ArmPlatformPkg/PL180MciDxe: Fixed coding style

Signed-off-by: Olivier Martin <olivier.martin@arm.com>



git-svn-id: https://edk2.svn.sourceforge.net/svnroot/edk2/trunk/edk2@13586 6f19259b-4bc3-4df7-8a09-765794883524
This commit is contained in:
oliviermartin 2012-08-02 11:20:37 +00:00
parent 260675b073
commit 93b429fc21
2 changed files with 202 additions and 163 deletions

View File

@ -1,7 +1,7 @@
/** @file
This file implement the MMC Host Protocol for the ARM PrimeCell PL180.
Copyright (c) 2011, ARM Limited. All rights reserved.
Copyright (c) 2011-2012, ARM Limited. All rights reserved.
This program and the accompanying materials
are licensed and made available under the terms and conditions of the BSD License
@ -27,12 +27,15 @@ EFI_MMC_HOST_PROTOCOL *gpMmcHost;
#define MMCI0_POW2_BLOCKLEN 9
#define MMCI0_TIMEOUT 1000
#define SYS_MCI_CARDIN BIT0
#define SYS_MCI_WPROT BIT1
BOOLEAN
MciIsPowerOn (
VOID
)
{
return ((MmioRead32(MCI_POWER_CONTROL_REG) & 0x3) == MCI_POWER_ON);
return ((MmioRead32 (MCI_POWER_CONTROL_REG) & MCI_POWER_ON) == MCI_POWER_ON);
}
EFI_STATUS
@ -40,7 +43,7 @@ MciInitialize (
VOID
)
{
MCI_TRACE("MciInitialize()");
MCI_TRACE ("MciInitialize()");
return EFI_SUCCESS;
}
@ -49,7 +52,7 @@ MciIsCardPresent (
IN EFI_MMC_HOST_PROTOCOL *This
)
{
return (MmioRead32(FixedPcdGet32(PcdPL180SysMciRegAddress)) & 1);
return (MmioRead32 (FixedPcdGet32 (PcdPL180SysMciRegAddress)) & SYS_MCI_CARDIN);
}
BOOLEAN
@ -57,7 +60,7 @@ MciIsReadOnly (
IN EFI_MMC_HOST_PROTOCOL *This
)
{
return (MmioRead32(FixedPcdGet32(PcdPL180SysMciRegAddress)) & 2);
return (MmioRead32 (FixedPcdGet32 (PcdPL180SysMciRegAddress)) & SYS_MCI_WPROT);
}
#if 0
@ -92,13 +95,13 @@ MciPrepareDataPath (
)
{
// Set Data Length & Data Timer
MmioWrite32 (MCI_DATA_TIMER_REG,0xFFFFFFF);
MmioWrite32 (MCI_DATA_LENGTH_REG,MMCI0_BLOCKLEN);
MmioWrite32 (MCI_DATA_TIMER_REG, 0xFFFFFFF);
MmioWrite32 (MCI_DATA_LENGTH_REG, MMCI0_BLOCKLEN);
#ifndef USE_STREAM
//Note: we are using a hardcoded BlockLen (=512). If we decide to use a variable size, we could
// compute the pow2 of BlockLen with the above function GetPow2BlockLen()
MmioWrite32 (MCI_DATA_CTL_REG, MCI_DATACTL_ENABLE | MCI_DATACTL_DMA_ENABLE | TransferDirection | (MMCI0_POW2_BLOCKLEN << 4));
//Note: we are using a hardcoded BlockLen (==512). If we decide to use a variable size, we could
// compute the pow2 of BlockLen with the above function GetPow2BlockLen ()
MmioWrite32 (MCI_DATA_CTL_REG, MCI_DATACTL_ENABLE | MCI_DATACTL_DMA_ENABLE | TransferDirection | (MMCI0_POW2_BLOCKLEN << 4));
#else
