link_meta(incremental_hashes_map, &name);
+ let link_meta = link::build_link_meta(incremental_hashes_map);
let shared_ccx = SharedCrateContext::new(tcx,
- link_meta.clone(),
exported_symbols,
check_overflow);
// Translate the metadata.
- let metadata = time(tcx.sess.time_passes(), "write metadata", || {
- write_metadata(&shared_ccx, shared_ccx.exported_symbols())
- });
+ let (metadata_llcx, metadata_llmod, metadata) =
+ time(tcx.sess.time_passes(), "write metadata", || {
+ write_metadata(tcx, &link_meta, shared_ccx.exported_symbols())
+ });
let metadata_module = ModuleTranslation {
name: link::METADATA_MODULE_NAME.to_string(),
symbol_name_hash: 0, // we always rebuild metadata, at least for now
source: ModuleSource::Translated(ModuleLlvm {
- llcx: shared_ccx.metadata_llcx(),
- llmod: shared_ccx.metadata_llmod(),
+ llcx: metadata_llcx,
+ llmod: metadata_llmod,
}),
};
let no_builtins = attr::contains_name(&krate.attrs, "no_builtins");
let empty_exported_symbols = ExportedSymbols::empty();
let linker_info = LinkerInfo::new(&shared_ccx, &empty_exported_symbols);
return CrateTranslation {
+ crate_name: tcx.crate_name(LOCAL_CRATE),
modules: vec![],
metadata_module: metadata_module,
link: link_meta,
// Run the translation item collector and partition the collected items into
// codegen units.
- let (codegen_units, symbol_map) = collect_and_partition_translation_items(&shared_ccx);
-
- let symbol_map = Rc::new(symbol_map);
-
- let previous_work_products = trans_reuse_previous_work_products(&shared_ccx,
- &codegen_units,
- &symbol_map);
-
- let crate_context_list = CrateContextList::new(&shared_ccx,
- codegen_units,
- previous_work_products,
- symbol_map.clone());
- let modules: Vec<_> = crate_context_list.iter_all()
- .map(|ccx| {
- let source = match ccx.previous_work_product() {
- Some(buf) => ModuleSource::Preexisting(buf.clone()),
- None => ModuleSource::Translated(ModuleLlvm {
- llcx: ccx.llcx(),
- llmod: ccx.llmod(),
- }),
- };
+ let (translation_items, codegen_units) =
+ collect_and_partition_translation_items(&shared_ccx);
- ModuleTranslation {
- name: String::from(ccx.codegen_unit().name()),
- symbol_name_hash: ccx.codegen_unit()
- .compute_symbol_name_hash(&shared_ccx,
- &symbol_map),
- source: source,
- }
+ let mut all_stats = Stats::default();
+ let modules: Vec<ModuleTranslation> = codegen_units
+ .into_iter()
+ .map(|cgu| {
+ let dep_node = cgu.work_product_dep_node();
+ let (stats, module) =
+ tcx.dep_graph.with_task(dep_node,
+ AssertDepGraphSafe(&shared_ccx),
+ AssertDepGraphSafe(cgu),
+ module_translation);
+ all_stats.extend(stats);
+ module
})
.collect();
- assert_module_sources::assert_module_sources(tcx, &modules);
+ fn module_translation<'a, 'tcx>(
+ scx: AssertDepGraphSafe<&SharedCrateContext<'a, 'tcx>>,
+ args: AssertDepGraphSafe<CodegenUnit<'tcx>>)
+ -> (Stats, ModuleTranslation)
+ {
+ // FIXME(#40304): We ought to be using the id as a key and some queries, I think.
+ let AssertDepGraphSafe(scx) = scx;
+ let AssertDepGraphSafe(cgu) = args;
+
+ let cgu_name = String::from(cgu.name());
+ let cgu_id = cgu.work_product_id();
+ let symbol_name_hash = cgu.compute_symbol_name_hash(scx);
+
+ // Check whether there is a previous work-product we can
+ // re-use. Not only must the file exist, and the inputs not
+ // be dirty, but the hash of the symbols we will generate must
+ // be the same.
