CoolPi-Armbian-Rockchip-RK3.../drivers/phy/rockchip/phy-rockchip-samsung-hdptx-hdmi.c

2444 lines
75 KiB
C

// SPDX-License-Identifier: GPL-2.0+
/*
* Copyright (C) Rockchip Electronics Co., Ltd.
* Author:
* Algea Cao <algea.cao@rock-chips.com>
*/
#include <linux/clk.h>
#include <linux/clk-provider.h>
#include <linux/delay.h>
#include <linux/init.h>
#include <linux/interrupt.h>
#include <linux/io.h>
#include <linux/iopoll.h>
#include <linux/kernel.h>
#include <linux/module.h>
#include <linux/nvmem-consumer.h>
#include <linux/of.h>
#include <linux/of_platform.h>
#include <linux/reset.h>
#include <linux/mfd/syscon.h>
#include <linux/phy/phy.h>
#include <linux/platform_device.h>
#include <linux/rational.h>
#include <linux/regmap.h>
#include <linux/rockchip/cpu.h>
#include <linux/slab.h>
#define UPDATE(x, h, l) (((x) << (l)) & GENMASK((h), (l)))
#define GRF_HDPTX_CON0 0x00
#define LC_REF_CLK_SEL BIT(11)
#define HDPTX_I_PLL_EN BIT(7)
#define HDPTX_I_BIAS_EN BIT(6)
#define HDPTX_I_BGR_EN BIT(5)
#define GRF_HDPTX_STATUS 0x80
#define HDPTX_O_PLL_LOCK_DONE BIT(3)
#define HDPTX_O_PHY_CLK_RDY BIT(2)
#define HDPTX_O_PHY_RDY BIT(1)
#define HDPTX_O_SB_RDY BIT(0)
#define CMN_REG0000 0x0000
#define CMN_REG0001 0x0004
#define CMN_REG0002 0x0008
#define CMN_REG0003 0x000C
#define CMN_REG0004 0x0010
#define CMN_REG0005 0x0014
#define CMN_REG0006 0x0018
#define CMN_REG0007 0x001C
#define CMN_REG0008 0x0020
#define LCPLL_EN_MASK BIT(6)
#define LCPLL_EN(x) UPDATE(x, 4, 4)
#define LCPLL_LCVCO_MODE_EN_MASK BIT(4)
#define LCPLL_LCVCO_MODE_EN(x) UPDATE(x, 4, 4)
#define CMN_REG0009 0x0024
#define CMN_REG000A 0x0028
#define CMN_REG000B 0x002C
#define CMN_REG000C 0x0030
#define CMN_REG000D 0x0034
#define CMN_REG000E 0x0038
#define CMN_REG000F 0x003C
#define CMN_REG0010 0x0040
#define CMN_REG0011 0x0044
#define CMN_REG0012 0x0048
#define CMN_REG0013 0x004C
#define CMN_REG0014 0x0050
#define CMN_REG0015 0x0054
#define CMN_REG0016 0x0058
#define CMN_REG0017 0x005C
#define CMN_REG0018 0x0060
#define CMN_REG0019 0x0064
#define CMN_REG001A 0x0068
#define CMN_REG001B 0x006C
#define CMN_REG001C 0x0070
#define CMN_REG001D 0x0074
#define CMN_REG001E 0x0078
#define LCPLL_PI_EN_MASK BIT(5)
#define LCPLL_PI_EN(x) UPDATE(x, 5, 5)
#define LCPLL_100M_CLK_EN_MASK BIT(0)
#define LCPLL_100M_CLK_EN(x) UPDATE(x, 0, 0)
#define CMN_REG001F 0x007C
#define CMN_REG0020 0x0080
#define CMN_REG0021 0x0084
#define CMN_REG0022 0x0088
#define CMN_REG0023 0x008C
#define CMN_REG0024 0x0090
#define CMN_REG0025 0x0094
#define LCPLL_PMS_IQDIV_RSTN BIT(4)
#define CMN_REG0026 0x0098
#define CMN_REG0027 0x009C
#define CMN_REG0028 0x00A0
#define LCPLL_SDC_FRAC_EN BIT(2)
#define LCPLL_SDC_FRAC_RSTN BIT(0)
#define CMN_REG0029 0x00A4
#define CMN_REG002A 0x00A8
#define CMN_REG002B 0x00AC
#define CMN_REG002C 0x00B0
#define CMN_REG002D 0x00B4
#define LCPLL_SDC_N_MASK GENMASK(3, 1)
#define LCPLL_SDC_N(x) UPDATE(x, 3, 1)
#define CMN_REG002E 0x00B8
#define LCPLL_SDC_NUMBERATOR_MASK GENMASK(5, 0)
#define LCPLL_SDC_NUMBERATOR(x) UPDATE(x, 5, 0)
#define CMN_REG002F 0x00BC
#define LCPLL_SDC_DENOMINATOR_MASK GENMASK(7, 2)
#define LCPLL_SDC_DENOMINATOR(x) UPDATE(x, 7, 2)
#define LCPLL_SDC_NDIV_RSTN BIT(0)
#define CMN_REG0030 0x00C0
#define CMN_REG0031 0x00C4
#define CMN_REG0032 0x00C8
#define CMN_REG0033 0x00CC
#define CMN_REG0034 0x00D0
#define CMN_REG0035 0x00D4
#define CMN_REG0036 0x00D8
#define CMN_REG0037 0x00DC
#define CMN_REG0038 0x00E0
#define CMN_REG0039 0x00E4
#define CMN_REG003A 0x00E8
#define CMN_REG003B 0x00EC
#define CMN_REG003C 0x00F0
#define CMN_REG003D 0x00F4
#define ROPLL_LCVCO_EN BIT(4)
#define CMN_REG003E 0x00F8
#define CMN_REG003F 0x00FC
#define CMN_REG0040 0x0100
#define CMN_REG0041 0x0104
#define CMN_REG0042 0x0108
#define CMN_REG0043 0x010C
#define CMN_REG0044 0x0110
#define CMN_REG0045 0x0114
#define CMN_REG0046 0x0118
#define CMN_REG0047 0x011C
#define CMN_REG0048 0x0120
#define CMN_REG0049 0x0124
#define CMN_REG004A 0x0128
#define CMN_REG004B 0x012C
#define CMN_REG004C 0x0130
#define CMN_REG004D 0x0134
#define CMN_REG004E 0x0138
#define ROPLL_PI_EN BIT(5)
#define CMN_REG004F 0x013C
#define CMN_REG0050 0x0140
#define CMN_REG0051 0x0144
#define CMN_REG0052 0x0148
#define CMN_REG0053 0x014C
#define CMN_REG0054 0x0150
#define CMN_REG0055 0x0154
#define CMN_REG0056 0x0158
#define CMN_REG0057 0x015C
#define CMN_REG0058 0x0160
#define CMN_REG0059 0x0164
#define CMN_REG005A 0x0168
#define CMN_REG005B 0x016C
#define CMN_REG005C 0x0170
#define ROPLL_PMS_IQDIV_RSTN BIT(5)
#define CMN_REG005D 0x0174
#define CMN_REG005E 0x0178
#define ROPLL_SDM_EN_MASK BIT(6)
#define ROPLL_SDM_EN(x) UPDATE(x, 6, 6)
#define ROPLL_SDM_FRAC_EN_RBR BIT(3)
#define ROPLL_SDM_FRAC_EN_HBR BIT(2)
#define ROPLL_SDM_FRAC_EN_HBR2 BIT(1)
#define ROPLL_SDM_FRAC_EN_HBR3 BIT(0)
#define CMN_REG005F 0x017C
#define CMN_REG0060 0x0180
#define CMN_REG0061 0x0184
#define CMN_REG0062 0x0188
#define CMN_REG0063 0x018C
#define CMN_REG0064 0x0190
#define ROPLL_SDM_NUM_SIGN_RBR_MASK BIT(3)
#define ROPLL_SDM_NUM_SIGN_RBR(x) UPDATE(x, 3, 3)
#define CMN_REG0065 0x0194
#define CMN_REG0066 0x0198
#define CMN_REG0067 0x019C
#define CMN_REG0068 0x01A0
#define CMN_REG0069 0x01A4
#define ROPLL_SDC_N_RBR_MASK GENMASK(2, 0)
#define ROPLL_SDC_N_RBR(x) UPDATE(x, 2, 0)
#define CMN_REG006A 0x01A8
#define CMN_REG006B 0x01AC
#define CMN_REG006C 0x01B0
#define CMN_REG006D 0x01B4
#define CMN_REG006E 0x01B8
#define CMN_REG006F 0x01BC
#define CMN_REG0070 0x01C0
#define CMN_REG0071 0x01C4
#define CMN_REG0072 0x01C8
#define CMN_REG0073 0x01CC
#define CMN_REG0074 0x01D0
#define ROPLL_SDC_NDIV_RSTN BIT(2)
#define ROPLL_SSC_EN BIT(0)
#define CMN_REG0075 0x01D4
#define CMN_REG0076 0x01D8
#define CMN_REG0077 0x01DC
#define CMN_REG0078 0x01E0
#define CMN_REG0079 0x01E4
#define CMN_REG007A 0x01E8
#define CMN_REG007B 0x01EC
#define CMN_REG007C 0x01F0
#define CMN_REG007D 0x01F4
#define CMN_REG007E 0x01F8
#define CMN_REG007F 0x01FC
#define CMN_REG0080 0x0200
#define CMN_REG0081 0x0204
#define OVRD_PLL_CD_CLK_EN BIT(8)
#define PLL_CD_HSCLK_EAST_EN BIT(0)
#define CMN_REG0082 0x0208
#define CMN_REG0083 0x020C
#define CMN_REG0084 0x0210
#define CMN_REG0085 0x0214
#define CMN_REG0086 0x0218
#define PLL_PCG_POSTDIV_SEL_MASK GENMASK(7, 4)
#define PLL_PCG_POSTDIV_SEL(x) UPDATE(x, 7, 4)
#define PLL_PCG_CLK_SEL_MASK GENMASK(3, 1)
#define PLL_PCG_CLK_SEL(x) UPDATE(x, 3, 1)
#define PLL_PCG_CLK_EN BIT(0)
#define CMN_REG0087 0x021C
#define PLL_FRL_MODE_EN BIT(3)
#define PLL_TX_HS_CLK_EN BIT(2)
#define CMN_REG0088 0x0220
#define CMN_REG0089 0x0224
#define LCPLL_ALONE_MODE BIT(1)
#define CMN_REG008A 0x0228
#define CMN_REG008B 0x022C
#define CMN_REG008C 0x0230
#define CMN_REG008D 0x0234
#define CMN_REG008E 0x0238
#define CMN_REG008F 0x023C
#define CMN_REG0090 0x0240
#define CMN_REG0091 0x0244
#define CMN_REG0092 0x0248
#define CMN_REG0093 0x024C
#define CMN_REG0094 0x0250
#define CMN_REG0095 0x0254
#define CMN_REG0096 0x0258
#define CMN_REG0097 0x025C
#define DIG_CLK_SEL BIT(1)
#define ROPLL_REF BIT(1)
#define LCPLL_REF 0
#define CMN_REG0098 0x0260
#define CMN_REG0099 0x0264
#define CMN_ROPLL_ALONE_MODE BIT(2)
#define ROPLL_ALONE_MODE BIT(2)
#define CMN_REG009A 0x0268
#define HS_SPEED_SEL BIT(0)
#define DIV_10_CLOCK BIT(0)
#define CMN_REG009B 0x026C
#define IS_SPEED_SEL BIT(4)
#define LINK_SYMBOL_CLOCK BIT(4)
#define LINK_SYMBOL_CLOCK1_2 0
#define CMN_REG009C 0x0270
#define CMN_REG009D 0x0274
#define CMN_REG009E 0x0278
#define CMN_REG009F 0x027C
#define CMN_REG00A0 0x0280
#define CMN_REG00A1 0x0284
#define CMN_REG00A2 0x0288
#define CMN_REG00A3 0x028C
#define CMN_REG00AD 0x0290
#define CMN_REG00A5 0x0294
#define CMN_REG00A6 0x0298
#define CMN_REG00A7 0x029C
#define SB_REG0100 0x0400
#define SB_REG0101 0x0404
#define SB_REG0102 0x0408
#define OVRD_SB_RXTERM_EN_MASK BIT(5)
#define OVRD_SB_RXTERM_EN(x) UPDATE(x, 5, 5)
#define SB_RXTERM_EN_MASK BIT(4)
#define SB_RXTERM_EN(x) UPDATE(x, 4, 4)
#define ANA_SB_RXTERM_OFFSP_MASK GENMASK(3, 0)
#define ANA_SB_RXTERM_OFFSP(x) UPDATE(x, 3, 0)
#define SB_REG0103 0x040C
#define ANA_SB_RXTERM_OFFSN_MASK GENMASK(6, 3)
#define ANA_SB_RXTERM_OFFSN(x) UPDATE(x, 6, 3)
#define OVRD_SB_RX_RESCAL_DONE_MASK BIT(1)
#define OVRD_SB_RX_RESCAL_DONE(x) UPDATE(x, 1, 1)
#define SB_RX_RESCAL_DONE_MASK BIT(0)
#define SB_RX_RESCAL_DONE(x) UPDATE(x, 0, 0)
#define SB_REG0104 0x0410
#define OVRD_SB_EN_MASK BIT(5)
#define OVRD_SB_EN(x) UPDATE(x, 5, 5)
#define SB_EN_MASK BIT(4)
#define SB_EN(x) UPDATE(x, 4, 4)
#define SB_REG0105 0x0414
#define OVRD_SB_EARC_CMDC_EN_MASK BIT(6)
#define OVRD_SB_EARC_CMDC_EN(x) UPDATE(x, 6, 6)
#define SB_EARC_CMDC_EN_MASK BIT(5)
#define SB_EARC_CMDC_EN(x) UPDATE(x, 5, 5)
#define ANA_SB_TX_HLVL_PROG_MASK GENMASK(2, 0)
#define ANA_SB_TX_HLVL_PROG(x) UPDATE(x, 2, 0)
#define SB_REG0106 0x0418
#define ANA_SB_TX_LLVL_PROG_MASK GENMASK(6, 4)
#define ANA_SB_TX_LLVL_PROG(x) UPDATE(x, 6, 4)
#define SB_REG0107 0x041C
#define SB_REG0108 0x0420
#define SB_REG0109 0x0424
#define ANA_SB_DMRX_AFC_DIV_RATIO_MASK GENMASK(2, 0)
#define ANA_SB_DMRX_AFC_DIV_RATIO(x) UPDATE(x, 2, 0)
#define SB_REG010A 0x0428
#define SB_REG010B 0x042C
#define SB_REG010C 0x0430
#define SB_REG010D 0x0434
#define SB_REG010E 0x0438
#define SB_REG010F 0x043C
#define OVRD_SB_VREG_EN_MASK BIT(7)
#define OVRD_SB_VREG_EN(x) UPDATE(x, 7, 7)
