arm-trusted-firmware/drivers/st/ddr/phy/firmware/include/mnpmusrammsgblock_lpddr4.h
Nicolas Le Bayon 79629b1a79 feat(st-ddr): add STM32MP2 driver
Add driver to support DDR on STM32MP2 platform. It drives the DDR PHY
and its firmware, as well as the DDR controller.

Signed-off-by: Nicolas Le Bayon <nicolas.le.bayon@st.com>
Signed-off-by: Maxime Méré <maxime.mere@foss.st.com>
Change-Id: I93de2db1b9378d5654e76b3bf6f3407d80bc4ca5
2024-10-09 15:09:11 +02:00

925 lines
36 KiB
C

/*
* Copyright (C) 2021-2024, STMicroelectronics - All Rights Reserved
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef MNPMUSRAMMSGBLOCK_LPDDR4_H
#define MNPMUSRAMMSGBLOCK_LPDDR4_H
/* LPDDR4_1D training firmware message block structure
*
* Please refer to the Training Firmware App Note for futher information about
* the usage for Message Block.
*/
struct pmu_smb_ddr_1d {
uint8_t reserved00; /*
* Byte offset 0x00, CSR Addr 0x54000, Direction=In
* reserved00[0:4] RFU, must be zero
*
* reserved00[5] = Quick Rd2D during 1D Training
* 0x1 = Read Deskew will begin by enabling and quickly
* training the phy's per-lane reference voltages.
* Training the vrefDACs CSRs will increase the maximum 1D
* training time by around half a millisecond, but will
* improve 1D training accuracy on systems with
* significant voltage-offsets between lane read eyes.
* 0x0 = Read Deskew will assume the messageblock's
* phyVref setting is optimal for all lanes.
*
* reserved00[6] = Enable High Effort WrDQ1D
* 0x1 = WrDQ1D will conditionally retry training at
* several extra RxClkDly Timings. This will increase the
* maximum 1D training time by up to 4 extra iterations of
* WrDQ1D. This is only required in systems that suffer
* from very large, asymmetric eye-collapse when receiving
* PRBS patterns.
* 0x0 = WrDQ1D assume rxClkDly values found by SI
* Friendly RdDqs1D will work for receiving PRBS patterns
*
* reserved00[7] = Optimize for the special hard macros in
* TSMC28.
* 0x1 = set if the phy being trained was manufactured in
* any TSMC28 process node.
* 0x0 = otherwise, when not training a TSMC28 phy, leave
* this field as 0.
*/
uint8_t msgmisc; /*
* Byte offset 0x01, CSR Addr 0x54000, Direction=In
* Contains various global options for training.
*
* Bit fields:
*
* msgmisc[0] MTESTEnable
* 0x1 = Pulse primary digital test output bump at the end
* of each major training stage. This enables observation
* of training stage completion by observing the digital
* test output.
* 0x0 = Do not pulse primary digital test output bump
*
* msgmisc[1] SimulationOnlyReset
* 0x1 = Verilog only simulation option to shorten
* duration of DRAM reset pulse length to 1ns.
* Must never be set to 1 in silicon.
* 0x0 = Use reset pulse length specified by JEDEC
* standard.
*
* msgmisc[2] SimulationOnlyTraining
* 0x1 = Verilog only simulation option to shorten the
* duration of the training steps by performing fewer
* iterations.
* Must never be set to 1 in silicon.
* 0x0 = Use standard training duration.
*
* msgmisc[3] Disable Boot Clock
* 0x1 = Disable boot frequency clock when initializing
* DRAM. (not recommended)
* 0x0 = Use Boot Frequency Clock
*
* msgmisc[4] Suppress streaming messages, including
* assertions, regardless of hdtctrl setting.
* Stage Completion messages, as well as training completion
* and error messages are still sent depending on hdtctrl
* setting.
*
* msgmisc[5] PerByteMaxRdLat
* 0x1 = Each DBYTE will return dfi_rddata_valid at the
* lowest possible latency. This may result in unaligned
* data between bytes to be returned to the DFI.
* 0x0 = Every DBYTE will return dfi_rddata_valid
* simultaneously. This will ensure that data bytes will
* return aligned accesses to the DFI.
*
* msgmisc[7-6] RFU, must be zero
*
* Notes:
*
* - SimulationOnlyReset and SimulationOnlyTraining can be
* used to speed up simulation run times, and must never
* be used in real silicon. Some VIPs may have checks on
* DRAM reset parameters that may need to be disabled when
* using SimulationOnlyReset.
