diff options
Diffstat (limited to 'erts/emulator/beam/ops.tab')
-rw-r--r-- | erts/emulator/beam/ops.tab | 1421 |
1 files changed, 662 insertions, 759 deletions
diff --git a/erts/emulator/beam/ops.tab b/erts/emulator/beam/ops.tab index 68fcc177ae..7a2c39b3a8 100644 --- a/erts/emulator/beam/ops.tab +++ b/erts/emulator/beam/ops.tab @@ -1,18 +1,19 @@ # # %CopyrightBegin% # -# Copyright Ericsson AB 1997-2013. All Rights Reserved. +# Copyright Ericsson AB 1997-2017. All Rights Reserved. # -# The contents of this file are subject to the Erlang Public License, -# Version 1.1, (the "License"); you may not use this file except in -# compliance with the License. You should have received a copy of the -# Erlang Public License along with this software. If not, it can be -# retrieved online at http://www.erlang.org/. +# Licensed under the Apache License, Version 2.0 (the "License"); +# you may not use this file except in compliance with the License. +# You may obtain a copy of the License at # -# Software distributed under the License is distributed on an "AS IS" -# basis, WITHOUT WARRANTY OF ANY KIND, either express or implied. See -# the License for the specific language governing rights and limitations -# under the License. +# http://www.apache.org/licenses/LICENSE-2.0 +# +# Unless required by applicable law or agreed to in writing, software +# distributed under the License is distributed on an "AS IS" BASIS, +# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. +# See the License for the specific language governing permissions and +# limitations under the License. # # %CopyrightEnd% # @@ -38,8 +39,8 @@ too_old_compiler | never() => # necessary.) Since the instructions don't work correctly in R12B, simply # refuse to load the module. -func_info M=a a==am_module_info A=u==0 | label L | move n r => too_old_compiler -func_info M=a a==am_module_info A=u==1 | label L | move n r => too_old_compiler +func_info M=a a==am_module_info A=u==0 | label L | move n x==0 => too_old_compiler +func_info M=a a==am_module_info A=u==1 | label L | move n x==0 => too_old_compiler # The undocumented and unsupported guard BIF is_constant/1 was removed # in R13. The is_constant/2 operation is marked as obsolete in genop.tab, @@ -58,6 +59,7 @@ put_tuple u==0 d => too_old_compiler # All the other instructions. # +%cold label L i_func_info I a a I int_code_end @@ -67,6 +69,8 @@ i_debug_breakpoint i_return_time_trace i_return_to_trace i_yield +trace_jump W +%hot return @@ -75,17 +79,6 @@ return # with the following call instruction, we need to make sure that # there is no line/1 instruction between the move and the call. # - -move S r | line Loc | call_ext Ar Func => \ - line Loc | move S r | call_ext Ar Func -move S r | line Loc | call_ext_last Ar Func=u$is_bif D => \ - line Loc | move S r | call_ext_last Ar Func D -move S r | line Loc | call_ext_only Ar Func=u$is_bif => \ - line Loc | move S r | call_ext_only Ar Func -move S r | line Loc | call Ar Func => \ - line Loc | move S r | call Ar Func - -# # A tail-recursive call to an external function (non-BIF) will # never be saved on the stack, so there is no reason to keep # the line instruction. (The compiler did not remove the line @@ -93,33 +86,34 @@ move S r | line Loc | call Ar Func => \ # BIFs and ordinary Erlang functions.) # -line Loc | call_ext_last Ar Func=u$is_not_bif D => \ - call_ext_last Ar Func D -line Loc | call_ext_only Ar Func=u$is_not_bif => \ - call_ext_only Ar Func +move S X0=x==0 | line Loc | call_ext Ar Func => \ + line Loc | move S X0 | call_ext Ar Func +move S X0=x==0 | line Loc | call_ext_last Ar Func=u$is_not_bif D => \ + move S X0 | call_ext_last Ar Func D +move S X0=x==0 | line Loc | call_ext_only Ar Func=u$is_not_bif => \ + move S X0 | call_ext_only Ar Func +move S X0=x==0 | line Loc | call Ar Func => \ + line Loc | move S X0 | call Ar Func line Loc | func_info M F A => func_info M F A | line Loc line I +allocate t t? +allocate_heap t I t? -%macro: allocate Allocate -pack -%macro: allocate_zero AllocateZero -pack -%macro: allocate_heap AllocateHeap -pack -%macro: allocate_heap_zero AllocateHeapZero -pack -%macro: test_heap TestHeap -pack +%cold +deallocate Q +%hot -allocate t t -allocate_heap t I t -deallocate I init y -allocate_zero t t -allocate_heap_zero t I t +allocate_zero t t? +allocate_heap_zero t I t? trim N Remaining => i_trim N -i_trim I +i_trim t -test_heap I t +test_heap I t? allocate_heap S u==0 R => allocate S R allocate_heap_zero S u==0 R => allocate_zero S R @@ -128,8 +122,6 @@ init2 y y init3 y y y init Y1 | init Y2 | init Y3 => init3 Y1 Y2 Y3 init Y1 | init Y2 => init2 Y1 Y2 -%macro: init2 Init2 -pack -%macro: init3 Init3 -pack # Selecting values @@ -166,62 +158,29 @@ is_tuple Fail=f S | select_tuple_arity S=d Fail=f Size=u Rest=* => \ select_tuple_arity S=d Fail=f Size=u Rest=* => \ gen_select_tuple_arity(S, Fail, Size, Rest) -i_select_val r f I -i_select_val x f I -i_select_val y f I - -i_select_val2 r f c f c f -i_select_val2 x f c f c f -i_select_val2 y f c f c f - -i_select_tuple_arity2 r f A f A f -i_select_tuple_arity2 x f A f A f -i_select_tuple_arity2 y f A f A f +i_select_val_bins xy f? I -i_select_tuple_arity r f I -i_select_tuple_arity x f I -i_select_tuple_arity y f I +i_select_val_lins xy f? I -i_jump_on_val_zero r f I -i_jump_on_val_zero x f I -i_jump_on_val_zero y f I +i_select_val2 xy f? c c -i_jump_on_val r f I I -i_jump_on_val x f I I -i_jump_on_val y f I I +i_select_tuple_arity xy f? I -jump Target | label Lbl | same_label(Target, Lbl) => label Lbl +i_select_tuple_arity2 xy f? A A -is_ne_exact L1 S1 S2 | jump Fail | label L2 | same_label(L1, L2) => \ - is_eq_exact Fail S1 S2 | label L2 +i_jump_on_val_zero xy f? I -%macro: get_list GetList -pack -get_list x x x -get_list x x y -get_list x x r -get_list x y x -get_list x y y -get_list x y r -get_list x r x -get_list x r y +i_jump_on_val xy f? I W -get_list y x x -get_list y x y -get_list y x r -get_list y y x -get_list y y y -get_list y y r -get_list y r x -get_list y r y +get_list xy xy xy +# The following get_list instructions using x(0) are frequently used. get_list r x x +get_list r r y +get_list x r x get_list r x y -get_list r x r -get_list r y x -get_list r y y get_list r y r -get_list r r x -get_list r r y +get_list r x r # Old-style catch. catch y f @@ -229,74 +188,160 @@ catch_end y # Try/catch. try Y F => catch Y F -try_case Y => try_end Y + +try_case y try_end y -try_case_end Literal=q => move Literal x | try_case_end x +%cold try_case_end s +%hot # Destructive set tuple element -set_tuple_element Lit=q Tuple Pos => move Lit x | set_tuple_element x Tuple Pos -set_tuple_element s d P +set_tuple_element s S P # Get tuple element -%macro: i_get_tuple_element GetTupleElement -pack -i_get_tuple_element x P x -i_get_tuple_element r P x -i_get_tuple_element y P x -i_get_tuple_element x P r -i_get_tuple_element y P r +i_get_tuple_element xy P x %cold -i_get_tuple_element r P r -i_get_tuple_element x P y -i_get_tuple_element r P y -i_get_tuple_element y P y +i_get_tuple_element xy P y %hot -%macro: is_number IsNumber -fail_action +i_get_tuple_element2 x P x +i_get_tuple_element2y x P y y + +i_get_tuple_element3 x P x + %cold -is_number f r -is_number f x -is_number f y +is_number f? xy %hot + is_number Fail=f i => is_number Fail=f na => jump Fail is_number Fail Literal=q => move Literal x | is_number Fail x jump f -case_end Literal=cq => move Literal x | case_end x -badmatch Literal=cq => move Literal x | badmatch x +# +# Expection