Uniformly spell frequency unit symbol as Hz

Change-Id: I1eb8d5bd79322ff3654a6ad66278a57d46a818c1
Signed-off-by: Elyes HAOUAS <ehaouas@noos.fr>
Reviewed-on: http://review.coreboot.org/6384
Reviewed-by: Paul Menzel <paulepanter@users.sourceforge.net>
Tested-by: build bot (Jenkins)
Reviewed-by: Edward O'Callaghan <eocallaghan@alterapraxis.com>
This commit is contained in:
Elyes HAOUAS 2014-07-27 19:37:31 +02:00 committed by Edward O'Callaghan
parent 081651b667
commit 0f92f63055
29 changed files with 201 additions and 201 deletions

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@ -219,10 +219,10 @@ static u32 set_fidvid(unsigned apicid, unsigned fidvid, int showmessage)
else
step = ((fid_cur / 2) - (fid_new / 2)) * 2;
/* If 200Mhz step OR past 3200 max table value */
/* If 200MHz step OR past 3200 max table value */
if ((step == 2) || (fid_new >= 0x18 || fid_cur >= 0x18)) {
printk(BIOS_DEBUG, "200MHZ step ");
printk(BIOS_DEBUG, "200MHz step ");
/* Step +/- 200MHz at a time */
if (fid_cur < fid_new)
@ -230,7 +230,7 @@ static u32 set_fidvid(unsigned apicid, unsigned fidvid, int showmessage)
else
fid_temp = fid_cur - 2;
} else if (step > 2) { /* If more than a 200Mhz step */
} else if (step > 2) { /* If more than a 200MHz step */
int temp;
/* look it up in the table */
@ -246,15 +246,15 @@ static u32 set_fidvid(unsigned apicid, unsigned fidvid, int showmessage)
else
break; /* table error */
} else { /* step < 2 (100MHZ) */
printk(BIOS_DEBUG, "100MHZ step ");
} else { /* step < 2 (100MHz) */
printk(BIOS_DEBUG, "100MHz step ");
/* The table adjust in 200MHz increments. If requested,
* do the 100MHz increment if the CPU supports it.*/
if (cpuid_edx(0x80000007) & (1 << 6)) {
fid_temp = fid_cur + 1;
} else {
/* 100 MHZ not supported. Get out of the loop */
/* 100 MHz not supported. Get out of the loop */
printk(BIOS_DEBUG, "is not supported.\n");
break;
}

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@ -1518,7 +1518,7 @@ static void hammerSublinkFixup(sMainData *pDat)
{
if ((loFreq != 5) && /* { 9, 5} 1600MHz / 800MHz 2:1 */
(loFreq != 2) && /* { 9, 2} 1600MHz / 400MHz 4:1 */
(loFreq != 0) ) /* { 9, 0} 1600MHz / 200Mhz 8:1 */
(loFreq != 0) ) /* { 9, 0} 1600MHz / 200MHz 8:1 */
downgrade = TRUE;
}
else if (hiFreq == 7)

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@ -1384,7 +1384,7 @@ static void setLinkData(sMainData *pDat, cNorthBridge *nb)
ASSERT((temp >= HT_FREQUENCY_600M && temp <= HT_FREQUENCY_2600M)
|| (temp == HT_FREQUENCY_200M) || (temp == HT_FREQUENCY_400M));
AmdPCIWriteBits(linkBase + HTHOST_FREQ_REV_REG, 11, 8, &temp);
if (temp > HT_FREQUENCY_1000M) /* Gen1 = 200Mhz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz */
if (temp > HT_FREQUENCY_1000M) /* Gen1 = 200MHz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz */
{
/* Enable for Gen3 frequencies */
temp = 1;
@ -1420,7 +1420,7 @@ static void setLinkData(sMainData *pDat, cNorthBridge *nb)
/* Handle additional HT3 frequency requirements, if needed,
* or clear them if switching down to ht1 on a warm reset.
* Gen1 = 200Mhz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz
* Gen1 = 200MHz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz
*
* Even though we assert if debugging, we need to check that the capability was found
* always, since this is an unknown hardware device, also we are taking

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@ -295,7 +295,7 @@ static uint16_t read_freq_cap(device_t dev, uint8_t pos)
id = pci_read_config32(dev, 0);
/* AMD K8 Unsupported 1Ghz? */
/* AMD K8 Unsupported 1GHz? */
if (id == (PCI_VENDOR_ID_AMD | (0x1100 << 16))) {
freq_cap &= ~(1 << HT_FREQ_1000Mhz);
}

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@ -135,7 +135,7 @@ static uint16_t ht_read_freq_cap(device_t dev, uint8_t pos)
return freq_cap;
}
/* AMD K8 Unsupported 1Ghz? */
/* AMD K8 Unsupported 1GHz? */
if (id == (PCI_VENDOR_ID_AMD | (0x1100 << 16))) {
#if CONFIG_K8_HT_FREQ_1G_SUPPORT
#if !CONFIG_K8_REV_F_SUPPORT

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@ -284,14 +284,14 @@ static void sdram_set_registers(const struct mem_controller *ctrl)
* 111 = reserved
* [ 7: 7] Reserved
* [12: 8] Tref (Refresh Rate)
* 00000 = 100Mhz 4K rows
* 00001 = 133Mhz 4K rows
* 00010 = 166Mhz 4K rows
* 00011 = 200Mhz 4K rows
* 01000 = 100Mhz 8K/16K rows
* 01001 = 133Mhz 8K/16K rows
* 01010 = 166Mhz 8K/16K rows
* 01011 = 200Mhz 8K/16K rows
* 00000 = 100MHz 4K rows
* 00001 = 133MHz 4K rows
* 00010 = 166MHz 4K rows
* 00011 = 200MHz 4K rows
* 01000 = 100MHz 8K/16K rows
* 01001 = 133MHz 8K/16K rows
* 01010 = 166MHz 8K/16K rows
* 01011 = 200MHz 8K/16K rows
* [19:13] Reserved
* [22:20] Twcl (Write CAS Latency)
* 000 = 1 Mem clock after CAS# (Unbuffered Dimms)
@ -414,12 +414,12 @@ static void sdram_set_registers(const struct mem_controller *ctrl)
* 0 = Use Idle Cycle Limit
* 1 = Generate a dynamic Idle cycle limit
* [22:20] DRAM MEMCLK Frequency
* 000 = 100Mhz
* 000 = 100MHz
* 001 = reserved
* 010 = 133Mhz
* 010 = 133MHz
* 011 = reserved
* 100 = reserved
* 101 = 166Mhz
* 101 = 166MHz
* 110 = reserved
* 111 = reserved
* [24:23] Reserved

