reactos/drivers/bus/acpi/ospm/osl.c
Art Yerkes c501d8112c Create a branch for network fixes.
svn path=/branches/aicom-network-fixes/; revision=34994
2008-08-01 11:32:26 +00:00

707 lines
13 KiB
C

/*******************************************************************************
* *
* ACPI Component Architecture Operating System Layer (OSL) for ReactOS *
* *
*******************************************************************************/
/*
* Copyright (C) 2000 Andrew Henroid
* Copyright (C) 2001 Andrew Grover
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*/
#include <acpi.h>
#define NDEBUG
#include <debug.h>
static PKINTERRUPT AcpiInterrupt;
static BOOLEAN AcpiInterruptHandlerRegistered = FALSE;
static OSD_HANDLER AcpiIrqHandler = NULL;
static PVOID AcpiIrqContext = NULL;
static ULONG AcpiIrqNumber = 0;
static KDPC AcpiDpc;
static PVOID IVTVirtualAddress = NULL;
VOID STDCALL
OslDpcStub(
IN PKDPC Dpc,
IN PVOID DeferredContext,
IN PVOID SystemArgument1,
IN PVOID SystemArgument2)
{
OSD_EXECUTION_CALLBACK Routine = (OSD_EXECUTION_CALLBACK)SystemArgument1;
DPRINT("OslDpcStub()\n");
DPRINT("Calling [%p]([%p])\n", Routine, SystemArgument2);
(*Routine)(SystemArgument2);
}
ACPI_STATUS
acpi_os_remove_interrupt_handler(
u32 irq,
OSD_HANDLER handler);
ACPI_STATUS
acpi_os_initialize(void)
{
DPRINT("acpi_os_initialize()\n");
KeInitializeDpc(&AcpiDpc, OslDpcStub, NULL);
return AE_OK;
}
ACPI_STATUS
acpi_os_terminate(void)
{
DPRINT("acpi_os_terminate()\n");
if (AcpiInterruptHandlerRegistered) {
acpi_os_remove_interrupt_handler(AcpiIrqNumber, AcpiIrqHandler);
}
return AE_OK;
}
s32
acpi_os_printf(const NATIVE_CHAR *fmt,...)
{
LONG Size;
va_list args;
va_start(args, fmt);
Size = acpi_os_vprintf(fmt, args);
va_end(args);
return Size;
}
s32
acpi_os_vprintf(const NATIVE_CHAR *fmt, va_list args)
{
static char Buffer[512];
LONG Size = vsprintf(Buffer, fmt, args);
DPRINT("%s", Buffer);
return Size;
}
void *
acpi_os_allocate(u32 size)
{
return ExAllocatePool(NonPagedPool, size);
}
void *
acpi_os_callocate(u32 size)
{
PVOID ptr = ExAllocatePool(NonPagedPool, size);
if (ptr)
memset(ptr, 0, size);
return ptr;
}
void
acpi_os_free(void *ptr)
{
if (ptr) {
/* FIXME: There is at least one bug somewhere that
results in an attempt to release a null pointer */
ExFreePool(ptr);
}
}
ACPI_STATUS
acpi_os_map_memory(ACPI_PHYSICAL_ADDRESS phys, u32 size, void **virt)
{
PHYSICAL_ADDRESS Address;
PVOID Virtual;
DPRINT("acpi_os_map_memory(phys 0x%X size 0x%X)\n", (ULONG)phys, size);
if (phys == 0x0) {
/* Real mode Interrupt Vector Table */
Virtual = ExAllocatePool(NonPagedPool, size);
IVTVirtualAddress = Virtual;
*virt = Virtual;
return AE_OK;
}
Address.QuadPart = (ULONG)phys;
*virt = MmMapIoSpace(Address, size, MmNonCached);
if (!*virt)
return AE_ERROR;
return AE_OK;
}
void
acpi_os_unmap_memory(void *virt, u32 size)
{
DPRINT("acpi_os_unmap_memory()\n");