#define SB_VREG_EN_MASK BIT(6)
#define SB_VREG_EN(x) UPDATE(x, 6, 6)
#define OVRD_SB_VREG_LPF_BYPASS_MASK BIT(5)
#define OVRD_SB_VREG_LPF_BYPASS(x) UPDATE(x, 5, 5)
#define SB_VREG_LPF_BYPASS_MASK BIT(4)
#define SB_VREG_LPF_BYPASS(x) UPDATE(x, 4, 4)
#define ANA_SB_VREG_GAIN_CTRL_MASK GENMASK(3, 0)
#define ANA_SB_VREG_GAIN_CTRL(x) UPDATE(x, 3, 0)
#define SB_REG0110 0x0440
#define ANA_SB_VREG_REF_SEL_MASK BIT(0)
#define ANA_SB_VREG_REF_SEL(x) UPDATE(x, 0, 0)
#define SB_REG0111 0x0444
#define SB_REG0112 0x0448
#define SB_REG0113 0x044C
#define SB_RX_RCAL_OPT_CODE_MASK GENMASK(5, 4)
#define SB_RX_RCAL_OPT_CODE(x) UPDATE(x, 5, 4)
#define SB_RX_RTERM_CTRL_MASK GENMASK(3, 0)
#define SB_RX_RTERM_CTRL(x) UPDATE(x, 3, 0)
#define SB_REG0114 0x0450
#define SB_TG_SB_EN_DELAY_TIME_MASK GENMASK(5, 3)
#define SB_TG_SB_EN_DELAY_TIME(x) UPDATE(x, 5, 3)
#define SB_TG_RXTERM_EN_DELAY_TIME_MASK GENMASK(2, 0)
#define SB_TG_RXTERM_EN_DELAY_TIME(x) UPDATE(x, 2, 0)
#define SB_REG0115 0x0454
#define SB_READY_DELAY_TIME_MASK GENMASK(5, 3)
#define SB_READY_DELAY_TIME(x) UPDATE(x, 5, 3)
#define SB_TG_OSC_EN_DELAY_TIME_MASK GENMASK(2, 0)
#define SB_TG_OSC_EN_DELAY_TIME(x) UPDATE(x, 2, 0)
#define SB_REG0116 0x0458
#define AFC_RSTN_DELAY_TIME_MASK GENMASK(6, 4)
#define AFC_RSTN_DELAY_TIME(x) UPDATE(x, 6, 4)
#define SB_REG0117 0x045C
#define FAST_PULSE_TIME_MASK GENMASK(3, 0)
#define FAST_PULSE_TIME(x) UPDATE(x, 3, 0)
#define SB_REG0118 0x0460
#define SB_REG0119 0x0464
#define SB_REG011A 0x0468
#define SB_REG011B 0x046C
#define SB_EARC_SIG_DET_BYPASS_MASK BIT(4)
#define SB_EARC_SIG_DET_BYPASS(x) UPDATE(x, 4, 4)
#define SB_AFC_TOL_MASK GENMASK(3, 0)
#define SB_AFC_TOL(x) UPDATE(x, 3, 0)
#define SB_REG011C 0x0470
#define SB_REG011D 0x0474
#define SB_REG011E 0x0478
#define SB_REG011F 0x047C
#define SB_PWM_AFC_CTRL_MASK GENMASK(7, 2)
#define SB_PWM_AFC_CTRL(x) UPDATE(x, 7, 2)
#define SB_RCAL_RSTN_MASK BIT(1)
#define SB_RCAL_RSTN(x) UPDATE(x, 1, 1)
#define SB_REG0120 0x0480
#define SB_EARC_EN_MASK BIT(1)
#define SB_EARC_EN(x) UPDATE(x, 1, 1)
#define SB_EARC_AFC_EN_MASK BIT(2)
#define SB_EARC_AFC_EN(x) UPDATE(x, 2, 2)
#define SB_REG0121 0x0484
#define SB_REG0122 0x0488
#define SB_REG0123 0x048C
#define OVRD_SB_READY_MASK BIT(5)
#define OVRD_SB_READY(x) UPDATE(x, 5, 5)
#define SB_READY_MASK BIT(4)
#define SB_READY(x) UPDATE(x, 4, 4)
#define SB_REG0124 0x0490
#define SB_REG0125 0x0494
#define SB_REG0126 0x0498
#define SB_REG0127 0x049C
#define SB_REG0128 0x04A0
#define SB_REG0129 0x04AD
#define LNTOP_REG0200 0x0800
#define PROTOCOL_SEL BIT(2)
#define HDMI_MODE BIT(2)
#define HDMI_TMDS_FRL_SEL BIT(1)
#define LNTOP_REG0201 0x0804
#define LNTOP_REG0202 0x0808
#define LNTOP_REG0203 0x080C
#define LNTOP_REG0204 0x0810
#define LNTOP_REG0205 0x0814
#define LNTOP_REG0206 0x0818
#define DATA_BUS_WIDTH (0x3 << 1)
#define WIDTH_40BIT (0x3 << 1)
#define WIDTH_36BIT (0x2 << 1)
#define DATA_BUS_SEL BIT(0)
#define DATA_BUS_36_40 BIT(0)
#define LNTOP_REG0207 0x081C
#define LANE_EN 0xf
#define ALL_LANE_EN 0xf
#define LNTOP_REG0208 0x0820
#define LNTOP_REG0209 0x0824
#define LNTOP_REG020A 0x0828
#define LNTOP_REG020B 0x082C
#define LNTOP_REG020C 0x0830
#define LNTOP_REG020D 0x0834
#define LNTOP_REG020E 0x0838
#define LNTOP_REG020F 0x083C
#define LNTOP_REG0210 0x0840
#define LNTOP_REG0211 0x0844
#define LNTOP_REG0212 0x0848
#define LNTOP_REG0213 0x084C
#define LNTOP_REG0214 0x0850
#define LNTOP_REG0215 0x0854
#define LNTOP_REG0216 0x0858
#define LNTOP_REG0217 0x085C
#define LNTOP_REG0218 0x0860
#define LNTOP_REG0219 0x0864
#define LNTOP_REG021A 0x0868
#define LNTOP_REG021B 0x086C
#define LNTOP_REG021C 0x0870
#define LNTOP_REG021D 0x0874
#define LNTOP_REG021E 0x0878
#define LNTOP_REG021F 0x087C
#define LNTOP_REG0220 0x0880
#define LNTOP_REG0221 0x0884
#define LNTOP_REG0222 0x0888
#define LNTOP_REG0223 0x088C
#define LNTOP_REG0224 0x0890
#define LNTOP_REG0225 0x0894
#define LNTOP_REG0226 0x0898
#define LNTOP_REG0227 0x089C
#define LNTOP_REG0228 0x08A0
#define LNTOP_REG0229 0x08A4
#define LANE_REG0300 0x0C00
#define LANE_REG0301 0x0C04
#define LANE_REG0302 0x0C08
#define LANE_REG0303 0x0C0C
#define LANE_REG0304 0x0C10
#define DE_EMPHASIS_MASK GENMASK(3, 0)
#define DE_EMPHASIS(x) UPDATE(x, 3, 0)
#define LANE_REG0305 0x0C14
#define PRE_SHOOT_MASK GENMASK(5, 2)
#define PRE_SHOOT(x) UPDATE(x, 5, 2)
#define LANE_REG0306 0x0C18
#define LANE_REG0307 0x0C1C
#define LANE_REG0308 0x0C20
#define LANE_REG0309 0x0C24
#define LANE_REG030A 0x0C28
#define LANE_REG030B 0x0C2C
#define LANE_REG030C 0x0C30
#define LANE_REG030D 0x0C34
#define LANE_REG030E 0x0C38
#define LANE_REG030F 0x0C3C
#define LANE_REG0310 0x0C40
#define LANE_REG0311 0x0C44
#define LANE_REG0312 0x0C48
#define LN0_TX_SER_RATE_SEL_RBR BIT(5)
#define LN0_TX_SER_RATE_SEL_HBR BIT(4)
#define LN0_TX_SER_RATE_SEL_HBR2 BIT(3)
#define LN0_TX_SER_RATE_SEL_HBR3 BIT(2)
#define LANE_REG0313 0x0C4C
#define LANE_REG0314 0x0C50
#define LANE_REG0315 0x0C54
#define LANE_REG0316 0x0C58
#define LANE_REG0317 0x0C5C
#define LANE_REG0318 0x0C60
#define LANE_REG0319 0x0C64
#define LANE_REG031A 0x0C68
#define LANE_REG031B 0x0C6C
#define LANE_REG031C 0x0C70
#define LANE_REG031D 0x0C74
#define LANE_REG031E 0x0C78
#define LANE_REG031F 0x0C7C
#define LANE_REG0320 0x0C80
#define LANE_REG0321 0x0C84
#define LANE_REG0322 0x0C88
#define LANE_REG0323 0x0C8C
#define LANE_REG0324 0x0C90
#define LANE_REG0325 0x0C94
#define LANE_REG0326 0x0C98
#define LANE_REG0327 0x0C9C
#define LANE_REG0328 0x0CA0
#define LANE_REG0329 0x0CA4
#define LANE_REG032A 0x0CA8
#define LANE_REG032B 0x0CAC
#define LANE_REG032C 0x0CB0
#define LANE_REG032D 0x0CB4
#define LANE_REG0400 0x1000
#define LANE_REG0401 0x1004
#define LANE_REG0402 0x1008
#define LANE_REG0403 0x100C
#define LANE_REG0404 0x1010
#define LANE_REG0405 0x1014
#define LANE_REG0406 0x1018
#define LANE_REG0407 0x101C
#define LANE_REG0408 0x1020
#define LANE_REG0409 0x1024
#define LANE_REG040A 0x1028
#define LANE_REG040B 0x102C
#define LANE_REG040C 0x1030
#define LANE_REG040D 0x1034
#define LANE_REG040E 0x1038
#define LANE_REG040F 0x103C
#define LANE_REG0410 0x1040
#define LANE_REG0411 0x1044
#define LANE_REG0412 0x1048
#define LN1_TX_SER_RATE_SEL_RBR BIT(5)
#define LN1_TX_SER_RATE_SEL_HBR BIT(4)
#define LN1_TX_SER_RATE_SEL_HBR2 BIT(3)
#define LN1_TX_SER_RATE_SEL_HBR3 BIT(2)
#define LANE_REG0413 0x104C
#define LANE_REG0414 0x1050
#define LANE_REG0415 0x1054
#define LANE_REG0416 0x1058
#define LANE_REG0417 0x105C
#define LANE_REG0418 0x1060
#define LANE_REG0419 0x1064
#define LANE_REG041A 0x1068
#define LANE_REG041B 0x106C
#define LANE_REG041C 0x1070
#define LANE_REG041D 0x1074
#define LANE_REG041E 0x1078
#define LANE_REG041F 0x107C
#define LANE_REG0420 0x1080
#define LANE_REG0421 0x1084
#define LANE_REG0422 0x1088
#define LANE_REG0423 0x108C
#define LANE_REG0424 0x1090
#define LANE_REG0425 0x1094
#define LANE_REG0426 0x1098
#define LANE_REG0427 0x109C
#define LANE_REG0428 0x10A0
#define LANE_REG0429 0x10A4
#define LANE_REG042A 0x10A8
#define LANE_REG042B 0x10AC
#define LANE_REG042C 0x10B0
#define LANE_REG042D 0x10B4
#define LANE_REG0500 0x1400
#define LANE_REG0501 0x1404
#define LANE_REG0502 0x1408
#define LANE_REG0503 0x140C
#define LANE_REG0504 0x1410
#define LANE_REG0505 0x1414
#define LANE_REG0506 0x1418
#define LANE_REG0507 0x141C
#define LANE_REG0508 0x1420
#define LANE_REG0509 0x1424
#define LANE_REG050A 0x1428
#define LANE_REG050B 0x142C
#define LANE_REG050C 0x1430
#define LANE_REG050D 0x1434
#define LANE_REG050E 0x1438
#define LANE_REG050F 0x143C
#define LANE_REG0510 0x1440
#define LANE_REG0511 0x1444
#define LANE_REG0512 0x1448
#define LN2_TX_SER_RATE_SEL_RBR BIT(5)
#define LN2_TX_SER_RATE_SEL_HBR BIT(4)
#define LN2_TX_SER_RATE_SEL_HBR2 BIT(3)
#define LN2_TX_SER_RATE_SEL_HBR3 BIT(2)
#define LANE_REG0513 0x144C
#define LANE_REG0514 0x1450
#define LANE_REG0515 0x1454
#define LANE_REG0516 0x1458
#define LANE_REG0517 0x145C
#define LANE_REG0518 0x1460
#define LANE_REG0519 0x1464
#define LANE_REG051A 0x1468
#define LANE_REG051B 0x146C
#define LANE_REG051C 0x1470
#define LANE_REG051D 0x1474
#define LANE_REG051E 0x1478
#define LANE_REG051F 0x147C
#define LANE_REG0520 0x1480
#define LANE_REG0521 0x1484
#define LANE_REG0522 0x1488
#define LANE_REG0523 0x148C
#define LANE_REG0524 0x1490
#define LANE_REG0525 0x1494
#define LANE_REG0526 0x1498
#define LANE_REG0527 0x149C
#define LANE_REG0528 0x14A0
#define LANE_REG0529 0x14AD
#define LANE_REG052A 0x14A8
#define LANE_REG052B 0x14AC
#define LANE_REG052C 0x14B0
#define LANE_REG052D 0x14B4
#define LANE_REG0600 0x1800
#define LANE_REG0601 0x1804
#define LANE_REG0602 0x1808
#define LANE_REG0603 0x180C
#define LANE_REG0604 0x1810
#define LANE_REG0605 0x1814
#define LANE_REG0606 0x1818
#define LANE_REG0607 0x181C
#define LANE_REG0608 0x1820
#define LANE_REG0609 0x1824
#define LANE_REG060A 0x1828
#define LANE_REG060B 0x182C
#define LANE_REG060C 0x1830
#define LANE_REG060D 0x1834
#define LANE_REG060E 0x1838
#define LANE_REG060F 0x183C
#define LANE_REG0610 0x1840
#define LANE_REG0611 0x1844
#define LANE_REG0612 0x1848
#define LN3_TX_SER_RATE_SEL_RBR BIT(5)
#define LN3_TX_SER_RATE_SEL_HBR BIT(4)
#define LN3_TX_SER_RATE_SEL_HBR2 BIT(3)
#define LN3_TX_SER_RATE_SEL_HBR3 BIT(2)
#define LANE_REG0613 0x184C
#define LANE_REG0614 0x1850
#define LANE_REG0615 0x1854
