Changeset 376c632a
- Timestamp:
- Feb 1, 2022, 10:10:46 AM (14 months ago)
- Branches:
- enum, forall-pointer-decay, master, pthread-emulation, qualifiedEnum
- Children:
- 7b2c8c3c
- Parents:
- f681823 (diff), 89a5a1f (diff)
Note: this is a merge changeset, the changes displayed below correspond to the merge itself.
Use the(diff)
links above to see all the changes relative to each parent. - Files:
-
- 6 added
- 30 edited
Legend:
- Unmodified
- Added
- Removed
-
libcfa/src/concurrency/io.cfa
rf681823 r376c632a 306 306 ctx->proc->io.pending = true; 307 307 ctx->proc->io.dirty = true; 308 if(sq.to_submit > 30 || !lazy) { 308 if(sq.to_submit > 30) { 309 __tls_stats()->io.flush.full++; 310 __cfa_io_flush( ctx->proc, 0 ); 311 } 312 if(!lazy) { 313 __tls_stats()->io.flush.eager++; 309 314 __cfa_io_flush( ctx->proc, 0 ); 310 315 } -
libcfa/src/concurrency/kernel.cfa
rf681823 r376c632a 42 42 43 43 #if !defined(__CFA_NO_STATISTICS__) 44 #define __STATS ( ...) __VA_ARGS__44 #define __STATS_DEF( ...) __VA_ARGS__ 45 45 #else 46 #define __STATS ( ...)46 #define __STATS_DEF( ...) 47 47 #endif 48 48 … … 122 122 static thread$ * __next_thread(cluster * this); 123 123 static thread$ * __next_thread_slow(cluster * this); 124 static thread$ * __next_thread_search(cluster * this); 124 125 static inline bool __must_unpark( thread$ * thrd ) __attribute((nonnull(1))); 125 126 static void __run_thread(processor * this, thread$ * dst); … … 187 188 MAIN_LOOP: 188 189 for() { 189 #define OLD_MAIN 1190 #if OLD_MAIN191 190 // Check if there is pending io 192 191 __maybe_io_drain( this ); … … 196 195 197 196 if( !readyThread ) { 197 __IO_STATS__(true, io.flush.idle++; ) 198 198 __cfa_io_flush( this, 0 ); 199 199 200 readyThread = __next_thread( this->cltr ); 201 } 202 203 if( !readyThread ) for(5) { 204 __IO_STATS__(true, io.flush.idle++; ) 205 200 206 readyThread = __next_thread_slow( this->cltr ); 207 208 if( readyThread ) break; 209 210 __cfa_io_flush( this, 0 ); 201 211 } 202 212 … … 210 220 211 221 // Confirm the ready-queue is empty 212 readyThread = __next_thread_s low( this->cltr );222 readyThread = __next_thread_search( this->cltr ); 213 223 if( readyThread ) { 214 224 // A thread was found, cancel the halt 215 225 mark_awake(this->cltr->procs, * this); 216 226 217 #if !defined(__CFA_NO_STATISTICS__) 218 __tls_stats()->ready.sleep.cancels++; 219 #endif 227 __STATS__(true, ready.sleep.cancels++; ) 220 228 221 229 // continue the mai loop … … 244 252 245 253 if(this->io.pending && !this->io.dirty) { 254 __IO_STATS__(true, io.flush.dirty++; ) 246 255 __cfa_io_flush( this, 0 ); 247 256 } 248 249 #else250 #warning new kernel loop251 SEARCH: {252 /* paranoid */ verify( ! __preemption_enabled() );253 254 // First, lock the scheduler since we are searching for a thread255 ready_schedule_lock();256 257 // Try to get the next thread258 readyThread = pop_fast( this->cltr );259 if(readyThread) { ready_schedule_unlock(); break SEARCH; }260 261 // If we can't find a thread, might as well flush any outstanding I/O262 if(this->io.pending) { __cfa_io_flush( this, 0 ); }263 264 // Spin a little on I/O, just in case265 for(5) {266 __maybe_io_drain( this );267 readyThread = pop_fast( this->cltr );268 if(readyThread) { ready_schedule_unlock(); break SEARCH; }269 }270 271 // no luck, try stealing a few times272 for(5) {273 if( __maybe_io_drain( this ) ) {274 readyThread = pop_fast( this->cltr );275 } else {276 readyThread = pop_slow( this->cltr );277 }278 if(readyThread) { ready_schedule_unlock(); break SEARCH; }279 }280 281 // still no luck, search for a thread282 readyThread = pop_search( this->cltr );283 if(readyThread) { ready_schedule_unlock(); break SEARCH; }284 285 // Don't block if we are done286 if( __atomic_load_n(&this->do_terminate, __ATOMIC_SEQ_CST) ) {287 ready_schedule_unlock();288 break MAIN_LOOP;289 }290 291 __STATS( __tls_stats()->ready.sleep.halts++; )292 293 // Push self to idle stack294 ready_schedule_unlock();295 if(!mark_idle(this->cltr->procs, * this)) goto SEARCH;296 ready_schedule_lock();297 298 // Confirm the ready-queue is empty299 __maybe_io_drain( this );300 readyThread = pop_search( this->cltr );301 ready_schedule_unlock();302 303 if( readyThread ) {304 // A thread was found, cancel the halt305 mark_awake(this->cltr->procs, * this);306 307 __STATS( __tls_stats()->ready.sleep.cancels++; )308 309 // continue the main loop310 break SEARCH;311 }312 313 __STATS( if(this->print_halts) __cfaabi_bits_print_safe( STDOUT_FILENO, "PH:%d - %lld 0\n", this->unique_id, rdtscl()); )314 __cfadbg_print_safe(runtime_core, "Kernel : core %p waiting on eventfd %d\n", this, this->idle_fd);315 316 {317 eventfd_t val;318 ssize_t ret = read( this->idle_fd, &val, sizeof(val) );319 if(ret < 0) {320 switch((int)errno) {321 case EAGAIN:322 #if EAGAIN != EWOULDBLOCK323 case EWOULDBLOCK:324 #endif325 case EINTR:326 // No need to do anything special here, just assume it's a legitimate wake-up327 break;328 default:329 abort( "KERNEL : internal error, read failure on idle eventfd, error(%d) %s.", (int)errno, strerror( (int)errno ) );330 }331 }332 }333 334 __STATS( if(this->print_halts) __cfaabi_bits_print_safe( STDOUT_FILENO, "PH:%d - %lld 1\n", this->unique_id, rdtscl()); )335 336 // We were woken up, remove self from idle337 mark_awake(this->cltr->procs, * this);338 339 // DON'T just proceed, start looking again340 continue MAIN_LOOP;341 }342 343 RUN_THREAD:344 /* paranoid */ verify( ! __preemption_enabled() );345 /* paranoid */ verify( readyThread );346 347 // Reset io dirty bit348 this->io.dirty = false;349 350 // We found a thread run it351 __run_thread(this, readyThread);352 353 // Are we done?354 if( __atomic_load_n(&this->do_terminate, __ATOMIC_SEQ_CST) ) break MAIN_LOOP;355 356 if(this->io.pending && !this->io.dirty) {357 __cfa_io_flush( this, 0 );358 }359 360 ready_schedule_lock();361 __maybe_io_drain( this );362 ready_schedule_unlock();363 #endif364 257 } 365 258 … … 472 365 break RUNNING; 473 366 case TICKET_UNBLOCK: 474 #if !defined(__CFA_NO_STATISTICS__) 475 __tls_stats()->ready.threads.threads++; 476 #endif 367 __STATS__(true, ready.threads.threads++; ) 477 368 // This is case 2, the racy case, someone tried to run this thread before it finished blocking 478 369 // In this case, just run it again. … … 489 380 __cfadbg_print_safe(runtime_core, "Kernel : core %p finished running thread %p\n", this, thrd_dst); 490 381 491 #if !defined(__CFA_NO_STATISTICS__) 492 __tls_stats()->ready.threads.threads--; 493 #endif 382 __STATS__(true, ready.threads.threads--; ) 494 383 495 384 /* paranoid */ verify( ! __preemption_enabled() ); … … 502 391 thread$ * thrd_src = kernelTLS().this_thread; 503 392 504 __STATS ( thrd_src->last_proc = kernelTLS().this_processor; )393 __STATS_DEF( thrd_src->last_proc = kernelTLS().this_processor; ) 505 394 506 395 // Run the thread on this processor … … 554 443 // Dereference the thread now because once we push it, there is not guaranteed it's still valid. 555 444 struct cluster * cl = thrd->curr_cluster; 556 __STATS (bool outside = hint == UNPARK_LOCAL && thrd->last_proc && thrd->last_proc != kernelTLS().this_processor; )445 __STATS_DEF(bool outside = hint == UNPARK_LOCAL && thrd->last_proc && thrd->last_proc != kernelTLS().this_processor; ) 557 446 558 447 // push the thread to the cluster ready-queue … … 605 494 606 495 ready_schedule_lock(); 607 thread$ * thrd; 608 for(25) { 609 thrd = pop_slow( this ); 610 if(thrd) goto RET; 611 } 612 thrd = pop_search( this ); 613 614 RET: 496 thread$ * thrd = pop_slow( this ); 497 ready_schedule_unlock(); 498 499 /* paranoid */ verify( ! __preemption_enabled() ); 500 return thrd; 501 } 502 503 // KERNEL ONLY 504 static inline thread$ * __next_thread_search(cluster * this) with( *this ) { 505 /* paranoid */ verify( ! __preemption_enabled() ); 506 507 ready_schedule_lock(); 508 thread$ * thrd = pop_search( this ); 615 509 ready_schedule_unlock(); 616 510 … … 854 748 855 749 static bool mark_idle(__cluster_proc_list & this, processor & proc) { 856 #if !defined(__CFA_NO_STATISTICS__) 857 __tls_stats()->ready.sleep.halts++; 858 #endif 750 __STATS__(true, ready.sleep.halts++; ) 859 751 860 752 proc.idle_wctx.fd = 0; … … 949 841 unsigned tail = *ctx->cq.tail; 950 842 if(head == tail) return false; 951 #if OLD_MAIN 952 ready_schedule_lock(); 953 ret = __cfa_io_drain( proc ); 954 ready_schedule_unlock(); 955 #else 956 ret = __cfa_io_drain( proc ); 957 #endif 843 ready_schedule_lock(); 844 ret = __cfa_io_drain( proc ); 845 ready_schedule_unlock(); 958 846 #endif 959 847 return ret; -
libcfa/src/concurrency/kernel/fwd.hfa
rf681823 r376c632a 396 396 if( !(in_kernel) ) enable_interrupts(); \ 397 397 } 398 #if defined(CFA_HAVE_LINUX_IO_URING_H) 399 #define __IO_STATS__(in_kernel, ...) { \ 400 if( !(in_kernel) ) disable_interrupts(); \ 401 with( *__tls_stats() ) { \ 402 __VA_ARGS__ \ 403 } \ 404 if( !(in_kernel) ) enable_interrupts(); \ 405 } 406 #else 407 #define __IO_STATS__(in_kernel, ...) 408 #endif 398 409 #else 399 410 #define __STATS__(in_kernel, ...) 411 #define __IO_STATS__(in_kernel, ...) 400 412 #endif 401 413 } -
libcfa/src/concurrency/stats.cfa
rf681823 r376c632a 45 45 stats->io.submit.slow = 0; 46 46 stats->io.flush.external = 0; 47 stats->io.flush.dirty = 0; 48 stats->io.flush.full = 0; 49 stats->io.flush.idle = 0; 50 stats->io.flush.eager = 0; 47 51 stats->io.calls.flush = 0; 48 52 stats->io.calls.submitted = 0; … … 107 111 tally_one( &cltr->io.submit.slow , &proc->io.submit.slow ); 108 112 tally_one( &cltr->io.flush.external , &proc->io.flush.external ); 113 tally_one( &cltr->io.flush.dirty , &proc->io.flush.dirty ); 114 tally_one( &cltr->io.flush.full , &proc->io.flush.full ); 115 tally_one( &cltr->io.flush.idle , &proc->io.flush.idle ); 116 tally_one( &cltr->io.flush.eager , &proc->io.flush.eager ); 109 117 tally_one( &cltr->io.calls.flush , &proc->io.calls.flush ); 110 118 tally_one( &cltr->io.calls.submitted , &proc->io.calls.submitted ); … … 184 192 if(io.alloc.fail || io.alloc.revoke || io.alloc.block) 185 193 sstr | "- failures : " | eng3(io.alloc.fail) | "oom, " | eng3(io.alloc.revoke) | "rvk, " | eng3(io.alloc.block) | "blk"; 186 if(io.flush.external)187 sstr | "- flush external : " | eng3(io.flush.external);194 // if(io.flush.external) 195 // sstr | "- flush external : " | eng3(io.flush.external); 188 196 189 197 double avgsubs = ((double)io.calls.submitted) / io.calls.flush; 190 198 double avgcomp = ((double)io.calls.completed) / io.calls.drain; 191 199 sstr | "- syscll : " 192 | " sub " | eng3(io.calls. flush) | "/" | eng3(io.calls.submitted) | "(" | ws(3, 3, avgsubs) | "/flush)"193 | " - cmp " | eng3(io.calls. drain) | "/" | eng3(io.calls.completed) | "(" | ws(3, 3, avgcomp) | "/drain)"200 | " sub " | eng3(io.calls.submitted) | "/" | eng3(io.calls.flush) | "(" | ws(3, 3, avgsubs) | "/flush)" 201 | " - cmp " | eng3(io.calls.completed) | "/" | eng3(io.calls.drain) | "(" | ws(3, 3, avgcomp) | "/drain)" 194 202 | " - " | eng3(io.calls.errors.busy) | " EBUSY"; 203 sstr | " - sub: " | eng3(io.flush.full) | "full, " | eng3(io.flush.dirty) | "drty, " | eng3(io.flush.idle) | "idle, " | eng3(io.flush.eager) | "eagr, " | eng3(io.flush.external) | "ext"; 195 204 sstr | "- ops blk: " 196 205 | " sk rd: " | eng3(io.ops.sockread) | "epll: " | eng3(io.ops.epllread) -
libcfa/src/concurrency/stats.hfa
rf681823 r376c632a 91 91 struct { 92 92 volatile uint64_t external; 93 volatile uint64_t dirty; 94 volatile uint64_t full; 95 volatile uint64_t idle; 96 volatile uint64_t eager; 93 97 } flush; 94 98 struct { -
src/AST/Copy.hpp
rf681823 r376c632a 10 10 // Created On : Wed Jul 10 16:13:00 2019 11 11 // Last Modified By : Andrew Beach 12 // Last Modified On : Thr Nov 11 9:22:00 202113 // Update Count : 212 // Last Modified On : Wed Dec 15 11:07:00 2021 13 // Update Count : 3 14 14 // 15 15 … … 52 52 Node * deepCopy<Node>( const Node * localRoot ); 53 53 54 template<typename node_t, enum Node::ref_type ref_t> 55 node_t * shallowCopy( const ptr_base<node_t, ref_t> & localRoot ) { 56 return shallowCopy( localRoot.get() ); 57 } 58 59 template<typename node_t, enum Node::ref_type ref_t> 60 node_t * deepCopy( const ptr_base<node_t, ref_t> & localRoot ) { 61 return deepCopy( localRoot.get() ); 62 } 63 54 64 } 55 65 -
src/AST/Node.hpp
rf681823 r376c632a 188 188 } 189 189 190 ptr_base & operator=( const node_t * node ) { 191 assign( node ); 192 return *this; 193 } 194 190 195 template<typename o_node_t> 191 196 ptr_base & operator=( const o_node_t * node ) { -
src/AST/Pass.impl.hpp
rf681823 r376c632a 33 33 /* call the implementation of the previsit of this pass */ \ 34 34 __pass::previsit( core, node, 0 ); 35 36 #define VISIT( code... ) \37 /* if this node should visit its children */ \38 if ( __visit_children() ) { \39 /* visit the children */ \40 code \41 }42 35 43 36 #define VISIT_END( type, node ) \ … … 452 445 VISIT_START( node ); 453 446 454 VISIT(447 if ( __visit_children() ) { 455 448 { 456 449 guard_symtab guard { *this }; … … 460 453 maybe_accept( node, &ObjectDecl::bitfieldWidth ); 461 454 maybe_accept( node, &ObjectDecl::attributes ); 462 )455 } 463 456 464 457 __pass::symtab::addId( core, 0, node ); … … 475 468 __pass::symtab::addId( core, 0, node ); 476 469 477 VISIT(maybe_accept( node, &FunctionDecl::withExprs );) 470 if ( __visit_children() ) { 471 maybe_accept( node, &FunctionDecl::withExprs ); 472 } 478 473 { 479 474 // with clause introduces a level of scope (for the with expression members). … … 493 488 } }; 494 489 __pass::symtab::addId( core, 0, func ); 495 VISIT(490 if ( __visit_children() ) { 496 491 // parameter declarations 497 492 maybe_accept( node, &FunctionDecl::params ); … … 509 504 maybe_accept( node, &FunctionDecl::stmts ); 510 505 maybe_accept( node, &FunctionDecl::attributes ); 511 )506 } 512 507 } 513 508 } … … 526 521 __pass::symtab::addStructFwd( core, 0, node ); 527 522 528 VISIT({523 if ( __visit_children() ) { 529 524 guard_symtab guard { * this }; 530 525 maybe_accept( node, &StructDecl::params ); 531 526 maybe_accept( node, &StructDecl::members ); 532 527 maybe_accept( node, &StructDecl::attributes ); 533 } )528 } 534 529 535 530 // this addition replaces the forward declaration … … 548 543 __pass::symtab::addUnionFwd( core, 0, node ); 549 544 550 VISIT({545 if ( __visit_children() ) { 551 546 guard_symtab guard { * this }; 552 547 maybe_accept( node, &UnionDecl::params ); 553 548 maybe_accept( node, &UnionDecl::members ); 554 549 maybe_accept( node, &UnionDecl::attributes ); 555 } )550 } 556 551 557 552 __pass::symtab::addUnion( core, 0, node ); … … 568 563 __pass::symtab::addEnum( core, 0, node ); 569 564 570 VISIT(565 if ( __visit_children() ) { 571 566 // unlike structs, traits, and unions, enums inject their members into the global scope 572 567 maybe_accept( node, &EnumDecl::params ); 573 568 maybe_accept( node, &EnumDecl::members ); 574 569 maybe_accept( node, &EnumDecl::attributes ); 575 )570 } 576 571 577 572 VISIT_END( Decl, node ); … … 584 579 VISIT_START( node ); 585 580 586 VISIT({581 if ( __visit_children() ) { 587 582 guard_symtab guard { *this }; 588 583 maybe_accept( node, &TraitDecl::params ); 589 584 maybe_accept( node, &TraitDecl::members ); 590 585 maybe_accept( node, &TraitDecl::attributes ); 591 } )586 } 592 587 593 588 __pass::symtab::addTrait( core, 0, node ); … … 602 597 VISIT_START( node ); 603 598 604 VISIT({599 if ( __visit_children() ) { 605 600 guard_symtab guard { *this }; 606 601 maybe_accept( node, &TypeDecl::base ); 607 } )602 } 608 603 609 604 // see A NOTE ON THE ORDER OF TRAVERSAL, above … … 612 607 __pass::symtab::addType( core, 0, node ); 613 608 614 VISIT(609 if ( __visit_children() ) { 615 610 maybe_accept( node, &TypeDecl::assertions ); 616 611 … … 619 614 maybe_accept( node, &TypeDecl::init ); 620 615 } 621 )616 } 622 617 623 618 VISIT_END( Decl, node ); … … 630 625 VISIT_START( node ); 631 626 632 VISIT({627 if ( __visit_children() ) { 633 628 guard_symtab guard { *this }; 634 629 maybe_accept( node, &TypedefDecl::base ); 635 } )630 } 636 631 637 632 __pass::symtab::addType( core, 0, node ); 638 633 639 VISIT( maybe_accept( node, &TypedefDecl::assertions ); ) 634 if ( __visit_children() ) { 635 maybe_accept( node, &TypedefDecl::assertions ); 636 } 640 637 641 638 VISIT_END( Decl, node ); … … 648 645 VISIT_START( node ); 649 646 650 VISIT(647 if ( __visit_children() ) { 651 648 maybe_accept( node, &AsmDecl::stmt ); 652 )649 } 653 650 654 651 VISIT_END( AsmDecl, node ); … … 661 658 VISIT_START( node ); 662 659 663 VISIT(660 if ( __visit_children() ) { 664 661 maybe_accept( node, &DirectiveDecl::stmt ); 665 )662 } 666 663 667 664 VISIT_END( DirectiveDecl, node ); … … 674 671 VISIT_START( node ); 675 672 676 VISIT(673 if ( __visit_children() ) { 677 674 maybe_accept( node, &StaticAssertDecl::cond ); 678 675 maybe_accept( node, &StaticAssertDecl::msg ); 679 )676 } 680 677 681 678 VISIT_END( StaticAssertDecl, node ); … … 687 684 const ast::CompoundStmt * ast::Pass< core_t >::visit( const ast::CompoundStmt * node ) { 688 685 VISIT_START( node ); 689 VISIT( 686 687 if ( __visit_children() ) { 690 688 // Do not enter (or leave) a new scope if atFunctionTop. Remember to save the result. 