*/
uint16_t pmurevision; /*
* Byte offset 0x02, CSR Addr 0x54001, Direction=Out
* PMU firmware revision ID
* After training is run, this address will contain the
* revision ID of the firmware
*/
uint8_t pstate; /*
* Byte offset 0x04, CSR Addr 0x54002, Direction=In
* Must be set to the target pstate to be trained
* 0x0 = pstate 0
* 0x1 = pstate 1
* 0x2 = pstate 2
* 0x3 = pstate 3
* All other encodings are reserved
*/
uint8_t pllbypassen; /*
* Byte offset 0x05, CSR Addr 0x54002, Direction=In
* Set according to whether target pstate uses PHY PLL
* bypass
* 0x0 = PHY PLL is enabled for target pstate
* 0x1 = PHY PLL is bypassed for target pstate
*/
uint16_t dramfreq; /*
* Byte offset 0x06, CSR Addr 0x54003, Direction=In
* DDR data rate for the target pstate in units of MT/s.
* For example enter 0x0640 for DDR1600.
*/
uint8_t dfifreqratio; /*
* Byte offset 0x08, CSR Addr 0x54004, Direction=In
* Frequency ratio betwen DfiCtlClk and SDRAM memclk.
* 0x1 = 1:1
* 0x2 = 1:2
* 0x4 = 1:4
*/
uint8_t bpznresval; /*
* Byte offset 0x09, CSR Addr 0x54004, Direction=In
* Overwrite the value of precision resistor connected to
* Phy BP_ZN
* 0x00 = Do not program. Use current CSR value.
* 0xf0 = 240 Ohm
* 0x78 = 120 Ohm
* 0x28 = 40 Ohm
* All other values are reserved.
* It is recommended to set this to 0x00.
*/
uint8_t phyodtimpedance; /*
* Byte offset 0x0a, CSR Addr 0x54005, Direction=In
* Must be programmed to the termination impedance in ohms
* used by PHY during reads.
*
* 0x0 = Firmware skips programming (must be manually
* programmed by user prior to training start)
*
* See PHY databook for legal termination impedance values.
*
* For digital simulation, any legal value can be used. For
* silicon, the users must determine the correct value
* through SI simulation or other methods.
*/
uint8_t phydrvimpedance; /*
* Byte offset 0x0b, CSR Addr 0x54005, Direction=In
* Must be programmed to the driver impedance in ohms used
* by PHY during writes for all DBYTE drivers
* (DQ/DM/DBI/DQS).
*
* 0x0 = Firmware skips programming (must be manually
* programmed by user prior to training start)
*
* See PHY databook for legal R_on driver impedance values.
*
* For digital simulation, any value can be used that is not
* Hi-Z. For silicon, the users must determine the correct
* value through SI simulation or other methods.
*/
uint8_t phyvref; /*
* Byte offset 0x0c, CSR Addr 0x54006, Direction=In
* Must be programmed with the Vref level to be used by the
* PHY during reads
*
* The units of this field are a percentage of VDDQ
* according to the following equation:
*
* Receiver Vref = VDDQ*phyvref[6:0]/128
*
* For example to set Vref at 0.25*VDDQ, set this field to
* 0x20.
*
* For digital simulation, any legal value can be used. For
* silicon, the users must calculate the analytical Vref by
* using the impedances, terminations, and series resistance
* present in the system.
*/
uint8_t lp4misc; /*
* Byte offset 0x0d, CSR Addr 0x54006, Direction=In
* Lp4 specific options for training.
*
* Bit fields:
*
* lp4misc[0] Enable dfi_reset_n
*
* 0x0 = (Recommended) PHY internal registers control
* memreset during training, and also after training.
* dfi_reset_n cannot control the PHY BP_MEMRESET_L pin.
*
* 0x1 = Enables dfi_reset_n to control memreset after
* training. PHY Internal registers control memreset
* during training only. To ensure that no glitches occur
* on BP_MEMRESET at the end of training, The MC must
* drive dfi_reset_n=1'b1 _prior to starting training_
*
* lp4misc[7-1] RFU, must be zero
*/
uint8_t reserved0e; /*
* Byte offset 0x0e, CSR Addr 0x54007, Direction=In
* Bit Field for enabling optional 2D training features
* that impact both Rx2D and Tx2D.
*
* reserved0E[0:3]: bitTimeControl
* input for the amount of data bits 2D writes/reads per DQ
* before deciding if any specific voltage and delay setting
* passes or fails. Every time this input increases by 1,
* the number of 2D data comparisons is doubled. The 2D run
* time will increase proportionally to the number of bit
* times requested per point.
* 0 = 288 bits per point (legacy behavior)
* 1 = 576 bits per point
* 2 = 1.125 kilobits per point
* . . .
* 15 = 9 megabits per point
*
* reserved0E[4]: Exhaustive2D
* 0 = 2D optimization assumes the optimal trained point
* is near the 1D trained point (legacy behavior)
* 1 = 2D optimization searches the entire passing region
* at the cost of run time. Recommended for optimal
* results any time the optimal trained point is expected
* to be near the edges of the eyes instead of near the 1D
* trained point.
