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windows-nt/Source/XPSP1/NT/base/busdrv/acpi/tools/kdext/acpi.c
CryptoAlgo Inc b3cac27891 Add source files
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/*++
Copyright (c) 1997 Microsoft Corporation
Module Name:
acpi.c
Abstract:
WinDbg Extension Api for interpretting ACPI data structures
Author:
Stephane Plante (splante) 21-Mar-1997
Based on Code by:
Peter Wieland (peterwie) 16-Oct-1995
Environment:
User Mode.
Revision History:
--*/
#include "pch.h"
UCHAR Buffer[2048];
PCCHAR DeviceStateTable[] = {
"Stopped",
"Inactive",
"Started",
"Removed",
"SurpriseRemoved",
"Invalid",
};
PCCHAR DevicePowerStateTable[] = {
"PowerDeviceUnspecified",
"PowerDeviceD0",
"PowerDeviceD1",
"PowerDeviceD2",
"PowerDeviceD3",
"PowerDeviceMaximum",
};
PCCHAR SystemPowerStateTable[] = {
"PowerSystemUnspecified",
"PowerSystemWorking",
"PowerSystemSleepingS1",
"PowerSystemSleepingS2",
"PowerSystemSleepingS3",
"PowerSystemHibernate",
"PowerSystemShutdown",
"PowerSystemMaximum",
};
PCCHAR SystemPowerActionTable[] = {
"PowerActionNone",
"PowerActionReserved",
"PowerActionSleep",
"PowerActionHibernate",
"PowerActionShutdown",
"PowerActionShutdownReset",
"PowerActionShutdownOff",
"PowerActionWarmEject"
};
CCHAR ReallyShortDevicePowerStateTable[] = {
'W',
'0',
'1',
'2',
'3',
'M',
};
PCCHAR ShortDevicePowerStateTable[] = {
"Dw",
"D0",
"D1",
"D2",
"D3",
"Dmax",
};
CCHAR ReallyShortSystemPowerStateTable[] = {
'W',
'0',
'1',
'2',
'3',
'4',
'5',
'M',
};
PCCHAR ShortSystemPowerStateTable[] = {
"Sx",
"S0",
"S1",
"S2",
"S3",
"S4",
"S5",
"SM",
};
PCCHAR WorkDone[] = {
"Complete",
"Pending",
"Failure",
"Step 0",
"Step 1",
"Step 2",
"Step 3",
"Step 4",
"Step 5",
"Step 6",
"Step 7",
"Step 8",
"Step 9",
"Step 10",
"Step 11",
"Step 12",
"Step 13",
"Step 14",
"Step 15",
"Step 16",
"Step 17",
"Step 18",
"Step 19",
"Step 20",
"Step 21",
"Step 22",
"Step 23",
"Step 24",
"Step 25",
"Step 26",
};
FLAG_RECORD DeviceExtensionButtonEventFlags[] = {
{ 0x00000001, "Pwr", "\"Power Button\"" , NULL, NULL },
{ 0x00000002, "Slp", "\"Sleep Button\"" , NULL, NULL },
{ 0x00000004, "Lid", "\"Lid Switch\"" , NULL, NULL },
{ 0x80000000, "Wake", "\"Wake Capable\"" , NULL, NULL },
};
FLAG_RECORD DeviceExtensionFlags[] = {
{ 0x0000000000000001, "Nev", "NeverPresent" , NULL, NULL },
{ 0x0000000000000002, "!P" , "NotPresent" , NULL, NULL },
{ 0x0000000000000004, "Rmv", "Removed" , NULL, NULL },
{ 0x0000000000000008, "!F" , "NotFound" , NULL, NULL },
{ 0x0000000000000010, "Fdo", "FunctionalDeviceObject" , NULL, NULL },
{ 0x0000000000000020, "Pdo", "PhysicalDeviceObject" , NULL, NULL },
{ 0x0000000000000040, "Fil", "Filter" , NULL, NULL },
{ 0x0000000000010000, "Wak", "Wake" , NULL, NULL },
{ 0x0000000000020000, "Raw", "RawOK" , NULL, NULL },
{ 0x0000000000040000, "But", "Button" , NULL, NULL },
{ 0x0000000000080000, "PS0", "AlwaysOn" , NULL, NULL },
{ 0x0000000000100000, "!Fil", "NeverFilter" , NULL, NULL },
{ 0x0000000000200000, "!Stop", "NeverStop" , NULL, NULL },
{ 0x0000000000400000, "!Off", "NeverOverrideOff" , NULL, NULL },
{ 0x0000000000800000, "ISA", "ISABus" , NULL, NULL },
{ 0x0000000001000000, "EIO", "EIOBus" , NULL, NULL },
{ 0x0000000002000000, "PCI", "PCIBus" , NULL, NULL },
{ 0x0000000004000000, "Ser", "SerialPort" , NULL, NULL },
{ 0x0000000008000000, "Tz", "ThermalZone" , NULL, NULL },
{ 0x0000000010000000, "Lnk", "LinkNode" , NULL, NULL },
{ 0x0000000020000000, "!UI", "NoShowInUI" , NULL, NULL },
{ 0x0000000040000000, "!!UI", "NeverShowInUI" , NULL, NULL },
{ 0x0000000080000000, "D3", "StartInD3" , NULL, NULL },
{ 0x0000000100000000, "pci", "PCIDevice" , NULL, NULL },
{ 0x0000000200000000, "PIC", "ProgrammableInterruptController" , NULL, NULL },
{ 0x0000000400000000, "Dock-", "UnattachedDock" , NULL, NULL },
{ 0x0000100000000000, "Adr", "HasAddress" , NULL, NULL },
{ 0x0000200000000000, "HID", "HasHardwareID" , NULL, NULL },
{ 0x0000400000000000, "UID", "HasUniqueID" , NULL, NULL },
{ 0x0000800000000000, "hid", "FakeHardwareID" , NULL, NULL },
{ 0x0001000000000000, "uid", "FakeUniqueID" , NULL, NULL },
{ 0x0002000000000000, "BAD", "FailedInit" , NULL, NULL },
{ 0x0004000000000000, "SRS", "Programmable" , NULL, NULL },
{ 0x0008000000000000, "Fake", "NoAcpiObject" , NULL, NULL },
{ 0x0010000000000000, "Excl", "Exclusive" , NULL, NULL },
{ 0x0020000000000000, "Ini", "RanINI" , NULL, NULL },
{ 0x0040000000000000, "Ena", "Enabled" , "!Ena", "NotEnabled" },
{ 0x0080000000000000, "BAD", "Failed" , NULL, NULL },
{ 0x0100000000000000, "Pwr", "AcpiPower" , NULL, NULL },
{ 0x0200000000000000, "Dock", "DockProfile" , NULL, NULL },
{ 0x0400000000000000, "S->D", "BuiltPowerTables" , NULL, NULL },
{ 0x0800000000000000, "PME", "UsesPME" , NULL, NULL },
{ 0x1000000000000000, "!Lid", "NoLidAction" , NULL, NULL },
};
FLAG_RECORD DeviceExtensionThermalFlags[] = {
{ 0x00000001, "Cooling", "\"Cooling Level\"" , NULL, NULL },
{ 0x00000002, "Temp", "Temp" , NULL, NULL },
{ 0x00000004, "Trip", "\"Trip Points\"" , NULL, NULL },
{ 0x00000008, "Mode", "Mode" , NULL, NULL },
{ 0x00000010, "Init", "Initialize" , NULL, NULL },
{ 0x20000000, "Wait", "\"Wait for Notify\"" , NULL, NULL },
{ 0x40000000, "Busy", "Busy" , NULL, NULL },
{ 0x80000000, "Loop", "\"In Service Loop\"" , NULL, NULL },
};
FLAG_RECORD PM1ControlFlags[] = {
{ 0x0001, "", "SCI_EN" , NULL, NULL },
{ 0x0002, "", "BM_RLD" , NULL, NULL },
{ 0x0004, "", "GBL_RLS" , NULL, NULL },
{ 0x0400, "", "SLP_TYP0" , NULL, NULL },
{ 0x0800, "", "SLP_TYP1" , NULL, NULL },
{ 0x1000, "", "SLP_TYP2" , NULL, NULL },
{ 0x2000, "", "SLP_EN" , NULL, NULL },
};
FLAG_RECORD PM1StatusFlags[] = {
{ 0x0001, "", "TMR_STS" , NULL, NULL },
{ 0x0010, "", "BM_STS" , NULL, NULL },
{ 0x0020, "", "GBL_STS" , NULL, NULL },
{ 0x0100, "", "PWRBTN_STS" , NULL, NULL },
{ 0x0200, "", "SLPBTN_STS" , NULL, NULL },
{ 0x0400, "", "RTC_STS" , NULL, NULL },
{ 0x8000, "", "WAK_STS" , NULL, NULL },
};
FLAG_RECORD PM1EnableFlags[] = {
{ 0x0001, "", "TMR_EN" , NULL, NULL },
{ 0x0020, "", "GBL_EN" , NULL, NULL },
{ 0x0100, "", "PWRBTN_EN" , NULL, NULL },
{ 0x0200, "", "SLPBTN_EN" , NULL, NULL },
{ 0x0400, "", "RTC_EN" , NULL, NULL },
};
FLAG_RECORD PowerNodeFlags[] = {
{ 0x00001, "PO", "Present" , NULL, NULL },
{ 0x00002, "Init", "Initialized" , NULL, NULL },
{ 0x00004, "!STA", "\"Status Unknown\"" , NULL, NULL },
{ 0x00010, "On", "On" , "Off", "Off" },
{ 0x00020, "On+", "OverrideOn" , NULL, NULL },
{ 0x00040, "Off-", "OverrideOff" , NULL, NULL },
{ 0x00200, "On++", "AlwaysOn" , NULL, NULL },
{ 0x00400, "Off--", "AlwaysOff" , NULL, NULL },
{ 0x10000, "Fail", "Failed" , NULL, NULL },
{ 0x20000, "Hiber", "HibernatePath" , NULL, NULL },
};
FLAG_RECORD PowerRequestFlags[] = {
{ 0x00001, "Dly", "Delayed", NULL, NULL },
{ 0x00002, "!Q", "NoQueue", NULL, NULL },
{ 0x00004, "Lck", "LockDevice", NULL, NULL },
{ 0x00008, "!Lck", "UnlockDevice", NULL, NULL },
{ 0x00010, "+Hbr", "LockHiber", NULL, NULL },
{ 0x00020, "-Hbr", "UnlockHiber", NULL, NULL },
{ 0x00040, "Can", "HasCancel", NULL, NULL },
};
VOID
displayAcpiDeviceExtension(
IN PDEVICE_EXTENSION DeviceExtension,