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@ -28,8 +28,8 @@
#define J_MIN 0 /* j loop constraint. 1=CL 2.0 T*/
#define J_MAX 4 /* j loop constraint. 4=CL 6.0 T*/
#define K_MIN 1 /* k loop constraint. 1=200 Mhz*/
#define K_MAX 4 /* k loop constraint. 9=400 Mhz*/
#define K_MIN 1 /* k loop constraint. 1=200 MHz*/
#define K_MAX 4 /* k loop constraint. 9=400 MHz*/
#define CL_DEF 2 /* Default value for failsafe operation. 2=CL 4.0 T*/
#define T_DEF 1 /* Default value for failsafe operation. 1=5ns (cycle time)*/
@ -236,10 +236,10 @@ struct DCTStatStruc { /* A per Node structure*/
u8 DATAload[2]; /* Number of ranks loading CH A DATA*/
/* Number of ranks loading CH B DATA*/
u8 DIMMAutoSpeed; /* Max valid Mfg. Speed of DIMMs
1=200Mhz
2=266Mhz
3=333Mhz
4=400Mhz */
1=200MHz
2=266MHz
3=333MHz
4=400MHz */
u8 DIMMCASL; /* Min valid Mfg. CL bitfield
0=2.0
1=3.0
@ -255,10 +255,10 @@ struct DCTStatStruc { /* A per Node structure*/
u16 DIMMTrrd; /* Minimax Trrd*40 (ns) of DIMMs*/
u16 DIMMTwtr; /* Minimax Twtr*40 (ns) of DIMMs*/
u8 Speed; /* Bus Speed (to set Controller)
1=200Mhz
2=266Mhz
3=333Mhz
4=400Mhz */
1=200MHz
2=266MHz
3=333MHz
4=400MHz */
u8 CASL; /* CAS latency DCT setting
0=2.0
1=3.0
@ -288,10 +288,10 @@ struct DCTStatStruc { /* A per Node structure*/
u32 DCTHoleBase; /* If not zero, BASE[39:8] (system address) of dram hole for HW remapping. Dram hole exists on this Node's DCTs. */
u32 DCTSysLimit; /* LIMIT[39:8] (system address) of this Node's DCTs */
u16 PresetmaxFreq; /* Maximum OEM defined DDR frequency
200=200Mhz (DDR400)
266=266Mhz (DDR533)
333=333Mhz (DDR667)
400=400Mhz (DDR800) */
200=200MHz (DDR400)
266=266MHz (DDR533)
333=333MHz (DDR667)
400=400MHz (DDR800) */
u8 _2Tmode; /* 1T or 2T CMD mode (slow access mode)
1=1T
2=2T */
@ -408,10 +408,10 @@ struct DCTStatStruc { /* A per Node structure*/
#define NV_MAX_NODES 1 /* Number of Nodes/Sockets (4-bits)*/
#define NV_MAX_DIMMS 2 /* Number of DIMM slots for the specified Node ID (4-bits)*/
#define NV_MAX_MEMCLK 3 /* Maximum platform demonstrated Memclock (10-bits)
200=200Mhz (DDR400)
266=266Mhz (DDR533)
333=333Mhz (DDR667)
400=400Mhz (DDR800)*/
200=200MHz (DDR400)
266=266MHz (DDR533)
333=333MHz (DDR667)
400=400MHz (DDR800)*/
#define NV_ECC_CAP 4 /* Bus ECC capable (1-bits)
0=Platform not capable
1=Platform is capable*/
@ -433,10 +433,10 @@ struct DCTStatStruc { /* A per Node structure*/
1=Auto, user limit provided in NV_MemCkVal
2=Manual, user value provided in NV_MemCkVal*/
#define NV_MemCkVal 11 /* Memory Clock Value (2-bits)
0=200Mhz
1=266Mhz
2=333Mhz
3=400Mhz*/
0=200MHz
1=266MHz
2=333MHz
3=400MHz*/
/* Dram Configuration */
#define NV_BankIntlv 20 /* Dram Bank (chip-select) Interleaving (1-bits)

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@ -203,7 +203,7 @@ static void mctAutoInitMCT_D(struct MCTStatStruc *pMCTstat,
* entry
* 6. All var MTRRs reset to zero
* 7. State of NB_CFG.DisDatMsk set properly on all CPUs
* 8. All CPUs at 2Ghz Speed (unless DQS training is not installed).
* 8. All CPUs at 2GHz Speed (unless DQS training is not installed).
* 9. All cHT links at max Speed/Width (unless DQS training is not
* installed).
*
@ -212,11 +212,11 @@ static void mctAutoInitMCT_D(struct MCTStatStruc *pMCTstat,
* j CL(j) k F(k)
* --------------------------
* 0 2.0 - -
* 1 3.0 1 200 Mhz
* 2 4.0 2 266 Mhz
* 3 5.0 3 333 Mhz
* 4 6.0 4 400 Mhz
* 5 7.0 5 533 Mhz
* 1 3.0 1 200 MHz
* 2 4.0 2 266 MHz
* 3 5.0 3 333 MHz
* 4 6.0 4 400 MHz
* 5 7.0 5 533 MHz
*/
u8 Node, NodesWmem;
u32 node_sys_base;
@ -437,9 +437,9 @@ static void LoadDQSSigTmgRegs_D(struct MCTStatStruc *pMCTstat,
* when 400, 533, 667, it will support dimm0/1/2/3,
* and set conf for dimm0, hw will copy to dimm1/2/3
* set for dimm1, hw will copy to dimm3
* Rev A/B only support DIMM0/1 when 800Mhz and above
* Rev A/B only support DIMM0/1 when 800MHz and above
* + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800Mhz and above
* Rev C support DIMM0/1/2/3 when 800MHz and above
* + 0x100 to next dimm
*/
for (DIMM = 0; DIMM < 2; DIMM++) {
@ -3615,7 +3615,7 @@ static void mct_BeforeDramInit_Prod_D(struct MCTStatStruc *pMCTstat,
u32 dev = pDCTstat->dev_dct;
// FIXME: skip for Ax
if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533Mhz
if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533MHz
for (i=0; i < 2; i++) {
reg_off = 0x100 * i;
Set_NB32(dev, 0x98 + reg_off, 0x0D000030);
@ -3630,7 +3630,7 @@ static void mct_AdjustDelayRange_D(struct MCTStatStruc *pMCTstat,
struct DCTStatStruc *pDCTstat, u8 *dqs_pos)
{
// FIXME: Skip for Ax
if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533Mhz
if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533MHz
*dqs_pos = 32;
}
}