691 689 auto guard1 = makeFuncGuard( [this, enterScope = !this->atFunctionTop]() { … … 704 702 guard_scope guard3 { *this }; 705 703 maybe_accept( node, &CompoundStmt::kids ); 706 ) 704 } 705 707 706 VISIT_END( CompoundStmt, node ); 708 707 } … … 714 713 VISIT_START( node ); 715 714 716 VISIT(715 if ( __visit_children() ) { 717 716 maybe_accept( node, &ExprStmt::expr ); 718 )717 } 719 718 720 719 VISIT_END( Stmt, node ); … … 727 726 VISIT_START( node ) 728 727 729 VISIT(728 if ( __visit_children() ) { 730 729 maybe_accept( node, &AsmStmt::instruction ); 731 730 maybe_accept( node, &AsmStmt::output ); 732 731 maybe_accept( node, &AsmStmt::input ); 733 732 maybe_accept( node, &AsmStmt::clobber ); 734 )733 } 735 734 736 735 VISIT_END( Stmt, node ); … … 752 751 VISIT_START( node ); 753 752 754 VISIT({753 if ( __visit_children() ) { 755 754 // if statements introduce a level of scope (for the initialization) 756 755 guard_symtab guard { *this }; … … 759 758 maybe_accept_as_compound( node, &IfStmt::thenPart ); 760 759 maybe_accept_as_compound( node, &IfStmt::elsePart ); 761 } )760 } 762 761 763 762 VISIT_END( Stmt, node ); … … 770 769 VISIT_START( node ); 771 770 772 VISIT({771 if ( __visit_children() ) { 773 772 // while statements introduce a level of scope (for the initialization) 774 773 guard_symtab guard { *this }; … … 776 775 maybe_accept( node, &WhileStmt::cond ); 777 776 maybe_accept_as_compound( node, &WhileStmt::body ); 778 } )777 } 779 778 780 779 VISIT_END( Stmt, node ); … … 787 786 VISIT_START( node ); 788 787 789 VISIT({788 if ( __visit_children() ) { 790 789 // for statements introduce a level of scope (for the initialization) 791 790 guard_symtab guard { *this }; … … 795 794 maybe_accept( node, &ForStmt::inc ); 796 795 maybe_accept_as_compound( node, &ForStmt::body ); 797 } )796 } 798 797 799 798 VISIT_END( Stmt, node ); … … 806 805 VISIT_START( node ); 807 806 808 VISIT(807 if ( __visit_children() ) { 809 808 maybe_accept( node, &SwitchStmt::cond ); 810 809 maybe_accept( node, &SwitchStmt::stmts ); 811 )810 } 812 811 813 812 VISIT_END( Stmt, node ); … … 820 819 VISIT_START( node ); 821 820 822 VISIT(821 if ( __visit_children() ) { 823 822 maybe_accept( node, &CaseStmt::cond ); 824 823 maybe_accept( node, &CaseStmt::stmts ); 825 )824 } 826 825 827 826 VISIT_END( Stmt, node ); … … 842 841 VISIT_START( node ); 843 842 844 VISIT(843 if ( __visit_children() ) { 845 844 maybe_accept( node, &ReturnStmt::expr ); 846 )845 } 847 846 848 847 VISIT_END( Stmt, node ); … … 855 854 VISIT_START( node ); 856 855 857 VISIT(856 if ( __visit_children() ) { 858 857 maybe_accept( node, &ThrowStmt::expr ); 859 858 maybe_accept( node, &ThrowStmt::target ); 860 )859 } 861 860 862 861 VISIT_END( Stmt, node ); … … 869 868 VISIT_START( node ); 870 869 871 VISIT(870 if ( __visit_children() ) { 872 871 maybe_accept( node, &TryStmt::body ); 873 872 maybe_accept( node, &TryStmt::handlers ); 874 873 maybe_accept( node, &TryStmt::finally ); 875 )874 } 876 875 877 876 VISIT_END( Stmt, node ); … … 884 883 VISIT_START( node ); 885 884 886 VISIT({885 if ( __visit_children() ) { 887 886 // catch statements introduce a level of scope (for the caught exception) 888 887 guard_symtab guard { *this }; … … 890 889 maybe_accept( node, &CatchStmt::cond ); 891 890 maybe_accept_as_compound( node, &CatchStmt::body ); 892 } )891 } 893 892 894 893 VISIT_END( Stmt, node ); … … 901 900 VISIT_START( node ); 902 901 903 VISIT(902 if ( __visit_children() ) { 904 903 maybe_accept( node, &FinallyStmt::body ); 905 )904 } 906 905 907 906 VISIT_END( Stmt, node ); … … 914 913 VISIT_START( node ); 915 914 916 VISIT(915 if ( __visit_children() ) { 917 916 maybe_accept( node, &SuspendStmt::then ); 918 )917 } 919 918 920 919 VISIT_END( Stmt, node ); … … 934 933 // } 935 934 936 VISIT({935 if ( __visit_children() ) { 937 936 std::vector<WaitForStmt::Clause> new_clauses; 938 937 new_clauses.reserve( node->clauses.size() ); … … 965 964 node = n; 966 965 } 967 } )966 } 968 967 969 968 #define maybe_accept(field) \ … … 977 976 } 978 977 979 VISIT(978 if ( __visit_children() ) { 980 979 maybe_accept( timeout.time ); 981 980 maybe_accept( timeout.stmt ); … … 983 982 maybe_accept( orElse.stmt ); 984 983 maybe_accept( orElse.cond ); 985 )984 } 986 985 987 986 #undef maybe_accept … … 996 995 VISIT_START( node ); 997 996 998 VISIT(997 if ( __visit_children() ) { 999 998 maybe_accept( node, &WithStmt::exprs ); 1000 999 { … … 1004 1003 maybe_accept( node, &WithStmt::stmt ); 1005 1004 } 1006 ) 1005 } 1006 1007 1007 VISIT_END( Stmt, node ); 1008 1008 } … … 1022 1022 VISIT_START( node ); 1023 1023 1024 VISIT(1024 if ( __visit_children() ) { 1025 1025 maybe_accept( node, &DeclStmt::decl ); 1026 )1026 } 1027 1027 1028 1028 VISIT_END( Stmt, node ); … … 1037 1037 // For now this isn't visited, it is unclear if this causes problem 1038 1038 // if all tests are known to pass, remove this code 1039 VISIT(1039 if ( __visit_children() ) { 1040 1040 maybe_accept( node, &ImplicitCtorDtorStmt::callStmt ); 1041 )1041 } 1042 1042 1043 1043 VISIT_END( Stmt, node ); … … 1050 1050 VISIT_START( node ); 1051 1051 1052 VISIT({1052 if ( __visit_children() ) { 1053 1053 // mutex statements introduce a level of scope (for the initialization) 1054 1054 guard_symtab guard { *this }; 1055 1055 maybe_accept( node, &MutexStmt::stmt ); 1056 1056 maybe_accept( node, &MutexStmt::mutexObjs ); 1057 } )1057 } 1058 1058 1059 1059 VISIT_END( Stmt, node ); … … 1066 1066 VISIT_START( node ); 1067 1067 1068 VISIT(1068 if ( __visit_children() ) { 1069 1069 { 1070 1070 guard_symtab guard { *this }; … … 1073 1073 maybe_accept( node, &ApplicationExpr::func ); 1074 1074 maybe_accept( node, &ApplicationExpr::args ); 1075 )1075 } 1076 1076 1077 1077 VISIT_END( Expr, node ); … … 1084 1084 VISIT_START( node ); 1085 1085 1086 VISIT(1086 if ( __visit_children() ) { 1087 1087 { 1088 1088 guard_symtab guard { *this }; … … 1091 1091 1092 1092 maybe_accept( node, &UntypedExpr::args ); 1093 )1093 } 1094 1094 1095 1095 VISIT_END( Expr, node ); … … 1102 1102 VISIT_START( node ); 1103 1103 1104 VISIT({1104 if ( __visit_children() ) { 1105 1105 guard_symtab guard { *this }; 1106 1106 maybe_accept( node, &NameExpr::result ); 1107 } )1107 } 1108 1108 1109 1109 VISIT_END( Expr, node ); … … 1116 1116 VISIT_START( node ); 1117 1117 1118 VISIT({ 1118 if ( __visit_children() ) { 1119 { 1119 1120 guard_symtab guard { *this }; 1120 1121 maybe_accept( node, &CastExpr::result ); 1121 1122 } 1122 1123 maybe_accept( node, &CastExpr::arg ); 1123 )1124 } 1124 1125 1125 1126 VISIT_END( Expr, node ); … … 1132 1133 VISIT_START( node ); 1133 1134 1134 VISIT({ 1135 if ( __visit_children() ) { 1136 { 1135 1137 guard_symtab guard { *this }; 1136 1138 maybe_accept( node, &KeywordCastExpr::result ); 1137 1139 } 1138 1140 maybe_accept( node, &KeywordCastExpr::arg ); 1139 )1141 } 1140 1142 1141 1143 VISIT_END( Expr, node ); … … 1148 1150 VISIT_START( node ); 1149 1151 1150 VISIT({ 1152 if ( __visit_children() ) { 1153 { 1151 1154 guard_symtab guard { *this }; 1152 1155 maybe_accept( node, &VirtualCastExpr::result ); 1153 1156 } 1154 1157 maybe_accept( node, &VirtualCastExpr::arg ); 1155 )1158 } 1156 1159 1157 1160 VISIT_END( Expr, node ); … … 1164 1167 VISIT_START( node ); 1165 1168 1166 VISIT({ 1169 if ( __visit_children() ) { 1170 { 1167 1171 guard_symtab guard { *this }; 1168 1172 maybe_accept( node, &AddressExpr::result ); 1169 1173 } 1170 1174 maybe_accept( node, &AddressExpr::arg ); 1171 )1175 } 1172 1176 1173 1177 VISIT_END( Expr, node ); … … 1180 1184 VISIT_START( node ); 1181 1185 1182 VISIT({1186 if ( __visit_children() ) { 1183 1187 guard_symtab guard { *this }; 1184 1188 maybe_accept( node, &LabelAddressExpr::result ); 1185 } )1189 } 1186 1190 1187 1191 VISIT_END( Expr, node ); … … 1194 1198 VISIT_START( node ); 1195 1199 1196 VISIT({ 1200 if ( __visit_children() ) { 1201 { 1197 1202 guard_symtab guard { *this }; 1198 1203 maybe_accept( node, &UntypedMemberExpr::result ); … … 1200 1205 maybe_accept( node, &UntypedMemberExpr::aggregate ); 1201 1206 maybe_accept( node, &UntypedMemberExpr::member ); 1202 )1207 } 1203 1208 1204 1209 VISIT_END( Expr, node ); … … 1211 1216 VISIT_START( node ); 1212 1217 1213 VISIT({ 1218 if ( __visit_children() ) { 1219 { 1214 1220 guard_symtab guard { *this }; 1215 1221 maybe_accept( node, &MemberExpr::result ); 1216 1222 } 1217 1223 maybe_accept( node, &MemberExpr::aggregate ); 1218 )1224 } 1219 1225 1220 1226 VISIT_END( Expr, node ); … … 1227 1233 VISIT_START( node ); 1228 1234 1229 VISIT({1235 if ( __visit_children() ) { 1230 1236 guard_symtab guard { *this }; 1231 1237 maybe_accept( node, &VariableExpr::result ); 1232 } )1238 } 1233 1239 1234 1240 VISIT_END( Expr, node ); … … 1241 1247 VISIT_START( node ); 1242 1248 1243 VISIT({1249 if ( __visit_children() ) { 1244 1250 guard_symtab guard { *this }; 1245 1251 maybe_accept( node, &ConstantExpr::result ); 1246 } )1252 } 1247 1253 1248 1254 VISIT_END( Expr, node ); … … 1255 1261 VISIT_START( node ); 1256 1262 1257 VISIT({ 1263 if ( __visit_children() ) { 1264 { 1258 1265 guard_symtab guard { *this }; 1259 1266 maybe_accept( node, &SizeofExpr::result ); … … 1264 1271 maybe_accept( node, &SizeofExpr::expr ); 1265 1272 } 1266 )1273 } 1267 1274 1268 1275 VISIT_END( Expr, node ); … … 1275 1282 VISIT_START( node ); 1276 1283 1277 VISIT({ 1284 if ( __visit_children() ) { 1285 { 1278 1286 guard_symtab guard { *this }; 1279 1287 maybe_accept( node, &AlignofExpr::result ); … … 1284 1292 maybe_accept( node, &AlignofExpr::expr ); 1285 1293 } 1286 )1294 } 1287 1295 1288 1296 VISIT_END( Expr, node ); … … 1295 1303 VISIT_START( node ); 1296 1304 1297 VISIT({ 1305 if ( __visit_children() ) { 1306 { 1298 1307 guard_symtab guard { *this }; 1299 1308 maybe_accept( node, &UntypedOffsetofExpr::result ); 1300 1309 } 1301 1310 maybe_accept( node, &UntypedOffsetofExpr::type ); 1302 )1311 } 1303 1312 1304 1313 VISIT_END( Expr, node ); … … 1311 1320 VISIT_START( node ); 1312 1321 1313 VISIT({ 1322 if ( __visit_children() ) { 1323 { 1314 1324 guard_symtab guard { *this }; 1315 1325 maybe_accept( node, &OffsetofExpr::result ); 1316 1326 } 1317 1327 maybe_accept( node, &OffsetofExpr::type ); 1318 )1328 } 1319 1329 1320 1330 VISIT_END( Expr, node ); … … 1327 1337 VISIT_START( node ); 1328 1338 1329 VISIT({ 1339 if ( __visit_children() ) { 1340 { 1330 1341 guard_symtab guard { *this }; 1331 1342 maybe_accept( node, &OffsetPackExpr::result ); 1332 1343 } 1333 1344 maybe_accept( node, &OffsetPackExpr::type ); 1334 )1345 } 1335 1346 1336 1347 VISIT_END( Expr, node ); … … 1343 1354 VISIT_START( node ); 1344 1355 1345 VISIT({ 1356 if ( __visit_children() ) { 1357 { 1346 1358 guard_symtab guard { *this }; 1347 1359 maybe_accept( node, &LogicalExpr::result ); … … 1349 1361 maybe_accept( node, &LogicalExpr::arg1 ); 1350 1362 maybe_accept( node, &LogicalExpr::arg2 ); 1351 )1363 } 1352 1364 1353 1365 VISIT_END( Expr, node ); … … 1360 1372 VISIT_START( node ); 1361 1373 1362 VISIT({ 1374 if ( __visit_children() ) { 1375 { 1363 1376 guard_symtab guard { *this }; 1364 1377 maybe_accept( node, &ConditionalExpr::result ); … … 1367 1380 maybe_accept( node, &ConditionalExpr::arg2 ); 1368 1381 maybe_accept( node, &ConditionalExpr::arg3 ); 1369 )1382 } 1370 1383 1371 1384 VISIT_END( Expr, node ); … … 1378 1391 VISIT_START( node ); 1379 1392 1380 VISIT({ 1393 if ( __visit_children() ) { 1394 { 1381 1395 guard_symtab guard { *this }; 1382 1396 maybe_accept( node, &CommaExpr::result ); … … 1384 1398 maybe_accept( node, &CommaExpr::arg1 ); 1385 1399 maybe_accept( node, &CommaExpr::arg2 ); 1386 )1400 } 1387 1401 1388 1402 VISIT_END( Expr, node ); … … 1395 1409 VISIT_START( node ); 1396 1410 1397 VISIT({ 1411 if ( __visit_children() ) { 1412 { 1398 1413 guard_symtab guard { *this }; 1399 1414 maybe_accept( node, &TypeExpr::result ); 1400 1415 } 1401 1416 maybe_accept( node, &TypeExpr::type ); 1402 )1417 } 1403 1418 1404 1419 VISIT_END( Expr, node ); … … 1411 1426 VISIT_START( node ); 1412 1427 1413 VISIT({ 1428 if ( __visit_children() ) { 1429 { 1414 1430 guard_symtab guard { *this }; 1415 1431 maybe_accept( node, &AsmExpr::result ); … … 1417 1433 maybe_accept( node, &AsmExpr::constraint ); 1418 1434 maybe_accept( node, &AsmExpr::operand ); 1419 )1435 } 1420 1436 1421 1437 VISIT_END( Expr, node ); … … 1428 1444 VISIT_START( node ); 1429 1445 1430 VISIT({ 1446 if ( __visit_children() ) { 1447 { 1431 1448 guard_symtab guard { *this }; 1432 1449 maybe_accept( node, &ImplicitCopyCtorExpr::result ); 1433 1450 } 1434 1451 maybe_accept( node, &ImplicitCopyCtorExpr::callExpr ); 1435 )1452 } 1436 1453 1437 1454 VISIT_END( Expr, node ); … … 1444 1461 VISIT_START( node ); 1445 1462 1446 VISIT({ 1463 if ( __visit_children() ) { 1464 { 1447 1465 guard_symtab guard { *this }; 1448 1466 maybe_accept( node, &ConstructorExpr::result ); 1449 1467 } 1450 1468 maybe_accept( node, &ConstructorExpr::callExpr ); 1451 )1469 } 1452 1470 1453 1471 VISIT_END( Expr, node ); … … 1460 1478 VISIT_START( node ); 1461 1479 1462 VISIT({ 1480 if ( __visit_children() ) { 1481 { 1463 1482 guard_symtab guard { *this }; 1464 1483 maybe_accept( node, &CompoundLiteralExpr::result ); 1465 1484 } 1466 1485 maybe_accept( node, &CompoundLiteralExpr::init ); 1467 )1486 } 1468 1487 1469 1488 VISIT_END( Expr, node ); … … 1476 1495 VISIT_START( node ); 1477 1496 1478 VISIT({ 1497 if ( __visit_children() ) { 1498 { 1479 1499 guard_symtab guard { *this }; 1480 1500 maybe_accept( node, &RangeExpr::result ); … … 1482 1502 maybe_accept( node, &RangeExpr::low ); 1483 1503 maybe_accept( node, &RangeExpr::high ); 1484 )1504 } 1485 1505 1486 1506 VISIT_END( Expr, node ); … … 1493 1513 VISIT_START( node ); 1494 1514 1495 VISIT({ 1515 if ( __visit_children() ) { 1516 { 1496 1517 guard_symtab guard { *this }; 1497 1518 maybe_accept( node, &UntypedTupleExpr::result ); 1498 1519 } 1499 1520 maybe_accept( node, &UntypedTupleExpr::exprs ); 1500 )1521 } 1501 1522 1502 1523 VISIT_END( Expr, node ); … … 1509 1530 VISIT_START( node ); 1510 1531 1511 VISIT({ 1532 if ( __visit_children() ) { 1533 { 1512 1534 guard_symtab guard { *this }; 1513 1535 maybe_accept( node, &TupleExpr::result ); 1514 1536 } 1515 1537 maybe_accept( node, &TupleExpr::exprs ); 1516 )1538 } 1517 1539 1518 1540 VISIT_END( Expr, node ); … … 1525 1547 VISIT_START( node ); 1526 1548 1527 VISIT({ 1549 if ( __visit_children() ) { 1550 { 1528 1551 guard_symtab guard { *this }; 1529 1552 maybe_accept( node, &TupleIndexExpr::result ); 1530 1553 } 1531 1554 maybe_accept( node, &TupleIndexExpr::tuple ); 1532 )1555 } 1533 1556 1534 1557 VISIT_END( Expr, node ); … … 1541 1564 VISIT_START( node ); 1542 1565 1543 VISIT({ 1566 if ( __visit_children() ) { 1567 { 1544 1568 guard_symtab guard { *this }; 1545 1569 maybe_accept( node, &TupleAssignExpr::result ); 1546 1570 } 1547 1571 maybe_accept( node, &TupleAssignExpr::stmtExpr ); 1548 )1572 } 1549 1573 1550 1574 VISIT_END( Expr, node ); … … 1557 1581 VISIT_START( node ); 1558 1582 1559 VISIT(// don't want statements from outer CompoundStmts to be added to this StmtExpr 1583 if ( __visit_children() ) { 1584 // don't want statements from outer CompoundStmts to be added to this StmtExpr 1560 1585 // get the stmts that will need to be spliced in 1561 1586 auto stmts_before = __pass::stmtsToAddBefore( core, 0); … … 1574 1599 maybe_accept( node, &StmtExpr::returnDecls ); 1575 1600 maybe_accept( node, &StmtExpr::dtors ); 1576 )1601 } 1577 1602 1578 1603 VISIT_END( Expr, node ); … … 1585 1610 VISIT_START( node ); 1586 1611 1587 VISIT({ 1612 if ( __visit_children() ) { 1613 { 1588 1614 guard_symtab guard { *this }; 1589 1615 maybe_accept( node, &UniqueExpr::result ); 1590 1616 } 1591 1617 maybe_accept( node, &UniqueExpr::expr ); 1592 )1618 } 1593 1619 1594 1620 VISIT_END( Expr, node ); … … 1601 1627 VISIT_START( node ); 1602 1628 1603 VISIT({ 1629 if ( __visit_children() ) { 1630 { 1604 1631 guard_symtab guard { *this }; 1605 1632 maybe_accept( node, &UntypedInitExpr::result ); … … 1607 1634 maybe_accept( node, &UntypedInitExpr::expr ); 1608 1635 // not currently visiting initAlts, but this doesn't matter since this node is only used in the resolver. 