This patch is for AMD boards which can do the P state generation. This just

removes the ugly binary DSDT patching and all other related stuff. Stick to
infrastructure in previous patch.

Signed-off-by: Rudolf Marek <r.marek@assembler.cz>
Acked-by: Carl-Daniel Hailfinger <c-d.hailfinger.devel.2006@gmx.net>



git-svn-id: svn://svn.coreboot.org/coreboot/trunk@3955 2b7e53f0-3cfb-0310-b3e9-8179ed1497e1

3 files changed, 4 insertions, 605 deletions

diff --git a/src/mainboard/amd/dbm690t/acpi/cpstate.asl b/src/mainboard/amd/dbm690t/acpi/cpstate.asl
deleted file mode 100644
index f422b1eb25..0000000000
--- a/src/mainboard/amd/dbm690t/acpi/cpstate.asl
+++ /dev/null
@@ -1,90 +0,0 @@
-/*
- * This file is part of the coreboot project.
- *
- * Copyright (C) 2008 Advanced Micro Devices, Inc.
- *
- * 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; version 2 of the License.
- *
- * 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., 51 Franklin St, Fifth Floor, Boston, MA  02110-1301 USA
- */
-
-/* This file defines the processor and performance state capability
- * for each core in the system.  It is included into the DSDT for each
- * core.  It assumes that each core of the system has the same performance
- * characteristics.
-*/
-/*
-DefinitionBlock ("DSDT.AML","DSDT",0x01,"XXXXXX","XXXXXXXX",0x00010001)
-	{
-		Scope (\_PR) {
-		Processor(CPU0,0,0x808,0x06) {
-			Include ("cpstate.asl")
-		}
-		Processor(CPU1,1,0x0,0x0) {
-			Include ("cpstate.asl")
-		}
-		Processor(CPU2,2,0x0,0x0) {
-			Include ("cpstate.asl")
-		}
-		Processor(CPU3,3,0x0,0x0) {
-			Include ("cpstate.asl")
-		}
-	}
-*/
-/*
- * 1. Get the CPUID to know what the version of the CPU is. (or see what powernow
- *     reports)
- * 2. Find how many P-states the CPU supports, power and frequecy in each
- *     P-states in 'Power and Thermal Data Sheet.' (PTDS)
- * 3. Go to BIOS and Kernel Developer's Guide (BKDG) and find Low FID Frequency
- *     Table & High FID Frequency Table. Find Fid for each frequency.
- * 4. In PTDS, got the Voltage for each P-state. In table VID Code Voltages of BKDG,
- *     find the VID for each Voltage.
- *  Is that clear?
- */
-
-	/* P-state support: The maximum number of P-states supported by the */
-	/* CPUs we'll use is 6. */
-	Name(_PSS, Package(){
-		/* The processor core clock PLL lock time is 2 us for AMD NPT Family 0Fh Processors.*/
-		/* vst=100us*/
-		/* 3<<31|2<<28|1<<27|2<<20|0<<18|5<<11|0x13<<6|0xD, 0x13<<6|0xD */
-		/* 3<<31|2<<28|1<<27|2<<20|0<<18|5<<11|0x14<<6|0xC, 0x14<<6|0xC */
-		/* 3<<31|2<<28|1<<27|2<<20|0<<18|5<<11|0x15<<6|0xA, 0x15<<6|0xA */
-		/* 3<<31|2<<28|1<<27|2<<20|0<<18|5<<11|0x16<<6|0x8, 0x16<<6|0x8 */
-		/* 3<<31|2<<28|1<<27|2<<20|0<<18|5<<11|0x1E<<6|0x0, 0x1E<<6|0x0 */
