binutils-gdb/sim/testsuite/frv/testutils.inc
Mike Frysinger 1368b914e9 sim: testsuite: flatten tree
Now that all port tests live under testsuite/sim/*/, and none live
in testsuite/ directly, flatten the structure by moving all of the
dirs under testsuite/sim/ to testsuite/ directly.

We need to stop passing --tool to dejagnu so that it searches all
dirs and not just ones that start with "sim".  Since we have no
other dirs in this tree, and no plans to add any, should be fine.
2021-01-15 19:18:34 -05:00

657 lines
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# gr28-gr31, fr31, icc3, fcc3 are used as tmps.
# consider them call clobbered by these macros.
.macro start
.data
failmsg:
.ascii "fail\n"
passmsg:
.ascii "pass\n"
.text
.global _start
_start:
; enable data and insn caches in copy-back mode
; Also enable all registers
or_spr_immed 0xc80003c0,hsr0
and_spr_immed 0xfffff3ff,hsr0
; turn on psr.nem, psr.cm, psr.ef, psr.em, psr.esr,
; disable external interrupts
or_spr_immed 0x69f8,psr
; If fsr exists, enable all fp_exceptions except inexact
movsg psr,gr28
srli gr28,28,gr28
subicc gr28,0x2,gr0,icc3 ; is fr400?
beq icc3,0,nofsr0
or_spr_immed 0x3d000000,fsr0
nofsr0:
; Set the stack pointer
sethi.p 0x7,sp
setlo 0xfffc,sp ; TODO -- what's a good value for this?
; Set the TBR address
sethi.p 0xf,gr28
setlo 0xf000,gr28
movgs gr28,tbr ; TODO -- what's a good value for this?
; Go to user mode -- causes too many problems
;and_spr_immed 0xfffffffb,psr
.endm
; Set GR with another GR
.macro set_gr_gr src targ
addi \src,0,\targ
.endm
; Set GR with immediate value
.macro set_gr_immed val reg
.if (\val >= -32768) && (\val <= 23767)
setlos \val,\reg
.else
setlo.p %lo(\val),\reg
sethi %hi(\val),\reg
.endif
.endm
.macro set_gr_limmed valh vall reg
sethi.p \valh,\reg
setlo \vall,\reg
.endm
; Set GR with address value
.macro set_gr_addr addr reg
sethi.p %hi(\addr),\reg
setlo %lo(\addr),\reg
.endm
; Set GR with SPR
.macro set_gr_spr src targ
movsg \src,\targ
.endm
; Set GR with a value from memory
.macro set_gr_mem addr reg
set_gr_addr \addr,gr28
ldi @(gr28,0),\reg
.endm
; Increment GR with immediate value
.macro inc_gr_immed val reg
.if (\val >= -2048) && (\val <= 2047)
addi \reg,\val,\reg
.else
set_gr_immed \val,gr28
add \reg,gr28,\reg
.endif
.endm
; AND GR with immediate value
.macro and_gr_immed val reg
.if (\val >= -2048) && (\val <= 2047)
andi \reg,\val,\reg
.else
set_gr_immed \val,gr28
and \reg,gr28,\reg
.endif
.endm
; OR GR with immediate value
.macro or_gr_immed val reg
.if (\val >= -2048) && (\val <= 2047)
ori \reg,\val,\reg
.else
set_gr_immed \val,gr28
or \reg,gr28,\reg
.endif
.endm
; Set FR with another FR
.macro set_fr_fr src targ
fmovs \src,\targ
.endm
; Set FR with integer immediate value
.macro set_fr_iimmed valh vall reg
set_gr_limmed \valh,\vall,gr28
movgf gr28,\reg
.endm
; Set FR with integer immediate value
.macro set_fr_immed val reg
set_gr_immed \val,gr28
movgf gr28,\reg
.endm
; Set FR with a value from memory
.macro set_fr_mem addr reg
set_gr_addr \addr,gr28
ldfi @(gr28,0),\reg
.endm
; Set double FR with another double FR
.macro set_dfr_dfr src targ
fmovd \src,\targ
.endm
; Set double FR with a value from memory
.macro set_dfr_mem addr reg
