From 5b7c4cabbb65f5c469464da6c5f614cbd7f730f2 Mon Sep 17 00:00:00 2001 From: Linus Torvalds Date: Tue, 21 Feb 2023 18:24:12 -0800 Subject: Merge tag 'net-next-6.3' of git://git.kernel.org/pub/scm/linux/kernel/git/netdev/net-next Pull networking updates from Jakub Kicinski: "Core: - Add dedicated kmem_cache for typical/small skb->head, avoid having to access struct page at kfree time, and improve memory use. - Introduce sysctl to set default RPS configuration for new netdevs. - Define Netlink protocol specification format which can be used to describe messages used by each family and auto-generate parsers. Add tools for generating kernel data structures and uAPI headers. - Expose all net/core sysctls inside netns. - Remove 4s sleep in netpoll if carrier is instantly detected on boot. - Add configurable limit of MDB entries per port, and port-vlan. - Continue populating drop reasons throughout the stack. - Retire a handful of legacy Qdiscs and classifiers. Protocols: - Support IPv4 big TCP (TSO frames larger than 64kB). - Add IP_LOCAL_PORT_RANGE socket option, to control local port range on socket by socket basis. - Track and report in procfs number of MPTCP sockets used. - Support mixing IPv4 and IPv6 flows in the in-kernel MPTCP path manager. - IPv6: don't check net.ipv6.route.max_size and rely on garbage collection to free memory (similarly to IPv4). - Support Penultimate Segment Pop (PSP) flavor in SRv6 (RFC8986). - ICMP: add per-rate limit counters. - Add support for user scanning requests in ieee802154. - Remove static WEP support. - Support minimal Wi-Fi 7 Extremely High Throughput (EHT) rate reporting. - WiFi 7 EHT channel puncturing support (client & AP). BPF: - Add a rbtree data structure following the "next-gen data structure" precedent set by recently added linked list, that is, by using kfunc + kptr instead of adding a new BPF map type. - Expose XDP hints via kfuncs with initial support for RX hash and timestamp metadata. - Add BPF_F_NO_TUNNEL_KEY extension to bpf_skb_set_tunnel_key to better support decap on GRE tunnel devices not operating in collect metadata. - Improve x86 JIT's codegen for PROBE_MEM runtime error checks. - Remove the need for trace_printk_lock for bpf_trace_printk and bpf_trace_vprintk helpers. - Extend libbpf's bpf_tracing.h support for tracing arguments of kprobes/uprobes and syscall as a special case. - Significantly reduce the search time for module symbols by livepatch and BPF. - Enable cpumasks to be used as kptrs, which is useful for tracing programs tracking which tasks end up running on which CPUs in different time intervals. - Add support for BPF trampoline on s390x and riscv64. - Add capability to export the XDP features supported by the NIC. - Add __bpf_kfunc tag for marking kernel functions as kfuncs. - Add cgroup.memory=nobpf kernel parameter option to disable BPF memory accounting for container environments. Netfilter: - Remove the CLUSTERIP target. It has been marked as obsolete for years, and we still have WARN splats wrt races of the out-of-band /proc interface installed by this target. - Add 'destroy' commands to nf_tables. They are identical to the existing 'delete' commands, but do not return an error if the referenced object (set, chain, rule...) did not exist. Driver API: - Improve cpumask_local_spread() locality to help NICs set the right IRQ affinity on AMD platforms. - Separate C22 and C45 MDIO bus transactions more clearly. - Introduce new DCB table to control DSCP rewrite on egress. - Support configuration of Physical Layer Collision Avoidance (PLCA) Reconciliation Sublayer (RS) (802.3cg-2019). Modern version of shared medium Ethernet. - Support for MAC Merge layer (IEEE 802.3-2018 clause 99). Allowing preemption of low priority frames by high