-		/*
-		* Package() {2100, 35000, 100, 7, 0xE8202CCD, 0x04CD},
-		* Package() {2000, 30100, 100, 7, 0xE8202D0C, 0x050C},
-		* Package() {1800, 26400, 100, 7, 0xE8202D4A, 0x054A},
-		* Package() {1600, 23000, 100, 7, 0xE8202D88, 0x0588},
-		* Package() { 800,  9400, 100, 7, 0xE8202F80, 0x0780},
-		*/
-		/*Use this tricky method to reserve 8 Pstates space*/
-		Package() {0x1FFFFFFF, 0x2FFFFFFF, 0x3FFFFFFF, 0x4FFFFFFF, 0x5FFFFFFF, 0x6FFFFFFF},
-		Package() {0x7FFFFFFF, 0x8FFFFFFF, 0x9FFFFFFF, 0xAFFFFFFF, 0xBFFFFFFF, 0xCFFFFFFF},
-		Package() {0xDFFFFFFF, 0xEFFFFFFF, 0x1FFFFFFF, 0x2FFFFFFF, 0x3FFFFFFF, 0x4FFFFFFF},
-		Package() {0x5FFFFFFF, 0x6FFFFFFF, 0x7FFFFFFF, 0x8FFFFFFF, 0x9FFFFFFF, 0xAFFFFFFF},
-		Package() {0xBFFFFFFF, 0xCFFFFFFF, 0xDFFFFFFF, 0xEFFFFFFF, 0x1FFFFFFF, 0x2FFFFFFF},
-		Package() {0x3FFFFFFF, 0x4FFFFFFF, 0x5FFFFFFF, 0x6FFFFFFF, 0x7FFFFFFF, 0x8FFFFFFF},
-		Package() {0x9FFFFFFF, 0xAFFFFFFF, 0xBFFFFFFF, 0xCFFFFFFF, 0xDFFFFFFF, 0xEFFFFFFF},
-		Package() {0x1FFFFFFF, 0x2FFFFFFF, 0x3FFFFFFF, 0x4FFFFFFF, 0x5FFFFFFF, 0x6FFFFFFF},
-	})
-
-	Name(_PCT, Package(){
-		ResourceTemplate(){Register(FFixedHW, 0, 0, 0)},
-		ResourceTemplate(){Register(FFixedHW, 0, 0, 0)}
-	})
-
-	Method(_PPC, 0){
-		Return(0)
-	}
diff --git a/src/mainboard/amd/dbm690t/acpi/dsdt.asl b/src/mainboard/amd/dbm690t/acpi/dsdt.asl
index 075814892f..bc5d6ffa53 100644
--- a/src/mainboard/amd/dbm690t/acpi/dsdt.asl
+++ b/src/mainboard/amd/dbm690t/acpi/dsdt.asl
@@ -54,48 +54,6 @@ DefinitionBlock (
 	Name(UOM8, 6)
 	Name(UOM9, 6)
 
-	/*
-	 * Processor Object
-	 *
-	 */
-	Scope (\_PR) {		/* define processor scope */
-		Processor(
-			CPU0,		/* name space name */
-			0,		/* Unique number for this processor */
-			0x808,		/* PBLK system I/O address !hardcoded! */
-			0x06		/* PBLKLEN for boot processor */
-			) {
-			Include ("cpstate.asl")
-		}
-
-		Processor(
-			CPU1,		/* name space name */
-			1,		/* Unique number for this processor */
-			0x0000,		/* PBLK system I/O address !hardcoded! */
-			0x00		/* PBLKLEN for boot processor */
-			) {
-			Include ("cpstate.asl")
-		}
-
-		Processor(
-			CPU2,		/* name space name */
-			2,		/* Unique number for this processor */
-			0x0000,		/* PBLK system I/O address !hardcoded! */
-			0x00		/* PBLKLEN for boot processor */
-			) {
-			Include ("cpstate.asl")
-		}
-
-		Processor(
-			CPU3,		/* name space name */
-			3,		/* Unique number for this processor */
-			0x0000,		/* PBLK system I/O address !hardcoded! */
-			0x00		/* PBLKLEN for boot processor */
-			) {
-			Include ("cpstate.asl")
-		}
-	} /* End _PR scope */
-
 	/* Some global data */
 	Name(OSTP, 3)		/* Assume nothing. WinXp = 1, Vista = 2, Linux = 3, WinCE = 4 */
 	Name(OSV, Ones)	/* Assume nothing */