set_gr_addr \addr,gr28
lddfi @(gr28,0),\reg
.endm
; Set CPR with immediate value
.macro set_cpr_immed val reg
addi sp,-4,gr28
set_gr_immed \val,gr29
st gr29,@(gr28,gr0)
ldc @(gr28,gr0),\reg
.endm
.macro set_cpr_limmed valh vall reg
addi sp,-4,gr28
set_gr_limmed \valh,\vall,gr29
st gr29,@(gr28,gr0)
ldc @(gr28,gr0),\reg
.endm
; Set SPR with immediate value
.macro set_spr_immed val reg
set_gr_immed \val,gr28
movgs gr28,\reg
.endm
.macro set_spr_limmed valh vall reg
set_gr_limmed \valh,\vall,gr28
movgs gr28,\reg
.endm
.macro set_spr_addr addr reg
set_gr_addr \addr,gr28
movgs gr28,\reg
.endm
; increment SPR with immediate value
.macro inc_spr_immed val reg
movsg \reg,gr28
inc_gr_immed \val,gr28
movgs gr28,\reg
.endm
; OR spr with immediate value
.macro or_spr_immed val reg
movsg \reg,gr28
set_gr_immed \val,gr29
or gr28,gr29,gr28
movgs gr28,\reg
.endm
; AND spr with immediate value
.macro and_spr_immed val reg
movsg \reg,gr28
set_gr_immed \val,gr29
and gr28,gr29,gr28
movgs gr28,\reg
.endm
; Set accumulator with immediate value
.macro set_acc_immed val reg
set_fr_immed \val,fr31
mwtacc fr31,\reg
.endm
; Set accumulator guard with immediate value
.macro set_accg_immed val reg
set_fr_immed \val,fr31
mwtaccg fr31,\reg
.endm
; Set memory with immediate value
.macro set_mem_immed val base
set_gr_immed \val,gr28
sti gr28,@(\base,0)
.endm
.macro set_mem_limmed valh vall base
set_gr_limmed \valh,\vall,gr28
sti gr28,@(\base,0)
.endm
; Set memory with GR value
.macro set_mem_gr reg addr
set_gr_addr \addr,gr28
sti \reg,@(gr28,0)
.endm
; Test the value of a general register against another general register
.macro test_gr_gr reg1 reg2
subcc \reg1,\reg2,gr0,icc3
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
; Test the value of an immediate against a general register
.macro test_gr_immed val reg
.if (\val >= -512) && (\val <= 511)
subicc \reg,\val,gr0,icc3
.else
set_gr_immed \val,gr28
subcc \reg,gr28,gr0,icc3
.endif
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
.macro test_gr_limmed valh vall reg
set_gr_limmed \valh,\vall,gr28
subcc \reg,gr28,gr0,icc3
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
; Test the value of an floating register against an integer immediate
.macro test_fr_limmed valh vall reg
movfg \reg,gr29
set_gr_limmed \valh,\vall,gr28
subcc gr29,gr28,gr0,icc3
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
.macro test_fr_iimmed val reg
movfg \reg,gr29
set_gr_immed \val,gr28
subcc gr29,gr28,gr0,icc3
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
; Test the value of a floating register against another floating point register
.macro test_fr_fr reg1 reg2
fcmps \reg1,\reg2,fcc3
fbeq fcc3,0,test_gr\@
fail
test_gr\@:
.endm
; Test the value of a double floating register against another
; double floating point register
.macro test_dfr_dfr reg1 reg2
fcmpd \reg1,\reg2,fcc3
fbeq fcc3,0,test_gr\@
fail
test_gr\@:
.endm
; Test the value of a special purpose register against an integer immediate
.macro test_spr_immed val reg
movsg \reg,gr29
set_gr_immed \val,gr28
subcc gr29,gr28,gr0,icc3
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
.macro test_spr_limmed valh vall reg
movsg \reg,gr29
set_gr_limmed \valh,\vall,gr28
subcc gr29,gr28,gr0,icc3
