/*
* CDDL HEADER START
*
* The contents of this file are subject to the terms of the
* Common Development and Distribution License (the "License").
* You may not use this file except in compliance with the License.
*
* You can obtain a copy of the license at usr/src/OPENSOLARIS.LICENSE
* or http://www.opensolaris.org/os/licensing.
* See the License for the specific language governing permissions
* and limitations under the License.
*
* When distributing Covered Code, include this CDDL HEADER in each
* file and include the License file at usr/src/OPENSOLARIS.LICENSE.
* If applicable, add the following below this CDDL HEADER, with the
* fields enclosed by brackets "[]" replaced with your own identifying
* information: Portions Copyright [yyyy] [name of copyright owner]
*
* CDDL HEADER END
*/
/*
* Copyright 2009 Sun Microsystems, Inc. All rights reserved.
* Use is subject to license terms.
*
* Copyright 2012 Nexenta Systems, Inc. All rights reserved.
*/
/*
* Portions Copyright 2009 Advanced Micro Devices, Inc.
*/
/*
* Copyright 2012 Jens Elkner <jel+illumos@cs.uni-magdeburg.de>
* Copyright 2012 Hans Rosenfeld <rosenfeld@grumpf.hope-2000.org>
*/
/*
* Support functions that interpret CPUID and similar information.
* These should not be used from anywhere other than cpuid.c and
* cmi_hw.c - as such we will not list them in any header file
* such as x86_archext.h.
*
* In cpuid.c we process CPUID information for each cpu_t instance
* we're presented with, and stash this raw information and material
* derived from it in per-cpu_t structures.
*
* If we are virtualized then the CPUID information derived from CPUID
* instructions executed in the guest is based on whatever the hypervisor
* wanted to make things look like, and the cpu_t are not necessarily in 1:1
* or fixed correspondence with real processor execution resources. In cmi_hw.c
* we are interested in the native properties of a processor - for fault
* management (and potentially other, such as power management) purposes;
* it will tunnel through to real hardware information, and use the
* functionality provided in this file to process it.
*/
#include <sys/types.h>
#include <sys/systm.h>
#include <sys/bitmap.h>
#include <sys/x86_archext.h>
#include <sys/pci_cfgspace.h>
#ifdef __xpv
#include <sys/hypervisor.h>
#endif
/*
* AMD socket types.
* First index :
* 0 for family 0xf, revs B thru E
* 1 for family 0xf, revs F and G
* 2 for family 0x10
* 3 for family 0x11
* 4 for family 0x12
* 5 for family 0x14
* 6 for family 0x15, models 00 - 0f
* 7 for family 0x15, models 10 - 1f
* Second index by (model & 0x3) for family 0fh,
* CPUID pkg bits (Fn8000_0001_EBX[31:28]) for later families.