diff --git a/src/mainboard/amd/dbm690t/acpi_tables.c b/src/mainboard/amd/dbm690t/acpi_tables.c
index 57d8214e66..f3092fdb82 100644
--- a/src/mainboard/amd/dbm690t/acpi_tables.c
+++ b/src/mainboard/amd/dbm690t/acpi_tables.c
@@ -27,6 +27,9 @@
 #include <cpu/amd/amdk8_sysconf.h>
 #include <../../../northbridge/amd/amdk8/amdk8_acpi.h>
 #include <arch/cpu.h>
+#include <cpu/amd/model_fxx_powernow.h>
+
+extern u16 pm_base;
 
 #define DUMP_ACPI_TABLES 0
 
@@ -120,476 +123,9 @@ void update_ssdtx(void *ssdtx, int i)
 
 }
 
-/*
-* Details about this algorithm , refert to BDKG 10.5.1
-* Two parts are included, the another is the DSDT reconstruction process
-*/
-u32 pstates_algorithm(acpi_header_t * dsdt)
-{
-	u8 processor_brand[49];
-	u32 *v;
-	struct cpuid_result cpuid1;
-
-	struct power_limit_encoding {
-		u8 socket_type;
-		u8 cmp_cap;
-		u8 pwr_lmt;
-		u32 power_limit;
-	};
-	u8 Max_fid, Max_vid, Start_fid, Start_vid, Min_fid, Min_vid;
-	u16 Max_feq;
-	u8 Pstate_fid[10];
-	u16 Pstate_feq[10];
-	u8 Pstate_vid[10];
-	u32 Pstate_power[10];
-	u32 Pstate_volt[10];
-	u8 PstateStep, PstateStep_coef;
-	u8 IntPstateSup;
-	u8 Pstate_num;
-	u16 Cur_feq;
-	u8 Cur_fid;
-	u8 cmp_cap, pwr_lmt;
-	u32 power_limit = 0;
-	u8 index;
-	u32 i, j;
-	u32 processor_length, scope_length;
-	msr_t msr;
-	u8 *dsdt_pointer;
-	u8 *pointer1;
-	u8 *pointer2;
-	u8 byte_index;
-	u32 old_dsdt_length, new_dsdt_length;
-	u32 corefeq, power, transitionlatency, busmasterlatency, control,
-	    status;
-	u32 new_package_length;
-	u8 sum, checksum;
-	u32 fid_multiplier;
-	static struct power_limit_encoding TDP[20] = {
-		{0x11, 0x0, 0x8, 62},
-		{0x11, 0x1, 0x8, 89},
-		{0x11, 0x1, 0xa, 103},
-		{0x11, 0x1, 0xc, 125},
-		{0x11, 0x0, 0x2, 15},
-		{0x11, 0x0, 0x4, 35},
-		{0x11, 0x1, 0x2, 35},
-		{0x11, 0x0, 0x5, 45},
-		{0x11, 0x1, 0x7, 76},
-		{0x11, 0x1, 0x6, 65},
-		{0x11, 0x1, 0x8, 89},
-		{0x11, 0x0, 0x1, 8},
-		{0x11, 0x1, 0x1, 22},
-		{0x12, 0x0, 0x6, 25},
-		{0x12, 0x0, 0x1, 8},
-		{0x12, 0x0, 0x2, 9},
-		{0x12, 0x0, 0x4, 15},
-		{0x12, 0x0, 0xc, 35},
-		{0x12, 0x1, 0xc, 35},
-		{0x12, 0x1, 0x4, 20}
-	};
-
-	/* Get the Processor Brand String using cpuid(0x8000000x) command x=2,3,4 */
-	cpuid1 = cpuid(0x80000002);
-	v = (u32 *) processor_brand;
-	v[0] = cpuid1.eax;
-	v[1] = cpuid1.ebx;
-	v[2] = cpuid1.ecx;
-	v[3] = cpuid1.edx;
-	cpuid1 = cpuid(0x80000003);
-	v[4] = cpuid1.eax;
-	v[5] = cpuid1.ebx;
-	v[6] = cpuid1.ecx;
-	v[7] = cpuid1.edx;
-	cpuid1 = cpuid(0x80000004);
-	v[8] = cpuid1.eax;
-	v[9] = cpuid1.ebx;
-	v[10] = cpuid1.ecx;
-	v[11] = cpuid1.edx;
-	processor_brand[48] = 0;
-	printk_info("processor_brand=%s\n", processor_brand);
-
-	/*
-	 * Based on the CPU socket type,cmp_cap and pwr_lmt , get the power limit.