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
.macro test_spr_gr spr gr
movsg \spr,gr28
test_gr_gr \gr,gr28
.endm
.macro test_spr_addr addr reg
movsg \reg,gr29
set_gr_addr \addr,gr28
test_gr_gr gr28,gr29
.endm
; Test spr bits masked and shifted against the given value
.macro test_spr_bits mask,shift,val,reg
movsg \reg,gr28
set_gr_immed \mask,gr29
and gr28,gr29,gr28
srli gr28,\shift,gr29
test_gr_immed \val,gr29
.endm
; Test the value of an accumulator against an integer immediate
.macro test_acc_immed val reg
mrdacc \reg,fr31
test_fr_iimmed \val,fr31
.endm
; Test the value of an accumulator against an integer immediate
.macro test_acc_limmed valh vall reg
mrdacc \reg,fr31
test_fr_limmed \valh,\vall,fr31
.endm
; Test the value of an accumulator guard against an integer immediate
.macro test_accg_immed val reg
mrdaccg \reg,fr31
test_fr_iimmed \val,fr31
.endm
; Test CPR agains an immediate value
.macro test_cpr_limmed valh vall reg
addi sp,-4,gr31
stc \reg,@(gr31,gr0)
test_mem_limmed \valh,\vall,gr31
.endm
; Test the value of an immediate against memory
.macro test_mem_immed val base
ldi @(\base,0),gr29
.if (\val >= -512) && (\val <= 511)
subicc gr29,\val,gr0,icc3
.else
set_gr_immed \val,gr28
subcc gr29,gr28,gr0,icc3
.endif
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
.macro test_mem_limmed valh vall base
ldi @(\base,0),gr29
set_gr_limmed \valh,\vall,gr28
subcc gr29,gr28,gr0,icc3
beq icc3,0,test_gr\@
fail
test_gr\@:
.endm
; Set an integer condition code
.macro set_icc mask iccno
set_gr_immed 4,gr29
smuli gr29,\iccno,gr30
addi gr31,16,gr31
set_gr_immed 0xf,gr28
sll gr28,gr31,gr28
not gr28,gr28
movsg ccr,gr29
and gr28,gr29,gr29
set_gr_immed \mask,gr28
sll gr28,gr31,gr28
or gr28,gr29,gr29
movgs gr29,ccr
.endm
; started here
; Test the condition codes
.macro test_icc N Z V C iccno
.if (\N == 1)
bp \iccno,0,fail\@
.else
bn \iccno,0,fail\@
.endif
.if (\Z == 1)
bne \iccno,0,fail\@
.else
beq \iccno,0,fail\@
.endif
.if (\V == 1)
bnv \iccno,0,fail\@
.else
bv \iccno,0,fail\@
.endif
.if (\C == 1)
bnc \iccno,0,fail\@
.else
bc \iccno,0,fail\@
.endif
bra test_cc\@
fail\@:
fail
test_cc\@:
.endm
; Set an floating point condition code
.macro set_fcc mask fccno
set_gr_immed 4,gr29
smuli gr29,\fccno,gr30
set_gr_immed 0xf,gr28
sll gr28,gr31,gr28
not gr28,gr28
movsg ccr,gr29
and gr28,gr29,gr29
set_gr_immed \mask,gr28
sll gr28,gr31,gr28
or gr28,gr29,gr29
movgs gr29,ccr
.endm
; Test the condition codes
.macro test_fcc val fccno
set_gr_immed 4,gr29
smuli gr29,\fccno,gr30
movsg ccr,gr29
srl gr29,gr31,gr29
andi gr29,0xf,gr29
test_gr_immed \val,gr29
.endm
; Set PSR.ET
.macro set_psr_et val
movsg psr,gr28
.if (\val == 1)
ori gr28,1,gr28 ; Turn on SPR.ET
.else
andi gr28,0xfffffffe,gr28 ; Turn off SPR.ET
.endif
movgs gr28,psr
.endm
; Floating point constants
.macro float_constants
f0: .float 0.0
f1: .float 1.0
f2: .float 2.0
f3: .float 3.0
f6: .float 6.0
f9: .float 9.0
fn0: .float -0.0
fn1: .float -1.0
finf: .long 0x7f800000
fninf: .long 0xff800000
fmax: .long 0x7f7fffff
fmin: .long 0xff7fffff
feps: .long 0x00400000
fneps: .long 0x80400000
fnan1: .long 0x7fc00000
fnan2: .long 0x7f800001
.endm
.macro double_constants
d0: .double 0.0
d1: .double 1.0
d2: .double 2.0
