; Copyright 2000 Pace Micro Technology plc
;
; 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
;
; 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.
;
; > Copro15ops
;macros for Coprocessor #15 operations (configuration), which run-time detect
;and cater for ARM 6,7,8,A (A=StrongARM).
;Routines detect which ARM directly by reading ARM ID register (avoids memory reads).
; 24-01-96 MJS Created
; 07-10-96 MJS Updated for proper ARM 810 support (not needed for RO 3.70)
; 10-03-97 MJS A few additions for chocolate flavour screen handling (possible
; Domain and FSR register use) in Phoebe OS
; 05-02-09 JL Disable ARM_flush_* when compiling OS for HAL. OS now supports
; too many ARM versions for cache/TLB flushing to be implemented in
; simple macros.
GET Hdr:CPU.Arch
ARM_config_cp CP 15 ;coprocessor number for configuration control
ARM_ID_reg CN 0 ;processor ID
ARM_control_reg CN 1 ;control
ARM_tbase_reg CN 2 ;translation base (MMU)
ARM_domain_reg CN 3 ;domain access control (MMU)
ARM_FSR_reg CN 5 ;fault status reg (MMU, read only on ARM 6/7)
ARM_FAR_reg CN 6 ;fault address reg (MMU, read only on ARM 6/7)
ARM67_TLBflush_reg CN 5 ;TLB flush, ARMs 6 or 7
ARM67_TLBpurge_reg CN 6 ;TLB purge entry, ARMs 6 or 7
ARM67_cacheflush_reg CN 7 ;cache flush, ARMs 6 or 7
ARMv3_TLBflush_reg CN 5 ;TLB flush, ARMs 6 or 7
ARMv3_TLBpurge_reg CN 6 ;TLB purge entry, ARMs 6 or 7
ARMv3_cacheflush_reg CN 7 ;cache flush, ARMs 6 or 7
ARM8A_cache_reg CN 7 ;cache operations, ARMs 8 or StrongARM
ARM8A_TLB_reg CN 8 ;TLB operations, ARMs 8 or StrongARM
ARMv4_cache_reg CN 7 ;cache operations, ARMs 8 or StrongARM
ARMv4_TLB_reg CN 8 ;TLB operations, ARMs 8 or StrongARM
ARM8_cacheLD_reg CN 9 ;cache lock-down, ARM 8
ARM8_TLBLD_reg CN 10 ;TLB lock-down, ARM 8
ARM8_CTC_reg CN 15 ;Clock and test configuration
ARMA_TCI_reg CN 15 ;Test,Clock and Idle control
;so that bleedin' AASM will accept the general value for MCR CRm field
C0 CN 0
C1 CN 1
C2 CN 2
C3 CN 3
C4 CN 4
C5 CN 5
C6 CN 6
C7 CN 7
C8 CN 8
C9 CN 9
C10 CN 10
C11 CN 11
C12 CN 12
C13 CN 13
C14 CN 14
C15 CN 15
;
; ----------------- all ARMs ---------------------------------------------
;
;set MMU translation base
MACRO
ARM_MMU_transbase $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM_tbase_reg,C0,0
MEND
;set MMU domain access register
MACRO
ARM_MMU_domain $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM_domain_reg,C0,0
MEND
;read control register
MACRO
ARM_read_control $reg,$cond
MRC$cond ARM_config_cp,0,$reg,ARM_control_reg,C0,0
MEND
;set control register
MACRO
ARM_write_control $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM_control_reg,C0,0
MEND
;read MMU/external data fault status
MACRO
ARM_read_FSR $reg,$cond
MRC$cond ARM_config_cp,0,$reg,ARM_FSR_reg,C0,0
MEND
;set MMU/external data fault status
MACRO
ARM_write_FSR $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM_FSR_reg,C0,0
MEND
;read MMU/external data fault address
MACRO
ARM_read_FAR $reg,$cond
MRC$cond ARM_config_cp,0,$reg,ARM_FAR_reg,C0,0
MEND
; set MMU/external data fault address
MACRO
ARM_write_FAR $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM_FAR_reg,C0,0
