mb/amd/south_station: Convert to ASL 2.0 syntax

Generated 'build/dsdt.dsl' files are identical.

Change-Id: I52c33679fbb7e9807423fc0fcc470e54105013db
Signed-off-by: Elyes HAOUAS <ehaouas@noos.fr>
Reviewed-on: https://review.coreboot.org/c/coreboot/+/46151
Reviewed-by: Kyösti Mälkki <kyosti.malkki@gmail.com>
Tested-by: build bot (Jenkins) <no-reply@coreboot.org>
This commit is contained in:
Elyes HAOUAS 2020-10-08 09:08:26 +02:00 committed by Kyösti Mälkki
parent 94bcbca32f
commit 5e03bd4f6d
5 changed files with 130 additions and 134 deletions

View File

@ -50,11 +50,11 @@ OperationRegion(ICRG, PCI_Config, 0x40, 0x20) /* ide control registers */
Method(GTTM, 1) /* get total time*/
{
Store(And(Arg0, 0x0F), Local0) /* Recovery Width */
Increment(Local0)
Store(ShiftRight(Arg0, 4), Local1) /* Command Width */
Increment(Local1)
Return(Multiply(30, Add(Local0, Local1)))
Local0 = Arg0 & 0x0F /* Recovery Width */
Local0++
Local1 = Arg0 >> 4 /* Command Width */
Local1++
Return(30 * (Local0 + Local1))
}
Device(PRID)
@ -76,30 +76,30 @@ Device(PRID)
CreateDwordField(OTBF, 16, BFFG) /* buffer flags */
/* Just return if the channel is disabled */
If(And(PPCR, 0x01)) { /* primary PIO control */
If (PPCR & 0x01) { /* primary PIO control */
Return(OTBF)
}
/* Always tell them independent timing available and IOChannelReady used on both drives */
Or(BFFG, 0x1A, BFFG)
BFFG |= 0x1A
Store(GTTM(PPTM), PSD0) /* save total time of primary PIO master timming to PIO spd0 */
Store(GTTM(PPTS), PSD1) /* save total time of primary PIO slave Timing to PIO spd1 */
PSD0 = GTTM (PPTM) /* save total time of primary PIO master timing to PIO spd0 */
PSD1 = GTTM (PPTS) /* save total time of primary PIO slave Timing to PIO spd1 */
If(And(PDCR, 0x01)) { /* It's under UDMA mode */
Or(BFFG, 0x01, BFFG)
Store(DerefOf(Index(UDTT, PDMM)), DSD0)
If (PDCR & 0x01) { /* It's under UDMA mode */
BFFG |= 0x01
DSD0 = DerefOf(UDTT [PDMM])
}
Else {
Store(GTTM(PMTM), DSD0) /* Primary MWDMA Master Timing, DmaSpd0 */
DSD0 = GTTM (PMTM) /* Primary MWDMA Master Timing, DmaSpd0 */
}
If(And(PDCR, 0x02)) { /* It's under UDMA mode */
Or(BFFG, 0x04, BFFG)
Store(DerefOf(Index(UDTT, PDSM)), DSD1)
If (PDCR & 0x02) { /* It's under UDMA mode */
BFFG |= 0x04
DSD1 = DerefOf(UDTT [PDSM])
}
Else {
Store(GTTM(PMTS), DSD1) /* Primary MWDMA Slave Timing, DmaSpd0 */
DSD1 = GTTM (PMTS) /* Primary MWDMA Slave Timing, DmaSpd0 */
}
Return(OTBF) /* out buffer */
@ -120,35 +120,35 @@ Device(PRID)
CreateDwordField(INBF, 12, DSD1) /* DMA spd1 */
CreateDwordField(INBF, 16, BFFG) /*buffer flag */
Store(Match(POTT, MLE, PSD0, MTR, 0, 0), Local0)
Divide(Local0, 5, PPMM,) /* Primary PIO master Mode */