-	 * socket_type : 0x10 SocketF; 0x11 AM2/ASB1 ; 0x12 S1G1
-	 * cmp_cap : 0x0 SingleCore ; 0x1 DualCore
-	 */
-	printk_info("Pstates Algorithm ...\n");
-	cmp_cap =
-	    (pci_read_config16(dev_find_slot(0, PCI_DEVFN(0x18, 3)), 0xE8) &
-	     0x3000) >> 12;
-	cpuid1 = cpuid(0x80000001);
-	pwr_lmt = ((cpuid1.ebx & 0x1C0) >> 5) | ((cpuid1.ebx & 0x4000) >> 14);
-	for (index = 0; index <= sizeof(TDP) / sizeof(TDP[0]); index++)
-		if (TDP[index].socket_type == CPU_SOCKET_TYPE &&
-		    TDP[index].cmp_cap == cmp_cap &&
-		    TDP[index].pwr_lmt == pwr_lmt) {
-			power_limit = TDP[index].power_limit;
-		}
-
-	/* See if the CPUID(0x80000007) returned EDX[2:1]==11b */
-	cpuid1 = cpuid(0x80000007);
-	if ((cpuid1.edx & 0x6) != 0x6) {
-		printk_info("No valid set of P-states\n");
-		return 0;
-	}
-
-	msr = rdmsr(0xc0010042);
-	Max_fid = (msr.lo & 0x3F0000) >> 16;
-	Start_fid = (msr.lo & 0x3F00) >> 8;
-	Max_vid = (msr.hi & 0x3F0000) >> 16;
-	Start_vid = (msr.hi & 0x3F00) >> 8;
-	PstateStep = (msr.hi & 0x1000000) >> 24;
-	IntPstateSup = (msr.hi & 0x20000000) >> 29;
-
-	/*
-	 * The P1...P[Min+1] VID need PstateStep to calculate
-	 * P[N] = P[N-1]VID + 2^PstateStep
-	 * PstateStep_coef = 2^PstateStep
-	 */
-	if (PstateStep == 0)
-		PstateStep_coef = 1;
-	else
-		PstateStep_coef = 2;
-
-	if (IntPstateSup == 0) {
-		printk_info("No intermediate P-states are supported\n");
-		return 0;
-	}
-
-	/* Get the multipier of the fid frequency */
-	/*
-	 * Fid multiplier is always 100 revF and revG.