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This routine is responsible for displaying a device extension
Arguments:
DeviceExtension - Extension to display
Address - Where the extension lives in memory
Verbose - How much information to display
IndentLevel - How much to tab it over
Return Value:
None
--*/
{
BOOL b;
DEVICE_POWER_STATE k;
DWORD_PTR displacement;
IRP_DISPATCH_TABLE dispatchTable;
PACPI_POWER_INFO powerInfo;
SYSTEM_POWER_STATE s;
UCHAR indent[80];
ULONG i,j;
ULONG returnLength;
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
powerInfo = &(DeviceExtension->PowerInfo);
//
// Check signature
//
if (DeviceExtension->Signature != ACPI_SIGNATURE) {
dprintf(
"%s Unknown Signature. This does appear to be an "
"ACPI Extension\n",
indent
);
return;
}
//
// Line #1
//
dprintf("%sACPI DeviceExtension - %lx - ",indent, Address);
displayAcpiDeviceExtensionName( Address );
#if 0
if (DeviceExtension->Flags & DEV_PROP_HID) {
if (DeviceExtension->DeviceID != NULL) {
memset( Buffer, '0', 2048 );
b = ReadMemory(
(ULONG_PTR) DeviceExtension->DeviceID,
Buffer,
32,
&returnLength
);
if (!b || Buffer[0] == '\0') {
dprintf(" (%lx)", DeviceExtension->DeviceID );
} else {
dprintf(" %s", Buffer );
}
} else {
dprintf( " NULL" );
}
if (DeviceExtension->Flags & DEV_PROP_UID) {
if (DeviceExtension->InstanceID) {
memset( Buffer, '0', 256 );
b = ReadMemory(
(ULONG_PTR) DeviceExtension->InstanceID,
Buffer,
256,
&returnLength);
if (!b || returnLength != 256 || Buffer[0] == '\0') {
dprintf(" [ (%lx) ]", DeviceExtension->InstanceID );
} else {
dprintf(" [%s]", Buffer );
}
} else {
dprintf(" [NULL]");
}
}
} else if (DeviceExtension->Flags & DEV_PROP_ADDRESS) {
dprintf(" %lx", DeviceExtension->Address );
}
#endif
dprintf("\n");
//
// Line #2
//
dprintf(
"%s DevObj %8lx PhysicalObj %8lx ",
indent,
DeviceExtension->DeviceObject,
DeviceExtension->PhysicalDeviceObject
);
if (DeviceExtension->TargetDeviceObject != NULL) {
dprintf("AttachedTo %8lx", DeviceExtension->TargetDeviceObject );
}
dprintf("\n");
//
// Line #3
//
dprintf(
"%s AcpiObject %8lx ParentExt %8lx\n",
indent,
DeviceExtension->AcpiObject,
DeviceExtension->ParentExtension
);
//
// Line #4
//
dprintf(
"%s PnpState %-8s OldPnpState %-8s\n",
indent,
DeviceStateTable[DeviceExtension->DeviceState],
DeviceStateTable[DeviceExtension->PreviousState]
);
//
// Line #4
//
dprintf("%s ",indent);
if (DeviceExtension->ResourceList != NULL) {
dprintf("CmResList %lx ", DeviceExtension->ResourceList );
} else {
dprintf(" ");
}
if (DeviceExtension->PnpResourceList != NULL) {
dprintf("PnpResList %lx ", DeviceExtension->PnpResourceList );
} else {
dprintf(" ");
}
dprintf(
"RefCounts %dD %dI %dH %dW\n",
DeviceExtension->ReferenceCount,
DeviceExtension->OutstandingIrpCount,
DeviceExtension->HibernatePathCount,
powerInfo->WakeSupportCount
);
//
// Line #5
//
if (DeviceExtension->Flags & DEV_PROP_DOCK) {
dprintf( "%s Dock %8lx ", indent, DeviceExtension->Dock );
} else {
dprintf( "%s ", indent );
}
dprintf(
"Dispatch %8lx ",
DeviceExtension->DispatchTable
);
if (DeviceExtension->RemoveEvent != NULL) {
dprintf("Remove %lx", DeviceExtension->RemoveEvent);
}
dprintf("\n");
//
// Line #6
//
if (powerInfo->DeviceNotifyHandler != NULL) {
GetSymbol(
powerInfo->DeviceNotifyHandler,
Buffer,
&displacement
);
dprintf(
"%s Handler %lx Context %8lx %s+%x\n",
indent,
powerInfo->DeviceNotifyHandler,
powerInfo->Context,
Buffer,
displacement
);
}
//
// Line #7-12
//
for (k = PowerDeviceUnspecified; k <= PowerDeviceD3; k++) {
if (k < PowerDeviceD3) {
if (powerInfo->PowerObject[k] == NULL &&
powerInfo->PowerNode[k] == NULL) {
continue;
}
} else {
if (powerInfo->PowerObject[k] == NULL) {
continue;
}
}
//
// Did we print on this line?
//
b = FALSE;
dprintf("%s ", indent);
if (powerInfo->PowerObject[k] != NULL) {
dprintf(
"_PS%c %lx ",
ReallyShortDevicePowerStateTable[k],
powerInfo->PowerObject[k]
);
b = TRUE;
}
if (k <= PowerDeviceD2 && powerInfo->PowerNode[k] != NULL) {
if (b) {
dprintf(
"%s Nodes %lx ",
ShortDevicePowerStateTable[k],
powerInfo->PowerNode[k]
);
} else {
dprintf(
"%s Nodes %lx ",
ShortDevicePowerStateTable[k],
powerInfo->PowerNode[k]
);
}
}
dprintf("\n");
}
//
// Line #13
//
dprintf( "%s State %-2s", indent, ShortDevicePowerStateTable[powerInfo->PowerState]);
if (powerInfo->DesiredPowerState != powerInfo->PowerState) {
dprintf("->%-4s ", ShortDevicePowerStateTable[powerInfo->DesiredPowerState]);
} else {
dprintf(" ");
}
dprintf("SxD Mapping ");
for (s = PowerSystemWorking; s < PowerSystemMaximum; s++) {
k = powerInfo->DevicePowerMatrix[s];
if (k == PowerDeviceUnspecified) {
continue;
}
dprintf(
"S%c->D%c ",
ReallyShortSystemPowerStateTable[s],
ReallyShortDevicePowerStateTable[k]
);
}
dprintf("\n");
//
// Line #14
//
if (DeviceExtension->Flags & DEV_CAP_WAKE) {
//
// Print the start of the line
//
dprintf("%s ", indent);
s = powerInfo->SystemWakeLevel;
if (s == PowerSystemUnspecified) {
dprintf("Sw->Sx " );
} else {
dprintf("Sw->S%c ", ReallyShortSystemPowerStateTable[s] );
}
k = DeviceExtension->PowerInfo.DeviceWakeLevel;
if (k == PowerDeviceUnspecified) {
dprintf("Dw->Dx " );
} else {
dprintf("Dw->D%c ", ReallyShortDevicePowerStateTable[k] );
}
dprintf(
" Wake Pin %8d WakeCount %8x\n",
powerInfo->WakeBit,
powerInfo->WakeSupportCount
);
}
//
// Line #15
//
if (powerInfo->CurrentPowerRequest != NULL) {
dprintf(
"%s CurrentReq %lx ",
indent,
powerInfo->CurrentPowerRequest
);
if (powerInfo->PowerRequestListEntry.Flink !=
(PLIST_ENTRY) (Address + FIELD_OFFSET(DEVICE_EXTENSION, PowerInfo.PowerRequestListEntry) ) ) {
dprintf(
"PowerReqList %lx %lx",
CONTAINING_RECORD( powerInfo->PowerRequestListEntry.Flink, ACPI_POWER_REQUEST, SerialListEntry ),
CONTAINING_RECORD( powerInfo->PowerRequestListEntry.Blink, ACPI_POWER_REQUEST, SerialListEntry )
);
}
dprintf("\n");
}
//
// At this point, we are done with the common bits, and now deal with the
// special parts of the extension
//
if ( (DeviceExtension->Flags & DEV_TYPE_FDO) ) {
dprintf(
"%s DPC Obj %8lx Int Object %08lx\n",
indent,
(Address + FIELD_OFFSET(DEVICE_EXTENSION, Fdo.InterruptDpc) ),
DeviceExtension->Fdo.InterruptObject
);
dprintf(
"%s PM1 Status %8lx\n",
indent,
DeviceExtension->Fdo.Pm1Status
);
dumpPM1StatusRegister( DeviceExtension->Fdo.Pm1Status, IndentLevel + 2 );
}
if ( (DeviceExtension->Flags & DEV_CAP_BUTTON) ) {
dprintf(
"%s LidState %-8s SpinLock %x ",
indent,
(DeviceExtension->Button.LidState ? "TRUE" : "FALSE"),
(Address + FIELD_OFFSET(DEVICE_EXTENSION, Button.SpinLock) )
);
if (DeviceExtension->Button.Events) {
dumpFlags(
(DeviceExtension->Button.Events),
&DeviceExtensionButtonEventFlags[0],
sizeof(DeviceExtensionButtonEventFlags)/sizeof(FLAG_RECORD),
IndentLevel,
(DUMP_FLAG_SHORT_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE | DUMP_FLAG_NO_EOL)
);
}
dprintf("\n");
if (DeviceExtension->Button.Capabilities) {
dprintf(
"%s Capability %lx ",
indent,
DeviceExtension->Button.Capabilities
);
dumpFlags(
(DeviceExtension->Button.Capabilities),
&DeviceExtensionButtonEventFlags[0],
sizeof(DeviceExtensionButtonEventFlags)/sizeof(FLAG_RECORD),