Store(Match(POTT, MLE, PSD1, MTR, 0, 0), Local1)
Divide(Local1, 5, PPSM,) /* Primary PIO slave Mode */
Local0 = Match (POTT, MLE, PSD0, MTR, 0, 0)
PPMM = Local0 % 5 /* Primary PIO master Mode */
Local1 = Match (POTT, MLE, PSD1, MTR, 0, 0)
PPSM = Local1 % 5 /* Primary PIO slave Mode */
Store(DerefOf(Index(PORT, Local0)), PPTM) /* Primary PIO Master Timing */
Store(DerefOf(Index(PORT, Local1)), PPTS) /* Primary PIO Slave Timing */
PPTM = DerefOf(PORT [Local0]) /* Primary PIO Master Timing */
PPTS = DerefOf(PORT [Local1]) /* Primary PIO Slave Timing */
If(And(BFFG, 0x01)) { /* Drive 0 is under UDMA mode */
Store(Match(UDTT, MLE, DSD0, MTR, 0, 0), Local0)
Divide(Local0, 7, PDMM,)
Or(PDCR, 0x01, PDCR)
If (BFFG & 0x01) { /* Drive 0 is under UDMA mode */
Local0 = Match (UDTT, MLE, DSD0, MTR, 0, 0)
PDMM = Local0 % 7
PDCR |= 0x01
}
Else {
If(LNotEqual(DSD0, 0xFFFFFFFF)) {
Store(Match(MDTT, MLE, DSD0, MTR, 0, 0), Local0)
Store(DerefOf(Index(MDRT, Local0)), PMTM)
If (DSD0 != 0xFFFFFFFF) {
Local0 = Match (MDTT, MLE, DSD0, MTR, 0, 0)
PMTM = DerefOf(MDRT [Local0])
}
}
If(And(BFFG, 0x04)) { /* Drive 1 is under UDMA mode */
Store(Match(UDTT, MLE, DSD1, MTR, 0, 0), Local0)
Divide(Local0, 7, PDSM,)
Or(PDCR, 0x02, PDCR)
If (BFFG & 0x04) { /* Drive 1 is under UDMA mode */
Local0 = Match (UDTT, MLE, DSD1, MTR, 0, 0)
PDSM = Local0 % 7
PDCR |= 0x02
}
Else {
If(LNotEqual(DSD1, 0xFFFFFFFF)) {
Store(Match(MDTT, MLE, DSD1, MTR, 0, 0), Local0)
Store(DerefOf(Index(MDRT, Local0)), PMTS)
If (DSD1 != 0xFFFFFFFF) {
Local0 = Match (MDTT, MLE, DSD1, MTR, 0, 0)
PMTS = DerefOf(MDRT [Local0])
}
}
/* Return(INBF) */
@ -168,21 +168,19 @@ Device(PRID)
CreateByteField(CMBF, 12, CMDB)
CreateByteField(CMBF, 19, CMDC)
Store(0xA0, CMDA)
Store(0xA0, CMDB)
Store(0xA0, CMDC)
CMDA = 0xA0
CMDB = 0xA0
CMDC = 0xA0
Or(PPMM, 0x08, POMD)
POMD = PPMM | 0x08
If(And(PDCR, 0x01)) {
Or(PDMM, 0x40, DMMD)
If (PDCR & 0x01) {
DMMD = PDMM | 0x40
}
Else {
Store(Match
(MDTT, MLE, GTTM(PMTM),
MTR, 0, 0), Local0)
If(LLess(Local0, 3)) {
Or(0x20, Local0, DMMD)
Local0 = Match (MDTT, MLE, GTTM(PMTM), MTR, 0, 0)
If (Local0 < 3) {
DMMD = Local0 | 0x20
}
}
Return(CMBF)
@ -204,21 +202,19 @@ Device(PRID)
CreateByteField(CMBF, 12, CMDB)
CreateByteField(CMBF, 19, CMDC)
Store(0xB0, CMDA)
Store(0xB0, CMDB)
Store(0xB0, CMDC)
CMDA = 0xB0
CMDB = 0xB0
CMDC = 0xB0
Or(PPSM, 0x08, POMD)
POMD = PPSM | 0x08
If(And(PDCR, 0x02)) {
Or(PDSM, 0x40, DMMD)
If (PDCR & 0x02) {
DMMD = PDSM | 0x40
}
Else {
Store(Match
(MDTT, MLE, GTTM(PMTS),
MTR, 0, 0), Local0)
If(LLess(Local0, 3)) {
Or(0x20, Local0, DMMD)
Local0 = Match (MDTT, MLE, GTTM(PMTS), MTR, 0, 0)
If (Local0 < 3) {
DMMD = Local0 | 0x20
}
}
Return(CMBF)