MmioWrite32 (MCI_DATA_CTL_REG, MCI_DATACTL_ENABLE | MCI_DATACTL_DMA_ENABLE | TransferDirection | MCI_DATACTL_STREAM_TRANS);
#endif
@ -111,21 +114,21 @@ MciSendCommand (
IN UINT32 Argument
)
{
UINT32 Status;
UINT32 Cmd;
UINTN RetVal;
UINTN CmdCtrlReg;
UINT32 Status;
UINT32 Cmd;
UINTN RetVal;
UINTN CmdCtrlReg;
RetVal = EFI_SUCCESS;
if ((MmcCmd == MMC_CMD17) || (MmcCmd == MMC_CMD11)) {
MciPrepareDataPath(MCI_DATACTL_CARD_TO_CONT);
MciPrepareDataPath (MCI_DATACTL_CARD_TO_CONT);
} else if ((MmcCmd == MMC_CMD24) || (MmcCmd == MMC_CMD20)) {
MciPrepareDataPath(MCI_DATACTL_CONT_TO_CARD);
MciPrepareDataPath (MCI_DATACTL_CONT_TO_CARD);
}
// Create Command for PL180
Cmd = (MMC_GET_INDX(MmcCmd) & INDX_MASK) | MCI_CPSM_ENABLED;
Cmd = (MMC_GET_INDX (MmcCmd) & INDX_MASK) | MCI_CPSM_ENABLE;
if (MmcCmd & MMC_CMD_WAIT_RESPONSE) {
Cmd |= MCI_CPSM_WAIT_RESPONSE;
}
@ -135,29 +138,29 @@ MciSendCommand (
}
// Clear Status register static flags
MmioWrite32(MCI_CLEAR_STATUS_REG,0x7FF);
MmioWrite32 (MCI_CLEAR_STATUS_REG, MCI_CLR_ALL_STATUS);
//Write to command argument register
MmioWrite32(MCI_ARGUMENT_REG,Argument);
// Write to command argument register
MmioWrite32 (MCI_ARGUMENT_REG, Argument);
//Write to command register
MmioWrite32(MCI_COMMAND_REG,Cmd);
// Write to command register
MmioWrite32 (MCI_COMMAND_REG, Cmd);
if (Cmd & MCI_CPSM_WAIT_RESPONSE) {
Status = MmioRead32(MCI_STATUS_REG);
Status = MmioRead32 (MCI_STATUS_REG);
while (!(Status & (MCI_STATUS_CMD_RESPEND | MCI_STATUS_CMD_CMDCRCFAIL | MCI_STATUS_CMD_CMDTIMEOUT | MCI_STATUS_CMD_START_BIT_ERROR))) {
Status = MmioRead32(MCI_STATUS_REG);
}
if ((Status & MCI_STATUS_CMD_START_BIT_ERROR)) {
DEBUG ((EFI_D_ERROR, "MciSendCommand(CmdIndex:%d) Start bit Error! Response:0x%X Status:0x%x\n",(Cmd & 0x3F),MmioRead32(MCI_RESPONSE0_REG),Status));
DEBUG ((EFI_D_ERROR, "MciSendCommand(CmdIndex:%d) Start bit Error! Response:0x%X Status:0x%x\n", (Cmd & 0x3F), MmioRead32 (MCI_RESPONSE0_REG), Status));
RetVal = EFI_NO_RESPONSE;
goto Exit;
} else if ((Status & MCI_STATUS_CMD_CMDTIMEOUT)) {
//DEBUG ((EFI_D_ERROR, "MciSendCommand(CmdIndex:%d) TIMEOUT! Response:0x%X Status:0x%x\n",(Cmd & 0x3F),MmioRead32(MCI_RESPONSE0_REG),Status));
//DEBUG ((EFI_D_ERROR, "MciSendCommand(CmdIndex:%d) TIMEOUT! Response:0x%X Status:0x%x\n", (Cmd & 0x3F), MmioRead32 (MCI_RESPONSE0_REG), Status));
RetVal = EFI_TIMEOUT;
goto Exit;
} else if ((!(MmcCmd & MMC_CMD_NO_CRC_RESPONSE)) && (Status & MCI_STATUS_CMD_CMDCRCFAIL)) {
} else if ((! (MmcCmd & MMC_CMD_NO_CRC_RESPONSE)) && (Status & MCI_STATUS_CMD_CMDCRCFAIL)) {
// The CMD1 and response type R3 do not contain CRC. We should ignore the CRC failed Status.