*/
static uint32_t amd_skts[8][8] = {
/*
* Family 0xf revisions B through E
*/
#define A_SKTS_0 0
{
X86_SOCKET_754, /* 0b000 */
X86_SOCKET_940, /* 0b001 */
X86_SOCKET_754, /* 0b010 */
X86_SOCKET_939, /* 0b011 */
X86_SOCKET_UNKNOWN, /* 0b100 */
X86_SOCKET_UNKNOWN, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
/*
* Family 0xf revisions F and G
*/
#define A_SKTS_1 1
{
X86_SOCKET_S1g1, /* 0b000 */
X86_SOCKET_F1207, /* 0b001 */
X86_SOCKET_UNKNOWN, /* 0b010 */
X86_SOCKET_AM2, /* 0b011 */
X86_SOCKET_UNKNOWN, /* 0b100 */
X86_SOCKET_UNKNOWN, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
/*
* Family 0x10
*/
#define A_SKTS_2 2
{
X86_SOCKET_F1207, /* 0b000 */
X86_SOCKET_AM2R2, /* 0b001 */
X86_SOCKET_S1g3, /* 0b010 */
X86_SOCKET_G34, /* 0b011 */
X86_SOCKET_ASB2, /* 0b100 */
X86_SOCKET_C32, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
/*
* Family 0x11
*/
#define A_SKTS_3 3
{
X86_SOCKET_UNKNOWN, /* 0b000 */
X86_SOCKET_UNKNOWN, /* 0b001 */
X86_SOCKET_S1g2, /* 0b010 */
X86_SOCKET_UNKNOWN, /* 0b011 */
X86_SOCKET_UNKNOWN, /* 0b100 */
X86_SOCKET_UNKNOWN, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
/*
* Family 0x12
*/
#define A_SKTS_4 4
{
X86_SOCKET_UNKNOWN, /* 0b000 */
X86_SOCKET_FS1, /* 0b001 */
X86_SOCKET_FM1, /* 0b010 */
X86_SOCKET_UNKNOWN, /* 0b011 */
X86_SOCKET_UNKNOWN, /* 0b100 */
X86_SOCKET_UNKNOWN, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
/*
* Family 0x14
*/
#define A_SKTS_5 5
{
X86_SOCKET_FT1, /* 0b000 */
X86_SOCKET_UNKNOWN, /* 0b001 */
X86_SOCKET_UNKNOWN, /* 0b010 */
X86_SOCKET_UNKNOWN, /* 0b011 */
X86_SOCKET_UNKNOWN, /* 0b100 */
X86_SOCKET_UNKNOWN, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
/*
* Family 0x15 models 00 - 0f
*/
#define A_SKTS_6 6
{
X86_SOCKET_UNKNOWN, /* 0b000 */
X86_SOCKET_AM3R2, /* 0b001 */
X86_SOCKET_UNKNOWN, /* 0b010 */
X86_SOCKET_G34, /* 0b011 */
X86_SOCKET_UNKNOWN, /* 0b100 */
X86_SOCKET_C32, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
/*
* Family 0x15 models 10 - 1f
*/
#define A_SKTS_7 7
{
X86_SOCKET_FP2, /* 0b000 */
X86_SOCKET_FS1R2, /* 0b001 */
X86_SOCKET_FM2, /* 0b010 */
X86_SOCKET_UNKNOWN, /* 0b011 */
X86_SOCKET_UNKNOWN, /* 0b100 */
X86_SOCKET_UNKNOWN, /* 0b101 */
X86_SOCKET_UNKNOWN, /* 0b110 */
X86_SOCKET_UNKNOWN /* 0b111 */
},
};
struct amd_sktmap_s {
uint32_t skt_code;
char sktstr[16];
};
static struct amd_sktmap_s amd_sktmap[23] = {
{ X86_SOCKET_754, "754" },
{ X86_SOCKET_939, "939" },
{ X86_SOCKET_940, "940" },
{ X86_SOCKET_S1g1, "S1g1" },
{ X86_SOCKET_AM2, "AM2" },
{ X86_SOCKET_F1207, "F(1207)" },
{ X86_SOCKET_S1g2, "S1g2" },
{ X86_SOCKET_S1g3, "S1g3" },
{ X86_SOCKET_AM, "AM" },
{ X86_SOCKET_AM2R2, "AM2r2" },
{ X86_SOCKET_AM3, "AM3" },
{ X86_SOCKET_G34, "G34" },
{ X86_SOCKET_ASB2, "ASB2" },
{ X86_SOCKET_C32, "C32" },
{ X86_SOCKET_FT1, "FT1" },
{ X86_SOCKET_FM1, "FM1" },
{ X86_SOCKET_FS1, "FS1" },
{ X86_SOCKET_AM3R2, "AM3r2" },
{ X86_SOCKET_FP2, "FP2" },
{ X86_SOCKET_FS1R2, "FS1r2" },
{ X86_SOCKET_FM2, "FM2" },
{ X86_SOCKET_UNKNOWN, "Unknown" }
};
/*
* Table for mapping AMD Family 0xf and AMD Family 0x10 model/stepping
* combination to chip "revision" and socket type.