View File

@ -18,20 +18,20 @@ Name(PICM, One) /* Assume APIC */
Scope(\_SB) {
Method(OSFL, 0){
if(LNotEqual(OSVR, Ones)) {Return(OSVR)} /* OS version was already detected */
if (OSVR != Ones) {Return (OSVR)} /* OS version was already detected */
if(CondRefOf(\_OSI))
{
Store(1, OSVR) /* Assume some form of XP */
OSVR = 1 /* Assume some form of XP */
if (\_OSI("Windows 2006")) /* Vista */
{
Store(2, OSVR)
OSVR = 2
}
} else {
If(WCMP(\_OS,"Linux")) {
Store(3, OSVR) /* Linux */
If (WCMP(\_OS,"Linux")) {
OSVR = 3 /* Linux */
} Else {
Store(4, OSVR) /* Gotta be WinCE */
OSVR = 4 /* Gotta be WinCE */
}
}
Return(OSVR)

View File

@ -35,7 +35,7 @@ Device(PMRY)
Device(PMST) {
Name(_ADR, 0)
Method(_STA,0) {
if (LGreater(P0IS,0)) {
if (P0IS > 0) {
return (0x0F) /* sata is visible */
}
else {
@ -48,7 +48,7 @@ Device(PMRY)
{
Name(_ADR, 1)
Method(_STA,0) {
if (LGreater(P1IS,0)) {
if (P1IS > 0) {
return (0x0F) /* sata is visible */
}
else {
@ -70,7 +70,7 @@ Device(SEDY)
{
Name(_ADR, 0)
Method(_STA,0) {
if (LGreater(P2IS,0)) {
if (P2IS > 0) {
return (0x0F) /* sata is visible */
}
else {
@ -83,7 +83,7 @@ Device(SEDY)
{
Name(_ADR, 1)
Method(_STA,0) {
if (LGreater(P3IS,0)) {
if (P3IS > 0) {
return (0x0F) /* sata is visible */
}
else {
@ -97,35 +97,35 @@ Device(SEDY)
Scope(\_GPE) {
Method(_L1F,0x0,NotSerialized) {
if (\_SB.P0PR) {
if (LGreater(\_SB.P0IS,0)) {
if (\_SB.P0IS > 0) {
sleep(32)
}
Notify(\_SB.PCI0.STCR.PMRY.PMST, 0x01) /* NOTIFY_DEVICE_CHECK */
store(one, \_SB.P0PR)
\_SB.P0PR = 1
}
if (\_SB.P1PR) {
if (LGreater(\_SB.P1IS,0)) {
if (\_SB.P1IS > 0) {
sleep(32)
}
Notify(\_SB.PCI0.STCR.PMRY.PSLA, 0x01) /* NOTIFY_DEVICE_CHECK */
store(one, \_SB.P1PR)
\_SB.P1PR = 1
}
if (\_SB.P2PR) {
if (LGreater(\_SB.P2IS,0)) {
if (\_SB.P2IS > 0) {
sleep(32)
}
Notify(\_SB.PCI0.STCR.SEDY.SMST, 0x01) /* NOTIFY_DEVICE_CHECK */
store(one, \_SB.P2PR)
\_SB.P2PR = 1
}
if (\_SB.P3PR) {
if (LGreater(\_SB.P3IS,0)) {
if (\_SB.P3IS > 0) {
sleep(32)
}
Notify(\_SB.PCI0.STCR.SEDY.SSLA, 0x01) /* NOTIFY_DEVICE_CHECK */
store(one, \_SB.P3PR)
\_SB.P3PR = 1
}
}
}

View File

@ -26,23 +26,23 @@ Method(\_PTS, 1) {
/* DBGO("\n") */
/* Don't allow PCIRST# to reset USB */
if (LEqual(Arg0,3)){
Store(0,URRE)
if (Arg0 == 3){
URRE = 0
}
/* Clear sleep SMI status flag and enable sleep SMI trap. */
/*Store(One, CSSM)
Store(One, SSEN)*/
/*CSSM = 1
SSEN = 1*/
/* On older chips, clear PciExpWakeDisEn */
/*if (LLessEqual(\_SB.SBRI, 0x13)) {
* Store(0,\_SB.PWDE)
/*if (\_SB.SBRI <= 0x13) {
* \_SB.PWDE = 0
*}
*/
/* Clear wake status structure. */
Store(0, Index(WKST,0))
Store(0, Index(WKST,1))
WKST [0] = 0
WKST [1] = 0
} /* End Method(\_PTS) */
/*
@ -67,21 +67,21 @@ Method(\_WAK, 1) {
/* DBGO(" to S0\n") */
/* Re-enable HPET */
Store(1,HPDE)
HPDE = 1
/* Restore PCIRST# so it resets USB */
if (LEqual(Arg0,3)){
Store(1,URRE)
if (Arg0 == 3){
URRE = 1
}
/* Arbitrarily clear PciExpWakeStatus */
Store(PWST, Local1)
Store(Local1, PWST)
Local1 = PWST
PWST = Local1
/* if (DeRefOf(Index(WKST,0))) {
* Store(0, Index(WKST,1))
/* if (DeRefOf(WKST [0])) {
* WKST [1] = 0
* } else {
* Store(Arg0, Index(WKST,1))
* WKST [1] = Arg0
* }
*/
Return(WKST)