RetVal = EFI_CRC_ERROR;
goto Exit;
@ -191,10 +194,10 @@ MciSendCommand (
}
Exit:
// Disable Command Path
CmdCtrlReg = MmioRead32(MCI_COMMAND_REG);
MmioWrite32(MCI_COMMAND_REG, (CmdCtrlReg & ~MCI_CPSM_ENABLED));
return RetVal;
// Disable Command Path
CmdCtrlReg = MmioRead32 (MCI_COMMAND_REG);
MmioWrite32 (MCI_COMMAND_REG, (CmdCtrlReg & ~MCI_CPSM_ENABLE));
return RetVal;
}
EFI_STATUS
@ -208,16 +211,18 @@ MciReceiveResponse (
return EFI_INVALID_PARAMETER;
}
if ((Type == MMC_RESPONSE_TYPE_R1) || (Type == MMC_RESPONSE_TYPE_R1b) ||
(Type == MMC_RESPONSE_TYPE_R3) || (Type == MMC_RESPONSE_TYPE_R6) ||
(Type == MMC_RESPONSE_TYPE_R7))
if ( (Type == MMC_RESPONSE_TYPE_R1)
|| (Type == MMC_RESPONSE_TYPE_R1b)
|| (Type == MMC_RESPONSE_TYPE_R3)
|| (Type == MMC_RESPONSE_TYPE_R6)
|| (Type == MMC_RESPONSE_TYPE_R7))
{
Buffer[0] = MmioRead32(MCI_RESPONSE3_REG);
Buffer[0] = MmioRead32 (MCI_RESPONSE3_REG);
} else if (Type == MMC_RESPONSE_TYPE_R2) {
Buffer[0] = MmioRead32(MCI_RESPONSE0_REG);
Buffer[1] = MmioRead32(MCI_RESPONSE1_REG);
Buffer[2] = MmioRead32(MCI_RESPONSE2_REG);
Buffer[3] = MmioRead32(MCI_RESPONSE3_REG);
Buffer[0] = MmioRead32 (MCI_RESPONSE0_REG);
Buffer[1] = MmioRead32 (MCI_RESPONSE1_REG);
Buffer[2] = MmioRead32 (MCI_RESPONSE2_REG);
Buffer[3] = MmioRead32 (MCI_RESPONSE3_REG);
}
return EFI_SUCCESS;
@ -244,7 +249,7 @@ MciReadBlockData (
Finish = MMCI0_BLOCKLEN / 4;
do {
// Read the Status flags
Status = MmioRead32(MCI_STATUS_REG);
Status = MmioRead32 (MCI_STATUS_REG);
// Do eight reads if possible else a single read
if (Status & MCI_STATUS_CMD_RXFIFOHALFFULL) {
@ -269,16 +274,16 @@ MciReadBlockData (
Loop++;
} else {
//Check for error conditions and timeouts
if(Status & MCI_STATUS_CMD_DATATIMEOUT) {
DEBUG ((EFI_D_ERROR, "MciReadBlockData(): TIMEOUT! Response:0x%X Status:0x%x\n",MmioRead32(MCI_RESPONSE0_REG),Status));
if (Status & MCI_STATUS_CMD_DATATIMEOUT) {
DEBUG ((EFI_D_ERROR, "MciReadBlockData(): TIMEOUT! Response:0x%X Status:0x%x\n", MmioRead32 (MCI_RESPONSE0_REG), Status));
RetVal = EFI_TIMEOUT;
break;
} else if(Status & MCI_STATUS_CMD_DATACRCFAIL) {
DEBUG ((EFI_D_ERROR, "MciReadBlockData(): CRC Error! Response:0x%X Status:0x%x\n",MmioRead32(MCI_RESPONSE0_REG),Status));
} else if (Status & MCI_STATUS_CMD_DATACRCFAIL) {
DEBUG ((EFI_D_ERROR, "MciReadBlockData(): CRC Error! Response:0x%X Status:0x%x\n", MmioRead32 (MCI_RESPONSE0_REG), Status));
RetVal = EFI_CRC_ERROR;
break;
} else if(Status & MCI_STATUS_CMD_START_BIT_ERROR) {
DEBUG ((EFI_D_ERROR, "MciReadBlockData(): Start-bit Error! Response:0x%X Status:0x%x\n",MmioRead32(MCI_RESPONSE0_REG),Status));
} else if (Status & MCI_STATUS_CMD_START_BIT_ERROR) {
DEBUG ((EFI_D_ERROR, "MciReadBlockData(): Start-bit Error! Response:0x%X Status:0x%x\n", MmioRead32 (MCI_RESPONSE0_REG), Status));
RetVal = EFI_NO_RESPONSE;
break;
}
@ -289,14 +294,14 @@ MciReadBlockData (
}
} while ((Loop < Finish));