+ let previous_work_product =
+ scx.dep_graph().previous_work_product(&cgu_id).and_then(|work_product| {
+ if work_product.input_hash == symbol_name_hash {
+ debug!("trans_reuse_previous_work_products: reusing {:?}", work_product);
+ Some(work_product)
+ } else {
+ if scx.sess().opts.debugging_opts.incremental_info {
+ println!("incremental: CGU `{}` invalidated because of \
+ changed partitioning hash.",
+ cgu.name());
+ }
+ debug!("trans_reuse_previous_work_products: \
+ not reusing {:?} because hash changed to {:?}",
+ work_product, symbol_name_hash);
+ None
+ }
+ });
- // Instantiate translation items without filling out definitions yet...
- for ccx in crate_context_list.iter_need_trans() {
- let dep_node = ccx.codegen_unit().work_product_dep_node();
- tcx.dep_graph.with_task(dep_node,
- ccx,
- AssertDepGraphSafe(symbol_map.clone()),
- trans_decl_task);
-
- fn trans_decl_task<'a, 'tcx>(ccx: CrateContext<'a, 'tcx>,
- symbol_map: AssertDepGraphSafe<Rc<SymbolMap<'tcx>>>) {
- // FIXME(#40304): Instead of this, the symbol-map should be an
- // on-demand thing that we compute.
- let AssertDepGraphSafe(symbol_map) = symbol_map;
- let cgu = ccx.codegen_unit();
- let trans_items = cgu.items_in_deterministic_order(ccx.tcx(), &symbol_map);
- for (trans_item, linkage) in trans_items {
+ if let Some(buf) = previous_work_product {
+ // Don't need to translate this module.
+ let module = ModuleTranslation {
+ name: cgu_name,
+ symbol_name_hash,
+ source: ModuleSource::Preexisting(buf.clone())
+ };
+ return (Stats::default(), module);
+ }
+
+ // Instantiate translation items without filling out definitions yet...
+ let lcx = LocalCrateContext::new(scx, cgu);
+ let module = {
+ let ccx = CrateContext::new(scx, &lcx);
+ let trans_items = ccx.codegen_unit()
+ .items_in_deterministic_order(ccx.tcx());
+ for &(trans_item, linkage) in &trans_items {
trans_item.predefine(&ccx, linkage);
}
- }
- }
- // ... and now that we have everything pre-defined, fill out those definitions.
- for ccx in crate_context_list.iter_need_trans() {
- let dep_node = ccx.codegen_unit().work_product_dep_node();
- tcx.dep_graph.with_task(dep_node,
- ccx,
- AssertDepGraphSafe(symbol_map.clone()),
- trans_def_task);
-
- fn trans_def_task<'a, 'tcx>(ccx: CrateContext<'a, 'tcx>,
- symbol_map: AssertDepGraphSafe<Rc<SymbolMap<'tcx>>>) {
- // FIXME(#40304): Instead of this, the symbol-map should be an
- // on-demand thing that we compute.
- let AssertDepGraphSafe(symbol_map) = symbol_map;
- let cgu = ccx.codegen_unit();
- let trans_items = cgu.items_in_deterministic_order(ccx.tcx(), &symbol_map);
- for (trans_item, _) in trans_items {
+ // ... and now that we have everything pre-defined, fill out those definitions.