IndentLevel,
(DUMP_FLAG_LONG_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE | DUMP_FLAG_NO_EOL)
);
dprintf("\n");
}
}
if ( (DeviceExtension->Flags & DEV_CAP_THERMAL_ZONE) ) {
THRM_INFO thrm;
dprintf(
"%s Info %lx Flags %8x ",
indent,
DeviceExtension->Thermal.Info,
DeviceExtension->Thermal.Flags
);
dumpFlags(
(DeviceExtension->Thermal.Flags),
&DeviceExtensionThermalFlags[0],
sizeof(DeviceExtensionThermalFlags)/sizeof(FLAG_RECORD),
IndentLevel,
(DUMP_FLAG_SHORT_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE | DUMP_FLAG_NO_EOL)
);
dprintf("\n");
//
// Read the thermal Information and print it
//
b = ReadMemory(
(ULONG_PTR) DeviceExtension->Thermal.Info,
&thrm,
sizeof(THRM_INFO),
&returnLength
);
if (!b || returnLength != sizeof(THRM_INFO)) {
dprintf(
"%s Could not read THRM_INFO @ %08lx\n",
indent,
DeviceExtension->Thermal.Info
);
} else {
displayThermalInfo(
&thrm,
(ULONG_PTR) DeviceExtension->Thermal.Info,
Verbose,
IndentLevel + 2
);
}
}
//
// Last Line. At this point, we can dump the ACPI Flags
//
dprintf("%s Flags %016I64x ", indent, DeviceExtension->Flags );
dumpFlags(
(DeviceExtension->Flags),
&DeviceExtensionFlags[0],
sizeof(DeviceExtensionFlags)/sizeof(FLAG_RECORD),
IndentLevel + 4,
(DUMP_FLAG_SHORT_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE)
);
dumpFlags(
(DeviceExtension->Flags),
&DeviceExtensionFlags[0],
sizeof(DeviceExtensionFlags)/sizeof(FLAG_RECORD),
IndentLevel + 4,
(DUMP_FLAG_LONG_NAME)
);
}
VOID
displayAcpiDeviceExtensionBrief(
IN PDEVICE_EXTENSION DeviceExtension,
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This routine displays a one line summary of the device extension
Arguments:
DeviceExtension - The extension to display
Address - Where the extension is located
Verbose - How much information to display
IndentLevel - How much whitespace to use
Return Value:
VOID
--*/
{
BOOL b;
PDEVICE_EXTENSION deviceExtension;
ULONG address;
ULONG i;
ULONG returnLength;
ULONG startAddress;
//
// Should we print this extension?
//
if ( (Verbose & VERBOSE_PRESENT) &&
(DeviceExtension->Flags & DEV_TYPE_NOT_FOUND) ) {
return;
}
//
// Make the IndentLevel 'relative' - Device By 4
//
IndentLevel /= 4;
//
// Indent the text
//
for (i = 0; i < IndentLevel; i++) {
dprintf("| ");
}
//
// Print the address of the object
//
dprintf("%08lx", Address );
//
// Try to get the name & instance
//
if (DeviceExtension->Flags & DEV_PROP_HID) {
if (DeviceExtension->DeviceID) {
memset( Buffer, '0', 2048 );
b = ReadMemory(
(ULONG_PTR) DeviceExtension->DeviceID,
Buffer,
256,
&returnLength
);
if (b && Buffer[0] != '\0') {
dprintf(" %s", Buffer );
}
} else {
dprintf(" <Unknown HID>");
}
if (DeviceExtension->Flags & DEV_PROP_UID) {
if (DeviceExtension->InstanceID) {
memset( Buffer, '0', 2048 );
b = ReadMemory(
(ULONG_PTR) DeviceExtension->InstanceID,
Buffer,
256,
&returnLength
);
if (b && Buffer[0] != '\0') {
dprintf("(%s)", Buffer );
}
} else {
dprintf(" <Unknown UID>");
}
}
} else if (DeviceExtension->Flags & DEV_PROP_ADDRESS) {
dprintf(" %lx", DeviceExtension->Address );
} else {
dprintf(" <NULL>");
}
if (Verbose & VERBOSE_THERMAL) {
DEVICE_POWER_STATE d;
SYSTEM_POWER_STATE s;
if (DeviceExtension->PowerInfo.PowerState == 0) {
dprintf(" Dx" );
} else {
dprintf(" D%d", (DeviceExtension->PowerInfo.PowerState - 1) );
}
for (s = PowerSystemWorking; s < PowerSystemMaximum; s++) {
d = DeviceExtension->PowerInfo.DevicePowerMatrix[s];
if (d == PowerDeviceUnspecified) {
continue;
}
dprintf(
" S%c->D%c",
ReallyShortSystemPowerStateTable[s],
ReallyShortDevicePowerStateTable[d]
);
}
if (DeviceExtension->Flags & DEV_CAP_WAKE) {
s = DeviceExtension->PowerInfo.SystemWakeLevel;
if (s == PowerSystemUnspecified) {
dprintf(" Sw->Sx" );
} else {
dprintf(" Sw->S%c", ReallyShortSystemPowerStateTable[s] );
}
d = DeviceExtension->PowerInfo.DeviceWakeLevel;
if (d == PowerDeviceUnspecified) {
dprintf(" Dw->Dx" );
} else {
dprintf(" Dw->D%c", ReallyShortDevicePowerStateTable[d] );
}
}
//
// If we are displaying thermal information, cut short early
//
dprintf("\n");
return;
}
dprintf(" NS %08lx", DeviceExtension->AcpiObject );
if (DeviceExtension->PowerInfo.PowerState == 0) {
dprintf(" Dx" );
} else {
dprintf(" D%d", (DeviceExtension->PowerInfo.PowerState - 1) );
}
//
// Print the device state
//
if (DeviceExtension->DeviceState == Stopped) {
dprintf(" stop");
} else if (DeviceExtension->DeviceState == Inactive) {
dprintf(" inac");
} else if (DeviceExtension->DeviceState == Started) {
dprintf(" star");
} else if (DeviceExtension->DeviceState == Removed) {
dprintf(" remv");
} else if (DeviceExtension->DeviceState == SurpriseRemoved) {
dprintf(" surp");
} else {
dprintf(" inva");
}
dprintf(" %d-%d-%d",
DeviceExtension->OutstandingIrpCount,
DeviceExtension->ReferenceCount,
DeviceExtension->HibernatePathCount
);
//
// Display the flags
//
dumpFlags(
(DeviceExtension->Flags),
&DeviceExtensionFlags[0],
sizeof(DeviceExtensionFlags)/sizeof(FLAG_RECORD),
IndentLevel + 4,
(DUMP_FLAG_SHORT_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE)
);
// displayAcpiDeviceExtensionFlags( DeviceExtension );
}
VOID
displayAcpiDeviceExtensionFlags(
IN PDEVICE_EXTENSION DeviceExtension
)
/*++
Routine Description:
This routine displays the Flag for a device extension
This routine prints a new line at the end of the only line of text that
it consumes
Arguments:
DeviceExtension - The extension whose flags to dump
Return Value:
None
--*/
{
//
// Dump the flags
//
if (DeviceExtension->Flags & DEV_TYPE_NEVER_PRESENT) {
dprintf(" Nev");
}
if (DeviceExtension->Flags & DEV_TYPE_NOT_PRESENT) {
dprintf(" N/P");
}
if (DeviceExtension->Flags & DEV_TYPE_REMOVED) {
dprintf(" Rmv");
}
if (DeviceExtension->Flags & DEV_TYPE_NOT_FOUND) {
dprintf(" N/F");
}
if (DeviceExtension->Flags & DEV_TYPE_FDO) {
dprintf(" Fdo");
}
if (DeviceExtension->Flags & DEV_TYPE_PDO) {
dprintf(" Pdo");
}
if (DeviceExtension->Flags & DEV_TYPE_FILTER) {
dprintf(" Fil");
}
if (DeviceExtension->Flags & DEV_CAP_WAKE) {
dprintf(" Wak");
}
if (DeviceExtension->Flags & DEV_CAP_RAW) {
dprintf(" Raw");
}
if (DeviceExtension->Flags & DEV_CAP_BUTTON) {
dprintf(" But");
}
if (DeviceExtension->Flags & DEV_CAP_ALWAYS_PS0) {
dprintf(" PS0");
}
if (DeviceExtension->Flags & DEV_CAP_NO_FILTER) {
dprintf(" !Fil");
}
if (DeviceExtension->Flags & DEV_CAP_NO_STOP) {
dprintf(" !Stop");
}
if (DeviceExtension->Flags & DEV_CAP_NO_OVERRIDE) {
dprintf(" !Off");
}
if (DeviceExtension->Flags & DEV_CAP_ISA) {
dprintf(" Isa");
}
if (DeviceExtension->Flags & DEV_CAP_EIO) {
dprintf(" Eio");
}
if (DeviceExtension->Flags & DEV_CAP_PCI) {
dprintf(" Pci");
}
if (DeviceExtension->Flags & DEV_CAP_SERIAL) {
dprintf(" Ser");
}
if (DeviceExtension->Flags & DEV_CAP_THERMAL_ZONE) {
dprintf(" Thrm");
}
if (DeviceExtension->Flags & DEV_CAP_LINK_NODE) {
dprintf(" Lnk");
}
if (DeviceExtension->Flags & DEV_CAP_NO_SHOW_IN_UI) {
dprintf(" !UI");
}
if (DeviceExtension->Flags & DEV_CAP_NEVER_SHOW_IN_UI) {
dprintf(" !!UI");
}
if (DeviceExtension->Flags & DEV_CAP_START_IN_D3) {
dprintf(" D3");
}
if (DeviceExtension->Flags & DEV_CAP_PCI_DEVICE) {
dprintf(" PciD");