1609 )1636 } 1610 1637 1611 1638 VISIT_END( Expr, node ); … … 1618 1645 VISIT_START( node ); 1619 1646 1620 VISIT({ 1647 if ( __visit_children() ) { 1648 { 1621 1649 guard_symtab guard { *this }; 1622 1650 maybe_accept( node, &InitExpr::result ); … … 1624 1652 maybe_accept( node, &InitExpr::expr ); 1625 1653 maybe_accept( node, &InitExpr::designation ); 1626 )1654 } 1627 1655 1628 1656 VISIT_END( Expr, node ); … … 1635 1663 VISIT_START( node ); 1636 1664 1637 VISIT({ 1665 if ( __visit_children() ) { 1666 { 1638 1667 guard_symtab guard { *this }; 1639 1668 maybe_accept( node, &DeletedExpr::result ); … … 1641 1670 maybe_accept( node, &DeletedExpr::expr ); 1642 1671 // don't visit deleteStmt, because it is a pointer to somewhere else in the tree. 1643 )1672 } 1644 1673 1645 1674 VISIT_END( Expr, node ); … … 1652 1681 VISIT_START( node ); 1653 1682 1654 VISIT({ 1683 if ( __visit_children() ) { 1684 { 1655 1685 guard_symtab guard { *this }; 1656 1686 maybe_accept( node, &DefaultArgExpr::result ); 1657 1687 } 1658 1688 maybe_accept( node, &DefaultArgExpr::expr ); 1659 )1689 } 1660 1690 1661 1691 VISIT_END( Expr, node ); … … 1668 1698 VISIT_START( node ); 1669 1699 1670 VISIT({ 1700 if ( __visit_children() ) { 1701 { 1671 1702 guard_symtab guard { *this }; 1672 1703 maybe_accept( node, &GenericExpr::result ); … … 1697 1728 node = n; 1698 1729 } 1699 )1730 } 1700 1731 1701 1732 VISIT_END( Expr, node ); … … 1726 1757 VISIT_START( node ); 1727 1758 1728 VISIT(1759 if ( __visit_children() ) { 1729 1760 // xxx - should PointerType visit/mutate dimension? 1730 1761 maybe_accept( node, &PointerType::base ); 1731 )1762 } 1732 1763 1733 1764 VISIT_END( Type, node ); … … 1740 1771 VISIT_START( node ); 1741 1772 1742 VISIT(1773 if ( __visit_children() ) { 1743 1774 maybe_accept( node, &ArrayType::dimension ); 1744 1775 maybe_accept( node, &ArrayType::base ); 1745 )1776 } 1746 1777 1747 1778 VISIT_END( Type, node ); … … 1754 1785 VISIT_START( node ); 1755 1786 1756 VISIT(1787 if ( __visit_children() ) { 1757 1788 maybe_accept( node, &ReferenceType::base ); 1758 )1789 } 1759 1790 1760 1791 VISIT_END( Type, node ); … … 1767 1798 VISIT_START( node ); 1768 1799 1769 VISIT(1800 if ( __visit_children() ) { 1770 1801 maybe_accept( node, &QualifiedType::parent ); 1771 1802 maybe_accept( node, &QualifiedType::child ); 1772 )1803 } 1773 1804 1774 1805 VISIT_END( Type, node ); … … 1781 1812 VISIT_START( node ); 1782 1813 1783 VISIT({1814 if ( __visit_children() ) { 1784 1815 // guard_forall_subs forall_guard { *this, node }; 1785 1816 // mutate_forall( node ); … … 1787 1818 maybe_accept( node, &FunctionType::returns ); 1788 1819 maybe_accept( node, &FunctionType::params ); 1789 } )1820 } 1790 1821 1791 1822 VISIT_END( Type, node ); … … 1800 1831 __pass::symtab::addStruct( core, 0, node->name ); 1801 1832 1802 VISIT({1833 if ( __visit_children() ) { 1803 1834 guard_symtab guard { *this }; 1804 1835 maybe_accept( node, &StructInstType::params ); 1805 } )1836 } 1806 1837 1807 1838 VISIT_END( Type, node ); … … 1816 1847 __pass::symtab::addUnion( core, 0, node->name ); 1817 1848 1818 VISIT({1849 if ( __visit_children() ) { 1819 1850 guard_symtab guard { *this }; 1820 1851 maybe_accept( node, &UnionInstType::params ); 1821 } )1852 } 1822 1853 1823 1854 VISIT_END( Type, node ); … … 1830 1861 VISIT_START( node ); 1831 1862 1832 VISIT({1863 if ( __visit_children() ) { 1833 1864 maybe_accept( node, &EnumInstType::params ); 1834 } )1865 } 1835 1866 1836 1867 VISIT_END( Type, node ); … … 1843 1874 VISIT_START( node ); 1844 1875 1845 VISIT({1876 if ( __visit_children() ) { 1846 1877 maybe_accept( node, &TraitInstType::params ); 1847 } )1878 } 1848 1879 1849 1880 VISIT_END( Type, node ); … … 1856 1887 VISIT_START( node ); 1857 1888 1858 VISIT(1889 if ( __visit_children() ) { 1859 1890 { 1860 1891 maybe_accept( node, &TypeInstType::params ); … … 1862 1893 // ensure that base re-bound if doing substitution 1863 1894 __pass::forall::replace( core, 0, node ); 1864 )1895 } 1865 1896 1866 1897 VISIT_END( Type, node ); … … 1873 1904 VISIT_START( node ); 1874 1905 1875 VISIT(1906 if ( __visit_children() ) { 1876 1907 maybe_accept( node, &TupleType::types ); 1877 1908 maybe_accept( node, &TupleType::members ); 1878 )1909 } 1879 1910 1880 1911 VISIT_END( Type, node ); … … 1887 1918 VISIT_START( node ); 1888 1919 1889 VISIT(1920 if ( __visit_children() ) { 1890 1921 maybe_accept( node, &TypeofType::expr ); 1891 )1922 } 1892 1923 1893 1924 VISIT_END( Type, node ); … … 1900 1931 VISIT_START( node ); 1901 1932 1902 VISIT(1933 if ( __visit_children() ) { 1903 1934 maybe_accept( node, &VTableType::base ); 1904 )1935 } 1905 1936 1906 1937 VISIT_END( Type, node ); … … 1950 1981 VISIT_START( node ); 1951 1982 1952 VISIT( maybe_accept( node, &Designation::designators ); ) 1983 if ( __visit_children() ) { 1984 maybe_accept( node, &Designation::designators ); 1985 } 1953 1986 1954 1987 VISIT_END( Designation, node ); … … 1961 1994 VISIT_START( node ); 1962 1995 1963 VISIT(1996 if ( __visit_children() ) { 1964 1997 maybe_accept( node, &SingleInit::value ); 1965 )1998 } 1966 1999 1967 2000 VISIT_END( Init, node ); … … 1974 2007 VISIT_START( node ); 1975 2008 1976 VISIT(2009 if ( __visit_children() ) { 1977 2010 maybe_accept( node, &ListInit::designations ); 1978 2011 maybe_accept( node, &ListInit::initializers ); 1979 )2012 } 1980 2013 1981 2014 VISIT_END( Init, node ); … … 1988 2021 VISIT_START( node ); 1989 2022 1990 VISIT(2023 if ( __visit_children() ) { 1991 2024 maybe_accept( node, &ConstructorInit::ctor ); 1992 2025 maybe_accept( node, &ConstructorInit::dtor ); 1993 2026 maybe_accept( node, &ConstructorInit::init ); 1994 )2027 } 1995 2028 1996 2029 VISIT_END( Init, node ); … … 2003 2036 VISIT_START( node ); 2004 2037 2005 VISIT(2038 if ( __visit_children() ) { 2006 2039 maybe_accept( node, &Attribute::params ); 2007 )2040 } 2008 2041 2009 2042 VISIT_END( Attribute, node ); … … 2016 2049 VISIT_START( node ); 2017 2050 2018 VISIT(2051 if ( __visit_children() ) { 2019 2052 { 2020 2053 bool mutated = false; … … 2032 2065 } 2033 2066 } 2034 )2067 } 2035 2068 2036 2069 VISIT_END( TypeSubstitution, node ); … … 2038 2071 2039 2072 #undef VISIT_START 2040 #undef VISIT2041 2073 #undef VISIT_END -
src/AST/Stmt.hpp
rf681823 r376c632a 9 9 // Author : Aaron B. Moss 10 10 // Created On : Wed May 8 13:00:00 2019 11 // Last Modified By : Andrew Beach12 // Last Modified On : Fri May 17 12:45:00 201913 // Update Count : 511 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:38:53 2022 13 // Update Count : 12 14 14 // 15 15 … … 17 17 18 18 #include <list> 19 #include <utility> 19 #include <utility> // for move 20 20 #include <vector> 21 21 22 22 #include "Label.hpp" 23 #include "Node.hpp" 23 #include "Node.hpp" // for node, ptr 24 24 #include "ParseNode.hpp" 25 25 #include "Visitor.hpp" … … 27 27 28 28 // Must be included in *all* AST classes; should be #undef'd at the end of the file 29 #define MUTATE_FRIEND 29 #define MUTATE_FRIEND \ 30 30 template<typename node_t> friend node_t * mutate(const node_t * node); \ 31 31 template<typename node_t> friend node_t * shallowCopy(const node_t * node); 32 32 33 33 namespace ast { 34 35 34 class Expr; 36 35 37 // /Base statement node36 // Base statement node 38 37 class Stmt : public ParseNode { 39 public:38 public: 40 39 std::vector<Label> labels; 41 40 42 41 Stmt( const CodeLocation & loc, std::vector<Label> && labels = {} ) 43 : ParseNode(loc), labels(std::move(labels)) {}42 : ParseNode(loc), labels(std::move(labels)) {} 44 43 45 44 Stmt(const Stmt& o) : ParseNode(o), labels(o.labels) {} 46 45 47 46 const Stmt * accept( Visitor & v ) const override = 0; 48 private:47 private: 49 48 Stmt * clone() const override = 0; 50 49 MUTATE_FRIEND 51 50 }; 52 51 53 // / Compound statement `{ ... }`52 // Compound statement: { ... } 54 53 class CompoundStmt final : public Stmt { 55 public:54 public: 56 55 std::list<ptr<Stmt>> kids; 57 56 58 57 CompoundStmt(const CodeLocation & loc, std::list<ptr<Stmt>> && ks = {}, 59 std::vector<Label>&& labels = {} )60 : Stmt(loc, std::move(labels)), kids(std::move(ks)) {}58 std::vector<Label>&& labels = {} ) 59 : Stmt(loc, std::move(labels)), kids(std::move(ks)) {} 61 60 62 61 CompoundStmt( const CompoundStmt& o ); … … 67 66 68 67 const CompoundStmt * accept( Visitor & v ) const override { return v.visit( this ); } 69 private:68 private: 70 69 CompoundStmt * clone() const override { return new CompoundStmt{ *this }; } 71 70 MUTATE_FRIEND 72 71 }; 73 72 74 // / Empty statment `;`73 // Empty statment: ; 75 74 class NullStmt final : public Stmt { 76 public:75 public: 77 76 NullStmt( const CodeLocation & loc, std::vector<Label> && labels = {} ) 78 : Stmt(loc, std::move(labels)) {}77 : Stmt(loc, std::move(labels)) {} 79 78 80 79 const NullStmt * accept( Visitor & v ) const override { return v.visit( this ); } 81 private:80 private: 82 81 NullStmt * clone() const override { return new NullStmt{ *this }; } 83 82 MUTATE_FRIEND 84 83 }; 85 84 86 // /Expression wrapped by statement85 // Expression wrapped by statement 87 86 class ExprStmt final : public Stmt { 88 public:87 public: 89 88 ptr<Expr> expr; 90 89 91 90 ExprStmt( const CodeLocation& loc, const Expr* e, std::vector<Label>&& labels = {} ) 92 : Stmt(loc, std::move(labels)), expr(e) {}93 94 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 95 private:91 : Stmt(loc, std::move(labels)), expr(e) {} 92 93 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 94 private: 96 95 ExprStmt * clone() const override { return new ExprStmt{ *this }; } 97 96 MUTATE_FRIEND 98 97 }; 99 98 100 // / Assembly statement `asm ... ( "..." : ... )`99 // Assembly statement: asm ... ( "..." : ... ) 101 100 class AsmStmt final : public Stmt { 102 public:101 public: 103 102 bool isVolatile; 104 103 ptr<Expr> instruction; … … 108 107 109 108 AsmStmt( const CodeLocation & loc, bool isVolatile, const Expr * instruction, 110 std::vector<ptr<Expr>> && output, std::vector<ptr<Expr>> && input,111 std::vector<ptr<ConstantExpr>> && clobber, std::vector<Label> && gotoLabels,112 std::vector<Label> && labels = {})113 : Stmt(loc, std::move(labels)), isVolatile(isVolatile), instruction(instruction),114 output(std::move(output)), input(std::move(input)), clobber(std::move(clobber)),115 gotoLabels(std::move(gotoLabels)) {}116 117 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 118 private:109 std::vector<ptr<Expr>> && output, std::vector<ptr<Expr>> && input, 110 std::vector<ptr<ConstantExpr>> && clobber, std::vector<Label> && gotoLabels, 111 std::vector<Label> && labels = {}) 112 : Stmt(loc, std::move(labels)), isVolatile(isVolatile), instruction(instruction), 113 output(std::move(output)), input(std::move(input)), clobber(std::move(clobber)), 114 gotoLabels(std::move(gotoLabels)) {} 115 116 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 117 private: 119 118 AsmStmt * clone() const override { return new AsmStmt{ *this }; } 120 119 MUTATE_FRIEND 121 120 }; 122 121 123 // / C-preprocessor directive `#...`122 // C-preprocessor directive: #... 124 123 class DirectiveStmt final : public Stmt { 125 public:124 public: 126 125 std::string directive; 127 126 128 127 DirectiveStmt( const CodeLocation & loc, const std::string & directive, 129 std::vector<Label> && labels = {} )130 : Stmt(loc, std::move(labels)), directive(directive) {}131 132 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 133 private:128 std::vector<Label> && labels = {} ) 129 : Stmt(loc, std::move(labels)), directive(directive) {} 130 131 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 132 private: 134 133 DirectiveStmt * clone() const override { return new DirectiveStmt{ *this }; } 135 134 MUTATE_FRIEND 136 135 }; 137 136 138 // / If conditional statement `if (...) ... else ...`137 // If statement: if (...) ... else ... 139 138 class IfStmt final : public Stmt { 140 public:139 public: 141 140 ptr<Expr> cond; 142 141 ptr<Stmt> thenPart; … … 145 144 146 145 IfStmt( const CodeLocation & loc, const Expr * cond, const Stmt * thenPart, 147 const Stmt * elsePart = nullptr, std::vector<ptr<Stmt>> && inits = {},148 std::vector<Label> && labels = {} )149 : Stmt(loc, std::move(labels)), cond(cond), thenPart(thenPart), elsePart(elsePart),150 inits(std::move(inits)) {}151 152 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 153 private:146 const Stmt * elsePart = nullptr, std::vector<ptr<Stmt>> && inits = {}, 147 std::vector<Label> && labels = {} ) 148 : Stmt(loc, std::move(labels)), cond(cond), thenPart(thenPart), elsePart(elsePart), 149 inits(std::move(inits)) {} 150 151 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 152 private: 154 153 IfStmt * clone() const override { return new IfStmt{ *this }; } 155 154 MUTATE_FRIEND 156 155 }; 157 156 158 // / Switch or choose conditional statement `switch (...) { ... }`157 // Switch or choose statement: switch (...) { ... } 159 158 class SwitchStmt final : public Stmt { 160 public:159 public: 161 160 ptr<Expr> cond; 162 161 std::vector<ptr<Stmt>> stmts; 163 162 164 163 SwitchStmt( const CodeLocation & loc, const Expr * cond, std::vector<ptr<Stmt>> && stmts, 165 std::vector<Label> && labels = {} )166 : Stmt(loc, std::move(labels)), cond(cond), stmts(std::move(stmts)) {}167 168 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 169 private:164 std::vector<Label> && labels = {} ) 165 : Stmt(loc, std::move(labels)), cond(cond), stmts(std::move(stmts)) {} 166 167 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 168 private: 170 169 SwitchStmt * clone() const override { return new SwitchStmt{ *this }; } 171 170 MUTATE_FRIEND 172 171 }; 173 172 174 // / Case label `case ...:` `default:`173 // Case label: case ...: or default: 175 174 class CaseStmt final : public Stmt { 176 public:177 // /Null for the default label.175 public: 176 // Null for the default label. 178 177 ptr<Expr> cond; 179 178 std::vector<ptr<Stmt>> stmts; 180 179 181 180 CaseStmt( const CodeLocation & loc, const Expr * cond, std::vector<ptr<Stmt>> && stmts, 182 std::vector<Label> && labels = {} )183 : Stmt(loc, std::move(labels)), cond(cond), stmts(std::move(stmts)) {}181 std::vector<Label> && labels = {} ) 182 : Stmt(loc, std::move(labels)), cond(cond), stmts(std::move(stmts)) {} 184 183 185 184 bool isDefault() const { return !cond; } 186 185 187 186 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 188 private:187 private: 189 188 CaseStmt * clone() const override { return new CaseStmt{ *this }; } 190 189 MUTATE_FRIEND 191 190 }; 192 191 193 // / While loop `while (...) ...