d3: .double 3.0
d6: .double 6.0
d9: .double 9.0
dn0: .double -0.0
dn1: .double -1.0
dinf: .long 0x7ff00000
.long 0x00000000
dninf: .long 0xfff00000
.long 0x00000000
dmax: .long 0x7fefffff
.long 0xffffffff
dmin: .long 0xffefffff
.long 0xffffffff
deps: .long 0x00080000
.long 0x00000000
dneps: .long 0x80080000
.long 0x00000000
dnan1: .long 0x7ff80000
.long 0x00000000
dnan2: .long 0x7ff00000
.long 0x00000001
.endm
; Load floating point constants
.macro load_float_constants
set_fr_mem fninf,fr0
set_fr_mem fmin,fr4
set_fr_mem fn1,fr8
set_fr_mem fneps,fr12
set_fr_mem fn0,fr16
set_fr_mem f0,fr20
set_fr_mem feps,fr24
set_fr_mem f1,fr28
set_fr_mem f2,fr32
set_fr_mem f3,fr36
set_fr_mem f6,fr40
set_fr_mem f9,fr44
set_fr_mem fmax,fr48
set_fr_mem finf,fr52
set_fr_mem fnan1,fr56
set_fr_mem fnan2,fr60
.endm
.macro load_float_constants1
set_fr_mem fninf,fr1
set_fr_mem fmin,fr5
set_fr_mem fn1,fr9
set_fr_mem fneps,fr13
set_fr_mem fn0,fr17
set_fr_mem f0,fr21
set_fr_mem feps,fr25
set_fr_mem f1,fr29
set_fr_mem f2,fr33
set_fr_mem f3,fr37
set_fr_mem f6,fr41
set_fr_mem f9,fr45
set_fr_mem fmax,fr49
set_fr_mem finf,fr53
set_fr_mem fnan1,fr57
set_fr_mem fnan2,fr61
.endm
.macro load_float_constants2
set_fr_mem fninf,fr2
set_fr_mem fmin,fr6
set_fr_mem fn1,fr10
set_fr_mem fneps,fr14
set_fr_mem fn0,fr18
set_fr_mem f0,fr22
set_fr_mem feps,fr26
set_fr_mem f1,fr30
set_fr_mem f2,fr34
set_fr_mem f3,fr38
set_fr_mem f6,fr42
set_fr_mem f9,fr46
set_fr_mem fmax,fr50
set_fr_mem finf,fr54
set_fr_mem fnan1,fr58
set_fr_mem fnan2,fr62
.endm
.macro load_float_constants3
set_fr_mem fninf,fr3
set_fr_mem fmin,fr7
set_fr_mem fn1,fr11
set_fr_mem fneps,fr15
set_fr_mem fn0,fr19
set_fr_mem f0,fr23
set_fr_mem feps,fr27
set_fr_mem f1,fr31
set_fr_mem f2,fr35
set_fr_mem f3,fr39
set_fr_mem f6,fr43
set_fr_mem f9,fr47
set_fr_mem fmax,fr51
set_fr_mem finf,fr55
set_fr_mem fnan1,fr59
set_fr_mem fnan2,fr63
.endm
.macro load_double_constants
set_dfr_mem dninf,fr0
set_dfr_mem dmin,fr4
set_dfr_mem dn1,fr8
set_dfr_mem dneps,fr12
set_dfr_mem dn0,fr16
set_dfr_mem d0,fr20
set_dfr_mem deps,fr24
set_dfr_mem d1,fr28
set_dfr_mem d2,fr32
set_dfr_mem d3,fr36
set_dfr_mem d6,fr40
set_dfr_mem d9,fr44
set_dfr_mem dmax,fr48
set_dfr_mem dinf,fr52
set_dfr_mem dnan1,fr56
set_dfr_mem dnan2,fr60
.endm
; Lock the insn cache at the given address
.macro lock_insn_cache address
icpl \address,gr0,1
.endm
; Lock the data cache at the given address
.macro lock_data_cache address
dcpl \address,gr0,1
.endm
; Invalidate the data cache at the given address
.macro invalidate_data_cache address
dci @(\address,gr0)
.endm
; Flush the data cache at the given address
.macro flush_data_cache address
dcf @(\address,gr0)
.endm
; Write a bctrlr 0,0 insn at the address contained in the given register
.macro set_bctrlr_0_0 address
set_mem_immed 0x80382000,\address ; bctrlr 0,0
flush_data_cache \address
.endm
; Exit with return code
.macro exit rc
setlos #1,gr7
set_gr_immed \rc,gr8
tira gr0,#0
.endm
; Pass the test case
.macro pass
pass\@:
setlos.p #5,gr10
setlos #1,gr8
setlos #5,gr7
set_gr_addr passmsg,gr9
tira gr0,#0
exit #0
.endm
; Fail the testcase
.macro fail
fail\@:
setlos.p #5,gr10
setlos #1,gr8
setlos #5,gr7
set_gr_addr failmsg,gr9
tira gr0,#0
exit #1
.endm