MEND
; read ARMv7 auxilliary data fault status
MACRO
ARM_read_ADFSR $reg,$cond
MRC$cond ARM_config_cp,0,$reg,c5,c1,0
MEND
; set ARMv7 auxilliary data fault status
MACRO
ARM_write_ADFSR $reg,$cond
MCR$cond ARM_config_cp,0,$reg,c5,c1,0
MEND
;read MMU/external instruction fault status
MACRO
ARM_read_IFSR $reg,$cond
MRC$cond ARM_config_cp,0,$reg,ARM_FSR_reg,C0,1
MEND
;set MMU/external instruction fault status
MACRO
ARM_write_IFSR $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM_FSR_reg,C0,1
MEND
;read MMU/external instruction fault address
MACRO
ARM_read_IFAR $reg,$cond
MRC$cond ARM_config_cp,0,$reg,ARM_FAR_reg,C0,2
MEND
; set MMU/external instruction fault address
MACRO
ARM_write_IFAR $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM_FAR_reg,C0,2
MEND
; read ARMv7 auxilliary instruction fault status
MACRO
ARM_read_AIFSR $reg,$cond
MRC$cond ARM_config_cp,0,$reg,c5,c1,1
MEND
; set ARMv7 auxilliary instruction fault status
MACRO
ARM_write_AIFSR $reg,$cond
MCR$cond ARM_config_cp,0,$reg,c5,c1,1
MEND
;read ID register to register $id
;bits 15:12 of returned ID will be 0,7,8,10 for ARM 6,7,8,A
MACRO
ARM_read_ID $id,$cond
MRC$cond ARM_config_cp,0,$id,ARM_ID_reg,C0,0
MEND
;read cache type register to register $type
MACRO
ARM_read_cachetype $type,$cond
MRC$cond ARM_config_cp,0,$type,ARM_ID_reg,C0,1
MEND
;read ARM 'number' (6,7,8,&A currently) into $num
MACRO
ARM_number $num
ARM_read_ID $num
ANDS $num,$num,#&F000
MOVEQ $num,#&6000 ;catch and correct daft ARM 6 ID layout
MOV $num,$num,LSR #12
MEND
; check if we're on an ARM 6 - EQ if so
MACRO
ARM_6 $tmp, $cond
ARM_read_ID $tmp, $cond
TST$cond $tmp, #&F000
MEND
;check whether running on emulator - this is subject to change. ARMs before
;ARM 920 ignore op2, and will definitely return something other than "1".
;ARM 920 onwards use op2 0 and 1 - behaviour with other op2 values is as yet
;unknown...
MACRO
ARM_on_emulator $tmp,$cond
MRC$cond ARM_config_cp,0,$tmp,ARM_ID_reg,C0,7
TEQ$cond $tmp,#1
MEND
;
; -------------- ARM 6,7 only --------------------------------------------
;
;flush cache
MACRO
ARM67_flush_cache $cond
MCR$cond ARM_config_cp,0,R0,ARM67_cacheflush_reg,C0,0
MEND
;flush TLB
MACRO
ARM67_flush_TLB $cond
MCR$cond ARM_config_cp,0,R0,ARM67_TLBflush_reg,C0,0
MEND
;flush TLB entry, virtual address in $reg
MACRO
ARM67_flush_TLBentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM67_TLBpurge_reg,C0,0
MEND
;
; -------------- ARM 810 only ----------------------------------------------
;
[ {FALSE}
;turn off branch prediction
; - the forced mispredicted branch ensures that the predictor is trapped in
; this code segment when turned off
; - corrupts $temp and status flags
;
MACRO
ARM8_branchpredict_off $temp
01
ARM_read_control $temp
BIC $temp,$temp,#&800 ;z bit (branch prediction)
ARM_write_control $temp
SEC ;set carry flag
BCC %BT01
MEND
;turn on branch prediction
MACRO
ARM8_branchpredict_on $temp
ARM_read_control $temp
ORR $temp,$temp,#&800 ;z bit (branch prediction)
ARM_write_control $temp
MEND
;flush branch prediction, which is sufficient for an IMB (instruction memory
;barrier) on ARM 810, BUT...