` `do ... while (...);192 // While loop: while (...) ... else ... or do ... while (...) else ...; 194 193 class WhileStmt final : public Stmt { 195 public:194 public: 196 195 ptr<Expr> cond; 197 196 ptr<Stmt> body; 197 ptr<Stmt> elsePart; 198 198 std::vector<ptr<Stmt>> inits; 199 199 bool isDoWhile; 200 200 201 201 WhileStmt( const CodeLocation & loc, const Expr * cond, const Stmt * body, 202 std::vector<ptr<Stmt>> && inits, bool isDoWhile = false, std::vector<Label> && labels = {} ) 203 : Stmt(loc, std::move(labels)), cond(cond), body(body), inits(std::move(inits)), 204 isDoWhile(isDoWhile) {} 205 206 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 207 private: 202 std::vector<ptr<Stmt>> && inits, bool isDoWhile = false, std::vector<Label> && labels = {} ) 203 : Stmt(loc, std::move(labels)), cond(cond), body(body), inits(std::move(inits)), isDoWhile(isDoWhile) {} 204 205 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 206 private: 208 207 WhileStmt * clone() const override { return new WhileStmt{ *this }; } 209 208 MUTATE_FRIEND 210 209 }; 211 210 212 // / For loop `for (... ; ... ; ...) ...`211 // For loop: for (... ; ... ; ...) ... else ... 213 212 class ForStmt final : public Stmt { 214 public:213 public: 215 214 std::vector<ptr<Stmt>> inits; 216 215 ptr<Expr> cond; 217 216 ptr<Expr> inc; 218 217 ptr<Stmt> body; 218 ptr<Stmt> elsePart; 219 219 220 220 ForStmt( const CodeLocation & loc, std::vector<ptr<Stmt>> && inits, const Expr * cond, 221 const Expr * inc, const Stmt * body, std::vector<Label> && labels = {} ) 222 : Stmt(loc, std::move(labels)), inits(std::move(inits)), cond(cond), inc(inc), 223 body(body) {} 224 225 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 226 private: 221 const Expr * inc, const Stmt * body, std::vector<Label> && labels = {} ) 222 : Stmt(loc, std::move(labels)), inits(std::move(inits)), cond(cond), inc(inc), body(body) {} 223 224 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 225 private: 227 226 ForStmt * clone() const override { return new ForStmt{ *this }; } 228 227 MUTATE_FRIEND 229 228 }; 230 229 231 // / Branch control flow statement `goto ...` `break` `continue` `fallthru`230 // Branch control flow statement: goto ... or break or continue or fallthru 232 231 class BranchStmt final : public Stmt { 233 public:232 public: 234 233 enum Kind { Goto, Break, Continue, FallThrough, FallThroughDefault }; 235 234 static constexpr size_t kindEnd = 1 + (size_t)FallThroughDefault; … … 241 240 242 241 BranchStmt( const CodeLocation & loc, Kind kind, Label target, 243 std::vector<Label> && labels = {} );242 std::vector<Label> && labels = {} ); 244 243 BranchStmt( const CodeLocation & loc, const Expr * computedTarget, 245 std::vector<Label> && labels = {} )246 : Stmt(loc, std::move(labels)), originalTarget(loc), target(loc),247 computedTarget(computedTarget), kind(Goto) {}244 std::vector<Label> && labels = {} ) 245 : Stmt(loc, std::move(labels)), originalTarget(loc), target(loc), 246 computedTarget(computedTarget), kind(Goto) {} 248 247 249 248 const char * kindName() const { return kindNames[kind]; } 250 249 251 250 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 252 private:251 private: 253 252 BranchStmt * clone() const override { return new BranchStmt{ *this }; } 254 253 MUTATE_FRIEND … … 257 256 }; 258 257 259 // / Return statement `return ...`258 // Return statement: return ... 260 259 class ReturnStmt final : public Stmt { 261 public:260 public: 262 261 ptr<Expr> expr; 263 262 264 263 ReturnStmt( const CodeLocation & loc, const Expr * expr, std::vector<Label> && labels = {} ) 265 : Stmt(loc, std::move(labels)), expr(expr) {}266 267 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 268 private:264 : Stmt(loc, std::move(labels)), expr(expr) {} 265 266 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 267 private: 269 268 ReturnStmt * clone() const override { return new ReturnStmt{ *this }; } 270 269 MUTATE_FRIEND 271 270 }; 272 271 273 // /Kind of exception272 // Kind of exception 274 273 enum ExceptionKind { Terminate, Resume }; 275 274 276 // / Throw statement `throw ...`275 // Throw statement: throw ... 277 276 class ThrowStmt final : public Stmt { 278 public:277 public: 279 278 ptr<Expr> expr; 280 279 ptr<Expr> target; … … 284 283 const CodeLocation & loc, ExceptionKind kind, const Expr * expr, const Expr * target, 285 284 std::vector<Label> && labels = {} ) 286 : Stmt(loc, std::move(labels)), expr(expr), target(target), kind(kind) {}287 288 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 289 private:285 : Stmt(loc, std::move(labels)), expr(expr), target(target), kind(kind) {} 286 287 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 288 private: 290 289 ThrowStmt * clone() const override { return new ThrowStmt{ *this }; } 291 290 MUTATE_FRIEND 292 291 }; 293 292 294 // / Try statement `try { ... } ...`293 // Try statement: try { ... } ... 295 294 class TryStmt final : public Stmt { 296 public:295 public: 297 296 ptr<CompoundStmt> body; 298 297 std::vector<ptr<CatchStmt>> handlers; … … 303 302 std::vector<ptr<CatchStmt>> && handlers, const FinallyStmt * finally, 304 303 std::vector<Label> && labels = {} ) 305 : Stmt(loc, std::move(labels)), body(body), handlers(std::move(handlers)), finally(finally) {}306 307 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 308 private:304 : Stmt(loc, std::move(labels)), body(body), handlers(std::move(handlers)), finally(finally) {} 305 306 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 307 private: 309 308 TryStmt * clone() const override { return new TryStmt{ *this }; } 310 309 MUTATE_FRIEND 311 310 }; 312 311 313 // /Catch clause of try statement312 // Catch clause of try statement 314 313 class CatchStmt final : public Stmt { 315 public:314 public: 316 315 ptr<Decl> decl; 317 316 ptr<Expr> cond; … … 322 321 const CodeLocation & loc, ExceptionKind kind, const Decl * decl, const Expr * cond, 323 322 const Stmt * body, std::vector<Label> && labels = {} ) 324 : Stmt(loc, std::move(labels)), decl(decl), cond(cond), body(body), kind(kind) {}325 326 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 327 private:323 : Stmt(loc, std::move(labels)), decl(decl), cond(cond), body(body), kind(kind) {} 324 325 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 326 private: 328 327 CatchStmt * clone() const override { return new CatchStmt{ *this }; } 329 328 MUTATE_FRIEND 330 329 }; 331 330 332 // /Finally clause of try statement331 // Finally clause of try statement 333 332 class FinallyStmt final : public Stmt { 334 public:333 public: 335 334 ptr<CompoundStmt> body; 336 335 337 336 FinallyStmt( const CodeLocation & loc, const CompoundStmt * body, 338 std::vector<Label> && labels = {} )339 : Stmt(loc, std::move(labels)), body(body) {}340 341 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 342 private:337 std::vector<Label> && labels = {} ) 338 : Stmt(loc, std::move(labels)), body(body) {} 339 340 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 341 private: 343 342 FinallyStmt * clone() const override { return new FinallyStmt{ *this }; } 344 343 MUTATE_FRIEND 345 344 }; 346 345 347 // /Suspend statement346 // Suspend statement 348 347 class SuspendStmt final : public Stmt { 349 public:348 public: 350 349 ptr<CompoundStmt> then; 351 350 enum Type { None, Coroutine, Generator } type = None; 352 351 353 352 SuspendStmt( const CodeLocation & loc, const CompoundStmt * then, Type type, std::vector<Label> && labels = {} ) 354 : Stmt(loc, std::move(labels)), then(then), type(type) {}355 356 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 357 private:353 : Stmt(loc, std::move(labels)), then(then), type(type) {} 354 355 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 356 private: 358 357 SuspendStmt * clone() const override { return new SuspendStmt{ *this }; } 359 358 MUTATE_FRIEND 360 359 }; 361 360 362 // / Wait for concurrency statement `when (...) waitfor (... , ...) ... timeout(...) ... else ...`361 // Waitfor statement: when (...) waitfor (... , ...) ... timeout(...) ... else ... 363 362 class WaitForStmt final : public Stmt { 364 public:363 public: 365 364 struct Target { 366 365 ptr<Expr> func; … … 390 389 391 390 WaitForStmt( const CodeLocation & loc, std::vector<Label> && labels = {} ) 392 : Stmt(loc, std::move(labels)) {}393 394 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 395 private:391 : Stmt(loc, std::move(labels)) {} 392 393 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 394 private: 396 395 WaitForStmt * clone() const override { return new WaitForStmt{ *this }; } 397 396 MUTATE_FRIEND 398 397 }; 399 398 400 // /Any declaration in a (compound) statement.399 // Any declaration in a (compound) statement. 401 400 class DeclStmt final : public Stmt { 402 public:401 public: 403 402 ptr<Decl> decl; 404 403 405 404 DeclStmt( const CodeLocation & loc, const Decl * decl, std::vector<Label> && labels = {} ) 406 : Stmt(loc, std::move(labels)), decl(decl) {}407 408 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 409 private:405 : Stmt(loc, std::move(labels)), decl(decl) {} 406 407 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 408 private: 410 409 DeclStmt * clone() const override { return new DeclStmt{ *this }; } 411 410 MUTATE_FRIEND 412 411 }; 413 412 414 // /Represents an implicit application of a constructor or destructor.413 // Represents an implicit application of a constructor or destructor. 415 414 class ImplicitCtorDtorStmt final : public Stmt { 416 public:415 public: 417 416 ptr<Stmt> callStmt; 418 417 419 418 ImplicitCtorDtorStmt( const CodeLocation & loc, const Stmt * callStmt, 420 std::vector<Label> && labels = {} )421 : Stmt(loc, std::move(labels)), callStmt(callStmt) {}422 423 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 424 private:419 std::vector<Label> && labels = {} ) 420 : Stmt(loc, std::move(labels)), callStmt(callStmt) {} 421 422 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 423 private: 425 424 ImplicitCtorDtorStmt * clone() const override { return new ImplicitCtorDtorStmt{ *this }; } 426 425 MUTATE_FRIEND 427 426 }; 428 427 429 // /Mutex Statement428 // Mutex Statement 430 429 class MutexStmt final : public Stmt { 431 public:430 public: 432 431 ptr<Stmt> stmt; 433 432 std::vector<ptr<Expr>> mutexObjs; 434 433 435 434 MutexStmt( const CodeLocation & loc, const Stmt * stmt, 436 std::vector<ptr<Expr>> && mutexes, std::vector<Label> && labels = {} )437 : Stmt(loc, std::move(labels)), stmt(stmt), mutexObjs(std::move(mutexes)) {}438 439 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 440 private:435 std::vector<ptr<Expr>> && mutexes, std::vector<Label> && labels = {} ) 436 : Stmt(loc, std::move(labels)), stmt(stmt), mutexObjs(std::move(mutexes)) {} 437 438 const Stmt * accept( Visitor & v ) const override { return v.visit( this ); } 439 private: 441 440 MutexStmt * clone() const override { return new MutexStmt{ *this }; } 442 441 MUTATE_FRIEND 443 442 }; 444 445 } 443 } // namespace ast 446 444 447 445 #undef MUTATE_FRIEND 448 446 449 447 // Local Variables: // 450 // tab-width: 4 //451 448 // mode: c++ // 452 // compile-command: "make install" //453 449 // End: // -
src/ControlStruct/ExceptTranslateNew.cpp
rf681823 r376c632a 9 9 // Author : Andrew Beach 10 10 // Created On : Mon Nov 8 11:53:00 2021 11 // Last Modified By : Andrew Beach12 // Last Modified On : Mon Nov 8 16:50:00 202113 // Update Count : 011 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 18:49:58 2022 13 // Update Count : 1 14 14 // 15 15 … … 22 22 23 23 namespace ControlStruct { 24 25 namespace {26 24 27 25 class TranslateThrowsCore : public ast::WithGuards { … … 128 126 } 129 127 130 } // namespace131 132 128 void translateThrows( ast::TranslationUnit & transUnit ) { 133 129 ast::Pass<TranslateThrowsCore>::run( transUnit ); -
src/ControlStruct/FixLabels.cpp
rf681823 r376c632a 9 9 // Author : Andrew Beach 10 10 // Created On : Mon Nov 1 09:39:00 2021 11 // Last Modified By : Andrew Beach12 // Last Modified On : Mon Nov 8 10:53:00 202113 // Update Count : 311 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:19:17 2022 13 // Update Count : 9 14 14 // 15 15 … … 20 20 #include "AST/Stmt.hpp" 21 21 #include "ControlStruct/MultiLevelExit.hpp" 22 using namespace ast; 22 23 23 24 namespace ControlStruct { 24 25 namespace { 26 27 class FixLabelsCore final : public ast::WithGuards { 25 class FixLabelsCore final : public WithGuards { 28 26 LabelToStmt labelTable; 29 public:27 public: 30 28 FixLabelsCore() : labelTable() {} 31 29 32 void previsit( const ast::FunctionDecl * );33 const ast::FunctionDecl * postvisit( const ast::FunctionDecl * );34 void previsit( const ast::Stmt * );35 void previsit( const ast::BranchStmt * );36 void previsit( const ast::LabelAddressExpr * );30 void previsit( const FunctionDecl * ); 31 const FunctionDecl * postvisit( const FunctionDecl * ); 32 void previsit( const Stmt * ); 33 void previsit( const BranchStmt * ); 34 void previsit( const LabelAddressExpr * ); 37 35 38 void setLabelsDef( const std::vector< ast::Label> &, const ast::Stmt * );39 void setLabelsUsage( const ast::Label & );36 void setLabelsDef( const std::vector<Label> &, const Stmt * ); 37 void setLabelsUsage( const Label & ); 40 38 }; 41 39 42 void FixLabelsCore::previsit( const ast::FunctionDecl * ) {40 void FixLabelsCore::previsit( const FunctionDecl * ) { 43 41 GuardValue( labelTable ).clear(); 44 42 } 45 43 46 const ast::FunctionDecl * FixLabelsCore::postvisit(47 const ast::FunctionDecl * decl ) {44 const FunctionDecl * FixLabelsCore::postvisit( 45 const FunctionDecl * decl ) { 48 46 if ( nullptr == decl->stmts ) return decl; 49 47 for ( auto kvp : labelTable ) { 50 48 if ( nullptr == kvp.second ) { 51 49 SemanticError( kvp.first.location, 52 "Use of undefined label: " + kvp.first.name );50 "Use of undefined label: " + kvp.first.name ); 53 51 } 54 52 } 55 return ast::mutate_field( decl, &ast::FunctionDecl::stmts,56 multiLevelExitUpdate( decl->stmts.get(), labelTable ) );53 return mutate_field( decl, &FunctionDecl::stmts, 54 multiLevelExitUpdate( decl->stmts.get(), labelTable ) ); 57 55 } 58 56 59 void FixLabelsCore::previsit( const ast::Stmt * stmt ) {57 void FixLabelsCore::previsit( const Stmt * stmt ) { 60 58 if ( !stmt->labels.empty() ) { 61 59 setLabelsDef( stmt->labels, stmt ); … … 63 61 } 64 62 65 void FixLabelsCore::previsit( const ast::BranchStmt * stmt ) {63 void FixLabelsCore::previsit( const BranchStmt * stmt ) { 66 64 if ( !stmt->labels.empty() ) { 67 65 setLabelsDef( stmt->labels, stmt ); … … 72 70 } 73 71 74 void FixLabelsCore::previsit( const ast::LabelAddressExpr * expr ) {72 void FixLabelsCore::previsit( const LabelAddressExpr * expr ) { 75 73 assert( !expr->arg.empty() ); 76 74 setLabelsUsage( expr->arg ); … … 78 76 79 77 void FixLabelsCore::setLabelsDef( 80 const std::vector<ast::Label> & labels, const ast::Stmt * stmt ) {78 const std::vector<Label> & labels, const Stmt * stmt ) { 81 79 assert( !labels.empty() ); 82 80 assert( stmt ); … … 89 87 // Duplicate definition, this is an error. 90 88 SemanticError( label.location, 91 "Duplicate definition of label: " + label.name );89 "Duplicate definition of label: " + label.name ); 92 90 } else { 93 91 // Perviously used, but not defined until now. … … 98 96 99 97 // Label was used, if it is new add it to the table. 100 void FixLabelsCore::setLabelsUsage( const ast::Label & label ) {98 void FixLabelsCore::setLabelsUsage( const Label & label ) { 101 99 if ( labelTable.find( label ) == labelTable.end() ) { 102 100 labelTable[ label ] = nullptr; … … 104 102 } 105 103 106 } // namespace 107 108 void fixLabels( ast::TranslationUnit & translationUnit ) { 109 ast::Pass<FixLabelsCore>::run( translationUnit ); 104 void fixLabels( TranslationUnit & translationUnit ) { 105 Pass<FixLabelsCore>::run( translationUnit ); 110 106 } 111 112 107 } // namespace ControlStruct 113 108 -
src/ControlStruct/FixLabels.hpp