rasing instructions. Infrequently executed. +# + +%cold +case_end NotInX=cy => move NotInX x | case_end x +badmatch NotInX=cy => move NotInX x | badmatch x -case_end r case_end x -case_end y -badmatch r badmatch x -badmatch y if_end -raise s s + +# Operands for raise/2 are almost always in x(2) and x(1). +# Optimize for that case. +raise x==2 x==1 => i_raise +raise Trace=y Value=y => move Trace x=2 | move Value x=1 | i_raise +raise Trace Value => move Trace x=3 | move Value x=1 | move x=3 x=2 | i_raise + +i_raise # Internal now, but could be useful to make known to the compiler. badarg j system_limit j -move C=cxy r | jump Lbl => move_jump Lbl C +%hot + +# +# Move instructions. +# + +move C=cxy x==0 | jump Lbl => move_jump Lbl C + +move_jump f ncxy + +# Movement to and from the stack is common +# Try to pack as much as we can into one instruction + +# Window move +move_window/5 +move_window/6 + +# x -> y + +move X1=x Y1=y | move X2=x Y2=y | move X3=x Y3=y | succ(Y1,Y2) | succ(Y2,Y3) => \ + move_window X1 X2 X3 Y1 Y3 + +move_window X1=x X2=x X3=x Y1=y Y3=y | move X4=x Y4=y | succ(Y3,Y4) => \ + move_window X1 X2 X3 X4 Y1 Y4 + +move_window X1=x X2=x X3=x X4=x Y1=y Y4=y | move X5=x Y5=y | succ(Y4,Y5) => \ + move_window5 X1 X2 X3 X4 X5 Y1 + +move_window X1=x X2=x X3=x Y1=y Y3=y => move_window3 X1 X2 X3 Y1 +move_window X1=x X2=x X3=x X4=x Y1=y Y4=y => move_window4 X1 X2 X3 X4 Y1 + +move_window3 x x x y +move_window4 x x x x y +move_window5 x x x x x y + +# Swap registers. +move R1=x Tmp=x | move R2=xy R1 | move Tmp R2 => swap_temp R1 R2 Tmp + +swap_temp R1 R2 Tmp | line Loc | apply Live | is_killed_apply(Tmp, Live) => \ + swap R1 R2 | line Loc | apply Live + +swap_temp R1 R2 Tmp | line Loc | call Live Addr | is_killed(Tmp, Live) => \ + swap R1 R2 | line Loc | call Live Addr +swap_temp R1 R2 Tmp | call_only Live Addr | \ + is_killed(Tmp, Live) => swap R1 R2 | call_only Live Addr +swap_temp R1 R2 Tmp | call_last Live Addr D | \ + is_killed(Tmp, Live) => swap R1 R2 | call_last Live Addr D + +swap_temp R1 R2 Tmp | line Loc | call_ext Live Addr | is_killed(Tmp, Live) => \ + swap R1 R2 | line Loc | call_ext Live Addr +swap_temp R1 R2 Tmp | line Loc | call_ext_only Live Addr | \ + is_killed(Tmp, Live) => swap R1 R2 | line Loc | call_ext_only Live Addr +swap_temp R1 R2 Tmp | line Loc | call_ext_last Live Addr D | \ + is_killed(Tmp, Live) => swap R1 R2 | line Loc | call_ext_last Live Addr D + +swap_temp x xy x + +swap x xy + +move Src=x D1=x | move Src=x D2=x => move_dup Src D1 D2 +move Src=x SD=x | move SD=x D=x => move_dup Src SD D +move Src=x D1=x | move Src=x D2=y => move_dup Src D1 D2 +move Src=y SD=x | move SD=x D=y => move_dup Src SD D +move Src=x SD=x | move SD=x D=y => move_dup Src SD D +move Src=y SD=x | move SD=x D=x => move_dup Src SD D -%macro: move_jump MoveJump -nonext -move_jump f n -move_jump f c -move_jump f x -move_jump f y +move SD=x D=x | move Src=xy SD=x => move_shift Src SD D +move SD=y D=x | move Src=x SD=y => move_shift Src SD D +move SD=x D=y | move Src=x SD=x => move_shift Src SD D -move X1=x Y1=y | move X2=x Y2=y => move2 X1 Y1 X2 Y2 -move Y1=y X1=x | move Y2=y X2=x => move2 Y1 X1 Y2 X2 -move X1=x X2=x | move X3=x X4=x => move2 X1 X2 X3 X4 +# The transformations above guarantee that the source for +# the second move is not the same as the destination for +# the first move. That means that we can do the moves in +# parallel (fetch both values, then store them) which could +# be faster. + +move X1=x Y1=y | move X2=x Y2=y => move2_par X1 Y1 X2 Y2 +move Y1=y X1=x | move Y2=y X2=x => move2_par Y1 X1 Y2 X2 + +move X1=x X2=x | move X3=x X4=x => move2_par X1 X2 X3 X4 + +move X1=x X2=x | move X3=x Y1=y => move2_par X1 X2 X3 Y1 + +move S1=x S2=x | move X1=x Y1=y => move2_par S1 S2 X1 Y1 + +move S1=y S2=x | move X1=x Y1=y => move2_par S1 S2 X1 Y1 + +move Y1=y X1=x | move S1=x D1=x => move2_par Y1 X1 S1 D1 +move S1=x D1=x | move Y1=y X1=x => move2_par S1 D1 Y1 X1 + +move2_par X1=x Y1=y X2=x Y2=y | move X3=x Y3=y => move3 X1 Y1 X2 Y2 X3 Y3 +move2_par Y1=y X1=x Y2=y X2=x | move Y3=y X3=x => move3 Y1 X1 Y2 X2 Y3 X3 +move2_par X1=x X2=x X3=x X4=x | move X5=x X6=x => move3 X1 X2 X3 X4 X5 X6 move C=aiq X=x==1 => move_x1 C move C=aiq X=x==2 => move_x2 C @@ -304,58 +349,82 @@ move C=aiq X=x==2 => move_x2 C move_x1 c move_x2 c -%macro: move2 Move2 -pack -move2 x y x y -move2 y x y x -move2 x x x x +move_shift x x x +move_shift y x x +move_shift x y x +move_shift x x y + +move_dup xy x xy + +move2_par x y x y +move2_par y x y x +move2_par x x x x + +move2_par x x x y + +move2_par y x x y + +move2_par x x y x +move2_par y x x x + +move3 x y x y x y +move3 y x y x y x +move3 x x x x x x # The compiler almost never generates a "move Literal y(Y)" instruction, # so let's cheat if we encounter one. move S=n D=y => init D move S=c D=y => move S x | move x D -%macro:move Move -pack -gen_dest move x x move x y -move x r move y x -move y r -move r x -move r y -move c r move c x move n x -move n r move y y +# The following move instructions using x(0) are frequently used. + +move x r +move r x +move y r +move c r +move r y + # Receive operations. -loop_rec Fail Src | smp_mark_target_label(Fail) => i_loop_rec Fail Src +loop_rec Fail x==0 | smp_mark_target_label(Fail) => i_loop_rec Fail -label L | wait_timeout Fail Src | smp_already_locked(L) => label L | i_wait_timeout_locked Fail Src -wait_timeout Fail Src => i_wait_timeout Fail Src -i_wait_timeout Fail Src=aiq => gen_literal_timeout(Fail, Src) -i_wait_timeout_locked Fail Src=aiq => gen_literal_timeout_locked(Fail, Src) +label L | wait_timeout Fail Src | smp_already_locked(L) => \ + label L | wait_timeout_locked Src Fail +wait_timeout Fail Src => wait_timeout_unlocked Src Fail + +wait_timeout_unlocked Src=aiq Fail => gen_literal_timeout(Fail, Src) +wait_timeout_locked Src=aiq Fail => gen_literal_timeout_locked(Fail, Src) label L | wait Fail | smp_already_locked(L) => label L | wait_locked Fail -wait Fail | smp() => wait_unlocked Fail +wait Fail => wait_unlocked Fail label L | timeout | smp_already_locked(L) => label L | timeout_locked remove_message timeout timeout_locked -i_loop_rec f r +i_loop_rec f loop_rec_end f -wait f wait_locked f wait_unlocked f -i_wait_timeout f I -i_wait_timeout f s -i_wait_timeout_locked f I -i_wait_timeout_locked f s + +# Note that a timeout value must fit in 32 bits. +wait_timeout_unlocked_int I f +wait_timeout_unlocked s f +wait_timeout_locked_int I f +wait_timeout_locked s f + +%cold i_wait_error i_wait_error_locked +%hot send @@ -363,48 +432,52 @@ send # Optimized comparisons with one immediate/literal operand. # -is_eq_exact Lbl R=rxy C=ian => i_is_eq_exact_immed Lbl R C -is_eq_exact Lbl R=rxy C=q => i_is_eq_exact_literal R Lbl C +is_eq_exact Lbl S S => +is_eq_exact Lbl C1=c C2=c => move C1 x | is_eq_exact Lbl x C2 +is_eq_exact Lbl C=c R=xy => is_eq_exact Lbl R C -is_ne_exact Lbl R=rxy C=ian => i_is_ne_exact_immed Lbl R C -is_ne_exact Lbl R=rxy C=q => i_is_ne_exact_literal R Lbl C +is_eq_exact Lbl R=xy n => is_nil Lbl R +is_eq_exact Lbl R=xy C=ia => i_is_eq_exact_immed Lbl R C +is_eq_exact Lbl R=xy C=q => i_is_eq_exact_literal Lbl R C -%macro: i_is_eq_exact_immed EqualImmed -fail_action -i_is_eq_exact_immed f r c -i_is_eq_exact_immed f x c -i_is_eq_exact_immed f y c +is_ne_exact Lbl S S => jump Lbl +is_ne_exact Lbl C1=c C2=c => move C1 x | is_ne_exact Lbl x C2 +is_ne_exact Lbl C=c R=xy => is_ne_exact Lbl R C -i_is_eq_exact_literal r f c -i_is_eq_exact_literal x f c -i_is_eq_exact_literal