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@ -35,8 +35,8 @@
#define J_MIN 0 /* j loop constraint. 1=CL 2.0 T*/
#define J_MAX 5 /* j loop constraint. 5=CL 7.0 T*/
#define K_MIN 1 /* k loop constraint. 1=200 Mhz*/
#define K_MAX 5 /* k loop constraint. 5=533 Mhz*/
#define K_MIN 1 /* k loop constraint. 1=200 MHz*/
#define K_MAX 5 /* k loop constraint. 5=533 MHz*/
#define CL_DEF 2 /* Default value for failsafe operation. 2=CL 4.0 T*/
#define T_DEF 1 /* Default value for failsafe operation. 1=5ns (cycle time)*/
@ -325,11 +325,11 @@ struct DCTStatStruc { /* A per Node structure*/
u8 DATAload[2]; /*Number of ranks loading CH A DATA*/
/* Number of ranks loading CH B DATA*/
u8 DIMMAutoSpeed; /*Max valid Mfg. Speed of DIMMs
1=200Mhz
2=266Mhz
3=333Mhz
4=400Mhz
5=533Mhz*/
1=200MHz
2=266MHz
3=333MHz
4=400MHz
5=533MHz*/
u8 DIMMCASL; /* Min valid Mfg. CL bitfield
0=2.0
1=3.0
@ -345,10 +345,10 @@ struct DCTStatStruc { /* A per Node structure*/
u16 DIMMTrrd; /* Minimax Trrd*40 (ns) of DIMMs*/
u16 DIMMTwtr; /* Minimax Twtr*40 (ns) of DIMMs*/
u8 Speed; /* Bus Speed (to set Controller)
1=200Mhz
2=266Mhz
3=333Mhz
4=400Mhz */
1=200MHz
2=266MHz
3=333MHz
4=400MHz */
u8 CASL; /* CAS latency DCT setting
0=2.0
1=3.0
@ -378,10 +378,10 @@ struct DCTStatStruc { /* A per Node structure*/
u32 DCTHoleBase; /* If not zero, BASE[39:8] (system address) of dram hole for HW remapping. Dram hole exists on this Node's DCTs. */
u32 DCTSysLimit; /* LIMIT[39:8] (system address) of this Node's DCTs */
u16 PresetmaxFreq; /* Maximum OEM defined DDR frequency
200=200Mhz (DDR400)
266=266Mhz (DDR533)
333=333Mhz (DDR667)
400=400Mhz (DDR800) */
200=200MHz (DDR400)
266=266MHz (DDR533)
333=333MHz (DDR667)
400=400MHz (DDR800) */
u8 _2Tmode; /* 1T or 2T CMD mode (slow access mode)
1=1T
2=2T */
@ -476,9 +476,9 @@ struct DCTStatStruc { /* A per Node structure*/
u8 WrDatGrossH;
u8 DqsRcvEnGrossL;
// NOTE: Not used - u8 NodeSpeed /* Bus Speed (to set Controller)
/* 1=200Mhz */
/* 2=266Mhz */
/* 3=333Mhz */
/* 1=200MHz */
/* 2=266MHz */
/* 3=333MHz */
// NOTE: Not used - u8 NodeCASL /* CAS latency DCT setting
/* 0=2.0 */
/* 1=3.0 */
@ -574,10 +574,10 @@ struct DCTStatStruc { /* A per Node structure*/
#define NV_MAX_NODES 1 /* Number of Nodes/Sockets (4-bits)*/
#define NV_MAX_DIMMS 2 /* Number of DIMM slots for the specified Node ID (4-bits)*/
#define NV_MAX_MEMCLK 3 /* Maximum platform demonstrated Memclock (10-bits)
200=200Mhz (DDR400)
266=266Mhz (DDR533)
333=333Mhz (DDR667)
400=400Mhz (DDR800)*/
200=200MHz (DDR400)
266=266MHz (DDR533)
333=333MHz (DDR667)
400=400MHz (DDR800)*/
#define NV_ECC_CAP 4 /* Bus ECC capable (1-bits)
0=Platform not capable
1=Platform is capable*/
@ -599,10 +599,10 @@ struct DCTStatStruc { /* A per Node structure*/
1=Auto, user limit provided in NV_MemCkVal
2=Manual, user value provided in NV_MemCkVal*/
#define NV_MemCkVal 11 /* Memory Clock Value (2-bits)
0=200Mhz
1=266Mhz
2=333Mhz
3=400Mhz*/
0=200MHz
1=266MHz
2=333MHz
3=400MHz*/
/*Dram Configuration*/
#define NV_BankIntlv 20 /* Dram Bank (chip-select) Interleaving (1-bits)

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@ -591,8 +591,8 @@ void StoreDQSDatStrucVal_D(struct MCTStatStruc *pMCTstat,
/* When 400, 533, 667, it will support dimm0/1/2/3,
* and set conf for dimm0, hw will copy to dimm1/2/3
* set for dimm1, hw will copy to dimm3
* Rev A/B only support DIMM0/1 when 800Mhz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800Mhz and above + 0x100 to next dimm
* Rev A/B only support DIMM0/1 when 800MHz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800MHz and above + 0x100 to next dimm
*/
/* FindDQSDatDimmVal_D is not required since we use an array */
@ -615,8 +615,8 @@ static void GetDQSDatStrucVal_D(struct MCTStatStruc *pMCTstat,
/* When 400, 533, 667, it will support dimm0/1/2/3,
* and set conf for dimm0, hw will copy to dimm1/2/3
* set for dimm1, hw will copy to dimm3
* Rev A/B only support DIMM0/1 when 800Mhz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800Mhz and above + 0x100 to next dimm
* Rev A/B only support DIMM0/1 when 800MHz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800MHz and above + 0x100 to next dimm
*/
/* FindDQSDatDimmVal_D is not required since we use an array */