if (virt == IVTVirtualAddress) {
/* Real mode Interrupt Vector Table */
ExFreePool(IVTVirtualAddress);
IVTVirtualAddress = NULL;
return;
}
MmUnmapIoSpace(virt, size);
}
ACPI_STATUS
acpi_os_get_physical_address(void *virt, ACPI_PHYSICAL_ADDRESS *phys)
{
PHYSICAL_ADDRESS Address;
DPRINT("acpi_os_get_physical_address()\n");
if (!phys || !virt)
return AE_BAD_PARAMETER;
Address = MmGetPhysicalAddress(virt);
*phys = (ULONG)Address.QuadPart;
return AE_OK;
}
BOOLEAN STDCALL
OslIsrStub(
PKINTERRUPT Interrupt,
PVOID ServiceContext)
{
INT32 Status;
Status = (*AcpiIrqHandler)(AcpiIrqContext);
if (Status == INTERRUPT_HANDLED)
return TRUE;
else
return FALSE;
}
ACPI_STATUS
acpi_os_install_interrupt_handler(u32 irq, OSD_HANDLER handler, void *context)
{
ULONG Vector;
KIRQL DIrql;
KAFFINITY Affinity;
NTSTATUS Status;
DPRINT("acpi_os_install_interrupt_handler()\n");
Vector = HalGetInterruptVector(
Internal,
0,
irq,
0,
&DIrql,
&Affinity);
AcpiIrqNumber = irq;
AcpiIrqHandler = handler;
AcpiIrqContext = context;
AcpiInterruptHandlerRegistered = TRUE;
Status = IoConnectInterrupt(
&AcpiInterrupt,
OslIsrStub,
NULL,
NULL,
Vector,
DIrql,
DIrql,
LevelSensitive, /* FIXME: LevelSensitive or Latched? */
TRUE,
Affinity,
FALSE);
if (!NT_SUCCESS(Status)) {
DPRINT("Could not connect to interrupt %d\n", Vector);
return AE_ERROR;
}
return AE_OK;
}
ACPI_STATUS
acpi_os_remove_interrupt_handler(u32 irq, OSD_HANDLER handler)
{
DPRINT("acpi_os_remove_interrupt_handler()\n");
if (AcpiInterruptHandlerRegistered) {
IoDisconnectInterrupt(AcpiInterrupt);
AcpiInterrupt = NULL;
AcpiInterruptHandlerRegistered = FALSE;
}
return AE_OK;
}
void
acpi_os_sleep(u32 sec, u32 ms)
{
/* FIXME: Wait */
}
void
acpi_os_sleep_usec(u32 us)
{
KeStallExecutionProcessor(us);
}
u8
acpi_os_in8(ACPI_IO_ADDRESS port)
{
return READ_PORT_UCHAR((PUCHAR)port);
}
u16
acpi_os_in16(ACPI_IO_ADDRESS port)
{
return READ_PORT_USHORT((PUSHORT)port);
}
u32
acpi_os_in32(ACPI_IO_ADDRESS port)
{
return READ_PORT_ULONG((PULONG)port);
}
void
acpi_os_out8(ACPI_IO_ADDRESS port, u8 val)
{
WRITE_PORT_UCHAR((PUCHAR)port, val);
}
void
acpi_os_out16(ACPI_IO_ADDRESS port, u16 val)
{
WRITE_PORT_USHORT((PUSHORT)port, val);
}
void
acpi_os_out32(ACPI_IO_ADDRESS port, u32 val)
{
WRITE_PORT_ULONG((PULONG)port, val);
}
u8
acpi_os_mem_in8 (ACPI_PHYSICAL_ADDRESS phys_addr)
{
return (*(PUCHAR)(ULONG)phys_addr);
}
u16
acpi_os_mem_in16 (ACPI_PHYSICAL_ADDRESS phys_addr)
{
return (*(PUSHORT)(ULONG)phys_addr);
}
u32
acpi_os_mem_in32 (ACPI_PHYSICAL_ADDRESS phys_addr)
{
return (*(PULONG)(ULONG)phys_addr);
}
void
acpi_os_mem_out8 (ACPI_PHYSICAL_ADDRESS phys_addr, u8 value)
{
*(PUCHAR)(ULONG)phys_addr = value;
}
void
acpi_os_mem_out16 (ACPI_PHYSICAL_ADDRESS phys_addr, u16 value)
{
*(PUSHORT)(ULONG)phys_addr = value;
}
void
acpi_os_mem_out32 (ACPI_PHYSICAL_ADDRESS phys_addr, u32 value)
{
*(PULONG)(ULONG)phys_addr = value;
}