-	 */
-	fid_multiplier = 100;
-
-	/*
-	 * Formula1:    CPUFreq = FID * fid_multiplier + 800
-	 * Formula2:       CPUVolt = 1550 - VID * 25 (mv)
-	 * Formula3:       Power = (PwrLmt * P[N]Frequency*(P[N]Voltage^2))/(P[0]Frequency * P[0]Voltage^2))
-	 */
-
-	/* Construct P0(P[Max]) state */
-	Pstate_num = 0;
-	Max_feq = Max_fid * fid_multiplier + 800;
-	if (Max_fid == 0x2A && Max_vid != 0x0) {
-		Min_fid = 0x2;
-		Pstate_fid[0] = Start_fid + 0xA;	/* Start Frequency + 1GHz */
-		Pstate_feq[0] = Pstate_fid[0] * fid_multiplier + 800;
-		Min_vid = Start_vid;
-		Pstate_vid[0] = Max_vid + 0x2;	/* Maximum Voltage - 50mV */
-		Pstate_volt[0] = 1550 - Pstate_vid[0] * 25;
-		Pstate_power[0] = power_limit * 1000;	/* mw */
-		Pstate_num++;
-	} else {
-		Min_fid = Start_fid;
-		Pstate_fid[0] = Max_fid;
-		Pstate_feq[0] = Max_feq;
-		Min_vid = Start_vid;
-		Pstate_vid[0] = Max_vid + 0x2;
-		Pstate_volt[0] = 1550 - Pstate_vid[0] * 25;
-		Pstate_power[0] = power_limit * 1000;	/* mw */
-		Pstate_num++;
-	}
-
-	Cur_feq = Max_feq;
-	Cur_fid = Max_fid;
-	/* Construct P1 state */
-	if (((Max_fid & 0x1) != 0) && ((Max_fid - 0x1) >= (Min_fid + 0x8))) {	/* odd value */
-		Pstate_fid[1] = Max_fid - 0x1;
-		Pstate_feq[1] = Pstate_fid[1] * fid_multiplier + 800;
-		Cur_fid = Pstate_fid[1];
-		Cur_feq = Pstate_feq[1];
-		if (((Pstate_vid[0] & 0x1) != 0) && ((Pstate_vid[0] - 0x1) < Min_vid)) {	/* odd value */
-			Pstate_vid[1] = Pstate_vid[0] + 0x1;
-			Pstate_volt[1] = 1550 - Pstate_vid[1] * 25;
-			Pstate_power[1] =
-			    (unsigned long long)Pstate_power[0] *
-			    Pstate_feq[1] * Pstate_volt[1] * Pstate_volt[1] /
-			    (Pstate_feq[0] * Pstate_volt[0] * Pstate_volt[0]);
-		}
-		if (((Pstate_vid[0] & 0x1) == 0) && ((Pstate_vid[0] - 0x1) < Min_vid)) {	/* even value */
-			Pstate_vid[1] = Pstate_vid[0] + PstateStep_coef;
-			Pstate_volt[1] = 1550 - Pstate_vid[1] * 25;
-			Pstate_power[1] =
-			    (unsigned long long)Pstate_power[0] *
-			    Pstate_feq[1] * Pstate_volt[1] * Pstate_volt[1] /
-			    (Pstate_feq[0] * Pstate_volt[0] * Pstate_volt[0]);
-		}
-		Pstate_num++;
-	}
-
-	if (((Max_fid & 0x1) == 0) && ((Max_fid - 0x2) >= (Min_fid + 0x8))) {	/* even value */
-		Pstate_fid[1] = Max_fid - 0x2;
-		Pstate_feq[1] = Pstate_fid[1] * fid_multiplier + 800;
-		Cur_fid = Pstate_fid[1];
-		Cur_feq = Pstate_feq[1];
-		if (((Pstate_vid[0] & 0x1) != 0) && ((Pstate_vid[0] - 0x1) < Min_vid)) {	/* odd value */
-			Pstate_vid[1] = Pstate_vid[0] + 0x1;
-			Pstate_volt[1] = 1550 - Pstate_vid[1] * 25;
-			Pstate_power[1] =
-			    (unsigned long long)Pstate_power[0] *
-			    Pstate_feq[1] * Pstate_volt[1] * Pstate_volt[1] /
-			    (Pstate_feq[0] * Pstate_volt[0] * Pstate_volt[0]);
-		}
-		if (((Pstate_vid[0] & 0x1) == 0) && ((Pstate_vid[0] - 0x1) < Min_vid)) {	/* even value */
-			Pstate_vid[1] = Pstate_vid[0] + PstateStep_coef;
-			Pstate_volt[1] = 1550 - Pstate_vid[1] * 25;
-			Pstate_power[1] =
-			    (unsigned long long)Pstate_power[0] *