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@ -290,7 +290,7 @@ void mct_BeforeDramInit_D(struct DCTStatStruc *pDCTstat, u32 dct)
tmp = pDCTstat->LogicalCPUID;
if ((tmp == AMD_DR_A0A) || (tmp == AMD_DR_A1B) || (tmp == AMD_DR_A2)) {
Speed = pDCTstat->Speed;
/* MemClkFreq = 333MHz or 533Mhz */
/* MemClkFreq = 333MHz or 533MHz */
if((Speed == 3) || (Speed == 2)) {
if(pDCTstat->GangedMode) {
ch_start = 0;

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@ -248,7 +248,7 @@ static void mctAutoInitMCT_D(struct MCTStatStruc *pMCTstat,
* 5. MCi_STS from shutdown/warm reset recorded (if desired) prior to entry
* 6. All var MTRRs reset to zero
* 7. State of NB_CFG.DisDatMsk set properly on all CPUs
* 8. All CPUs at 2Ghz Speed (unless DQS training is not installed).
* 8. All CPUs at 2GHz Speed (unless DQS training is not installed).
* 9. All cHT links at max Speed/Width (unless DQS training is not installed).
*
*
@ -258,13 +258,13 @@ static void mctAutoInitMCT_D(struct MCTStatStruc *pMCTstat,
* j CL(j) k F(k)
* --------------------------
* 0 2.0 - -
* 1 3.0 1 200 Mhz
* 2 4.0 2 266 Mhz
* 3 5.0 3 333 Mhz
* 4 6.0 4 400 Mhz
* 5 7.0 5 533 Mhz
* 6 8.0 6 667 Mhz
* 7 9.0 7 800 Mhz
* 1 3.0 1 200 MHz
* 2 4.0 2 266 MHz
* 3 5.0 3 333 MHz
* 4 6.0 4 400 MHz
* 5 7.0 5 533 MHz
* 6 8.0 6 667 MHz
* 7 9.0 7 800 MHz
*/
u8 Node, NodesWmem;
u32 node_sys_base;
@ -487,9 +487,9 @@ static void LoadDQSSigTmgRegs_D(struct MCTStatStruc *pMCTstat,
* when 400, 533, 667, it will support dimm0/1/2/3,
* and set conf for dimm0, hw will copy to dimm1/2/3
* set for dimm1, hw will copy to dimm3
* Rev A/B only support DIMM0/1 when 800Mhz and above
* Rev A/B only support DIMM0/1 when 800MHz and above
* + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800Mhz and above
* Rev C support DIMM0/1/2/3 when 800MHz and above
* + 0x100 to next dimm
*/
for (DIMM = 0; DIMM < 4; DIMM++) {

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@ -35,8 +35,8 @@
#define J_MIN 0 /* j loop constraint. 1=CL 2.0 T*/
#define J_MAX 5 /* j loop constraint. 5=CL 7.0 T*/
#define K_MIN 1 /* k loop constraint. 1=200 Mhz*/
#define K_MAX 5 /* k loop constraint. 5=533 Mhz*/
#define K_MIN 1 /* k loop constraint. 1=200 MHz*/
#define K_MAX 5 /* k loop constraint. 5=533 MHz*/
#define CL_DEF 2 /* Default value for failsafe operation. 2=CL 4.0 T*/
#define T_DEF 1 /* Default value for failsafe operation. 1=5ns (cycle time)*/
@ -352,11 +352,11 @@ struct DCTStatStruc { /* A per Node structure*/
u8 DATAload[2]; /*Number of ranks loading CH A DATA*/
/* Number of ranks loading CH B DATA*/
u8 DIMMAutoSpeed; /*Max valid Mfg. Speed of DIMMs
1=200Mhz
2=266Mhz
3=333Mhz
4=400Mhz
5=533Mhz*/
1=200MHz
2=266MHz
3=333MHz
4=400MHz
5=533MHz*/
u8 DIMMCASL; /* Min valid Mfg. CL bitfield
0=2.0
1=3.0
@ -372,10 +372,10 @@ struct DCTStatStruc { /* A per Node structure*/
u16 DIMMTrrd; /* Minimax Trrd*40 (ns) of DIMMs*/
u16 DIMMTwtr; /* Minimax Twtr*40 (ns) of DIMMs*/
u8 Speed; /* Bus Speed (to set Controller)
1=200Mhz
2=266Mhz
3=333Mhz
4=400Mhz */
1=200MHz
2=266MHz
3=333MHz
4=400MHz */
u8 CASL; /* CAS latency DCT setting
0=2.0
1=3.0
@ -405,10 +405,10 @@ struct DCTStatStruc { /* A per Node structure*/
u32 DCTHoleBase; /* If not zero, BASE[39:8] (system address) of dram hole for HW remapping. Dram hole exists on this Node's DCTs. */
u32 DCTSysLimit; /* LIMIT[39:8] (system address) of this Node's DCTs */
u16 PresetmaxFreq; /* Maximum OEM defined DDR frequency
200=200Mhz (DDR400)
266=266Mhz (DDR533)
333=333Mhz (DDR667)
400=400Mhz (DDR800) */
200=200MHz (DDR400)
266=266MHz (DDR533)
333=333MHz (DDR667)
400=400MHz (DDR800) */
u8 _2Tmode; /* 1T or 2T CMD mode (slow access mode)
1=1T
2=2T */
@ -518,9 +518,9 @@ struct DCTStatStruc { /* A per Node structure*/
u8 WrDatGrossH;
u8 DqsRcvEnGrossL;
/* NOTE: Not used - u8 NodeSpeed */ /* Bus Speed (to set Controller) */
/* 1=200Mhz */
/* 2=266Mhz */
/* 3=333Mhz */
/* 1=200MHz */
/* 2=266MHz */
/* 3=333MHz */
/* NOTE: Not used - u8 NodeCASL */ /* CAS latency DCT setting */
/* 0=2.0 */
/* 1=3.0 */
@ -635,10 +635,10 @@ struct DCTStatStruc { /* A per Node structure*/
#define NV_MAX_NODES 1 /* Number of Nodes/Sockets (4-bits)*/
#define NV_MAX_DIMMS 2 /* Number of DIMM slots for the specified Node ID (4-bits)*/
#define NV_MAX_MEMCLK 3 /* Maximum platform demonstrated Memclock (10-bits)
200=200Mhz (DDR400)
266=266Mhz (DDR533)
333=333Mhz (DDR667)
400=400Mhz (DDR800)*/
200=200MHz (DDR400)
266=266MHz (DDR533)
333=333MHz (DDR667)
400=400MHz (DDR800)*/
#define NV_ECC_CAP 4 /* Bus ECC capable (1-bits)
0=Platform not capable
1=Platform is capable*/
@ -660,10 +660,10 @@ struct DCTStatStruc { /* A per Node structure*/
1=Auto, user limit provided in NV_MemCkVal
2=Manual, user value provided in NV_MemCkVal*/
#define NV_MemCkVal 11 /* Memory Clock Value (2-bits)
0=200Mhz
1=266Mhz
2=333Mhz
3=400Mhz*/
0=200MHz
1=266MHz
2=333MHz
3=400MHz*/
/*Dram Configuration*/
#define NV_BankIntlv 20 /* Dram Bank (chip-select) Interleaving (1-bits)