; - intended for in line use only, where efficiency matters, or SWI call is
; awkward
; - general code should use SWI OS_SynchroniseCodeAreas to implement
; an IMB (instruction memory barrier) in future proof, ARM independent way
; - kernel code may use this without regard to which ARM running - ie. assumed
; harmless on other ARMs
;
MACRO
ARM8_branchpredict_flush
SUB PC,PC,#4 ;flush, because PC is written by data op
MEND
;clean cache entry
; - segment,index spec in $reg
; - bits 4..6 = segment (0..7)
; - bits 26..31 = index (0..63)
; - all other bits zero
MACRO
ARM8_clean_IDCentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM8A_cache_reg,C11,1
MEND
;flush cache entry - segment,index spec in $reg, as for ARM8_clean_IDCentry
MACRO
ARM8_flush_IDCentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM8A_cache_reg,C7,1
MEND
;clean and flush cache entry - segment,index spec in $reg, as for ARM8_clean_IDCentry
;
;if ARM810cleanflushbroken is TRUE, interrupts *must* be currently diabled (see below)
;
MACRO
ARM8_cleanflush_IDCentry $reg,$cond
[ ARM810cleanflushbroken
ARM8_clean_IDCentry $reg,$cond
ARM8_flush_IDCentry $reg,$cond
|
MCR$cond ARM_config_cp,0,$reg,ARM8A_cache_reg,C15,1
]
MEND
;fully clean and flush cache (assumes no locked-down entries to preserve)
;
;if ARM810cleanflushbroken is TRUE, then we have to make sure interrupts are disabled during
;the sequence of 2 MCRs that make up ARM8_cleanflush_IDCentry, to avoid an interrupt hole.
;The hole occurs if an interrupt fills and dirties the particular cache entry after the clean
;but before the flush. We don't have this problem with StrongARM, because the entry is
;specified by virtual address, and RISC OS only cleans/flushes address space not currently
;involved in interrupts.
;
[ ARM810cleanflushbroken
MACRO
ARM8_cleanflush_IDC $temp,$temp2
;for simplicity, disable interrupts during entire operation
mrs ,$temp2,CPSR
ORR $temp,$temp2,#I32_bit
msr ,CPSR_c,$temp ;disable I
MOV $temp,#0 ;initial segment and index
01
ARM8_cleanflush_IDCentry $temp
ADD $temp,$temp,#1 :SHL: 26 ;next index
CMP $temp,#1 :SHL: 26 ;last index done if index field wrapped to 0
BHS %BT01
ADD $temp,$temp,#1 :SHL: 4 ;next segment
CMP $temp,#8 :SHL: 4 ;8 segments done?
BLO %BT01
msr ,CPSR_c,$temp2 ;restore I
MEND
|
MACRO
ARM8_cleanflush_IDC $temp
MOV $temp,#0 ;initial segment and index
01
ARM8_cleanflush_IDCentry $temp
ADD $temp,$temp,#1 :SHL: 26 ;next index
CMP $temp,#1 :SHL: 26 ;last index done if index field wrapped to 0
BHS %BT01
ADD $temp,$temp,#1 :SHL: 4 ;next segment
CMP $temp,#8 :SHL: 4 ;8 segments done?
BLO %BT01
MEND
]
;flush whole TLB (actually, same as ARMA_flush_TLBs)
MACRO
ARM8_flush_TLB $cond
MCR$cond ARM_config_cp,0,R0,ARM8A_TLB_reg,C7,0
MEND
;flush TLB entry, virtual address in $reg
MACRO
ARM8_flush_TLBentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM8A_TLB_reg,C7,1
MEND
;select external Refclk pin as fast clock (dynamic switching, asynchronous)
MACRO
ARM8_refclk_fclk $temp
MRC ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
BIC $temp, $temp,#&1 ;turn off dynamic bus switching (bit0)
MCR ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
BIC $temp,$temp,#&2 ;select asynchronous mode (default) (bit1)
ORR $temp,$temp,#&4 ;select REFCLK as the FCLK source (bits3:2)
BIC $temp,$temp,#&10 ;ensure L=0 when writing (PLL locked) (bit4)