-			    Pstate_feq[1] * Pstate_volt[1] * Pstate_volt[1] /
-			    (Pstate_feq[0] * Pstate_volt[0] * Pstate_volt[0]);
-		}
-
-		Pstate_num++;
-	}
-
-	/* Construct P2...P[Min-1] state */
-	Cur_fid = Cur_fid - 0x2;
-	Cur_feq = Cur_fid * fid_multiplier + 800;
-	while (Cur_feq >= ((Min_fid * fid_multiplier) + 800) * 2) {
-		Pstate_fid[Pstate_num] = Cur_fid;
-		Pstate_feq[Pstate_num] =
-		    Pstate_fid[Pstate_num] * fid_multiplier + 800;
-		Cur_fid = Cur_fid - 0x2;
-		Cur_feq = Cur_fid * fid_multiplier + 800;
-		if (Pstate_vid[Pstate_num - 1] >= Min_vid) {
-			Pstate_vid[Pstate_num] = Pstate_vid[Pstate_num - 1];
-			Pstate_volt[Pstate_num] = Pstate_volt[Pstate_num - 1];
-			Pstate_power[Pstate_num] = Pstate_power[Pstate_num - 1];
-		} else {
-			Pstate_vid[Pstate_num] =
-			    Pstate_vid[Pstate_num - 1] + PstateStep_coef;
-			Pstate_volt[Pstate_num] =
-			    1550 - Pstate_vid[Pstate_num] * 25;
-			Pstate_power[Pstate_num] =
-			    (unsigned long long)Pstate_power[0] *
-			    Pstate_feq[Pstate_num] * Pstate_volt[Pstate_num] *
-			    Pstate_volt[Pstate_num] / (Pstate_feq[0] *
-						       Pstate_volt[0] *
-						       Pstate_volt[0]);
-		}
-		Pstate_num++;
-	}
-
-	/* Constuct P[Min] State */
-	if (Max_fid == 0x2A && Max_vid != 0x0) {
-		Pstate_fid[Pstate_num] = 0x2;
-		Pstate_feq[Pstate_num] =
-		    Pstate_fid[Pstate_num] * fid_multiplier + 800;
-		Pstate_vid[Pstate_num] = Min_vid;
-		Pstate_volt[Pstate_num] = 1550 - Pstate_vid[Pstate_num] * 25;
-		Pstate_power[Pstate_num] =
-		    (unsigned long long)Pstate_power[0] *
-		    Pstate_feq[Pstate_num] * Pstate_volt[Pstate_num] *
-		    Pstate_volt[Pstate_num] / (Pstate_feq[0] * Pstate_volt[0] *
-					       Pstate_volt[0]);
-		Pstate_num++;
-	} else {
-		Pstate_fid[Pstate_num] = Start_fid;
-		Pstate_feq[Pstate_num] =
-		    Pstate_fid[Pstate_num] * fid_multiplier + 800;
-		Pstate_vid[Pstate_num] = Min_vid;
-		Pstate_volt[Pstate_num] = 1550 - Pstate_vid[Pstate_num] * 25;
-		Pstate_power[Pstate_num] =
-		    (unsigned long long)Pstate_power[0] *
-		    Pstate_feq[Pstate_num] * Pstate_volt[Pstate_num] *
-		    Pstate_volt[Pstate_num] / (Pstate_feq[0] * Pstate_volt[0] *
-					       Pstate_volt[0]);
-		Pstate_num++;
-	}
-
-	/* Print Pstate freq,vid,volt,power */
-
-	for (index = 0; index < Pstate_num; index++) {
-		printk_info("Pstate_freq[%d] = %dMHz\t", index,
-			    Pstate_feq[index]);
-		printk_info("Pstate_vid[%d] = %d\t", index, Pstate_vid[index]);
-		printk_info("Pstate_volt[%d] = %dmv\t", index,
-			    Pstate_volt[index]);
-		printk_info("Pstate_power[%d] = %dmw\n", index,
-			    Pstate_power[index]);
-	}
-
-	/*
-	 * Modify the DSDT Table to put the actural _PSS package
-	 * corefeq-->Pstate_feq[index]
-	 * power-->Pstate_power[index]
-	 * transitionlatency-->0x64
-	 * busmasterlatency-->0x7,
-	 * control--> 0xE8202800| Pstate_vid[index]<<6 | Pstate_fid[index]
-	 * status --> Pstate_vid[index]<<6 | Pstate_fid[index]
-	 * Get the _PSS control method Sig.