}
if (DeviceExtension->Flags & DEV_CAP_PIC_DEVICE) {
dprintf(" PIC");
}
if (DeviceExtension->Flags & DEV_CAP_UNATTACHED_DOCK) {
dprintf(" Dock-");
}
if (DeviceExtension->Flags & DEV_PROP_ADDRESS) {
dprintf(" Adr");
}
if (DeviceExtension->Flags & DEV_PROP_FIXED_HID) {
dprintf(" FHid");
} else if (DeviceExtension->Flags & DEV_PROP_HID) {
dprintf(" Hid");
}
if (DeviceExtension->Flags & DEV_PROP_FIXED_UID) {
dprintf(" FUid");
} else if (DeviceExtension->Flags & DEV_PROP_UID) {
dprintf(" Uid");
}
if (DeviceExtension->Flags & DEV_PROP_FAILED_INIT) {
dprintf(" !INIT");
}
if (DeviceExtension->Flags & DEV_PROP_SRS_PRESENT) {
dprintf(" SRS");
}
if (DeviceExtension->Flags & DEV_PROP_NO_OBJECT) {
dprintf(" Fake");
}
if (DeviceExtension->Flags & DEV_PROP_EXCLUSIVE) {
dprintf(" Excl");
}
if (DeviceExtension->Flags & DEV_PROP_RAN_INI) {
dprintf(" Ini");
}
if (!(DeviceExtension->Flags & DEV_PROP_DEVICE_ENABLED)) {
dprintf(" !Ena");
}
if (DeviceExtension->Flags & DEV_PROP_DEVICE_FAILED) {
dprintf(" Fail");
}
if (DeviceExtension->Flags & DEV_PROP_ACPI_POWER) {
dprintf(" Pwr");
}
if (DeviceExtension->Flags & DEV_PROP_DOCK) {
dprintf(" Prof");
}
if (DeviceExtension->Flags & DEV_PROP_BUILT_POWER_TABLE) {
dprintf(" S->D");
}
if (DeviceExtension->Flags & DEV_PROP_HAS_PME) {
dprintf(" PME");
}
dprintf("\n");
}
VOID
displayAcpiDeviceExtensionName(
IN ULONG_PTR DeviceExtensionAddress
)
/*++
Routine Description:
This routine is tasked to with displaying the name of the device in the
best possible manner
Arguments:
DeviceExtensionAddress - The Address of the DeviceExtension
Return Value:
NONE
--*/
{
BOOL status;
DEVICE_EXTENSION deviceExtension;
NSOBJ acpiObject;
UCHAR nameBuffer[80];
ULONG_PTR nameAddress;
ULONG returnLength;
//
// Read the entier extension
//
status = ReadMemory(
DeviceExtensionAddress,
&deviceExtension,
sizeof(DEVICE_EXTENSION),
&returnLength
);
if (status && returnLength == sizeof(DEVICE_EXTENSION) ) {
if (deviceExtension.Flags & DEV_PROP_HID) {
if (deviceExtension.DeviceID != NULL) {
//
// Now, try to read the name into the buffer
//
status = ReadMemory(
(ULONG_PTR) deviceExtension.DeviceID,
nameBuffer,
79,
&returnLength
);
if (status && returnLength) {
nameBuffer[returnLength] = '\0';
dprintf("%s",nameBuffer);
} else {
dprintf("(%lx)", deviceExtension.DeviceID);
}
} else {
dprintf("NULL");
}
}
if (deviceExtension.Flags & DEV_PROP_UID) {
if (deviceExtension.InstanceID != NULL) {
//
// Now, try to read the name into the buffer
//
status = ReadMemory(
(ULONG_PTR) deviceExtension.InstanceID,
nameBuffer,
79,
&returnLength
);
if (status && returnLength) {
nameBuffer[returnLength] = '\0';
dprintf(" [%s]",nameBuffer);
} else {
dprintf(" [ (%lx) ]", deviceExtension.InstanceID);
}
} else {
dprintf(" [NULL]");
}
}
if (deviceExtension.Flags & DEV_PROP_ADDRESS) {
dprintf("%lx", deviceExtension.Address );
}
return;
}
//
// In this case, obtain the address of the ACPIObject for this device
//
nameAddress = (ULONG_PTR) &(deviceExtension.AcpiObject) -
(ULONG_PTR) &(deviceExtension) + DeviceExtensionAddress;
status = ReadMemory(
nameAddress,
&(deviceExtension.AcpiObject),
sizeof(PNSOBJ),
&returnLength
);
if (status && returnLength == sizeof(PNSOBJ)) {
//
// Read the object
//
status = ReadMemory(
(ULONG_PTR) deviceExtension.AcpiObject,
&acpiObject,
sizeof(NSOBJ),
&returnLength
);
if (status && returnLength == sizeof(NSOBJ)) {
memcpy( nameBuffer, &(acpiObject.dwNameSeg), 4 );
nameBuffer[4] = '\0';
dprintf("Acpi(%s)", nameBuffer);
return;
}
}
dprintf("Unknown");
return;
}
VOID
displayThermalInfo(
IN PTHRM_INFO ThrmInfo,
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
This routine displays a thermal information structure
--*/
{
BOOLEAN noIndent;
UCHAR indent[80];
UINT i;
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
dprintf(
"%s Stamp %8lx Affinity %08lx Mode %s\n",
indent,
ThrmInfo->Info.ThermalStamp,
ThrmInfo->Info.Processors,
(ThrmInfo->Mode == 0 ? "Active" : "Passive")
);
dprintf(
"%s SampleRate %8ss Constant1 %08lx Constant2 %08lx\n",
indent,
TimeToSeconds( ThrmInfo->Info.SamplingPeriod ),
ThrmInfo->Info.ThermalConstant1,
ThrmInfo->Info.ThermalConstant2
);
dprintf(
"%s _TMP %8lx TempData %8lx CoolingLvl %2d\n",
indent,
ThrmInfo->TempMethod,
Address + FIELD_OFFSET( THRM_INFO, Temp ),
ThrmInfo->CoolingLevel
);
for (i = 0; i < 10; i++) {
noIndent = FALSE;
if (i == 0) {
dprintf(
"%s Current %8sK ",
indent,
TempToKelvins( ThrmInfo->Info.CurrentTemperature )
);
} else if (i == 1) {
dprintf(
"%s Critical %8sK ",
indent,
TempToKelvins( ThrmInfo->Info.CriticalTripPoint )
);
} else if (i == 2) {
dprintf(
"%s Passive %8sK ",
indent,
TempToKelvins( ThrmInfo->Info.PassiveTripPoint )
);
} else {
noIndent = TRUE;
}
if (i >= ThrmInfo->Info.ActiveTripPointCount) {
if (ThrmInfo->Info.ActiveTripPoint[i] != 0 ||
ThrmInfo->ActiveList[i] != NULL) {
if (noIndent == TRUE) {
dprintf( "%s ", indent );
}
dprintf(
"*Active #%d %8sK Method %lx\n",
i,
TempToKelvins( ThrmInfo->Info.ActiveTripPoint[i] ),
ThrmInfo->ActiveList[i]
);
} else if (i < 3) {
dprintf("\n");
} else {
break;
}
} else {
if (noIndent == TRUE) {
dprintf( "%s ", indent );
}
dprintf(
"Active #%d %8sK Method %lx\n",
i,
TempToKelvins( ThrmInfo->Info.ActiveTripPoint[i] ),
ThrmInfo->ActiveList[i]
);
}
}
}
VOID
dumpAcpiDeviceNode(
IN PACPI_DEVICE_POWER_NODE DeviceNode,
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This routine dumps the contents of a single device node
Arguments:
DeviceNode - What to dump
Address - Where that node is located
IndentLevel - How much whitespace to use
Return Value:
None
--*/
{
UCHAR indent[80];
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
dprintf(
"%sDevice Node - %08lx -> Extension - %08lx",
indent,
Address,
DeviceNode->DeviceExtension
);
if (DeviceNode->DeviceExtension != NULL) {
dprintf(" - ");
displayAcpiDeviceExtensionName(
(ULONG_PTR) DeviceNode->DeviceExtension
);
}
dprintf("\n");
dprintf(
"%s System %2s Device %2s Wake %s\n",
indent,
ShortSystemPowerStateTable[DeviceNode->SystemState],
ShortDevicePowerStateTable[DeviceNode->AssociatedDeviceState],
(DeviceNode->WakePowerResource ? "TRUE" : "FALSE")
);
}
VOID
dumpAcpiDeviceNodes(
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This routine walks a Device Power List (given the address of the
start of that list)
Arguments:
Address - Where in memory the first node is located
Verbose - How much information to display
IndentLevel - How many characters to indent
Return Value:
VOID
--*/
{
BOOL status;
ACPI_DEVICE_POWER_NODE deviceNode;
ACPI_POWER_DEVICE_NODE powerNode;
ULONG returnLength;
ULONG_PTR deviceAddress = Address;
while (deviceAddress != 0) {
//
// Read the current node
//
status = ReadMemory(
deviceAddress,
&deviceNode,
sizeof(ACPI_DEVICE_POWER_NODE),
&returnLength
);
if (status != TRUE || returnLength != sizeof(ACPI_DEVICE_POWER_NODE)) {
dprintf(
"dumpAcpiDeviceNodes: could not read device node memory "
"%08lx\n",
deviceAddress
);
return;
}
//
// Dump the node
//
dumpAcpiDeviceNode(
&deviceNode,
deviceAddress,
Verbose,
IndentLevel
);
status = ReadMemory(
(ULONG_PTR) deviceNode.PowerNode,