MCR ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
NOP
NOP
NOP
NOP
ORR $temp,$temp,#&1 ;select dynamic clock switching (bit0)
MCR ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
MEND
;select PLL output as fast clock (dynamic switching, asynchronous)
MACRO
ARM8_pll_fclk $temp
MRC ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
BIC $temp,$temp,#&1 ;turn off dynamic bus switching (bit0)
MCR ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
BIC $temp,$temp,#&2 ;select asynchronous mode (default) (bit1)
ORR $temp,$temp,#&C ;select PLLClkOut as the FCLK source (bits3:2)
BIC $temp,$temp,#&10 ;ensure L=0 when writing (PLL locked) (bit4)
MCR ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
NOP
NOP
NOP
NOP
ORR $temp,$temp,#&1 ;select dynamic clock switching (bit0)
MCR ARM_config_cp,0,$temp,ARM8_CTC_reg,C0,0
MEND
] ;ARM810support
;
; -------------- StrongARM only ------------------------------------------
;
;clean whole data cache, using 16k private cleaner area at address in
;$cleanaddr
;trashes $cleanaddr,$temp1,$temp2
;
;method:
;clean whole (16k) data cache by reading 16k private cleaner area in 8-word
;(one cache line) steps
;
;note: this routine should NOT be used as is without care - remember
; 1) interrupts should be off (to guarantee this clean is effective)
; 2) DC should be flushed afterwards (to guarantee next clean using
; private area is effective, ie. all private area flushed out now)
; see ARMA_fullycleanflush_DC for 'packaged routine'
;
MACRO
ARMA_clean_DC $cleanaddr,$temp1,$temp2
ADD $temp1,$cleanaddr,#16*1024
10
LDR $temp2,[$cleanaddr],#32
TEQ $temp1,$cleanaddr
BNE %BT10
MEND
;flush whole data cache
MACRO
ARMA_flush_DC $cond
MCR$cond ARM_config_cp,0,R0,ARM8A_cache_reg,C6,0
MEND
;clean data cache entry, virtual addr in $reg
MACRO
ARMA_clean_DCentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM8A_cache_reg,C10,1
MEND
;flush data cache entry, virtual addr in $reg
MACRO
ARMA_flush_DCentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM8A_cache_reg,C6,1
MEND
;clean and flush data cache entry, virtual addr in $reg
MACRO
ARMA_cleanflush_DCentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM8A_cache_reg,C14,1
MEND
;clean data cache for virtual address range from $lo (inclusive) to $hi (exclusive)
;corrupts $lo,$hi
MACRO
ARMA_clean_DCrange $lo,$hi
BIC $lo,$lo,#31 ;align down to 8-word (1 cache line) boundary
ADD $hi,$hi,#31
BIC $hi,$hi,#31 ;align up to 8-word boundary
01
ARMA_clean_DCentry $lo ;clean entry for virtual address $lo
ADD $lo,$lo,#32 ;next line
ARMA_clean_DCentry $lo
ADD $lo,$lo,#32
ARMA_clean_DCentry $lo
ADD $lo,$lo,#32
ARMA_clean_DCentry $lo
ADD $lo,$lo,#32
CMP $lo,$hi
BLO %BT01
MEND
;drain write buffer
MACRO
ARMA_drain_WB $cond
MCR$cond ARM_config_cp,0,R0,ARM8A_cache_reg,C10,4
MEND
MACRO
ARM_drain_WB $cond
MCR$cond ARM_config_cp,0,R0,ARM8A_cache_reg,C10,4
MEND
;flush whole instruction cache
MACRO
ARMA_flush_IC $WithoutNOPs,$cond
MCR$cond ARM_config_cp,0,R0,ARM8A_cache_reg,C5,0
[ "$WithoutNOPs" = ""
MOV R0,R0 ; 4 NOPS - up to 4 further instructions may come from IC before flush
MOV R0,R0
MOV R0,R0
MOV R0,R0
]
MEND
;flush whole instruction cache and whole data cache
MACRO
ARMA_flush_ICandDC $WithoutNOPs,$cond
MCR$cond ARM_config_cp,0,R0,ARM8A_cache_reg,C7,0
[ "$WithoutNOPs" = ""
MOV R0,R0 ; 4 NOPS - up to 4 further instructions may come from IC before flush
MOV R0,R0
MOV R0,R0
MOV R0,R0