-	 */
-
-	dsdt_pointer = (u8 *) dsdt;
-	old_dsdt_length = dsdt->length;
-	new_dsdt_length = old_dsdt_length;
-	printk_info("DSDT reconstruction...\n");
-	for (i = 0x20; i < new_dsdt_length; i++)
-		if ((*(dsdt_pointer + i) == '_')
-		    && (*(dsdt_pointer + i + 1) == 'P')
-		    && (*(dsdt_pointer + i + 2) == 'S')
-		    && (*(dsdt_pointer + i + 3) == 'S')) {
-
-			if ((*(dsdt_pointer + i + 4) !=
-			     0x12) | (*(dsdt_pointer + i + 5) !=
-				      0x4B) | (*(dsdt_pointer + i + 6) !=
-					       0x10)) {
-				printk_info
-				    ("Error:No _PSS package leader byte!\n");
-			} else {
-				new_package_length =
-				    0x10B - Defpkglength * (Maxpstate -
-							    Pstate_num);
-				/* two Pstates length will larger than 63, so we need not worry about the length */
-				if (new_package_length > 63) {
-					*(dsdt_pointer + i + 5) =
-					    0x40 | (new_package_length & 0xf);
-					*(dsdt_pointer + i + 6) =
-					    (new_package_length & 0xff0) >> 4;
-				}
-				*(dsdt_pointer + i + 7) = Pstate_num;
-			}
-
-			if ((*(dsdt_pointer + i + 8) !=
-			     0x12) | (*(dsdt_pointer + i + 9) !=
-				      0x20) | (*(dsdt_pointer + i + 10) != 0x6))
-				printk_info
-				    ("Error:No package leader for the first Pstate!\n");
-			for (index = 0; index < Pstate_num; index++) {
-				corefeq = Pstate_feq[index];
-				power = Pstate_power[index];
-				transitionlatency = 0x64;
-				busmasterlatency = 0x7;
-				control =
-				    (0x3 << 30) | /* IRT */
-				    (0x2 << 28) | /* RVO */
-				    (0x1 << 27) | /* ExtType */
-				    (0x2 << 20) | /* PLL_LOCK_TIME */
-				    (0x0 << 18) | /* MVS */
-				    (0x5 << 11) | /* VST */
-				    (Pstate_vid[index] << 6) |
-				    Pstate_fid[index];
-				status =
-				    (Pstate_vid[index] << 6) |
-				    Pstate_fid[index];
-				for (byte_index = 0; byte_index < 4;
-				     byte_index++) {
-					*(dsdt_pointer + i + 0xC +
-					  Defpkglength * index + byte_index) =
-		   corefeq >> (8 * byte_index);
-					*(dsdt_pointer + i + 0xC +
-					  Defpkglength * index + 0x5 +
-					  byte_index) =
-		   power >> (8 * byte_index);
-					*(dsdt_pointer + i + 0xC +
-					  Defpkglength * index + 0x5 * 2 +
-					  byte_index) =
-		   transitionlatency >> (8 * byte_index);
-					*(dsdt_pointer + i + 0xC +
-					  Defpkglength * index + 0x5 * 3 +
-					  byte_index) =
-		   busmasterlatency >> (8 * byte_index);
-					*(dsdt_pointer + i + 0xC +
-					  Defpkglength * index + 0x5 * 4 +
-					  byte_index) =
-		   control >> (8 * byte_index);
-					*(dsdt_pointer + i + 0xC +
-					  Defpkglength * index + 0x5 * 5 +
-					  byte_index) =
-		   status >> (8 * byte_index);
-				}
-			}
-			pointer1 =
-			    dsdt_pointer + i + 8 + Pstate_num * Defpkglength;
-			pointer2 =
-			    dsdt_pointer + i + 8 + Maxpstate * Defpkglength;
-			while (pointer2 < dsdt_pointer + new_dsdt_length) {
-				*pointer1 = *pointer2;
-				pointer1++;
-				pointer2++;
-			}
-			/* Recalcute the DSDT length */
-			new_dsdt_length =
-			    new_dsdt_length - Defpkglength * (Maxpstate -