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@ -668,8 +668,8 @@ static void StoreDQSDatStrucVal_D(struct MCTStatStruc *pMCTstat,
/* When 400, 533, 667, it will support dimm0/1/2/3,
* and set conf for dimm0, hw will copy to dimm1/2/3
* set for dimm1, hw will copy to dimm3
* Rev A/B only support DIMM0/1 when 800Mhz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800Mhz and above + 0x100 to next dimm
* Rev A/B only support DIMM0/1 when 800MHz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800MHz and above + 0x100 to next dimm
*/
/* FindDQSDatDimmVal_D is not required since we use an array */
@ -709,8 +709,8 @@ static void GetDQSDatStrucVal_D(struct MCTStatStruc *pMCTstat,
/* When 400, 533, 667, it will support dimm0/1/2/3,
* and set conf for dimm0, hw will copy to dimm1/2/3
* set for dimm1, hw will copy to dimm3
* Rev A/B only support DIMM0/1 when 800Mhz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800Mhz and above + 0x100 to next dimm
* Rev A/B only support DIMM0/1 when 800MHz and above + 0x100 to next dimm
* Rev C support DIMM0/1/2/3 when 800MHz and above + 0x100 to next dimm
*/
/* FindDQSDatDimmVal_D is not required since we use an array */

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@ -741,7 +741,7 @@ void procConifg(sMCTStruct *pMCTData,sDCTStruct *pDCTData, u8 dimm, u8 pass)
pDCTData->WLGrossDelay[MAX_BYTE_LANES*dimm+ByteLane] << 5;
/* SeedTotalPreScaling = (the total delay value in F2x[1, 0]9C_x[4A:30] from pass 1 of write levelization
training) - RegisterDelay. */
/* MemClkFreq: 3: 400Mhz; 4: 533Mhz; 5: 667Mhz; 6: 800Mhz */
/* MemClkFreq: 3: 400MHz; 4: 533MHz; 5: 667MHz; 6: 800MHz */
SeedTotal = (u16) (RegisterDelay + ((((u32) SeedTotal - RegisterDelay) *
freq_tab[MemClkFreq-3]) / 400));
Seed_Gross = (SeedTotal & 0x20) != 0 ? 1 : 2;

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@ -196,7 +196,7 @@ static void checkDDRMax(void)
spd_byte0 = spd_byte1;
}
/* Turn SPD ns time into MHZ. Check what the asm does to this math. */
/* Turn SPD ns time into MHz. Check what the asm does to this math. */
speed = 20000 / (((spd_byte0 >> 4) * 10) + (spd_byte0 & 0x0F));
/* current speed > max speed? */
@ -253,14 +253,14 @@ static u8 getcasmap(u32 dimm, u16 glspeed)
/* IF -.5 timing is supported, check -.5 timing > GeodeLink */
spd_byte = spd_read_byte(dimm, SPD_SDRAM_CYCLE_TIME_2ND);
if (spd_byte != 0) {
/* Turn SPD ns time into MHZ. Check what the asm does to this math. */
/* Turn SPD ns time into MHz. Check what the asm does to this math. */
dimm_speed = 20000 / (((spd_byte >> 4) * 10) + (spd_byte & 0x0F));
if (dimm_speed >= glspeed) {
casmap_shift = 1; /* -.5 is a shift of 1 */
/* IF -1 timing is supported, check -1 timing > GeodeLink */
spd_byte = spd_read_byte(dimm, SPD_SDRAM_CYCLE_TIME_3RD);
if (spd_byte != 0) {
/* Turn SPD ns time into MHZ. Check what the asm does to this math. */
/* Turn SPD ns time into MHz. Check what the asm does to this math. */
dimm_speed = 20000 / (((spd_byte >> 4) * 10) + (spd_byte & 0x0F));
if (dimm_speed >= glspeed) {
casmap_shift = 2; /* -1 is a shift of 2 */
@ -353,7 +353,7 @@ static void set_latencies(void)
spd_byte0 = spd_byte1;
}
/* (ns/(1/MHz) = (us*MHZ)/1000 = clocks/1000 = clocks) */
/* (ns/(1/MHz) = (us*MHz)/1000 = clocks/1000 = clocks) */
spd_byte1 = (spd_byte0 * memspeed) / 1000;
if (((spd_byte0 * memspeed) % 1000)) {
++spd_byte1;
@ -373,7 +373,7 @@ static void set_latencies(void)
spd_byte0 = spd_byte1;
}
/* (ns/(1/MHz) = (us*MHZ)/1000 = clocks/1000 = clocks) */
/* (ns/(1/MHz) = (us*MHz)/1000 = clocks/1000 = clocks) */
spd_byte1 = ((spd_byte0 >> 2) * memspeed) / 1000;
if ((((spd_byte0 >> 2) * memspeed) % 1000)) {
++spd_byte1;
@ -393,7 +393,7 @@ static void set_latencies(void)
spd_byte0 = spd_byte1;
}
/* (ns/(1/MHz) = (us*MHZ)/1000 = clocks/1000 = clocks) */
/* (ns/(1/MHz) = (us*MHz)/1000 = clocks/1000 = clocks) */
spd_byte1 = ((spd_byte0 >> 2) * memspeed) / 1000;
if ((((spd_byte0 >> 2) * memspeed) % 1000)) {
++spd_byte1;
@ -413,7 +413,7 @@ static void set_latencies(void)
spd_byte0 = spd_byte1;
}
/* (ns/(1/MHz) = (us*MHZ)/1000 = clocks/1000 = clocks) */
/* (ns/(1/MHz) = (us*MHz)/1000 = clocks/1000 = clocks) */
spd_byte1 = ((spd_byte0 >> 2) * memspeed) / 1000;
if ((((spd_byte0 >> 2) * memspeed) % 1000)) {
++spd_byte1;
@ -446,7 +446,7 @@ static void set_latencies(void)
}
if (spd_byte0) {
/* (ns/(1/MHz) = (us*MHZ)/1000 = clocks/1000 = clocks) */
/* (ns/(1/MHz) = (us*MHz)/1000 = clocks/1000 = clocks) */
spd_byte1 = (spd_byte0 * memspeed) / 1000;
if (((spd_byte0 * memspeed) % 1000)) {
++spd_byte1;
@ -460,7 +460,7 @@ static void set_latencies(void)
msr.lo |= dimm_setting;
wrmsr(MC_CF1017_DATA, msr);
/* tWTR: Set tWTR to 2 for 400MHz and above GLBUS (200Mhz mem) other wise it stay default(1) */
/* tWTR: Set tWTR to 2 for 400MHz and above GLBUS (200MHz mem) other wise it stay default(1) */
if (memspeed > 198) {
msr = rdmsr(MC_CF1017_DATA);
msr.lo &= ~(0x7 << CF1017_LOWER_WR_TO_RD_SHIFT);
@ -672,7 +672,7 @@ void sdram_enable(int controllers, const struct mem_controller *ctrl)
msr.lo &= ~(CF07_LOWER_PROG_DRAM_SET | CF07_LOWER_LOAD_MODE_DLL_RESET);
wrmsr(msrnum, msr);
/* 2us delay (200 clocks @ 200Mhz). We probably really don't need this but.... better safe. */
/* 2us delay (200 clocks @ 200MHz). We probably really don't need this but.... better safe. */
/* Wait 2 PORT61 ticks. between 15us and 30us */
/* This would be endless if the timer is stuck. */
while ((inb(0x61))) ; /* find the first edge */