]
MEND
;flush whole instruction TLB
MACRO
ARMA_flush_ITLB $cond
MCR$cond ARM_config_cp,0,R0,ARM8A_TLB_reg,C5,0
MEND
;flush whole data TLB
MACRO
ARMA_flush_DTLB $cond
MCR$cond ARM_config_cp,0,R0,ARM8A_TLB_reg,C6,0
MEND
;flush whole instruction and data TLBs
MACRO
ARMA_flush_TLBs $cond
MCR$cond ARM_config_cp,0,R0,ARM8A_TLB_reg,C7,0
MEND
;flush data TLB entry, virtual address in $reg
MACRO
ARMA_flush_DTLBentry $reg,$cond
MCR$cond ARM_config_cp,0,$reg,ARM8A_TLB_reg,C6,1
MEND
;fully clean and flush DC - see ARMA_clean_DC for more info
MACRO
ARMA_fullycleanflush_DC $cleanaddr,$temp1,$temp2,$temp3
mrs ,$temp3,CPSR
ORR $temp1,$temp3,#I32_bit
msr ,CPSR_c,$temp1 ;disable IRQs
ARMA_clean_DC $cleanaddr,$temp1,$temp2
ARMA_flush_DC
msr ,CPSR_c,$temp3 ;restore IRQ state
MEND
;enable core clock switching (fast core clock allowed)
MACRO
ARMA_fastcoreclock $cond
MCR$cond ARM_config_cp,0,R0,ARMA_TCI_reg,C1,2
MEND
;disable core clock switching (core clock is memory clock)
MACRO
ARMA_slowcoreclock $cond
MCR$cond ARM_config_cp,0,R0,ARMA_TCI_reg,C2,2
MEND
;
; -------------- Additional ARMv7 stuff -----------------------------------
;
; Provided here are ISB, DSB and DMB macros suitable for ARMv6+
; Although ARMv4 & v5 do provide CP15 ops that are compatible with the ARMv6 ops, it's implementation defined whether each processor implements the ops or not (and the ops are unpredictable if unimplemented)
; So to play it safe these macros will complain if used on pre-ARMv6
; For all the macros, set the $quick to something if the value of $temp is
; already zero (this will cut out a pointless MOV)
; Instruction Synchronisation Barrier - required on ARMv6+ to ensure the effects of the following are visible to following instructions:
; * Completed cache, TLB & branch predictor maintenance operations
; * CP14/CP15 writes
MACRO
myISB $cond,$temp,$option,$quick
[ NoARMv6
! 1, "Don't know what to do on pre-ARMv6!"
|
[ NoARMv7
; ARMv6, use legacy MCR op
[ "$quick"=""
MOV$cond $temp,#0
]
MCR$cond p15,0,$temp,c7,c5,4
|
; ARMv7+, use ISB instruction (saves on temp register, but instruction is unconditional)
; Shouldn't hurt too much if we just ignore the condition code
DCI &F57FF06F ; ISB SY
]
]
MEND
; Data Synchronisation Barrier - aka drain write buffer/data write barrier. Stalls pipeline until all preceeding memory accesses (including cache/TLB/BTC ops) complete.
MACRO
myDSB $cond,$temp,$option,$quick
[ NoARMv6
! 1, "Don't know what to do on pre-ARMv6!"
|
[ NoARMv7
; pre-ARMv7, use legacy MCR op
[ "$quick"=""
MOV$cond $temp,#0
]
MCR$cond p15,0,$temp,c7,c10,4
|
; ARMv7+, use DSB instruction
[ "$option"="SY" :LOR: "$option"=""
DCI &F57FF04F ; DSB SY
|
[ "$option"="ST" :LOR: "$option"="SYST"
DCI &F57FF04E ; DSB ST
|
[ "$option"="ISH"
DCI &F57FF04B ; DSB ISH
|
[ "$option"="ISHST"
DCI &F57FF04A ; DSB ISHST
|
[ "$option"="NSH"
DCI &F57FF047 ; DSB NSH
|
[ "$option"="NSHST"
DCI &F57FF046 ; DSB NSHST
|
[ "$option"="OSH"
DCI &F57FF043 ; DSB OSH
|
[ "$option"="OSHST"
DCI &F57FF042 ; DSB OSHST
|
! 1, "Unrecognised DSB option"
]
]
]
]
]
]
]
]
]
]
MEND
; Data Memory Barrier - More lightweight DSB, ensures memory accesses behave correctly without stalling the pipeline to wait for preceeding accesses to complete. I.e. it's only good for synchronising load/store instructions.
MACRO
myDMB $cond,$temp,$option,$quick
[ NoARMv6
! 1, "Don't know what to do on pre-ARMv6!"