*
* The first member of this array that matches a given family, extended model
* plus model range, and stepping range will be considered a match.
*/
static const struct amd_rev_mapent {
uint_t rm_family;
uint_t rm_modello;
uint_t rm_modelhi;
uint_t rm_steplo;
uint_t rm_stephi;
uint32_t rm_chiprev;
const char *rm_chiprevstr;
int rm_sktidx;
} amd_revmap[] = {
/*
* =============== AuthenticAMD Family 0xf ===============
*/
/*
* Rev B includes model 0x4 stepping 0 and model 0x5 stepping 0 and 1.
*/
{ 0xf, 0x04, 0x04, 0x0, 0x0, X86_CHIPREV_AMD_F_REV_B, "B", A_SKTS_0 },
{ 0xf, 0x05, 0x05, 0x0, 0x1, X86_CHIPREV_AMD_F_REV_B, "B", A_SKTS_0 },
/*
* Rev C0 includes model 0x4 stepping 8 and model 0x5 stepping 8
*/
{ 0xf, 0x04, 0x05, 0x8, 0x8, X86_CHIPREV_AMD_F_REV_C0, "C0", A_SKTS_0 },
/*
* Rev CG is the rest of extended model 0x0 - i.e., everything
* but the rev B and C0 combinations covered above.
*/
{ 0xf, 0x00, 0x0f, 0x0, 0xf, X86_CHIPREV_AMD_F_REV_CG, "CG", A_SKTS_0 },
/*
* Rev D has extended model 0x1.
*/
{ 0xf, 0x10, 0x1f, 0x0, 0xf, X86_CHIPREV_AMD_F_REV_D, "D", A_SKTS_0 },
/*
* Rev E has extended model 0x2.
* Extended model 0x3 is unused but available to grow into.
*/
{ 0xf, 0x20, 0x3f, 0x0, 0xf, X86_CHIPREV_AMD_F_REV_E, "E", A_SKTS_0 },
/*
* Rev F has extended models 0x4 and 0x5.
*/
{ 0xf, 0x40, 0x5f, 0x0, 0xf, X86_CHIPREV_AMD_F_REV_F, "F", A_SKTS_1 },
/*
* Rev G has extended model 0x6.
*/
{ 0xf, 0x60, 0x6f, 0x0, 0xf, X86_CHIPREV_AMD_F_REV_G, "G", A_SKTS_1 },
/*
* =============== AuthenticAMD Family 0x10 ===============
*/
/*
* Rev A has model 0 and stepping 0/1/2 for DR-{A0,A1,A2}.
* Give all of model 0 stepping range to rev A.
*/
{ 0x10, 0x00, 0x00, 0x0, 0x2, X86_CHIPREV_AMD_10_REV_A, "A", A_SKTS_2 },
/*
* Rev B has model 2 and steppings 0/1/0xa/2 for DR-{B0,B1,BA,B2}.
* Give all of model 2 stepping range to rev B.
*/
{ 0x10, 0x02, 0x02, 0x0, 0xf, X86_CHIPREV_AMD_10_REV_B, "B", A_SKTS_2 },
/*
* Rev C has models 4-6 (depending on L3 cache configuration)
* Give all of models 4-6 stepping range 0-2 to rev C2.
*/
{ 0x10, 0x4, 0x6, 0x0, 0x2, X86_CHIPREV_AMD_10_REV_C2, "C2", A_SKTS_2 },
/*
* Rev C has models 4-6 (depending on L3 cache configuration)
* Give all of models 4-6 stepping range >= 3 to rev C3.
*/
{ 0x10, 0x4, 0x6, 0x3, 0xf, X86_CHIPREV_AMD_10_REV_C3, "C3", A_SKTS_2 },
/*
* Rev D has models 8 and 9
* Give all of model 8 and 9 stepping 0 to rev D0.