#define LANE_REG0616 0x1858
#define LANE_REG0617 0x185C
#define LANE_REG0618 0x1860
#define LANE_REG0619 0x1864
#define LANE_REG061A 0x1868
#define LANE_REG061B 0x186C
#define LANE_REG061C 0x1870
#define LANE_REG061D 0x1874
#define LANE_REG061E 0x1878
#define LANE_REG061F 0x187C
#define LANE_REG0620 0x1880
#define LANE_REG0621 0x1884
#define LANE_REG0622 0x1888
#define LANE_REG0623 0x188C
#define LANE_REG0624 0x1890
#define LANE_REG0625 0x1894
#define LANE_REG0626 0x1898
#define LANE_REG0627 0x189C
#define LANE_REG0628 0x18A0
#define LANE_REG0629 0x18A4
#define LANE_REG062A 0x18A8
#define LANE_REG062B 0x18AC
#define LANE_REG062C 0x18B0
#define LANE_REG062D 0x18B4
#define HDMI20_MAX_RATE 600000000
#define DATA_RATE_MASK 0xFFFFFFF
#define COLOR_DEPTH_MASK BIT(31)
#define HDMI_MODE_MASK BIT(30)
#define HDMI_EARC_MASK BIT(29)
#define FRL_8G_4LANES 3200000000ULL
#define FRL_6G_3LANES 1800000000
#define FRL_3G_3LANES 900000000
enum hdptx_combphy_type {
SS_HDMI,
SS_DP
};
struct lcpll_config {
u32 bit_rate;
u8 lcvco_mode_en;
u8 pi_en;
u8 clk_en_100m;
u8 pms_mdiv;
u8 pms_mdiv_afc;
u8 pms_pdiv;
u8 pms_refdiv;
u8 pms_sdiv;
u8 pi_cdiv_rstn;
u8 pi_cdiv_sel;
u8 sdm_en;
u8 sdm_rstn;
u8 sdc_frac_en;
u8 sdc_rstn;
u8 sdm_deno;
u8 sdm_num_sign;
u8 sdm_num;
u8 sdc_n;
u8 sdc_n2;
u8 sdc_num;
u8 sdc_deno;
u8 sdc_ndiv_rstn;
u8 ssc_en;
u8 ssc_fm_dev;
u8 ssc_fm_freq;
u8 ssc_clk_div_sel;
u8 cd_tx_ser_rate_sel;
};
struct ropll_config {
u32 bit_rate;
u8 pms_mdiv;
u8 pms_mdiv_afc;
u8 pms_pdiv;
u8 pms_refdiv;
u8 pms_sdiv;
u8 pms_iqdiv_rstn;
u8 ref_clk_sel;
u8 sdm_en;
u8 sdm_rstn;
u8 sdc_frac_en;
u8 sdc_rstn;
u8 sdm_clk_div;
u8 sdm_deno;
u8 sdm_num_sign;
u8 sdm_num;
u8 sdc_n;
u8 sdc_num;
u8 sdc_deno;
u8 sdc_ndiv_rstn;
u8 ssc_en;
u8 ssc_fm_dev;
u8 ssc_fm_freq;
u8 ssc_clk_div_sel;
u8 ana_cpp_ctrl;
u8 ana_lpf_c_sel;
u8 cd_tx_ser_rate_sel;
};
struct rockchip_hdptx_phy {
struct device *dev;
struct regmap *regmap;
struct regmap *grf;
int irq;
int id;
struct phy *phy;
struct clk_bulk_data *clks;
int nr_clks;
struct phy_config *phy_cfg;
/* clk provider */
struct clk_hw hw;
struct clk *dclk;
unsigned long rate;
struct reset_control *apb_reset;
struct reset_control *cmn_reset;
struct reset_control *init_reset;
struct reset_control *lane_reset;
bool earc_en;
bool initialized;
int count;
};
static struct lcpll_config lcpll_cfg[] = {
{ 48000000, 1, 0, 0, 0x7d, 0x7d, 1, 1, 0, 0, 0, 0, 0, 1, 1, 1, 0, 0, 2,
0, 0x13, 0x18, 1, 0, 0x20, 0x0c, 1, 0,
},
{ 40000000, 1, 1, 0, 0x68, 0x68, 1, 1, 0, 0, 0, 1, 1, 1, 1, 9, 0, 1, 1,
0, 2, 3, 1, 0, 0x20, 0x0c, 1, 0,
},
{ 24000000, 1, 0, 0, 0x7d, 0x7d, 1, 1, 1, 0, 0, 0, 0, 1, 1, 1, 0, 0, 2,
0, 0x13, 0x18, 1, 0, 0x20, 0x0c, 1, 0,
},
{ 18000000, 1, 0, 0, 0x7d, 0x7d, 1, 1, 1, 0, 0, 0, 0, 1, 1, 1, 0, 0, 2,
0, 0x13, 0x18, 1, 0, 0x20, 0x0c, 1, 0,
},
{ 9000000, 1, 0, 0, 0x7d, 0x7d, 1, 1, 3, 0, 0, 0, 0, 1, 1, 1, 0, 0, 2,
0, 0x13, 0x18, 1, 0, 0x20, 0x0c, 1, 0,
},
};
static struct ropll_config ropll_tmds_cfg[] = {
{ 5940000, 124, 124, 1, 1, 0, 1, 1, 1, 1, 1, 1, 1, 62, 1, 16, 5, 0,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 3712500, 155, 155, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 62, 1, 16, 5, 0,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 2970000, 124, 124, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 62, 1, 16, 5, 0,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1620000, 135, 135, 1, 1, 3, 1, 1, 0, 1, 1, 1, 1, 4, 0, 3, 5, 5, 0x10,
1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1856250, 155, 155, 1, 1, 3, 1, 1, 1, 1, 1, 1, 1, 62, 1, 16, 5, 0,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1540000, 193, 193, 1, 1, 5, 1, 1, 1, 1, 1, 1, 1, 193, 1, 32, 2, 1,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1485000, 0x7b, 0x7b, 1, 1, 3, 1, 1, 1, 1, 1, 1, 1, 4, 0, 3, 5, 5, 0x10,
1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1462500, 122, 122, 1, 1, 3, 1, 1, 1, 1, 1, 1, 1, 244, 1, 16, 2, 1, 1,
1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1190000, 149, 149, 1, 1, 5, 1, 1, 1, 1, 1, 1, 1, 149, 1, 16, 2, 1, 1,
1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1065000, 89, 89, 1, 1, 3, 1, 1, 1, 1, 1, 1, 1, 89, 1, 16, 1, 0, 1,
1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 1080000, 135, 135, 1, 1, 5, 1, 1, 0, 1, 0, 1, 1, 0x9, 0, 0x05, 0, 0x14,
0x18, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 855000, 214, 214, 1, 1, 11, 1, 1, 1, 1, 1, 1, 1, 214, 1, 16, 2, 1,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 835000, 105, 105, 1, 1, 5, 1, 1, 1, 1, 1, 1, 1, 42, 1, 16, 1, 0,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 928125, 155, 155, 1, 1, 7, 1, 1, 1, 1, 1, 1, 1, 62, 1, 16, 5, 0,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 742500, 124, 124, 1, 1, 7, 1, 1, 1, 1, 1, 1, 1, 62, 1, 16, 5, 0,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 650000, 162, 162, 1, 1, 11, 1, 1, 1, 1, 1, 1, 1, 54, 0, 16, 4, 1,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 337500, 0x70, 0x70, 1, 1, 0xf, 1, 1, 1, 1, 1, 1, 1, 0x2, 0, 0x01, 5, 1,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 400000, 100, 100, 1, 1, 11, 1, 1, 0, 1, 0, 1, 1, 0x9, 0, 0x05, 0, 0x14,
0x18, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 270000, 0x5a, 0x5a, 1, 1, 0xf, 1, 1, 0, 1, 0, 1, 1, 0x9, 0, 0x05, 0, 0x14,
0x18, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
{ 251750, 84, 84, 1, 1, 0xf, 1, 1, 1, 1, 1, 1, 1, 168, 1, 16, 4, 1,
1, 1, 0, 0x20, 0x0c, 1, 0x0e, 0, 0,
},
};
struct ffe_cfg {
u8 pre_shoot;
u8 de_emphasis;
};
#define FFE_CFG_TAB_LEN 4
static const struct ffe_cfg ffe_cfg_table[FFE_CFG_TAB_LEN] = {
{ 0x3, 0x4 },
{ 0x3, 0x6 },
{ 0x3, 0x8 },
{ 0x3, 0x9 },
};
static bool rockchip_hdptx_phy_is_accissible_reg(struct device *dev,
unsigned int reg)
{
switch (reg) {
case 0x0000 ... 0x029c:
case 0x0400 ... 0x04a4:
case 0x0800 ... 0x08a4:
case 0x0c00 ... 0x0cb4:
case 0x1000 ... 0x10b4:
case 0x1400 ... 0x14b4:
case 0x1800 ... 0x18b4:
return true;
default:
return false;
}
}
static const struct regmap_config rockchip_hdptx_phy_regmap_config = {
.reg_bits = 32,
.reg_stride = 4,
.val_bits = 32,
.fast_io = true,
.max_register = 0x18b4,
.name = "hdptx-combphy",
.readable_reg = rockchip_hdptx_phy_is_accissible_reg,
.writeable_reg = rockchip_hdptx_phy_is_accissible_reg,
};
static inline struct rockchip_hdptx_phy *to_rockchip_hdptx_phy(struct clk_hw *hw)
{
return container_of(hw, struct rockchip_hdptx_phy, hw);
}
static inline void hdptx_write(struct rockchip_hdptx_phy *hdptx, u32 reg, u8 val)
{
regmap_write(hdptx->regmap, reg, val);
}
static inline u8 hdptx_read(struct rockchip_hdptx_phy *hdptx, u32 reg)
{
u32 val;
regmap_read(hdptx->regmap, reg, &val);
return val;
}
static inline void hdptx_update_bits(struct rockchip_hdptx_phy *hdptx, u32 reg,
u8 mask, u8 val)
{
regmap_update_bits(hdptx->regmap, reg, mask, val);
}
static inline void hdptx_grf_write(struct rockchip_hdptx_phy *hdptx, u32 reg, u32 val)
{
regmap_write(hdptx->grf, reg, val);
}
static inline u32 hdptx_grf_read(struct rockchip_hdptx_phy *hdptx, u32 reg)
{
u32 val;
regmap_read(hdptx->grf, reg, &val);
return val;
}
static void hdptx_pre_power_up(struct rockchip_hdptx_phy *hdptx)
{
u32 val = 0;
reset_control_assert(hdptx->apb_reset);
udelay(20);
reset_control_deassert(hdptx->apb_reset);
reset_control_assert(hdptx->lane_reset);
reset_control_assert(hdptx->cmn_reset);
reset_control_assert(hdptx->init_reset);
val = (HDPTX_I_PLL_EN | HDPTX_I_BIAS_EN | HDPTX_I_BGR_EN) << 16;
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, val);
}
static int hdptx_post_enable_lane(struct rockchip_hdptx_phy *hdptx)
{
u32 val = 0;
int i;
reset_control_deassert(hdptx->lane_reset);
val = (HDPTX_I_BIAS_EN | HDPTX_I_BGR_EN) << 16 | HDPTX_I_BIAS_EN |
HDPTX_I_BGR_EN;
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, val);
/* 3 lanes frl mode */
if (hdptx->rate == FRL_6G_3LANES || hdptx->rate == FRL_3G_3LANES)
hdptx_write(hdptx, LNTOP_REG0207, 0x07);
else
hdptx_write(hdptx, LNTOP_REG0207, 0x0f);
for (i = 0; i < 50; i++) {
val = hdptx_grf_read(hdptx, GRF_HDPTX_STATUS);
if (val & HDPTX_O_PHY_RDY && val & HDPTX_O_PLL_LOCK_DONE)
break;
udelay(100);
}
if (i == 50) {
dev_err(hdptx->dev, "hdptx phy lane can't ready!\n");
return -EINVAL;
}
dev_err(hdptx->dev, "hdptx phy lane locked!\n");
return 0;
}
static int hdptx_post_enable_pll(struct rockchip_hdptx_phy *hdptx)
{
u32 val = 0;
int i;
val = (HDPTX_I_BIAS_EN | HDPTX_I_BGR_EN) << 16 | HDPTX_I_BIAS_EN |
HDPTX_I_BGR_EN;
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, val);
udelay(10);
reset_control_deassert(hdptx->init_reset);
udelay(10);
val = HDPTX_I_PLL_EN << 16 | HDPTX_I_PLL_EN;
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, val);
udelay(10);
reset_control_deassert(hdptx->cmn_reset);
for (i = 0; i < 20; i++) {
val = hdptx_grf_read(hdptx, GRF_HDPTX_STATUS);
if (val & HDPTX_O_PHY_CLK_RDY)
break;
udelay(20);
}
if (i == 20) {
dev_err(hdptx->dev, "hdptx phy pll can't lock!\n");
return -EINVAL;
}
dev_err(hdptx->dev, "hdptx phy pll locked!\n");
return 0;
}
static void hdptx_phy_disable(struct rockchip_hdptx_phy *hdptx)
{
u32 val;
/* reset apb, or phy locked flag may keep 1 */
reset_control_assert(hdptx->apb_reset);
udelay(20);
reset_control_deassert(hdptx->apb_reset);
hdptx_write(hdptx, LANE_REG0300, 0x82);
hdptx_write(hdptx, SB_REG010F, 0xc1);