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@ -1276,7 +1276,7 @@ static void configure_e7501_dram_timing(const struct mem_controller *ctrl,
/* Trd */
/* Set to a 7 clock read delay. This is for 133Mhz
/* Set to a 7 clock read delay. This is for 133MHz
* with a CAS latency of 2.5 if 2.0 a 6 clock
* delay is good */

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@ -1132,7 +1132,7 @@ static void configure_e7501_dram_timing(const struct mem_controller *ctrl,
/* Trd */
/* Set to a 7 clock read delay. This is for 133Mhz
/* Set to a 7 clock read delay. This is for 133MHz
* with a CAS latency of 2.5 if 2.0 a 6 clock
* delay is good */

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@ -439,12 +439,12 @@ static int spd_set_drt_attributes(const struct mem_controller *ctrl,
} else {
drt |= (2<<22);
}
/* Docs say use 55 for all 200Mhz */
/* Docs say use 55 for all 200MHz */
drt |= (0x055<<24);
}
else if(value <= 0x60) { /* 167 Mhz */
else if(value <= 0x60) { /* 167 MHz */
/* according to new documentation CAS latency is 00
* for bits 3:2 for all 167 Mhz
* for bits 3:2 for all 167 MHz
drt |= ((index&3)<<2); */ /* set CAS latency */
if((index&0x0ff00)<=0x03000) {
drt |= (1<<8); /* Trp RAS Precharg */
@ -484,10 +484,10 @@ static int spd_set_drt_attributes(const struct mem_controller *ctrl,
} else {
drt |= (2<<22);
}
/* Docs state to use 99 for all 167 Mhz */
/* Docs state to use 99 for all 167 MHz */
drt |= (0x099<<24);
}
else if(value <= 0x75) { /* 133 Mhz */
else if(value <= 0x75) { /* 133 MHz */
drt |= ((index&3)<<2); /* set CAS latency */
if((index&0x0ff00)<=0x03c00) {
drt |= (1<<8); /* Trp RAS Precharg */

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@ -445,12 +445,12 @@ static int spd_set_drt_attributes(const struct mem_controller *ctrl,
} else {
drt |= (2<<22);
}
/* Docs say use 55 for all 200Mhz */
/* Docs say use 55 for all 200MHz */
drt |= (0x055<<24);
}
else if(value <= 0x60) { /* 167 Mhz */
else if(value <= 0x60) { /* 167 MHz */
/* according to new documentation CAS latency is 00
* for bits 3:2 for all 167 Mhz
* for bits 3:2 for all 167 MHz
drt |= ((index&3)<<2); */ /* set CAS latency */
if((index&0x0ff00)<=0x03000) {
drt |= (1<<8); /* Trp RAS Precharg */
@ -490,10 +490,10 @@ static int spd_set_drt_attributes(const struct mem_controller *ctrl,
} else {
drt |= (2<<22);
}
/* Docs state to use 99 for all 167 Mhz */
/* Docs state to use 99 for all 167 MHz */
drt |= (0x099<<24);
}
else if(value <= 0x75) { /* 133 Mhz */
else if(value <= 0x75) { /* 133 MHz */
drt |= ((index&3)<<2); /* set CAS latency */
if((index&0x0ff00)<=0x03c00) {
drt |= (1<<8); /* Trp RAS Precharg */

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@ -433,12 +433,12 @@ static int spd_set_drt_attributes(const struct mem_controller *ctrl,
} else {
drt |= (2<<22);
}
/* Docs say use 55 for all 200Mhz */
/* Docs say use 55 for all 200MHz */
drt |= (0x055<<24);
}
else if(value <= 0x60) { /* 167 Mhz */
else if(value <= 0x60) { /* 167 MHz */
/* according to new documentation CAS latency is 00
* for bits 3:2 for all 167 Mhz
* for bits 3:2 for all 167 MHz
drt |= ((index&3)<<2); */ /* set CAS latency */
if((index&0x0ff00)<=0x03000) {
drt |= (1<<8); /* Trp RAS Precharg */
@ -478,10 +478,10 @@ static int spd_set_drt_attributes(const struct mem_controller *ctrl,
} else {
drt |= (2<<22);
}
/* Docs state to use 99 for all 167 Mhz */
/* Docs state to use 99 for all 167 MHz */
drt |= (0x099<<24);
}
else if(value <= 0x75) { /* 133 Mhz */
else if(value <= 0x75) { /* 133 MHz */
drt |= ((index&3)<<2); /* set CAS latency */
if((index&0x0ff00)<=0x03c00) {
drt |= (1<<8); /* Trp RAS Precharg */