|
[ NoARMv7
; ARMv6, use legacy MCR op
[ "$quick"=""
MOV$cond $temp,#0
]
MCR$cond p15,0,$temp,c7,c10,5
|
; ARMv7+, use DMB instruction
[ "$option"="SY" :LOR: "$option"=""
DCI &F57FF05F ; DMB SY
|
[ "$option"="ST" :LOR: "$option"="SYST"
DCI &F57FF05E ; DMB ST
|
[ "$option"="ISH"
DCI &F57FF05B ; DMB ISH
|
[ "$option"="ISHST"
DCI &F57FF05A ; DMB ISHST
|
[ "$option"="NSH"
DCI &F57FF057 ; DMB NSH
|
[ "$option"="NSHST"
DCI &F57FF056 ; DMB NSHST
|
[ "$option"="OSH"
DCI &F57FF053 ; DMB OSH
|
[ "$option"="OSHST"
DCI &F57FF052 ; DMB OSHST
|
! 1, "Unrecognised DMB option"
]
]
]
]
]
]
]
]
]
]
MEND
[ SupportARMv7
; ARMv7/v8 cache, TLB and branch predictor maintenance operations
; These are named directly after the acronyms that appear in recent ARM ARM
; revisions (and for AArch64, the assembler will even recognise them as
; mnemonics)
; Branch predictor invalidate all (local core only)
MACRO
BPIALL$cond
MCR$cond p15,0,a1,c7,c5,6
MEND
; Branch predictor invalidate all (inner shareable - MP extensions)
MACRO
BPIALLIS$cond
MCR$cond p15,0,a1,c7,c1,6
MEND
; Branch predictor invalidate by MVA
MACRO
BPIMVA$cond $reg
MCR$cond p15,0,$reg,c7,c5,7
MEND
; Data cache clean & invalidate by MVA to point of coherency
MACRO
DCCIMVAC$cond $reg
MCR$cond p15,0,$reg,c7,c14,1
MEND
; Data cache clean and invalidate by set/way (local core only)
MACRO
DCCISW$cond $reg
MCR$cond p15,0,$reg,c7,c14,2
MEND
; Data cache clean by MVA to point of coherency
MACRO
DCCMVAC$cond $reg
MCR$cond p15,0,$reg,c7,c10,1
MEND
; Data cache clean by MVA to point of unification
MACRO
DCCMVAU$cond $reg
MCR$cond p15,0,$reg,c7,c11,1
MEND
; Data cache clean by set/way (local core only)
MACRO
DCCSW$cond $reg
MCR$cond p15,0,$reg,c7,c10,2
MEND
; Data cache invalidate by MVA to point of coherency
MACRO
DCIMVAC$cond $reg
MCR$cond p15,0,$reg,c7,c6,1
MEND
; Data cache invalidate by set/way (local core only)
MACRO
DCISW$cond $reg
MCR$cond p15,0,$reg,c7,c6,2
MEND
; Instruction cache + branch predictor invalidate all to point of unification (local core only)
MACRO
ICIALLU$cond
MCR$cond p15,0,a1,c7,c5,0
MEND
; Instruction cache + branch predictor invalidate all to point of unification (inner shareable - MP extensions)
MACRO
ICIALLUIS$cond
MCR$cond p15,0,a1,c7,c1,0
MEND
; Instruction cache invalidate by MVA to point of unification
MACRO
ICIMVAU$cond $reg
MCR$cond p15,0,$reg,c7,c5,1
MEND
; Invalidate entire TLB (local core only)
MACRO
TLBIALL$cond
MCR$cond p15,0,a1,c8,c7,0
MEND
; Invalidate entire TLB (inner shareable - MP extensions)
MACRO
TLBIALLIS$cond
MCR$cond p15,0,a1,c8,c3,0
MEND
; Invalidate TLB by ASID (local core only)
MACRO
TLBIASID$cond $reg
MCR$cond p15,0,$reg,c8,c7,2
MEND
; Invalidate TLB by ASID (inner shareable - MP extensions)
MACRO
TLBIASIDIS$cond $reg
MCR$cond p15,0,$reg,c8,c3,2
MEND
; Invalidate TLB by MVA, all ASID or global (local core only - MP extensions)
MACRO
TLBIMVAA$cond $reg
MCR$cond p15,0,$reg,c8,c7,3
MEND
; Invalidate TLB by MVA, all ASID or global (inner shareable - MP extensions)
MACRO
TLBIMVAAIS$cond $reg
MCR$cond p15,0,$reg,c8,c3,3
MEND
; Invalidate TLB by MVA, indicated ASID or global (local core only)
MACRO
TLBIMVA$cond $reg
MCR$cond p15,0,$reg,c8,c7,1
MEND
; Invalidate TLB by MVA, indicated ASID or global (inner shareable - MP extensions)
MACRO
TLBIMVAIS$cond $reg
MCR$cond p15,0,$reg,c8,c3,1
MEND
] ; SupportARMv7
END