*
* reserved0E[5]: Detect Vref Eye Truncation, ignored if
* eyeWeight2DControl == 0.
* 0 = 2D optimizes for the passing region it can measure.
* 1 = For every eye, 2D checks If the legal voltage range
* truncated the eye. If the true voltage margin cannot be
* measured, 2D will optimize heavily for delay margin
* instead of using incomplete voltage margin data. Eyes
* that are not truncated will still be optimized using
* user programmed weights.
*
* reserved0E[6]: eyeWeight2DControl
* 0 = Use 8 bit weights for Delay_Weight2D and
* Voltage_Weight2D and disable TrunkV behavior.
* 1 = Use 4 bit weights for Delay_weight2D and
* Voltage_Weight2D and enable TrunkV behavior.
*
* reserved0E[7]: RFU, must be 0
*/
uint8_t cstestfail; /*
* Byte offset 0x0f, CSR Addr 0x54007, Direction=Out
* This field will be set if training fails on any rank.
* 0x0 = No failures
* non-zero = one or more ranks failed training
*/
uint16_t sequencectrl; /*
* Byte offset 0x10, CSR Addr 0x54008, Direction=In
* Controls the training steps to be run. Each bit
* corresponds to a training step.
*
* If the bit is set to 1, the training step will run.
* If the bit is set to 0, the training step will be
* skipped.
*
* Training step to bit mapping:
* sequencectrl[0] = Run DevInit - Device/phy
* initialization. Should always be set.
* sequencectrl[1] = Run WrLvl - Write leveling
* sequencectrl[2] = Run RxEn - Read gate training
* sequencectrl[3] = Run RdDQS1D - 1d read dqs training
* sequencectrl[4] = Run WrDQ1D - 1d write dq training
* sequencectrl[5] = RFU, must be zero
* sequencectrl[6] = RFU, must be zero
* sequencectrl[7] = RFU, must be zero
* sequencectrl[8] = Run RdDeskew - Per lane read dq deskew
* training
* sequencectrl[9] = Run MxRdLat - Max read latency training
* sequencectrl[11-10] = RFU, must be zero
* sequencectrl[12] = Run LPCA - CA Training
* sequencectrl[15-13] = RFU, must be zero
*/
uint8_t hdtctrl; /*
* Byte offset 0x12, CSR Addr 0x54009, Direction=In
* To control the total number of debug messages, a
* verbosity subfield (hdtctrl, Hardware Debug Trace
* Control) exists in the message block. Every message has a
* verbosity level associated with it, and as the hdtctrl
* value is increased, less important s messages stop being
* sent through the mailboxes. The meanings of several major
* hdtctrl thresholds are explained below:
*
* 0x04 = Maximal debug messages (e.g., Eye contours)
* 0x05 = Detailed debug messages (e.g. Eye delays)
* 0x0A = Coarse debug messages (e.g. rank information)
* 0xC8 = Stage completion
* 0xC9 = Assertion messages
* 0xFF = Firmware completion messages only
*/
uint8_t reserved13; /*
* Byte offset 0x13, CSR Addr 0x54009, Direction=In
*
* 0 = Default operation, unchanged.
* Others = RD DQ calibration Training steps are completed
* with user specified pattern.
*/
uint8_t reserved14; /*
* Byte offset 0x14, CSR Addr 0x5400a, Direction=In
* Configure rd2D search iteration from a starting seed
* point:
*
* reserved14[5:0]: If reserved14[6] is 0, Number of search
* iterations (if 0, then default is 20); otherwise if this
* value non zero, this value is used as a delta to filter
* out points during the averaging: when averaging over a
* dimension (delay or voltage), the points having a margin
* smaller than the max of the eye in this dimension by at
* least this delta value are filtered out.
*
* reserved14[6]: If set, instead of search, extract center
* using an averaging function over the eye surface area,
* where some points can be filtered out using
* reserved14[5:0]
*
* reserved14[7]: if set, start search with large step size,
* decreasing at each 4 iterations, down to 1 (do not care
* if reserved14[6] is set)
*/
uint8_t reserved15; /*
* Byte offset 0x15, CSR Addr 0x5400a, Direction=In
* Configure wr2D search iteration from a starting seed
* point:
*
* reserved15[5:0]: If reserved15[6] is 0, Number of search
* iterations (if 0, then default is 20); otherwise if this
* value non zero, this value is used as a delta to filter
* out points during the averaging: when averaging over a
* dimension (delay or voltage), the points having a margin
* smaller than the max of the eye in this dimension by at
* least this delta value are filtered out.