y f c +is_ne_exact Lbl R=xy C=ian => i_is_ne_exact_immed Lbl R C +is_ne_exact Lbl R=xy C=q => i_is_ne_exact_literal Lbl R C -%macro: i_is_ne_exact_immed NotEqualImmed -fail_action -i_is_ne_exact_immed f r c -i_is_ne_exact_immed f x c -i_is_ne_exact_immed f y c +i_is_eq_exact_immed f? rxy c -i_is_ne_exact_literal r f c -i_is_ne_exact_literal x f c -i_is_ne_exact_literal y f c +i_is_eq_exact_literal f? xy c -# -# All other comparisons. -# +i_is_ne_exact_immed f? xy c + +i_is_ne_exact_literal f? xy c + +is_eq_exact Lbl Y=y X=x => is_eq_exact Lbl X Y +is_eq_exact f? x xy +is_eq_exact f? y y + +is_ne_exact f? S S + +is_lt f? x x +is_lt f? x c +is_lt f? c x +%cold +is_lt f? s s +%hot -is_eq_exact Lbl S1 S2 => i_fetch S1 S2 | i_is_eq_exact Lbl -is_ne_exact Lbl S1 S2 => i_fetch S1 S2 | i_is_ne_exact Lbl +is_ge f? x x +is_ge f? x c +is_ge f? c x +%cold +is_ge f? s s +%hot -is_ge Lbl S1 S2 => i_fetch S1 S2 | i_is_ge Lbl -is_lt Lbl S1 S2 => i_fetch S1 S2 | i_is_lt Lbl -is_eq Lbl S1 S2 => i_fetch S1 S2 | i_is_eq Lbl -is_ne Lbl S1 S2 => i_fetch S1 S2 | i_is_ne Lbl +is_eq f? s s -i_is_eq_exact f -i_is_ne_exact f -i_is_lt f -i_is_ge f -i_is_eq f -i_is_ne f +is_ne f? s s # # Putting things. @@ -421,98 +494,56 @@ i_put_tuple Dst Arity Puts=* | put S => \ i_put_tuple/2 -%macro:i_put_tuple PutTuple -pack -goto:do_put_tuple -i_put_tuple r I -i_put_tuple x I -i_put_tuple y I +i_put_tuple xy I # -# The instruction "put_list Const [] Dst" will not be generated by -# the current BEAM compiler. But until R15A, play it safe by handling -# that instruction with the following transformation. +# The instruction "put_list Const [] Dst" were generated in rare +# circumstances up to and including OTP 18. Starting with OTP 19, +# AFAIK, it should never be generated. # put_list Const=c n Dst => move Const x | put_list x n Dst -%macro:put_list PutList -pack -gen_dest - put_list x n x put_list y n x put_list x x x put_list y x x -put_list x x r -put_list y r r put_list y y x put_list x y x -put_list r x x -put_list r y x -put_list r x r -put_list y y r -put_list y r x -put_list r n x -put_list x r x -put_list x y r -put_list y x r put_list y x x -put_list x r r - # put_list SrcReg Constant Dst -put_list r c r -put_list r c x -put_list r c y -put_list x c r put_list x c x put_list x c y -put_list y c r put_list y c x -put_list y c y # put_list Constant SrcReg Dst -put_list c r r -put_list c r x -put_list c r y -put_list c x r put_list c x x -put_list c x y - -put_list c y r put_list c y x -put_list c y y -%cold -put_list s s d -%hot +# The following put_list instructions using x(0) are frequently used. -%macro: i_fetch FetchArgs -pack -i_fetch c c -i_fetch c r -i_fetch c x -i_fetch c y -i_fetch r c -i_fetch r x -i_fetch r y -i_fetch x c -i_fetch x r -i_fetch x x -i_fetch x y -i_fetch y c -i_fetch y r -i_fetch y x -i_fetch y y +put_list y r r +put_list x r r +put_list r n r +put_list r n x +put_list r x x +put_list r x r +put_list x x r %cold -i_fetch s s +put_list s s d %hot # # Some more only used by the emulator # +%cold normal_exit continue_exit apply_bif @@ -520,6 +551,7 @@ call_nif call_error_handler error_action_code return_trace +%hot # # Instruction transformations & folded instructions. @@ -528,154 +560,100 @@ return_trace # Note: There is no 'move_return y r', since there never are any y registers # when we do move_return (if we have y registers, we must do move_deallocate_return). -move S r | return => move_return S r +move S x==0 | return => move_return S -%macro: move_return MoveReturn -nonext -move_return x r -move_return c r -move_return n r +move_return xcn -move S r | deallocate D | return => move_deallocate_return S r D +move S x==0 | deallocate D | return => move_deallocate_return S D -%macro: move_deallocate_return MoveDeallocateReturn -pack -nonext -move_deallocate_return x r Q -move_deallocate_return y r Q -move_deallocate_return c r Q -move_deallocate_return n r Q +move_deallocate_return xycn Q deallocate D | return => deallocate_return D -%macro: deallocate_return DeallocateReturn -nonext deallocate_return Q -test_heap Need u==1 | put_list Y=y r r => test_heap_1_put_list Need Y +test_heap Need u==1 | put_list Y=y x==0 x==0 => test_heap_1_put_list Need Y -%macro: test_heap_1_put_list TestHeapPutList -pack test_heap_1_put_list I y +# +# is_tagged_tuple Fail=f Src=rxy Arity Atom=a +# + +is_tagged_tuple Fail Literal=q Arity Atom => \ + move Literal x | is_tagged_tuple Fail x Arity Atom +is_tagged_tuple Fail=f c Arity Atom => jump Fail + +is_tagged_tuple f? rxy A a + # Test tuple & arity (head) is_tuple Fail Literal=q => move Literal x | is_tuple Fail x is_tuple Fail=f c => jump Fail -is_tuple Fail=f S=rxy | test_arity Fail=f S=rxy Arity => is_tuple_of_arity Fail S Arity - -%macro:is_tuple_of_arity IsTupleOfArity -fail_action +is_tuple Fail=f S=xy | test_arity Fail=f S=xy Arity => is_tuple_of_arity Fail S Arity -is_tuple_of_arity f x A -is_tuple_of_arity f y A -is_tuple_of_arity f r A +is_tuple_of_arity f? rxy A -%macro: is_tuple IsTuple -fail_action -is_tuple f x -is_tuple f y -is_tuple f r +is_tuple f? rxy test_arity Fail Literal=q Arity => move Literal x | test_arity Fail x Arity test_arity Fail=f c Arity => jump Fail -%macro: test_arity IsArity -fail_action -test_arity f x A -test_arity f y A -test_arity f r A - -is_tuple_of_arity Fail=f Reg Arity | get_tuple_element Reg P=u==0 Dst=xy => \ - is_tuple_of_arity Fail Reg Arity | extract_next_element Dst | original_reg Reg P - -test_arity Fail Reg Arity | get_tuple_element Reg P=u==0 Dst=xy => \ - test_arity Fail Reg Arity | extract_next_element Dst | original_reg Reg P - -original_reg Reg P1 | get_tuple_element Reg P2 Dst=xy | succ(P1, P2) => \ - extract_next_element Dst | original_reg Reg P2 - -get_tuple_element Reg P Dst => i_get_tuple_element Reg P Dst | original_reg Reg P - -original_reg Reg Pos => - -original_reg/2 - -extract_next_element D1=xy | original_reg Reg P1 | get_tuple_element Reg P2 D2=xy | \ -succ(P1, P2) | succ(D1, D2) => \ - extract_next_element2 D1 | original_reg Reg P2 +test_arity f? xy A -extract_next_element2 D1=xy | original_reg Reg P1 | get_tuple_element Reg P2 D2=xy | \ -succ(P1, P2) | succ2(D1, D2) => \ - extract_next_element3 D1 | original_reg Reg P2 +get_tuple_element Reg=x P1 D1=x | get_tuple_element Reg=x P2 D2=x | \ + get_tuple_element Reg=x P3 D3=x | \ + succ(P1, P2) | succ(P2, P3) | \ + succ(D1, D2) | succ(D2, D3) => i_get_tuple_element3 Reg P1 D1 -#extract_next_element3 D1=xy | original_reg Reg P1 | get_tuple_element Reg P2 D2=xy | \ -#succ(P1, P2) | succ3(D1, D2) => \ -# extract_next_element4 D1 | original_reg Reg P2 +get_tuple_element Reg=x P1 D1=x | get_tuple_element Reg=x P2 D2=x | \ + succ(P1, P2) | succ(D1, D2) => i_get_tuple_element2 Reg P1 D1 -%macro: extract_next_element ExtractNextElement -pack -extract_next_element x -extract_next_element y +get_tuple_element Reg=x P1 D1=y | get_tuple_element Reg=x P2 D2=y | \ + succ(P1, P2) => i_get_tuple_element2y Reg P1 D1 D2 -%macro: extract_next_element2 ExtractNextElement2 -pack -extract_next_element2 x -extract_next_element2 y - -%macro: extract_next_element3 ExtractNextElement3 -pack -extract_next_element3 x -extract_next_element3 y - -#%macro: extract_next_element4 ExtractNextElement4 -pack -#extract_next_element4 x -#extract_next_element4 y +get_tuple_element Reg P Dst => i_get_tuple_element Reg P Dst is_integer Fail=f i => is_integer Fail=f an => jump Fail is_integer Fail Literal=q => move Literal x | is_integer Fail x -is_integer