factor/core/inference/class/class-tests.factor

326 lines
6.5 KiB
Factor
Executable File

IN: inference.class.tests
USING: arrays math.private kernel math compiler inference
inference.dataflow optimizer tools.test kernel.private generic
sequences words inference.class quotations alien
alien.c-types strings sbufs sequences.private
slots.private combinators definitions compiler.units
system layouts vectors ;
! Make sure these compile even though this is invalid code
[ ] [ [ 10 mod 3.0 /i ] dataflow optimize drop ] unit-test
[ ] [ [ 10 mod 3.0 shift ] dataflow optimize drop ] unit-test
! Ensure type inference works as it is supposed to by checking
! if various methods get inlined
: inlined? ( quot word -- ? )
swap dataflow optimize
[ node-param eq? ] with node-exists? not ;
GENERIC: mynot ( x -- y )
M: f mynot drop t ;
M: object mynot drop f ;
GENERIC: detect-f ( x -- y )
M: f detect-f ;
[ t ] [
[ dup [ mynot ] [ ] if detect-f ] \ detect-f inlined?
] unit-test
[ ] [ [ fixnum< ] dataflow optimize drop ] unit-test
[ ] [ [ fixnum< [ ] [ ] if ] dataflow optimize drop ] unit-test
GENERIC: xyz ( n -- n )
M: integer xyz ;
M: object xyz ;
[ t ] [
[ { integer } declare xyz ] \ xyz inlined?
] unit-test
[ t ] [
[ dup fixnum? [ xyz ] [ drop "hi" ] if ]
\ xyz inlined?
] unit-test
: (fx-repeat) ( i n quot -- )
2over fixnum>= [
3drop
] [
[ swap >r call 1 fixnum+fast r> ] keep (fx-repeat)
] if ; inline
: fx-repeat ( n quot -- )
0 -rot (fx-repeat) ; inline
! The + should be optimized into fixnum+, if it was not, then
! the type of the loop index was not inferred correctly
[ t ] [
[ [ dup 2 + drop ] fx-repeat ] \ + inlined?
] unit-test
: (i-repeat) ( i n quot -- )
2over dup xyz drop >= [
3drop
] [
[ swap >r call 1+ r> ] keep (i-repeat)
] if ; inline
: i-repeat >r { integer } declare r> 0 -rot (i-repeat) ; inline
[ t ] [
[ [ dup xyz drop ] i-repeat ] \ xyz inlined?
] unit-test
[ t ] [
[ { fixnum } declare dup 100 >= [ 1 + ] unless ] \ fixnum+ inlined?
] unit-test
[ t ] [
[ { fixnum fixnum } declare dupd < [ 1 + 1 + ] when ]
\ + inlined?
] unit-test
[ t ] [
[ { fixnum fixnum } declare dupd < [ 1 + 1 + ] when ]
\ + inlined?
] unit-test
[ t ] [
[ { fixnum } declare [ ] times ] \ >= inlined?
] unit-test
[ t ] [
[ { fixnum } declare [ ] times ] \ 1+ inlined?
] unit-test
[ t ] [
[ { fixnum } declare [ ] times ] \ + inlined?
] unit-test
[ t ] [
[ { fixnum } declare [ ] times ] \ fixnum+ inlined?
] unit-test
[ f ] [
[ { integer fixnum } declare dupd < [ 1 + ] when ]
\ + inlined?
] unit-test
[ f ] [ [ dup 0 < [ neg ] when ] \ neg inlined? ] unit-test
[ f ] [
[
[ no-cond ] 1
[ 1array dup quotation? [ >quotation ] unless ] times
] \ quotation? inlined?
] unit-test
[ f ] [ [ <reversed> length ] \ slot inlined? ] unit-test
! We don't want to use = to compare literals
: foo reverse ;
\ foo [
[
fixnum 0 `output class,
V{ } dup dup push 0 `input literal,
] set-constraints
] "constraints" set-word-prop
DEFER: blah
[ t ] [
[
\ blah
[ dup V{ } eq? [ foo ] when ] dup second dup push define
] with-compilation-unit
\ blah compiled?