hdptx_write(hdptx, SB_REG0110, 0x1);
hdptx_write(hdptx, LANE_REG0301, 0x80);
hdptx_write(hdptx, LANE_REG0401, 0x80);
hdptx_write(hdptx, LANE_REG0501, 0x80);
hdptx_write(hdptx, LANE_REG0601, 0x80);
reset_control_assert(hdptx->lane_reset);
reset_control_assert(hdptx->cmn_reset);
reset_control_assert(hdptx->init_reset);
val = (HDPTX_I_PLL_EN | HDPTX_I_BIAS_EN | HDPTX_I_BGR_EN) << 16;
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, val);
}
static void hdptx_earc_config(struct rockchip_hdptx_phy *hdptx)
{
hdptx_update_bits(hdptx, SB_REG0113, SB_RX_RCAL_OPT_CODE_MASK,
SB_RX_RCAL_OPT_CODE(1));
hdptx_write(hdptx, SB_REG011C, 0x04);
hdptx_update_bits(hdptx, SB_REG011B, SB_AFC_TOL_MASK,
SB_AFC_TOL(3));
hdptx_write(hdptx, SB_REG0109, 0x05);
hdptx_update_bits(hdptx, SB_REG0120, SB_EARC_EN_MASK | SB_EARC_AFC_EN_MASK,
SB_EARC_EN(1) | SB_EARC_AFC_EN(1));
hdptx_update_bits(hdptx, SB_REG011B, SB_EARC_SIG_DET_BYPASS_MASK,
SB_EARC_SIG_DET_BYPASS(1));
hdptx_update_bits(hdptx, SB_REG011F, SB_PWM_AFC_CTRL_MASK | SB_RCAL_RSTN_MASK,
SB_PWM_AFC_CTRL(0xc) | SB_RCAL_RSTN(1));
hdptx_update_bits(hdptx, SB_REG0115, SB_READY_DELAY_TIME_MASK,
SB_READY_DELAY_TIME(2));
hdptx_update_bits(hdptx, SB_REG0113, SB_RX_RTERM_CTRL_MASK,
SB_RX_RTERM_CTRL(3));
hdptx_update_bits(hdptx, SB_REG0102, ANA_SB_RXTERM_OFFSP_MASK,
ANA_SB_RXTERM_OFFSP(3));
hdptx_update_bits(hdptx, SB_REG0103, ANA_SB_RXTERM_OFFSN_MASK,
ANA_SB_RXTERM_OFFSN(3));
hdptx_write(hdptx, SB_REG011A, 0x03);
hdptx_write(hdptx, SB_REG0118, 0x0a);
hdptx_write(hdptx, SB_REG011E, 0x6a);
hdptx_write(hdptx, SB_REG011D, 0x67);
hdptx_update_bits(hdptx, SB_REG0117, FAST_PULSE_TIME_MASK,
FAST_PULSE_TIME(4));
hdptx_update_bits(hdptx, SB_REG0114, SB_TG_SB_EN_DELAY_TIME_MASK |
SB_TG_RXTERM_EN_DELAY_TIME_MASK,
SB_TG_SB_EN_DELAY_TIME(2) |
SB_TG_RXTERM_EN_DELAY_TIME(2));
hdptx_update_bits(hdptx, SB_REG0105, ANA_SB_TX_HLVL_PROG_MASK,
ANA_SB_TX_HLVL_PROG(7));
hdptx_update_bits(hdptx, SB_REG0106, ANA_SB_TX_LLVL_PROG_MASK,
ANA_SB_TX_LLVL_PROG(7));
hdptx_update_bits(hdptx, SB_REG010F, ANA_SB_VREG_GAIN_CTRL_MASK,
ANA_SB_VREG_GAIN_CTRL(0));
hdptx_update_bits(hdptx, SB_REG0110, ANA_SB_VREG_REF_SEL_MASK,
ANA_SB_VREG_REF_SEL(1));
hdptx_update_bits(hdptx, SB_REG0115, SB_TG_OSC_EN_DELAY_TIME_MASK,
SB_TG_OSC_EN_DELAY_TIME(2));
hdptx_update_bits(hdptx, SB_REG0116, AFC_RSTN_DELAY_TIME_MASK,
AFC_RSTN_DELAY_TIME(2));
hdptx_update_bits(hdptx, SB_REG0109, ANA_SB_DMRX_AFC_DIV_RATIO_MASK,
ANA_SB_DMRX_AFC_DIV_RATIO(5));
hdptx_update_bits(hdptx, SB_REG0103, OVRD_SB_RX_RESCAL_DONE_MASK,
OVRD_SB_RX_RESCAL_DONE(1));
hdptx_update_bits(hdptx, SB_REG0104, OVRD_SB_EN_MASK,
OVRD_SB_EN(1));
hdptx_update_bits(hdptx, SB_REG0102, OVRD_SB_RXTERM_EN_MASK,
OVRD_SB_RXTERM_EN(1));
hdptx_update_bits(hdptx, SB_REG0105, OVRD_SB_EARC_CMDC_EN_MASK,
OVRD_SB_EARC_CMDC_EN(1));
hdptx_update_bits(hdptx, SB_REG010F, OVRD_SB_VREG_EN_MASK |
OVRD_SB_VREG_LPF_BYPASS_MASK,
OVRD_SB_VREG_EN(1) | OVRD_SB_VREG_LPF_BYPASS(1));
hdptx_update_bits(hdptx, SB_REG0123, OVRD_SB_READY_MASK,
OVRD_SB_READY(1));
udelay(1000);
hdptx_update_bits(hdptx, SB_REG0103, SB_RX_RESCAL_DONE_MASK,
SB_RX_RESCAL_DONE(1));
udelay(50);
hdptx_update_bits(hdptx, SB_REG0104, SB_EN_MASK, SB_EN(1));
udelay(50);
hdptx_update_bits(hdptx, SB_REG0102, SB_RXTERM_EN_MASK,
SB_RXTERM_EN(1));
udelay(50);
hdptx_update_bits(hdptx, SB_REG0105, SB_EARC_CMDC_EN_MASK,
SB_EARC_CMDC_EN(1));
hdptx_update_bits(hdptx, SB_REG010F, SB_VREG_EN_MASK,
SB_VREG_EN(1));
udelay(50);
hdptx_update_bits(hdptx, SB_REG010F, OVRD_SB_VREG_LPF_BYPASS_MASK,
OVRD_SB_VREG_LPF_BYPASS(1));
udelay(250);
hdptx_update_bits(hdptx, SB_REG010F, OVRD_SB_VREG_LPF_BYPASS_MASK,
OVRD_SB_VREG_LPF_BYPASS(0));
udelay(100);
hdptx_update_bits(hdptx, SB_REG0123, SB_READY_MASK, SB_READY(1));
}
static bool hdptx_phy_clk_pll_calc(unsigned int data_rate,
struct ropll_config *cfg)
{
unsigned int fref = 24000;
unsigned int sdc;
unsigned int fout = data_rate / 2;
unsigned int fvco;
u32 mdiv, sdiv, n = 8;
unsigned long k = 0, lc, k_sub, lc_sub;
for (sdiv = 16; sdiv >= 1; sdiv--) {
if (sdiv % 2 && sdiv != 1)
continue;
fvco = fout * sdiv;
if (fvco < 2000000 || fvco > 4000000)
continue;
mdiv = DIV_ROUND_UP(fvco, fref);
if (mdiv < 20 || mdiv > 255)
continue;
if (fref * mdiv - fvco) {
for (sdc = 264000; sdc <= 750000; sdc += fref)
if (sdc * n > fref * mdiv)
break;
if (sdc > 750000)
continue;
rational_best_approximation(fref * mdiv - fvco,
sdc / 16,
GENMASK(6, 0),
GENMASK(7, 0),
&k, &lc);
rational_best_approximation(sdc * n - fref * mdiv,
sdc,
GENMASK(6, 0),
GENMASK(7, 0),
&k_sub, &lc_sub);
}
break;
}
if (sdiv < 1)
return false;
if (cfg) {
cfg->pms_mdiv = mdiv;
cfg->pms_mdiv_afc = mdiv;
cfg->pms_pdiv = 1;
cfg->pms_refdiv = 1;
cfg->pms_sdiv = sdiv - 1;
cfg->sdm_en = k > 0 ? 1 : 0;
if (cfg->sdm_en) {
cfg->sdm_deno = lc;
cfg->sdm_num_sign = 1;
cfg->sdm_num = k;
cfg->sdc_n = n - 3;
cfg->sdc_num = k_sub;
cfg->sdc_deno = lc_sub;
}
}
return true;
}
static int hdptx_ropll_cmn_config(struct rockchip_hdptx_phy *hdptx, unsigned long bit_rate)
{
int bus_width = phy_get_bus_width(hdptx->phy);
u8 color_depth = (bus_width & COLOR_DEPTH_MASK) ? 1 : 0;
struct ropll_config *cfg;
struct ropll_config rc = {0};
u8 i;
dev_info(hdptx->dev, "%s bus_width:%x rate:%lu\n", __func__, bus_width, bit_rate);
hdptx->rate = bit_rate * 100;
if (color_depth)
bit_rate = bit_rate * 10 / 8;
for (i = 0; i < ARRAY_SIZE(ropll_tmds_cfg); i++)
if (bit_rate == ropll_tmds_cfg[i].bit_rate)
break;
if (i == ARRAY_SIZE(ropll_tmds_cfg)) {
if (hdptx_phy_clk_pll_calc(bit_rate, &rc)) {
cfg = &rc;
} else {
dev_err(hdptx->dev, "%s can't find pll cfg\n", __func__);
return -EINVAL;
}
} else {
cfg = &ropll_tmds_cfg[i];
}
dev_dbg(hdptx->dev, "mdiv=%u, sdiv=%u\n",
cfg->pms_mdiv, cfg->pms_sdiv + 1);
dev_dbg(hdptx->dev, "sdm_en=%u, k_sign=%u, k=%u, lc=%u",
cfg->sdm_en, cfg->sdm_num_sign, cfg->sdm_num, cfg->sdm_deno);
dev_dbg(hdptx->dev, "n=%u, k_sub=%u, lc_sub=%u\n",
cfg->sdc_n + 3, cfg->sdc_num, cfg->sdc_deno);
hdptx_pre_power_up(hdptx);
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, LC_REF_CLK_SEL << 16);
hdptx_write(hdptx, CMN_REG0008, 0x00);
hdptx_write(hdptx, CMN_REG0009, 0x0c);
hdptx_write(hdptx, CMN_REG000A, 0x83);
hdptx_write(hdptx, CMN_REG000B, 0x06);
hdptx_write(hdptx, CMN_REG000C, 0x20);
hdptx_write(hdptx, CMN_REG000D, 0xb8);
hdptx_write(hdptx, CMN_REG000E, 0x0f);
hdptx_write(hdptx, CMN_REG000F, 0x0f);
hdptx_write(hdptx, CMN_REG0010, 0x04);
hdptx_write(hdptx, CMN_REG0011, 0x01);
hdptx_write(hdptx, CMN_REG0012, 0x26);
hdptx_write(hdptx, CMN_REG0013, 0x22);
hdptx_write(hdptx, CMN_REG0014, 0x24);
hdptx_write(hdptx, CMN_REG0015, 0x77);
hdptx_write(hdptx, CMN_REG0016, 0x08);
hdptx_write(hdptx, CMN_REG0017, 0x20);
hdptx_write(hdptx, CMN_REG0018, 0x04);
hdptx_write(hdptx, CMN_REG0019, 0x48);
hdptx_write(hdptx, CMN_REG001A, 0x01);
hdptx_write(hdptx, CMN_REG001B, 0x00);
hdptx_write(hdptx, CMN_REG001C, 0x01);
hdptx_write(hdptx, CMN_REG001D, 0x64);
hdptx_write(hdptx, CMN_REG001E, 0x14);
hdptx_write(hdptx, CMN_REG001F, 0x00);
hdptx_write(hdptx, CMN_REG0020, 0x00);
hdptx_write(hdptx, CMN_REG0021, 0x00);
hdptx_write(hdptx, CMN_REG0022, 0x11);
hdptx_write(hdptx, CMN_REG0023, 0x00);
hdptx_write(hdptx, CMN_REG0024, 0x00);
hdptx_write(hdptx, CMN_REG0025, 0x53);
hdptx_write(hdptx, CMN_REG0026, 0x00);
hdptx_write(hdptx, CMN_REG0027, 0x00);
hdptx_write(hdptx, CMN_REG0028, 0x01);
hdptx_write(hdptx, CMN_REG0029, 0x01);
hdptx_write(hdptx, CMN_REG002A, 0x00);
hdptx_write(hdptx, CMN_REG002B, 0x00);
hdptx_write(hdptx, CMN_REG002C, 0x00);
hdptx_write(hdptx, CMN_REG002D, 0x00);
hdptx_write(hdptx, CMN_REG002E, 0x04);
hdptx_write(hdptx, CMN_REG002F, 0x00);
hdptx_write(hdptx, CMN_REG0030, 0x20);
hdptx_write(hdptx, CMN_REG0031, 0x30);
hdptx_write(hdptx, CMN_REG0032, 0x0b);
hdptx_write(hdptx, CMN_REG0033, 0x23);
hdptx_write(hdptx, CMN_REG0034, 0x00);
hdptx_write(hdptx, CMN_REG0035, 0x00);
hdptx_write(hdptx, CMN_REG0038, 0x00);
hdptx_write(hdptx, CMN_REG0039, 0x00);
hdptx_write(hdptx, CMN_REG003A, 0x00);
hdptx_write(hdptx, CMN_REG003B, 0x00);
hdptx_write(hdptx, CMN_REG003C, 0x80);
hdptx_write(hdptx, CMN_REG003D, 0x40);
hdptx_write(hdptx, CMN_REG003E, 0x0c);
hdptx_write(hdptx, CMN_REG003F, 0x83);
hdptx_write(hdptx, CMN_REG0040, 0x06);
hdptx_write(hdptx, CMN_REG0041, 0x20);
hdptx_write(hdptx, CMN_REG0042, 0x78);
hdptx_write(hdptx, CMN_REG0043, 0x00);
hdptx_write(hdptx, CMN_REG0044, 0x46);
hdptx_write(hdptx, CMN_REG0045, 0x24);
hdptx_write(hdptx, CMN_REG0046, 0xdd);
hdptx_write(hdptx, CMN_REG0047, 0x00);
hdptx_write(hdptx, CMN_REG0048, 0x11);
hdptx_write(hdptx, CMN_REG0049, 0xfa);
hdptx_write(hdptx, CMN_REG004A, 0x08);
hdptx_write(hdptx, CMN_REG004B, 0x00);
hdptx_write(hdptx, CMN_REG004C, 0x01);
hdptx_write(hdptx, CMN_REG004D, 0x64);
hdptx_write(hdptx, CMN_REG004E, 0x34);
hdptx_write(hdptx, CMN_REG004F, 0x00);
hdptx_write(hdptx, CMN_REG0050, 0x00);
hdptx_write(hdptx, CMN_REG0051, cfg->pms_mdiv);
hdptx_write(hdptx, CMN_REG0055, cfg->pms_mdiv_afc);
hdptx_write(hdptx, CMN_REG0059, (cfg->pms_pdiv << 4) | cfg->pms_refdiv);
hdptx_write(hdptx, CMN_REG005A, (cfg->pms_sdiv << 4));
hdptx_write(hdptx, CMN_REG005C, 0x25);
hdptx_write(hdptx, CMN_REG005D, 0x0c);
hdptx_write(hdptx, CMN_REG005E, 0x4f);
hdptx_update_bits(hdptx, CMN_REG005E, ROPLL_SDM_EN_MASK,
ROPLL_SDM_EN(cfg->sdm_en));
if (!cfg->sdm_en)
hdptx_update_bits(hdptx, CMN_REG005E, 0xf, 0);
