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c424146e2c
svn path=/branches/cmake-bringup/; revision=48236
547 lines
16 KiB
C
547 lines
16 KiB
C
/******************************************************************************
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*
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* Module Name: tbconvrt - ACPI Table conversion utilities
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* $Revision: 1.1 $
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*
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*****************************************************************************/
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/*
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* Copyright (C) 2000, 2001 R. Byron Moore
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*
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* This program is free software; you can redistribute it and/or modify
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* it under the terms of the GNU General Public License as published by
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* the Free Software Foundation; either version 2 of the License, or
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* (at your option) any later version.
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*
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* This program is distributed in the hope that it will be useful,
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* but WITHOUT ANY WARRANTY; without even the implied warranty of
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* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
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* GNU General Public License for more details.
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*
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* You should have received a copy of the GNU General Public License
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* along with this program; if not, write to the Free Software
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* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
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*/
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#include <acpi.h>
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#define _COMPONENT ACPI_TABLES
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MODULE_NAME ("tbconvrt")
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/*
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* Build a GAS structure from earlier ACPI table entries (V1.0 and 0.71 extensions)
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*
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* 1) Address space
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* 2) Length in bytes -- convert to length in bits
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* 3) Bit offset is zero
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* 4) Reserved field is zero
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* 5) Expand address to 64 bits
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*/
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#define ASL_BUILD_GAS_FROM_ENTRY(a,b,c,d) {a.address_space_id = (u8) d;\
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a.register_bit_width = (u8) MUL_8 (b);\
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a.register_bit_offset = 0;\
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a.reserved = 0;\
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ACPI_STORE_ADDRESS (a.address,c);}
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/* ACPI V1.0 entries -- address space is always I/O */
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#define ASL_BUILD_GAS_FROM_V1_ENTRY(a,b,c) ASL_BUILD_GAS_FROM_ENTRY(a,b,c,ADDRESS_SPACE_SYSTEM_IO)
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/*******************************************************************************
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*
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* FUNCTION: Acpi_tb_convert_to_xsdt
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*
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* PARAMETERS:
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*
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* RETURN:
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*
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* DESCRIPTION:
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*
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******************************************************************************/
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ACPI_STATUS
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acpi_tb_convert_to_xsdt (
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ACPI_TABLE_DESC *table_info,
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u32 *number_of_tables) {
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u32 table_size;
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u32 pointer_size;
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u32 i;
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XSDT_DESCRIPTOR *new_table;
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#ifndef _IA64
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if (acpi_gbl_RSDP->revision < 2) {
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pointer_size = sizeof (u32);
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}
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else
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#endif
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{
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pointer_size = sizeof (UINT64);
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}
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/*
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* Determine the number of tables pointed to by the RSDT/XSDT.
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* This is defined by the ACPI Specification to be the number of
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* pointers contained within the RSDT/XSDT. The size of the pointers
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* is architecture-dependent.
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*/
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table_size = table_info->pointer->length;
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*number_of_tables = (table_size -
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sizeof (ACPI_TABLE_HEADER)) / pointer_size;
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/* Compute size of the converted XSDT */
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table_size = (*number_of_tables * sizeof (UINT64)) + sizeof (ACPI_TABLE_HEADER);
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/* Allocate an XSDT */
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new_table = acpi_cm_callocate (table_size);
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if (!new_table) {
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return (AE_NO_MEMORY);
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}
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/* Copy the header and set the length */
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MEMCPY (new_table, table_info->pointer, sizeof (ACPI_TABLE_HEADER));
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new_table->header.length = table_size;
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/* Copy the table pointers */
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for (i = 0; i < *number_of_tables; i++) {
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if (acpi_gbl_RSDP->revision < 2) {
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#ifdef _IA64
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new_table->table_offset_entry[i] =
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((RSDT_DESCRIPTOR_REV071 *) table_info->pointer)->table_offset_entry[i];
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#else
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ACPI_STORE_ADDRESS (new_table->table_offset_entry[i],
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((RSDT_DESCRIPTOR_REV1 *) table_info->pointer)->table_offset_entry[i]);
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#endif
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}
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else {
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new_table->table_offset_entry[i] =
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((XSDT_DESCRIPTOR *) table_info->pointer)->table_offset_entry[i];
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}
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}
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/* Delete the original table (either mapped or in a buffer) */
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acpi_tb_delete_single_table (table_info);
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/* Point the table descriptor to the new table */
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table_info->pointer = (ACPI_TABLE_HEADER *) new_table;
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table_info->base_pointer = (ACPI_TABLE_HEADER *) new_table;
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table_info->length = table_size;
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table_info->allocation = ACPI_MEM_ALLOCATED;
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return (AE_OK);
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}
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/*******************************************************************************
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*
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* FUNCTION: Acpi_tb_convert_table_fadt
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*
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* PARAMETERS:
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*
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* RETURN:
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*
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* DESCRIPTION:
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* Converts BIOS supplied 1.0 and 0.71 ACPI FADT to an intermediate
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* ACPI 2.0 FADT. If the BIOS supplied a 2.0 FADT then it is simply
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* copied to the intermediate FADT. The ACPI CA software uses this
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* intermediate FADT. Thus a significant amount of special #ifdef
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* type codeing is saved. This intermediate FADT will need to be
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* freed at some point.