&powerNode,
sizeof(ACPI_POWER_DEVICE_NODE),
&returnLength);
if (status != TRUE ||
returnLength != sizeof(ACPI_POWER_DEVICE_NODE)) {
dprintf(
"dumpAcpiDeviceNode: could not read power node memory "
"%08lx\n",
deviceNode.PowerNode
);
return;
}
//
// Dump the power resource
//
dumpAcpiPowerNode(
&powerNode,
(ULONG_PTR) deviceNode.PowerNode,
Verbose,
IndentLevel
);
//
// setup next entry in the list
//
deviceAddress = (ULONG_PTR) deviceNode.Next;
}
}
VOID
dumpAcpiExtension(
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This dumps the ACPI device extension in a format that is readable by the
user debugging the system
Arguments:
Address - Where the DeviceObject is located
Verbose - How much information to display
IndentLevel - How much whitespace to have
Return Value:
None
--*/
{
BOOL b;
DEVICE_EXTENSION deviceExtension;
PLIST_ENTRY listEntry;
UCHAR indent[80];
ULONG_PTR curAddress;
ULONG returnLength;
ULONG_PTR stopAddress;
ULONG subVerbose;
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
//
// Read the sibling device extension
//
b = ReadMemory(
Address,
&deviceExtension,
sizeof(DEVICE_EXTENSION),
&returnLength
);
if (!b) {
dprintf(
"%s***ReadMemory Failed from %p\n",
Address
);
return;
} else if (returnLength != sizeof(DEVICE_EXTENSION) ) {
dprintf(
"%s***Error: Only read %08lx of %08lx bytes for %p\n",
returnLength,
sizeof(DEVICE_EXTENSION),
Address
);
return;
}
if ( (Verbose & VERBOSE_ALL) ) {
displayAcpiDeviceExtension(
&deviceExtension,
Address,
Verbose,
IndentLevel
);
} else {
displayAcpiDeviceExtensionBrief(
&deviceExtension,
Address,
Verbose,
IndentLevel
);
}
if (! (Verbose & VERBOSE_LOOP) ) {
return;
}
//
// Determine the current and stop addresses
//
stopAddress = (ULONG_PTR) &(deviceExtension.ChildDeviceList) -
(ULONG_PTR) &deviceExtension + Address;
listEntry = deviceExtension.ChildDeviceList.Flink;
//
// Loop while there are children
//
while (listEntry != (PLIST_ENTRY) stopAddress) {
//
// Check for Ctrl-C
//
if (CheckControlC()) {
break;
}
//
// The currentAddress is at the ListEntry --- lets convert
//
curAddress = (ULONG_PTR) CONTAINING_RECORD(
listEntry,
DEVICE_EXTENSION,
SiblingDeviceList
);
//
// Read the entry
//
b = ReadMemory(
curAddress,
&deviceExtension,
sizeof(DEVICE_EXTENSION),
&returnLength
);
if (!b) {
dprintf(
"%s ***ReadMemory Failed from %p\n",
curAddress
);
return;
} else if (returnLength != sizeof(DEVICE_EXTENSION) ) {
dprintf(
"%s ***Error: Only read %08lx of %08lx bytes "
"for %p\n",
returnLength,
sizeof(DEVICE_EXTENSION),
curAddress
);
return;
}
//
// Recurse
//
dumpAcpiExtension(
curAddress,
Verbose,
IndentLevel + 4
);
//
// Point to the next extension
//
listEntry = deviceExtension.SiblingDeviceList.Flink;
}
}
VOID
dumpPM1ControlRegister(
IN ULONG Value,
IN ULONG IndentLevel
)
{
//
// Dump the PM1 Control Flags
//
dumpFlags(
(Value & 0xFF),
&PM1StatusFlags[0],
sizeof(PM1ControlFlags) / sizeof(FLAG_RECORD),
IndentLevel,
(DUMP_FLAG_LONG_NAME | DUMP_FLAG_SHOW_BIT | DUMP_FLAG_TABLE)
);
}
VOID
dumpPM1StatusRegister(
IN ULONG Value,
IN ULONG IndentLevel
)
{
//
// Dump the PM1 Status Flags
//
dumpFlags(
(Value & 0xFFFF),
PM1StatusFlags,
(sizeof(PM1StatusFlags) / sizeof(FLAG_RECORD)),
IndentLevel,
(DUMP_FLAG_LONG_NAME | DUMP_FLAG_SHOW_BIT | DUMP_FLAG_TABLE)
);
//
// Switch to the PM1 Enable Flags
//
Value >>= 16;
//
// Dump the PM1 Enable Flags
//
dumpFlags(
(Value & 0xFFFF),
PM1EnableFlags,
(sizeof(PM1EnableFlags) / sizeof(FLAG_RECORD)),
IndentLevel,
(DUMP_FLAG_LONG_NAME | DUMP_FLAG_SHOW_BIT | DUMP_FLAG_TABLE)
);
}
VOID
dumpAcpiPowerList(
IN PUCHAR ListName
)
/*++
This routine fetects a single Power Device List from the target and
displays it
Arguments:
None
Return Value:
None
--*/
{
BOOL status;
LIST_ENTRY listEntry;
ULONG_PTR address;
ULONG returnLength;
//
// Handle the queue list
//
address = GetExpression( ListName );
if (!address) {
dprintf( "dumpAcpiPowerList: could not read %s\n", ListName );
} else {
dprintf(" %s at %p\n", ListName, address );
status = ReadMemory(
address,
&listEntry,
sizeof(LIST_ENTRY),
&returnLength
);
if (status == FALSE || returnLength != sizeof(LIST_ENTRY)) {
dprintf(
"dumpAcpiPowerList: could not read LIST_ENTRY at %08lx\n",
address
);
} else {
dumpDeviceListEntry(
&listEntry,
address
);
dprintf("\n");
}
}
}
VOID
dumpAcpiPowerLists(
VOID
)
/*++
Routine Description:
This routine fetches the Power Device list from the target and
displays it
Arguments:
None
Return Value:
None
--*/
{
BOOL status;
LIST_ENTRY listEntry;
ULONG_PTR address;
ULONG returnLength;
ULONG value;
status = GetUlongPtr( "ACPI!AcpiPowerLock", &address );
if (status == FALSE) {
dprintf("dumpAcpiPowerLists: Could not read ACPI!AcpiPowerLock\n");
return;
}
dprintf("ACPI Power Information\n");
if (address) {
dprintf(" + ACPI!AcpiPowerLock is owned");
//
// The bits other then the lowest is where the owning thread is
// located. This function uses the property that -2 is every bit
// except the least significant one
//
if ( (address & (ULONG_PTR) -2) != 0) {
dprintf(" by thread at %p\n", (address & (ULONG_PTR) - 2) );
} else {
dprintf("\n");
}
} else {
dprintf(" - ACPI!AcpiPowerLock is not owned\n");
}
status = GetUlongPtr( "ACPI!AcpiPowerQueueLock", &address );
if (status == FALSE) {
dprintf("dumpAcpiPowerLists: Could not read ACPI!AcpiPowerQueueLock\n");
return;
}
if (address) {
dprintf(" + ACPI!AcpiPowerQueueLock is owned\n");
if ( (address & (ULONG_PTR) -2) != 0) {
dprintf(" by thread at %p\n", (address & (ULONG_PTR) - 2) );
} else {
dprintf("\n");
}
} else {
dprintf(" - ACPI!AcpiPowerQueueLock is not owned\n" );
}
status = GetUlong( "ACPI!AcpiPowerWorkDone", &value );
if (status == FALSE) {
dprintf("dumpAcpiPowerLists: Could not read ACPI!AcpiPowerWorkDone\n");
return;
}
dprintf(" + AcpiPowerWorkDone = %s\n", (value ? "TRUE" : "FALSE" ) );
status = GetUlong( "ACPI!AcpiPowerDpcRunning", &value );
if (status == FALSE) {
dprintf("dumpAcpiPowerLists: Could not read ACPI!AcpiPowerDpcRunning\n");
return;
}
dprintf(" + AcpiPowerDpcRunning = %s\n", (value ? "TRUE" : "FALSE" ) );
dumpAcpiPowerList( "ACPI!AcpiPowerQueueList" );
dumpAcpiPowerList( "ACPI!AcpiPowerDelayedQueueList" );
dumpAcpiPowerList( "ACPI!AcpiPowerPhase0List" );
dumpAcpiPowerList( "ACPI!AcpiPowerPhase1List" );
dumpAcpiPowerList( "ACPI!AcpiPowerPhase2List" );
dumpAcpiPowerList( "ACPI!AcpiPowerPhase3List" );
dumpAcpiPowerList( "ACPI!AcpiPowerPhase4List" );
dumpAcpiPowerList( "ACPI!AcpiPowerPhase5List" );
dumpAcpiPowerList( "ACPI!AcpiPowerWaitWakeList" );
}
VOID
dumpAcpiPowerNode(
IN PACPI_POWER_DEVICE_NODE PowerNode,
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This routine is called to display a power node
Arguments:
PowerNode - The power node to dump
Address - Where the power node is located
Verbose - How much information to display
IndentLevel - How many characters to indent
Return Value:
None
--*/
{
BOOL status;
NSOBJ ns;
UCHAR buffer[5];
UCHAR indent[80];
ULONG returnLength;
buffer[4] = '\0';
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
//
// Read the associated power resource object
//
status = ReadMemory(