*
* reserved15[6]: If set, instead of search, extract center
* using an averaging function over the eye surface area,
* where some points can be filtered out using
* reserved15[5:0]
*
* reserved15[7]: if set, start search with large step size,
* decreasing at each 4 iterations, down to 1 (do not care
* if reserved15[6] is set)
*/
uint8_t dfimrlmargin; /*
* Byte offset 0x16, CSR Addr 0x5400b, Direction=In
* Margin added to smallest passing trained DFI Max Read
* Latency value, in units of DFI clocks. Recommended to be
* >= 1.
*
* This margin must include the maximum positive drift
* expected in tDQSCK over the target temperature and
* voltage range of the users system.
*/
uint8_t reserved17; /*
* Byte offset 0x17, CSR Addr 0x5400b, Direction=In
* Configure DB from which extra info is dump during 2D
* training when maximal debug is set:
*
* reserved17[3:0]: first DB
*
* reserved17[7:4]: number of DB, including first DB (if 0,
* no extra debug per DB is dump)
*/
uint8_t usebroadcastmr; /*
* Byte offset 0x18, CSR Addr 0x5400c, Direction=In
* Training firmware can optionally set per rank mode
* register values for DRAM partial array self-refresh
* features if desired.
*
* 0x0 = Use mr<1:4, 11:14, 16:17, 22, 24>_a0 for rank 0
* channel A
* Use mr<1:4, 11:14, 16:17, 22, 24>_b0 for rank 0
* channel B
* Use mr<1:4, 11:14, 16:17, 22, 24>_a1 for rank 1
* channel A
* Use mr<1:4, 11:14, 16:17, 22, 24>_b1 for rank 1
* channel B
*
* 0x1 = Use mr<1:4, 11:14, 16:17, 22, 24>_a0 setting for
* all channels/ranks
*
* It is recommended in most LPDDR4 system configurations
* to set this to 1.
* It is recommended in LPDDR4x system configurations to
* set this to 0.
*/
uint8_t lp4quickboot; /*
* Byte offset 0x19, CSR Addr 0x5400c, Direction=In
* Enable Quickboot. It must be set to 0x0 since Quickboot
* is only supported in dedicated Quickboot firmware.
*/
uint8_t reserved1a; /*
* Byte offset 0x1a, CSR Addr 0x5400d, Direction=In
* Input for constraining the range of vref(DQ) values
* training will collect data for, usually reducing training
* time. However, too large of a voltage range may cause
* longer 2D training times while too small of a voltage
* range may truncate passing regions. When in doubt, leave
* this field set to 0.
* Used by 2D stages: Rd2D, Wr2D
*
* reserved1A[0-3]: Rd2D Voltage Range
* 0 = Training will search all phy vref(DQ) settings
* 1 = limit to +/-2 %VDDQ from phyVref
* 2 = limit to +/-4 %VDDQ from phyVref
* . . .
* 15 = limit to +/-30% VDDQ from phyVref
*
* reserved1A[4-7]: Wr2D Voltage Range
* 0 = Training will search all dram vref(DQ) settings
* 1 = limit to +/-2 %VDDQ from mr14
* 2 = limit to +/-4 %VDDQ from mr14
* . . .
* 15 = limit to +/-30% VDDQ from mr14
*/
uint8_t catrainopt; /*
* Byte offset 0x1b, CSR Addr 0x5400d, Direction=In
* CA training option bit field
* [0] CA VREF Training
* 1 = Enable CA VREF Training
* 0 = Disable CA VREF Training
* WARNING: catrainopt[0] must be set to the same value in
* 1D and 2D training.
*
* [1] Train terminated Rank only
* 1 = Only train terminated rank in CA training
* 0 = Train all ranks in CA training
*
* [2-7] RFU must be zero
*/
uint8_t x8mode; /*
* Byte offset 0x1c, CSR Addr 0x5400e, Direction=In
* X8 mode configuration:
* 0x0 = x16 configuration for all devices
* 0xF = x8 configuration for all devices
* All other values are RFU
*/
uint8_t reserved1d; /* Byte offset 0x1d, CSR Addr 0x5400e, Direction=N/A */
uint8_t reserved1e; /* Byte offset 0x1e, CSR Addr 0x5400f, Direction=N/A */
uint8_t share2dvrefresult; /*
* Byte offset 0x1f, CSR Addr 0x5400f, Direction=In
* Bitmap that designates the phy's vref source for every
* pstate
* If share2dvrefresult[x] = 0, then after 2D training,
* pstate x will continue using the phyVref provided in
* pstate x's 1D messageblock.
* If share2dvrefresult[x] = 1, then after 2D training,
* pstate x will use the per-lane VrefDAC0/1 CSRs trained by
* 2d training.
*/
uint8_t reserved20; /* Byte offset 0x20, CSR Addr 0x54010, Direction=N/A */
uint8_t reserved21; /* Byte offset 0x21, CSR Addr 0x54010, Direction=N/A */
uint16_t phyconfigoverride; /*
* Byte offset 0x22, CSR Addr 0x54011, Direction=In
* Override PhyConfig csr.
