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:
parent
081651b667
commit
0f92f63055
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@ -219,10 +219,10 @@ static u32 set_fidvid(unsigned apicid, unsigned fidvid, int showmessage)
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else
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step = ((fid_cur / 2) - (fid_new / 2)) * 2;
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/* If 200Mhz step OR past 3200 max table value */
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/* If 200MHz step OR past 3200 max table value */
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if ((step == 2) || (fid_new >= 0x18 || fid_cur >= 0x18)) {
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printk(BIOS_DEBUG, "200MHZ step ");
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printk(BIOS_DEBUG, "200MHz step ");
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/* Step +/- 200MHz at a time */
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if (fid_cur < fid_new)
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@ -230,7 +230,7 @@ static u32 set_fidvid(unsigned apicid, unsigned fidvid, int showmessage)
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else
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fid_temp = fid_cur - 2;
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} else if (step > 2) { /* If more than a 200Mhz step */
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} else if (step > 2) { /* If more than a 200MHz step */
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int temp;
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/* look it up in the table */
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@ -246,15 +246,15 @@ static u32 set_fidvid(unsigned apicid, unsigned fidvid, int showmessage)
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else
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break; /* table error */
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} else { /* step < 2 (100MHZ) */
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printk(BIOS_DEBUG, "100MHZ step ");
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} else { /* step < 2 (100MHz) */
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printk(BIOS_DEBUG, "100MHz step ");
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/* The table adjust in 200MHz increments. If requested,
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* do the 100MHz increment if the CPU supports it.*/
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if (cpuid_edx(0x80000007) & (1 << 6)) {
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fid_temp = fid_cur + 1;
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} else {
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/* 100 MHZ not supported. Get out of the loop */
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/* 100 MHz not supported. Get out of the loop */
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printk(BIOS_DEBUG, "is not supported.\n");
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break;
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}
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@ -1518,7 +1518,7 @@ static void hammerSublinkFixup(sMainData *pDat)
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{
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if ((loFreq != 5) && /* { 9, 5} 1600MHz / 800MHz 2:1 */
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(loFreq != 2) && /* { 9, 2} 1600MHz / 400MHz 4:1 */
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(loFreq != 0) ) /* { 9, 0} 1600MHz / 200Mhz 8:1 */
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(loFreq != 0) ) /* { 9, 0} 1600MHz / 200MHz 8:1 */
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downgrade = TRUE;
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}
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else if (hiFreq == 7)
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@ -1384,7 +1384,7 @@ static void setLinkData(sMainData *pDat, cNorthBridge *nb)
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ASSERT((temp >= HT_FREQUENCY_600M && temp <= HT_FREQUENCY_2600M)
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|| (temp == HT_FREQUENCY_200M) || (temp == HT_FREQUENCY_400M));
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AmdPCIWriteBits(linkBase + HTHOST_FREQ_REV_REG, 11, 8, &temp);
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if (temp > HT_FREQUENCY_1000M) /* Gen1 = 200Mhz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz */
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if (temp > HT_FREQUENCY_1000M) /* Gen1 = 200MHz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz */
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{
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/* Enable for Gen3 frequencies */
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temp = 1;
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@ -1420,7 +1420,7 @@ static void setLinkData(sMainData *pDat, cNorthBridge *nb)
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/* Handle additional HT3 frequency requirements, if needed,
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* or clear them if switching down to ht1 on a warm reset.