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*
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******************************************************************************/
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ACPI_STATUS
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acpi_tb_convert_table_fadt (void)
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{
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#ifdef _IA64
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FADT_DESCRIPTOR_REV071 *FADT71;
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u8 pm1_address_space;
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u8 pm2_address_space;
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u8 pm_timer_address_space;
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u8 gpe0address_space;
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u8 gpe1_address_space;
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#else
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FADT_DESCRIPTOR_REV1 *FADT1;
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#endif
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FADT_DESCRIPTOR_REV2 *FADT2;
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ACPI_TABLE_DESC *table_desc;
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/* Acpi_gbl_FADT is valid */
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/* Allocate and zero the 2.0 buffer */
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FADT2 = acpi_cm_callocate (sizeof (FADT_DESCRIPTOR_REV2));
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if (FADT2 == NULL) {
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return (AE_NO_MEMORY);
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}
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/* The ACPI FADT revision number is FADT2_REVISION_ID=3 */
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/* So, if the current table revision is less than 3 it is type 1.0 or 0.71 */
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if (acpi_gbl_FADT->header.revision >= FADT2_REVISION_ID) {
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/* We have an ACPI 2.0 FADT but we must copy it to our local buffer */
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*FADT2 = *((FADT_DESCRIPTOR_REV2*) acpi_gbl_FADT);
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}
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else {
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#ifdef _IA64
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/*
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* For the 64-bit case only, a revision ID less than V2.0 means the
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* tables are the 0.71 extensions
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*/
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/* The BIOS stored FADT should agree with Revision 0.71 */
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FADT71 = (FADT_DESCRIPTOR_REV071 *) acpi_gbl_FADT;
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/* Copy the table header*/
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FADT2->header = FADT71->header;
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/* Copy the common fields */
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FADT2->sci_int = FADT71->sci_int;
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FADT2->acpi_enable = FADT71->acpi_enable;
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FADT2->acpi_disable = FADT71->acpi_disable;
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FADT2->S4_bios_req = FADT71->S4_bios_req;
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FADT2->plvl2_lat = FADT71->plvl2_lat;
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FADT2->plvl3_lat = FADT71->plvl3_lat;
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FADT2->day_alrm = FADT71->day_alrm;
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FADT2->mon_alrm = FADT71->mon_alrm;
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FADT2->century = FADT71->century;
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FADT2->gpe1_base = FADT71->gpe1_base;
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/*
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* We still use the block length registers even though
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* the GAS structure should obsolete them. This is because
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* these registers are byte lengths versus the GAS which
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* contains a bit width
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*/
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FADT2->pm1_evt_len = FADT71->pm1_evt_len;
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FADT2->pm1_cnt_len = FADT71->pm1_cnt_len;
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FADT2->pm2_cnt_len = FADT71->pm2_cnt_len;
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FADT2->pm_tm_len = FADT71->pm_tm_len;
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FADT2->gpe0blk_len = FADT71->gpe0blk_len;
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FADT2->gpe1_blk_len = FADT71->gpe1_blk_len;
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FADT2->gpe1_base = FADT71->gpe1_base;