//Clear Status flags
MmioWrite32(MCI_CLEAR_STATUS_REG, 0x7FF);
// Clear Status flags
MmioWrite32 (MCI_CLEAR_STATUS_REG, MCI_CLR_ALL_STATUS);
//Disable Data path
DataCtrlReg = MmioRead32(MCI_DATA_CTL_REG);
MmioWrite32(MCI_DATA_CTL_REG, (DataCtrlReg & 0xFE));
//Disable Data path
DataCtrlReg = MmioRead32 (MCI_DATA_CTL_REG);
MmioWrite32 (MCI_DATA_CTL_REG, (DataCtrlReg & MCI_DATACTL_DISABLE_MASK));
return RetVal;
return RetVal;
}
EFI_STATUS
@ -322,7 +327,7 @@ MciWriteBlockData (
Timer = MMCI0_TIMEOUT * 100;
do {
// Read the Status flags
Status = MmioRead32(MCI_STATUS_REG);
Status = MmioRead32 (MCI_STATUS_REG);
// Do eight writes if possible else a single write
if (Status & MCI_STATUS_CMD_TXFIFOHALFEMPTY) {
@ -346,16 +351,16 @@ MciWriteBlockData (
MmioWrite32(MCI_FIFO_REG, Buffer[Loop]);
Loop++;
} else {
//Check for error conditions and timeouts
if(Status & MCI_STATUS_CMD_DATATIMEOUT) {
DEBUG ((EFI_D_ERROR, "MciWriteBlockData(): TIMEOUT! Response:0x%X Status:0x%x\n",MmioRead32(MCI_RESPONSE0_REG),Status));
// Check for error conditions and timeouts
if (Status & MCI_STATUS_CMD_DATATIMEOUT) {
DEBUG ((EFI_D_ERROR, "MciWriteBlockData(): TIMEOUT! Response:0x%X Status:0x%x\n", MmioRead32 (MCI_RESPONSE0_REG), Status));
RetVal = EFI_TIMEOUT;
goto Exit;
} else if(Status & MCI_STATUS_CMD_DATACRCFAIL) {
DEBUG ((EFI_D_ERROR, "MciWriteBlockData(): CRC Error! Response:0x%X Status:0x%x\n",MmioRead32(MCI_RESPONSE0_REG),Status));
} else if (Status & MCI_STATUS_CMD_DATACRCFAIL) {
DEBUG ((EFI_D_ERROR, "MciWriteBlockData(): CRC Error! Response:0x%X Status:0x%x\n", MmioRead32 (MCI_RESPONSE0_REG), Status));
RetVal = EFI_CRC_ERROR;
goto Exit;
} else if(Status & MCI_STATUS_CMD_TX_UNDERRUN) {
} else if (Status & MCI_STATUS_CMD_TX_UNDERRUN) {
DEBUG ((EFI_D_ERROR, "MciWriteBlockData(): TX buffer Underrun! Response:0x%X Status:0x%x, Number of bytes written 0x%x\n",MmioRead32(MCI_RESPONSE0_REG),Status, Loop));
RetVal = EFI_BUFFER_TOO_SMALL;
ASSERT(0);
@ -365,37 +370,37 @@ MciWriteBlockData (
} while (Loop < Finish);
// Wait for FIFO to drain
Timer = MMCI0_TIMEOUT * 60;
Status = MmioRead32(MCI_STATUS_REG);
Timer = MMCI0_TIMEOUT * 60;
Status = MmioRead32 (MCI_STATUS_REG);
#ifndef USE_STREAM
// Single block
while (((Status & MCI_STATUS_CMD_TXDONE) != MCI_STATUS_CMD_TXDONE) && Timer) {
while (((Status & MCI_STATUS_TXDONE) != MCI_STATUS_TXDONE) && Timer) {
#else
// Stream
while (((Status & MCI_STATUS_CMD_DATAEND) != MCI_STATUS_CMD_DATAEND) && Timer) {
#endif
NanoSecondDelay(10);
Status = MmioRead32(MCI_STATUS_REG);
Status = MmioRead32 (MCI_STATUS_REG);
Timer--;
}
if(Timer == 0) {
if (Timer == 0) {
DEBUG ((EFI_D_ERROR, "MciWriteBlockData(): Data End timeout Number of bytes written 0x%x\n",Loop));
ASSERT(Timer > 0);
ASSERT (Timer > 0);
return EFI_TIMEOUT;
}
//Clear Status flags
MmioWrite32(MCI_CLEAR_STATUS_REG, 0x7FF);
// Clear Status flags
MmioWrite32 (MCI_CLEAR_STATUS_REG, MCI_CLR_ALL_STATUS);