priority frames. - Add support for controlling MACSec offload using netlink SET. - Rework devlink instance refcounts to allow registration and de-registration under the instance lock. Split the code into multiple files, drop some of the unnecessarily granular locks and factor out common parts of netlink operation handling. - Add TX frame aggregation parameters (for USB drivers). - Add a new attr TCA_EXT_WARN_MSG to report TC (offload) warning messages with notifications for debug. - Allow offloading of UDP NEW connections via act_ct. - Add support for per action HW stats in TC. - Support hardware miss to TC action (continue processing in SW from a specific point in the action chain). - Warn if old Wireless Extension user space interface is used with modern cfg80211/mac80211 drivers. Do not support Wireless Extensions for Wi-Fi 7 devices at all. Everyone should switch to using nl80211 interface instead. - Improve the CAN bit timing configuration. Use extack to return error messages directly to user space, update the SJW handling, including the definition of a new default value that will benefit CAN-FD controllers, by increasing their oscillator tolerance. New hardware / drivers: - Ethernet: - nVidia BlueField-3 support (control traffic driver) - Ethernet support for imx93 SoCs - Motorcomm yt8531 gigabit Ethernet PHY - onsemi NCN26000 10BASE-T1S PHY (with support for PLCA) - Microchip LAN8841 PHY (incl. cable diagnostics and PTP) - Amlogic gxl MDIO mux - WiFi: - RealTek RTL8188EU (rtl8xxxu) - Qualcomm Wi-Fi 7 devices (ath12k) - CAN: - Renesas R-Car V4H Drivers: - Bluetooth: - Set Per Platform Antenna Gain (PPAG) for Intel controllers. - Ethernet NICs: - Intel (1G, igc): - support TSN / Qbv / packet scheduling features of i226 model - Intel (100G, ice): - use GNSS subsystem instead of TTY - multi-buffer XDP support - extend support for GPIO pins to E823 devices - nVidia/Mellanox: - update the shared buffer configuration on PFC commands - implement PTP adjphase function for HW offset control - TC support for Geneve and GRE with VF tunnel offload - more efficient crypto key management method - multi-port eswitch support - Netronome/Corigine: - add DCB IEEE support - support IPsec offloading for NFP3800 - Freescale/NXP (enetc): - support XDP_REDIRECT for XDP non-linear buffers - improve reconfig, avoid link flap and waiting for idle - support MAC Merge layer - Other NICs: - sfc/ef100: add basic devlink support for ef100 - ionic: rx_push mode operation (writing descriptors via MMIO) - bnxt: use the auxiliary bus abstraction for RDMA - r8169: disable ASPM and reset bus in case of tx timeout - cpsw: support QSGMII mode for J721e CPSW9G - cpts: support pulse-per-second output - ngbe: add an mdio bus driver - usbnet: optimize usbnet_bh() by avoiding unnecessary queuing - r8152: handle devices with FW with NCM support - amd-xgbe: support 10Mbps, 2.5GbE speeds and rx-adaptation - virtio-net: support multi buffer XDP - virtio/vsock: replace virtio_vsock_pkt with sk_buff - tsnep: XDP support - Ethernet high-speed switches: - nVidia/Mellanox (mlxsw): - add support for latency TLV (in FW control messages) - Microchip (sparx5): - separate explicit and implicit traffic forwarding rules, make the implicit rules always active - add support for egress DSCP rewrite - IS0 VCAP support (Ingress Classification) - IS2 VCAP filters (protos, L3 addrs, L4 ports, flags, ToS etc.) - ES2 VCAP support (Egress Access Control) - support for Per-Stream Filtering and Policing (802.1Q, 8.6.5.1) - Ethernet embedded switches: - Marvell (mv88e6xxx): - add MAB (port auth) offload support - enable PTP receive for mv88e6390 - NXP (ocelot): - support MAC Merge layer - support for the the vsc7512 internal copper phys - Microchip: - lan9303: convert