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@ -14,134 +14,134 @@ Name(UOM9, 6)
Method(UCOC, 0) {
Sleep(20)
Store(0x13,CMTI)
Store(0,GPSL)
CMTI = 0x13
GPSL = 0
}
/* USB Port 0 overcurrent uses Gpm 0 */
If(LLessEqual(UOM0,9)) {
If (UOM0 <= 9) {
Scope (\_GPE) {
Method (_L13) {
UCOC()
if(LEqual(GPB0,PLC0)) {
Not(PLC0,PLC0)
Store(PLC0, \_SB.PT0D)
if (GPB0 == PLC0) {
PLC0 = ~PLC0
\_SB.PT0D = PLC0
}
}
}
}
/* USB Port 1 overcurrent uses Gpm 1 */
If (LLessEqual(UOM1,9)) {
If (UOM1 <= 9) {
Scope (\_GPE) {
Method (_L14) {
UCOC()
if (LEqual(GPB1,PLC1)) {
Not(PLC1,PLC1)
Store(PLC1, \_SB.PT1D)
if (GPB1 == PLC1) {
PLC1 = ~PLC1
\_SB.PT1D = PLC1
}
}
}
}
/* USB Port 2 overcurrent uses Gpm 2 */
If (LLessEqual(UOM2,9)) {
If (UOM2 <= 9) {
Scope (\_GPE) {
Method (_L15) {
UCOC()
if (LEqual(GPB2,PLC2)) {
Not(PLC2,PLC2)
Store(PLC2, \_SB.PT2D)
if (GPB2 == PLC2) {
PLC2 = ~PLC2
\_SB.PT2D = PLC2
}
}
}
}
/* USB Port 3 overcurrent uses Gpm 3 */
If (LLessEqual(UOM3,9)) {
If (UOM3 <= 9) {
Scope (\_GPE) {
Method (_L16) {
UCOC()
if (LEqual(GPB3,PLC3)) {
Not(PLC3,PLC3)
Store(PLC3, \_SB.PT3D)
if (GPB3 == PLC3) {
PLC3 = ~PLC3
\_SB.PT3D = PLC3
}
}
}
}
/* USB Port 4 overcurrent uses Gpm 4 */
If (LLessEqual(UOM4,9)) {
If (UOM4 <= 9) {
Scope (\_GPE) {
Method (_L19) {
UCOC()
if (LEqual(GPB4,PLC4)) {
Not(PLC4,PLC4)
Store(PLC4, \_SB.PT4D)
if (GPB4 == PLC4) {
PLC4 = ~PLC4
\_SB.PT4D = PLC4
}
}
}
}
/* USB Port 5 overcurrent uses Gpm 5 */
If (LLessEqual(UOM5,9)) {
If (UOM5 <= 9) {
Scope (\_GPE) {
Method (_L1A) {
UCOC()
if (LEqual(GPB5,PLC5)) {
Not(PLC5,PLC5)
Store(PLC5, \_SB.PT5D)
if (GPB5 == PLC5) {
PLC5 = ~PLC5
\_SB.PT5D = PLC5
}
}
}
}
/* USB Port 6 overcurrent uses Gpm 6 */
If (LLessEqual(UOM6,9)) {
If (UOM6 <= 9) {
Scope (\_GPE) {
/* Method (_L1C) { */
Method (_L06) {
UCOC()
if (LEqual(GPB6,PLC6)) {
Not(PLC6,PLC6)
Store(PLC6, \_SB.PT6D)
if (GPB6 == PLC6) {
PLC6 = ~PLC6
\_SB.PT6D = PLC6
}
}
}
}
/* USB Port 7 overcurrent uses Gpm 7 */
If (LLessEqual(UOM7,9)) {
If (UOM7 <= 9) {
Scope (\_GPE) {
/* Method (_L1D) { */
Method (_L07) {
UCOC()
if (LEqual(GPB7,PLC7)) {
Not(PLC7,PLC7)
Store(PLC7, \_SB.PT7D)
if (GPB7 == PLC7) {
PLC7 = ~PLC7
\_SB.PT7D = PLC7
}
}
}
}
/* USB Port 8 overcurrent uses Gpm 8 */
If (LLessEqual(UOM8,9)) {
If (UOM8 <= 9) {
Scope (\_GPE) {
Method (_L17) {
if (LEqual(G8IS,PLC8)) {
Not(PLC8,PLC8)
Store(PLC8, \_SB.PT8D)
if (G8IS == PLC8) {
PLC8 = ~PLC8
\_SB.PT8D = PLC8
}
}
}
}
/* USB Port 9 overcurrent uses Gpm 9 */
If (LLessEqual(UOM9,9)) {
If (UOM9 <= 9) {
Scope (\_GPE) {
Method (_L0E) {
if (LEqual(G9IS,0)) {
Store(1,\_SB.PT9D)
if (G9IS == 0) {
\_SB.PT9D = 1
}
}
}