if (Timer == 0) {
RetVal = EFI_TIMEOUT;
}
Exit:
//Disable Data path
DataCtrlReg = MmioRead32(MCI_DATA_CTL_REG);
MmioWrite32(MCI_DATA_CTL_REG, (DataCtrlReg & 0xFE));
return RetVal;
// Disable Data path
DataCtrlReg = MmioRead32 (MCI_DATA_CTL_REG);
MmioWrite32 (MCI_DATA_CTL_REG, (DataCtrlReg & MCI_DATACTL_DISABLE_MASK));
return RetVal;
}
EFI_STATUS
@ -406,59 +411,59 @@ MciNotifyState (
{
UINT32 Data32;
switch(State) {
switch (State) {
case MmcInvalidState:
ASSERT(0);
ASSERT (0);
break;
case MmcHwInitializationState:
// If device already turn on then restart it
Data32 = MmioRead32(MCI_POWER_CONTROL_REG);
Data32 = MmioRead32 (MCI_POWER_CONTROL_REG);
if ((Data32 & 0x2) == MCI_POWER_UP) {
MCI_TRACE("MciNotifyState(MmcHwInitializationState): TurnOff MCI");
MCI_TRACE ("MciNotifyState(MmcHwInitializationState): TurnOff MCI");
// Turn off
MmioWrite32(MCI_CLOCK_CONTROL_REG, 0);
MmioWrite32(MCI_POWER_CONTROL_REG, 0);
MicroSecondDelay(100);
MmioWrite32 (MCI_CLOCK_CONTROL_REG, 0);
MmioWrite32 (MCI_POWER_CONTROL_REG, 0);
MicroSecondDelay (100);
}
MCI_TRACE("MciNotifyState(MmcHwInitializationState): TurnOn MCI");
MCI_TRACE ("MciNotifyState(MmcHwInitializationState): TurnOn MCI");
// Setup clock
// - 0x1D = 29 => should be the clock divider to be less than 400kHz at MCLK = 24Mhz
MmioWrite32(MCI_CLOCK_CONTROL_REG,0x1D | MCI_CLOCK_ENABLE | MCI_CLOCK_POWERSAVE);
MmioWrite32 (MCI_CLOCK_CONTROL_REG, 0x1D | MCI_CLOCK_ENABLE | MCI_CLOCK_POWERSAVE);
//MmioWrite32(MCI_CLOCK_CONTROL_REG,0x1D | MCI_CLOCK_ENABLE);
// Set the voltage
MmioWrite32(MCI_POWER_CONTROL_REG,MCI_POWER_OPENDRAIN | (15<<2));
MmioWrite32(MCI_POWER_CONTROL_REG,MCI_POWER_ROD | MCI_POWER_OPENDRAIN | (15<<2) | MCI_POWER_UP);
MicroSecondDelay(10);
MmioWrite32(MCI_POWER_CONTROL_REG,MCI_POWER_ROD | MCI_POWER_OPENDRAIN | (15<<2) | MCI_POWER_ON);
MicroSecondDelay(100);
MmioWrite32 (MCI_POWER_CONTROL_REG, MCI_POWER_OPENDRAIN | (15<<2));
MmioWrite32 (MCI_POWER_CONTROL_REG, MCI_POWER_ROD | MCI_POWER_OPENDRAIN | (15<<2) | MCI_POWER_UP);
MicroSecondDelay (10);
MmioWrite32 (MCI_POWER_CONTROL_REG, MCI_POWER_ROD | MCI_POWER_OPENDRAIN | (15<<2) | MCI_POWER_ON);
MicroSecondDelay (100);
// Set Data Length & Data Timer
MmioWrite32(MCI_DATA_TIMER_REG,0xFFFFF);
MmioWrite32(MCI_DATA_LENGTH_REG,8);
MmioWrite32 (MCI_DATA_TIMER_REG, 0xFFFFF);
MmioWrite32 (MCI_DATA_LENGTH_REG, 8);
ASSERT((MmioRead32(MCI_POWER_CONTROL_REG) & 0x3) == MCI_POWER_ON);
ASSERT ((MmioRead32 (MCI_POWER_CONTROL_REG) & 0x3) == MCI_POWER_ON);
break;
case MmcIdleState:
MCI_TRACE("MciNotifyState(MmcIdleState)");
MCI_TRACE ("MciNotifyState(MmcIdleState)");
break;
case MmcReadyState:
MCI_TRACE("MciNotifyState(MmcReadyState)");
MCI_TRACE ("MciNotifyState(MmcReadyState)");
break;
case MmcIdentificationState:
MCI_TRACE("MciNotifyState(MmcIdentificationState)");
MCI_TRACE ("MciNotifyState (MmcIdentificationState)");
break;
case MmcStandByState:{