rf681823 r376c632a 9 9 // Author : Andrew Beach 10 10 // Created On : Mon Nov 1 09:36:00 2021 11 // Last Modified By : Andrew Beach12 // Last Modified On : Mon Nov 1 09:40:00 202113 // Update Count : 011 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:18:43 2022 13 // Update Count : 2 14 14 // 15 15 … … 17 17 18 18 namespace ast { 19 19 class TranslationUnit; 20 20 } 21 21 22 22 namespace ControlStruct { 23 24 /// normalizes label definitions and generates multi-level exit labels 23 // normalizes label definitions and generates multi-level exit labels 25 24 void fixLabels( ast::TranslationUnit & translationUnit ); 26 27 25 } 28 26 -
src/ControlStruct/ForExprMutator.h
rf681823 r376c632a 10 10 // Created On : Mon May 18 07:44:20 2015 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Thu Aug 17 15:32:48 201713 // Update Count : 512 // Last Modified On : Sun Jan 30 09:14:46 2022 13 // Update Count : 6 14 14 // 15 15 … … 24 24 class ForExprMutator { 25 25 public: 26 Statement * postmutate( IfStmt * );27 Statement * postmutate( ForStmt * );28 Statement * postmutate( WhileStmt * );26 Statement * postmutate( IfStmt * ); 27 Statement * postmutate( ForStmt * ); 28 Statement * postmutate( WhileStmt * ); 29 29 }; 30 30 } // namespace ControlStruct -
src/ControlStruct/LabelFixer.cc
rf681823 r376c632a 9 9 // Author : Rodolfo G. Esteves 10 10 // Created On : Mon May 18 07:44:20 2015 11 // Last Modified By : Andrew Beach12 // Last Modified On : Tue Jan 21 10:32:00 202013 // Update Count : 16 011 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:28:31 2022 13 // Update Count : 161 14 14 // 15 15 … … 27 27 28 28 namespace ControlStruct { 29 bool LabelFixer::Entry::insideLoop() { 30 return ( dynamic_cast< ForStmt * > ( definition ) || 31 dynamic_cast< WhileStmt * > ( definition ) ); 29 bool LabelFixer::Entry::insideLoop() { 30 return ( dynamic_cast< ForStmt * > ( definition ) || 31 dynamic_cast< WhileStmt * > ( definition ) ); 32 } 33 34 LabelFixer::LabelFixer( LabelGenerator * gen ) : generator ( gen ) { 35 if ( generator == 0 ) 36 generator = LabelGenerator::getGenerator(); 37 } 38 39 void LabelFixer::previsit( FunctionDecl * ) { 40 // need to go into a nested function in a fresh state 41 GuardValue( labelTable ); 42 labelTable.clear(); 43 } 44 45 void LabelFixer::postvisit( FunctionDecl * functionDecl ) { 46 PassVisitor<MultiLevelExitMutator> mlem( resolveJumps(), generator ); 47 // We start in the body so we can stop when we hit another FunctionDecl. 48 maybeMutate( functionDecl->statements, mlem ); 49 } 50 51 // prune to at most one label definition for each statement 52 void LabelFixer::previsit( Statement * stmt ) { 53 std::list< Label > &labels = stmt->get_labels(); 54 55 if ( ! labels.empty() ) { 56 // only remember one label for each statement 57 Label current = setLabelsDef( labels, stmt ); 58 } // if 59 } 60 61 void LabelFixer::previsit( BranchStmt * branchStmt ) { 62 previsit( ( Statement *)branchStmt ); 63 64 // for labeled branches, add an entry to the label table 65 Label target = branchStmt->get_target(); 66 if ( target != "" ) { 67 setLabelsUsg( target, branchStmt ); 68 } 69 } 70 71 void LabelFixer::previsit( LabelAddressExpr * addrExpr ) { 72 Label & target = addrExpr->arg; 73 assert( target != "" ); 74 setLabelsUsg( target, addrExpr ); 75 } 76 77 78 // Sets the definition of the labelTable entry to be the provided statement for every label in 79 // the list parameter. Happens for every kind of statement. 80 Label LabelFixer::setLabelsDef( std::list< Label > & llabel, Statement * definition ) { 81 assert( definition != 0 ); 82 assert( llabel.size() > 0 ); 83 84 for ( std::list< Label >::iterator i = llabel.begin(); i != llabel.end(); i++ ) { 85 Label & l = *i; 86 l.set_statement( definition ); // attach statement to the label to be used later 87 if ( labelTable.find( l ) == labelTable.end() ) { 88 // All labels on this statement need to use the same entry, 89 // so this should only be created once. 90 // undefined and unused until now, add an entry 91 labelTable[ l ] = new Entry( definition ); 92 } else if ( labelTable[ l ]->defined() ) { 93 // defined twice, error 94 SemanticError( l.get_statement()->location, 95 "Duplicate definition of label: " + l.get_name() ); 96 } else { 97 // used previously, but undefined until now -> link with this entry 98 // Question: Is changing objects important? 99 delete labelTable[ l ]; 100 labelTable[ l ] = new Entry( definition ); 101 } // if 102 } // for 103 104 // Produce one of the labels attached to this statement to be temporarily used as the 105 // canonical label. 106 return labelTable[ llabel.front() ]->get_label(); 107 } 108 109 // A label was used, add it to the table if it isn't already there 110 template< typename UsageNode > 111 void LabelFixer::setLabelsUsg( Label orgValue, UsageNode *use ) { 112 assert( use != 0 ); 113 114 // add label with an unknown origin 115 if ( labelTable.find( orgValue ) == labelTable.end() ) { 116 labelTable[ orgValue ] = new Entry( 0 ); 117 } 118 } 119 120 // Builds a table that maps a label to its defining statement. 121 std::map<Label, Statement * > * LabelFixer::resolveJumps() throw ( SemanticErrorException ) { 122 std::map< Label, Statement * > *ret = new std::map< Label, Statement * >(); 123 for ( std::map< Label, Entry * >::iterator i = labelTable.begin(); i != labelTable.end(); ++i ) { 124 if ( ! i->second->defined() ) { 125 SemanticError( i->first.get_statement()->location, "Use of undefined label: " + i->first.get_name() ); 126 } 127 (*ret)[ i->first ] = i->second->get_definition(); 32 128 } 33 129 34 LabelFixer::LabelFixer( LabelGenerator * gen ) : generator ( gen ) { 35 if ( generator == 0 ) 36 generator = LabelGenerator::getGenerator(); 37 } 38 39 void LabelFixer::previsit( FunctionDecl * ) { 40 // need to go into a nested function in a fresh state 41 GuardValue( labelTable ); 42 labelTable.clear(); 43 } 44 45 void LabelFixer::postvisit( FunctionDecl * functionDecl ) { 46 PassVisitor<MultiLevelExitMutator> mlem( resolveJumps(), generator ); 47 // We start in the body so we can stop when we hit another FunctionDecl. 48 maybeMutate( functionDecl->statements, mlem ); 49 } 50 51 // prune to at most one label definition for each statement 52 void LabelFixer::previsit( Statement * stmt ) { 53 std::list< Label > &labels = stmt->get_labels(); 54 55 if ( ! labels.empty() ) { 56 // only remember one label for each statement 57 Label current = setLabelsDef( labels, stmt ); 58 } // if 59 } 60 61 void LabelFixer::previsit( BranchStmt * branchStmt ) { 62 previsit( ( Statement *)branchStmt ); 63 64 // for labeled branches, add an entry to the label table 65 Label target = branchStmt->get_target(); 66 if ( target != "" ) { 67 setLabelsUsg( target, branchStmt ); 68 } 69 } 70 71 void LabelFixer::previsit( LabelAddressExpr * addrExpr ) { 72 Label & target = addrExpr->arg; 73 assert( target != "" ); 74 setLabelsUsg( target, addrExpr ); 75 } 76 77 78 // Sets the definition of the labelTable entry to be the provided statement for every label in 79 // the list parameter. Happens for every kind of statement. 80 Label LabelFixer::setLabelsDef( std::list< Label > & llabel, Statement * definition ) { 81 assert( definition != 0 ); 82 assert( llabel.size() > 0 ); 83 84 for ( std::list< Label >::iterator i = llabel.begin(); i != llabel.end(); i++ ) { 85 Label & l = *i; 86 l.set_statement( definition ); // attach statement to the label to be used later 87 if ( labelTable.find( l ) == labelTable.end() ) { 88 // All labels on this statement need to use the same entry, 89 // so this should only be created once. 90 // undefined and unused until now, add an entry 91 labelTable[ l ] = new Entry( definition ); 92 } else if ( labelTable[ l ]->defined() ) { 93 // defined twice, error 94 SemanticError( l.get_statement()->location, 95 "Duplicate definition of label: " + l.get_name() ); 96 } else { 97 // used previously, but undefined until now -> link with this entry 98 // Question: Is changing objects important? 99 delete labelTable[ l ]; 100 labelTable[ l ] = new Entry( definition ); 101 } // if 102 } // for 103 104 // Produce one of the labels attached to this statement to be temporarily used as the 105 // canonical label. 106 return labelTable[ llabel.front() ]->get_label(); 107 } 108 109 // A label was used, add it to the table if it isn't already there 110 template< typename UsageNode > 111 void LabelFixer::setLabelsUsg( Label orgValue, UsageNode *use ) { 112 assert( use != 0 ); 113 114 // add label with an unknown origin 115 if ( labelTable.find( orgValue ) == labelTable.end() ) { 116 labelTable[ orgValue ] = new Entry( 0 ); 117 } 118 } 119 120 // Builds a table that maps a label to its defining statement. 121 std::map<Label, Statement * > * LabelFixer::resolveJumps() throw ( SemanticErrorException ) { 122 std::map< Label, Statement * > *ret = new std::map< Label, Statement * >(); 123 for ( std::map< Label, Entry * >::iterator i = labelTable.begin(); i != labelTable.end(); ++i ) { 124 if ( ! i->second->defined() ) { 125 SemanticError( i->first.get_statement()->location, "Use of undefined label: " + i->first.get_name() ); 126 } 127 (*ret)[ i->first ] = i->second->get_definition(); 128 } 129 130 return ret; 131 } 130 return ret; 131 } 132 132 } // namespace ControlStruct 133 133 -
src/ControlStruct/LabelFixer.h
rf681823 r376c632a 10 10 // Created On : Mon May 18 07:44:20 2015 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Sat Jul 22 09:17:24 201713 // Update Count : 3 412 // Last Modified On : Mon Jan 31 22:28:04 2022 13 // Update Count : 35 14 14 // 15 15 … … 26 26 27 27 namespace ControlStruct { 28 /// normalizes label definitions and generates multi-level exit labels29 28 // normalizes label definitions and generates multi-level exit labels 29 class LabelGenerator; 30 30 31 32 33 31 class LabelFixer final : public WithGuards { 32 public: 33 LabelFixer( LabelGenerator *gen = 0 ); 34 34 35 35 std::map < Label, Statement * > *resolveJumps() throw ( SemanticErrorException ); 36 36 37 38 39 37 // Declarations 38 void previsit( FunctionDecl *functionDecl ); 39 void postvisit( FunctionDecl *functionDecl ); 40 40 41 42 43 41 // Statements 42 void previsit( Statement *stmt ); 43 void previsit( BranchStmt *branchStmt ); 44 44 45 46 45 // Expressions 46 void previsit( LabelAddressExpr *addrExpr ); 47 47 48 Label setLabelsDef( std::list< Label > &, Statement *definition ); 49 template< typename UsageNode > 50 void setLabelsUsg( Label, UsageNode *usage = 0 ); 48 Label setLabelsDef( std::list< Label > &, Statement *definition ); 49 template< typename UsageNode > 50 void setLabelsUsg( Label, UsageNode *usage = 0 ); 51 52 private: 53 class Entry { 54 public: 55 Entry( Statement *to ) : definition( to ) {} 56 bool defined() { return ( definition != 0 ); } 57 bool insideLoop(); 58 59 Label get_label() const { return label; } 60 void set_label( Label lab ) { label = lab; } 61 62 Statement *get_definition() const { return definition; } 63 void set_definition( Statement *def ) { definition = def; } 51 64 52 65 private: 53 class Entry { 54 public: 55 Entry( Statement *to ) : definition( to ) {} 56 bool defined() { return ( definition != 0 ); } 57 bool insideLoop(); 66 Label label; 67 Statement *definition; 68 }; 58 69 59 Label get_label() const { return label; } 60 void set_label( Label lab ) { label = lab; } 61 62 Statement *get_definition() const { return definition; } 63 void set_definition( Statement *def ) { definition = def; } 64 65 private: 66 Label label; 67 Statement *definition; 68 }; 69 70 std::map < Label, Entry *> labelTable; 71 LabelGenerator *generator; 72 }; 70 std::map < Label, Entry *> labelTable; 71 LabelGenerator *generator; 72 }; 73 73 } // namespace ControlStruct 74 74 -
src/ControlStruct/LabelGenerator.cc
rf681823 r376c632a 9 9 // Author : Rodolfo G. Esteves 10 10 // Created On : Mon May 18 07:44:20 2015 11 // Last Modified By : Andrew Beach12 // Last Modified On : Mon Nov 8 10:18:00 202113 // Update Count : 1711 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:30:26 2022 13 // Update Count : 28 14 14 // 15 15 … … 17 17 #include <sstream> // for ostringstream 18 18 #include <list> // for list 19 using namespace std; 19 20 20 21 #include "LabelGenerator.h" 21 22 22 #include "AST/Attribute.hpp"23 #include "AST/Label.hpp"24 #include "AST/Stmt.hpp"25 23 #include "SynTree/Attribute.h" // for Attribute 26 24 #include "SynTree/Label.h" // for Label, operator<< … … 28 26 29 27 namespace ControlStruct { 30 31 28 int LabelGenerator::current = 0; 32 29 LabelGenerator * LabelGenerator::labelGenerator = nullptr; 33 30 34 LabelGenerator * LabelGenerator::getGenerator() { 35 if ( LabelGenerator::labelGenerator == 0 ) 36 LabelGenerator::labelGenerator = new LabelGenerator(); 37 return labelGenerator; 38 } 39 40 Label LabelGenerator::newLabel( std::string suffix, Statement * stmt ) { 41 std::ostringstream os; 42 os << "__L" << current++ << "__" << suffix; 43 if ( stmt && ! stmt->get_labels().empty() ) { 44 os << "_" << stmt->get_labels().front() << "__"; 45 } // if 46 std::string ret = os.str(); 47 Label l( ret ); 48 l.get_attributes().push_back( new Attribute("unused") ); 49 return l; 50 } 51 52 ast::Label LabelGenerator::newLabel( 53 const std::string & suffix, const ast::Stmt * stmt ) { 54 assert( stmt ); 55 56 std::ostringstream os; 57 os << "__L" << current++ << "__" << suffix; 58 if ( stmt && !stmt->labels.empty() ) { 59 os << "_" << stmt->labels.front() << "__"; 60 } 61 ast::Label ret_label( stmt->location, os.str() ); 62 ret_label.attributes.push_back( new ast::Attribute( "unused" ) ); 63 return ret_label; 31 LabelGenerator * LabelGenerator::getGenerator() { 32 if ( LabelGenerator::labelGenerator == 0 ) 33 LabelGenerator::labelGenerator = new LabelGenerator(); 34 return labelGenerator; 64 35 } 65 36 37 Label LabelGenerator::newLabel( string suffix, Statement * stmt ) { 38 ostringstream os; 39 os << "__L_OLD" << current++ << "__" << suffix; 40 if ( stmt && ! stmt->get_labels().empty() ) { 41 os << "_" << stmt->get_labels().front() << "__"; 42 } // if 43 string ret = os.str(); 44 Label l( ret ); 45 l.get_attributes().push_back( new Attribute( "unused" ) ); 46 return l; 47 } 66 48 } // namespace ControlStruct 67 49 68 50 // Local Variables: // 69 // tab-width: 4 //70 51 // mode: c++ // 71 // compile-command: "make install" //72 52 // End: // -
src/ControlStruct/LabelGenerator.h
rf681823 r376c632a 9 9 // Author : Rodolfo G. Esteves 10 10 // Created On : Mon May 18 07:44:20 2015 11 // Last Modified By : Andrew Beach12 // Last Modified On : Mon Nov 8 10:16:00 202113 // Update Count : 811 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:30:10 2022 13 // Update Count : 16 14 14 // 15 15 … … 21 21 22 22 class Statement; 23 23 24 namespace ast { 24 25 25 class Stmt; 26 class Label; 26 27 } 27 28 28 29 namespace ControlStruct { 29 30 30 class LabelGenerator { 31 31 static int current; 32 32 static LabelGenerator *labelGenerator; 33 protected:33 protected: 34 34 LabelGenerator() {} 35 public:35 public: 36 36 static LabelGenerator *getGenerator(); 37 37 static Label newLabel(std::string suffix, Statement * stmt = nullptr); 38 static ast::Label newLabel( const std::string&, const ast::Stmt * );39 static void reset() { current = 0; }40 static void rewind() { current--; }41 38 }; 42 43 39 } // namespace ControlStruct 44 40 -
src/ControlStruct/MultiLevelExit.cpp