+ for &(trans_item, _) in &trans_items {
trans_item.define(&ccx);
}
if ccx.sess().opts.debuginfo != NoDebugInfo {
debuginfo::finalize(&ccx);
}
- }
+
+ ModuleTranslation {
+ name: cgu_name,
+ symbol_name_hash,
+ source: ModuleSource::Translated(ModuleLlvm {
+ llcx: ccx.llcx(),
+ llmod: ccx.llmod(),
+ })
+ }
+ };
+
+ (lcx.into_stats(), module)
}
- symbol_names_test::report_symbol_names(&shared_ccx);
+ assert_module_sources::assert_module_sources(tcx, &modules);
+
+ symbol_names_test::report_symbol_names(tcx);
if shared_ccx.sess().trans_stats() {
- let stats = shared_ccx.stats();
println!("--- trans stats ---");
- println!("n_glues_created: {}", stats.n_glues_created.get());
- println!("n_null_glues: {}", stats.n_null_glues.get());
- println!("n_real_glues: {}", stats.n_real_glues.get());
+ println!("n_glues_created: {}", all_stats.n_glues_created.get());
+ println!("n_null_glues: {}", all_stats.n_null_glues.get());
+ println!("n_real_glues: {}", all_stats.n_real_glues.get());
- println!("n_fns: {}", stats.n_fns.get());
- println!("n_inlines: {}", stats.n_inlines.get());
- println!("n_closures: {}", stats.n_closures.get());
+ println!("n_fns: {}", all_stats.n_fns.get());
+ println!("n_inlines: {}", all_stats.n_inlines.get());
+ println!("n_closures: {}", all_stats.n_closures.get());
println!("fn stats:");
- stats.fn_stats.borrow_mut().sort_by(|&(_, insns_a), &(_, insns_b)| {
+ all_stats.fn_stats.borrow_mut().sort_by(|&(_, insns_a), &(_, insns_b)| {
insns_b.cmp(&insns_a)
});
- for tuple in stats.fn_stats.borrow().iter() {
+ for tuple in all_stats.fn_stats.borrow().iter() {
match *tuple {
(ref name, insns) => {
println!("{} insns, {}", insns, *name);
}
if shared_ccx.sess().count_llvm_insns() {
- for (k, v) in shared_ccx.stats().llvm_insns.borrow().iter() {
+ for (k, v) in all_stats.llvm_insns.borrow().iter() {
println!("{:7} {}", *v, *k);
}
}
let sess = shared_ccx.sess();
- let exported_symbols = ExportedSymbols::compute_from(&shared_ccx,
- &symbol_map);
+ let exported_symbols = ExportedSymbols::compute(&shared_ccx);
+
+ // Get the list of llvm modules we created. We'll do a few wacky
+ // transforms on them now.
+
+ let llvm_modules: Vec<_> =
+ modules.iter()
+ .filter_map(|module| match module.source {
+ ModuleSource::Translated(llvm) => Some(llvm),
+ _ => None,
+ })
+ .collect();
// Now that we have all symbols that are exported from the CGUs of this
// crate, we can run the `internalize_symbols` pass.
time(shared_ccx.sess().time_passes(), "internalize symbols", || {
internalize_symbols(sess,
- &crate_context_list,
- &symbol_map,
+ &shared_ccx,
+ &translation_items,
+ &llvm_modules,
&exported_symbols);
});
if sess.target.target.options.is_like_msvc &&
sess.crate_types.borrow().iter().any(|ct| *ct == config::CrateTypeRlib) {
- create_imps(&crate_context_list);
+ create_imps(sess, &llvm_modules);
}
let linker_info = LinkerInfo::new(&shared_ccx, &exported_symbols);
});
CrateTranslation {
+ crate_name: tcx.crate_name(LOCAL_CRATE),
modules: modules,
metadata_module: metadata_module,
link: link_meta,
}
}
-/// For each CGU, identify if we can reuse an existing object file (or
-/// maybe other context).