hdptx_write(hdptx, CMN_REG005F, 0x01);
hdptx_update_bits(hdptx, CMN_REG0064, ROPLL_SDM_NUM_SIGN_RBR_MASK,
ROPLL_SDM_NUM_SIGN_RBR(cfg->sdm_num_sign));
hdptx_write(hdptx, CMN_REG0065, cfg->sdm_num);
hdptx_write(hdptx, CMN_REG0060, cfg->sdm_deno);
hdptx_update_bits(hdptx, CMN_REG0069, ROPLL_SDC_N_RBR_MASK,
ROPLL_SDC_N_RBR(cfg->sdc_n));
hdptx_write(hdptx, CMN_REG006C, cfg->sdc_num);
hdptx_write(hdptx, CMN_REG0070, cfg->sdc_deno);
hdptx_write(hdptx, CMN_REG006B, 0x04);
hdptx_write(hdptx, CMN_REG0073, 0x30);
hdptx_write(hdptx, CMN_REG0074, 0x04);
hdptx_write(hdptx, CMN_REG0075, 0x20);
hdptx_write(hdptx, CMN_REG0076, 0x30);
hdptx_write(hdptx, CMN_REG0077, 0x08);
hdptx_write(hdptx, CMN_REG0078, 0x0c);
hdptx_write(hdptx, CMN_REG0079, 0x00);
hdptx_write(hdptx, CMN_REG007B, 0x00);
hdptx_write(hdptx, CMN_REG007C, 0x00);
hdptx_write(hdptx, CMN_REG007D, 0x00);
hdptx_write(hdptx, CMN_REG007E, 0x00);
hdptx_write(hdptx, CMN_REG007F, 0x00);
hdptx_write(hdptx, CMN_REG0080, 0x00);
hdptx_write(hdptx, CMN_REG0081, 0x01);
hdptx_write(hdptx, CMN_REG0082, 0x04);
hdptx_write(hdptx, CMN_REG0083, 0x24);
hdptx_write(hdptx, CMN_REG0084, 0x20);
hdptx_write(hdptx, CMN_REG0085, 0x03);
hdptx_update_bits(hdptx, CMN_REG0086, PLL_PCG_POSTDIV_SEL_MASK,
PLL_PCG_POSTDIV_SEL(cfg->pms_sdiv));
hdptx_update_bits(hdptx, CMN_REG0086, PLL_PCG_CLK_SEL_MASK,
PLL_PCG_CLK_SEL(color_depth));
hdptx_update_bits(hdptx, CMN_REG0086, PLL_PCG_CLK_EN, PLL_PCG_CLK_EN);
hdptx_write(hdptx, CMN_REG0087, 0x04);
hdptx_write(hdptx, CMN_REG0089, 0x00);
hdptx_write(hdptx, CMN_REG008A, 0x55);
hdptx_write(hdptx, CMN_REG008B, 0x25);
hdptx_write(hdptx, CMN_REG008C, 0x2c);
hdptx_write(hdptx, CMN_REG008D, 0x22);
hdptx_write(hdptx, CMN_REG008E, 0x14);
hdptx_write(hdptx, CMN_REG008F, 0x20);
hdptx_write(hdptx, CMN_REG0090, 0x00);
hdptx_write(hdptx, CMN_REG0091, 0x00);
hdptx_write(hdptx, CMN_REG0092, 0x00);
hdptx_write(hdptx, CMN_REG0093, 0x00);
hdptx_write(hdptx, CMN_REG0095, 0x00);
hdptx_write(hdptx, CMN_REG0097, 0x02);
hdptx_write(hdptx, CMN_REG0099, 0x04);
hdptx_write(hdptx, CMN_REG009A, 0x11);
hdptx_write(hdptx, CMN_REG009B, 0x00);
return hdptx_post_enable_pll(hdptx);
}
static int hdptx_ropll_tmds_mode_config(struct rockchip_hdptx_phy *hdptx, u32 rate)
{
u32 bit_rate = rate & DATA_RATE_MASK;
hdptx_write(hdptx, SB_REG0114, 0x00);
hdptx_write(hdptx, SB_REG0115, 0x00);
hdptx_write(hdptx, SB_REG0116, 0x00);
hdptx_write(hdptx, SB_REG0117, 0x00);
hdptx_write(hdptx, LNTOP_REG0200, 0x06);
if (bit_rate >= 3400000) {
/* For 1/40 bitrate clk */
hdptx_write(hdptx, LNTOP_REG0201, 0x00);
hdptx_write(hdptx, LNTOP_REG0202, 0x00);
hdptx_write(hdptx, LNTOP_REG0203, 0x0f);
hdptx_write(hdptx, LNTOP_REG0204, 0xff);
hdptx_write(hdptx, LNTOP_REG0205, 0xff);
} else {
/* For 1/10 bitrate clk */
hdptx_write(hdptx, LNTOP_REG0201, 0x07);
hdptx_write(hdptx, LNTOP_REG0202, 0xc1);
hdptx_write(hdptx, LNTOP_REG0203, 0xf0);
hdptx_write(hdptx, LNTOP_REG0204, 0x7c);
hdptx_write(hdptx, LNTOP_REG0205, 0x1f);
}
hdptx_write(hdptx, LNTOP_REG0206, 0x07);
hdptx_write(hdptx, LANE_REG0303, 0x0c);
hdptx_write(hdptx, LANE_REG0307, 0x20);
hdptx_write(hdptx, LANE_REG030A, 0x17);
hdptx_write(hdptx, LANE_REG030B, 0x77);
hdptx_write(hdptx, LANE_REG030C, 0x77);
hdptx_write(hdptx, LANE_REG030D, 0x77);
hdptx_write(hdptx, LANE_REG030E, 0x38);
hdptx_write(hdptx, LANE_REG0310, 0x03);
hdptx_write(hdptx, LANE_REG0311, 0x0f);
hdptx_write(hdptx, LANE_REG0312, 0x00);
hdptx_write(hdptx, LANE_REG0316, 0x02);
hdptx_write(hdptx, LANE_REG031B, 0x01);
hdptx_write(hdptx, LANE_REG031F, 0x15);
hdptx_write(hdptx, LANE_REG0320, 0xa0);
hdptx_write(hdptx, LANE_REG0403, 0x0c);
hdptx_write(hdptx, LANE_REG0407, 0x20);
hdptx_write(hdptx, LANE_REG040A, 0x17);
hdptx_write(hdptx, LANE_REG040B, 0x77);
hdptx_write(hdptx, LANE_REG040C, 0x77);
hdptx_write(hdptx, LANE_REG040D, 0x77);
hdptx_write(hdptx, LANE_REG040E, 0x38);
hdptx_write(hdptx, LANE_REG0410, 0x03);
hdptx_write(hdptx, LANE_REG0411, 0x0f);
hdptx_write(hdptx, LANE_REG0412, 0x00);
hdptx_write(hdptx, LANE_REG0416, 0x02);
hdptx_write(hdptx, LANE_REG041B, 0x01);
hdptx_write(hdptx, LANE_REG041F, 0x15);
hdptx_write(hdptx, LANE_REG0420, 0xa0);
hdptx_write(hdptx, LANE_REG0503, 0x0c);
hdptx_write(hdptx, LANE_REG0507, 0x20);
hdptx_write(hdptx, LANE_REG050A, 0x17);
hdptx_write(hdptx, LANE_REG050B, 0x77);
hdptx_write(hdptx, LANE_REG050C, 0x77);
hdptx_write(hdptx, LANE_REG050D, 0x77);
hdptx_write(hdptx, LANE_REG050E, 0x38);
hdptx_write(hdptx, LANE_REG0510, 0x03);
hdptx_write(hdptx, LANE_REG0511, 0x0f);
hdptx_write(hdptx, LANE_REG0512, 0x00);
hdptx_write(hdptx, LANE_REG0516, 0x02);
hdptx_write(hdptx, LANE_REG051B, 0x01);
hdptx_write(hdptx, LANE_REG051F, 0x15);
hdptx_write(hdptx, LANE_REG0520, 0xa0);
hdptx_write(hdptx, LANE_REG0603, 0x0c);
hdptx_write(hdptx, LANE_REG0607, 0x20);
hdptx_write(hdptx, LANE_REG060A, 0x17);
hdptx_write(hdptx, LANE_REG060B, 0x77);
hdptx_write(hdptx, LANE_REG060C, 0x77);
hdptx_write(hdptx, LANE_REG060D, 0x77);
hdptx_write(hdptx, LANE_REG060E, 0x38);
hdptx_write(hdptx, LANE_REG0610, 0x03);
hdptx_write(hdptx, LANE_REG0611, 0x0f);
hdptx_write(hdptx, LANE_REG0612, 0x00);
hdptx_write(hdptx, LANE_REG0616, 0x02);
hdptx_write(hdptx, LANE_REG061B, 0x01);
hdptx_write(hdptx, LANE_REG061E, 0x08);
/* fix Inter-Pair Skew exceed the limits */
hdptx_write(hdptx, LANE_REG031E, 0x02);
hdptx_write(hdptx, LANE_REG041E, 0x02);
hdptx_write(hdptx, LANE_REG051E, 0x02);
hdptx_write(hdptx, LANE_REG061E, 0x0a);
hdptx_write(hdptx, LANE_REG061F, 0x15);
hdptx_write(hdptx, LANE_REG0620, 0xa0);
hdptx_write(hdptx, LANE_REG0303, 0x2f);
hdptx_write(hdptx, LANE_REG0403, 0x2f);
hdptx_write(hdptx, LANE_REG0503, 0x2f);
hdptx_write(hdptx, LANE_REG0603, 0x2f);
hdptx_write(hdptx, LANE_REG0305, 0x03);
hdptx_write(hdptx, LANE_REG0405, 0x03);
hdptx_write(hdptx, LANE_REG0505, 0x03);
hdptx_write(hdptx, LANE_REG0605, 0x03);
hdptx_write(hdptx, LANE_REG0306, 0x1c);
hdptx_write(hdptx, LANE_REG0406, 0x1c);
hdptx_write(hdptx, LANE_REG0506, 0x1c);
hdptx_write(hdptx, LANE_REG0606, 0x1c);
if (hdptx->earc_en)
hdptx_earc_config(hdptx);
return hdptx_post_enable_lane(hdptx);
}
static int hdptx_lcpll_ropll_cmn_config(struct rockchip_hdptx_phy *hdptx, unsigned long rate)
{
u32 val;
dev_info(hdptx->dev, "%s rate:%lu\n", __func__, rate);
hdptx->rate = rate * 100;
hdptx_pre_power_up(hdptx);
/* ROPLL input reference clock from LCPLL (cascade mode) */
val = (LC_REF_CLK_SEL << 16) | LC_REF_CLK_SEL;
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, val);
hdptx_write(hdptx, CMN_REG0008, 0xd0);
hdptx_write(hdptx, CMN_REG0009, 0x0c);
hdptx_write(hdptx, CMN_REG000A, 0x83);
hdptx_write(hdptx, CMN_REG000B, 0x06);
hdptx_write(hdptx, CMN_REG000C, 0x20);
hdptx_write(hdptx, CMN_REG000D, 0xb8);
hdptx_write(hdptx, CMN_REG000E, 0x0f);
hdptx_write(hdptx, CMN_REG000F, 0x0f);
hdptx_write(hdptx, CMN_REG0010, 0x04);
hdptx_write(hdptx, CMN_REG0011, 0x00);
hdptx_write(hdptx, CMN_REG0012, 0x26);
hdptx_write(hdptx, CMN_REG0013, 0x22);
hdptx_write(hdptx, CMN_REG0014, 0x24);
hdptx_write(hdptx, CMN_REG0015, 0x77);
hdptx_write(hdptx, CMN_REG0016, 0x08);
hdptx_write(hdptx, CMN_REG0017, 0x00);
hdptx_write(hdptx, CMN_REG0018, 0x04);
hdptx_write(hdptx, CMN_REG0019, 0x48);
hdptx_write(hdptx, CMN_REG001A, 0x01);
hdptx_write(hdptx, CMN_REG001B, 0x00);
hdptx_write(hdptx, CMN_REG001C, 0x01);
hdptx_write(hdptx, CMN_REG001D, 0x64);
hdptx_write(hdptx, CMN_REG001E, 0x35);
hdptx_write(hdptx, CMN_REG001F, 0x00);
hdptx_write(hdptx, CMN_REG0020, 0x6b);
hdptx_write(hdptx, CMN_REG0021, 0x6b);
hdptx_write(hdptx, CMN_REG0022, 0x11);
hdptx_write(hdptx, CMN_REG0024, 0x00);
hdptx_write(hdptx, CMN_REG0025, 0x10);
hdptx_write(hdptx, CMN_REG0026, 0x53);
hdptx_write(hdptx, CMN_REG0027, 0x15);
hdptx_write(hdptx, CMN_REG0028, 0x0d);
hdptx_write(hdptx, CMN_REG0029, 0x01);
hdptx_write(hdptx, CMN_REG002A, 0x09);
hdptx_write(hdptx, CMN_REG002B, 0x01);
hdptx_write(hdptx, CMN_REG002C, 0x02);
hdptx_write(hdptx, CMN_REG002D, 0x02);
hdptx_write(hdptx, CMN_REG002E, 0x0d);
hdptx_write(hdptx, CMN_REG002F, 0x61);
hdptx_write(hdptx, CMN_REG0030, 0x00);
hdptx_write(hdptx, CMN_REG0031, 0x20);
hdptx_write(hdptx, CMN_REG0032, 0x30);
hdptx_write(hdptx, CMN_REG0033, 0x0b);
hdptx_write(hdptx, CMN_REG0034, 0x23);
hdptx_write(hdptx, CMN_REG0035, 0x00);
hdptx_write(hdptx, CMN_REG0037, 0x00);
hdptx_write(hdptx, CMN_REG0038, 0x00);
hdptx_write(hdptx, CMN_REG0039, 0x00);
hdptx_write(hdptx, CMN_REG003A, 0x00);
hdptx_write(hdptx, CMN_REG003B, 0x00);
hdptx_write(hdptx, CMN_REG003C, 0x80);
hdptx_write(hdptx, CMN_REG003D, 0xc0);
hdptx_write(hdptx, CMN_REG003E, 0x0c);
hdptx_write(hdptx, CMN_REG003F, 0x83);
hdptx_write(hdptx, CMN_REG0040, 0x06);
hdptx_write(hdptx, CMN_REG0041, 0x20);
hdptx_write(hdptx, CMN_REG0042, 0xb8);
hdptx_write(hdptx, CMN_REG0043, 0x00);
hdptx_write(hdptx, CMN_REG0044, 0x46);
hdptx_write(hdptx, CMN_REG0045, 0x24);
hdptx_write(hdptx, CMN_REG0046, 0xff);
hdptx_write(hdptx, CMN_REG0047, 0x00);
hdptx_write(hdptx, CMN_REG0048, 0x44);
hdptx_write(hdptx, CMN_REG0049, 0xfa);
hdptx_write(hdptx, CMN_REG004A, 0x08);
hdptx_write(hdptx, CMN_REG004B, 0x00);
hdptx_write(hdptx, CMN_REG004C, 0x01);
hdptx_write(hdptx, CMN_REG004D, 0x64);
hdptx_write(hdptx, CMN_REG004E, 0x14);
hdptx_write(hdptx, CMN_REG004F, 0x00);
hdptx_write(hdptx, CMN_REG0050, 0x00);
hdptx_write(hdptx, CMN_REG0054, 0x19);