rf681823 r376c632a 9 9 // Author : Andrew Beach 10 10 // Created On : Mon Nov 1 13:48:00 2021 11 // Last Modified By : Andrew Beach12 // Last Modified On : Mon Nov 8 10:56:00 202113 // Update Count : 2 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:35:08 2022 13 // Update Count : 28 14 14 // 15 15 … … 18 18 #include "AST/Pass.hpp" 19 19 #include "AST/Stmt.hpp" 20 #include " ControlStruct/LabelGenerator.h"20 #include "LabelGeneratorNew.hpp" 21 21 22 22 #include <set> 23 using namespace std; 24 using namespace ast; 23 25 24 26 namespace ControlStruct { 25 26 namespace {27 28 27 class Entry { 29 public:30 const ast::Stmt * stmt;31 private:28 public: 29 const Stmt * stmt; 30 private: 32 31 // Organized like a manual ADT. Avoids creating a bunch of dead data. 33 32 struct Target { 34 ast::Label label;33 Label label; 35 34 bool used = false; 36 Target( const ast::Label & label ) : label( label ) {}35 Target( const Label & label ) : label( label ) {} 37 36 Target() : label( CodeLocation() ) {} 38 37 }; … … 41 40 42 41 enum Kind { 43 ForStmt , WhileStmt, CompoundStmt, IfStmt, CaseStmt, SwitchStmt, TryStmt42 ForStmtK, WhileStmtK, CompoundStmtK, IfStmtK, CaseStmtK, SwitchStmtK, TryStmtK 44 43 } kind; 45 44 46 45 bool fallDefaultValid = true; 47 46 48 static ast::Label & useTarget( Target & target ) {47 static Label & useTarget( Target & target ) { 49 48 target.used = true; 50 49 return target.label; 51 50 } 52 51 53 public:54 Entry( const ast::ForStmt * stmt, ast::Label breakExit, ast::Label contExit ) :55 stmt( stmt ), firstTarget( breakExit ), secondTarget( contExit ), kind( ForStmt ) {}56 Entry( const ast::WhileStmt * stmt, ast::Label breakExit, ast::Label contExit ) :57 stmt( stmt ), firstTarget( breakExit ), secondTarget( contExit ), kind( WhileStmt ) {}58 Entry( const ast::CompoundStmt *stmt, ast::Label breakExit ) :59 stmt( stmt ), firstTarget( breakExit ), secondTarget(), kind( CompoundStmt ) {}60 Entry( const ast::IfStmt *stmt, ast::Label breakExit ) :61 stmt( stmt ), firstTarget( breakExit ), secondTarget(), kind( IfStmt ) {}62 Entry( const ast::CaseStmt *stmt, ast::Label fallExit ) :63 stmt( stmt ), firstTarget( fallExit ), secondTarget(), kind( CaseStmt ) {}64 Entry( const ast::SwitchStmt *stmt, ast::Label breakExit, ast::Label fallDefaultExit ) :65 stmt( stmt ), firstTarget( breakExit ), secondTarget( fallDefaultExit ), kind( SwitchStmt ) {}66 Entry( const ast::TryStmt *stmt, ast::Label breakExit ) :67 stmt( stmt ), firstTarget( breakExit ), secondTarget(), kind( TryStmt ) {}68 69 bool isContTarget() const { return kind <= WhileStmt ; }70 bool isBreakTarget() const { return CaseStmt != kind; }71 bool isFallTarget() const { return CaseStmt == kind; }72 bool isFallDefaultTarget() const { return SwitchStmt == kind; }73 74 ast::Label useContExit() { assert( kind <= WhileStmt); return useTarget(secondTarget); }75 ast::Label useBreakExit() { assert( CaseStmt != kind); return useTarget(firstTarget); }76 ast::Label useFallExit() { assert( CaseStmt == kind); return useTarget(firstTarget); }77 ast::Label useFallDefaultExit() { assert( SwitchStmt == kind); return useTarget(secondTarget); }78 79 bool isContUsed() const { assert( kind <= WhileStmt ); return secondTarget.used; }80 bool isBreakUsed() const { assert( CaseStmt != kind); return firstTarget.used; }81 bool isFallUsed() const { assert( CaseStmt == kind); return firstTarget.used; }82 bool isFallDefaultUsed() const { assert( SwitchStmt == kind); return secondTarget.used; }52 public: 53 Entry( const ForStmt * stmt, Label breakExit, Label contExit ) : 54 stmt( stmt ), firstTarget( breakExit ), secondTarget( contExit ), kind( ForStmtK ) {} 55 Entry( const WhileStmt * stmt, Label breakExit, Label contExit ) : 56 stmt( stmt ), firstTarget( breakExit ), secondTarget( contExit ), kind( WhileStmtK ) {} 57 Entry( const CompoundStmt *stmt, Label breakExit ) : 58 stmt( stmt ), firstTarget( breakExit ), secondTarget(), kind( CompoundStmtK ) {} 59 Entry( const IfStmt *stmt, Label breakExit ) : 60 stmt( stmt ), firstTarget( breakExit ), secondTarget(), kind( IfStmtK ) {} 61 Entry( const CaseStmt *stmt, Label fallExit ) : 62 stmt( stmt ), firstTarget( fallExit ), secondTarget(), kind( CaseStmtK ) {} 63 Entry( const SwitchStmt *stmt, Label breakExit, Label fallDefaultExit ) : 64 stmt( stmt ), firstTarget( breakExit ), secondTarget( fallDefaultExit ), kind( SwitchStmtK ) {} 65 Entry( const TryStmt *stmt, Label breakExit ) : 66 stmt( stmt ), firstTarget( breakExit ), secondTarget(), kind( TryStmtK ) {} 67 68 bool isContTarget() const { return kind <= WhileStmtK; } 69 bool isBreakTarget() const { return kind != CaseStmtK; } 70 bool isFallTarget() const { return kind == CaseStmtK; } 71 bool isFallDefaultTarget() const { return kind == SwitchStmtK; } 72 73 Label useContExit() { assert( kind <= WhileStmtK ); return useTarget(secondTarget); } 74 Label useBreakExit() { assert( kind != CaseStmtK ); return useTarget(firstTarget); } 75 Label useFallExit() { assert( kind == CaseStmtK ); return useTarget(firstTarget); } 76 Label useFallDefaultExit() { assert( kind == SwitchStmtK ); return useTarget(secondTarget); } 77 78 bool isContUsed() const { assert( kind <= WhileStmtK ); return secondTarget.used; } 79 bool isBreakUsed() const { assert( kind != CaseStmtK ); return firstTarget.used; } 80 bool isFallUsed() const { assert( kind == CaseStmtK ); return firstTarget.used; } 81 bool isFallDefaultUsed() const { assert( kind == SwitchStmtK ); return secondTarget.used; } 83 82 void seenDefault() { fallDefaultValid = false; } 84 83 bool isFallDefaultValid() const { return fallDefaultValid; } 85 84 }; 86 85 87 // Helper predicates used in std::find_if calls (it doesn't take methods):86 // Helper predicates used in find_if calls (it doesn't take methods): 88 87 bool isBreakTarget( const Entry & entry ) { 89 88 return entry.isBreakTarget(); … … 103 102 104 103 struct MultiLevelExitCore final : 105 public ast::WithVisitorRef<MultiLevelExitCore>,106 public ast::WithShortCircuiting, public ast::WithGuards {104 public WithVisitorRef<MultiLevelExitCore>, 105 public WithShortCircuiting, public WithGuards { 107 106 MultiLevelExitCore( const LabelToStmt & lt ); 108 107 109 void previsit( const ast::FunctionDecl * );110 111 const ast::CompoundStmt * previsit( const ast::CompoundStmt * );112 const ast::BranchStmt * postvisit( const ast::BranchStmt * );113 void previsit( const ast::WhileStmt * );114 const ast::WhileStmt * postvisit( const ast::WhileStmt * );115 void previsit( const ast::ForStmt * );116 const ast::ForStmt * postvisit( const ast::ForStmt * );117 const ast::CaseStmt * previsit( const ast::CaseStmt * );118 void previsit( const ast::IfStmt * );119 const ast::IfStmt * postvisit( const ast::IfStmt * );120 void previsit( const ast::SwitchStmt * );121 const ast::SwitchStmt * postvisit( const ast::SwitchStmt * );122 void previsit( const ast::ReturnStmt * );123 void previsit( const ast::TryStmt * );124 void postvisit( const ast::TryStmt * );125 void previsit( const ast::FinallyStmt * );126 127 const ast::Stmt * mutateLoop( const ast::Stmt * body, Entry& );108 void previsit( const FunctionDecl * ); 109 110 const CompoundStmt * previsit( const CompoundStmt * ); 111 const BranchStmt * postvisit( const BranchStmt * ); 112 void previsit( const WhileStmt * ); 113 const WhileStmt * postvisit( const WhileStmt * ); 114 void previsit( const ForStmt * ); 115 const ForStmt * postvisit( const ForStmt * ); 116 const CaseStmt * previsit( const CaseStmt * ); 117 void previsit( const IfStmt * ); 118 const IfStmt * postvisit( const IfStmt * ); 119 void previsit( const SwitchStmt * ); 120 const SwitchStmt * postvisit( const SwitchStmt * ); 121 void previsit( const ReturnStmt * ); 122 void previsit( const TryStmt * ); 123 void postvisit( const TryStmt * ); 124 void previsit( const FinallyStmt * ); 125 126 const Stmt * mutateLoop( const Stmt * body, Entry& ); 128 127 129 128 const LabelToStmt & target_table; 130 s td::set<ast::Label> fallthrough_labels;131 std::vector<Entry> enclosing_control_structures;132 ast::Label break_label;129 set<Label> fallthrough_labels; 130 vector<Entry> enclosing_control_structures; 131 Label break_label; 133 132 bool inFinally; 134 133 … … 138 137 const LoopNode * posthandleLoopStmt( const LoopNode * loopStmt ); 139 138 140 std::list<ast::ptr<ast::Stmt>> fixBlock(141 const std::list<ast::ptr<ast::Stmt>> & kids, bool caseClause );139 list<ptr<Stmt>> fixBlock( 140 const list<ptr<Stmt>> & kids, bool caseClause ); 142 141 143 142 template<typename UnaryPredicate> 144 143 auto findEnclosingControlStructure( UnaryPredicate pred ) { 145 return std::find_if( enclosing_control_structures.rbegin(),146 enclosing_control_structures.rend(), pred );144 return find_if( enclosing_control_structures.rbegin(), 145 enclosing_control_structures.rend(), pred ); 147 146 } 148 147 }; 149 148 150 ast::NullStmt * labelledNullStmt(151 const CodeLocation & cl, const ast::Label & label ) {152 return new ast::NullStmt( cl, std::vector<ast::Label>{ label } );149 NullStmt * labelledNullStmt( 150 const CodeLocation & cl, const Label & label ) { 151 return new NullStmt( cl, vector<Label>{ label } ); 153 152 } 154 153 … … 158 157 {} 159 158 160 void MultiLevelExitCore::previsit( const ast::FunctionDecl * ) {159 void MultiLevelExitCore::previsit( const FunctionDecl * ) { 161 160 visit_children = false; 162 161 } 163 162 164 const ast::CompoundStmt * MultiLevelExitCore::previsit(165 const ast::CompoundStmt * stmt ) {163 const CompoundStmt * MultiLevelExitCore::previsit( 164 const CompoundStmt * stmt ) { 166 165 visit_children = false; 167 166 bool isLabeled = !stmt->labels.empty(); 168 167 if ( isLabeled ) { 169 ast::Label breakLabel = LabelGenerator::newLabel( "blockBreak", stmt );168 Label breakLabel = newLabel( "blockBreak", stmt ); 170 169 enclosing_control_structures.emplace_back( stmt, breakLabel ); 171 170 GuardAction( [this]() { enclosing_control_structures.pop_back(); } ); 172 171 } 173 172 174 auto mutStmt = ast::mutate( stmt );173 auto mutStmt = mutate( stmt ); 175 174 // A child statement may set the break label. 176 mutStmt->kids = std::move( fixBlock( stmt->kids, false ) );175 mutStmt->kids = move( fixBlock( stmt->kids, false ) ); 177 176 178 177 if ( isLabeled ) { … … 187 186 188 187 size_t getUnusedIndex( 189 const ast::Stmt * stmt, const ast::Label & originalTarget ) {188 const Stmt * stmt, const Label & originalTarget ) { 190 189 const size_t size = stmt->labels.size(); 191 190 192 // If the label is empty, we can skip adding the unused attribute:193 191 // If the label is empty, do not add unused attribute. 192 if ( originalTarget.empty() ) return size; 194 193 195 194 // Search for a label that matches the originalTarget. 196 195 for ( size_t i = 0 ; i < size ; ++i ) { 197 const ast::Label & label = stmt->labels[i];196 const Label & label = stmt->labels[i]; 198 197 if ( label == originalTarget ) { 199 for ( const ast::Attribute * attr : label.attributes ) {198 for ( const Attribute * attr : label.attributes ) { 200 199 if ( attr->name == "unused" ) return size; 201 200 } … … 204 203 } 205 204 assertf( false, "Could not find label '%s' on statement %s", 206 originalTarget.name.c_str(), toString( stmt ).c_str() );207 } 208 209 const ast::Stmt * addUnused(210 const ast::Stmt * stmt, const ast::Label & originalTarget ) {205 originalTarget.name.c_str(), toString( stmt ).c_str() ); 206 } 207 208 const Stmt * addUnused( 209 const Stmt * stmt, const Label & originalTarget ) { 211 210 size_t i = getUnusedIndex( stmt, originalTarget ); 212 211 if ( i == stmt->labels.size() ) { 213 212 return stmt; 214 213 } 215 ast::Stmt * mutStmt = ast::mutate( stmt );216 mutStmt->labels[i].attributes.push_back( new ast::Attribute( "unused" ) );214 Stmt * mutStmt = mutate( stmt ); 215 mutStmt->labels[i].attributes.push_back( new Attribute( "unused" ) ); 217 216 return mutStmt; 218 217 } 219 218 220 const ast::BranchStmt * MultiLevelExitCore::postvisit( const ast::BranchStmt * stmt ) {221 std::vector<Entry>::reverse_iterator targetEntry =219 const BranchStmt * MultiLevelExitCore::postvisit( const BranchStmt * stmt ) { 220 vector<Entry>::reverse_iterator targetEntry = 222 221 enclosing_control_structures.rend(); 223 222 switch ( stmt->kind ) { 224 case ast::BranchStmt::Goto:223 case BranchStmt::Goto: 225 224 return stmt; 226 case ast::BranchStmt::Continue: 227 case ast::BranchStmt::Break: { 228 bool isContinue = stmt->kind == ast::BranchStmt::Continue; 229 // Handle unlabeled break and continue. 230 if ( stmt->target.empty() ) { 231 if ( isContinue ) { 232 targetEntry = findEnclosingControlStructure( isContinueTarget ); 233 } else { 234 if ( enclosing_control_structures.empty() ) { 235 SemanticError( stmt->location, 236 "'break' outside a loop, 'switch', or labelled block" ); 237 } 238 targetEntry = findEnclosingControlStructure( isBreakTarget ); 239 } 240 // Handle labeled break and continue. 241 } else { 242 // Lookup label in table to find attached control structure. 243 targetEntry = findEnclosingControlStructure( 244 [ targetStmt = target_table.at(stmt->target) ](auto entry){ 245 return entry.stmt == targetStmt; 246 } ); 247 } 248 // Ensure that selected target is valid. 249 if ( targetEntry == enclosing_control_structures.rend() || ( isContinue && !isContinueTarget( *targetEntry ) ) ) { 250 SemanticError( 251 stmt->location, 252 toString( (isContinue ? "'continue'" : "'break'"), 253 " target must be an enclosing ", 254 (isContinue ? "loop: " : "control structure: "), 255 stmt->originalTarget ) ); 256 } 257 break; 258 } 259 case ast::BranchStmt::FallThrough: { 260 targetEntry = findEnclosingControlStructure( isFallthroughTarget ); 261 // Check that target is valid. 262 if ( targetEntry == enclosing_control_structures.rend() ) { 263 SemanticError( stmt->location, "'fallthrough' must be enclosed in a 'switch' or 'choose'" ); 264 } 265 if ( !stmt->target.empty() ) { 266 // Labelled fallthrough: target must be a valid fallthough label. 267 if ( !fallthrough_labels.count( stmt->target ) ) { 268 SemanticError( stmt->location, toString( "'fallthrough' target must be a later case statement: ", stmt->originalTarget ) ); 269 } 270 return new ast::BranchStmt( 271 stmt->location, ast::BranchStmt::Goto, stmt->originalTarget ); 272 } 273 break; 274 } 275 case ast::BranchStmt::FallThroughDefault: { 276 targetEntry = findEnclosingControlStructure( isFallthroughDefaultTarget ); 277 278 // Check that this is in a switch or choose statement. 279 if ( targetEntry == enclosing_control_structures.rend() ) { 280 SemanticError( stmt->location, "'fallthrough' must be enclosed in a 'switch' or 'choose'" ); 281 } 282 283 // Check that the switch or choose has a default clause. 284 auto switchStmt = strict_dynamic_cast< const ast::SwitchStmt * >( 285 targetEntry->stmt ); 286 bool foundDefault = false; 287 for ( auto subStmt : switchStmt->stmts ) { 288 const ast::CaseStmt * caseStmt = subStmt.strict_as<ast::CaseStmt>(); 289 if ( caseStmt->isDefault() ) { 290 foundDefault = true; 291 break; 292 } 293 } 294 if ( !foundDefault ) { 295 SemanticError( stmt->location, "'fallthrough default' must be enclosed in a 'switch' or 'choose' control structure with a 'default' clause" ); 296 } 297 break; 298 } 299 default: 225 case BranchStmt::Continue: 226 case BranchStmt::Break: { 227 bool isContinue = stmt->kind == BranchStmt::Continue; 228 // Handle unlabeled break and continue. 229 if ( stmt->target.empty() ) { 230 if ( isContinue ) { 231 targetEntry = findEnclosingControlStructure( isContinueTarget ); 232 } else { 233 if ( enclosing_control_structures.empty() ) { 234 SemanticError( stmt->location, 235 "'break' outside a loop, 'switch', or labelled block" ); 236 } 237 targetEntry = findEnclosingControlStructure( isBreakTarget ); 238 } 239 // Handle labeled break and continue. 240 } else { 241 // Lookup label in table to find attached control structure. 242 targetEntry = findEnclosingControlStructure( 243 [ targetStmt = target_table.at(stmt->target) ](auto entry){ 244 return entry.stmt == targetStmt; 245 } ); 246 } 247 // Ensure that selected target is valid. 248 if ( targetEntry == enclosing_control_structures.rend() || ( isContinue && !isContinueTarget( *targetEntry ) ) ) { 249 SemanticError( stmt->location, toString( (isContinue ? "'continue'" : "'break'"), 250 " target must be an enclosing ", (isContinue ? "loop: " : "control structure: "), 251 stmt->originalTarget ) ); 252 } 253 break; 254 } 255 case BranchStmt::FallThrough: { 256 targetEntry = findEnclosingControlStructure( isFallthroughTarget ); 257 // Check that target is valid. 