volatile UINT32 PwrCtrlReg;
MCI_TRACE("MciNotifyState(MmcStandByState)");
MCI_TRACE ("MciNotifyState (MmcStandByState)");
// Enable MCICMD push-pull drive
PwrCtrlReg = MmioRead32(MCI_POWER_CONTROL_REG);
PwrCtrlReg = MmioRead32 (MCI_POWER_CONTROL_REG);
//Disable Open Drain output
PwrCtrlReg &=~(MCI_POWER_OPENDRAIN);
MmioWrite32(MCI_POWER_CONTROL_REG,PwrCtrlReg);
PwrCtrlReg &= ~ (MCI_POWER_OPENDRAIN);
MmioWrite32 (MCI_POWER_CONTROL_REG, PwrCtrlReg);
// Set MMCI0 clock to 4MHz (24MHz may be possible with cache enabled)
//
@ -471,22 +476,22 @@ MciNotifyState (
break;
}
case MmcTransferState:
//MCI_TRACE("MciNotifyState(MmcTransferState)");
//MCI_TRACE ("MciNotifyState(MmcTransferState)");
break;
case MmcSendingDataState:
MCI_TRACE("MciNotifyState(MmcSendingDataState)");
MCI_TRACE ("MciNotifyState(MmcSendingDataState)");
break;
case MmcReceiveDataState:
MCI_TRACE("MciNotifyState(MmcReceiveDataState)");
MCI_TRACE ("MciNotifyState(MmcReceiveDataState)");
break;
case MmcProgrammingState:
MCI_TRACE("MciNotifyState(MmcProgrammingState)");
MCI_TRACE ("MciNotifyState(MmcProgrammingState)");
break;
case MmcDisconnectState:
MCI_TRACE("MciNotifyState(MmcDisconnectState)");
MCI_TRACE ("MciNotifyState(MmcDisconnectState)");
break;
default:
ASSERT(0);
ASSERT (0);
}
return EFI_SUCCESS;
}
@ -501,8 +506,8 @@ MciBuildDevicePath (
{
EFI_DEVICE_PATH_PROTOCOL *NewDevicePathNode;
NewDevicePathNode = CreateDeviceNode(HARDWARE_DEVICE_PATH,HW_VENDOR_DP,sizeof(VENDOR_DEVICE_PATH));
CopyGuid(&((VENDOR_DEVICE_PATH*)NewDevicePathNode)->Guid,&mPL180MciDevicePathGuid);
NewDevicePathNode = CreateDeviceNode (HARDWARE_DEVICE_PATH, HW_VENDOR_DP, sizeof (VENDOR_DEVICE_PATH));
CopyGuid (& ((VENDOR_DEVICE_PATH*)NewDevicePathNode)->Guid, &mPL180MciDevicePathGuid);
*DevicePath = NewDevicePathNode;
return EFI_SUCCESS;
@ -527,9 +532,11 @@ PL180MciDxeInitialize (
)
{
EFI_STATUS Status;
EFI_HANDLE Handle = NULL;
EFI_HANDLE Handle;
MCI_TRACE("PL180MciDxeInitialize()");
Handle = NULL;
MCI_TRACE ("PL180MciDxeInitialize()");
//Publish Component Name, BlockIO protocol interfaces
Status = gBS->InstallMultipleProtocolInterfaces (

View File

@ -1,7 +1,7 @@
/** @file
Header for the MMC Host Protocol implementation for the ARM PrimeCell PL180.
Copyright (c) 2011, ARM Limited. All rights reserved.
Copyright (c) 2011-2012, ARM Limited. All rights reserved.
This program and the accompanying materials
are licensed and made available under the terms and conditions of the BSD License
@ -27,76 +27,108 @@
#include <Library/TimerLib.h>
#include <Library/PcdLib.h>
#define PL180_MCI_DXE_VERSION 0x10
#define PL180_MCI_DXE_VERSION 0x10
#define MCI_SYSCTL FixedPcdGet32(PcdPL180MciBaseAddress)
#define MCI_SYSCTL FixedPcdGet32 (PcdPL180MciBaseAddress)
#define MCI_POWER_CONTROL_REG (MCI_SYSCTL+0x000)
#define MCI_CLOCK_CONTROL_REG (MCI_SYSCTL+0x004)
#define MCI_ARGUMENT_REG (MCI_SYSCTL+0x008)