-fn trans_reuse_previous_work_products(scx: &SharedCrateContext,
- codegen_units: &[CodegenUnit],
- symbol_map: &SymbolMap)
- -> Vec<Option<WorkProduct>> {
- debug!("trans_reuse_previous_work_products()");
- codegen_units
- .iter()
- .map(|cgu| {
- let id = cgu.work_product_id();
+#[inline(never)] // give this a place in the profiler
+fn assert_symbols_are_distinct<'a, 'tcx, I>(tcx: TyCtxt<'a, 'tcx, 'tcx>, trans_items: I)
+ where I: Iterator<Item=&'a TransItem<'tcx>>
+{
+ let mut symbols: Vec<_> = trans_items.map(|trans_item| {
+ (trans_item, trans_item.symbol_name(tcx))
+ }).collect();
- let hash = cgu.compute_symbol_name_hash(scx, symbol_map);
+ (&mut symbols[..]).sort_by(|&(_, ref sym1), &(_, ref sym2)|{
+ sym1.cmp(sym2)
+ });
- debug!("trans_reuse_previous_work_products: id={:?} hash={}", id, hash);
+ for pair in (&symbols[..]).windows(2) {
+ let sym1 = &pair[0].1;
+ let sym2 = &pair[1].1;
- if let Some(work_product) = scx.dep_graph().previous_work_product(&id) {
- if work_product.input_hash == hash {
- debug!("trans_reuse_previous_work_products: reusing {:?}", work_product);
- return Some(work_product);
- } else {
- if scx.sess().opts.debugging_opts.incremental_info {
- println!("incremental: CGU `{}` invalidated because of \
- changed partitioning hash.",
- cgu.name());
- }
- debug!("trans_reuse_previous_work_products: \
- not reusing {:?} because hash changed to {:?}",
- work_product, hash);
+ if *sym1 == *sym2 {
+ let trans_item1 = pair[0].0;
+ let trans_item2 = pair[1].0;
+
+ let span1 = trans_item1.local_span(tcx);
+ let span2 = trans_item2.local_span(tcx);
+
+ // Deterministically select one of the spans for error reporting
+ let span = match (span1, span2) {
+ (Some(span1), Some(span2)) => {
+ Some(if span1.lo.0 > span2.lo.0 {
+ span1
+ } else {
+ span2
+ })
}
- }
+ (Some(span), None) |
+ (None, Some(span)) => Some(span),
+ _ => None
+ };
- None
- })
- .collect()
+ let error_message = format!("symbol `{}` is already defined", sym1);
+
+ if let Some(span) = span {
+ tcx.sess.span_fatal(span, &error_message)
+ } else {
+ tcx.sess.fatal(&error_message)
+ }
+ }
+ }
}
fn collect_and_partition_translation_items<'a, 'tcx>(scx: &SharedCrateContext<'a, 'tcx>)
- -> (Vec<CodegenUnit<'tcx>>, SymbolMap<'tcx>) {
+ -> (FxHashSet<TransItem<'tcx>>,
+ Vec<CodegenUnit<'tcx>>) {
let time_passes = scx.sess().time_passes();
let collection_mode = match scx.sess().opts.debugging_opts.print_trans_items {
collector::collect_crate_translation_items(&scx, collection_mode)
});
- let symbol_map = SymbolMap::build(scx, items.iter().cloned());
+ assert_symbols_are_distinct(scx.tcx(), items.iter());
let strategy = if scx.sess().opts.debugging_opts.incremental.is_some() {
PartitioningStrategy::PerModule
assert!(scx.tcx().sess.opts.cg.codegen_units == codegen_units.len() ||
scx.tcx().sess.opts.debugging_opts.incremental.is_some());
- {
- let mut ccx_map = scx.translation_items().borrow_mut();
-
- for trans_item in items.iter().cloned() {
- ccx_map.insert(trans_item);
- }
- }
+ let translation_items: FxHashSet<TransItem<'tcx>> = items.iter().cloned().collect();
if scx.sess().opts.debugging_opts.print_trans_items.is_some() {
let mut item_to_cgus = FxHashMap();
}
}
- (codegen_units, symbol_map)
+ (translation_items, codegen_units)
}
projects / rust.git / blobdiff