* 0x0: Use hardware csr value for PhyConfing
* (recommended)
* Other values: Use value for PhyConfig instead of
* Hardware value.
*
*/
uint8_t enableddqscha; /*
* Byte offset 0x24, CSR Addr 0x54012, Direction=In
* Total number of DQ bits enabled in PHY Channel A
*/
uint8_t cspresentcha; /*
* Byte offset 0x25, CSR Addr 0x54012, Direction=In
* Indicates presence of DRAM at each chip select for PHY
* channel A.
* 0x1 = CS0 is populated with DRAM
* 0x3 = CS0 and CS1 are populated with DRAM
*
* All other encodings are illegal
*/
int8_t cdd_cha_rr_1_0; /*
* Byte offset 0x26, CSR Addr 0x54013, Direction=Out
* This is a signed integer value.
* Read to read critical delay difference from cs 1 to cs 0
* on Channel A.
*/
int8_t cdd_cha_rr_0_1; /*
* Byte offset 0x27, CSR Addr 0x54013, Direction=Out
* This is a signed integer value.
* Read to read critical delay difference from cs 0 to cs 1
* on Channel A.
*/
int8_t cdd_cha_rw_1_1; /*
* Byte offset 0x28, CSR Addr 0x54014, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs 1 to cs 1
* on Channel A.
*/
int8_t cdd_cha_rw_1_0; /*
* Byte offset 0x29, CSR Addr 0x54014, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs 1 to cs 0
* on Channel A.
*/
int8_t cdd_cha_rw_0_1; /*
* Byte offset 0x2a, CSR Addr 0x54015, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs 0 to cs 1
* on Channel A.
*/
int8_t cdd_cha_rw_0_0; /*
* Byte offset 0x2b, CSR Addr 0x54015, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs0 to cs 0
* on Channel A.
*/
int8_t cdd_cha_wr_1_1; /*
* Byte offset 0x2c, CSR Addr 0x54016, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 1 to cs 1
* on Channel A.
*/
int8_t cdd_cha_wr_1_0; /*
* Byte offset 0x2d, CSR Addr 0x54016, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 1 to cs 0
* on Channel A.
*/
int8_t cdd_cha_wr_0_1; /*
* Byte offset 0x2e, CSR Addr 0x54017, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 0 to cs 1
* on Channel A.
*/
int8_t cdd_cha_wr_0_0; /*
* Byte offset 0x2f, CSR Addr 0x54017, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 0 to cs 0
* on Channel A.
*/
int8_t cdd_cha_ww_1_0; /*
* Byte offset 0x30, CSR Addr 0x54018, Direction=Out
* This is a signed integer value.
* Write to write critical delay difference from cs 1 to cs
* 0 on Channel A.
*/
int8_t cdd_cha_ww_0_1; /*
* Byte offset 0x31, CSR Addr 0x54018, Direction=Out
* This is a signed integer value.
* Write to write critical delay difference from cs 0 to cs
* 1 on Channel A.
*/
uint8_t mr1_a0; /*
* Byte offset 0x32, CSR Addr 0x54019, Direction=In
* Value to be programmed in DRAM Mode Register 1
* {Channel A, Rank 0}
*/
uint8_t mr2_a0; /*
* Byte offset 0x33, CSR Addr 0x54019, Direction=In
* Value to be programmed in DRAM Mode Register 2
* {Channel A, Rank 0}
*/
uint8_t mr3_a0; /*
* Byte offset 0x34, CSR Addr 0x5401a, Direction=In
* Value to be programmed in DRAM Mode Register 3
* {Channel A, Rank 0}
*/
uint8_t mr4_a0; /*
* Byte offset 0x35, CSR Addr 0x5401a, Direction=In
* Value to be programmed in DRAM Mode Register 4
* {Channel A, Rank 0}
*/
uint8_t mr11_a0; /*
* Byte offset 0x36, CSR Addr 0x5401b, Direction=In
* Value to be programmed in DRAM Mode Register 11
* {Channel A, Rank 0}
*/
uint8_t mr12_a0; /*
* Byte offset 0x37, CSR Addr 0x5401b, Direction=In
* Value to be programmed in DRAM Mode Register 12
* {Channel A, Rank 0}
*/
uint8_t mr13_a0; /*
* Byte offset 0x38, CSR Addr 0x5401c, Direction=In
* Value to be programmed in DRAM Mode Register 13
* {Channel A, Rank 0}
*/
uint8_t mr14_a0; /*
* Byte offset 0x39, CSR Addr 0x5401c, Direction=In
* Value to be programmed in DRAM Mode Register 14
* {Channel A, Rank 0}
*/
uint8_t mr16_a0; /*