hdptx_write(hdptx, CMN_REG0058, 0x19);
hdptx_write(hdptx, CMN_REG0059, 0x11);
hdptx_write(hdptx, CMN_REG005B, 0x30);
hdptx_write(hdptx, CMN_REG005C, 0x25);
hdptx_write(hdptx, CMN_REG005D, 0x14);
hdptx_write(hdptx, CMN_REG005E, 0x0e);
hdptx_write(hdptx, CMN_REG005F, 0x01);
hdptx_write(hdptx, CMN_REG0063, 0x01);
hdptx_write(hdptx, CMN_REG0064, 0x0e);
hdptx_write(hdptx, CMN_REG0068, 0x00);
hdptx_write(hdptx, CMN_REG0069, 0x02);
hdptx_write(hdptx, CMN_REG006B, 0x00);
hdptx_write(hdptx, CMN_REG006F, 0x00);
hdptx_write(hdptx, CMN_REG0073, 0x02);
hdptx_write(hdptx, CMN_REG0074, 0x00);
hdptx_write(hdptx, CMN_REG0075, 0x20);
hdptx_write(hdptx, CMN_REG0076, 0x30);
hdptx_write(hdptx, CMN_REG0077, 0x08);
hdptx_write(hdptx, CMN_REG0078, 0x0c);
hdptx_write(hdptx, CMN_REG007A, 0x00);
hdptx_write(hdptx, CMN_REG007B, 0x00);
hdptx_write(hdptx, CMN_REG007C, 0x00);
hdptx_write(hdptx, CMN_REG007D, 0x00);
hdptx_write(hdptx, CMN_REG007E, 0x00);
hdptx_write(hdptx, CMN_REG007F, 0x00);
hdptx_write(hdptx, CMN_REG0080, 0x00);
hdptx_write(hdptx, CMN_REG0081, 0x09);
hdptx_write(hdptx, CMN_REG0082, 0x04);
hdptx_write(hdptx, CMN_REG0083, 0x24);
hdptx_write(hdptx, CMN_REG0084, 0x20);
hdptx_write(hdptx, CMN_REG0085, 0x03);
hdptx_write(hdptx, CMN_REG0086, 0x11);
hdptx_write(hdptx, CMN_REG0087, 0x0c);
hdptx_write(hdptx, CMN_REG0089, 0x00);
hdptx_write(hdptx, CMN_REG008A, 0x55);
hdptx_write(hdptx, CMN_REG008B, 0x25);
hdptx_write(hdptx, CMN_REG008C, 0x2c);
hdptx_write(hdptx, CMN_REG008D, 0x22);
hdptx_write(hdptx, CMN_REG008E, 0x14);
hdptx_write(hdptx, CMN_REG008F, 0x20);
hdptx_write(hdptx, CMN_REG0090, 0x00);
hdptx_write(hdptx, CMN_REG0091, 0x00);
hdptx_write(hdptx, CMN_REG0092, 0x00);
hdptx_write(hdptx, CMN_REG0093, 0x00);
hdptx_write(hdptx, CMN_REG0095, 0x03);
hdptx_write(hdptx, CMN_REG0097, 0x00);
hdptx_write(hdptx, CMN_REG0099, 0x00);
hdptx_write(hdptx, CMN_REG009A, 0x11);
hdptx_write(hdptx, CMN_REG009B, 0x10);
hdptx_write(hdptx, CMN_REG009E, 0x03);
hdptx_write(hdptx, CMN_REG00A0, 0x60);
hdptx_write(hdptx, CMN_REG009F, 0xff);
if (hdptx->earc_en)
hdptx_earc_config(hdptx);
return hdptx_post_enable_pll(hdptx);
}
static int hdptx_lcpll_cmn_config(struct rockchip_hdptx_phy *hdptx, unsigned long rate)
{
u32 bit_rate = rate & DATA_RATE_MASK;
u8 color_depth = (rate & COLOR_DEPTH_MASK) ? 1 : 0;
struct lcpll_config *cfg;
u8 i;
dev_info(hdptx->dev, "%s rate:%lu\n", __func__, rate);
hdptx->rate = bit_rate * 100;
for (i = 0; i < ARRAY_SIZE(lcpll_cfg); i++)
if (bit_rate == lcpll_cfg[i].bit_rate)
break;
if (i == ARRAY_SIZE(lcpll_cfg)) {
dev_err(hdptx->dev, "can't find frl rate, phy pll init failed\n");
return -EINVAL;
}
cfg = &lcpll_cfg[i];
hdptx_pre_power_up(hdptx);
hdptx_grf_write(hdptx, GRF_HDPTX_CON0, LC_REF_CLK_SEL << 16);
hdptx_update_bits(hdptx, CMN_REG0008, LCPLL_EN_MASK |
LCPLL_LCVCO_MODE_EN_MASK, LCPLL_EN(1) |
LCPLL_LCVCO_MODE_EN(cfg->lcvco_mode_en));
hdptx_write(hdptx, CMN_REG0009, 0x0c);
hdptx_write(hdptx, CMN_REG000A, 0x83);
hdptx_write(hdptx, CMN_REG000B, 0x06);
hdptx_write(hdptx, CMN_REG000C, 0x20);
hdptx_write(hdptx, CMN_REG000D, 0xb8);
hdptx_write(hdptx, CMN_REG000E, 0x0f);
hdptx_write(hdptx, CMN_REG000F, 0x0f);
hdptx_write(hdptx, CMN_REG0010, 0x04);
hdptx_write(hdptx, CMN_REG0011, 0x00);
hdptx_write(hdptx, CMN_REG0012, 0x26);
hdptx_write(hdptx, CMN_REG0013, 0x22);
hdptx_write(hdptx, CMN_REG0014, 0x24);
hdptx_write(hdptx, CMN_REG0015, 0x77);
hdptx_write(hdptx, CMN_REG0016, 0x08);
hdptx_write(hdptx, CMN_REG0017, 0x00);
hdptx_write(hdptx, CMN_REG0018, 0x04);
hdptx_write(hdptx, CMN_REG0019, 0x48);
hdptx_write(hdptx, CMN_REG001A, 0x01);
hdptx_write(hdptx, CMN_REG001B, 0x00);
hdptx_write(hdptx, CMN_REG001C, 0x01);
hdptx_write(hdptx, CMN_REG001D, 0x64);
hdptx_update_bits(hdptx, CMN_REG001E, LCPLL_PI_EN_MASK |
LCPLL_100M_CLK_EN_MASK,
LCPLL_PI_EN(cfg->pi_en) |
LCPLL_100M_CLK_EN(cfg->clk_en_100m));
hdptx_write(hdptx, CMN_REG001F, 0x00);
hdptx_write(hdptx, CMN_REG0020, cfg->pms_mdiv);
hdptx_write(hdptx, CMN_REG0021, cfg->pms_mdiv_afc);
hdptx_write(hdptx, CMN_REG0022, (cfg->pms_pdiv << 4) | cfg->pms_refdiv);
hdptx_write(hdptx, CMN_REG0023, (cfg->pms_sdiv << 4) | cfg->pms_sdiv);
hdptx_write(hdptx, CMN_REG0025, 0x10);
hdptx_write(hdptx, CMN_REG0026, 0x53);
hdptx_write(hdptx, CMN_REG0027, 0x01);
hdptx_write(hdptx, CMN_REG0028, 0x0d);
hdptx_write(hdptx, CMN_REG0029, 0x01);
hdptx_write(hdptx, CMN_REG002A, cfg->sdm_deno);
hdptx_write(hdptx, CMN_REG002B, cfg->sdm_num_sign);
hdptx_write(hdptx, CMN_REG002C, cfg->sdm_num);
hdptx_update_bits(hdptx, CMN_REG002D, LCPLL_SDC_N_MASK,
LCPLL_SDC_N(cfg->sdc_n));
hdptx_write(hdptx, CMN_REG002E, 0x02);
hdptx_write(hdptx, CMN_REG002F, 0x0d);
hdptx_write(hdptx, CMN_REG0030, 0x00);
hdptx_write(hdptx, CMN_REG0031, 0x20);
hdptx_write(hdptx, CMN_REG0032, 0x30);
hdptx_write(hdptx, CMN_REG0033, 0x0b);
hdptx_write(hdptx, CMN_REG0034, 0x23);
hdptx_write(hdptx, CMN_REG0035, 0x00);
hdptx_write(hdptx, CMN_REG0038, 0x00);
hdptx_write(hdptx, CMN_REG0039, 0x00);
hdptx_write(hdptx, CMN_REG003A, 0x00);
hdptx_write(hdptx, CMN_REG003B, 0x00);
hdptx_write(hdptx, CMN_REG003C, 0x80);
hdptx_write(hdptx, CMN_REG003D, 0x00);
hdptx_write(hdptx, CMN_REG003E, 0x0c);
hdptx_write(hdptx, CMN_REG003F, 0x83);
hdptx_write(hdptx, CMN_REG0040, 0x06);
hdptx_write(hdptx, CMN_REG0041, 0x20);
hdptx_write(hdptx, CMN_REG0042, 0xb8);
hdptx_write(hdptx, CMN_REG0043, 0x00);
hdptx_write(hdptx, CMN_REG0044, 0x46);
hdptx_write(hdptx, CMN_REG0045, 0x24);
hdptx_write(hdptx, CMN_REG0046, 0xff);
hdptx_write(hdptx, CMN_REG0047, 0x00);
hdptx_write(hdptx, CMN_REG0048, 0x44);
hdptx_write(hdptx, CMN_REG0049, 0xfa);
hdptx_write(hdptx, CMN_REG004A, 0x08);
hdptx_write(hdptx, CMN_REG004B, 0x00);
hdptx_write(hdptx, CMN_REG004C, 0x01);
hdptx_write(hdptx, CMN_REG004D, 0x64);
hdptx_write(hdptx, CMN_REG004E, 0x14);
hdptx_write(hdptx, CMN_REG004F, 0x00);
hdptx_write(hdptx, CMN_REG0050, 0x00);
hdptx_write(hdptx, CMN_REG0051, 0x00);
hdptx_write(hdptx, CMN_REG0055, 0x00);
hdptx_write(hdptx, CMN_REG0059, 0x11);
hdptx_write(hdptx, CMN_REG005A, 0x03);
hdptx_write(hdptx, CMN_REG005C, 0x05);
hdptx_write(hdptx, CMN_REG005D, 0x0c);
hdptx_write(hdptx, CMN_REG005E, 0x07);
hdptx_write(hdptx, CMN_REG005F, 0x01);
hdptx_write(hdptx, CMN_REG0060, 0x01);
hdptx_write(hdptx, CMN_REG0064, 0x07);
hdptx_write(hdptx, CMN_REG0065, 0x00);
hdptx_write(hdptx, CMN_REG0069, 0x00);
hdptx_write(hdptx, CMN_REG006B, 0x04);
hdptx_write(hdptx, CMN_REG006C, 0x00);
hdptx_write(hdptx, CMN_REG0070, 0x01);
hdptx_write(hdptx, CMN_REG0073, 0x30);
hdptx_write(hdptx, CMN_REG0074, 0x00);
hdptx_write(hdptx, CMN_REG0075, 0x20);
hdptx_write(hdptx, CMN_REG0076, 0x30);
hdptx_write(hdptx, CMN_REG0077, 0x08);
hdptx_write(hdptx, CMN_REG0078, 0x0c);
hdptx_write(hdptx, CMN_REG0079, 0x00);
hdptx_write(hdptx, CMN_REG007B, 0x00);
hdptx_write(hdptx, CMN_REG007C, 0x00);
hdptx_write(hdptx, CMN_REG007D, 0x00);
hdptx_write(hdptx, CMN_REG007E, 0x00);
hdptx_write(hdptx, CMN_REG007F, 0x00);
hdptx_write(hdptx, CMN_REG0080, 0x00);
hdptx_write(hdptx, CMN_REG0081, 0x09);
hdptx_write(hdptx, CMN_REG0082, 0x04);
hdptx_write(hdptx, CMN_REG0083, 0x24);
hdptx_write(hdptx, CMN_REG0084, 0x20);
hdptx_write(hdptx, CMN_REG0085, 0x03);
hdptx_write(hdptx, CMN_REG0086, 0x01);
hdptx_update_bits(hdptx, CMN_REG0086, PLL_PCG_POSTDIV_SEL_MASK,
PLL_PCG_POSTDIV_SEL(cfg->pms_sdiv));
hdptx_update_bits(hdptx, CMN_REG0086, PLL_PCG_CLK_SEL_MASK,
PLL_PCG_CLK_SEL(color_depth));
hdptx_write(hdptx, CMN_REG0087, 0x0c);
hdptx_write(hdptx, CMN_REG0089, 0x02);
hdptx_write(hdptx, CMN_REG008A, 0x55);
hdptx_write(hdptx, CMN_REG008B, 0x25);
hdptx_write(hdptx, CMN_REG008C, 0x2c);
hdptx_write(hdptx, CMN_REG008D, 0x22);
hdptx_write(hdptx, CMN_REG008E, 0x14);
hdptx_write(hdptx, CMN_REG008F, 0x20);
hdptx_write(hdptx, CMN_REG0090, 0x00);
hdptx_write(hdptx, CMN_REG0091, 0x00);
hdptx_write(hdptx, CMN_REG0092, 0x00);
hdptx_write(hdptx, CMN_REG0093, 0x00);
hdptx_write(hdptx, CMN_REG0095, 0x00);
hdptx_write(hdptx, CMN_REG0097, 0x00);
hdptx_write(hdptx, CMN_REG0099, 0x00);
hdptx_write(hdptx, CMN_REG009A, 0x11);
hdptx_write(hdptx, CMN_REG009B, 0x10);
return hdptx_post_enable_pll(hdptx);
}
static int hdptx_lcpll_ropll_frl_mode_config(struct rockchip_hdptx_phy *hdptx)
{
hdptx_write(hdptx, SB_REG0114, 0x00);
hdptx_write(hdptx, SB_REG0115, 0x00);
hdptx_write(hdptx, SB_REG0116, 0x00);
hdptx_write(hdptx, SB_REG0117, 0x00);
hdptx_write(hdptx, LNTOP_REG0200, 0x04);
hdptx_write(hdptx, LNTOP_REG0201, 0x00);
hdptx_write(hdptx, LNTOP_REG0202, 0x00);
hdptx_write(hdptx, LNTOP_REG0203, 0xf0);
hdptx_write(hdptx, LNTOP_REG0204, 0xff);
hdptx_write(hdptx, LNTOP_REG0205, 0xff);
hdptx_write(hdptx, LNTOP_REG0206, 0x05);
hdptx_write(hdptx, LANE_REG0303, 0x0c);
hdptx_write(hdptx, LANE_REG0307, 0x20);
hdptx_write(hdptx, LANE_REG030A, 0x17);
hdptx_write(hdptx, LANE_REG030B, 0x77);
hdptx_write(hdptx, LANE_REG030C, 0x77);
hdptx_write(hdptx, LANE_REG030D, 0x77);
hdptx_write(hdptx, LANE_REG030E, 0x38);
hdptx_write(hdptx, LANE_REG0310, 0x03);
hdptx_write(hdptx, LANE_REG0311, 0x0f);
hdptx_write(hdptx, LANE_REG0312, 0x3c);
hdptx_write(hdptx, LANE_REG0316, 0x02);
hdptx_write(hdptx, LANE_REG031B, 0x01);
hdptx_write(hdptx, LANE_REG031F, 0x15);
hdptx_write(hdptx, LANE_REG0320, 0xa0);
hdptx_write(hdptx, LANE_REG0403, 0x0c);
hdptx_write(hdptx, LANE_REG0407, 0x20);
hdptx_write(hdptx, LANE_REG040A, 0x17);