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* Gen1 = 200Mhz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz
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* Gen1 = 200MHz -> 1000MHz, Gen3 = 1200MHz -> 2600MHz
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*
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* Even though we assert if debugging, we need to check that the capability was found
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* 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)
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id = pci_read_config32(dev, 0);
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/* AMD K8 Unsupported 1Ghz? */
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/* AMD K8 Unsupported 1GHz? */
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if (id == (PCI_VENDOR_ID_AMD | (0x1100 << 16))) {
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freq_cap &= ~(1 << HT_FREQ_1000Mhz);
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}
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@ -135,7 +135,7 @@ static uint16_t ht_read_freq_cap(device_t dev, uint8_t pos)
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return freq_cap;
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}
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/* AMD K8 Unsupported 1Ghz? */
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/* AMD K8 Unsupported 1GHz? */
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if (id == (PCI_VENDOR_ID_AMD | (0x1100 << 16))) {
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#if CONFIG_K8_HT_FREQ_1G_SUPPORT
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#if !CONFIG_K8_REV_F_SUPPORT
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@ -284,14 +284,14 @@ static void sdram_set_registers(const struct mem_controller *ctrl)
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* 111 = reserved
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* [ 7: 7] Reserved
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* [12: 8] Tref (Refresh Rate)
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* 00000 = 100Mhz 4K rows
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* 00001 = 133Mhz 4K rows
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* 00010 = 166Mhz 4K rows
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* 00011 = 200Mhz 4K rows
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* 01000 = 100Mhz 8K/16K rows
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* 01001 = 133Mhz 8K/16K rows
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* 01010 = 166Mhz 8K/16K rows
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* 01011 = 200Mhz 8K/16K rows
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* 00000 = 100MHz 4K rows
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* 00001 = 133MHz 4K rows
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* 00010 = 166MHz 4K rows
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* 00011 = 200MHz 4K rows
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* 01000 = 100MHz 8K/16K rows
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* 01001 = 133MHz 8K/16K rows
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* 01010 = 166MHz 8K/16K rows
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* 01011 = 200MHz 8K/16K rows
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* [19:13] Reserved
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* [22:20] Twcl (Write CAS Latency)
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* 000 = 1 Mem clock after CAS# (Unbuffered Dimms)
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@ -414,12 +414,12 @@ static void sdram_set_registers(const struct mem_controller *ctrl)
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* 0 = Use Idle Cycle Limit
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* 1 = Generate a dynamic Idle cycle limit
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* [22:20] DRAM MEMCLK Frequency
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* 000 = 100Mhz
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* 000 = 100MHz
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* 001 = reserved
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* 010 = 133Mhz
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* 010 = 133MHz
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* 011 = reserved
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* 100 = reserved
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* 101 = 166Mhz
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* 101 = 166MHz
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* 110 = reserved
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* 111 = reserved
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* [24:23] Reserved
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@ -28,8 +28,8 @@
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#define J_MIN 0 /* j loop constraint. 1=CL 2.0 T*/
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#define J_MAX 4 /* j loop constraint. 4=CL 6.0 T*/
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#define K_MIN 1 /* k loop constraint. 1=200 Mhz*/
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#define K_MAX 4 /* k loop constraint. 9=400 Mhz*/
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#define K_MIN 1 /* k loop constraint. 1=200 MHz*/
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#define K_MAX 4 /* k loop constraint. 9=400 MHz*/
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#define CL_DEF 2 /* Default value for failsafe operation. 2=CL 4.0 T*/
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#define T_DEF 1 /* Default value for failsafe operation. 1=5ns (cycle time)*/
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@ -236,10 +236,10 @@ struct DCTStatStruc { /* A per Node structure*/
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u8 DATAload[2]; /* Number of ranks loading CH A DATA*/
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/* Number of ranks loading CH B DATA*/
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u8 DIMMAutoSpeed; /* Max valid Mfg. Speed of DIMMs
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1=200Mhz
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2=266Mhz
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3=333Mhz
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4=400Mhz */
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1=200MHz
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2=266MHz
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3=333MHz
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4=400MHz */
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u8 DIMMCASL; /* Min valid Mfg. CL bitfield
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0=2.0
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1=3.0
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@ -255,10 +255,10 @@ struct DCTStatStruc { /* A per Node structure*/
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u16 DIMMTrrd; /* Minimax Trrd*40 (ns) of DIMMs*/
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u16 DIMMTwtr; /* Minimax Twtr*40 (ns) of DIMMs*/
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u8 Speed; /* Bus Speed (to set Controller)
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1=200Mhz
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2=266Mhz
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3=333Mhz
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4=400Mhz */
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1=200MHz
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2=266MHz
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3=333MHz
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4=400MHz */
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u8 CASL; /* CAS latency DCT setting
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0=2.0
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1=3.0
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@ -288,10 +288,10 @@ struct DCTStatStruc { /* A per Node structure*/
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u32 DCTHoleBase; /* If not zero, BASE[39:8] (system address) of dram hole for HW remapping. Dram hole exists on this Node's DCTs. */
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u32 DCTSysLimit; /* LIMIT[39:8] (system address) of this Node's DCTs */
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u16 PresetmaxFreq; /* Maximum OEM defined DDR frequency
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200=200Mhz (DDR400)
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266=266Mhz (DDR533)
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333=333Mhz (DDR667)
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400=400Mhz (DDR800) */
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200=200MHz (DDR400)
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266=266MHz (DDR533)
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333=333MHz (DDR667)
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400=400MHz (DDR800) */
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u8 _2Tmode; /* 1T or 2T CMD mode (slow access mode)
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1=1T
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2=2T */
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@ -408,10 +408,10 @@ struct DCTStatStruc { /* A per Node structure*/
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#define NV_MAX_NODES 1 /* Number of Nodes/Sockets (4-bits)*/
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#define NV_MAX_DIMMS 2 /* Number of DIMM slots for the specified Node ID (4-bits)*/
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#define NV_MAX_MEMCLK 3 /* Maximum platform demonstrated Memclock (10-bits)
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200=200Mhz (DDR400)
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266=266Mhz (DDR533)
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333=333Mhz (DDR667)
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400=400Mhz (DDR800)*/
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200=200MHz (DDR400)
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266=266MHz (DDR533)
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333=333MHz (DDR667)
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400=400MHz (DDR800)*/
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#define NV_ECC_CAP 4 /* Bus ECC capable (1-bits)
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0=Platform not capable
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1=Platform is capable*/
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@ -433,10 +433,10 @@ struct DCTStatStruc { /* A per Node structure*/
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1=Auto, user limit provided in NV_MemCkVal
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2=Manual, user value provided in NV_MemCkVal*/
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#define NV_MemCkVal 11 /* Memory Clock Value (2-bits)
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0=200Mhz
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1=266Mhz
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2=333Mhz
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3=400Mhz*/
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0=200MHz
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1=266MHz
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2=333MHz
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3=400MHz*/
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/* Dram Configuration */
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#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,
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* entry
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* 6. All var MTRRs reset to zero
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* 7. State of NB_CFG.DisDatMsk set properly on all CPUs
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* 8. All CPUs at 2Ghz Speed (unless DQS training is not installed).