* Byte offset 0x3a, CSR Addr 0x5401d, Direction=In
* Value to be programmed in DRAM Mode Register 16
* {Channel A, Rank 0}
*/
uint8_t mr17_a0; /*
* Byte offset 0x3b, CSR Addr 0x5401d, Direction=In
* Value to be programmed in DRAM Mode Register 17
* {Channel A, Rank 0}
*/
uint8_t mr22_a0; /*
* Byte offset 0x3c, CSR Addr 0x5401e, Direction=In
* Value to be programmed in DRAM Mode Register 22
* {Channel A, Rank 0}
*/
uint8_t mr24_a0; /*
* Byte offset 0x3d, CSR Addr 0x5401e, Direction=In
* Value to be programmed in DRAM Mode Register 24
* {Channel A, Rank 0}
*/
uint8_t mr1_a1; /*
* Byte offset 0x3e, CSR Addr 0x5401f, Direction=In
* Value to be programmed in DRAM Mode Register 1
* {Channel A, Rank 1}
*/
uint8_t mr2_a1; /*
* Byte offset 0x3f, CSR Addr 0x5401f, Direction=In
* Value to be programmed in DRAM Mode Register 2
* {Channel A, Rank 1}
*/
uint8_t mr3_a1; /*
* Byte offset 0x40, CSR Addr 0x54020, Direction=In
* Value to be programmed in DRAM Mode Register 3
* {Channel A, Rank 1}
*/
uint8_t mr4_a1; /*
* Byte offset 0x41, CSR Addr 0x54020, Direction=In
* Value to be programmed in DRAM Mode Register 4
* {Channel A, Rank 1}
*/
uint8_t mr11_a1; /*
* Byte offset 0x42, CSR Addr 0x54021, Direction=In
* Value to be programmed in DRAM Mode Register 11
* {Channel A, Rank 1}
*/
uint8_t mr12_a1; /*
* Byte offset 0x43, CSR Addr 0x54021, Direction=In
* Value to be programmed in DRAM Mode Register 12
* {Channel A, Rank 1}
*/
uint8_t mr13_a1; /*
* Byte offset 0x44, CSR Addr 0x54022, Direction=In
* Value to be programmed in DRAM Mode Register 13
* {Channel A, Rank 1}
*/
uint8_t mr14_a1; /*
* Byte offset 0x45, CSR Addr 0x54022, Direction=In
* Value to be programmed in DRAM Mode Register 14
* {Channel A, Rank 1}
*/
uint8_t mr16_a1; /*
* Byte offset 0x46, CSR Addr 0x54023, Direction=In
* Value to be programmed in DRAM Mode Register 16
* {Channel A, Rank 1}
*/
uint8_t mr17_a1; /*
* Byte offset 0x47, CSR Addr 0x54023, Direction=In
* Value to be programmed in DRAM Mode Register 17
* {Channel A, Rank 1}
*/
uint8_t mr22_a1; /*
* Byte offset 0x48, CSR Addr 0x54024, Direction=In
* Value to be programmed in DRAM Mode Register 22
* {Channel A, Rank 1}
*/
uint8_t mr24_a1; /*
* Byte offset 0x49, CSR Addr 0x54024, Direction=In
* Value to be programmed in DRAM Mode Register 24
* {Channel A, Rank 1}
*/
uint8_t caterminatingrankcha; /* Byte offset 0x4a, CSR Addr 0x54025, Direction=In
* Terminating Rank for CA bus on Channel A
* 0x0 = Rank 0 is terminating rank
* 0x1 = Rank 1 is terminating rank
*/
uint8_t reserved4b; /* Byte offset 0x4b, CSR Addr 0x54025, Direction=N/A */
uint8_t reserved4c; /* Byte offset 0x4c, CSR Addr 0x54026, Direction=N/A */
uint8_t reserved4d; /* Byte offset 0x4d, CSR Addr 0x54026, Direction=N/A */
uint8_t reserved4e; /* Byte offset 0x4e, CSR Addr 0x54027, Direction=N/A */
uint8_t reserved4f; /* Byte offset 0x4f, CSR Addr 0x54027, Direction=N/A */
uint8_t reserved50; /* Byte offset 0x50, CSR Addr 0x54028, Direction=N/A */
uint8_t reserved51; /* Byte offset 0x51, CSR Addr 0x54028, Direction=N/A */
uint8_t reserved52; /* Byte offset 0x52, CSR Addr 0x54029, Direction=N/A */
uint8_t reserved53; /* Byte offset 0x53, CSR Addr 0x54029, Direction=N/A */
uint8_t reserved54; /* Byte offset 0x54, CSR Addr 0x5402a, Direction=N/A */
uint8_t reserved55; /* Byte offset 0x55, CSR Addr 0x5402a, Direction=N/A */
uint8_t reserved56; /* Byte offset 0x56, CSR Addr 0x5402b, Direction=N/A */
uint8_t enableddqschb; /*
* Byte offset 0x57, CSR Addr 0x5402b, Direction=In
* Total number of DQ bits enabled in PHY Channel B
*/
uint8_t cspresentchb; /*
* Byte offset 0x58, CSR Addr 0x5402c, Direction=In
* Indicates presence of DRAM at each chip select for PHY
* channel B.