hdptx_write(hdptx, LANE_REG040B, 0x77);
hdptx_write(hdptx, LANE_REG040C, 0x77);
hdptx_write(hdptx, LANE_REG040D, 0x77);
hdptx_write(hdptx, LANE_REG040E, 0x38);
hdptx_write(hdptx, LANE_REG0410, 0x03);
hdptx_write(hdptx, LANE_REG0411, 0x0f);
hdptx_write(hdptx, LANE_REG0412, 0x3c);
hdptx_write(hdptx, LANE_REG0416, 0x02);
hdptx_write(hdptx, LANE_REG041B, 0x01);
hdptx_write(hdptx, LANE_REG041F, 0x15);
hdptx_write(hdptx, LANE_REG0420, 0xa0);
hdptx_write(hdptx, LANE_REG0503, 0x0c);
hdptx_write(hdptx, LANE_REG0507, 0x20);
hdptx_write(hdptx, LANE_REG050A, 0x17);
hdptx_write(hdptx, LANE_REG050B, 0x77);
hdptx_write(hdptx, LANE_REG050C, 0x77);
hdptx_write(hdptx, LANE_REG050D, 0x77);
hdptx_write(hdptx, LANE_REG0507, 0x20);
hdptx_write(hdptx, LANE_REG050A, 0x17);
hdptx_write(hdptx, LANE_REG050B, 0x77);
hdptx_write(hdptx, LANE_REG050C, 0x77);
hdptx_write(hdptx, LANE_REG050D, 0x77);
hdptx_write(hdptx, LANE_REG050E, 0x38);
hdptx_write(hdptx, LANE_REG0510, 0x03);
hdptx_write(hdptx, LANE_REG0511, 0x0f);
hdptx_write(hdptx, LANE_REG0512, 0x3c);
hdptx_write(hdptx, LANE_REG0516, 0x02);
hdptx_write(hdptx, LANE_REG051B, 0x01);
hdptx_write(hdptx, LANE_REG051F, 0x15);
hdptx_write(hdptx, LANE_REG0520, 0xa0);
hdptx_write(hdptx, LANE_REG0603, 0x0c);
hdptx_write(hdptx, LANE_REG0607, 0x20);
hdptx_write(hdptx, LANE_REG060A, 0x17);
hdptx_write(hdptx, LANE_REG060B, 0x77);
hdptx_write(hdptx, LANE_REG060C, 0x77);
hdptx_write(hdptx, LANE_REG060D, 0x77);
hdptx_write(hdptx, LANE_REG060E, 0x38);
hdptx_write(hdptx, LANE_REG0610, 0x03);
hdptx_write(hdptx, LANE_REG0611, 0x0f);
hdptx_write(hdptx, LANE_REG0612, 0x3c);
hdptx_write(hdptx, LANE_REG0616, 0x02);
hdptx_write(hdptx, LANE_REG061B, 0x01);
hdptx_write(hdptx, LANE_REG061F, 0x15);
hdptx_write(hdptx, LANE_REG0620, 0xa0);
hdptx_write(hdptx, LANE_REG031E, 0x02);
hdptx_write(hdptx, LANE_REG041E, 0x02);
hdptx_write(hdptx, LANE_REG051E, 0x02);
hdptx_write(hdptx, LANE_REG061E, 0x02);
hdptx_write(hdptx, LANE_REG0303, 0x2f);
hdptx_write(hdptx, LANE_REG0403, 0x2f);
hdptx_write(hdptx, LANE_REG0503, 0x2f);
hdptx_write(hdptx, LANE_REG0603, 0x2f);
hdptx_write(hdptx, LANE_REG0305, 0x03);
hdptx_write(hdptx, LANE_REG0405, 0x03);
hdptx_write(hdptx, LANE_REG0505, 0x03);
hdptx_write(hdptx, LANE_REG0605, 0x03);
hdptx_write(hdptx, LANE_REG0306, 0xfc);
hdptx_write(hdptx, LANE_REG0406, 0xfc);
hdptx_write(hdptx, LANE_REG0506, 0xfc);
hdptx_write(hdptx, LANE_REG0606, 0xfc);
hdptx_write(hdptx, LANE_REG0305, 0x4f);
hdptx_write(hdptx, LANE_REG0405, 0x4f);
hdptx_write(hdptx, LANE_REG0505, 0x4f);
hdptx_write(hdptx, LANE_REG0605, 0x4f);
hdptx_write(hdptx, LANE_REG0304, 0x14);
hdptx_write(hdptx, LANE_REG0404, 0x14);
hdptx_write(hdptx, LANE_REG0504, 0x14);
hdptx_write(hdptx, LANE_REG0604, 0x14);
if (hdptx->earc_en)
hdptx_earc_config(hdptx);
return hdptx_post_enable_lane(hdptx);
}
static int hdptx_lcpll_frl_mode_config(struct rockchip_hdptx_phy *hdptx, u32 rate)
{
hdptx_write(hdptx, SB_REG0114, 0x00);
hdptx_write(hdptx, SB_REG0115, 0x00);
hdptx_write(hdptx, SB_REG0116, 0x00);
hdptx_write(hdptx, SB_REG0117, 0x00);
hdptx_write(hdptx, LNTOP_REG0200, 0x04);
hdptx_write(hdptx, LNTOP_REG0201, 0x00);
hdptx_write(hdptx, LNTOP_REG0202, 0x00);
hdptx_write(hdptx, LNTOP_REG0203, 0xf0);
hdptx_write(hdptx, LNTOP_REG0204, 0xff);
hdptx_write(hdptx, LNTOP_REG0205, 0xff);
hdptx_write(hdptx, LNTOP_REG0206, 0x05);
hdptx_write(hdptx, LANE_REG0303, 0x0c);
hdptx_write(hdptx, LANE_REG0307, 0x20);
hdptx_write(hdptx, LANE_REG030A, 0x17);
hdptx_write(hdptx, LANE_REG030B, 0x77);
hdptx_write(hdptx, LANE_REG030C, 0x77);
hdptx_write(hdptx, LANE_REG030D, 0x77);
hdptx_write(hdptx, LANE_REG030E, 0x38);
hdptx_write(hdptx, LANE_REG0310, 0x03);
hdptx_write(hdptx, LANE_REG0311, 0x0f);
hdptx_write(hdptx, LANE_REG0312, 0x3c);
hdptx_write(hdptx, LANE_REG0316, 0x02);
hdptx_write(hdptx, LANE_REG031B, 0x01);
hdptx_write(hdptx, LANE_REG031F, 0x15);
hdptx_write(hdptx, LANE_REG0320, 0xa0);
hdptx_write(hdptx, LANE_REG0403, 0x0c);
hdptx_write(hdptx, LANE_REG0407, 0x20);
hdptx_write(hdptx, LANE_REG040A, 0x17);
hdptx_write(hdptx, LANE_REG040B, 0x77);
hdptx_write(hdptx, LANE_REG040C, 0x77);
hdptx_write(hdptx, LANE_REG040D, 0x77);
hdptx_write(hdptx, LANE_REG040E, 0x38);
hdptx_write(hdptx, LANE_REG0410, 0x03);
hdptx_write(hdptx, LANE_REG0411, 0x0f);
hdptx_write(hdptx, LANE_REG0412, 0x3c);
hdptx_write(hdptx, LANE_REG0416, 0x02);
hdptx_write(hdptx, LANE_REG041B, 0x01);
hdptx_write(hdptx, LANE_REG041F, 0x15);
hdptx_write(hdptx, LANE_REG0420, 0xa0);
hdptx_write(hdptx, LANE_REG0503, 0x0c);
hdptx_write(hdptx, LANE_REG0507, 0x20);
hdptx_write(hdptx, LANE_REG050A, 0x17);
hdptx_write(hdptx, LANE_REG050B, 0x77);
hdptx_write(hdptx, LANE_REG050C, 0x77);
hdptx_write(hdptx, LANE_REG050D, 0x77);
hdptx_write(hdptx, LANE_REG050E, 0x38);
hdptx_write(hdptx, LANE_REG0510, 0x03);
hdptx_write(hdptx, LANE_REG0511, 0x0f);
hdptx_write(hdptx, LANE_REG0512, 0x3c);
hdptx_write(hdptx, LANE_REG0516, 0x02);
hdptx_write(hdptx, LANE_REG051B, 0x01);
hdptx_write(hdptx, LANE_REG051F, 0x15);
hdptx_write(hdptx, LANE_REG0520, 0xa0);
hdptx_write(hdptx, LANE_REG0603, 0x0c);
hdptx_write(hdptx, LANE_REG0607, 0x20);
hdptx_write(hdptx, LANE_REG060A, 0x17);
hdptx_write(hdptx, LANE_REG060B, 0x77);
hdptx_write(hdptx, LANE_REG060C, 0x77);
hdptx_write(hdptx, LANE_REG060D, 0x77);
hdptx_write(hdptx, LANE_REG060E, 0x38);
hdptx_write(hdptx, LANE_REG0610, 0x03);
hdptx_write(hdptx, LANE_REG0611, 0x0f);
hdptx_write(hdptx, LANE_REG0612, 0x3c);
hdptx_write(hdptx, LANE_REG0616, 0x02);
hdptx_write(hdptx, LANE_REG061B, 0x01);
hdptx_write(hdptx, LANE_REG061F, 0x15);
hdptx_write(hdptx, LANE_REG0620, 0xa0);
hdptx_write(hdptx, LANE_REG031E, 0x02);
hdptx_write(hdptx, LANE_REG041E, 0x02);
hdptx_write(hdptx, LANE_REG051E, 0x02);
hdptx_write(hdptx, LANE_REG061E, 0x02);
hdptx_write(hdptx, LANE_REG0303, 0x2f);
hdptx_write(hdptx, LANE_REG0403, 0x2f);
hdptx_write(hdptx, LANE_REG0503, 0x2f);
hdptx_write(hdptx, LANE_REG0603, 0x2f);
hdptx_write(hdptx, LANE_REG0305, 0x03);
hdptx_write(hdptx, LANE_REG0405, 0x03);
hdptx_write(hdptx, LANE_REG0505, 0x03);
hdptx_write(hdptx, LANE_REG0605, 0x03);
hdptx_write(hdptx, LANE_REG0306, 0xfc);
hdptx_write(hdptx, LANE_REG0406, 0xfc);
hdptx_write(hdptx, LANE_REG0506, 0xfc);
hdptx_write(hdptx, LANE_REG0606, 0xfc);
hdptx_write(hdptx, LANE_REG0305, 0x4f);
hdptx_write(hdptx, LANE_REG0405, 0x4f);
hdptx_write(hdptx, LANE_REG0505, 0x4f);
hdptx_write(hdptx, LANE_REG0605, 0x4f);
hdptx_write(hdptx, LANE_REG0304, 0x14);
hdptx_write(hdptx, LANE_REG0404, 0x14);
hdptx_write(hdptx, LANE_REG0504, 0x14);
hdptx_write(hdptx, LANE_REG0604, 0x14);
if (hdptx->earc_en)
hdptx_earc_config(hdptx);
return hdptx_post_enable_lane(hdptx);
}
static int rockchip_hdptx_phy_power_on(struct phy *phy)
{
struct rockchip_hdptx_phy *hdptx = phy_get_drvdata(phy);
int bus_width = phy_get_bus_width(hdptx->phy);
int bit_rate = bus_width & DATA_RATE_MASK;
dev_info(hdptx->dev, "bus_width:0x%x,bit_rate:%d\n", bus_width, bit_rate);
if (bus_width & HDMI_EARC_MASK)
hdptx->earc_en = true;
else
hdptx->earc_en = false;
if (bus_width & HDMI_MODE_MASK)
if (bit_rate != (FRL_8G_4LANES / 100))
return hdptx_lcpll_frl_mode_config(hdptx, bus_width);
else
return hdptx_lcpll_ropll_frl_mode_config(hdptx);
else
return hdptx_ropll_tmds_mode_config(hdptx, bus_width);
}
static int rockchip_hdptx_phy_power_off(struct phy *phy)
{
struct rockchip_hdptx_phy *hdptx = phy_get_drvdata(phy);
/* disable phy lane output */
hdptx_write(hdptx, LNTOP_REG0207, 0);
return 0;
}
static int rockchip_hdptx_phy_set_mode(struct phy *phy, enum phy_mode mode,
int submode)
{
struct rockchip_hdptx_phy *hdptx = phy_get_drvdata(phy);
u8 pre_shoot;
u8 de_emphasis;
if (submode < 0 || submode >= FFE_CFG_TAB_LEN) {
dev_err(hdptx->dev, "out of ffe cfg table range\n");
return -EINVAL;
}
pre_shoot = ffe_cfg_table[submode].pre_shoot;
de_emphasis = ffe_cfg_table[submode].de_emphasis;
hdptx_update_bits(hdptx, LANE_REG0305, PRE_SHOOT_MASK, PRE_SHOOT(pre_shoot));
hdptx_update_bits(hdptx, LANE_REG0405, PRE_SHOOT_MASK, PRE_SHOOT(pre_shoot));
hdptx_update_bits(hdptx, LANE_REG0505, PRE_SHOOT_MASK, PRE_SHOOT(pre_shoot));
hdptx_update_bits(hdptx, LANE_REG0605, PRE_SHOOT_MASK, PRE_SHOOT(pre_shoot));
hdptx_update_bits(hdptx, LANE_REG0304, DE_EMPHASIS_MASK, DE_EMPHASIS(de_emphasis));
hdptx_update_bits(hdptx, LANE_REG0404, DE_EMPHASIS_MASK, DE_EMPHASIS(de_emphasis));
hdptx_update_bits(hdptx, LANE_REG0504, DE_EMPHASIS_MASK, DE_EMPHASIS(de_emphasis));
hdptx_update_bits(hdptx, LANE_REG0604, DE_EMPHASIS_MASK, DE_EMPHASIS(de_emphasis));
return 0;
}
static const struct phy_ops rockchip_hdptx_phy_ops = {
.owner = THIS_MODULE,
.power_on = rockchip_hdptx_phy_power_on,
.power_off = rockchip_hdptx_phy_power_off,
.set_mode = rockchip_hdptx_phy_set_mode,
};
static const struct of_device_id rockchip_hdptx_phy_of_match[] = {
{ .compatible = "rockchip,rk3588-hdptx-phy-hdmi",
},
{}
};
MODULE_DEVICE_TABLE(of, rockchip_hdptx_phy_of_match);
static void rockchip_hdptx_phy_runtime_disable(void *data)
{
struct rockchip_hdptx_phy *hdptx = data;
clk_bulk_unprepare(hdptx->nr_clks, hdptx->clks);
pm_runtime_disable(hdptx->dev);
}
#define PLL_REF_CLK 24000000ULL
/*
* pll frequency in frl mode is calculated differently from that in tmds
* mode and is different from the actual frl frequency. So use register
* configuration to confirm the current frl frequency.