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/* Copy the existing 0.71 flags to 2.0. The other bits are zero.*/
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FADT2->wb_invd = FADT71->flush_cash;
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FADT2->proc_c1 = FADT71->proc_c1;
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FADT2->plvl2_up = FADT71->plvl2_up;
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FADT2->pwr_button = FADT71->pwr_button;
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FADT2->sleep_button = FADT71->sleep_button;
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FADT2->fixed_rTC = FADT71->fixed_rTC;
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FADT2->rtcs4 = FADT71->rtcs4;
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FADT2->tmr_val_ext = FADT71->tmr_val_ext;
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FADT2->dock_cap = FADT71->dock_cap;
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/* We should not use these next two addresses */
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/* Since our buffer is pre-zeroed nothing to do for */
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/* the next three data items in the structure */
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/* FADT2->Firmware_ctrl = 0; */
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/* FADT2->Dsdt = 0; */
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/* System Interrupt Model isn't used in ACPI 2.0*/
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/* FADT2->Reserved1 = 0; */
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/* This field is set by the OEM to convey the preferred */
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/* power management profile to OSPM. It doesn't have any*/
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/* 0.71 equivalence. Since we don't know what kind of */
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/* 64-bit system this is, we will pick unspecified. */
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FADT2->prefer_PM_profile = PM_UNSPECIFIED;
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/* Port address of SMI command port */
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/* We shouldn't use this port because IA64 doesn't */
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/* have or use SMI. It has PMI. */
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FADT2->smi_cmd = (u32)(FADT71->smi_cmd & 0xFFFFFFFF);
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/* processor performance state control*/
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/* The value OSPM writes to the SMI_CMD register to assume */
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/* processor performance state control responsibility. */
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/* There isn't any equivalence in 0.71 */
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/* Again this should be meaningless for IA64 */
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/* FADT2->Pstate_cnt = 0; */
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/* The 32-bit Power management and GPE registers are */
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/* not valid in IA-64 and we are not going to use them */
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/* so leaving them pre-zeroed. */
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/* Support for the _CST object and C States change notification.*/
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/* This data item hasn't any 0.71 equivalence so leaving it zero.*/
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/* FADT2->Cst_cnt = 0; */
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/* number of flush strides that need to be read */
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/* No 0.71 equivalence. Leave pre-zeroed. */
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/* FADT2->Flush_size = 0; */
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/* Processor's memory cache line width, in bytes */
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/* No 0.71 equivalence. Leave pre-zeroed. */
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/* FADT2->Flush_stride = 0; */
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/* Processor's duty cycle index in processor's P_CNT reg*/
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/* No 0.71 equivalence. Leave pre-zeroed. */
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/* FADT2->Duty_offset = 0; */
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/* Processor's duty cycle value bit width in P_CNT register.*/
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/* No 0.71 equivalence. Leave pre-zeroed. */
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/* FADT2->Duty_width = 0; */
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/* Since there isn't any equivalence in 0.71 */
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/* and since Big_sur had to support legacy */
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FADT2->iapc_boot_arch = BAF_LEGACY_DEVICES;
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/* Copy to ACPI 2.0 64-BIT Extended Addresses */
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FADT2->Xfirmware_ctrl = FADT71->firmware_ctrl;