* 0x0 = No chip selects are populated with DRAM
* 0x1 = CS0 is populated with DRAM
* 0x3 = CS0 and CS1 are populated with DRAM
*
* All other encodings are illegal
*/
int8_t cdd_chb_rr_1_0; /*
* Byte offset 0x59, CSR Addr 0x5402c, Direction=Out
* This is a signed integer value.
* Read to read critical delay difference from cs 1 to cs 0
* on Channel B.
*/
int8_t cdd_chb_rr_0_1; /*
* Byte offset 0x5a, CSR Addr 0x5402d, Direction=Out
* This is a signed integer value.
* Read to read critical delay difference from cs 0 to cs 1
* on Channel B.
*/
int8_t cdd_chb_rw_1_1; /*
* Byte offset 0x5b, CSR Addr 0x5402d, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs 1 to cs 1
* on Channel B.
*/
int8_t cdd_chb_rw_1_0; /*
* Byte offset 0x5c, CSR Addr 0x5402e, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs 1 to cs 0
* on Channel B.
*/
int8_t cdd_chb_rw_0_1; /*
* Byte offset 0x5d, CSR Addr 0x5402e, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs 0 to cs 1
* on Channel B.
*/
int8_t cdd_chb_rw_0_0; /*
* Byte offset 0x5e, CSR Addr 0x5402f, Direction=Out
* This is a signed integer value.
* Read to write critical delay difference from cs01 to cs 0
* on Channel B.
*/
int8_t cdd_chb_wr_1_1; /*
* Byte offset 0x5f, CSR Addr 0x5402f, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 1 to cs 1
* on Channel B.
*/
int8_t cdd_chb_wr_1_0; /*
* Byte offset 0x60, CSR Addr 0x54030, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 1 to cs 0
* on Channel B.
*/
int8_t cdd_chb_wr_0_1; /*
* Byte offset 0x61, CSR Addr 0x54030, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 0 to cs 1
* on Channel B.
*/
int8_t cdd_chb_wr_0_0; /*
* Byte offset 0x62, CSR Addr 0x54031, Direction=Out
* This is a signed integer value.
* Write to read critical delay difference from cs 0 to cs 0
* on Channel B.
*/
int8_t cdd_chb_ww_1_0; /*
* Byte offset 0x63, CSR Addr 0x54031, Direction=Out
* This is a signed integer value.
* Write to write critical delay difference from cs 1 to cs
* 0 on Channel B.
*/
int8_t cdd_chb_ww_0_1; /*
* Byte offset 0x64, CSR Addr 0x54032, Direction=Out
* This is a signed integer value.
* Write to write critical delay difference from cs 0 to cs
* 1 on Channel B.
*/
uint8_t mr1_b0; /*
* Byte offset 0x65, CSR Addr 0x54032, Direction=In
* Value to be programmed in DRAM Mode Register 1
* {Channel B, Rank 0}
*/
uint8_t mr2_b0; /*
* Byte offset 0x66, CSR Addr 0x54033, Direction=In
* Value to be programmed in DRAM Mode Register 2
* {Channel B, Rank 0}
*/
uint8_t mr3_b0; /*
* Byte offset 0x67, CSR Addr 0x54033, Direction=In
* Value to be programmed in DRAM Mode Register 3
* {Channel B, Rank 0}
*/
uint8_t mr4_b0; /*
* Byte offset 0x68, CSR Addr 0x54034, Direction=In
* Value to be programmed in DRAM Mode Register 4
* {Channel B, Rank 0}
*/
uint8_t mr11_b0; /*
* Byte offset 0x69, CSR Addr 0x54034, Direction=In
* Value to be programmed in DRAM Mode Register 11
* {Channel B, Rank 0}
*/
uint8_t mr12_b0; /*
* Byte offset 0x6a, CSR Addr 0x54035, Direction=In
* Value to be programmed in DRAM Mode Register 12
* {Channel B, Rank 0}
*/
uint8_t mr13_b0; /*
* Byte offset 0x6b, CSR Addr 0x54035, Direction=In
* Value to be programmed in DRAM Mode Register 13
* {Channel B, Rank 0}
*/
uint8_t mr14_b0; /*
* Byte offset 0x6c, CSR Addr 0x54036, Direction=In
* Value to be programmed in DRAM Mode Register 14
* {Channel B, Rank 0}
*/
uint8_t mr16_b0; /*
* Byte offset 0x6d, CSR Addr 0x54036, Direction=In