-							      Pstate_num);
-
-			/* Search the first processor(CPUx) item and recalculate the processor length */
-			for (j = 0; (dsdt_pointer + i - j) > dsdt_pointer; j++) {
-				if ((*(dsdt_pointer + i - j) == 'C')
-				    && (*(dsdt_pointer + i - j + 1) == 'P')
-				    && (*(dsdt_pointer + i - j + 2) == 'U')) {
-					processor_length =
-					    ((*(dsdt_pointer + i - j - 1) << 4)
-					     | (*(dsdt_pointer + i - j - 2) &
-						0xf));
-					processor_length =
-					    processor_length -
-					    Defpkglength * (Maxpstate -
-							    Pstate_num);
-					*(dsdt_pointer + i - j - 2) =
-					    (processor_length & 0xf) | 0x40;
-					*(dsdt_pointer + i - j - 1) =
-					    (processor_length & 0xff0) >> 4;
-					break;
-				}
-			}
-
-			/* Search the first scope(_PR_) item and recalculate the scope length */
-			for (j = 0; (dsdt_pointer + i - j) > dsdt_pointer; j++) {
-				if ((*(dsdt_pointer + i - j) == '_')
-				    && (*(dsdt_pointer + i - j + 1) == 'P')
-				    && (*(dsdt_pointer + i - j + 2) == 'R')
-				    && (*(dsdt_pointer + i - j + 3) == '_')) {
-					scope_length =
-					    ((*(dsdt_pointer + i - j - 1) << 4)
-					     | (*(dsdt_pointer + i - j - 2) &
-						0xf));
-					scope_length =
-					    scope_length -
-					    Defpkglength * (Maxpstate -
-							    Pstate_num);
-					*(dsdt_pointer + i - j - 2) =
-					    (scope_length & 0xf) | 0x40;
-					*(dsdt_pointer + i - j - 1) =
-					    (scope_length & 0xff0) >> 4;
-					break;
-				}
-			}
-
-		}
-
-	/* Recalculate the DSDT length and fill back to the table */
-	*(dsdt_pointer + 0x4) = new_dsdt_length;
-	*(dsdt_pointer + 0x5) = new_dsdt_length >> 8;
-
-	/*
-	 * Recalculate the DSDT checksum and fill back to the table
-	 * We must make sure the sum of the whole table is 0
-	 */
-	sum = 0;
-	for (i = 0; i < new_dsdt_length; i++)
-		if (i != 9)
-			sum = sum + *(dsdt_pointer + i);
-	checksum = 0x100 - sum;
-	*(dsdt_pointer + 0x9) = checksum;
-
-	/*Check the DSDT Table */
-	/*
-	 * printk_info("The new DSDT table length is %x\n", new_dsdt_length);
-	 * printk_info("Details is as below:\n");
-	 * for(i=0; i< new_dsdt_length; i++){
-	 *      printk_info("%x\t",(unsigned char)*(dsdt_pointer+i));
-	 *      if( ((i+1)&0x7) == 0x0)
-	 *              printk_info("**0x%x**\n",i-7);
-	 *}
-	 */
-
-	return 1;
-
-}
-
 unsigned long acpi_fill_ssdt_generator(unsigned long current, char *oem_table_id) {
 	k8acpi_write_vars();
+	amd_model_fxx_generate_powernow(pm_base + 8, 6, 1);
 	return (unsigned long) (acpigen_get_current());
 }
 
@@ -717,11 +253,6 @@ unsigned long write_acpi_tables(unsigned long start)
 	dsdt = (acpi_header_t *) current;
 	memcpy((void *)dsdt, (void *)AmlCode,
 	       ((acpi_header_t *) AmlCode)->length);
-	if (!pstates_algorithm(dsdt))
-		printk_debug("pstates_algorithm error!\n");
-	else
-		printk_debug("pstates_algorithm success.\n");
-
 	current += dsdt->length;
 	printk_debug("ACPI:    * DSDT @ %08x Length %x\n", dsdt, dsdt->length);
 	/* FADT */