(ULONG_PTR) PowerNode->PowerObject,
&ns,
sizeof(NSOBJ),
&returnLength
);
if (status != FALSE && returnLength == sizeof(NSOBJ)) {
memcpy( buffer, &(ns.dwNameSeg), 4 );
} else {
buffer[0] = '\0';
}
dprintf("%sPower Node - %08lx %s\n", indent, Address, buffer );
dprintf(
"%s Resource %8lx Order %8lx WorkDone %8s\n",
indent,
PowerNode->PowerObject,
PowerNode->ResourceOrder,
WorkDone[ PowerNode->WorkDone ]
);
dprintf(
"%s On Method %8lx Off Method %8lx UseCounts %8lx\n",
indent,
PowerNode->PowerOnObject,
PowerNode->PowerOffObject,
PowerNode->UseCounts
);
dprintf(
"%s Level %8s Flags %8lx ",
indent,
ShortSystemPowerStateTable[PowerNode->SystemLevel],
PowerNode->Flags
);
dumpFlags(
(PowerNode->Flags),
&PowerNodeFlags[0],
sizeof(PowerNodeFlags)/sizeof(FLAG_RECORD),
0,
(DUMP_FLAG_SHORT_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE)
);
if (Verbose & VERBOSE_4) {
dumpFlags(
(PowerNode->Flags),
&PowerNodeFlags[0],
sizeof(PowerNodeFlags)/sizeof(FLAG_RECORD),
IndentLevel + 4,
(DUMP_FLAG_LONG_NAME)
);
}
}
VOID
dumpAcpiPowerNodes(
VOID
)
/*++
Routine Description:
This routine fetches the Power Device list from the target and
displays it
Arguments:
None
Return Value:
None
--*/
{
ACPI_DEVICE_POWER_NODE deviceNode;
ACPI_POWER_DEVICE_NODE powerNode;
BOOL status;
LIST_ENTRY listEntry;
PLIST_ENTRY list;
ULONG_PTR addr;
ULONG_PTR address;
ULONG_PTR endAddress;
ULONG returnLength;
ULONG_PTR startAddress;
status = GetUlongPtr( "ACPI!AcpiPowerLock", &address );
if (status == FALSE) {
dprintf("dumpAcpiPowerNodes: Could not read ACPI!AcpiPowerLock\n");
return;
}
dprintf("ACPI Power Nodes\n");
if (address) {
dprintf(" + ACPI!AcpiPowerLock is owned");
//
// The bits other then the lowest is where the owning thread is
// located. This function uses the property that -2 is every bit
// except the least significant one
//
if ( (address & (ULONG_PTR) -2) != 0) {
dprintf(" by thread at %p\n", (address & (ULONG_PTR) - 2) );
} else {
dprintf("\n");
}
} else {
dprintf(" - ACPI!AcpiPowerLock is not owned\n");
}
dprintf("Power Node List\n");
startAddress = GetExpression( "ACPI!AcpiPowerNodeList" );
if (!startAddress) {
dprintf("dumpAcpiPowerNodes: could not read ACPI!AcpiPowerNodeList\n");
return;
}
status = ReadMemory(
startAddress,
&listEntry,
sizeof(LIST_ENTRY),
&returnLength
);
if (status == FALSE || returnLength != sizeof(LIST_ENTRY)) {
dprintf(
"dumpAcpiPowerNodes: could not read LIST_ENTRY at %08lx\n",
startAddress
);
return;
}
//
// Check to see if the list is empty
//
if ( (ULONG_PTR) listEntry.Flink == startAddress) {
dprintf(" Empty\n");
return;
}
address = (ULONG_PTR) CONTAINING_RECORD(
(listEntry.Flink),
ACPI_POWER_DEVICE_NODE,
ListEntry
);
while (address != startAddress && address != 0) {
//
// Read the queued item
//
status = ReadMemory(
address,
&powerNode,
sizeof(ACPI_POWER_DEVICE_NODE),
&returnLength
);
if (status == FALSE || returnLength != sizeof(ACPI_POWER_DEVICE_NODE)) {
dprintf(
"dumpIrpListEntry: Cannot read Node at %08lx\n",
address
);
return;
}
//
// dump the node
//
dumpAcpiPowerNode(
&powerNode,
address,
0,
0
);
//
// Lets walk the list of power nodes
//
list = powerNode.DevicePowerListHead.Flink;
endAddress = ( (ULONG_PTR) &(powerNode.DevicePowerListHead) -
(ULONG_PTR) &(powerNode) ) +
address;
//
// Loop until back at the start
//
while (list != (PLIST_ENTRY) endAddress) {
//
// Crack the record
//
addr = (ULONG_PTR) CONTAINING_RECORD(
list,
ACPI_DEVICE_POWER_NODE,
DevicePowerListEntry
);
status = ReadMemory(
addr,
&deviceNode,
sizeof(ACPI_DEVICE_POWER_NODE),
&returnLength
);
if (status == FALSE ||
returnLength != sizeof(ACPI_DEVICE_POWER_NODE)) {
dprintf(
"dumpIrpListEntry: Cannot read Node at %08lx\n",
addr
);
continue;
}
//
// Dump the record
//
dumpAcpiDeviceNode(
&deviceNode,
addr,
0,
2
);
//
// Next record
//
list = deviceNode.DevicePowerListEntry.Flink;
}
dprintf("\n");
//
// Next record
//
address = (ULONG_PTR) CONTAINING_RECORD(
powerNode.ListEntry.Flink,
ACPI_POWER_DEVICE_NODE,
ListEntry
);
}
}
VOID
dumpDeviceListEntry(
IN PLIST_ENTRY ListEntry,
IN ULONG_PTR Address
)
/*++
Routine Description:
This routine is called to dump a list of devices in one of the queues
Arguments:
ListEntry - The head of the list
Address - The original address of the list (to see when we looped
around
Return Value:
NONE
--*/
{
ULONG_PTR displacement;
ACPI_POWER_REQUEST request;
BOOL stat;
PACPI_POWER_REQUEST nextRequest;
PACPI_POWER_REQUEST requestAddress;
ULONG i = 0;
ULONG returnLength;
//
// Look at the next address
//
ListEntry = ListEntry->Flink;
while (ListEntry != (PLIST_ENTRY) Address) {
//
// Crack the listEntry to determine where the powerRequest is
//
requestAddress = CONTAINING_RECORD(
ListEntry,
ACPI_POWER_REQUEST,
ListEntry
);
//
// Read the queued item
//
stat = ReadMemory(
(ULONG_PTR) requestAddress,
&request,
sizeof(ACPI_POWER_REQUEST),
&returnLength
);
if (stat == FALSE || returnLength != sizeof(ACPI_POWER_REQUEST)) {
dprintf(
"dumpDeviceListEntry: Cannot read PowerRequest at %08lx\n",
requestAddress
);
return;
}
if (request.CallBack != NULL) {
GetSymbol(
request.CallBack,
Buffer,
&displacement
);
} else {
Buffer[0] = '\0';
}
//
// Dump the entry for the device
//
dprintf(
" %08lx\n"
" DeviceExtension: %08lx",
requestAddress,
request.DeviceExtension
);
if (request.DeviceExtension != NULL) {
dprintf(" - ");
displayAcpiDeviceExtensionName(
(ULONG_PTR) request.DeviceExtension
);
}
dprintf("\n");
dprintf(
" Status: %08lx %s->%s\n",
request.Status,
WorkDone[request.WorkDone],
WorkDone[request.NextWorkDone]
);
nextRequest = CONTAINING_RECORD(
request.SerialListEntry.Flink,
ACPI_POWER_REQUEST,
SerialListEntry
);
if (nextRequest != requestAddress) {
dprintf(
" SerialListEntry: F - %08lx B - %08lx -> %08lx\n",
request.SerialListEntry.Flink,
request.SerialListEntry.Blink,
nextRequest
);
}
dprintf(
" CallBack: %08lx (%s)\n"
" Context: %08lx\n"
" RequestType: %02lx\n"
" ResultData: %08lx\n",
request.CallBack,
Buffer,
request.Context,
request.RequestType,
requestAddress + (FIELD_OFFSET(ACPI_POWER_REQUEST, ResultData ) )
);
//
// Dump some of the request specific information
//
if (request.RequestType == AcpiPowerRequestDevice) {
dprintf(
" RequestType: AcpiPowerRequestDevice\n"
" DevicePowerState: %s\n"
" Flags: %x ",
DevicePowerStateTable[request.u.DevicePowerRequest.DevicePowerState],
request.u.DevicePowerRequest.Flags
);
dumpFlags(
(request.u.DevicePowerRequest.Flags),
&PowerRequestFlags[0],
sizeof(PowerRequestFlags)/sizeof(FLAG_RECORD),
0,
(DUMP_FLAG_LONG_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE)
);
} else if (request.RequestType == AcpiPowerRequestSystem) {
dprintf(
" RequestType: AcpiPowerRequestSystem\n"
" SystemPowerState: %s\n"
" SystemPowerAction: %s\n",
SystemPowerStateTable[request.u.SystemPowerRequest.SystemPowerState],
SystemPowerActionTable[request.u.SystemPowerRequest.SystemPowerAction]
);
} else if (request.RequestType == AcpiPowerRequestWaitWake) {
dprintf(
" RequestType: AcpiPowerRequestWaitWake\n"
" SystemPowerState: %s\n"
" Flags: %x ",
SystemPowerStateTable[request.u.WaitWakeRequest.SystemPowerState],