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* 8. All CPUs at 2GHz Speed (unless DQS training is not installed).
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* 9. All cHT links at max Speed/Width (unless DQS training is not
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* installed).
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*
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* j CL(j) k F(k)
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* --------------------------
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* 0 2.0 - -
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* 1 3.0 1 200 Mhz
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* 2 4.0 2 266 Mhz
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* 3 5.0 3 333 Mhz
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* 4 6.0 4 400 Mhz
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* 5 7.0 5 533 Mhz
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* 1 3.0 1 200 MHz
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* 2 4.0 2 266 MHz
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* 3 5.0 3 333 MHz
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* 4 6.0 4 400 MHz
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* 5 7.0 5 533 MHz
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*/
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u8 Node, NodesWmem;
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u32 node_sys_base;
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@ -437,9 +437,9 @@ static void LoadDQSSigTmgRegs_D(struct MCTStatStruc *pMCTstat,
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* when 400, 533, 667, it will support dimm0/1/2/3,
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* and set conf for dimm0, hw will copy to dimm1/2/3
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* set for dimm1, hw will copy to dimm3
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* Rev A/B only support DIMM0/1 when 800Mhz and above
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* Rev A/B only support DIMM0/1 when 800MHz and above
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* + 0x100 to next dimm
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* Rev C support DIMM0/1/2/3 when 800Mhz and above
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* Rev C support DIMM0/1/2/3 when 800MHz and above
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* + 0x100 to next dimm
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*/
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for (DIMM = 0; DIMM < 2; DIMM++) {
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@ -3615,7 +3615,7 @@ static void mct_BeforeDramInit_Prod_D(struct MCTStatStruc *pMCTstat,
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u32 dev = pDCTstat->dev_dct;
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// FIXME: skip for Ax
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if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533Mhz
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if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533MHz
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for (i=0; i < 2; i++) {
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reg_off = 0x100 * i;
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Set_NB32(dev, 0x98 + reg_off, 0x0D000030);
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@ -3630,7 +3630,7 @@ static void mct_AdjustDelayRange_D(struct MCTStatStruc *pMCTstat,
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struct DCTStatStruc *pDCTstat, u8 *dqs_pos)
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{
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// FIXME: Skip for Ax
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if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533Mhz
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if ((pDCTstat->Speed == 3) || ( pDCTstat->Speed == 2)) { // MemClkFreq = 667MHz or 533MHz
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*dqs_pos = 32;
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}
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}
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@ -35,8 +35,8 @@
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#define J_MIN 0 /* j loop constraint. 1=CL 2.0 T*/
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#define J_MAX 5 /* j loop constraint. 5=CL 7.0 T*/
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#define K_MIN 1 /* k loop constraint. 1=200 Mhz*/
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#define K_MAX 5 /* k loop constraint. 5=533 Mhz*/
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#define K_MIN 1 /* k loop constraint. 1=200 MHz*/
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#define K_MAX 5 /* k loop constraint. 5=533 MHz*/
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#define CL_DEF 2 /* Default value for failsafe operation. 2=CL 4.0 T*/
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#define T_DEF 1 /* Default value for failsafe operation. 1=5ns (cycle time)*/
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@ -325,11 +325,11 @@ struct DCTStatStruc { /* A per Node structure*/
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u8 DATAload[2]; /*Number of ranks loading CH A DATA*/
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/* Number of ranks loading CH B DATA*/
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u8 DIMMAutoSpeed; /*Max valid Mfg. Speed of DIMMs
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1=200Mhz
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2=266Mhz
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3=333Mhz
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4=400Mhz
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5=533Mhz*/
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1=200MHz
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2=266MHz
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3=333MHz
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4=400MHz
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5=533MHz*/
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u8 DIMMCASL; /* Min valid Mfg. CL bitfield
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0=2.0
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1=3.0
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@ -345,10 +345,10 @@ struct DCTStatStruc { /* A per Node structure*/
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u16 DIMMTrrd; /* Minimax Trrd*40 (ns) of DIMMs*/
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u16 DIMMTwtr; /* Minimax Twtr*40 (ns) of DIMMs*/
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u8 Speed; /* Bus Speed (to set Controller)
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1=200Mhz