#define MCI_COMMAND_REG (MCI_SYSCTL+0x00C)
#define MCI_RESPCMD_REG (MCI_SYSCTL+0x010)
#define MCI_RESPONSE3_REG (MCI_SYSCTL+0x014)
#define MCI_RESPONSE2_REG (MCI_SYSCTL+0x018)
#define MCI_RESPONSE1_REG (MCI_SYSCTL+0x01C)
#define MCI_RESPONSE0_REG (MCI_SYSCTL+0x020)
#define MCI_DATA_TIMER_REG (MCI_SYSCTL+0x024)
#define MCI_DATA_LENGTH_REG (MCI_SYSCTL+0x028)
#define MCI_DATA_CTL_REG (MCI_SYSCTL+0x02C)
#define MCI_DATA_COUNTER (MCI_SYSCTL+0x030)
#define MCI_STATUS_REG (MCI_SYSCTL+0x034)
#define MCI_CLEAR_STATUS_REG (MCI_SYSCTL+0x038)
#define MCI_INT0_MASK_REG (MCI_SYSCTL+0x03C)
#define MCI_INT1_MASK_REG (MCI_SYSCTL+0x040)
#define MCI_FIFOCOUNT_REG (MCI_SYSCTL+0x048)
#define MCI_FIFO_REG (MCI_SYSCTL+0x080)
#define MCI_POWER_CONTROL_REG (MCI_SYSCTL + 0x000)
#define MCI_CLOCK_CONTROL_REG (MCI_SYSCTL + 0x004)
#define MCI_ARGUMENT_REG (MCI_SYSCTL + 0x008)
#define MCI_COMMAND_REG (MCI_SYSCTL + 0x00C)
#define MCI_RESPCMD_REG (MCI_SYSCTL + 0x010)
#define MCI_RESPONSE3_REG (MCI_SYSCTL + 0x014)
#define MCI_RESPONSE2_REG (MCI_SYSCTL + 0x018)
#define MCI_RESPONSE1_REG (MCI_SYSCTL + 0x01C)
#define MCI_RESPONSE0_REG (MCI_SYSCTL + 0x020)
#define MCI_DATA_TIMER_REG (MCI_SYSCTL + 0x024)
#define MCI_DATA_LENGTH_REG (MCI_SYSCTL + 0x028)
#define MCI_DATA_CTL_REG (MCI_SYSCTL + 0x02C)
#define MCI_DATA_COUNTER (MCI_SYSCTL + 0x030)
#define MCI_STATUS_REG (MCI_SYSCTL + 0x034)
#define MCI_CLEAR_STATUS_REG (MCI_SYSCTL + 0x038)
#define MCI_INT0_MASK_REG (MCI_SYSCTL + 0x03C)
#define MCI_INT1_MASK_REG (MCI_SYSCTL + 0x040)
#define MCI_SELECT_REG (MCI_SYSCTL + 0x044)
#define MCI_FIFOCOUNT_REG (MCI_SYSCTL + 0x048)
#define MCI_FIFO_REG (MCI_SYSCTL + 0x080)
#define MCI_POWER_UP 0x2
#define MCI_POWER_ON 0x3
#define MCI_POWER_OPENDRAIN (1 << 6)
#define MCI_POWER_ROD (1 << 7)
#define MCI_POWER_OFF 0
#define MCI_POWER_UP BIT1
#define MCI_POWER_ON (BIT1 | BIT0)
#define MCI_POWER_OPENDRAIN BIT6
#define MCI_POWER_ROD BIT7
#define MCI_CLOCK_ENABLE 0x100
#define MCI_CLOCK_POWERSAVE 0x200
#define MCI_CLOCK_BYPASS 0x400
#define MCI_CLOCK_ENABLE BIT8
#define MCI_CLOCK_POWERSAVE BIT9
#define MCI_CLOCK_BYPASS BIT10
#define MCI_CLOCK_WIDEBUS BIT11
#define MCI_STATUS_CMD_CMDCRCFAIL 0x1
#define MCI_STATUS_CMD_DATACRCFAIL 0x2
#define MCI_STATUS_CMD_CMDTIMEOUT 0x4
#define MCI_STATUS_CMD_DATATIMEOUT 0x8
#define MCI_STATUS_CMD_TX_UNDERRUN 0x10
#define MCI_STATUS_CMD_RXOVERRUN 0x20
#define MCI_STATUS_CMD_RESPEND 0x40
#define MCI_STATUS_CMD_SENT 0x80
#define MCI_STATUS_CMD_TXDONE (MCI_STATUS_CMD_DATAEND | MCI_STATUS_CMD_DATABLOCKEND)
#define MCI_STATUS_CMD_DATAEND 0x000100 // Command Status - Data end
#define MCI_STATUS_CMD_START_BIT_ERROR 0x000200
#define MCI_STATUS_CMD_DATABLOCKEND 0x000400 // Command Status - Data end
#define MCI_STATUS_CMD_ACTIVE 0x800
#define MCI_STATUS_CMD_RXACTIVE (1 << 13)
#define MCI_STATUS_CMD_RXFIFOHALFFULL 0x008000
#define MCI_STATUS_CMD_RXFIFOEMPTY 0x080000