to PHYLINK - lan966x: support TC flower filter statistics - lan937x: PTP support for KSZ9563/KSZ8563 and LAN937x - lan937x: support Credit Based Shaper configuration - ksz9477: support Energy Efficient Ethernet - other: - qca8k: convert to regmap read/write API, use bulk operations - rswitch: Improve TX timestamp accuracy - Intel WiFi (iwlwifi): - EHT (Wi-Fi 7) rate reporting - STEP equalizer support: transfer some STEP (connection to radio on platforms with integrated wifi) related parameters from the BIOS to the firmware. - Qualcomm 802.11ax WiFi (ath11k): - IPQ5018 support - Fine Timing Measurement (FTM) responder role support - channel 177 support - MediaTek WiFi (mt76): - per-PHY LED support - mt7996: EHT (Wi-Fi 7) support - Wireless Ethernet Dispatch (WED) reset support - switch to using page pool allocator - RealTek WiFi (rtw89): - support new version of Bluetooth co-existance - Mobile: - rmnet: support TX aggregation" * tag 'net-next-6.3' of git://git.kernel.org/pub/scm/linux/kernel/git/netdev/net-next: (1872 commits) page_pool: add a comment explaining the fragment counter usage net: ethtool: fix __ethtool_dev_mm_supported() implementation ethtool: pse-pd: Fix double word in comments xsk: add linux/vmalloc.h to xsk.c sefltests: netdevsim: wait for devlink instance after netns removal selftest: fib_tests: Always cleanup before exit net/mlx5e: Align IPsec ASO result memory to be as required by hardware net/mlx5e: TC, Set CT miss to the specific ct action instance net/mlx5e: Rename CHAIN_TO_REG to MAPPED_OBJ_TO_REG net/mlx5: Refactor tc miss handling to a single function net/mlx5: Kconfig: Make tc offload depend on tc skb extension net/sched: flower: Support hardware miss to tc action net/sched: flower: Move filter handle initialization earlier net/sched: cls_api: Support hardware miss to tc action net/sched: Rename user cookie and act cookie sfc: fix builds without CONFIG_RTC_LIB sfc: clean up some inconsistent indentings net/mlx4_en: Introduce flexible array to silence overflow warning net: lan966x: Fix possible deadlock inside PTP net/ulp: Remove redundant ->clone() test in inet_clone_ulp(). ... --- drivers/gpu/drm/msm/dsi/phy/dsi_phy_28nm.c | 822 +++++++++++++++++++++++++++++ 1 file changed, 822 insertions(+) create mode 100644 drivers/gpu/drm/msm/dsi/phy/dsi_phy_28nm.c (limited to 'drivers/gpu/drm/msm/dsi/phy/dsi_phy_28nm.c') diff --git a/drivers/gpu/drm/msm/dsi/phy/dsi_phy_28nm.c b/drivers/gpu/drm/msm/dsi/phy/dsi_phy_28nm.c new file mode 100644 index 000000000..4c1bf55c5 --- /dev/null +++ b/drivers/gpu/drm/msm/dsi/phy/dsi_phy_28nm.c @@ -0,0 +1,822 @@ +// SPDX-License-Identifier: GPL-2.0-only +/* + * Copyright (c) 2015, The Linux Foundation. All rights reserved. + */ + +#include +#include + +#include "dsi_phy.h" +#include "dsi.xml.h" +#include "dsi_phy_28nm.xml.h" + +/* + * DSI PLL 28nm - clock diagram (eg: DSI0): + * + * dsi0analog_postdiv_clk + * | dsi0indirect_path_div2_clk + * | | + * +------+ | +----+ | |\ dsi0byte_mux + * dsi0vco_clk --o--| DIV1 |--o--| /2 |--o--| \ | + * | +------+ +----+ | m| | +----+ + * | | u|--o--| /4 |-- dsi0pllbyte + * | | x| +----+ + * o--------------------------| / + * | |/ + * | +------+ + * o----------| DIV3 |------------------------- dsi0pll + * +------+ + */ + +#define POLL_MAX_READS 10 +#define POLL_TIMEOUT_US 50 + +#define VCO_REF_CLK_RATE 19200000 +#define VCO_MIN_RATE 350000000 +#define VCO_MAX_RATE 750000000 + +/* v2.0.0 28nm LP implementation */ +#define DSI_PHY_28NM_QUIRK_PHY_LP BIT(0) + +#define LPFR_LUT_SIZE 10 +struct lpfr_cfg { + unsigned long vco_rate; + u32 resistance; +}; + +/* Loop filter resistance: */ +static const struct lpfr_cfg lpfr_lut[LPFR_LUT_SIZE] = { + { 479500000, 8 }, + { 480000000, 11 }, + { 575500000, 8 }, + { 576000000, 