*/
static bool hdptx_frl_pll_cfg_equal(struct rockchip_hdptx_phy *hdptx, struct lcpll_config *cfg)
{
u8 mdiv, sdiv, sdm_num, sdm_deno, sdc_n;
bool sdm_num_sign;
mdiv = hdptx_read(hdptx, CMN_REG0020);
sdiv = hdptx_read(hdptx, CMN_REG0023) & 0xf;
sdm_num_sign = hdptx_read(hdptx, CMN_REG002B);
sdm_num = hdptx_read(hdptx, CMN_REG002C);
sdm_deno = hdptx_read(hdptx, CMN_REG002A);
sdc_n = (hdptx_read(hdptx, CMN_REG002D) & LCPLL_SDC_N_MASK) >> 1;
if (cfg->pms_mdiv == mdiv && cfg->pms_sdiv == sdiv && cfg->sdm_num_sign == sdm_num_sign &&
cfg->sdm_num == sdm_num && cfg->sdm_deno == sdm_deno && cfg->sdc_n == sdc_n)
return true;
return false;
}
static unsigned long hdptx_cal_current_rate(struct rockchip_hdptx_phy *hdptx)
{
u8 mdiv, sdiv, sdm_num, sdm_deno, sdc_n, sdc_num, sdc_deno;
u64 fout, sdm;
bool sdm_en, sdm_num_sign;
struct lcpll_config *cfg;
u8 i;
/* frl mode phy pll clk will not be used */
if (hdptx_read(hdptx, CMN_REG0008) & LCPLL_LCVCO_MODE_EN_MASK) {
for (i = 0; i < ARRAY_SIZE(lcpll_cfg); i++) {
cfg = &lcpll_cfg[i];
if (hdptx_frl_pll_cfg_equal(hdptx, cfg))
break;
}
if (i == ARRAY_SIZE(lcpll_cfg)) {
dev_err(hdptx->dev, "can't find frl rate, phy pll init failed\n");
return -EINVAL;
}
return cfg->bit_rate * 100;
}
mdiv = hdptx_read(hdptx, CMN_REG0051);
sdm_en = hdptx_read(hdptx, CMN_REG005E) & ROPLL_SDM_EN_MASK;
sdm_num_sign = hdptx_read(hdptx, CMN_REG0064) & ROPLL_SDM_NUM_SIGN_RBR_MASK;
sdm_num = hdptx_read(hdptx, CMN_REG0065);
sdm_deno = hdptx_read(hdptx, CMN_REG0060);
sdc_n = (hdptx_read(hdptx, CMN_REG0069) & ROPLL_SDC_N_RBR_MASK) + 3;
sdc_num = hdptx_read(hdptx, CMN_REG006C);
sdc_deno = hdptx_read(hdptx, CMN_REG0070);
sdiv = ((hdptx_read(hdptx, CMN_REG0086) & PLL_PCG_POSTDIV_SEL_MASK) >> 4) + 1;
fout = PLL_REF_CLK * mdiv;
if (sdm_en) {
sdm = div_u64(PLL_REF_CLK * sdc_deno * mdiv * sdm_num,
16 * sdm_deno * (sdc_deno * sdc_n - sdc_num));
if (sdm_num_sign)
fout = fout - sdm;
else
fout = fout + sdm;
}
fout = div_u64(fout * 2, sdiv * 10);
return fout;
}
static unsigned long hdptx_phy_clk_recalc_rate(struct clk_hw *hw,
unsigned long parent_rate)
{
struct rockchip_hdptx_phy *hdptx = to_rockchip_hdptx_phy(hw);
u32 val;
if (hdptx->rate)
return hdptx->rate;
val = hdptx_grf_read(hdptx, GRF_HDPTX_CON0);
if (!(val & HDPTX_I_PLL_EN))
return 0;
return hdptx_cal_current_rate(hdptx);
}
static long hdptx_phy_clk_round_rate(struct clk_hw *hw, unsigned long rate,
unsigned long *parent_rate)
{
u32 bit_rate = rate / 100;
u8 i;
if (rate > HDMI20_MAX_RATE)
return rate;
for (i = 0; i < ARRAY_SIZE(ropll_tmds_cfg); i++)
if (bit_rate == ropll_tmds_cfg[i].bit_rate)
break;
if (i == ARRAY_SIZE(ropll_tmds_cfg) && !hdptx_phy_clk_pll_calc(bit_rate, NULL))
return -EINVAL;
return rate;
}
static int hdptx_phy_clk_set_rate(struct clk_hw *hw, unsigned long rate,
unsigned long parent_rate)
{
struct rockchip_hdptx_phy *hdptx = to_rockchip_hdptx_phy(hw);
if (hdptx_grf_read(hdptx, GRF_HDPTX_STATUS) & HDPTX_O_PLL_LOCK_DONE)
hdptx_phy_disable(hdptx);
if (rate > HDMI20_MAX_RATE) {
if (rate == FRL_8G_4LANES)
return hdptx_lcpll_ropll_cmn_config(hdptx, rate / 100);
else
return hdptx_lcpll_cmn_config(hdptx, rate / 100);
} else {
return hdptx_ropll_cmn_config(hdptx, rate / 100);
}
}
static int hdptx_phy_clk_enable(struct clk_hw *hw)
{
struct rockchip_hdptx_phy *hdptx = to_rockchip_hdptx_phy(hw);
int ret;
if (hdptx->count) {
hdptx->count++;
return 0;
}
ret = clk_bulk_enable(hdptx->nr_clks, hdptx->clks);
if (ret) {
dev_err(hdptx->dev, "failed to enable clocks\n");
return ret;
}
if (hdptx->rate) {
/* hdmi phy is initialized in uboot, don't re-init phy pll */
if (hdptx->initialized) {
hdptx->initialized = false;
} else {
if (hdptx->rate > HDMI20_MAX_RATE) {
if (hdptx->rate == FRL_8G_4LANES)
ret = hdptx_lcpll_ropll_cmn_config(hdptx,
hdptx->rate / 100);
else
ret = hdptx_lcpll_cmn_config(hdptx, hdptx->rate / 100);
} else {
ret = hdptx_ropll_cmn_config(hdptx, hdptx->rate / 100);
}
}
} else {
/* default frequency */
hdptx_ropll_cmn_config(hdptx, 742500);
}
if (!ret)
hdptx->count++;
return ret;
}
static void hdptx_phy_clk_disable(struct clk_hw *hw)
{
struct rockchip_hdptx_phy *hdptx = to_rockchip_hdptx_phy(hw);
if (hdptx->count > 1) {
hdptx->count--;
return;
}
if (hdptx_grf_read(hdptx, GRF_HDPTX_STATUS) & HDPTX_O_PLL_LOCK_DONE)
hdptx_phy_disable(hdptx);
clk_bulk_disable(hdptx->nr_clks, hdptx->clks);
hdptx->count--;
}
static const struct clk_ops hdptx_phy_clk_ops = {
.recalc_rate = hdptx_phy_clk_recalc_rate,
.round_rate = hdptx_phy_clk_round_rate,
.set_rate = hdptx_phy_clk_set_rate,
.enable = hdptx_phy_clk_enable,
.disable = hdptx_phy_clk_disable,
};
static int rockchip_hdptx_phy_clk_register(struct rockchip_hdptx_phy *hdptx)
{
struct device *dev = hdptx->dev;
struct device_node *np = dev->of_node;
struct clk_init_data init = {};
struct clk *refclk;
const char *parent_name;
int ret;
refclk = devm_clk_get(dev, "ref");
if (IS_ERR(refclk)) {
dev_err(dev, "failed to get ref clock\n");
return PTR_ERR(refclk);
}
parent_name = __clk_get_name(refclk);
init.parent_names = &parent_name;
init.num_parents = 1;
init.flags = CLK_GET_RATE_NOCACHE;
init.ops = &hdptx_phy_clk_ops;
/* optional override of the clock name */
of_property_read_string(np, "clock-output-names", &init.name);
hdptx->hw.init = &init;
hdptx->dclk = devm_clk_register(hdptx->dev, &hdptx->hw);
if (IS_ERR(hdptx->dclk)) {
ret = PTR_ERR(hdptx->dclk);
dev_err(dev, "failed to register clock: %d\n", ret);
return ret;
}
ret = of_clk_add_provider(np, of_clk_src_simple_get, hdptx->dclk);
if (ret) {
dev_err(dev, "failed to register OF clock provider: %d\n", ret);
return ret;
}
return 0;
}
static int rockchip_hdptx_phy_probe(struct platform_device *pdev)
{
struct device *dev = &pdev->dev;
struct device_node *np = dev->of_node;
struct rockchip_hdptx_phy *hdptx;
struct phy_provider *phy_provider;
struct resource *res;
void __iomem *regs;
int ret;
hdptx = devm_kzalloc(dev, sizeof(*hdptx), GFP_KERNEL);
if (!hdptx)
return -ENOMEM;
hdptx->dev = dev;
hdptx->id = of_alias_get_id(dev->of_node, "hdptxhdmi");
if (hdptx->id < 0)
hdptx->id = 0;
res = platform_get_resource(pdev, IORESOURCE_MEM, 0);
regs = devm_ioremap_resource(dev, res);
if (IS_ERR(regs))
return PTR_ERR(regs);
ret = devm_clk_bulk_get_all(dev, &hdptx->clks);
if (ret < 1)
return dev_err_probe(dev, ret, "failed to get clocks\n");
hdptx->nr_clks = ret;
ret = clk_bulk_prepare(hdptx->nr_clks, hdptx->clks);
if (ret) {
dev_err(hdptx->dev, "failed to prepare clocks\n");
return ret;
}
hdptx->regmap = devm_regmap_init_mmio(dev, regs,
&rockchip_hdptx_phy_regmap_config);
if (IS_ERR(hdptx->regmap)) {
ret = PTR_ERR(hdptx->regmap);
dev_err(dev, "failed to init regmap: %d\n", ret);
goto err_regsmap;
}
hdptx->apb_reset = devm_reset_control_get(dev, "apb");
if (IS_ERR(hdptx->apb_reset)) {
ret = PTR_ERR(hdptx->apb_reset);
dev_err(dev, "failed to get apb reset: %d\n", ret);
goto err_regsmap;
}
hdptx->init_reset = devm_reset_control_get(dev, "init");
if (IS_ERR(hdptx->init_reset)) {
ret = PTR_ERR(hdptx->init_reset);
dev_err(dev, "failed to get init reset: %d\n", ret);
goto err_regsmap;
}
hdptx->cmn_reset = devm_reset_control_get(dev, "cmn");
if (IS_ERR(hdptx->cmn_reset)) {
ret = PTR_ERR(hdptx->cmn_reset);
dev_err(dev, "failed to get apb reset: %d\n", ret);
goto err_regsmap;
}
hdptx->lane_reset = devm_reset_control_get(dev, "lane");
if (IS_ERR(hdptx->lane_reset)) {
ret = PTR_ERR(hdptx->lane_reset);
dev_err(dev, "failed to get lane reset: %d\n", ret);
goto err_regsmap;
}
hdptx->grf = syscon_regmap_lookup_by_phandle(np, "rockchip,grf");
if (IS_ERR(hdptx->grf)) {
ret = PTR_ERR(hdptx->grf);
dev_err(hdptx->dev, "Unable to get rockchip,grf\n");
goto err_regsmap;
}
hdptx->phy = devm_phy_create(dev, NULL, &rockchip_hdptx_phy_ops);
if (IS_ERR(hdptx->phy)) {
dev_err(dev, "failed to create HDMI PHY\n");
ret = PTR_ERR(hdptx->phy);
goto err_regsmap;
}
phy_set_drvdata(hdptx->phy, hdptx);
pm_runtime_enable(dev);
ret = devm_add_action_or_reset(dev, rockchip_hdptx_phy_runtime_disable,
hdptx);
if (ret)
goto err_regsmap;
phy_provider = devm_of_phy_provider_register(dev, of_phy_simple_xlate);
if (IS_ERR(phy_provider)) {
dev_err(dev, "failed to register PHY provider\n");
ret = PTR_ERR(phy_provider);
goto err_regsmap;
}
/*
* If uboot logo is on, we must read uboot phy pll rate.
* Because if uboot logo is on, cru or vop will enable
* dclk before phy pll clk register. Then phy pll is dclk's
* parent clk, phy pll clk will be enabled when phy pll clk
* register. If don't read uboot pll rate, default rate 74.25M
* will be set rather than actual rate. That will cause
* kernel logo display error.
*/
if (hdptx_grf_read(hdptx, GRF_HDPTX_STATUS) & HDPTX_O_PLL_LOCK_DONE) {
hdptx->initialized = true;
hdptx->rate = hdptx_cal_current_rate(hdptx);
}
reset_control_deassert(hdptx->apb_reset);
reset_control_deassert(hdptx->cmn_reset);
reset_control_deassert(hdptx->init_reset);
ret = rockchip_hdptx_phy_clk_register(hdptx);
if (ret)
goto err_regsmap;
platform_set_drvdata(pdev, hdptx);
dev_info(dev, "hdptx phy init success\n");
return 0;
err_regsmap:
clk_bulk_unprepare(hdptx->nr_clks, hdptx->clks);
return ret;
}
static struct platform_driver rockchip_hdptx_phy_driver = {
.probe = rockchip_hdptx_phy_probe,
.driver = {
.name = "rockchip-hdptx-phy-hdmi",
.of_match_table = of_match_ptr(rockchip_hdptx_phy_of_match),
},
};
module_platform_driver(rockchip_hdptx_phy_driver);
MODULE_DESCRIPTION("Samsung HDMI-DP Transmitter Combphy Driver");
MODULE_LICENSE("GPL v2");