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FADT2->Xdsdt = FADT71->dsdt;
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/* Extract the address space IDs */
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pm1_address_space = (u8)((FADT71->address_space & PM1_BLK_ADDRESS_SPACE) >> 1);
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pm2_address_space = (u8)((FADT71->address_space & PM2_CNT_BLK_ADDRESS_SPACE) >> 2);
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pm_timer_address_space = (u8)((FADT71->address_space & PM_TMR_BLK_ADDRESS_SPACE) >> 3);
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gpe0address_space = (u8)((FADT71->address_space & GPE0_BLK_ADDRESS_SPACE) >> 4);
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gpe1_address_space = (u8)((FADT71->address_space & GPE1_BLK_ADDRESS_SPACE) >> 5);
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/*
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* Convert the 0.71 (non-GAS style) Block addresses to V2.0 GAS structures,
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* in this order:
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*
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* PM 1_a Events
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* PM 1_b Events
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* PM 1_a Control
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* PM 1_b Control
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* PM 2 Control
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* PM Timer Control
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* GPE Block 0
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* GPE Block 1
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*/
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xpm1a_evt_blk, FADT71->pm1_evt_len, FADT71->pm1a_evt_blk, pm1_address_space);
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xpm1b_evt_blk, FADT71->pm1_evt_len, FADT71->pm1b_evt_blk, pm1_address_space);
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xpm1a_cnt_blk, FADT71->pm1_cnt_len, FADT71->pm1a_cnt_blk, pm1_address_space);
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xpm1b_cnt_blk, FADT71->pm1_cnt_len, FADT71->pm1b_cnt_blk, pm1_address_space);
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xpm2_cnt_blk, FADT71->pm2_cnt_len, FADT71->pm2_cnt_blk, pm2_address_space);
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xpm_tmr_blk, FADT71->pm_tm_len, FADT71->pm_tmr_blk, pm_timer_address_space);
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xgpe0blk, FADT71->gpe0blk_len, FADT71->gpe0blk, gpe0address_space);
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ASL_BUILD_GAS_FROM_ENTRY (FADT2->Xgpe1_blk, FADT71->gpe1_blk_len, FADT71->gpe1_blk, gpe1_address_space);
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#else
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/* ACPI 1.0 FACS */
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/* The BIOS stored FADT should agree with Revision 1.0 */
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FADT1 = (FADT_DESCRIPTOR_REV1*) acpi_gbl_FADT;
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/*
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* Copy the table header and the common part of the tables
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* The 2.0 table is an extension of the 1.0 table, so the
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* entire 1.0 table can be copied first, then expand some
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* fields to 64 bits.
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*/
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MEMCPY (FADT2, FADT1, sizeof (FADT_DESCRIPTOR_REV1));
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/* Convert table pointers to 64-bit fields */
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ACPI_STORE_ADDRESS (FADT2->Xfirmware_ctrl, FADT1->firmware_ctrl);
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ACPI_STORE_ADDRESS (FADT2->Xdsdt, FADT1->dsdt);
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/* System Interrupt Model isn't used in ACPI 2.0*/
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/* FADT2->Reserved1 = 0; */
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/* This field is set by the OEM to convey the preferred */
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/* power management profile to OSPM. It doesn't have any*/
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/* 1.0 equivalence. Since we don't know what kind of */
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/* 32-bit system this is, we will pick unspecified. */
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FADT2->prefer_PM_profile = PM_UNSPECIFIED;
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/* Processor Performance State Control. This is the value */
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/* OSPM writes to the SMI_CMD register to assume processor */
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/* performance state control responsibility. There isn't */
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/* any equivalence in 1.0. So leave it zeroed. */
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FADT2->pstate_cnt = 0;