Fail=f S=rx | allocate Need Regs => is_integer_allocate Fail S Need Regs +is_integer Fail=f S=x | allocate Need Regs => is_integer_allocate Fail S Need Regs -%macro: is_integer_allocate IsIntegerAllocate -fail_action -is_integer_allocate f x I I -is_integer_allocate f r I I +is_integer_allocate f? x t t -%macro: is_integer IsInteger -fail_action -is_integer f x -is_integer f y -is_integer f r +is_integer f? xy is_list Fail=f n => is_list Fail Literal=q => move Literal x | is_list Fail x is_list Fail=f c => jump Fail -%macro: is_list IsList -fail_action -is_list f r -is_list f x +is_list f? x %cold -is_list f y +is_list f? y %hot -is_nonempty_list Fail=f S=rx | allocate Need Rs => is_nonempty_list_allocate Fail S Need Rs - -%macro:is_nonempty_list_allocate IsNonemptyListAllocate -fail_action -pack -is_nonempty_list_allocate f x I t -is_nonempty_list_allocate f r I t +is_nonempty_list Fail=f S=x | allocate Need Rs => is_nonempty_list_allocate Fail S Need Rs -is_nonempty_list F=f r | test_heap I1 I2 => is_non_empty_list_test_heap F r I1 I2 +is_nonempty_list F=f x==0 | test_heap I1 I2 => is_nonempty_list_test_heap F I1 I2 -%macro: is_non_empty_list_test_heap IsNonemptyListTestHeap -fail_action -pack -is_non_empty_list_test_heap f r I t +is_nonempty_list Fail=f S=x | get_list S D1=x D2=x => \ + is_nonempty_list_get_list Fail S D1 D2 -%macro: is_nonempty_list IsNonemptyList -fail_action -is_nonempty_list f x -is_nonempty_list f y -is_nonempty_list f r +is_nonempty_list_allocate f? rx t t +is_nonempty_list_test_heap f? I t +is_nonempty_list_get_list f? rx x x +is_nonempty_list f? xy -%macro: is_atom IsAtom -fail_action -is_atom f x -is_atom f r +is_atom f? x %cold -is_atom f y +is_atom f? y %hot is_atom Fail=f a => is_atom Fail=f niq => jump Fail -%macro: is_float IsFloat -fail_action -is_float f r -is_float f x +is_float f? x %cold -is_float f y +is_float f? y %hot is_float Fail=f nai => jump Fail is_float Fail Literal=q => move Literal x | is_float Fail x @@ -683,18 +661,13 @@ is_float Fail Literal=q => move Literal x | is_float Fail x is_nil Fail=f n => is_nil Fail=f qia => jump Fail -%macro: is_nil IsNil -fail_action -is_nil f x -is_nil f y -is_nil f r +is_nil f? xy is_binary Fail Literal=q => move Literal x | is_binary Fail x is_binary Fail=f c => jump Fail -%macro: is_binary IsBinary -fail_action -is_binary f r -is_binary f x +is_binary f? x %cold -is_binary f y +is_binary f? y %hot # XXX Deprecated. @@ -702,35 +675,27 @@ is_bitstr Fail Term => is_bitstring Fail Term is_bitstring Fail Literal=q => move Literal x | is_bitstring Fail x is_bitstring Fail=f c => jump Fail -%macro: is_bitstring IsBitstring -fail_action -is_bitstring f r -is_bitstring f x +is_bitstring f? x %cold -is_bitstring f y +is_bitstring f? y %hot is_reference Fail=f cq => jump Fail -%macro: is_reference IsRef -fail_action -is_reference f r -is_reference f x +is_reference f? x %cold -is_reference f y +is_reference f? y %hot is_pid Fail=f cq => jump Fail -%macro: is_pid IsPid -fail_action -is_pid f r -is_pid f x +is_pid f? x %cold -is_pid f y +is_pid f? y %hot is_port Fail=f cq => jump Fail -%macro: is_port IsPort -fail_action -is_port f r -is_port f x +is_port f? x %cold -is_port f y +is_port f? y %hot is_boolean Fail=f a==am_true => @@ -738,49 +703,42 @@ is_boolean Fail=f a==am_false => is_boolean Fail=f ac => jump Fail %cold -%macro: is_boolean IsBoolean -fail_action -is_boolean f r -is_boolean f x -is_boolean f y +is_boolean f? xy %hot is_function2 Fail=f acq Arity => jump Fail is_function2 Fail=f Fun a => jump Fail -is_function2 Fail Fun Literal=q => move Literal x | is_function2 Fail Fun x -is_function2 f s s -%macro: is_function2 IsFunction2 -fail_action +is_function2 f? S s # Allocating & initializing. allocate Need Regs | init Y => allocate_init Need Regs Y init Y1 | init Y2 => init2 Y1 Y2 -%macro: allocate_init AllocateInit -pack -allocate_init t I y +allocate_init t t? y ################################################################# # External function and bif calls. ################################################################# # -# The BIFs erts_internal:check_process_code/2 must be called like a function, +# The BIFs erts_internal:check_process_code/1 must be called like a function, # to ensure that c_p->i (program counter) is set correctly (an ordinary # BIF call doesn't set it). # -call_ext u==2 Bif=u$bif:erts_internal:check_process_code/2 => i_call_ext Bif -call_ext_last u==2 Bif=u$bif:erts_internal:check_process_code/2 D => i_call_ext_last Bif D -call_ext_only u==2 Bif=u$bif:erts_internal:check_process_code/2 => i_call_ext_only Bif +call_ext u==1 Bif=u$bif:erts_internal:check_process_code/1 => i_call_ext Bif +call_ext_last u==1 Bif=u$bif:erts_internal:check_process_code/1 D => i_call_ext_last Bif D +call_ext_only u==1 Bif=u$bif:erts_internal:check_process_code/1 => i_call_ext_only Bif # -# The BIFs erlang:garbage_collect/0 must be called like a function, +# The BIFs erts_internal:garbage_collect/1 must be called like a function, # to allow them to invoke the garbage collector. (The stack pointer must # be saved and p->arity must be zeroed, which is not done on ordinary BIF calls.) # - -call_ext u==0 Bif=u$bif:erlang:garbage_collect/0 => i_call_ext Bif -call_ext_last u==0 Bif=u$bif:erlang:garbage_collect/0 D => i_call_ext_last Bif D -call_ext_only u==0 Bif=u$bif:erlang:garbage_collect/0 => i_call_ext_only Bif +call_ext u==1 Bif=u$bif:erts_internal:garbage_collect/1 => i_call_ext Bif +call_ext_last u==1 Bif=u$bif:erts_internal:garbage_collect/1 D => i_call_ext_last Bif D +call_ext_only u==1 Bif=u$bif:erts_internal:garbage_collect/1 => i_call_ext_only Bif # # put/2 and erase/1 must be able to do garbage collection, so we must call @@ -886,76 +844,76 @@ call_ext_only u==3 u$func:erlang:hibernate/3 => i_hibernate %unless USE_VM_PROBES call_ext Arity u$func:erlang:dt_get_tag/0 => \ - move a=am_undefined r + move a=am_undefined x=0 call_ext_last Arity u$func:erlang:dt_get_tag/0 D => \ - move a=am_undefined r | deallocate D | return + move a=am_undefined x=0 | deallocate D | return call_ext_only Arity u$func:erlang:dt_get_tag/0 => \ - move a=am_undefined r | return - -move Any r | call_ext Arity u$func:erlang:dt_put_tag/1 => \ - move a=am_undefined r -move Any r | call_ext_last Arity u$func:erlang:dt_put_tag/1 D => \ - move a=am_undefined r | deallocate D | return -move Any r | call_ext_only Arity u$func:erlang:dt_put_tag/1 => \ - move a=am_undefined r | return + move a=am_undefined x=0 | return + +move Any x==0 | call_ext Arity u$func:erlang:dt_put_tag/1 => \ + move a=am_undefined x=0 +move Any x==0 | call_ext_last Arity u$func:erlang:dt_put_tag/1 D => \ + move a=am_undefined x=0 | deallocate D | return +move Any x==0 | call_ext_only Arity u$func:erlang:dt_put_tag/1 => \ + move a=am_undefined x=0 | return call_ext Arity u$func:erlang:dt_put_tag/1 => \ - move a=am_undefined r + move a=am_undefined x=0 call_ext_last Arity u$func:erlang:dt_put_tag/1 D => \ - move a=am_undefined r | deallocate D | return + move a=am_undefined x=0 | deallocate D | return call_ext_only Arity u$func:erlang:dt_put_tag/1 => \ - move a=am_undefined r | return + move a=am_undefined x=0 | return call_ext Arity u$func:erlang:dt_get_tag_data/0 => \ - move a=am_undefined r + move a=am_undefined x=0 call_ext_last Arity u$func:erlang:dt_get_tag_data/0 D => \ - move a=am_undefined r | deallocate D | return + move a=am_undefined x=0 | deallocate D | return call_ext_only Arity u$func:erlang:dt_get_tag_data/0 => \ - move a=am_undefined r | return - -move Any r | call_ext Arity u$func:erlang:dt_spread_tag/1 => \ - move a=am_true r -move Any r | call_ext_last Arity u$func:erlang:dt_spread_tag/1 D => \ - move a=am_true r | deallocate D | return -move Any r | call_ext_only Arity u$func:erlang:dt_spread_tag/1 => \ - move a=am_true r | return + move a=am_undefined x=0 | return + +move Any x==0 | call_ext Arity u$func:erlang:dt_spread_tag/1 => \ + move a=am_true x=0 +move Any x==0 | call_ext_last Arity u$func:erlang:dt_spread_tag/1 D => \ + move a=am_true x=0 | deallocate D | return +move Any x==0 | call_ext_only Arity u$func:erlang:dt_spread_tag/1 => \ + move a=am_true x=0 | return call_ext Arity u$func:erlang:dt_spread_tag/1 => \ - move a=am_true r + move a=am_true x=0 call_ext_last Arity u$func:erlang:dt_spread_tag/1 D => \ - move a=am_true r | deallocate D | return + move a=am_true x=0 | deallocate D | return call_ext_only Arity u$func:erlang:dt_spread_tag/1 => \ - move a=am_true r | return - -move Any r | call_ext Arity u$func:erlang:dt_restore_tag/1 => \ - move a=am_true r -move Any r | call_ext_last Arity u$func:erlang:dt_restore_tag/1 D => \ - move a=am_true r | deallocate D | return -move Any r | call_ext_only Arity u$func:erlang:dt_restore_tag/1 => \ - move a=am_true r | return + move a=am_true x=0 | return + +move Any x==0 | call_ext Arity u$func:erlang:dt_restore_tag/1 => \ + move a=am_true x=0 +move Any x==0 | call_ext_last Arity u$func:erlang:dt_restore_tag/1 D => \ + move a=am_true x=0 | deallocate D | return +move Any x==0 | call_ext_only Arity u$func:erlang:dt_restore_tag/1 => \ + move a=am_true x=0 | return call_ext Arity u$func:erlang:dt_restore_tag/1 => \ - move a=am_true r + move a=am_true x=0 call_ext_last Arity u$func:erlang:dt_restore_tag/1 D => \ - move a=am_true r | deallocate D | return + move a=am_true x=0 | deallocate D | return call_ext_only Arity u$func:erlang:dt_restore_tag/1 => \ - move a=am_true r | return - -move Any r | call_ext Arity u$func:erlang:dt_prepend_vm_tag_data/1 => \ - move Any r -move Any r | call_ext_last Arity u$func:erlang:dt_prepend_vm_tag_data/1 D => \ - move Any r | deallocate D | return -move Any r | call_ext_only Arity u$func:erlang:dt_prepend_vm_tag_data/1 => \ - move Any r | return + move a=am_true x=0 | return + +move Any x==0 | call_ext Arity u$func:erlang:dt_prepend_vm_tag_data/1 => \ + move Any x=0 +move Any x==0 | call_ext_last Arity u$func:erlang:dt_prepend_vm_tag_data/1 D => \ + move Any x=0 | deallocate D | return +move Any x==0 | call_ext_only Arity u$func:erlang:dt_prepend_vm_tag_data/1 => \ + move Any x=0 | return call_ext Arity u$func:erlang:dt_prepend_vm_tag_data/1 => call_ext_last Arity u$func:erlang:dt_prepend_vm_tag_data/1 D => \ deallocate D | return call_ext_only Arity u$func:erlang:dt_prepend_vm_tag_data/1 => \ return -move Any r | call_ext Arity u$func:erlang:dt_append_vm_tag_data/1 => \ - move Any r -move Any r | call_ext_last Arity u$func:erlang:dt_append_vm_tag_data/1 D => \ - move Any r | deallocate D | return -move Any r | call_ext_only Arity u$func:erlang:dt_append_vm_tag_data/1 => \ - move Any r | return +move Any x==0 | call_ext Arity u$func:erlang:dt_append_vm_tag_data/1 => \ + move Any x=0 +move Any x==0 | call_ext_last Arity u$func:erlang:dt_append_vm_tag_data/1 D => \ + move Any x=0 | deallocate D | return +move Any x==0 | call_ext_only Arity u$func:erlang:dt_append_vm_tag_data/1 => \ + move Any x=0 | return call_ext Arity u$func:erlang:dt_append_vm_tag_data/1 => call_ext_last Arity u$func:erlang:dt_append_vm_tag_data/1 D => \ deallocate D | return @@ -963,10 +921,17 @@ call_ext_only Arity u$func:erlang:dt_append_vm_tag_data/1 => \ return # Can happen after one of the transformations above. -move Discarded r | move Something r => move Something r +move Discarded x==0 | move Something x==0 => move Something x=0 %endif +call_ext u==0 u$func:os:perf_counter/0 => \ + i_perf_counter +call_ext_last u==0 u$func:os:perf_counter/0 D => \ + i_perf_counter | deallocate_return D +call_ext_only u==0 u$func:os:perf_counter/0 => \ + i_perf_counter | return + # # The general case for BIFs that have no special instructions. # A BIF used in the tail must be followed by a return instruction. @@ -988,24 +953,28 @@ call_ext_only Ar=u Bif=u$is_bif => \ # with call instructions. # -move S=c r | call_ext Ar=u Func=u$is_not_bif => i_move_call_ext S r Func -move S=c r | call_ext_last Ar=u Func=u$is_not_bif D => i_move_call_ext_last Func D S r -move S=c r | call_ext_only Ar=u Func=u$is_not_bif => i_move_call_ext_only Func S r +move S=c x==0 | call_ext Ar=u Func=u$is_not_bif => i_move_call_ext S Func +move S=c x==0 | call_ext_last Ar=u Func=u$is_not_bif D => i_move_call_ext_last Func D S +move S=c x==0 | call_ext_only Ar=u Func=u$is_not_bif => i_move_call_ext_only Func S call_ext Ar Func => i_call_ext Func call_ext_last Ar Func D => i_call_ext_last Func D call_ext_only Ar Func => i_call_ext_only Func i_apply -i_apply_last P +i_apply_last Q i_apply_only i_apply_fun -i_apply_fun_last P +i_apply_fun_last Q i_apply_fun_only +%cold i_hibernate +i_perf_counter +%hot + call_bif e # @@ -1015,116 +984,86 @@ call_bif e bif0 u$bif:erlang:self/0 Dst=d => self Dst bif0 u$bif:erlang:node/0 Dst=d => node Dst -bif1 Fail Bif=u$bif:erlang:get/1 Src=s Dst=d => i_get Src Dst +bif1 Fail Bif=u$bif:erlang:get/1 Src=s Dst=d => gen_get(Src, Dst) -bif2 Jump=j u$bif:erlang:element/2 S1=s S2=rxy Dst=d => gen_element(Jump, S1, S2, Dst) +bif2 Jump=j u$bif:erlang:element/2 S1=s S2=xy Dst=d => gen_element(Jump, S1, S2, Dst) -bif1 Fail Bif Literal=q Dst => move Literal x | bif1 Fail Bif x Dst bif1 p Bif S1 Dst => bif1_body Bif S1 Dst -bif1_body Bif Literal=q Dst => move Literal x | bif1_body Bif x Dst - -bif2 p Bif S1 S2 Dst => i_fetch S1 S2 | i_bif2_body Bif Dst -bif2 Fail Bif S1 S2 Dst => i_fetch S1 S2 | i_bif2 Fail Bif Dst +bif2 p Bif S1 S2 Dst => i_bif2_body Bif S1 S2 Dst +bif2 Fail Bif S1 S2 Dst => i_bif2 Fail Bif S1 S2 Dst +i_get_hash c I d i_get s d -%macro: self Self -self r -self x -self y +self xy -%macro: node Node -node r node x %cold node y %hot -i_fast_element r j I d -i_fast_element x j I d -i_fast_element y j I d +# Note: 'I' is sufficient because this instruction will only be used +# if the arity fits in 24 bits. +i_fast_element xy j? I d -i_element r j s d -i_element x j s d -i_element y j s d +i_element xy j? s d -bif1 f b s d +bif1 f? b s d bif1_body b s d -i_bif2 f b d -i_bif2_body b d +i_bif2 f? b s s d +i_bif2_body b s s d # # Internal calls. # -move S=c r | call Ar P=f => i_move_call S r P -move S=s r | call Ar P=f => move_call S r P - -i_move_call c r f - -%macro:move_call MoveCall -arg_f -size -nonext -move_call/3 - -move_call x r f -move_call y r f +move S=cxy x==0 | call Ar P=f => move_call S P -move S=c r | call_last Ar P=f D => i_move_call_last P D S r -move S r | call_last Ar P=f D => move_call_last S r P D +move_call/2 +move_call cxy f -i_move_call_last f P c r +move S x==0 | call_last Ar P=f D => move_call_last S P D -%macro:move_call_last MoveCallLast -arg_f -nonext -pack +move_call_last/3 +move_call_last cxy f Q -move_call_last/4 -move_call_last x r f Q -move_call_last y r f Q +move S=cx x==0 | call_only Ar P=f => move_call_only S P -move S=c r | call_only Ar P=f => i_move_call_only P S r -move S=x r | call_only Ar P=f => move_call_only S r P - -i_move_call_only f c r - -%macro:move_call_only MoveCallOnly -arg_f -nonext -move_call_only/3 - -move_call_only x r f +move_call_only/2 +move_call_only cx f call