ACPI_STATUS
acpi_os_read_pci_cfg_byte(
u32 bus,
u32 func,
u32 addr,
u8 * val)
{
NTSTATUS ret;
PCI_SLOT_NUMBER slot;
if (func == 0)
return AE_ERROR;
slot.u.AsULONG = 0;
slot.u.bits.DeviceNumber = (func >> 16) & 0xFFFF;
slot.u.bits.FunctionNumber = func & 0xFFFF;
DPRINT("acpi_os_read_pci_cfg_byte, slot=0x%X, func=0x%X\n", slot.u.AsULONG, func);
ret = HalGetBusDataByOffset(PCIConfiguration,
bus,
slot.u.AsULONG,
val,
addr,
sizeof(UCHAR));
if (NT_SUCCESS(ret))
return AE_OK;
else
return AE_ERROR;
}
ACPI_STATUS
acpi_os_read_pci_cfg_word(
u32 bus,
u32 func,
u32 addr,
u16 * val)
{
NTSTATUS ret;
PCI_SLOT_NUMBER slot;
if (func == 0)
return AE_ERROR;
slot.u.AsULONG = 0;
slot.u.bits.DeviceNumber = (func >> 16) & 0xFFFF;
slot.u.bits.FunctionNumber = func & 0xFFFF;
DPRINT("acpi_os_read_pci_cfg_word, slot=0x%x\n", slot.u.AsULONG);
ret = HalGetBusDataByOffset(PCIConfiguration,
bus,
slot.u.AsULONG,
val,
addr,
sizeof(USHORT));
if (NT_SUCCESS(ret))
return AE_OK;
else
return AE_ERROR;
}
ACPI_STATUS
acpi_os_read_pci_cfg_dword(
u32 bus,
u32 func,
u32 addr,
u32 * val)
{
NTSTATUS ret;
PCI_SLOT_NUMBER slot;
if (func == 0)
return AE_ERROR;
slot.u.AsULONG = 0;
slot.u.bits.DeviceNumber = (func >> 16) & 0xFFFF;
slot.u.bits.FunctionNumber = func & 0xFFFF;
DPRINT("acpi_os_read_pci_cfg_dword, slot=0x%x\n", slot.u.AsULONG);
ret = HalGetBusDataByOffset(PCIConfiguration,
bus,
slot.u.AsULONG,
val,
addr,
sizeof(ULONG));
if (NT_SUCCESS(ret))
return AE_OK;
else
return AE_ERROR;
}
ACPI_STATUS
acpi_os_write_pci_cfg_byte(
u32 bus,
u32 func,
u32 addr,
u8 val)
{
NTSTATUS ret;
UCHAR buf = val;
PCI_SLOT_NUMBER slot;
if (func == 0)
return AE_ERROR;
slot.u.AsULONG = 0;
slot.u.bits.DeviceNumber = (func >> 16) & 0xFFFF;
slot.u.bits.FunctionNumber = func & 0xFFFF;
DPRINT("acpi_os_write_pci_cfg_byte, slot=0x%x\n", slot.u.AsULONG);
ret = HalSetBusDataByOffset(PCIConfiguration,
bus,
slot.u.AsULONG,
&buf,
addr,
sizeof(UCHAR));
if (NT_SUCCESS(ret))
return AE_OK;
else
return AE_ERROR;
}
ACPI_STATUS
acpi_os_write_pci_cfg_word(
u32 bus,
u32 func,
u32 addr,
u16 val)
{
NTSTATUS ret;
USHORT buf = val;
PCI_SLOT_NUMBER slot;
if (func == 0)
return AE_ERROR;
slot.u.AsULONG = 0;
slot.u.bits.DeviceNumber = (func >> 16) & 0xFFFF;
slot.u.bits.FunctionNumber = func & 0xFFFF;
DPRINT("acpi_os_write_pci_cfg_byte, slot=0x%x\n", slot.u.AsULONG);
ret = HalSetBusDataByOffset(PCIConfiguration,
bus,
slot.u.AsULONG,
&buf,
addr,
sizeof(USHORT));
if (NT_SUCCESS(ret))
return AE_OK;
else
return AE_ERROR;
}
ACPI_STATUS
acpi_os_write_pci_cfg_dword(
u32 bus,
u32 func,
u32 addr,
u32 val)
{
NTSTATUS ret;
ULONG buf = val;
PCI_SLOT_NUMBER slot;
if (func == 0)
return AE_ERROR;
slot.u.AsULONG = 0;
slot.u.bits.DeviceNumber = (func >> 16) & 0xFFFF;
slot.u.bits.FunctionNumber = func & 0xFFFF;
DPRINT("acpi_os_write_pci_cfg_byte, slot=0x%x\n", slot.u.AsULONG);
ret = HalSetBusDataByOffset(PCIConfiguration,
bus,