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2=266Mhz
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3=333Mhz
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4=400Mhz */
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1=200MHz
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2=266MHz
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3=333MHz
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4=400MHz */
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u8 CASL; /* CAS latency DCT setting
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0=2.0
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1=3.0
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@ -378,10 +378,10 @@ struct DCTStatStruc { /* A per Node structure*/
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u32 DCTHoleBase; /* If not zero, BASE[39:8] (system address) of dram hole for HW remapping. Dram hole exists on this Node's DCTs. */
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u32 DCTSysLimit; /* LIMIT[39:8] (system address) of this Node's DCTs */
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u16 PresetmaxFreq; /* Maximum OEM defined DDR frequency
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200=200Mhz (DDR400)
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266=266Mhz (DDR533)
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333=333Mhz (DDR667)
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400=400Mhz (DDR800) */
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200=200MHz (DDR400)
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266=266MHz (DDR533)
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333=333MHz (DDR667)
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400=400MHz (DDR800) */
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u8 _2Tmode; /* 1T or 2T CMD mode (slow access mode)
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1=1T
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2=2T */
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@ -476,9 +476,9 @@ struct DCTStatStruc { /* A per Node structure*/
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u8 WrDatGrossH;
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u8 DqsRcvEnGrossL;
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// NOTE: Not used - u8 NodeSpeed /* Bus Speed (to set Controller)
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/* 1=200Mhz */
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/* 2=266Mhz */
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/* 3=333Mhz */
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/* 1=200MHz */
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/* 2=266MHz */
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/* 3=333MHz */
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// NOTE: Not used - u8 NodeCASL /* CAS latency DCT setting
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/* 0=2.0 */
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/* 1=3.0 */
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@ -574,10 +574,10 @@ struct DCTStatStruc { /* A per Node structure*/
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#define NV_MAX_NODES 1 /* Number of Nodes/Sockets (4-bits)*/
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#define NV_MAX_DIMMS 2 /* Number of DIMM slots for the specified Node ID (4-bits)*/
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#define NV_MAX_MEMCLK 3 /* Maximum platform demonstrated Memclock (10-bits)
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200=200Mhz (DDR400)
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266=266Mhz (DDR533)
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333=333Mhz (DDR667)
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400=400Mhz (DDR800)*/
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200=200MHz (DDR400)
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266=266MHz (DDR533)
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333=333MHz (DDR667)
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400=400MHz (DDR800)*/
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#define NV_ECC_CAP 4 /* Bus ECC capable (1-bits)
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0=Platform not capable
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1=Platform is capable*/
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@ -599,10 +599,10 @@ struct DCTStatStruc { /* A per Node structure*/
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1=Auto, user limit provided in NV_MemCkVal
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2=Manual, user value provided in NV_MemCkVal*/
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#define NV_MemCkVal 11 /* Memory Clock Value (2-bits)
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0=200Mhz
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1=266Mhz
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2=333Mhz
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3=400Mhz*/
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0=200MHz
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1=266MHz
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2=333MHz
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3=400MHz*/
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/*Dram Configuration*/
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#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 */
|
||||
|
|
|
@ -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;
|
||||
|
|
|
@ -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++) {
|
||||
|
|
|
@ -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)
|
||||
|
|
|
@ -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 */
|
||||
|
|
|
@ -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;
|
||||
|
|
|
@ -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 */
|
||||
|
|
|
@ -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 */
|
||||
|
||||
|
|
|
@ -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 */
|
||||
|
||||
|
|
|
@ -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 */
|
||||
|
|
|
@ -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 */
|
||||
|
|
|
@ -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 */
|
||||
|
|
|
@ -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);
|
||||
|
|
|
@ -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) {
|
||||
|
|
|
@ -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;
|
||||
}
|
||||
|
|
|
@ -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);
|
||||
|
|
|
@ -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;
|
||||
|
|
|
@ -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);
|
||||
}
|
||||
|
||||
|
|
|
@ -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)
|
||||
|
|
|
@ -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)
|
||||
|
|
Loading…
Reference in New Issue