Ar Func => i_call Func call_last Ar Func D => i_call_last Func D call_only Ar Func => i_call_only Func i_call f -i_call_last f P +i_call_last f Q i_call_only f i_call_ext e -i_call_ext_last e P +i_call_ext_last e Q i_call_ext_only e -i_move_call_ext c r e -i_move_call_ext_last e P c r -i_move_call_ext_only e c r +i_move_call_ext c e +i_move_call_ext_last e Q c +i_move_call_ext_only e c # Fun calls. call_fun Arity | deallocate D | return => i_call_fun_last Arity D call_fun Arity => i_call_fun Arity -i_call_fun I -i_call_fun_last I P +i_call_fun t +i_call_fun_last t Q make_fun2 OldIndex=u => gen_make_fun2(OldIndex) -%macro: i_make_fun MakeFun -pack %cold -i_make_fun I t +i_make_fun W t %hot -%macro: is_function IsFunction -fail_action -is_function f x -is_function f y -is_function f r +is_function f? xy is_function Fail=f c => jump Fail func_info M F A => i_func_info u M F A @@ -1133,168 +1072,128 @@ func_info M F A => i_func_info u M F A # New bit syntax matching (R11B). # ================================================================ -%cold +%warm bs_start_match2 Fail=f ica X Y D => jump Fail bs_start_match2 Fail Bin X Y D => i_bs_start_match2 Bin Fail X Y D -i_bs_start_match2 r f I I d -i_bs_start_match2 x f I I d -i_bs_start_match2 y f I I d +i_bs_start_match2 xy f t t x bs_save2 Reg Index => gen_bs_save(Reg, Index) -i_bs_save2 r I -i_bs_save2 x I +i_bs_save2 x t bs_restore2 Reg Index => gen_bs_restore(Reg, Index) -i_bs_restore2 r I -i_bs_restore2 x I +i_bs_restore2 x t # Matching integers bs_match_string Fail Ms Bits Val => i_bs_match_string Ms Fail Bits Val -i_bs_match_string r f I I -i_bs_match_string x f I I +i_bs_match_string x f W W # Fetching integers from binaries. -bs_get_integer2 Fail=f Ms=rx Live=u Sz=sq Unit=u Flags=u Dst=d => \ +bs_get_integer2 Fail=f Ms=x Live=u Sz=sq Unit=u Flags=u Dst=d => \ gen_get_integer2(Fail, Ms, Live, Sz, Unit, Flags, Dst) -i_bs_get_integer_small_imm r I f I d -i_bs_get_integer_small_imm x I f I d -i_bs_get_integer_imm r I I f I d -i_bs_get_integer_imm x I I f I d -i_bs_get_integer f I I d -i_bs_get_integer_8 r f d -i_bs_get_integer_8 x f d -i_bs_get_integer_16 r f d -i_bs_get_integer_16 x f d -i_bs_get_integer_32 r f I d -i_bs_get_integer_32 x f I d +i_bs_get_integer_small_imm x W f? t x +i_bs_get_integer_imm x W t f? t x +i_bs_get_integer f? t t x s x +i_bs_get_integer_8 x f? x +i_bs_get_integer_16 x f? x + +%if ARCH_64 +i_bs_get_integer_32 x f? x +%endif # Fetching binaries from binaries. -bs_get_binary2 Fail=f Ms=rx Live=u Sz=sq Unit=u Flags=u Dst=d => \ +bs_get_binary2 Fail=f Ms=x Live=u Sz=sq Unit=u Flags=u Dst=d => \ gen_get_binary2(Fail, Ms, Live, Sz, Unit, Flags, Dst) -%macro: i_bs_get_binary_imm2 BsGetBinaryImm_2 -fail_action -gen_dest -%macro: i_bs_get_binary2 BsGetBinary_2 -fail_action -gen_dest -%macro: i_bs_get_binary_all2 BsGetBinaryAll_2 -fail_action -gen_dest - -i_bs_get_binary_imm2 f r I I I d -i_bs_get_binary_imm2 f x I I I d -i_bs_get_binary2 f r I s I d -i_bs_get_binary2 f x I s I d -i_bs_get_binary_all2 f r I I d -i_bs_get_binary_all2 f x I I d -i_bs_get_binary_all_reuse r f I -i_bs_get_binary_all_reuse x f I +i_bs_get_binary_imm2 f? x t W t x +i_bs_get_binary2 f x t? s t x +i_bs_get_binary_all2 f? x t t x +i_bs_get_binary_all_reuse x f? t # Fetching float from binaries. -bs_get_float2 Fail=f Ms=rx Live=u Sz=s Unit=u Flags=u Dst=d => \ +bs_get_float2 Fail=f Ms=x Live=u Sz=s Unit=u Flags=u Dst=d => \ gen_get_float2(Fail, Ms, Live, Sz, Unit, Flags, Dst) -bs_get_float2 Fail=f Ms=rx Live=u Sz=q Unit=u Flags=u Dst=d => jump Fail +bs_get_float2 Fail=f Ms=x Live=u Sz=q Unit=u Flags=u Dst=d => jump Fail -%macro: i_bs_get_float2 BsGetFloat2 -fail_action -gen_dest -i_bs_get_float2 f r I s I d -i_bs_get_float2 f x I s I d +i_bs_get_float2 f? x t s t x # Miscellanous -bs_skip_bits2 Fail=f Ms=rx Sz=s Unit=u Flags=u => \ - gen_skip_bits2(Fail, Ms, Sz, Unit, Flags) -bs_skip_bits2 Fail=f Ms=rx Sz=q Unit=u Flags=u => \ +bs_skip_bits2 Fail=f Ms=x Sz=sq Unit=u Flags=u => \ gen_skip_bits2(Fail, Ms, Sz, Unit, Flags) -%macro: i_bs_skip_bits_imm2 BsSkipBitsImm2 -fail_action -i_bs_skip_bits_imm2 f r I -i_bs_skip_bits_imm2 f x I +i_bs_skip_bits_imm2 f? x W +i_bs_skip_bits2 f? x xy t +i_bs_skip_bits_all2 f? x t + +bs_test_tail2 Fail=f Ms=x Bits=u==0 => bs_test_zero_tail2 Fail Ms +bs_test_tail2 Fail=f Ms=x Bits=u => bs_test_tail_imm2 Fail Ms Bits +bs_test_zero_tail2 f? x +bs_test_tail_imm2 f? x W -%macro: i_bs_skip_bits2 BsSkipBits2 -fail_action -i_bs_skip_bits2 f r x I -i_bs_skip_bits2 f r y I -i_bs_skip_bits2 f x x I -i_bs_skip_bits2 f x r I -i_bs_skip_bits2 f x y I +bs_test_unit F Ms Unit=u==8 => bs_test_unit8 F Ms +bs_test_unit f? x t +bs_test_unit8 f? x -%macro: i_bs_skip_bits_all2 BsSkipBitsAll2 -fail_action -i_bs_skip_bits_all2 f r I -i_bs_skip_bits_all2 f x I +# An y register operand for bs_context_to_binary is rare, +# but can happen because of inlining. -bs_test_tail2 Fail=f Ms=rx Bits=u==0 => bs_test_zero_tail2 Fail Ms -bs_test_tail2 Fail=f Ms=rx Bits=u => bs_test_tail_imm2 Fail Ms Bits -bs_test_zero_tail2 f r -bs_test_zero_tail2 f x -bs_test_tail_imm2 f r I -bs_test_tail_imm2 f x I +bs_context_to_binary Y=y | line L | badmatch Y => \ + move Y x | bs_context_to_binary x | line L | badmatch x -bs_test_unit F Ms Unit=u==8 => bs_test_unit8 F Ms -bs_test_unit f r I -bs_test_unit f x I -bs_test_unit8 f r -bs_test_unit8 f x +bs_context_to_binary Y=y => move Y x | bs_context_to_binary x -bs_context_to_binary r bs_context_to_binary x -bs_context_to_binary y # # Utf8/utf16/utf32 support. (R12B-5) # -bs_get_utf8 Fail=f Ms=rx u u Dst=d => i_bs_get_utf8 Ms Fail Dst -i_bs_get_utf8 r f d -i_bs_get_utf8 x f d +bs_get_utf8 Fail=f Ms=x u u Dst=d => i_bs_get_utf8 Ms Fail Dst +i_bs_get_utf8 x f? x -bs_skip_utf8 Fail=f Ms=rx u u => i_bs_get_utf8 Ms Fail x +bs_skip_utf8 Fail=f Ms=x u u => i_bs_get_utf8 Ms Fail x -bs_get_utf16 Fail=f Ms=rx u Flags=u Dst=d => i_bs_get_utf16 Ms Fail Flags Dst -bs_skip_utf16 Fail=f Ms=rx u Flags=u => i_bs_get_utf16 Ms Fail Flags x +bs_get_utf16 Fail=f Ms=x u Flags=u Dst=d => i_bs_get_utf16 Ms Fail Flags Dst +bs_skip_utf16 Fail=f Ms=x u Flags=u => i_bs_get_utf16 Ms Fail Flags x -i_bs_get_utf16 r f I d -i_bs_get_utf16 x f I d +i_bs_get_utf16 x f? t x -bs_get_utf32 Fail=f Ms=rx Live=u Flags=u Dst=d => \ +bs_get_utf32 Fail=f Ms=x Live=u Flags=u Dst=d => \ bs_get_integer2 Fail Ms Live i=32 u=1 Flags Dst | \ - i_fetch Dst Ms | \ - i_bs_validate_unicode_retract Fail -bs_skip_utf32 Fail=f Ms=rx Live=u Flags=u => \ + i_bs_validate_unicode_retract Fail Dst Ms +bs_skip_utf32 Fail=f Ms=x Live=u Flags=u => \ bs_get_integer2 Fail Ms Live i=32 u=1 Flags x | \ - i_fetch x Ms | \ - i_bs_validate_unicode_retract Fail + i_bs_validate_unicode_retract Fail x Ms -i_bs_validate_unicode_retract j +i_bs_validate_unicode_retract j s S %hot # # Constructing binaries # -%cold +%warm bs_init2 Fail Sz Words Regs Flags Dst | binary_too_big(Sz) => system_limit Fail -bs_init2 Fail Sz=u Words=u==0 Regs Flags Dst | should_gen_heap_bin(Sz) => \ - i_bs_init_heap_bin Sz Regs Dst bs_init2 Fail Sz=u Words=u==0 Regs Flags Dst => i_bs_init Sz Regs Dst -bs_init2 Fail Sz=u Words Regs Flags Dst | should_gen_heap_bin(Sz) => \ - i_bs_init_heap_bin_heap Sz Words Regs Dst bs_init2 Fail Sz=u Words Regs Flags Dst => \ i_bs_init_heap Sz Words Regs Dst bs_init2 Fail Sz Words=u==0 Regs Flags Dst => \ i_bs_init_fail Sz Fail Regs Dst bs_init2 Fail Sz Words Regs Flags Dst => \ - i_fetch Sz r | i_bs_init_fail_heap Words Fail Regs Dst + i_bs_init_fail_heap