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@ -416,7 +416,7 @@ static void sdram_enable(void)
/* 0. Wait until power/voltages and clocks are stable (200us). */
udelay(200);
/* 1. Apply NOP. Wait 200 clock cycles (clock might be 60 or 66 Mhz). */
/* 1. Apply NOP. Wait 200 clock cycles (clock might be 60 or 66 MHz). */
PRINT_DEBUG("RAM Enable 1: Apply NOP\n");
do_ram_command(RAM_COMMAND_NOP);
udelay(200);

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@ -2028,10 +2028,10 @@ static void sdram_program_graphics_frequency(struct sys_info *sysinfo)
printk(BIOS_DEBUG, "Render: ");
switch (freq) {
case CRCLK_166MHz: printk(BIOS_DEBUG, "166Mhz"); break;
case CRCLK_200MHz: printk(BIOS_DEBUG, "200Mhz"); break;
case CRCLK_250MHz: printk(BIOS_DEBUG, "250Mhz"); break;
case CRCLK_400MHz: printk(BIOS_DEBUG, "400Mhz"); break;
case CRCLK_166MHz: printk(BIOS_DEBUG, "166MHz"); break;
case CRCLK_200MHz: printk(BIOS_DEBUG, "200MHz"); break;
case CRCLK_250MHz: printk(BIOS_DEBUG, "250MHz"); break;
case CRCLK_400MHz: printk(BIOS_DEBUG, "400MHz"); break;
}
if (i945_silicon_revision() == 0) {

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@ -333,7 +333,7 @@ static void ddr_ram_setup(void)
}
}
if( b & 0x04 ){ // DDR mandatory CAS 2
if( smbus_read_byte(DIMM0, SPD_SDRAM_CYCLE_TIME_3RD) <= bank ){ // we can manage max Mhz at CAS 2
if( smbus_read_byte(DIMM0, SPD_SDRAM_CYCLE_TIME_3RD) <= bank ){ // we can manage max MHz at CAS 2
//print_debug("\nWe can do CAS 2");
c = 0x10;
}
@ -342,7 +342,7 @@ static void ddr_ram_setup(void)
//print_debug("\nStarting at CAS 2.5");
c = 0x20; // assume CAS 2.5
if( b & 0x04){ // Should always happen
if( smbus_read_byte(DIMM0, SPD_SDRAM_CYCLE_TIME_2ND) <= bank){ // we can manage max Mhz at CAS 2
if( smbus_read_byte(DIMM0, SPD_SDRAM_CYCLE_TIME_2ND) <= bank){ // we can manage max MHz at CAS 2
//print_debug("\nWe can do CAS 2");
c = 0x10;
}

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@ -21,12 +21,12 @@
/*
Automatically detect and set up ddr dram on the CLE266 chipset.
Assumes DDR memory, though chipset also supports SDRAM
Assumes at least 266Mhz memory as no attempt is made to clock
Assumes at least 266MHz memory as no attempt is made to clock
the chipset down if slower memory is installed.
So far tested on:
256 Mb 266Mhz 1 Bank (i.e. single sided)
256 Mb 266Mhz 2 Bank (i.e. double sided)
512 Mb 266Mhz 2 Bank (i.e. double sided)
256 Mb 266MHz 1 Bank (i.e. single sided)
256 Mb 266MHz 2 Bank (i.e. double sided)
512 Mb 266MHz 2 Bank (i.e. double sided)
*/
/* ported and enhanced from assembler level code in coreboot v1 */
@ -199,13 +199,13 @@ static void ddr_ram_setup(const struct mem_controller *ctrl)
c = 0x30;
/* see if we can better it */
if( b & 0x08 ){ // DDR mandatory CAS 2.5
if( smbus_read_byte(DIMM0,23) <= 0x75 ){ // we can manage 133Mhz at CAS 2.5
if( smbus_read_byte(DIMM0,23) <= 0x75 ){ // we can manage 133MHz at CAS 2.5
print_debug("\nWe can do CAS 2.5");
c = 0x20;
}
}
if( b & 0x04 ){ // DDR mandatory CAS 2
if( smbus_read_byte(DIMM0,25) <= 0x75 ){ // we can manage 133Mhz at CAS 2
if( smbus_read_byte(DIMM0,25) <= 0x75 ){ // we can manage 133MHz at CAS 2
print_debug("\nWe can do CAS 2");
c = 0x10;
}
@ -214,7 +214,7 @@ static void ddr_ram_setup(const struct mem_controller *ctrl)
print_debug("\nStarting at CAS 2.5");
c = 0x20; // assume CAS 2.5
if( b & 0x04){ // Should always happen
if( smbus_read_byte(DIMM0,23) <= 0x75){ // we can manage 133Mhz at CAS 2
if( smbus_read_byte(DIMM0,23) <= 0x75){ // we can manage 133MHz at CAS 2
print_debug("\nWe can do CAS 2");
c = 0x10;
}
@ -308,7 +308,7 @@ static void ddr_ram_setup(const struct mem_controller *ctrl)
/*
CPU Frequency Device 0 Offset 54
CPU Frequency 54[7,6] bootstraps at 0xc0 (133Mhz)
CPU Frequency 54[7,6] bootstraps at 0xc0 (133MHz)
DRAM burst length = 8 54[5]
*/
pci_write_config8(north,0x54,0xe0);
@ -567,10 +567,10 @@ static void ddr_ram_setup(const struct mem_controller *ctrl)
Rx69 (DRAM freq) Rx58 (chip tech) Rx6a
133Mhz 64/128Mb 0x86
133Mhz 256/512Mb 0x43
100Mhz 64/128Mb 0x65
100Mhz 256/512Mb 0x32
133MHz 64/128Mb 0x86
133MHz 256/512Mb 0x43
100MHz 64/128Mb 0x65
100MHz 256/512Mb 0x32
*/
b = pci_read_config8(north,0x58);