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/* Support for the _CST object and C States change notification.*/
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/* This data item hasn't any 1.0 equivalence so leaving it zero.*/
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FADT2->cst_cnt = 0;
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/* Since there isn't any equivalence in 1.0 and since it */
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/* is highly likely that a 1.0 system has legacy support. */
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FADT2->iapc_boot_arch = BAF_LEGACY_DEVICES;
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/*
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* Convert the V1.0 Block addresses to V2.0 GAS structures
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* in this order:
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*
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* PM 1_a Events
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* PM 1_b Events
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* PM 1_a Control
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* PM 1_b Control
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* PM 2 Control
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* PM Timer Control
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* GPE Block 0
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* GPE Block 1
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*/
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xpm1a_evt_blk, FADT1->pm1_evt_len, FADT1->pm1a_evt_blk);
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xpm1b_evt_blk, FADT1->pm1_evt_len, FADT1->pm1b_evt_blk);
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xpm1a_cnt_blk, FADT1->pm1_cnt_len, FADT1->pm1a_cnt_blk);
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xpm1b_cnt_blk, FADT1->pm1_cnt_len, FADT1->pm1b_cnt_blk);
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xpm2_cnt_blk, FADT1->pm2_cnt_len, FADT1->pm2_cnt_blk);
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xpm_tmr_blk, FADT1->pm_tm_len, FADT1->pm_tmr_blk);
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xgpe0blk, FADT1->gpe0blk_len, FADT1->gpe0blk);
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ASL_BUILD_GAS_FROM_V1_ENTRY (FADT2->Xgpe1_blk, FADT1->gpe1_blk_len, FADT1->gpe1_blk);
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#endif
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}
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/*
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* Global FADT pointer will point to the common V2.0 FADT
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*/
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acpi_gbl_FADT = FADT2;
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acpi_gbl_FADT->header.length = sizeof (FADT_DESCRIPTOR);
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/* Free the original table */
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table_desc = &acpi_gbl_acpi_tables[ACPI_TABLE_FADT];
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acpi_tb_delete_single_table (table_desc);
|
|
|
|
|
|
/* Install the new table */
|
|
|
|
table_desc->pointer = (ACPI_TABLE_HEADER *) acpi_gbl_FADT;
|
|
table_desc->base_pointer = acpi_gbl_FADT;
|
|
table_desc->allocation = ACPI_MEM_ALLOCATED;
|
|
table_desc->length = sizeof (FADT_DESCRIPTOR_REV2);
|
|
|
|
|
|
/* Dump the entire FADT */
|
|
|
|
|
|
return (AE_OK);
|
|
}
|
|
|
|
|
|
/*******************************************************************************
|
|
*
|
|
* FUNCTION: Acpi_tb_convert_table_facs
|
|
*
|
|
* PARAMETERS:
|
|
*
|
|
* RETURN:
|
|
*
|
|
* DESCRIPTION:
|
|
*
|
|
******************************************************************************/
|
|
|
|
ACPI_STATUS
|
|
acpi_tb_build_common_facs (
|
|
ACPI_TABLE_DESC *table_info)
|
|
{
|
|
ACPI_COMMON_FACS *common_facs;
|
|
|
|
#ifdef _IA64
|
|
FACS_DESCRIPTOR_REV071 *FACS71;
|
|
#else
|
|
FACS_DESCRIPTOR_REV1 *FACS1;
|
|
#endif
|
|
|
|
FACS_DESCRIPTOR_REV2 *FACS2;
|
|
|
|
|
|
/* Allocate a common FACS */
|
|
|
|
common_facs = acpi_cm_callocate (sizeof (ACPI_COMMON_FACS));
|
|
if (!common_facs) {
|
|
return (AE_NO_MEMORY);
|
|
}
|
|
|
|
|
|
/* Copy fields to the new FACS */
|
|
|
|
if (acpi_gbl_RSDP->revision < 2) {
|
|
#ifdef _IA64
|
|
/* 0.71 FACS */
|
|
|
|
FACS71 = (FACS_DESCRIPTOR_REV071 *) acpi_gbl_FACS;
|
|
|
|
common_facs->global_lock = (u32 *) &(FACS71->global_lock);
|
|
common_facs->firmware_waking_vector = &FACS71->firmware_waking_vector;
|
|
common_facs->vector_width = 64;
|
|
#else
|
|
/* ACPI 1.0 FACS */
|
|
|
|
FACS1 = (FACS_DESCRIPTOR_REV1 *) acpi_gbl_FACS;
|
|
|
|
common_facs->global_lock = &(FACS1->global_lock);
|
|
common_facs->firmware_waking_vector = (UINT64 *) &FACS1->firmware_waking_vector;
|
|
common_facs->vector_width = 32;
|
|
|
|
#endif
|
|
}
|
|
|
|
else {
|
|
/* ACPI 2.0 FACS */
|
|
|
|
FACS2 = (FACS_DESCRIPTOR_REV2 *) acpi_gbl_FACS;
|
|
|
|
common_facs->global_lock = &(FACS2->global_lock);
|
|
common_facs->firmware_waking_vector = &FACS2->Xfirmware_waking_vector;
|
|
common_facs->vector_width = 64;
|
|
}
|
|
|
|
|
|
/* Set the global FACS pointer to point to the common FACS */
|
|
|
|
|
|
acpi_gbl_FACS = common_facs;
|
|
|
|
return (AE_OK);
|
|
}
|
|
|
|
|