Sz Words Fail Regs Dst -i_bs_init_fail r j I d -i_bs_init_fail x j I d -i_bs_init_fail y j I d +i_bs_init_fail xy j? t? x -i_bs_init_fail_heap I j I d +i_bs_init_fail_heap s I j? t? x -i_bs_init I I d -i_bs_init_heap_bin I I d +i_bs_init W t? x -i_bs_init_heap I I I d -i_bs_init_heap_bin_heap I I I d +i_bs_init_heap W I t? x bs_init_bits Fail Sz=o Words Regs Flags Dst => system_limit Fail @@ -1305,117 +1204,84 @@ bs_init_bits Fail Sz=u Words Regs Flags Dst => i_bs_init_bits_heap Sz Words Reg bs_init_bits Fail Sz Words=u==0 Regs Flags Dst => \ i_bs_init_bits_fail Sz Fail Regs Dst bs_init_bits Fail Sz Words Regs Flags Dst => \ - i_fetch Sz r | i_bs_init_bits_fail_heap Words Fail Regs Dst + i_bs_init_bits_fail_heap Sz Words Fail Regs Dst -i_bs_init_bits_fail r j I d -i_bs_init_bits_fail x j I d -i_bs_init_bits_fail y j I d +i_bs_init_bits_fail xy j? t? x -i_bs_init_bits_fail_heap I j I d +i_bs_init_bits_fail_heap s I j? t? x -i_bs_init_bits I I d -i_bs_init_bits_heap I I I d +i_bs_init_bits W t? x +i_bs_init_bits_heap W I t? x bs_add Fail S1=i==0 S2 Unit=u==1 D => move S2 D -bs_add Fail S1 S2 Unit D => i_fetch S1 S2 | i_bs_add Fail Unit D -i_bs_add j I d +bs_add j? s s t? x bs_append Fail Size Extra Live Unit Bin Flags Dst => \ - i_fetch Size Bin | i_bs_append Fail Extra Live Unit Dst + move Bin x | i_bs_append Fail Extra Live Unit Size Dst bs_private_append Fail Size Unit Bin Flags Dst => \ - i_fetch Size Bin | i_bs_private_append Fail Unit Dst + i_bs_private_append Fail Unit Size Bin Dst bs_init_writable -i_bs_append j I I I d -i_bs_private_append j I d +i_bs_append j? I t? t s x +i_bs_private_append j? t s S x # # Storing integers into binaries. # -bs_put_integer Fail=j Sz=s Unit=u Flags=u Literal=q => \ - move Literal x | bs_put_integer Fail Sz Unit Flags x bs_put_integer Fail=j Sz=sq Unit=u Flags=u Src=s => \ gen_put_integer(Fail, Sz, Unit, Flags, Src) -%macro: i_new_bs_put_integer NewBsPutInteger -%macro: i_new_bs_put_integer_imm NewBsPutIntegerImm - -i_new_bs_put_integer j s I s -i_new_bs_put_integer_imm j I I s +i_new_bs_put_integer j? s t s +i_new_bs_put_integer_imm j? W t s # # Utf8/utf16/utf32 support. (R12B-5) # -bs_utf8_size Fail Literal=q Dst=d => \ - move Literal x | bs_utf8_size Fail x Dst bs_utf8_size j Src=s Dst=d => i_bs_utf8_size Src Dst -i_bs_utf8_size s d +i_bs_utf8_size s x -bs_utf16_size Fail Literal=q Dst=d => \ - move Literal x | bs_utf16_size Fail x Dst bs_utf16_size j Src=s Dst=d => i_bs_utf16_size Src Dst -i_bs_utf16_size s d +i_bs_utf16_size s x -bs_put_utf8 Fail=j Flags=u Literal=q => \ - move Literal x | bs_put_utf8 Fail Flags x bs_put_utf8 Fail u Src=s => i_bs_put_utf8 Fail Src -i_bs_put_utf8 j s - -bs_put_utf16 Fail=j Flags=u Literal=q => \ - move Literal x | bs_put_utf16 Fail Flags x -bs_put_utf16 Fail Flags=u Src=s => i_bs_put_utf16 Fail Flags Src +i_bs_put_utf8 j? s -i_bs_put_utf16 j I s +bs_put_utf16 j? t s -bs_put_utf32 Fail=j Flags=u Literal=q => \ - move Literal x | bs_put_utf32 Fail Flags x bs_put_utf32 Fail=j Flags=u Src=s => \ i_bs_validate_unicode Fail Src | bs_put_integer Fail i=32 u=1 Flags Src -i_bs_validate_unicode j s +i_bs_validate_unicode j? s # # Storing floats into binaries. # bs_put_float Fail Sz=q Unit Flags Val => badarg Fail -bs_put_float Fail=j Sz Unit=u Flags=u Literal=q => \ - move Literal x | bs_put_float Fail Sz Unit Flags x - bs_put_float Fail=j Sz=s Unit=u Flags=u Src=s => \ gen_put_float(Fail, Sz, Unit, Flags, Src) -%macro: i_new_bs_put_float NewBsPutFloat -%macro: i_new_bs_put_float_imm NewBsPutFloatImm - -i_new_bs_put_float j s I s -i_new_bs_put_float_imm j I I s +i_new_bs_put_float j? s t s +i_new_bs_put_float_imm j? W t s # # Storing binaries into binaries. # -bs_put_binary Fail Sz Unit Flags Literal=q => \ - move Literal x | bs_put_binary Fail Sz Unit Flags x bs_put_binary Fail=j Sz=s Unit=u Flags=u Src=s => \ gen_put_binary(Fail, Sz, Unit, Flags, Src) -%macro: i_new_bs_put_binary NewBsPutBinary -i_new_bs_put_binary j s I s - -%macro: i_new_bs_put_binary_imm NewBsPutBinaryImm -i_new_bs_put_binary_imm j I s - -%macro: i_new_bs_put_binary_all NewBsPutBinaryAll -i_new_bs_put_binary_all j s I +i_new_bs_put_binary j? s t s +i_new_bs_put_binary_imm j? W s +i_new_bs_put_binary_all j? s t # # Warning: The i_bs_put_string and i_new_bs_put_string instructions @@ -1423,9 +1289,7 @@ i_new_bs_put_binary_all j s I # Don't change the instruction format unless you change the loader too. # -bs_put_string I I - -%hot +bs_put_string W W # # New floating point instructions (R8). @@ -1439,11 +1303,13 @@ fnegate p FR1 FR2 => i_fnegate FR1 FR2 fconv Arg=iqan Dst=l => move Arg x | fconv x Dst -fmove q l -fmove d l -fmove l d +fmove Arg=l Dst=d => fstore Arg Dst +fmove Arg=dq Dst=l => fload Arg Dst + +fstore l d +fload Sq l -fconv d l +fconv S l i_fadd l l l i_fsub l l l @@ -1453,162 +1319,202 @@ i_fnegate l l fclearerror | no_fpe_signals() => fcheckerror p | no_fpe_signals() => + +%unless NO_FPE_SIGNALS fcheckerror p => i_fcheckerror i_fcheckerror fclearerror +%endif + +%hot # # New apply instructions in R10B. # -apply I -apply_last I P +apply t +apply_last t Q + +# +# Handle compatibility with OTP 17 here. +# + +i_put_map_assoc/4 + +# We KNOW that in OTP 20 (actually OTP 18 and higher), a put_map_assoc instruction +# is always preceded by an is_map test. That means that put_map_assoc can never +# fail and does not need any failure label. + +put_map_assoc Fail Map Dst Live Size Rest=* | compiled_with_otp_20_or_higher() => \ + i_put_map_assoc Map Dst Live Size Rest + +# Translate the put_map_assoc instruction if the module was compiled by a compiler +# before 20. This is only necessary if the OTP 17 compiler was used, but we +# have no safe and relatively easy way to know whether OTP 18/19 was used. + +put_map_assoc Fail=p Map Dst Live Size Rest=* => \ + ensure_map Map | i_put_map_assoc Map Dst Live Size Rest +put_map_assoc Fail=f Map Dst Live Size Rest=* => \ + is_map Fail Map | i_put_map_assoc Map Dst Live Size Rest + +ensure_map Lit=q | literal_is_map(Lit) => +ensure_map Src=cqy => move Src x | ensure_map x + +%cold +ensure_map x +%hot # -# Map instructions in R17. +# Map instructions. First introduced in R17. # -put_map_assoc F n Dst Live Size Rest=* => new_map F Dst Live Size Rest -put_map_assoc F Src=s Dst Live Size Rest=* => \ - update_map_assoc F Src Dst Live Size Rest -put_map_assoc F Src Dst Live Size Rest=* => \ - move Src x | update_map_assoc F x Dst Live Size Rest -put_map_exact F n Dst Live Size Rest=* => new_map F Dst Live Size Rest -put_map_exact F Src=s Dst Live Size Rest=* => \ +sorted_put_map_assoc/4 +i_put_map_assoc Map Dst Live Size Rest=* | map_key_sort(Size, Rest) => \ + sorted_put_map_assoc Map Dst Live Size Rest + +sorted_put_map_exact/5 +put_map_exact F Map Dst Live Size Rest=* | map_key_sort(Size, Rest) => \ + sorted_put_map_exact F Map Dst Live Size Rest + +sorted_put_map_assoc Map Dst Live Size Rest=* | is_empty_map(Map) => \ + new_map Dst Live Size Rest +sorted_put_map_assoc Src=s Dst Live Size Rest=* => \ + update_map_assoc Src Dst Live Size Rest +sorted_put_map_assoc Src Dst Live Size Rest=* => \ + move Src x | update_map_assoc x Dst Live Size Rest + +sorted_put_map_exact F Src=s Dst Live Size Rest=* => \ update_map_exact F Src Dst Live Size Rest -put_map_exact F Src Dst Live Size Rest=* => \ +sorted_put_map_exact F Src Dst Live Size Rest=* => \ move Src x | update_map_exact F x Dst Live Size Rest -new_map j d I I -update_map_assoc j s d I I -update_map_exact j s d I I +new_map Dst