#define MCI_STATUS_CMD_RXDATAAVAILBL (1 << 21)
#define MCI_STATUS_CMD_TXACTIVE (1 << 12)
#define MCI_STATUS_CMD_TXFIFOFULL (1 << 16)
#define MCI_STATUS_CMD_TXFIFOHALFEMPTY (1 << 14)
#define MCI_STATUS_CMD_TXFIFOEMPTY (1 << 18)
#define MCI_STATUS_CMD_TXDATAAVAILBL (1 << 20)
#define MCI_STATUS_CMD_CMDCRCFAIL BIT0
#define MCI_STATUS_CMD_DATACRCFAIL BIT1
#define MCI_STATUS_CMD_CMDTIMEOUT BIT2
#define MCI_STATUS_CMD_DATATIMEOUT BIT3
#define MCI_STATUS_CMD_TX_UNDERRUN BIT4
#define MCI_STATUS_CMD_RXOVERRUN BIT5
#define MCI_STATUS_CMD_RESPEND BIT6
#define MCI_STATUS_CMD_SENT BIT7
#define MCI_STATUS_CMD_DATAEND BIT8
#define MCI_STATUS_CMD_START_BIT_ERROR BIT9
#define MCI_STATUS_CMD_DATABLOCKEND BIT10
#define MCI_STATUS_CMD_ACTIVE BIT11
#define MCI_STATUS_CMD_TXACTIVE BIT12
#define MCI_STATUS_CMD_RXACTIVE BIT13
#define MCI_STATUS_CMD_TXFIFOHALFEMPTY BIT14
#define MCI_STATUS_CMD_RXFIFOHALFFULL BIT15
#define MCI_STATUS_CMD_TXFIFOFULL BIT16
#define MCI_STATUS_CMD_RXFIFOFULL BIT17
#define MCI_STATUS_CMD_TXFIFOEMPTY BIT18
#define MCI_STATUS_CMD_RXFIFOEMPTY BIT19
#define MCI_STATUS_CMD_TXDATAAVAILBL BIT20
#define MCI_STATUS_CMD_RXDATAAVAILBL BIT21
#define MCI_DATACTL_ENABLE 1
#define MCI_STATUS_TXDONE (MCI_STATUS_CMD_DATAEND | MCI_STATUS_CMD_DATABLOCKEND)
#define MCI_STATUS_RXDONE (MCI_STATUS_CMD_DATAEND | MCI_STATUS_CMD_DATABLOCKEND)
#define MCI_STATUS_READ_ERROR ( MCI_STATUS_CMD_DATACRCFAIL \
| MCI_STATUS_CMD_DATATIMEOUT \
| MCI_STATUS_CMD_RXOVERRUN \
| MCI_STATUS_CMD_START_BIT_ERROR )
#define MCI_STATUS_WRITE_ERROR ( MCI_STATUS_CMD_DATACRCFAIL \
| MCI_STATUS_CMD_DATATIMEOUT \
| MCI_STATUS_CMD_TX_UNDERRUN )
#define MCI_STATUS_CMD_ERROR ( MCI_STATUS_CMD_CMDCRCFAIL \
| MCI_STATUS_CMD_CMDTIMEOUT \
| MCI_STATUS_CMD_START_BIT_ERROR )
#define MCI_CLR_CMD_STATUS ( MCI_STATUS_CMD_RESPEND \
| MCI_STATUS_CMD_SENT \
| MCI_STATUS_CMD_ERROR )
#define MCI_CLR_READ_STATUS ( MCI_STATUS_RXDONE \
| MCI_STATUS_READ_ERROR )
#define MCI_CLR_WRITE_STATUS ( MCI_STATUS_TXDONE \
| MCI_STATUS_WRITE_ERROR )
#define MCI_CLR_ALL_STATUS (BIT11 - 1)
#define MCI_DATACTL_DISABLE_MASK 0xFE
#define MCI_DATACTL_ENABLE BIT0
#define MCI_DATACTL_CONT_TO_CARD 0
#define MCI_DATACTL_CARD_TO_CONT 2
#define MCI_DATACTL_CARD_TO_CONT BIT1
#define MCI_DATACTL_BLOCK_TRANS 0
#define MCI_DATACTL_STREAM_TRANS 4
#define MCI_DATACTL_DMA_ENABLE (1 << 3)
#define MCI_DATACTL_STREAM_TRANS BIT2
#define MCI_DATACTL_DMA_DISABLED 0
#define MCI_DATACTL_DMA_ENABLE BIT3
#define INDX_MASK 0x3F
#define MCI_CPSM_ENABLED (1 << 10)
#define MCI_CPSM_WAIT_RESPONSE (1 << 6)
#define MCI_CPSM_LONG_RESPONSE (1 << 7)
#define MCI_CPSM_WAIT_RESPONSE BIT6
#define MCI_CPSM_LONG_RESPONSE BIT7
#define MCI_CPSM_LONG_INTERRUPT BIT8
#define MCI_CPSM_LONG_PENDING BIT9
#define MCI_CPSM_ENABLE BIT10
#define MCI_TRACE(txt) DEBUG((EFI_D_BLKIO, "ARM_MCI: " txt "\n"))
#define MCI_TRACE(txt) DEBUG ((EFI_D_BLKIO, "ARM_MCI: " txt "\n"))
EFI_STATUS
EFIAPI