12 }, + { 610500000, 8 }, + { 659500000, 9 }, + { 671500000, 10 }, + { 672000000, 14 }, + { 708500000, 10 }, + { 750000000, 11 }, +}; + +struct pll_28nm_cached_state { + unsigned long vco_rate; + u8 postdiv3; + u8 postdiv1; + u8 byte_mux; +}; + +struct dsi_pll_28nm { + struct clk_hw clk_hw; + + struct msm_dsi_phy *phy; + + struct pll_28nm_cached_state cached_state; +}; + +#define to_pll_28nm(x) container_of(x, struct dsi_pll_28nm, clk_hw) + +static bool pll_28nm_poll_for_ready(struct dsi_pll_28nm *pll_28nm, + u32 nb_tries, u32 timeout_us) +{ + bool pll_locked = false; + u32 val; + + while (nb_tries--) { + val = dsi_phy_read(pll_28nm->phy->pll_base + REG_DSI_28nm_PHY_PLL_STATUS); + pll_locked = !!(val & DSI_28nm_PHY_PLL_STATUS_PLL_RDY); + + if (pll_locked) + break; + + udelay(timeout_us); + } + DBG("DSI PLL is %slocked", pll_locked ? "" : "*not* "); + + return pll_locked; +} + +static void pll_28nm_software_reset(struct dsi_pll_28nm *pll_28nm) +{ + void __iomem *base = pll_28nm->phy->pll_base; + + /* + * Add HW recommended delays after toggling the software + * reset bit off and back on. + */ + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_TEST_CFG, + DSI_28nm_PHY_PLL_TEST_CFG_PLL_SW_RESET, 1); + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_TEST_CFG, 0x00, 1); +} + +/* + * Clock Callbacks + */ +static int dsi_pll_28nm_clk_set_rate(struct clk_hw *hw, unsigned long rate, + unsigned long parent_rate) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(hw); + struct device *dev = &pll_28nm->phy->pdev->dev; + void __iomem *base = pll_28nm->phy->pll_base; + unsigned long div_fbx1000, gen_vco_clk; + u32 refclk_cfg, frac_n_mode, frac_n_value; + u32 sdm_cfg0, sdm_cfg1, sdm_cfg2, sdm_cfg3; + u32 cal_cfg10, cal_cfg11; + u32 rem; + int i; + + VERB("rate=%lu, parent's=%lu", rate, parent_rate); + + /* Force postdiv2 to be div-4 */ + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_POSTDIV2_CFG, 3); + + /* Configure the Loop filter resistance */ + for (i = 0; i < LPFR_LUT_SIZE; i++) + if (rate <= lpfr_lut[i].vco_rate) + break; + if (i == LPFR_LUT_SIZE) { + DRM_DEV_ERROR(dev, "unable to get loop filter resistance. vco=%lu\n", + rate); + return -EINVAL; + } + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_LPFR_CFG, lpfr_lut[i].resistance); + + /* Loop filter capacitance values : c1 and c2 */ + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_LPFC1_CFG, 0x70); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_LPFC2_CFG, 0x15); + + rem = rate % VCO_REF_CLK_RATE; + if (rem) { + refclk_cfg = DSI_28nm_PHY_PLL_REFCLK_CFG_DBLR; + frac_n_mode = 1; + div_fbx1000 = rate / (VCO_REF_CLK_RATE / 500); + gen_vco_clk = div_fbx1000 * (VCO_REF_CLK_RATE / 500); + } else { + refclk_cfg = 0x0; + frac_n_mode = 0; + div_fbx1000 = rate / (VCO_REF_CLK_RATE / 1000); + gen_vco_clk = div_fbx1000 * (VCO_REF_CLK_RATE / 1000); + } + + DBG("refclk_cfg = %d", refclk_cfg); + + rem = div_fbx1000 % 1000; + frac_n_value = (rem << 16) / 1000; + + DBG("div_fb = %lu", div_fbx1000); + DBG("frac_n_value = %d", frac_n_value); + + DBG("Generated VCO Clock: %lu", gen_vco_clk); + rem = 0; + sdm_cfg1 = dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_SDM_CFG1); + sdm_cfg1 &= ~DSI_28nm_PHY_PLL_SDM_CFG1_DC_OFFSET__MASK; + if (frac_n_mode) { + sdm_cfg0 = 0x0; + sdm_cfg0 |= DSI_28nm_PHY_PLL_SDM_CFG0_BYP_DIV(0); + sdm_cfg1 |= DSI_28nm_PHY_PLL_SDM_CFG1_DC_OFFSET( + (u32)(((div_fbx1000 / 1000) & 0x3f) - 1)); + sdm_cfg3 = frac_n_value >> 8; + sdm_cfg2 = frac_n_value & 0xff; + } else { + sdm_cfg0 = DSI_28nm_PHY_PLL_SDM_CFG0_BYP; + sdm_cfg0 |= DSI_28nm_PHY_PLL_SDM_CFG0_BYP_DIV( + (u32)(((div_fbx1000 / 1000) & 0x3f) - 1)); + sdm_cfg1 |= DSI_28nm_PHY_PLL_SDM_CFG1_DC_OFFSET(0); + sdm_cfg2 = 0; + sdm_cfg3 = 