258 if ( targetEntry == enclosing_control_structures.rend() ) { 259 SemanticError( stmt->location, "'fallthrough' must be enclosed in a 'switch' or 'choose'" ); 260 } 261 if ( !stmt->target.empty() ) { 262 // Labelled fallthrough: target must be a valid fallthough label. 263 if ( !fallthrough_labels.count( stmt->target ) ) { 264 SemanticError( stmt->location, toString( "'fallthrough' target must be a later case statement: ", 265 stmt->originalTarget ) ); 266 } 267 return new BranchStmt( 268 stmt->location, BranchStmt::Goto, stmt->originalTarget ); 269 } 270 break; 271 } 272 case BranchStmt::FallThroughDefault: { 273 targetEntry = findEnclosingControlStructure( isFallthroughDefaultTarget ); 274 275 // Check if in switch or choose statement. 276 if ( targetEntry == enclosing_control_structures.rend() ) { 277 SemanticError( stmt->location, "'fallthrough' must be enclosed in a 'switch' or 'choose'" ); 278 } 279 280 // Check if switch or choose has default clause. 281 auto switchStmt = strict_dynamic_cast< const SwitchStmt * >( targetEntry->stmt ); 282 bool foundDefault = false; 283 for ( auto subStmt : switchStmt->stmts ) { 284 const CaseStmt * caseStmt = subStmt.strict_as<CaseStmt>(); 285 if ( caseStmt->isDefault() ) { 286 foundDefault = true; 287 break; 288 } 289 } 290 if ( ! foundDefault ) { 291 SemanticError( stmt->location, "'fallthrough default' must be enclosed in a 'switch' or 'choose'" 292 "control structure with a 'default' clause" ); 293 } 294 break; 295 } 296 default: 300 297 assert( false ); 301 298 } 302 299 303 300 // Branch error checks: get the appropriate label name: 304 // (This label will always bereplaced.)305 ast::Label exitLabel( CodeLocation(), "" );301 // (This label is always replaced.) 302 Label exitLabel( CodeLocation(), "" ); 306 303 switch ( stmt->kind ) { 307 case ast::BranchStmt::Break:304 case BranchStmt::Break: 308 305 assert( !targetEntry->useBreakExit().empty() ); 309 306 exitLabel = targetEntry->useBreakExit(); 310 307 break; 311 case ast::BranchStmt::Continue:308 case BranchStmt::Continue: 312 309 assert( !targetEntry->useContExit().empty() ); 313 310 exitLabel = targetEntry->useContExit(); 314 311 break; 315 case ast::BranchStmt::FallThrough:312 case BranchStmt::FallThrough: 316 313 assert( !targetEntry->useFallExit().empty() ); 317 314 exitLabel = targetEntry->useFallExit(); 318 315 break; 319 case ast::BranchStmt::FallThroughDefault:316 case BranchStmt::FallThroughDefault: 320 317 assert( !targetEntry->useFallDefaultExit().empty() ); 321 318 exitLabel = targetEntry->useFallDefaultExit(); 322 319 // Check that fallthrough default comes before the default clause. 323 320 if ( !targetEntry->isFallDefaultValid() ) { 324 SemanticError( stmt->location, 325 "'fallthrough default' must precede the 'default' clause" ); 321 SemanticError( stmt->location, "'fallthrough default' must precede the 'default' clause" ); 326 322 } 327 323 break; 328 default:324 default: 329 325 assert(0); 330 326 } … … 333 329 targetEntry->stmt = addUnused( targetEntry->stmt, stmt->originalTarget ); 334 330 335 // Replace this with agoto to make later passes more uniform.336 return new ast::BranchStmt( stmt->location, ast::BranchStmt::Goto, exitLabel );337 } 338 339 void MultiLevelExitCore::previsit( const ast::WhileStmt * stmt ) {331 // Replace with goto to make later passes more uniform. 332 return new BranchStmt( stmt->location, BranchStmt::Goto, exitLabel ); 333 } 334 335 void MultiLevelExitCore::previsit( const WhileStmt * stmt ) { 340 336 return prehandleLoopStmt( stmt ); 341 337 } 342 338 343 const ast::WhileStmt * MultiLevelExitCore::postvisit( const ast::WhileStmt * stmt ) {339 const WhileStmt * MultiLevelExitCore::postvisit( const WhileStmt * stmt ) { 344 340 return posthandleLoopStmt( stmt ); 345 341 } 346 342 347 void MultiLevelExitCore::previsit( const ast::ForStmt * stmt ) {343 void MultiLevelExitCore::previsit( const ForStmt * stmt ) { 348 344 return prehandleLoopStmt( stmt ); 349 345 } 350 346 351 const ast::ForStmt * MultiLevelExitCore::postvisit( const ast::ForStmt * stmt ) {347 const ForStmt * MultiLevelExitCore::postvisit( const ForStmt * stmt ) { 352 348 return posthandleLoopStmt( stmt ); 353 349 } … … 355 351 // Mimic what the built-in push_front would do anyways. It is O(n). 356 352 void push_front( 357 std::vector<ast::ptr<ast::Stmt>> & vec, const ast::Stmt * element ) {353 vector<ptr<Stmt>> & vec, const Stmt * element ) { 358 354 vec.emplace_back( nullptr ); 359 355 for ( size_t i = vec.size() - 1 ; 0 < i ; --i ) { 360 vec[ i ] = std::move( vec[ i - 1 ] );356 vec[ i ] = move( vec[ i - 1 ] ); 361 357 } 362 358 vec[ 0 ] = element; 363 359 } 364 360 365 const ast::CaseStmt * MultiLevelExitCore::previsit( const ast::CaseStmt * stmt ) {361 const CaseStmt * MultiLevelExitCore::previsit( const CaseStmt * stmt ) { 366 362 visit_children = false; 367 363 368 // If it is the default, mark the default asseen.364 // If default, mark seen. 369 365 if ( stmt->isDefault() ) { 370 366 assert( !enclosing_control_structures.empty() ); … … 373 369 374 370 // The cond may not exist, but if it does update it now. 375 visitor->maybe_accept( stmt, & ast::CaseStmt::cond );371 visitor->maybe_accept( stmt, &CaseStmt::cond ); 376 372 377 373 // Just save the mutated node for simplicity. 378 ast::CaseStmt * mutStmt = ast::mutate( stmt );379 380 ast::Label fallLabel = LabelGenerator::newLabel( "fallThrough", stmt );381 if ( ! mutStmt->stmts.empty() ) {374 CaseStmt * mutStmt = mutate( stmt ); 375 376 Label fallLabel = newLabel( "fallThrough", stmt ); 377 if ( ! mutStmt->stmts.empty() ) { 382 378 // Ensure that the stack isn't corrupted by exceptions in fixBlock. 383 379 auto guard = makeFuncGuard( 384 380 [&](){ enclosing_control_structures.emplace_back( mutStmt, fallLabel ); }, 385 381 [this](){ enclosing_control_structures.pop_back(); } 386 );382 ); 387 383 388 384 // These should already be in a block. 389 auto block = ast::mutate( mutStmt->stmts.front().strict_as<ast::CompoundStmt>() );385 auto block = mutate( mutStmt->stmts.front().strict_as<CompoundStmt>() ); 390 386 block->kids = fixBlock( block->kids, true ); 391 387 392 388 // Add fallthrough label if necessary. 393 assert( ! enclosing_control_structures.empty() );389 assert( ! enclosing_control_structures.empty() ); 394 390 Entry & entry = enclosing_control_structures.back(); 395 391 if ( entry.isFallUsed() ) { … … 398 394 } 399 395 } 400 assert( ! enclosing_control_structures.empty() );396 assert( ! enclosing_control_structures.empty() ); 401 397 Entry & entry = enclosing_control_structures.back(); 402 assertf( dynamic_cast< const ast::SwitchStmt * >( entry.stmt ),403 "Control structure enclosing a case clause must be a switch, but is: %s",404 toString( entry.stmt ).c_str() );398 assertf( dynamic_cast< const SwitchStmt * >( entry.stmt ), 399 "Control structure enclosing a case clause must be a switch, but is: %s", 400 toString( entry.stmt ).c_str() ); 405 401 if ( mutStmt->isDefault() ) { 406 402 if ( entry.isFallDefaultUsed() ) { 407 403 // Add fallthrough default label if necessary. 408 404 push_front( mutStmt->stmts, labelledNullStmt( 409 stmt->location, entry.useFallDefaultExit()410 ) );405 stmt->location, entry.useFallDefaultExit() 406 ) ); 411 407 } 412 408 } … … 414 410 } 415 411 416 void MultiLevelExitCore::previsit( const ast::IfStmt * stmt ) {412 void MultiLevelExitCore::previsit( const IfStmt * stmt ) { 417 413 bool labeledBlock = !stmt->labels.empty(); 418 414 if ( labeledBlock ) { 419 ast::Label breakLabel = LabelGenerator::newLabel( "blockBreak", stmt );415 Label breakLabel = newLabel( "blockBreak", stmt ); 420 416 enclosing_control_structures.emplace_back( stmt, breakLabel ); 421 417 GuardAction( [this](){ enclosing_control_structures.pop_back(); } ); … … 423 419 } 424 420 425 const ast::IfStmt * MultiLevelExitCore::postvisit( const ast::IfStmt * stmt ) {421 const IfStmt * MultiLevelExitCore::postvisit( const IfStmt * stmt ) { 426 422 bool labeledBlock = !stmt->labels.empty(); 427 423 if ( labeledBlock ) { … … 434 430 } 435 431 436 bool isDefaultCase( const ast::ptr<ast::Stmt> & stmt ) {437 const ast::CaseStmt * caseStmt = stmt.strict_as<ast::CaseStmt>();432 bool isDefaultCase( const ptr<Stmt> & stmt ) { 433 const CaseStmt * caseStmt = stmt.strict_as<CaseStmt>(); 438 434 return caseStmt->isDefault(); 439 435 } 440 436 441 void MultiLevelExitCore::previsit( const ast::SwitchStmt * stmt ) {442 ast::Label label = LabelGenerator::newLabel( "switchBreak", stmt );443 auto it = std::find_if( stmt->stmts.rbegin(), stmt->stmts.rend(), isDefaultCase );444 445 const ast::CaseStmt * defaultCase = it != stmt->stmts.rend()446 ? (it)->strict_as< ast::CaseStmt>() : nullptr;447 ast::Label defaultLabel = defaultCase448 ? LabelGenerator::newLabel( "fallThroughDefault", defaultCase )449 : ast::Label( stmt->location, "" );437 void MultiLevelExitCore::previsit( const SwitchStmt * stmt ) { 438 Label label = newLabel( "switchBreak", stmt ); 439 auto it = find_if( stmt->stmts.rbegin(), stmt->stmts.rend(), isDefaultCase ); 440 441 const CaseStmt * defaultCase = it != stmt->stmts.rend() 442 ? (it)->strict_as<CaseStmt>() : nullptr; 443 Label defaultLabel = defaultCase 444 ? newLabel( "fallThroughDefault", defaultCase ) 445 : Label( stmt->location, "" ); 450 446 enclosing_control_structures.emplace_back( stmt, label, defaultLabel ); 451 447 GuardAction( [this]() { enclosing_control_structures.pop_back(); } ); 452 448 453 449 // Collect valid labels for fallthrough. It starts with all labels at 454 // this level, then remove d as we see them intraversal.455 for ( const ast::Stmt * stmt : stmt->stmts ) {456 auto * caseStmt = strict_dynamic_cast< const ast::CaseStmt * >( stmt );450 // this level, then remove as each is seen during traversal. 451 for ( const Stmt * stmt : stmt->stmts ) { 452 auto * caseStmt = strict_dynamic_cast< const CaseStmt * >( stmt ); 457 453 if ( caseStmt->stmts.empty() ) continue; 458 auto block = caseStmt->stmts.front().strict_as< ast::CompoundStmt>();459 for ( const ast::Stmt * stmt : block->kids ) {460 for ( const ast::Label & l : stmt->labels ) {454 auto block = caseStmt->stmts.front().strict_as<CompoundStmt>(); 455 for ( const Stmt * stmt : block->kids ) { 456 for ( const Label & l : stmt->labels ) { 461 457 fallthrough_labels.insert( l ); 462 458 } … … 465 461 } 466 462 467 const ast::SwitchStmt * MultiLevelExitCore::postvisit( const ast::SwitchStmt * stmt ) {463 const SwitchStmt * MultiLevelExitCore::postvisit( const SwitchStmt * stmt ) { 468 464 assert( !enclosing_control_structures.empty() ); 469 465 Entry & entry = enclosing_control_structures.back(); 470 466 assert( entry.stmt == stmt ); 471 467 472 // Only run if we needto generate the break label.468 // Only run to generate the break label. 473 469 if ( entry.isBreakUsed() ) { 474 470 // To keep the switch statements uniform (all direct children of a 475 471 // SwitchStmt should be CastStmts), append the exit label and break 476 472 // to the last case, create a default case is there are no cases. 477 ast::SwitchStmt * mutStmt = ast::mutate( stmt );473 SwitchStmt * mutStmt = mutate( stmt ); 478 474 if ( mutStmt->stmts.empty() ) { 479 mutStmt->stmts.push_back( new ast::CaseStmt(480 mutStmt->location, nullptr, {} ));481 } 482 483 auto caseStmt = mutStmt->stmts.back().strict_as< ast::CaseStmt>();484 auto mutCase = ast::mutate( caseStmt );475 mutStmt->stmts.push_back( new CaseStmt( 476 mutStmt->location, nullptr, {} )); 477 } 478 479 auto caseStmt = mutStmt->stmts.back().strict_as<CaseStmt>(); 480 auto mutCase = mutate( caseStmt ); 485 481 mutStmt->stmts.back() = mutCase; 486 482 487 ast::Label label( mutCase->location, "breakLabel" );488 auto branch = new ast::BranchStmt( mutCase->location, ast::BranchStmt::Break, label );483 Label label( mutCase->location, "breakLabel" ); 484 auto branch = new BranchStmt( mutCase->location, BranchStmt::Break, label ); 489 485 branch->labels.push_back( entry.useBreakExit() ); 490 486 mutCase->stmts.push_back( branch ); … … 495 491 } 496 492 497 void MultiLevelExitCore::previsit( const ast::ReturnStmt * stmt ) {493 void MultiLevelExitCore::previsit( const ReturnStmt * stmt ) { 498 494 if ( inFinally ) { 499 495 SemanticError( stmt->location, "'return' may not appear in a finally clause" ); … … 501 497 } 502 498 503 void MultiLevelExitCore::previsit( const ast::TryStmt * stmt ) {499 void MultiLevelExitCore::previsit( const TryStmt * stmt ) { 504 500 bool isLabeled = !stmt->labels.empty(); 505 501 if ( isLabeled ) { 506 ast::Label breakLabel = LabelGenerator::newLabel( "blockBreak", stmt );502 Label breakLabel = newLabel( "blockBreak", stmt ); 507 503 enclosing_control_structures.emplace_back( stmt, breakLabel ); 508 504 GuardAction([this](){ enclosing_control_structures.pop_back(); } ); … … 510 506 } 511 507 512 void MultiLevelExitCore::postvisit( const ast::TryStmt * stmt ) {508 void MultiLevelExitCore::postvisit( const TryStmt * stmt ) { 513 509 bool isLabeled = !stmt->labels.empty(); 514 510 if ( isLabeled ) { … … 520 516 } 521 517 522 void MultiLevelExitCore::previsit( const ast::FinallyStmt * ) {523 GuardAction([this, old = std::move(enclosing_control_structures)](){524 enclosing_control_structures = std::move(old);525 });526 enclosing_control_structures = std::vector<Entry>();518 void MultiLevelExitCore::previsit( const FinallyStmt * ) { 519 GuardAction([this, old = move(enclosing_control_structures)](){ 520 enclosing_control_structures = move(old); 521 }); 522 enclosing_control_structures = vector<Entry>(); 527 523 GuardValue( inFinally ) = true; 528 524 } 529 525 530 const ast::Stmt * MultiLevelExitCore::mutateLoop(531 const ast::Stmt * body, Entry & entry ) {526 const Stmt * MultiLevelExitCore::mutateLoop( 527 const Stmt * body, Entry & entry ) { 532 528 if ( entry.isBreakUsed() ) { 533 529 break_label = entry.useBreakExit(); … … 535 531 536 532 if ( entry.isContUsed() ) { 537 ast::CompoundStmt * new_body = new ast::CompoundStmt( body->location );533 CompoundStmt * new_body = new CompoundStmt( body->location ); 538 534 new_body->kids.push_back( body ); 539 535 new_body->kids.push_back( … … 549 545 // Remember is loop before going onto mutate the body. 550 546 // The labels will be folded in if they are used. 551 ast::Label breakLabel = LabelGenerator::newLabel( "loopBreak", loopStmt );552 ast::Label contLabel = LabelGenerator::newLabel( "loopContinue", loopStmt );547 Label breakLabel = newLabel( "loopBreak", loopStmt ); 548 Label contLabel = newLabel( "loopContinue", loopStmt ); 553 549 enclosing_control_structures.emplace_back( loopStmt, breakLabel, contLabel ); 554 550 GuardAction( [this](){ enclosing_control_structures.pop_back(); } ); … … 561 557 assert( entry.stmt == loopStmt ); 562 558 563 // Now wecheck if the labels are used and add them if so.564 return ast::mutate_field(559 // Now check if the labels are used and add them if so. 560 return mutate_field( 565 561 loopStmt, &LoopNode::body, mutateLoop( loopStmt->body, entry ) ); 566 562 } 567 563 568 std::list<ast::ptr<ast::Stmt>> MultiLevelExitCore::fixBlock(569 const std::list<ast::ptr<ast::Stmt>> & kids, bool is_case_clause ) {570 // Unfortunately we can't use the automatic error collection.564 list<ptr<Stmt>> MultiLevelExitCore::fixBlock( 565 const list<ptr<Stmt>> & kids, bool is_case_clause ) { 566 // Unfortunately cannot use automatic error collection. 571 567 SemanticErrorException errors; 572 568 573 std::list<ast::ptr<ast::Stmt>> ret;569 list<ptr<Stmt>> ret; 574 570 575 571 // Manually visit each child. 576 for ( const ast::ptr<ast::Stmt> & kid : kids ) {572 for ( const ptr<Stmt> & kid : kids ) { 577 573 if ( is_case_clause ) { 578 574 // Once a label is seen, it's no longer a valid for fallthrough. 579 for ( const ast::Label & l : kid->labels ) {575 for ( const Label & l : kid->labels ) { 580 576 fallthrough_labels.erase( l ); 581 577 } … … 591 587 ret.push_back( 592 588 labelledNullStmt( ret.back()->location, break_label ) ); 593 break_label = ast::Label( CodeLocation(), "" );589 break_label = Label( CodeLocation(), "" ); 594 590 } 595 591 } … … 601 597 } 602 598 603 } // namespace 604 605 const ast::CompoundStmt * multiLevelExitUpdate( 606 const ast::CompoundStmt * stmt, 607 const LabelToStmt & labelTable ) { 599 const CompoundStmt * multiLevelExitUpdate( 600 const CompoundStmt * stmt, 601 const LabelToStmt & labelTable ) { 608 602 // Must start in the body, so FunctionDecls can be a stopping point. 609 ast::Pass<MultiLevelExitCore> visitor( labelTable );610 const ast::CompoundStmt * ret = stmt->accept( visitor );603 Pass<MultiLevelExitCore> visitor( labelTable ); 604 const CompoundStmt * ret = stmt->accept( visitor ); 611 605 return ret; 612 606 } 613 614 607 } // namespace ControlStruct 615 608 -