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@ -265,14 +265,14 @@ void SetUMARam(void)
outb(0x68, 0x03c4);
outb(VgaPortVal, 0x03c5);
// ECLK Selection (00:166Mhz, 01:185Mhz, 10:250Mhz, 11:275Mhz)
// ECLK Selection (00:166MHz, 01:185MHz, 10:250MHz, 11:275MHz)
// set 3C5.5A[0]=1, address maps to secondary resgiters
outb(0x5a, 0x03c4);
ByteVal = inb(0x03c5);
ByteVal |= 0x01;
outb(ByteVal, 0x03c5);
// Set 3D5.4C[7:6] (00:166Mhz, 01:185Mhz, 10:250Mhz, 11:275Mhz)
// Set 3D5.4C[7:6] (00:166MHz, 01:185MHz, 10:250MHz, 11:275MHz)
outb(0x4c, 0x03d4);
ByteVal = inb(0x03d5);
ByteVal = (ByteVal & 0x3F) | 0x80;

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@ -334,7 +334,7 @@ static void chrome9hd_enable(device_t dev)
{
device_t mcu = dev_find_device(PCI_VENDOR_ID_VIA,
PCI_DEVICE_ID_VIA_VX900_MEMCTRL, 0);
/* FIXME: here? -=- ACLK 250Mhz */
/* FIXME: here? -=- ACLK 250MHz */
pci_mod_config8(mcu, 0xbb, 0, 0x01);
}

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@ -186,20 +186,20 @@ static u8 get_nb_rev(device_t nb_dev)
*****************************************/
static const u8 rs780_ibias[] = {
/* 1, 3 are reserved. */
[0x0] = 0x4C, /* 200Mhz HyperTransport 1 only */
[0x2] = 0x4C, /* 400Mhz HyperTransport 1 only */
[0x4] = 0xB6, /* 600Mhz HyperTransport 1 only */
[0x5] = 0x4C, /* 800Mhz HyperTransport 1 only */
[0x6] = 0x9D, /* 1Ghz HyperTransport 1 only */
[0x0] = 0x4C, /* 200MHz HyperTransport 1 only */
[0x2] = 0x4C, /* 400MHz HyperTransport 1 only */
[0x4] = 0xB6, /* 600MHz HyperTransport 1 only */
[0x5] = 0x4C, /* 800MHz HyperTransport 1 only */
[0x6] = 0x9D, /* 1GHz HyperTransport 1 only */
/* HT3 for Family 10 */
[0x7] = 0xB6, /* 1.2Ghz HyperTransport 3 only */
[0x8] = 0x2B, /* 1.4Ghz HyperTransport 3 only */
[0x9] = 0x4C, /* 1.6Ghz HyperTransport 3 only */
[0xa] = 0x6C, /* 1.8Ghz HyperTransport 3 only */
[0xb] = 0x9D, /* 2.0Ghz HyperTransport 3 only */
[0xc] = 0xAD, /* 2.2Ghz HyperTransport 3 only */
[0xd] = 0xB6, /* 2.4Ghz HyperTransport 3 only */
[0xe] = 0xC6, /* 2.6Ghz HyperTransport 3 only */
[0x7] = 0xB6, /* 1.2GHz HyperTransport 3 only */
[0x8] = 0x2B, /* 1.4GHz HyperTransport 3 only */
[0x9] = 0x4C, /* 1.6GHz HyperTransport 3 only */
[0xa] = 0x6C, /* 1.8GHz HyperTransport 3 only */
[0xb] = 0x9D, /* 2.0GHz HyperTransport 3 only */
[0xc] = 0xAD, /* 2.2GHz HyperTransport 3 only */
[0xd] = 0xB6, /* 2.4GHz HyperTransport 3 only */
[0xe] = 0xC6, /* 2.6GHz HyperTransport 3 only */
};
static void rs780_htinit(void)

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@ -126,20 +126,20 @@ static u8 get_nb_rev(device_t nb_dev)
*****************************************/
static const u8 sr5650_ibias[] = {
/* 1, 3 are reserved. */
[0x0] = 0x44, /* 200Mhz HyperTransport 1 only */
[0x2] = 0x44, /* 400Mhz HyperTransport 1 only */
[0x4] = 0xB6, /* 600Mhz HyperTransport 1 only */
[0x5] = 0x44, /* 800Mhz HyperTransport 1 only */
[0x6] = 0x96, /* 1Ghz HyperTransport 1 only */
[0x0] = 0x44, /* 200MHz HyperTransport 1 only */
[0x2] = 0x44, /* 400MHz HyperTransport 1 only */
[0x4] = 0xB6, /* 600MHz HyperTransport 1 only */
[0x5] = 0x44, /* 800MHz HyperTransport 1 only */
[0x6] = 0x96, /* 1GHz HyperTransport 1 only */
/* HT3 for Family 10 */
[0x7] = 0xB6, /* 1.2Ghz HyperTransport 3 only */
[0x8] = 0x23, /* 1.4Ghz HyperTransport 3 only */
[0x9] = 0x44, /* 1.6Ghz HyperTransport 3 only */
[0xa] = 0x64, /* 1.8Ghz HyperTransport 3 only */
[0xb] = 0x96, /* 2.0Ghz HyperTransport 3 only */
[0xc] = 0xA6, /* 2.2Ghz HyperTransport 3 only */
[0xd] = 0xB6, /* 2.4Ghz HyperTransport 3 only */
[0xe] = 0xC6, /* 2.6Ghz HyperTransport 3 only */
[0x7] = 0xB6, /* 1.2GHz HyperTransport 3 only */
[0x8] = 0x23, /* 1.4GHz HyperTransport 3 only */
[0x9] = 0x44, /* 1.6GHz HyperTransport 3 only */
[0xa] = 0x64, /* 1.8GHz HyperTransport 3 only */
[0xb] = 0x96, /* 2.0GHz HyperTransport 3 only */
[0xc] = 0xA6, /* 2.2GHz HyperTransport 3 only */
[0xd] = 0xB6, /* 2.4GHz HyperTransport 3 only */
[0xe] = 0xC6, /* 2.6GHz HyperTransport 3 only */
};
void sr5650_htinit(void)