request.u.WaitWakeRequest.Flags
);
dumpFlags(
(request.u.WaitWakeRequest.Flags),
&PowerRequestFlags[0],
sizeof(PowerRequestFlags)/sizeof(FLAG_RECORD),
0,
(DUMP_FLAG_LONG_NAME | DUMP_FLAG_NO_INDENT |
DUMP_FLAG_SINGLE_LINE)
);
}
//
// Point to the next entry
//
ListEntry = request.ListEntry.Flink;
} // while
}
VOID
dumpIrpListEntry(
IN PLIST_ENTRY ListEntry,
IN ULONG_PTR Address
)
/*++
Routine Description:
This routine is called to dump a list of devices in one of the queues
Arguments:
ListEntry - The head of the list
Address - The original address of the list (to see when we looped
around
Return Value:
NONE
--*/
{
BOOL stat;
DEVICE_OBJECT deviceObject;
DEVICE_EXTENSION deviceExtension;
IO_STACK_LOCATION irpStack;
PIRP irpAddress;
PIO_STACK_LOCATION tempStack;
IRP irp;
ULONG returnLength;
//
// Look at the first element in the list
//
ListEntry = ListEntry->Flink;
//
// Loop for all items in the list
//
while (ListEntry != (PLIST_ENTRY) Address) {
irpAddress = CONTAINING_RECORD(
ListEntry,
IRP,
Tail.Overlay.ListEntry
);
//
// Read the queued item
//
stat = ReadMemory(
(ULONG_PTR) irpAddress,
&irp,
sizeof(IRP),
&returnLength
);
if (stat == FALSE || returnLength != sizeof(IRP)) {
dprintf(
"dumpIrpListEntry: Cannot read Irp at %08lx\n",
irpAddress
);
return;
}
//
// Get the current stack location
//
tempStack = IoGetCurrentIrpStackLocation( &irp );
if (tempStack == NULL) {
dprintf(
"dumpIrpListEntry: Cannot read IrpStack for Irp at %08lx\n",
irpAddress
);
return;
}
stat = ReadMemory(
(ULONG_PTR) tempStack,
&irpStack,
sizeof(IO_STACK_LOCATION),
&returnLength
);
if (stat == FALSE || returnLength != sizeof(IO_STACK_LOCATION)) {
dprintf(
"dumpIrpListEntry: Cannot read IoStackLocation at %08lx\n",
tempStack
);
return;
}
stat = ReadMemory(
(ULONG_PTR) irpStack.DeviceObject,
&deviceObject,
sizeof(DEVICE_OBJECT),
&returnLength
);
if (stat == FALSE || returnLength != sizeof(DEVICE_OBJECT)) {
dprintf(
"dumpIrpListEntry: Cannot read DeviceObject at %08lx\n",
irpStack.DeviceObject
);
return;
}
stat = ReadMemory(
(ULONG_PTR) deviceObject.DeviceExtension,
&deviceExtension,
sizeof(DEVICE_EXTENSION),
&returnLength
);
if (stat == FALSE || returnLength != sizeof(DEVICE_EXTENSION)) {
dprintf(
"dumpIrpListEntry: Cannot read DeviceExtension at %08lx\n",
deviceObject.DeviceExtension
);
return;
}
memset( Buffer, '0', 2048 );
stat = ReadMemory(
(ULONG_PTR) deviceExtension.DeviceID,
Buffer,
256,
&returnLength
);
if (stat && Buffer[0] != '\0' && returnLength != 0) {
dprintf(
" Irp: %08x Device: %08lx (%s)\n",
irpAddress,
irpStack.DeviceObject,
Buffer
);
} else {
dprintf(
" Irp: %08x Device: %08lx\n",
irpAddress,
irpStack.DeviceObject
);
}
//
// Next item on the queue
//
ListEntry = irp.Tail.Overlay.ListEntry.Flink;
}
}
VOID
dumpNSObject(
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This function dumps a Name space object
Arguments:
Address - Where to find the object
Verbose - Should the object be dumped as well?
IndentLevel - How much to indent
Return Value:
None
--*/
{
BOOL b;
NSOBJ ns;
UCHAR buffer[5];
UCHAR indent[80];
//
// Init the buffers
//
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
buffer[4] = '\0';
//
// First step is to read the root NS
//
b = ReadMemory(
Address,
&ns,
sizeof(NSOBJ),
NULL
);
if (!b) {
dprintf("%sdumpNSObject: could not read %x\n", indent,Address );
return;
}
if (ns.dwNameSeg != 0) {
memcpy( buffer, &(ns.dwNameSeg), 4 );
} else {
sprintf( buffer, " ");
}
dprintf(
"%sNameSpace Object %s (%08lx) - Device %08lx\n",
indent,
buffer,
Address,
ns.Context
);
if (Verbose & VERBOSE_NSOBJ) {
dprintf(
"%s Flink %08lx Blink %08lx Parent %08lx Child %08lx\n",
indent,
ns.list.plistNext,
ns.list.plistPrev,
ns.pnsParent,
ns.pnsFirstChild
);
}
dprintf(
"%s Value %08lx Length %08lx Buffer %08lx Flags %08lx",
indent,
ns.ObjData.uipDataValue,
ns.ObjData.dwDataLen,
ns.ObjData.pbDataBuff,
ns.ObjData.dwfData
);
if (ns.ObjData.dwfData & DATAF_BUFF_ALIAS) {
dprintf(" Alias" );
}
if (ns.ObjData.dwfData & DATAF_GLOBAL_LOCK) {
dprintf(" Lock");
}
dprintf("\n");
dumpObject( Address, &(ns.ObjData), Verbose, IndentLevel + 4);
}
VOID
dumpNSTree(
IN ULONG_PTR Address,
IN ULONG Level
)
/*++
Routine Description:
This thing dumps the NS tree
Arguments:
Address - Where to find the root node --- we start dumping at the children
Return Value:
None
--*/
{
BOOL end = FALSE;
BOOL b;
NSOBJ ns;
UCHAR buffer[5];
ULONG_PTR next;
ULONG back;
ULONG_PTR m1 = 0;
ULONG_PTR m2 = 0;
ULONG reason;
ULONG dataBuffSize;
buffer[4] = '\0';
//
// Indent
//
for (m1 = 0; m1 < Level; m1 ++) {
dprintf("| ");
}
//
// First step is to read the root NS
//
b = ReadMemory(
Address,
&ns,
sizeof(NSOBJ),
NULL
);
if (!b) {
dprintf("dumpNSTree: could not read %x\n", Address );
return;
}
if (ns.dwNameSeg != 0) {
memcpy( buffer, &(ns.dwNameSeg), 4 );
dprintf("%4s ", buffer );
} else {
dprintf(" " );
}
dprintf(
"(%08x) - ", Address );
if (ns.Context != 0) {
dprintf("Device %08lx\n", ns.Context );
} else {
//
// We need to read the pbDataBuff here
//
if (ns.ObjData.pbDataBuff != 0) {
dataBuffSize = (ns.ObjData.dwDataLen > 2047 ?
2047 : ns.ObjData.dwDataLen
);
b = ReadMemory(
(ULONG_PTR) ns.ObjData.pbDataBuff,
Buffer,
dataBuffSize,
NULL
);
if (!b) {
dprintf(
"dumpNSTree: could not read %x\n",
ns.ObjData.pbDataBuff
);
return;
}
}
switch(ns.ObjData.dwDataType) {
default:
case OBJTYPE_UNKNOWN: dprintf("Unknown\n"); break;
case OBJTYPE_INTDATA:
dprintf("Integer - %lx\n", ns.ObjData.uipDataValue);
break;
case OBJTYPE_STRDATA:
Buffer[dataBuffSize+1] = '\0';
dprintf(
"String - %s\n",
Buffer
);
break;
case OBJTYPE_BUFFDATA:
dprintf(
"Buffer - %08lx L=%04x\n",
ns.ObjData.pbDataBuff,
ns.ObjData.dwDataLen
);
break;
case OBJTYPE_PKGDATA: {
PPACKAGEOBJ package = (PPACKAGEOBJ) Buffer;
dprintf("Package - NumElements %x\n",package->dwcElements);
break;
}
case OBJTYPE_FIELDUNIT:{
PFIELDUNITOBJ fieldUnit = (PFIELDUNITOBJ) Buffer;
dprintf(
"FieldUnit - Parent %x Offset %x Start %x "
"Num %x Flags %x\n",
fieldUnit->pnsFieldParent,
fieldUnit->FieldDesc.dwByteOffset,
fieldUnit->FieldDesc.dwStartBitPos,
fieldUnit->FieldDesc.dwNumBits,
fieldUnit->FieldDesc.dwFieldFlags
);
break;
}
case OBJTYPE_DEVICE:
dprintf("Device\n");
break;
case OBJTYPE_EVENT:
dprintf("Event - PKEvent %x\n", ns.ObjData.pbDataBuff);
break;
case OBJTYPE_METHOD: {
PMETHODOBJ method = (PMETHODOBJ) Buffer;
dprintf(
"Method - Flags %x Start %08lx Len %x\n",
method->bMethodFlags,
(ULONG_PTR) method->abCodeBuff - (ULONG_PTR) method +
(ULONG_PTR) ns.ObjData.pbDataBuff,
(ULONG) ns.ObjData.dwDataLen - sizeof(METHODOBJ) +
ANYSIZE_ARRAY
);
break;
}
case OBJTYPE_OPREGION: {
POPREGIONOBJ opRegion = (POPREGIONOBJ) Buffer;
dprintf(
"Opregion - RegionsSpace=%08x OffSet=%x Len=%x\n",
opRegion->bRegionSpace,
opRegion->uipOffset,
opRegion->dwLen
);
break;
}
case OBJTYPE_BUFFFIELD: {
PBUFFFIELDOBJ field = (PBUFFFIELDOBJ) Buffer;
dprintf(
"Buffer Field Ptr=%x Len=%x Offset=%x Start=%x"
"NumBits=%x Flgas=%x\n",
field->pbDataBuff,
field->dwBuffLen,
field->FieldDesc.dwByteOffset,
field->FieldDesc.dwStartBitPos,
field->FieldDesc.dwNumBits,
field->FieldDesc.dwFieldFlags
);
break;
}