] unit-test
GENERIC: detect-fx ( n -- n )
M: fixnum detect-fx ;
[ t ] [
[
[ uchar-nth ] 2keep [ uchar-nth ] 2keep uchar-nth
>r >r 298 * r> 100 * - r> 208 * - 128 + -8 shift
255 min 0 max detect-fx
] \ detect-fx inlined?
] unit-test
[ f ] [
[
1000000000000000000000000000000000 [ ] times
] \ 1+ inlined?
] unit-test
[ f ] [
[ { bignum } declare [ ] times ] \ 1+ inlined?
] unit-test
[ t ] [
[ { string sbuf } declare push-all ] \ push-all inlined?
] unit-test
[ t ] [
[ { string sbuf } declare push-all ] \ + inlined?
] unit-test
[ t ] [
[ { string sbuf } declare push-all ] \ fixnum+ inlined?
] unit-test
[ t ] [
[ { string sbuf } declare push-all ] \ >fixnum inlined?
] unit-test
[ t ] [
[ { array-capacity } declare 0 < ] \ < inlined?
] unit-test
[ t ] [
[ { array-capacity } declare 0 < ] \ fixnum< inlined?
] unit-test
[ t ] [
[ { array-capacity } declare 1 fixnum- ] \ fixnum- inlined?
] unit-test
[ t ] [
[ 5000 [ 5000 [ ] times ] times ] \ 1+ inlined?
] unit-test
[ t ] [
[ 5000 [ [ ] times ] each ] \ 1+ inlined?
] unit-test
[ t ] [
[ 5000 0 [ dup 2 - swap [ 2drop ] curry each ] reduce ]
\ 1+ inlined?
] unit-test
GENERIC: annotate-entry-test-1 ( x -- )
M: fixnum annotate-entry-test-1 drop ;
: (annotate-entry-test-2) ( from to quot -- )
2over >= [
3drop
] [
[ swap >r call dup annotate-entry-test-1 1+ r> ] keep (annotate-entry-test-2)
] if ; inline
: annotate-entry-test-2 0 -rot (annotate-entry-test-2) ; inline
[ f ] [
[ { bignum } declare [ ] annotate-entry-test-2 ]
\ annotate-entry-test-1 inlined?
] unit-test
[ t ] [
[ { float } declare 10 [ 2.3 * ] times >float ]
\ >float inlined?
] unit-test
GENERIC: detect-float ( a -- b )
M: float detect-float ;
[ t ] [
[ { real float } declare + detect-float ]
\ detect-float inlined?
] unit-test
[ t ] [
[ { float real } declare + detect-float ]
\ detect-float inlined?
] unit-test
[ t ] [
[ 3 + = ] \ equal? inlined?
] unit-test
[ t ] [
[ { fixnum fixnum } declare 7 bitand neg shift ]
\ shift inlined?
] unit-test
[ t ] [
[ { fixnum fixnum } declare 7 bitand neg shift ]
\ fixnum-shift inlined?
] unit-test
[ t ] [
[ { fixnum fixnum } declare 1 swap 7 bitand shift ]
\ fixnum-shift inlined?
] unit-test
cell-bits 32 = [
[ t ] [
[ { fixnum fixnum } declare 1 swap 31 bitand shift ]
\ shift inlined?
] unit-test
[ f ] [
[ { fixnum fixnum } declare 1 swap 31 bitand shift ]
\ fixnum-shift inlined?
] unit-test
] when
[ t ] [
[ B{ 1 0 } *short 0 number= ]
\ number= inlined?
] unit-test
[ t ] [
[ B{ 1 0 } *short 0 { number number } declare number= ]
\ number= inlined?
] unit-test
[ t ] [
[ B{ 1 0 } *short 0 = ]
\ number= inlined?
] unit-test
[ t ] [
[ B{ 1 0 } *short dup number? [ 0 number= ] [ drop f ] if ]
\ number= inlined?
] unit-test
[ t ] [
[ HEX: ff bitand 0 HEX: ff between? ]
\ >= inlined?
] unit-test
[ t ] [
[ HEX: ff swap HEX: ff bitand >= ]
\ >= inlined?
] unit-test
[ t ] [
[ { vector } declare nth-unsafe ] \ nth-unsafe inlined?
] unit-test
[ t ] [
[
dup integer? [
dup fixnum? [
1 +
] [
2 +
] if
] when
] \ + inlined?
] unit-test