*/
{ 0x10, 0x8, 0x9, 0x0, 0x0, X86_CHIPREV_AMD_10_REV_D0, "D0", A_SKTS_2 },
/*
* Rev D has models 8 and 9
* Give all of model 8 and 9 stepping range >= 1 to rev D1.
*/
{ 0x10, 0x8, 0x9, 0x1, 0xf, X86_CHIPREV_AMD_10_REV_D1, "D1", A_SKTS_2 },
/*
* Rev E has models A and stepping 0
* Give all of model A stepping range to rev E.
*/
{ 0x10, 0xA, 0xA, 0x0, 0xf, X86_CHIPREV_AMD_10_REV_E, "E", A_SKTS_2 },
/*
* =============== AuthenticAMD Family 0x11 ===============
*/
{ 0x11, 0x03, 0x03, 0x0, 0xf, X86_CHIPREV_AMD_11_REV_B, "B", A_SKTS_3 },
/*
* =============== AuthenticAMD Family 0x12 ===============
*/
{ 0x12, 0x01, 0x01, 0x0, 0xf, X86_CHIPREV_AMD_12_REV_B, "B", A_SKTS_4 },
/*
* =============== AuthenticAMD Family 0x14 ===============
*/
{ 0x14, 0x01, 0x01, 0x0, 0xf, X86_CHIPREV_AMD_14_REV_B, "B", A_SKTS_5 },
{ 0x14, 0x02, 0x02, 0x0, 0xf, X86_CHIPREV_AMD_14_REV_C, "C", A_SKTS_5 },
/*
* =============== AuthenticAMD Family 0x15 ===============
*/
{ 0x15, 0x01, 0x01, 0x2, 0x2, X86_CHIPREV_AMD_15OR_REV_B2, "B2",
A_SKTS_6 },
{ 0x15, 0x10, 0x10, 0x1, 0x1, X86_CHIPREV_AMD_15TN_REV_A1, "A1",
A_SKTS_7 },
};
static void
synth_amd_info(uint_t family, uint_t model, uint_t step,
uint32_t *skt_p, uint32_t *chiprev_p, const char **chiprevstr_p)
{
const struct amd_rev_mapent *rmp;
int found = 0;
int i;
if (family < 0xf)
return;
for (i = 0, rmp = amd_revmap; i < sizeof (amd_revmap) / sizeof (*rmp);
i++, rmp++) {
if (family == rmp->rm_family &&
model >= rmp->rm_modello && model <= rmp->rm_modelhi &&
step >= rmp->rm_steplo && step <= rmp->rm_stephi) {
found = 1;
break;
}
}
if (!found)
return;
if (chiprev_p != NULL)
*chiprev_p = rmp->rm_chiprev;
if (chiprevstr_p != NULL)
*chiprevstr_p = rmp->rm_chiprevstr;
if (skt_p != NULL) {
int platform;
#ifdef __xpv
/* PV guest */
if (!is_controldom()) {
*skt_p = X86_SOCKET_UNKNOWN;
return;
}
#endif
platform = get_hwenv();
if ((platform & HW_VIRTUAL) != 0) {
*skt_p = X86_SOCKET_UNKNOWN;
} else if (family == 0xf) {
*skt_p = amd_skts[rmp->rm_sktidx][model & 0x3];
} else {
/*
* Starting with family 10h, socket type is stored in
* CPUID Fn8000_0001_EBX
*/
struct cpuid_regs cp;
int idx;
cp.cp_eax = 0x80000001;
(void) __cpuid_insn(&cp);
/* PkgType bits */
idx = BITX(cp.cp_ebx, 31, 28);
if (idx > 7) {
/* Reserved bits */
*skt_p = X86_SOCKET_UNKNOWN;
} else {
*skt_p = amd_skts[rmp->rm_sktidx][idx];
}
if (family == 0x10) {
/*
* Look at Ddr3Mode bit of DRAM Configuration
* High Register to decide whether this is
* actually AM3 or S1g4.