0; + } + + DBG("sdm_cfg0=%d", sdm_cfg0); + DBG("sdm_cfg1=%d", sdm_cfg1); + DBG("sdm_cfg2=%d", sdm_cfg2); + DBG("sdm_cfg3=%d", sdm_cfg3); + + cal_cfg11 = (u32)(gen_vco_clk / (256 * 1000000)); + cal_cfg10 = (u32)((gen_vco_clk % (256 * 1000000)) / 1000000); + DBG("cal_cfg10=%d, cal_cfg11=%d", cal_cfg10, cal_cfg11); + + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CHGPUMP_CFG, 0x02); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG3, 0x2b); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG4, 0x06); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_LKDET_CFG2, 0x0d); + + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_SDM_CFG1, sdm_cfg1); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_SDM_CFG2, + DSI_28nm_PHY_PLL_SDM_CFG2_FREQ_SEED_7_0(sdm_cfg2)); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_SDM_CFG3, + DSI_28nm_PHY_PLL_SDM_CFG3_FREQ_SEED_15_8(sdm_cfg3)); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_SDM_CFG4, 0x00); + + /* Add hardware recommended delay for correct PLL configuration */ + if (pll_28nm->phy->cfg->quirks & DSI_PHY_28NM_QUIRK_PHY_LP) + udelay(1000); + else + udelay(1); + + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_REFCLK_CFG, refclk_cfg); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_PWRGEN_CFG, 0x00); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_VCOLPF_CFG, 0x31); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_SDM_CFG0, sdm_cfg0); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG0, 0x12); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG6, 0x30); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG7, 0x00); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG8, 0x60); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG9, 0x00); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG10, cal_cfg10 & 0xff); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_CAL_CFG11, cal_cfg11 & 0xff); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_EFUSE_CFG, 0x20); + + return 0; +} + +static int dsi_pll_28nm_clk_is_enabled(struct clk_hw *hw) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(hw); + + return pll_28nm_poll_for_ready(pll_28nm, POLL_MAX_READS, + POLL_TIMEOUT_US); +} + +static unsigned long dsi_pll_28nm_clk_recalc_rate(struct clk_hw *hw, + unsigned long parent_rate) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(hw); + void __iomem *base = pll_28nm->phy->pll_base; + u32 sdm0, doubler, sdm_byp_div; + u32 sdm_dc_off, sdm_freq_seed, sdm2, sdm3; + u32 ref_clk = VCO_REF_CLK_RATE; + unsigned long vco_rate; + + VERB("parent_rate=%lu", parent_rate); + + /* Check to see if the ref clk doubler is enabled */ + doubler = dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_REFCLK_CFG) & + DSI_28nm_PHY_PLL_REFCLK_CFG_DBLR; + ref_clk += (doubler * VCO_REF_CLK_RATE); + + /* see if it is integer mode or sdm mode */ + sdm0 = dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_SDM_CFG0); + if (sdm0 & DSI_28nm_PHY_PLL_SDM_CFG0_BYP) { + /* integer mode */ + sdm_byp_div = FIELD( + dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_SDM_CFG0), + DSI_28nm_PHY_PLL_SDM_CFG0_BYP_DIV) + 1; + vco_rate = ref_clk * sdm_byp_div; + } else { + /* sdm mode */ + sdm_dc_off = FIELD( + dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_SDM_CFG1), + DSI_28nm_PHY_PLL_SDM_CFG1_DC_OFFSET); + DBG("sdm_dc_off = %d", sdm_dc_off); + sdm2 = FIELD(dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_SDM_CFG2), + DSI_28nm_PHY_PLL_SDM_CFG2_FREQ_SEED_7_0); + sdm3 = FIELD(dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_SDM_CFG3), + DSI_28nm_PHY_PLL_SDM_CFG3_FREQ_SEED_15_8); + sdm_freq_seed = (sdm3 << 8) | sdm2; + DBG("sdm_freq_seed = %d", sdm_freq_seed); + + vco_rate = (ref_clk * (sdm_dc_off + 1)) + + mult_frac(ref_clk, sdm_freq_seed, BIT(16)); + DBG("vco rate = %lu", vco_rate); + } + + DBG("returning vco rate = %lu", vco_rate); + + return vco_rate; +} + +static int _dsi_pll_28nm_vco_prepare_hpm(struct dsi_pll_28nm *pll_28nm) +{ + struct device *dev = &pll_28nm->phy->pdev->dev; + void __iomem *base = pll_28nm->phy->pll_base; + u32 max_reads = 5, timeout_us = 100; + bool locked; + u32 val; + int i; + + DBG("id=%d", pll_28nm->phy->id); + + pll_28nm_software_reset(pll_28nm); + + /* + * PLL power up sequence. + * Add necessary delays recommended by hardware. + */ + val = DSI_28nm_PHY_PLL_GLB_CFG_PLL_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 1); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_PWRGEN_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 200); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_LDO_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 500); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_ENABLE; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 600); + + for (i = 0; i < 2; i++) { + /* DSI Uniphy lock detect setting */ + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_LKDET_CFG2, + 0x0c, 100); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_LKDET_CFG2, 0x0d); + + /* poll for PLL ready status */ + locked = pll_28nm_poll_for_ready(pll_28nm, max_reads, + timeout_us); + if (locked) + break; + + pll_28nm_software_reset(pll_28nm); + + /* + * PLL power up sequence. + * Add necessary delays recommended by hardware. + */ + val = DSI_28nm_PHY_PLL_GLB_CFG_PLL_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 1); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_PWRGEN_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 200); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_LDO_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 250); + + val &= ~DSI_28nm_PHY_PLL_GLB_CFG_PLL_LDO_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 200); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_LDO_PWRDN_B; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 500); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_ENABLE; + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 600); + } + + if (unlikely(!locked)) + DRM_DEV_ERROR(dev, "DSI PLL lock failed\n"); + else + DBG("DSI PLL Lock success"); + + return locked ? 0 : -EINVAL; +} + +static int dsi_pll_28nm_vco_prepare_hpm(struct clk_hw *hw) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(hw); + int i, ret; + + if (unlikely(pll_28nm->phy->pll_on)) + return 0; + + for (i = 0; i < 3; i++) { + ret = _dsi_pll_28nm_vco_prepare_hpm(pll_28nm); + if (!ret) { + pll_28nm->phy->pll_on = true; + return 0; + } + } + + return ret; +} + +static int dsi_pll_28nm_vco_prepare_lp(struct clk_hw *hw) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(hw); + struct device *dev = &pll_28nm->phy->pdev->dev; + void __iomem *base = pll_28nm->phy->pll_base; + bool locked; + u32 max_reads = 10, timeout_us = 50; + u32 val; + + DBG("id=%d", pll_28nm->phy->id); + + if (unlikely(pll_28nm->phy->pll_on)) + return 0; + + pll_28nm_software_reset(pll_28nm); + + /* + * PLL power up sequence. + * Add necessary delays recommended by hardware. + */ + dsi_phy_write_ndelay(base + REG_DSI_28nm_PHY_PLL_CAL_CFG1, 0x34, 500); + + val = DSI_28nm_PHY_PLL_GLB_CFG_PLL_PWRDN_B; + dsi_phy_write_ndelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 500); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_PWRGEN_PWRDN_B; + dsi_phy_write_ndelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 500); + + val |= DSI_28nm_PHY_PLL_GLB_CFG_PLL_LDO_PWRDN_B | + DSI_28nm_PHY_PLL_GLB_CFG_PLL_ENABLE; + dsi_phy_write_ndelay(base + REG_DSI_28nm_PHY_PLL_GLB_CFG, val, 500); + + /* DSI PLL toggle lock detect setting */ + dsi_phy_write_ndelay(base + REG_DSI_28nm_PHY_PLL_LKDET_CFG2, 0x04, 