Live Size Rest=* | is_small_map_literal_keys(Size, Rest) => \ + gen_new_small_map_lit(Dst, Live, Size, Rest) -is_map Fail Literal=q => move Literal x | is_map Fail x -is_map Fail c => jump Fail +new_map d t I +i_new_small_map_lit d t q +update_map_assoc s d t I +update_map_exact j? s d t I -%macro: is_map IsMap -fail_action -is_map f r -is_map f x -is_map f y +is_map Fail Lit=q | literal_is_map(Lit) => +is_map Fail cq => jump Fail -## Transform has_map_field(s) #{ K1 := _, K2 := _ } +is_map f? xy -has_map_field/3 +## Transform has_map_fields #{ K1 := _, K2 := _ } to has_map_elements -has_map_fields Fail Src Size=u==1 Rest=* => gen_has_map_field(Fail,Src,Size,Rest) -has_map_fields Fail Src Size Rest=* => i_has_map_fields Fail Src Size Rest +has_map_fields Fail Src Size Rest=* => \ + gen_has_map_fields(Fail, Src, Size, Rest) -i_has_map_fields f s I +## Transform get_map_elements(s) #{ K1 := V1, K2 := V2 } -has_map_field Fail Src=rxy Key=arxy => i_has_map_field Fail Src Key -has_map_field Fail Src Key => move Key x | i_has_map_field Fail Src x +get_map_elements Fail Src=xy Size=u==2 Rest=* => \ + gen_get_map_element(Fail, Src, Size, Rest) +get_map_elements Fail Src Size Rest=* | map_key_sort(Size, Rest) => \ + gen_get_map_elements(Fail, Src, Size, Rest) -%macro: i_has_map_field HasMapField -fail_action -i_has_map_field f r a -i_has_map_field f x a -i_has_map_field f y a -i_has_map_field f r r -i_has_map_field f x r -i_has_map_field f y r -i_has_map_field f r x -i_has_map_field f x x -i_has_map_field f y x -i_has_map_field f r y -i_has_map_field f x y -i_has_map_field f y y +i_get_map_elements f? s I -## Transform get_map_elements(s) #{ K1 := V1, K2 := V2 } +i_get_map_element Fail Src=xy Key=y Dst => \ + move Key x | i_get_map_element Fail Src x Dst + +i_get_map_element_hash f? xy c I xy -get_map_element/4 +i_get_map_element f? xy x xy -get_map_elements Fail Src=rxy Size=u==2 Rest=* => gen_get_map_element(Fail,Src,Size,Rest) -get_map_elements Fail Src Size Rest=* => i_get_map_elements Fail Src Size Rest +# +# Convert the plus operations to a generic plus instruction. +# +gen_plus/5 +gen_minus/5 -i_get_map_elements f s I +gc_bif1 Fail Live u$bif:erlang:splus/1 Src Dst => \ + gen_plus Fail Live Src i Dst +gc_bif2 Fail Live u$bif:erlang:splus/2 S1 S2 Dst => \ + gen_plus Fail Live S1 S2 Dst -get_map_element Fail Src=rxy Key=ax Dst => i_get_map_element Fail Src Key Dst -get_map_element Fail Src=rxy Key=rycq Dst => \ - move Key x | i_get_map_element Fail Src x Dst -get_map_element Fail Src Key Dst => jump Fail - -%macro: i_get_map_element GetMapElement -fail_action -i_get_map_element f r a r -i_get_map_element f x a r -i_get_map_element f y a r -i_get_map_element f r a x -i_get_map_element f x a x -i_get_map_element f y a x -i_get_map_element f r a y -i_get_map_element f x a y -i_get_map_element f y a y -i_get_map_element f r x r -i_get_map_element f x x r -i_get_map_element f y x r -i_get_map_element f r x x -i_get_map_element f x x x -i_get_map_element f y x x -i_get_map_element f r x y -i_get_map_element f x x y -i_get_map_element f y x y +gc_bif1 Fail Live u$bif:erlang:sminus/1 Src Dst => \ + gen_minus Fail Live i Src Dst +gc_bif2 Fail Live u$bif:erlang:sminus/2 S1 S2 Dst => \ + gen_minus Fail Live S1 S2 Dst # # Optimize addition and subtraction of small literals using # the i_increment/4 instruction (in bodies, not in guards). # -gc_bif2 p Live u$bif:erlang:splus/2 Int=i Reg=d Dst => \ +gen_plus p Live Int=i Reg=d Dst => \ gen_increment(Reg, Int, Live, Dst) -gc_bif2 p Live u$bif:erlang:splus/2 Reg=d Int=i Dst => \ +gen_plus p Live Reg=d Int=i Dst => \ gen_increment(Reg, Int, Live, Dst) -gc_bif2 p Live u$bif:erlang:sminus/2 Reg=d Int=i Dst | \ - negation_is_small(Int) => \ +gen_minus p Live Reg=d Int=i Dst | negation_is_small(Int) => \ gen_increment_from_minus(Reg, Int, Live, Dst) # # GCing arithmetic instructions. # -gc_bif2 Fail I u$bif:erlang:splus/2 S1 S2 Dst=d => i_fetch S1 S2 | i_plus Fail I Dst -gc_bif2 Fail I u$bif:erlang:sminus/2 S1 S2 Dst=d => i_fetch S1 S2 | i_minus Fail I Dst -gc_bif2 Fail I u$bif:erlang:stimes/2 S1 S2 Dst=d => i_fetch S1 S2 | i_times Fail I Dst -gc_bif2 Fail I u$bif:erlang:div/2 S1 S2 Dst=d => i_fetch S1 S2 | i_m_div Fail I Dst +gen_plus Fail Live S1 S2 Dst => i_plus S1 S2 Fail Live Dst + +gen_minus Fail Live S1 S2 Dst => i_minus S1 S2 Fail Live Dst -gc_bif2 Fail I u$bif:erlang:intdiv/2 S1 S2 Dst=d => i_fetch S1 S2 | i_int_div Fail I Dst -gc_bif2 Fail I u$bif:erlang:rem/2 S1 S2 Dst=d => i_fetch S1 S2 | i_rem Fail I Dst +gc_bif2 Fail Live u$bif:erlang:stimes/2 S1 S2 Dst => \ + i_times Fail Live S1 S2 Dst -gc_bif2 Fail I u$bif:erlang:bsl/2 S1 S2 Dst=d => i_fetch S1 S2 | i_bsl Fail I Dst -gc_bif2 Fail I u$bif:erlang:bsr/2 S1 S2 Dst=d => i_fetch S1 S2 | i_bsr Fail I Dst +gc_bif2 Fail Live u$bif:erlang:div/2 S1 S2 Dst => \ + i_m_div Fail Live S1 S2 Dst +gc_bif2 Fail Live u$bif:erlang:intdiv/2 S1 S2 Dst => \ + i_int_div Fail Live S1 S2 Dst -gc_bif2 Fail I u$bif:erlang:band/2 S1 S2 Dst=d => i_fetch S1 S2 | i_band Fail I Dst -gc_bif2 Fail I u$bif:erlang:bor/2 S1 S2 Dst=d => i_fetch S1 S2 | i_bor Fail I Dst -gc_bif2 Fail I u$bif:erlang:bxor/2 S1 S2 Dst=d => i_fetch S1 S2 | i_bxor Fail I Dst +gc_bif2 Fail Live u$bif:erlang:rem/2 S1 S2 Dst => \ + i_rem S1 S2 Fail Live Dst + +gc_bif2 Fail Live u$bif:erlang:bsl/2 S1 S2 Dst => \ + i_bsl S1 S2 Fail Live Dst +gc_bif2 Fail Live u$bif:erlang:bsr/2 S1 S2 Dst => \ + i_bsr S1 S2 Fail Live Dst + +gc_bif2 Fail Live u$bif:erlang:band/2 S1 S2 Dst => \ + i_band S1 S2 Fail Live Dst + +gc_bif2 Fail Live u$bif:erlang:bor/2 S1 S2 Dst => \ + i_bor Fail Live S1 S2 Dst + +gc_bif2 Fail Live u$bif:erlang:bxor/2 S1 S2 Dst => \ + i_bxor Fail Live S1 S2 Dst gc_bif1 Fail I u$bif:erlang:bnot/1 Src Dst=d => i_int_bnot Fail Src I Dst -gc_bif1 Fail I u$bif:erlang:sminus/1 Src Dst=d => i_fetch i Src | i_minus Fail I Dst -gc_bif1 Fail I u$bif:erlang:splus/1 Src Dst=d => i_fetch i Src | i_plus Fail I Dst +i_increment rxy W t d + +i_plus x xy j? t d +i_plus s s j? t d + +i_minus x x j? t d +i_minus s s j? t d -i_increment r I I d -i_increment x I I d -i_increment y I I d +i_times j? t s s d -i_plus j I d -i_minus j I d -i_times j I d -i_m_div j I d -i_int_div j I d -i_rem j I d +i_m_div j? t s s d +i_int_div j? t s s d -i_bsl j I d -i_bsr j I d +i_rem x x j? t d +i_rem s s j? t d -i_band j I d -i_bor j I d -i_bxor j I d +i_bsl s s j? t d +i_bsr s s j? t d -i_int_bnot j s I d +i_band x c j? t d +i_band s s j? t d + +i_bor j? I s s d +i_bxor j? I s s d + +i_int_bnot Fail Src=c Live Dst => move Src x | i_int_bnot Fail x Live Dst + +i_int_bnot j? S t d # # Old guard BIFs that creates heap fragments are no longer allowed. @@ -1632,21 +1538,18 @@ gc_bif2 Fail I Bif S1 S2 Dst => \ gc_bif3 Fail I Bif S1 S2 S3 Dst => \ gen_guard_bif3(Fail, I, Bif, S1, S2, S3, Dst) -i_gc_bif1 Fail Bif V=q Live D => move V x | i_gc_bif1 Fail Bif x Live D - -i_gc_bif1 j I s I d - -ii_gc_bif2/6 - -ii_gc_bif2 Fail Bif S1 S2 Live D => i_fetch S1 S2 | i_gc_bif2 Fail Bif Live D +i_gc_bif1 j? W s t? d -i_gc_bif2 j I I d +i_gc_bif2 j? W t? s s d ii_gc_bif3/7 -ii_gc_bif3 Fail Bif S1 S2 S3 Live D => move S1 x | i_fetch S2 S3 | i_gc_bif3 Fail Bif x Live D +# A specific instruction can only have 6 operands, so we must +# pass one of the arguments in an x register. +ii_gc_bif3 Fail Bif Live S1 S2 S3 Dst => \ + move S1 x | i_gc_bif3 Fail Bif Live S2 S3 Dst -i_gc_bif3 j I s I d +i_gc_bif3 j? W t? s s d # # The following instruction is specially handled in beam_load.c |