*/
uint32_t val;
val = pci_getl_func(0, 24, 2, 0x94);
if (BITX(val, 8, 8)) {
if (*skt_p == X86_SOCKET_AM2R2)
*skt_p = X86_SOCKET_AM3;
else if (*skt_p == X86_SOCKET_S1g3)
*skt_p = X86_SOCKET_S1g4;
}
}
}
}
}
uint32_t
_cpuid_skt(uint_t vendor, uint_t family, uint_t model, uint_t step)
{
uint32_t skt = X86_SOCKET_UNKNOWN;
switch (vendor) {
case X86_VENDOR_AMD:
synth_amd_info(family, model, step, &skt, NULL, NULL);
break;
default:
break;
}
return (skt);
}
const char *
_cpuid_sktstr(uint_t vendor, uint_t family, uint_t model, uint_t step)
{
const char *sktstr = "Unknown";
struct amd_sktmap_s *sktmapp;
uint32_t skt = X86_SOCKET_UNKNOWN;
switch (vendor) {
case X86_VENDOR_AMD:
synth_amd_info(family, model, step, &skt, NULL, NULL);
sktmapp = amd_sktmap;
while (sktmapp->skt_code != X86_SOCKET_UNKNOWN) {
if (sktmapp->skt_code == skt)
break;
sktmapp++;
}
sktstr = sktmapp->sktstr;
break;
default:
break;
}
return (sktstr);
}
uint32_t
_cpuid_chiprev(uint_t vendor, uint_t family, uint_t model, uint_t step)
{
uint32_t chiprev = X86_CHIPREV_UNKNOWN;
switch (vendor) {
case X86_VENDOR_AMD:
synth_amd_info(family, model, step, NULL, &chiprev, NULL);
break;
default:
break;
}
return (chiprev);
}
const char *
_cpuid_chiprevstr(uint_t vendor, uint_t family, uint_t model, uint_t step)
{
const char *revstr = "Unknown";
switch (vendor) {
case X86_VENDOR_AMD:
synth_amd_info(family, model, step, NULL, NULL, &revstr);
break;
default:
break;
}
return (revstr);
}
/*
* CyrixInstead is a variable used by the Cyrix detection code
* in locore.
*/
const char CyrixInstead[] = X86_VENDORSTR_CYRIX;
/*
* Map the vendor string to a type code
*/
uint_t
_cpuid_vendorstr_to_vendorcode(char *vendorstr)
{
if (strcmp(vendorstr, X86_VENDORSTR_Intel) == 0)
return (X86_VENDOR_Intel);
else if (strcmp(vendorstr, X86_VENDORSTR_AMD) == 0)
return (X86_VENDOR_AMD);
else if (strcmp(vendorstr, X86_VENDORSTR_TM) == 0)
return (X86_VENDOR_TM);
else if (strcmp(vendorstr, CyrixInstead) == 0)
return (X86_VENDOR_Cyrix);
else if (strcmp(vendorstr, X86_VENDORSTR_UMC) == 0)
return (X86_VENDOR_UMC);
else if (strcmp(vendorstr, X86_VENDORSTR_NexGen) == 0)
return (X86_VENDOR_NexGen);
else if (strcmp(vendorstr, X86_VENDORSTR_Centaur) == 0)
return (X86_VENDOR_Centaur);
else if (strcmp(vendorstr, X86_VENDORSTR_Rise) == 0)
return (X86_VENDOR_Rise);
else if (strcmp(vendorstr, X86_VENDORSTR_SiS) == 0)
return (X86_VENDOR_SiS);
else if (strcmp(vendorstr, X86_VENDORSTR_NSC) == 0)
return (X86_VENDOR_NSC);
else
return (X86_VENDOR_IntelClone);
}