case OBJTYPE_FIELD: {
dprintf("Field\n");
break;
}
case OBJTYPE_INDEXFIELD: dprintf("Index Field\n"); break;
case OBJTYPE_MUTEX: dprintf("Mutex\n"); break;
case OBJTYPE_POWERRES: dprintf("Power Resource\n"); break;
case OBJTYPE_PROCESSOR: dprintf("Processor\n"); break;
case OBJTYPE_THERMALZONE: dprintf("Thermal Zone\n"); break;
case OBJTYPE_DDBHANDLE: dprintf("DDB Handle\n"); break;
case OBJTYPE_DEBUG: dprintf("Debug\n"); break;
case OBJTYPE_OBJALIAS: dprintf("Object Alias\n"); break;
case OBJTYPE_DATAALIAS: dprintf("Data Alias\n"); break;
case OBJTYPE_BANKFIELD: dprintf("Bank Field\n"); break;
}
}
m1 = next = (ULONG_PTR) ns.pnsFirstChild;
while (next != 0 && end == FALSE) {
if (CheckControlC()) {
break;
}
b = ReadMemory(
next,
&ns,
sizeof(NSOBJ),
NULL
);
if (!b) {
dprintf("dumpNSTree: could not read %x\n", next );
return;
}
dumpNSTree( next, Level + 1);
//
// Do the end check tests
//
if ( m2 == 0) {
m2 = (ULONG_PTR) ns.list.plistPrev;
} else if (m1 == (ULONG_PTR) ns.list.plistNext) {
end = TRUE;
reason = 1;
} else if (m2 == next) {
end = TRUE;
reason = 2;
}
next = (ULONG_PTR) ns.list.plistNext;
}
}
VOID
dumpObject(
IN ULONG_PTR Address,
IN POBJDATA Object,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This dumps an Objdata so that it can be understand --- great for debugging some of the
AML code
Arguments:
Address - Where the Object is located
Object - Pointer to the object
Return Value:
None
--*/
{
BOOL b;
NTSTATUS status;
UCHAR buffer[2048];
UCHAR indent[80];
ULONG max;
ULONG returnLength;
//
// Init the buffers
//
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
dprintf("%sObject Data - %08lx Type - ", indent, Address );
//
// First step is to read whatever the buffer points to, if it
// points to something
//
if (Object->pbDataBuff != 0) {
max = (Object->dwDataLen > 2047 ? 2047 : Object->dwDataLen );
b = ReadMemory(
(ULONG_PTR) Object->pbDataBuff,
buffer,
max,
&returnLength
);
if (!b || returnLength != max) {
dprintf(
"%sdumpObject: Could not read buffer %08lx (%d) %x<->%x\n",
indent,
Object->pbDataBuff,
b,
max,
returnLength
);
return;
}
}
switch( Object->dwDataType ) {
case OBJTYPE_INTDATA:
dprintf(
"%02x <Integer> Value=%08lx\n",
Object->dwDataType,
Object->uipDataValue
);
break;
case OBJTYPE_STRDATA:
buffer[max] = '\0';
dprintf(
"%02x <String> String=%s\n",
Object->dwDataType,
buffer
);
break;
case OBJTYPE_BUFFDATA:
dprintf(
"%02x <Buffer> Ptr=%08lx Length = %2x\n",
Object->dwDataType,
Object->pbDataBuff,
Object->dwDataLen
);
break;
case OBJTYPE_PKGDATA: {
PPACKAGEOBJ package = (PPACKAGEOBJ) buffer;
ULONG i = 0;
ULONG j = package->dwcElements;
dprintf(
"%02x <Package> NumElements=%02x\n",
Object->dwDataType,
j
);
if (Verbose & VERBOSE_OBJECT) {
for (; i < j; i++) {
dumpObject(
(ULONG_PTR) &(package->adata[i]) - (ULONG_PTR) package +
(ULONG_PTR) Object->pbDataBuff,
&(package->adata[i]),
Verbose,
IndentLevel+ 2
);
}
}
break;
}
case OBJTYPE_FIELDUNIT: {
PFIELDUNITOBJ fieldUnit = (PFIELDUNITOBJ) buffer;
dprintf(
"%02x <Field Unit> Parent=%08lx Offset=%08lx Start=%08x "
"Num=%x Flags=%x\n",
Object->dwDataType,
fieldUnit->pnsFieldParent,
fieldUnit->FieldDesc.dwByteOffset,
fieldUnit->FieldDesc.dwStartBitPos,
fieldUnit->FieldDesc.dwNumBits,
fieldUnit->FieldDesc.dwFieldFlags
);
break;
}
case OBJTYPE_DEVICE:
dprintf(
"%02x <Device>\n",
Object->dwDataType
);
break;
case OBJTYPE_EVENT:
dprintf(
"%02x <Event> PKEvent=%08lx\n",
Object->dwDataType,
Object->pbDataBuff
);
break;
case OBJTYPE_METHOD: {
PMETHODOBJ method = (PMETHODOBJ) buffer;
max = Object->dwDataLen - sizeof(METHODOBJ) + ANYSIZE_ARRAY;
dprintf(
"%02x <Method> Flags=%x Start=%x Len=%x\n",
Object->dwDataType,
method->bMethodFlags,
(ULONG_PTR) method->abCodeBuff - (ULONG_PTR) method +
(ULONG_PTR) Object->pbDataBuff,
max
);
break;
}
case OBJTYPE_MUTEX:
dprintf(
"%02x <Mutex> Mutex=%08lx\n",
Object->dwDataType,
Object->pbDataBuff
);
break;
case OBJTYPE_OPREGION: {
POPREGIONOBJ opRegion = (POPREGIONOBJ) buffer;
dprintf(
"%02x <Operational Region> RegionSpace=%08x OffSet=%x "
"Len=%x\n",
Object->dwDataType,
opRegion->bRegionSpace,
opRegion->uipOffset,
opRegion->dwLen
);
break;
}
case OBJTYPE_POWERRES: {
PPOWERRESOBJ powerRes = (PPOWERRESOBJ) buffer;
dprintf(
"%02x <Power Resource> SystemLevel=S%d Order=%x\n",
Object->dwDataType,
powerRes->bSystemLevel,
powerRes->bResOrder
);
break;
}
case OBJTYPE_PROCESSOR: {
PPROCESSOROBJ proc = (PPROCESSOROBJ) buffer;
dprintf(
"%02x <Processor> AcpiID=%x PBlk=%x PBlkLen=%x\n",
Object->dwDataType,
proc->bApicID,
proc->dwPBlk,
proc->dwPBlkLen
);
break;
}
case OBJTYPE_THERMALZONE:
dprintf(
"%02x <Thermal Zone>\n",
Object->dwDataType
);
break;
case OBJTYPE_BUFFFIELD: {
PBUFFFIELDOBJ field = (PBUFFFIELDOBJ) buffer;
dprintf(
"%02x <Buffer Field> Ptr=%x Len=%x Offset=%x Start=%x "
"NumBits=%x Flags=%x\n",
Object->dwDataType,
field->pbDataBuff,
field->dwBuffLen,
field->FieldDesc.dwByteOffset,
field->FieldDesc.dwStartBitPos,
field->FieldDesc.dwNumBits,
field->FieldDesc.dwFieldFlags
);
break;
}
case OBJTYPE_DDBHANDLE:
dprintf(
"%02x <DDB Handle> Handle=%x\n",
Object->dwDataType,
Object->pbDataBuff
);
break;
case OBJTYPE_DEBUG:
dprintf(
"%02x <Internal Debug>\n",
Object->dwDataType
);
break;
case OBJTYPE_OBJALIAS:
dprintf(
"%02x <Internal Object Alias> NS Object=%x\n",
Object->dwDataType,
Object->uipDataValue
);
dumpNSObject( Object->uipDataValue, Verbose, IndentLevel + 2 );
break;
case OBJTYPE_DATAALIAS: {
OBJDATA objData;
dprintf(
"%02x <Internal Data Alias> Data Object=%x\n",
Object->dwDataType,
Object->uipDataValue
);
b = ReadMemory(
(ULONG) Object->uipDataValue,
&objData,
sizeof(OBJDATA),
NULL
);
if (!b) {
dprintf(
"dumpObject: could not read %x\n",
Object->uipDataValue
);
return;
}
dumpObject(
(ULONG) Object->uipDataValue,
&objData,
Verbose,
IndentLevel + 2
);
break;
}
case OBJTYPE_BANKFIELD:
dprintf(
"%02x <Internal Bank Field>\n",
Object->dwDataType
);
break;
case OBJTYPE_FIELD:
dprintf(
"%02x <Internal Field>\n",
Object->dwDataType
);
break;
case OBJTYPE_INDEXFIELD:
dprintf(
"%02x <Index Field>\n",
Object->dwDataType
);
break;
case OBJTYPE_UNKNOWN:
default:
dprintf(
"%02x <Unknown>\n",
Object->dwDataType
);
break;
}
}
VOID
dumpPObject(
IN ULONG_PTR Address,
IN ULONG Verbose,
IN ULONG IndentLevel
)
/*++
Routine Description:
This is a wrapper for dumpObject
--*/
{
BOOL result;
OBJDATA objdata;
ULONG returnLength;
result = ReadMemory(
Address,
&objdata,
sizeof(OBJDATA),
&returnLength
);
if (result != TRUE || returnLength != sizeof(OBJDATA) ) {
UCHAR indent[80];
IndentLevel = (IndentLevel > 79 ? 79 : IndentLevel);
memset( indent, ' ', IndentLevel );
indent[IndentLevel] = '\0';
dprintf(
"%sdumpPObject: Could not OBJDATA %08lx\n",
indent,
Address
);
return;
}
dumpObject(
Address,
&objdata,
Verbose,
IndentLevel
);
return;
}
PUCHAR
TempToKelvins(
IN ULONG Temp
)
{
static UCHAR buffer[80];
sprintf( buffer, "%d.%d", (Temp / 10 ), (Temp % 10) );
return buffer;
}
PUCHAR
TimeToSeconds(
IN ULONG Time
)
{
static UCHAR buffer[80];
sprintf( buffer, "%d.%d", (Time / 10 ), (Time % 10) );
return buffer;
}
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