src/ControlStruct/MultiLevelExit.hpp
rf681823 r376c632a 9 9 // Author : Andrew Beach 10 10 // Created On : Mon Nov 1 13:49:00 2021 11 // Last Modified By : Andrew Beach12 // Last Modified On : Mon Nov 8 10:53:00 202113 // Update Count : 311 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Mon Jan 31 22:34:06 2022 13 // Update Count : 6 14 14 // 15 15 … … 19 19 20 20 namespace ast { 21 22 23 21 class CompoundStmt; 22 class Label; 23 class Stmt; 24 24 } 25 25 26 26 namespace ControlStruct { 27 28 27 using LabelToStmt = std::map<ast::Label, const ast::Stmt *>; 29 28 30 /// Mutate a function body to handle multi-level exits. 31 const ast::CompoundStmt * multiLevelExitUpdate( 32 const ast::CompoundStmt *, const LabelToStmt & ); 33 29 // Mutate a function body to handle multi-level exits. 30 const ast::CompoundStmt * multiLevelExitUpdate( const ast::CompoundStmt *, const LabelToStmt & ); 34 31 } 35 32 -
src/ControlStruct/module.mk
rf681823 r376c632a 10 10 ## Author : Richard C. Bilson 11 11 ## Created On : Mon Jun 1 17:49:17 2015 12 ## Last Modified By : Henry Xue13 ## Last Modified On : Tue Jul 20 04:10:50 202114 ## Update Count : 512 ## Last Modified By : Peter A. Buhr 13 ## Last Modified On : Sat Jan 29 12:04:19 2022 14 ## Update Count : 7 15 15 ############################################################################### 16 16 … … 22 22 ControlStruct/ForExprMutator.cc \ 23 23 ControlStruct/ForExprMutator.h \ 24 ControlStruct/HoistControlDecls.cpp \ 25 ControlStruct/HoistControlDecls.hpp \ 24 26 ControlStruct/LabelFixer.cc \ 25 27 ControlStruct/LabelFixer.h \ 26 28 ControlStruct/LabelGenerator.cc \ 27 29 ControlStruct/LabelGenerator.h \ 30 ControlStruct/LabelGeneratorNew.cpp \ 31 ControlStruct/LabelGeneratorNew.hpp \ 28 32 ControlStruct/MLEMutator.cc \ 29 33 ControlStruct/MLEMutator.h \ -
src/InitTweak/InitTweak.cc
rf681823 r376c632a 10 10 // Created On : Fri May 13 11:26:36 2016 11 11 // Last Modified By : Andrew Beach 12 // Last Modified On : Fri Nov 19 19:22:00 202113 // Update Count : 1912 // Last Modified On : Mon Dec 6 13:21:00 2021 13 // Update Count : 20 14 14 // 15 15 … … 1191 1191 } 1192 1192 1193 bool isCopyFunction( const ast::FunctionDecl * decl ) { 1194 const ast::FunctionType * ftype = decl->type; 1195 if ( ftype->params.size() != 2 ) return false; 1196 1197 const ast::Type * t1 = getPointerBase( ftype->params.front() ); 1198 if ( ! t1 ) return false; 1199 const ast::Type * t2 = ftype->params.back(); 1200 1201 return ResolvExpr::typesCompatibleIgnoreQualifiers( t1, t2, ast::SymbolTable{} ); 1202 } 1193 bool isAssignment( const ast::FunctionDecl * decl ) { 1194 return isAssignment( decl->name ) && isCopyFunction( decl ); 1195 } 1196 1197 bool isDestructor( const ast::FunctionDecl * decl ) { 1198 return isDestructor( decl->name ); 1199 } 1200 1201 bool isDefaultConstructor( const ast::FunctionDecl * decl ) { 1202 return isConstructor( decl->name ) && 1 == decl->params.size(); 1203 } 1204 1205 bool isCopyConstructor( const ast::FunctionDecl * decl ) { 1206 return isConstructor( decl->name ) && 2 == decl->params.size(); 1207 } 1208 1209 bool isCopyFunction( const ast::FunctionDecl * decl ) { 1210 const ast::FunctionType * ftype = decl->type; 1211 if ( ftype->params.size() != 2 ) return false; 1212 1213 const ast::Type * t1 = getPointerBase( ftype->params.front() ); 1214 if ( ! t1 ) return false; 1215 const ast::Type * t2 = ftype->params.back(); 1216 1217 return ResolvExpr::typesCompatibleIgnoreQualifiers( t1, t2, ast::SymbolTable{} ); 1218 } 1203 1219 1204 1220 const FunctionDecl * isAssignment( const Declaration * decl ) { -
src/InitTweak/InitTweak.h
rf681823 r376c632a 10 10 // Created On : Fri May 13 11:26:36 2016 11 11 // Last Modified By : Andrew Beach 12 // Last Modified On : Fri Nov 19 14:18:00 202113 // Update Count : 712 // Last Modified On : Mon Dec 6 13:20:00 2021 13 // Update Count : 8 14 14 // 15 15 … … 31 31 const FunctionDecl * isCopyConstructor( const Declaration * decl ); 32 32 const FunctionDecl * isCopyFunction( const Declaration * decl, const std::string & fname ); 33 bool isAssignment( const ast::FunctionDecl * decl ); 34 bool isDestructor( const ast::FunctionDecl * decl ); 35 bool isDefaultConstructor( const ast::FunctionDecl * decl ); 36 bool isCopyConstructor( const ast::FunctionDecl * decl ); 33 37 bool isCopyFunction( const ast::FunctionDecl * decl ); 34 38 -
src/Parser/ParseNode.h
rf681823 r376c632a 10 10 // Created On : Sat May 16 13:28:16 2015 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Wed Jul 14 17:28:53 202113 // Update Count : 90 012 // Last Modified On : Sat Jan 29 09:45:56 2022 13 // Update Count : 901 14 14 // 15 15 … … 390 390 Statement * build_expr( ExpressionNode * ctl ); 391 391 392 struct IfCtrl {393 IfCtrl( DeclarationNode * decl, ExpressionNode * condition ) :392 struct CondCtl { 393 CondCtl( DeclarationNode * decl, ExpressionNode * condition ) : 394 394 init( decl ? new StatementNode( decl ) : nullptr ), condition( condition ) {} 395 395 … … 409 409 }; 410 410 411 Expression * build_if_control( IfCtrl * ctl, std::list< Statement * > & init );412 Statement * build_if( IfCtrl * ctl, StatementNode * then_stmt, StatementNode * else_stmt );411 Expression * build_if_control( CondCtl * ctl, std::list< Statement * > & init ); 412 Statement * build_if( CondCtl * ctl, StatementNode * then_stmt, StatementNode * else_stmt ); 413 413 Statement * build_switch( bool isSwitch, ExpressionNode * ctl, StatementNode * stmt ); 414 414 Statement * build_case( ExpressionNode * ctl ); 415 415 Statement * build_default(); 416 Statement * build_while( IfCtrl * ctl, StatementNode * stmt );416 Statement * build_while( CondCtl * ctl, StatementNode * stmt ); 417 417 Statement * build_do_while( ExpressionNode * ctl, StatementNode * stmt ); 418 418 Statement * build_for( ForCtrl * forctl, StatementNode * stmt ); -
src/Parser/StatementNode.cc
rf681823 r376c632a 10 10 // Created On : Sat May 16 14:59:41 2015 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Sat Oct 24 04:20:55 202013 // Update Count : 38 312 // Last Modified On : Sat Jan 29 09:45:51 2022 13 // Update Count : 384 14 14 // 15 15 … … 78 78 } // build_expr 79 79 80 Expression * build_if_control( IfCtrl * ctl, std::list< Statement * > & init ) {80 Expression * build_if_control( CondCtl * ctl, std::list< Statement * > & init ) { 81 81 if ( ctl->init != 0 ) { 82 82 buildMoveList( ctl->init, init ); … … 100 100 } // build_if_control 101 101 102 Statement * build_if( IfCtrl * ctl, StatementNode * then_stmt, StatementNode * else_stmt ) {102 Statement * build_if( CondCtl * ctl, StatementNode * then_stmt, StatementNode * else_stmt ) { 103 103 Statement * thenb, * elseb = nullptr; 104 104 std::list< Statement * > branches; … … 145 145 } // build_default 146 146 147 Statement * build_while( IfCtrl * ctl, StatementNode * stmt ) {147 Statement * build_while( CondCtl * ctl, StatementNode * stmt ) { 148 148 std::list< Statement * > branches; 149 149 buildMoveList< Statement, StatementNode >( stmt, branches ); -
src/Parser/parser.yy
rf681823 r376c632a 10 10 // Created On : Sat Sep 1 20:22:55 2001 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Fri Oct 15 09:20:17 202113 // Update Count : 516 312 // Last Modified On : Sun Jan 30 09:41:13 2022 13 // Update Count : 5165 14 14 // 15 15 … … 238 238 WaitForStmt * wfs; 239 239 Expression * constant; 240 IfCtrl * ifctl;240 CondCtl * ifctl; 241 241 ForCtrl * fctl; 242 242 enum OperKinds compop; … … 327 327 %type<en> comma_expression comma_expression_opt 328 328 %type<en> argument_expression_list_opt argument_expression_list argument_expression default_initializer_opt 329 %type<ifctl> if_control_expression329 %type<ifctl> conditional_declaration 330 330 %type<fctl> for_control_expression for_control_expression_list 331 331 %type<compop> inclexcl … … 1123 1123 1124 1124 if_statement: 1125 IF '(' if_control_expression ')' statement%prec THEN1125 IF '(' conditional_declaration ')' statement %prec THEN 1126 1126 // explicitly deal with the shift/reduce conflict on if/else 1127 1127 { $$ = new StatementNode( build_if( $3, maybe_build_compound( $5 ), nullptr ) ); } 1128 | IF '(' if_control_expression ')' statement ELSE statement1128 | IF '(' conditional_declaration ')' statement ELSE statement 1129 1129 { $$ = new StatementNode( build_if( $3, maybe_build_compound( $5 ), maybe_build_compound( $7 ) ) ); } 1130 1130 ; 1131 1131 1132 if_control_expression:1132 conditional_declaration: 1133 1133 comma_expression 1134 { $$ = new IfCtrl( nullptr, $1 ); }1134 { $$ = new CondCtl( nullptr, $1 ); } 1135 1135 | c_declaration // no semi-colon 1136 { $$ = new IfCtrl( $1, nullptr ); }1136 { $$ = new CondCtl( $1, nullptr ); } 1137 1137 | cfa_declaration // no semi-colon 1138 { $$ = new IfCtrl( $1, nullptr ); }1138 { $$ = new CondCtl( $1, nullptr ); } 1139 1139 | declaration comma_expression // semi-colon separated 1140 { $$ = new IfCtrl( $1, $2 ); }1140 { $$ = new CondCtl( $1, $2 ); } 1141 1141 ; 1142 1142 … … 1193 1193 iteration_statement: 1194 1194 WHILE '(' ')' statement // CFA => while ( 1 ) 1195 { $$ = new StatementNode( build_while( new IfCtrl( nullptr, new ExpressionNode( build_constantInteger( *new string( "1" ) ) ) ), maybe_build_compound( $4 ) ) ); }1196 | WHILE '(' if_control_expression ')' statement%prec THEN1195 { $$ = new StatementNode( build_while( new CondCtl( nullptr, new ExpressionNode( build_constantInteger( *new string( "1" ) ) ) ), maybe_build_compound( $4 ) ) ); } 1196 | WHILE '(' conditional_declaration ')' statement %prec THEN 1197 1197 { $$ = new StatementNode( build_while( $3, maybe_build_compound( $5 ) ) ); } 1198 | WHILE '(' if_control_expression ')' statement ELSE statement // CFA1198 | WHILE '(' conditional_declaration ')' statement ELSE statement // CFA 1199 1199 { SemanticError( yylloc, "Loop default block is currently unimplemented." ); $$ = nullptr; } 1200 1200 | DO statement WHILE '(' ')' ';' // CFA => do while( 1 ) -
src/SymTab/Validate.cc
rf681823 r376c632a 453 453 } 454 454 455 void decayForallPointers( std::list< Declaration * > & translationUnit ) { 456 PassVisitor<ForallPointerDecay_old> fpd; 457 acceptAll( translationUnit, fpd ); 458 } 459 455 460 void validate( std::list< Declaration * > &translationUnit, __attribute__((unused)) bool doDebug ) { 456 461 validate_A( translationUnit ); … … 470 475 type->accept( fpd ); 471 476 } 472 473 477 474 478 void HoistTypeDecls::handleType( Type * type ) { -
src/SymTab/Validate.h
rf681823 r376c632a 42 42 void validate_E( std::list< Declaration * > &translationUnit ); 43 43 void validate_F( std::list< Declaration * > &translationUnit ); 44 void decayForallPointers( std::list< Declaration * > & translationUnit ); 44 45 45 46 const ast::Type * validateType( -
src/Validate/module.mk
rf681823 r376c632a 16 16 17 17 SRC_VALIDATE = \ 18 Validate/Autogen.cpp \ 19 Validate/Autogen.hpp \ 18 20 Validate/CompoundLiteral.cpp \ 19 21 Validate/CompoundLiteral.hpp \ -
src/main.cc
rf681823 r376c632a 10 10 // Created On : Fri May 15 23:12:02 2015 11 11 // Last Modified By : Andrew Beach 12 // Last Modified On : Tue Nov 30 10:25:00 202113 // Update Count : 6 5912 // Last Modified On : Wed Jan 26 14:09:00 2022 13 // Update Count : 670 14 14 // 15 15 … … 55 55 #include "ControlStruct/ExceptTranslate.h" // for translateEHM 56 56 #include "ControlStruct/FixLabels.hpp" // for fixLabels 57 #include "ControlStruct/HoistControlDecls.hpp" // hoistControlDecls 57 58 #include "ControlStruct/Mutate.h" // for mutate 58 59 #include "GenPoly/Box.h" // for box … … 73 74 #include "SynTree/Visitor.h" // for acceptAll 74 75 #include "Tuples/Tuples.h" // for expandMemberTuples, expan... 76 #include "Validate/Autogen.hpp" // for autogenerateRoutines 75 77 #include "Validate/FindSpecialDecls.h" // for findGlobalDecls 76 78 #include "Validate/CompoundLiteral.hpp" // for handleCompoundLiterals … … 78 80 #include "Validate/LabelAddressFixer.hpp" // for fixLabelAddresses 79 81 #include "Virtual/ExpandCasts.h" // for expandCasts 80 81 82 82 83 static void NewPass( const char * const name ) { … … 326 327 PASS( "Validate-B", SymTab::validate_B( translationUnit ) ); 327 328 PASS( "Validate-C", SymTab::validate_C( translationUnit ) ); 328 PASS( "Validate-D", SymTab::validate_D( translationUnit ) );329 329 330 330 CodeTools::fillLocations( translationUnit ); 331 331 332 332 if( useNewAST ) { 333 PASS( "Apply Concurrent Keywords", Concurrency::applyKeywords( translationUnit ) ); 334 PASS( "Forall Pointer Decay", SymTab::decayForallPointers( translationUnit ) ); 335 CodeTools::fillLocations( translationUnit ); 336 333 337 if (Stats::Counters::enabled) { 334 338 ast::pass_visitor_stats.avg = Stats::Counters::build<Stats::Counters::AverageCounter<double>>("Average Depth - New"); … … 338 342 339 343 forceFillCodeLocations( transUnit ); 344 345 // Must happen before autogen routines are added. 346 PASS( "Hoist Control Declarations", ControlStruct::hoistControlDecls( transUnit ) ); 347 348 // Must be after enum and pointer decay. 349 // Must be before compound literals. 350 PASS( "Generate Autogen Routines", Validate::autogenerateRoutines( transUnit ) ); 340 351 341 352 PASS( "Implement Mutex", Concurrency::implementMutex( transUnit ) ); … … 406 417 translationUnit = convert( move( transUnit ) ); 407 418 } else { 419 PASS( "Validate-D", SymTab::validate_D( translationUnit ) ); 408 420 PASS( "Validate-E", SymTab::validate_E( translationUnit ) ); 409 421 PASS( "Validate-F", SymTab::validate_F( translationUnit ) ); -
tests/concurrent/preempt.cfa
rf681823 r376c632a 1 #include <clock.hfa> 1 2 #include <fstream.hfa> 2 3 #include <kernel.hfa> … … 18 19 #else 19 20 static const unsigned long N = 500ul; 21 static volatile Time prev; 22 static Duration preempt_durations[6] = { 0 }; 20 23 #endif 21 24 … … 26 29 thread worker_t { 27 30 int value; 28 unsigned spin;31 unsigned long long spin; 29 32 }; 30 33 … … 36 39 void main(worker_t & this) { 37 40 while(TEST(counter < N)) { 38 if(this.spin > 100_000_000) abort | "Worker" | this.value | "has been spinning too long! (" | this.spin | ")";41 if(this.spin > 50_000_000_000) abort | "Worker" | this.value | "has been spinning too long! (" | this.spin | ")"; 39 42 __cfaabi_check_preemption(); 40 43 if( (counter % 7) == this.value ) { 41 44 __cfaabi_check_preemption(); 45 #if !defined(TEST_LONG) 46 Time now = timeHiRes(); 47 Duration diff = now - prev; 48 prev = now; 49 #endif 42 50 int next = __atomic_add_fetch( &counter, 1, __ATOMIC_SEQ_CST ); 43 51 __cfaabi_check_preemption(); 44 if( (next % 100) == 0 ) printf("%d\n", (int)next); 52 if( (next % 100) == 0 ) { 53 #if !defined(TEST_LONG) 54 unsigned idx = next / 100; 55 if (idx >= 6) abort | "Idx from next is invalid: " | idx | "vs" | next; 56 preempt_durations[idx] = diff; 57 if(diff > 12`s) serr | "Duration suspiciously large:" | diff; 58 #endif 59 printf("%d\n", (int)next); 60 61 } 45 62 __cfaabi_check_preemption(); 46 63 this.spin = 0; … … 55 72 processor p; 56 73 { 74 prev = timeHiRes(); 57 75 worker_t w0 = 0; 58 76 worker_t w1 = 1;
Note: See TracChangeset
for help on using the changeset viewer.