slot.u.AsULONG,
&buf,
addr,
sizeof(ULONG));
if (NT_SUCCESS(ret))
return AE_OK;
else
return AE_ERROR;
}
ACPI_STATUS
acpi_os_load_module (
char *module_name)
{
DPRINT("acpi_os_load_module()\n");
if (!module_name)
return AE_BAD_PARAMETER;
return AE_OK;
}
ACPI_STATUS
acpi_os_unload_module (
char *module_name)
{
DPRINT("acpi_os_unload_module()\n");
if (!module_name)
return AE_BAD_PARAMETER;
return AE_OK;
}
ACPI_STATUS
acpi_os_queue_for_execution(
u32 priority,
OSD_EXECUTION_CALLBACK function,
void *context)
{
ACPI_STATUS Status = AE_OK;
DPRINT("acpi_os_queue_for_execution()\n");
if (!function)
return AE_BAD_PARAMETER;
DPRINT("Scheduling task [%p](%p) for execution.\n", function, context);
#if 0
switch (priority) {
case OSD_PRIORITY_MED:
KeSetImportanceDpc(&AcpiDpc, MediumImportance);
case OSD_PRIORITY_LO:
KeSetImportanceDpc(&AcpiDpc, LowImportance);
case OSD_PRIORITY_HIGH:
default:
KeSetImportanceDpc(&AcpiDpc, HighImportance);
}
#endif
KeInsertQueueDpc(&AcpiDpc, (PVOID)function, (PVOID)context);
return Status;
}
ACPI_STATUS
acpi_os_create_semaphore(
u32 max_units,
u32 initial_units,
ACPI_HANDLE *handle)
{
PFAST_MUTEX Mutex;
Mutex = ExAllocatePool(NonPagedPool, sizeof(FAST_MUTEX));
if (!Mutex)
return AE_NO_MEMORY;
DPRINT("acpi_os_create_semaphore() at 0x%X\n", Mutex);
ExInitializeFastMutex(Mutex);
*handle = Mutex;
return AE_OK;
}
ACPI_STATUS
acpi_os_delete_semaphore(
ACPI_HANDLE handle)
{
PFAST_MUTEX Mutex = (PFAST_MUTEX)handle;
DPRINT("acpi_os_delete_semaphore(handle 0x%X)\n", handle);
if (!Mutex)
return AE_BAD_PARAMETER;
ExFreePool(Mutex);
return AE_OK;
}
ACPI_STATUS
acpi_os_wait_semaphore(
ACPI_HANDLE handle,
u32 units,
u32 timeout)
{
PFAST_MUTEX Mutex = (PFAST_MUTEX)handle;
if (!Mutex || (units < 1)) {
DPRINT("acpi_os_wait_semaphore(handle 0x%X, units %d) Bad parameters\n",
handle, units);
return AE_BAD_PARAMETER;
}
DPRINT("Waiting for semaphore[%p|%d|%d]\n", handle, units, timeout);
//ExAcquireFastMutex(Mutex);
return AE_OK;
}
ACPI_STATUS
acpi_os_signal_semaphore(
ACPI_HANDLE handle,
u32 units)
{
PFAST_MUTEX Mutex = (PFAST_MUTEX)handle;
if (!Mutex || (units < 1)) {
DPRINT("acpi_os_signal_semaphore(handle 0x%X) Bad parameter\n", handle);
return AE_BAD_PARAMETER;
}
DPRINT("Signaling semaphore[%p|%d]\n", handle, units);
//ExReleaseFastMutex(Mutex);
return AE_OK;
}
ACPI_STATUS
acpi_os_breakpoint(NATIVE_CHAR *msg)
{
DPRINT1("BREAKPOINT: %s", msg);
return AE_OK;
}
void
acpi_os_dbg_trap(char *msg)
{
DPRINT1("TRAP: %s", msg);
}
void
acpi_os_dbg_assert(void *failure, void *file, u32 line, NATIVE_CHAR *msg)
{
DPRINT1("ASSERT: %s\n", msg);
}
u32
acpi_os_get_line(NATIVE_CHAR *buffer)
{
return 0;
}
u8
acpi_os_readable(void *ptr, u32 len)
{
/* Always readable */
return TRUE;
}
u8
acpi_os_writable(void *ptr, u32 len)
{
/* Always writable */
return TRUE;
}
u32
acpi_os_get_thread_id (void)
{
return (ULONG)PsGetCurrentThreadId() + 1;
}