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6502bench/SourceGen/SGTestData/Expected/2014-label-dp_acme.S
Andy McFadden 4981c3cdbb Fix ACME code gen "overflow"
ACME has a "real" PC and a "pseudo" PC.  The "real" PC determines the
initial position in a 64KB buffer used to hold assembler output.  If
the amount of code generated runs off the end, the assembler fails
with "produced too much code".

The source code generator in SourceGen was outputting a "real" PC
for the first address range and "psuedo" PCs for any address ranges
that followed.  This produced nice results for code with a single
range, but caused problems for multi-range sources if the initial
range was high in memory and a later range was lower in memory.
While the assembler isn't actually generating more than 64KB of code,
ACME's buffer management was detecting an overflow.

Now, if a source file has multiple address ranges, we set the "real"
PC to $0000 and use a "pseudo" PC for all ranges.  Output for projects
with a single address range is unmodified.
2020-05-14 16:37:33 -07:00

298 lines
5.8 KiB
ArmAsm

;6502bench SourceGen v1.1.0-dev1
!cpu 65816
* = $0000
!pseudopc $1000 {
!as
!rs
sec
xce
jsr L101F
jsr L10AB
jsr L10F2
jsr L1106
jsr L1109
jsr L112C
jsr L11F9
jsr L11FC
nop
nop
nop
brk
!byte $80
L101F ora (L0080,x)
cop $80
ora $80,S
tsb+1 L0080
ora+1 L0080
asl+1 L0080
ora [L0080]
php
ora #$80
asl
phd
tsb+2 L0086
ora+2 L0086
asl+2 L0086
ora+3 L0089
bpl @L1041
@L1041 ora (L0080),y
ora (L0080)
ora ($80,S),y
trb+1 L0080
ora+1 L0080,x
asl+1 L0080,x
ora [L0080],y
clc
ora L0086,y
inc
tcs
trb+2 L0086
ora+2 L0086,x
asl+2 L0086,x
ora+3 L0089,x
jsr L0086
and (L0080,x)
jsl L0089
and $80,S
bit+1 L0080
and+1 L0080
rol+1 L0080
and [L0080]
plp
and #$80
rol
pld
bit+2 L0086
and+2 L0086
rol+2 L0086
and+3 L0089
bmi @L1089
@L1089 and (L0080),y
and (L0080)
and ($80,S),y
bit+1 L0080,x
and+1 L0080,x
rol+1 L0080,x
and [L0080],y
sec
and L0086,y
dec
tsc
bit+2 L0086,x
and+2 L0086,x
rol+2 L0086,x
and+3 L0089,x
rti
L10AB eor (L0080,x)
!byte $42,$80
eor $80,S
mvp $84,$83
eor+1 L0080
lsr+1 L0080
eor [L0080]
pha
eor #$80
lsr
phk
jmp @L10C2
@L10C2 eor+2 L0086
lsr+2 L0086
eor+3 L0089
bvc @L10CE
@L10CE eor (L0080),y
eor (L0080)
eor ($80,S),y
mvn $84,$83
eor+1 L0080,x
lsr+1 L0080,x
eor [L0080],y
cli
eor L0086,y
phy
tcd
jml @L10E7
@L10E7 eor+2 L0086,x
lsr+2 L0086,x
eor+3 L0089,x
rts
L10F2 adc (L0080,x)
per $0ff6
adc $80,S
stz+1 L0080
adc+1 L0080
ror+1 L0080
adc [L0080]
pla
adc #$80
ror
rtl
L1106 jmp (L0086)
L1109 adc+2 L0086
ror+2 L0086
adc+3 L0089
bvs @L1115
@L1115 adc (L0080),y
adc (L0080)
adc ($80,S),y
stz+1 L0080,x
adc+1 L0080,x
ror+1 L0080,x
adc [L0080],y
sei
adc L0086,y
ply
tdc
jmp (L0086,x)
L112C adc+2 L0086,x
ror+2 L0086,x
adc+3 L0089,x
bra @L1138
@L1138 sta (L0080,x)
brl @L113D
@L113D sta $80,S
sty+1 L0080
sta+1 L0080
stx+1 L0080
sta [L0080]
dey
bit #$80
txa
phb
sty+2 L0086
sta+2 L0086
stx+2 L0086
sta+3 L0089
bcc @L115B
@L115B sta (L0080),y
sta (L0080)
sta ($80,S),y
sty+1 L0080,x
sta+1 L0080,x
stx+1 L0080,y
sta [L0080],y
tya
sta L0086,y
txs
txy
stz+2 L0086
sta+2 L0086,x
stz+2 L0086,x
sta+3 L0089,x
ldy #$80
lda (L0080,x)
ldx #$80
lda $80,S
ldy+1 L0080
lda+1 L0080
ldx+1 L0080
lda [L0080]
tay
lda #$80
tax
plb
ldy+2 L0086
lda+2 L0086
ldx+2 L0086
lda+3 L0089
bcs @L11A0
@L11A0 lda (L0080),y
lda (L0080)
lda ($80,S),y
ldy+1 L0080,x
lda+1 L0080,x
ldx+1 L0080,y
lda [L0080],y
clv
lda L0086,y
tsx
tyx
ldy+2 L0086,x
lda+2 L0086,x
ldx+2 L0086,y
lda+3 L0089,x
cpy #$80
cmp (L0080,x)
rep #$00
cmp $80,S
cpy+1 L0080
cmp+1 L0080
dec+1 L0080
cmp [L0080]
iny
cmp #$80
dex
wai
cpy+2 L0086
cmp+2 L0086
dec+2 L0086
cmp+3 L0089
bne @L11E5
@L11E5 cmp (L0080),y
cmp (L0080)
cmp ($80,S),y
pei (L0080)
cmp+1 L0080,x
dec+1 L0080,x
cmp [L0080],y
cld
cmp L0086,y
phx
stp
L11F9 jml [L0086]
L11FC cmp+2 L0086,x
dec+2 L0086,x
cmp+3 L0089,x
cpx #$80
sbc (L0080,x)
sep #$00
sbc $80,S
cpx+1 L0080
sbc+1 L0080
inc+1 L0080
sbc [L0080]
inx
sbc #$80
nop
xba
cpx+2 L0086
sbc+2 L0086
inc+2 L0086
sbc+3 L0089
beq @L122A
@L122A sbc (L0080),y
sbc (L0080)
sbc ($80,S),y
pea L0086
sbc+1 L0080,x
inc+1 L0080,x
sbc [L0080],y
sed
sbc L0086,y
plx
xce
jsr (L0086,x)
sbc+2 L0086,x
inc+2 L0086,x
sbc+3 L0089,x
} ;!pseudopc
!pseudopc $0080 {
L0080 bit+1 @L0082
@L0082 bit+1 @L0082
bit+1 @L0082
L0086 bit+2 L0086
L0089 lda+3 L0089
} ;!pseudopc