* Value to be programmed in DRAM Mode Register 16
* {Channel B, Rank 0}
*/
uint8_t mr17_b0; /*
* Byte offset 0x6e, CSR Addr 0x54037, Direction=In
* Value to be programmed in DRAM Mode Register 17
* {Channel B, Rank 0}
*/
uint8_t mr22_b0; /*
* Byte offset 0x6f, CSR Addr 0x54037, Direction=In
* Value to be programmed in DRAM Mode Register 22
* {Channel B, Rank 0}
*/
uint8_t mr24_b0; /*
* Byte offset 0x70, CSR Addr 0x54038, Direction=In
* Value to be programmed in DRAM Mode Register 24
* {Channel B, Rank 0}
*/
uint8_t mr1_b1; /*
* Byte offset 0x71, CSR Addr 0x54038, Direction=In
* Value to be programmed in DRAM Mode Register 1
* {Channel B, Rank 1}
*/
uint8_t mr2_b1; /*
* Byte offset 0x72, CSR Addr 0x54039, Direction=In
* Value to be programmed in DRAM Mode Register 2
* {Channel B, Rank 1}
*/
uint8_t mr3_b1; /*
* Byte offset 0x73, CSR Addr 0x54039, Direction=In
* Value to be programmed in DRAM Mode Register 3
* {Channel B, Rank 1}
*/
uint8_t mr4_b1; /*
* Byte offset 0x74, CSR Addr 0x5403a, Direction=In
* Value to be programmed in DRAM Mode Register 4
* {Channel B, Rank 1}
*/
uint8_t mr11_b1; /*
* Byte offset 0x75, CSR Addr 0x5403a, Direction=In
* Value to be programmed in DRAM Mode Register 11
* {Channel B, Rank 1}
*/
uint8_t mr12_b1; /*
* Byte offset 0x76, CSR Addr 0x5403b, Direction=In
* Value to be programmed in DRAM Mode Register 12
* {Channel B, Rank 1}
*/
uint8_t mr13_b1; /*
* Byte offset 0x77, CSR Addr 0x5403b, Direction=In
* Value to be programmed in DRAM Mode Register 13
* {Channel B, Rank 1}
*/
uint8_t mr14_b1; /*
* Byte offset 0x78, CSR Addr 0x5403c, Direction=In
* Value to be programmed in DRAM Mode Register 14
* {Channel B, Rank 1}
*/
uint8_t mr16_b1; /*
* Byte offset 0x79, CSR Addr 0x5403c, Direction=In
* Value to be programmed in DRAM Mode Register 16
* {Channel B, Rank 1}
*/
uint8_t mr17_b1; /*
* Byte offset 0x7a, CSR Addr 0x5403d, Direction=In
* Value to be programmed in DRAM Mode Register 17
* {Channel B, Rank 1}
*/
uint8_t mr22_b1; /*
* Byte offset 0x7b, CSR Addr 0x5403d, Direction=In
* Value to be programmed in DRAM Mode Register 22
* {Channel B, Rank 1}
*/
uint8_t mr24_b1; /*
* Byte offset 0x7c, CSR Addr 0x5403e, Direction=In
* Value to be programmed in DRAM Mode Register 24
* {Channel B, Rank 1}
*/
uint8_t caterminatingrankchb; /* Byte offset 0x7d, CSR Addr 0x5403e, Direction=In
* Terminating Rank for CA bus on Channel B
* 0x0 = Rank 0 is terminating rank
* 0x1 = Rank 1 is terminating rank
*/
uint8_t reserved7e; /* Byte offset 0x7e, CSR Addr 0x5403f, Direction=N/A */
uint8_t reserved7f; /* Byte offset 0x7f, CSR Addr 0x5403f, Direction=N/A */
uint8_t reserved80; /* Byte offset 0x80, CSR Addr 0x54040, Direction=N/A */
uint8_t reserved81; /* Byte offset 0x81, CSR Addr 0x54040, Direction=N/A */
uint8_t reserved82; /* Byte offset 0x82, CSR Addr 0x54041, Direction=N/A */
uint8_t reserved83; /* Byte offset 0x83, CSR Addr 0x54041, Direction=N/A */
uint8_t reserved84; /* Byte offset 0x84, CSR Addr 0x54042, Direction=N/A */
uint8_t reserved85; /* Byte offset 0x85, CSR Addr 0x54042, Direction=N/A */
uint8_t reserved86; /* Byte offset 0x86, CSR Addr 0x54043, Direction=N/A */
uint8_t reserved87; /* Byte offset 0x87, CSR Addr 0x54043, Direction=N/A */
uint8_t reserved88; /* Byte offset 0x88, CSR Addr 0x54044, Direction=N/A */
uint8_t reserved89; /* Byte offset 0x89, CSR Addr 0x54044, Direction=N/A */
} __packed __aligned(2);
#endif /* MNPMUSRAMMSGBLOCK_LPDDR4_H */