500); + dsi_phy_write_udelay(base + REG_DSI_28nm_PHY_PLL_LKDET_CFG2, 0x05, 512); + + locked = pll_28nm_poll_for_ready(pll_28nm, max_reads, timeout_us); + + if (unlikely(!locked)) { + DRM_DEV_ERROR(dev, "DSI PLL lock failed\n"); + return -EINVAL; + } + + DBG("DSI PLL lock success"); + pll_28nm->phy->pll_on = true; + + return 0; +} + +static void dsi_pll_28nm_vco_unprepare(struct clk_hw *hw) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(hw); + + DBG("id=%d", pll_28nm->phy->id); + + if (unlikely(!pll_28nm->phy->pll_on)) + return; + + dsi_phy_write(pll_28nm->phy->pll_base + REG_DSI_28nm_PHY_PLL_GLB_CFG, 0x00); + + pll_28nm->phy->pll_on = false; +} + +static long dsi_pll_28nm_clk_round_rate(struct clk_hw *hw, + unsigned long rate, unsigned long *parent_rate) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(hw); + + if (rate < pll_28nm->phy->cfg->min_pll_rate) + return pll_28nm->phy->cfg->min_pll_rate; + else if (rate > pll_28nm->phy->cfg->max_pll_rate) + return pll_28nm->phy->cfg->max_pll_rate; + else + return rate; +} + +static const struct clk_ops clk_ops_dsi_pll_28nm_vco_hpm = { + .round_rate = dsi_pll_28nm_clk_round_rate, + .set_rate = dsi_pll_28nm_clk_set_rate, + .recalc_rate = dsi_pll_28nm_clk_recalc_rate, + .prepare = dsi_pll_28nm_vco_prepare_hpm, + .unprepare = dsi_pll_28nm_vco_unprepare, + .is_enabled = dsi_pll_28nm_clk_is_enabled, +}; + +static const struct clk_ops clk_ops_dsi_pll_28nm_vco_lp = { + .round_rate = dsi_pll_28nm_clk_round_rate, + .set_rate = dsi_pll_28nm_clk_set_rate, + .recalc_rate = dsi_pll_28nm_clk_recalc_rate, + .prepare = dsi_pll_28nm_vco_prepare_lp, + .unprepare = dsi_pll_28nm_vco_unprepare, + .is_enabled = dsi_pll_28nm_clk_is_enabled, +}; + +/* + * PLL Callbacks + */ + +static void dsi_28nm_pll_save_state(struct msm_dsi_phy *phy) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(phy->vco_hw); + struct pll_28nm_cached_state *cached_state = &pll_28nm->cached_state; + void __iomem *base = pll_28nm->phy->pll_base; + + cached_state->postdiv3 = + dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_POSTDIV3_CFG); + cached_state->postdiv1 = + dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_POSTDIV1_CFG); + cached_state->byte_mux = dsi_phy_read(base + REG_DSI_28nm_PHY_PLL_VREG_CFG); + if (dsi_pll_28nm_clk_is_enabled(phy->vco_hw)) + cached_state->vco_rate = clk_hw_get_rate(phy->vco_hw); + else + cached_state->vco_rate = 0; +} + +static int dsi_28nm_pll_restore_state(struct msm_dsi_phy *phy) +{ + struct dsi_pll_28nm *pll_28nm = to_pll_28nm(phy->vco_hw); + struct pll_28nm_cached_state *cached_state = &pll_28nm->cached_state; + void __iomem *base = pll_28nm->phy->pll_base; + int ret; + + ret = dsi_pll_28nm_clk_set_rate(phy->vco_hw, + cached_state->vco_rate, 0); + if (ret) { + DRM_DEV_ERROR(&pll_28nm->phy->pdev->dev, + "restore vco rate failed. ret=%d\n", ret); + return ret; + } + + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_POSTDIV3_CFG, + cached_state->postdiv3); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_POSTDIV1_CFG, + cached_state->postdiv1); + dsi_phy_write(base + REG_DSI_28nm_PHY_PLL_VREG_CFG, + cached_state->byte_mux); + + return 0; +} + +static int pll_28nm_register(struct dsi_pll_28nm *pll_28nm, struct clk_hw **provided_clocks) +{ + char clk_name[32]; + struct clk_init_data vco_init = { + .parent_data = &(const struct clk_parent_data) { + .fw_name = "ref", .name = "xo", + }, + .num_parents = 1, + .name = clk_name, + .flags = CLK_IGNORE_UNUSED, + }; + struct device *dev = &pll_28nm->phy->pdev->dev; + struct clk_hw *hw, *analog_postdiv, *indirect_path_div2, *byte_mux; + int ret; + + DBG("%d", pll_28nm->phy->id); + + if (pll_28nm->phy->cfg->quirks & DSI_PHY_28NM_QUIRK_PHY_LP) + vco_init.ops = &clk_ops_dsi_pll_28nm_vco_lp; + else + vco_init.ops = &clk_ops_dsi_pll_28nm_vco_hpm; + + snprintf(clk_name, sizeof(clk_name), "dsi%dvco_clk", pll_28nm->phy->id); + pll_28nm->clk_hw.init = &vco_init; + ret = devm_clk_hw_register(dev, &pll_28nm->clk_hw); + if (ret) + return ret; + + snprintf(clk_name, sizeof(clk_name), "dsi%danalog_postdiv_clk", pll_28nm->phy->id); + analog_postdiv = devm_clk_hw_register_divider_parent_hw(dev, clk_name, + &pll_28nm->clk_hw, CLK_SET_RATE_PARENT, + pll_28nm->phy->pll_base + + REG_DSI_28nm_PHY_PLL_POSTDIV1_CFG, + 0, 4, 0, NULL); + if (IS_ERR(analog_postdiv)) + return PTR_ERR(analog_postdiv); + + snprintf(clk_name, sizeof(clk_name), "dsi%dindirect_path_div2_clk", pll_28nm->phy->id); + indirect_path_div2 = devm_clk_hw_register_fixed_factor_parent_hw(dev, + clk_name, analog_postdiv, CLK_SET_RATE_PARENT, 1, 2); + if (IS_ERR(indirect_path_div2)) + return PTR_ERR(indirect_path_div2); + + snprintf(clk_name, sizeof(clk_name), "dsi%dpll", pll_28nm->phy->id); + hw = devm_clk_hw_register_divider_parent_hw(dev, clk_name, + &pll_28nm->clk_hw, 0, pll_28nm->phy->pll_base + + REG_DSI_28nm_PHY_PLL_POSTDIV3_CFG, + 0, 8, 0, NULL); + if (IS_ERR(hw)) + return PTR_ERR(hw); + provided_clocks[DSI_PIXEL_PLL_CLK] = hw; + + snprintf(clk_name, sizeof(clk_name), "dsi%dbyte_mux", pll_28nm->phy->id); + byte_mux = devm_clk_hw_register_mux_parent_hws(dev, clk_name, + ((const struct clk_hw *[]){ + &pll_28nm->clk_hw, + indirect_path_div2, + }), 2, CLK_SET_RATE_PARENT, pll_28nm->phy->pll_base + + REG_DSI_28nm_PHY_PLL_VREG_CFG, 1, 1, 0, NULL); + if (IS_ERR(byte_mux)) + return PTR_ERR(byte_mux); + + snprintf(clk_name, sizeof(clk_name), "dsi%dpllbyte", pll_28nm->phy->id); + hw = devm_clk_hw_register_fixed_factor_parent_hw(dev, clk_name, + byte_mux, CLK_SET_RATE_PARENT, 1, 4); + if (IS_ERR(hw)) + return PTR_ERR(hw); + provided_clocks[DSI_BYTE_PLL_CLK] = hw; + + return 0; +} + +static int dsi_pll_28nm_init(struct msm_dsi_phy *phy) +{ + struct platform_device *pdev = phy->pdev; + struct dsi_pll_28nm *pll_28nm; + int ret; + + if (!pdev) + return -ENODEV; + + pll_28nm = devm_kzalloc(&pdev->dev, sizeof(*pll_28nm), GFP_KERNEL); + if (!pll_28nm) + return -ENOMEM; + + pll_28nm->phy = phy; + + ret = pll_28nm_register(pll_28nm, phy->provided_clocks->hws); + if (ret) { + DRM_DEV_ERROR(&pdev->dev, "failed to register PLL: %d\n", ret); + return ret; + } + + phy->vco_hw = &pll_28nm->clk_hw; + + return 0; +} + +static void dsi_28nm_dphy_set_timing(struct msm_dsi_phy *phy, + struct msm_dsi_dphy_timing *timing) +{ + void __iomem *base = phy->base; + + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_0, + DSI_28nm_PHY_TIMING_CTRL_0_CLK_ZERO(timing->clk_zero)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_1, + DSI_28nm_PHY_TIMING_CTRL_1_CLK_TRAIL(timing->clk_trail)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_2, + DSI_28nm_PHY_TIMING_CTRL_2_CLK_PREPARE(timing->clk_prepare)); + if (timing->clk_zero & BIT(8)) + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_3, + DSI_28nm_PHY_TIMING_CTRL_3_CLK_ZERO_8); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_4, + DSI_28nm_PHY_TIMING_CTRL_4_HS_EXIT(timing->hs_exit)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_5, + DSI_28nm_PHY_TIMING_CTRL_5_HS_ZERO(timing->hs_zero)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_6, + DSI_28nm_PHY_TIMING_CTRL_6_HS_PREPARE(timing->hs_prepare)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_7, + DSI_28nm_PHY_TIMING_CTRL_7_HS_TRAIL(timing->hs_trail)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_8, + DSI_28nm_PHY_TIMING_CTRL_8_HS_RQST(timing->hs_rqst)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_9, + DSI_28nm_PHY_TIMING_CTRL_9_TA_GO(timing->ta_go) | + DSI_28nm_PHY_TIMING_CTRL_9_TA_SURE(timing->ta_sure)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_10, + DSI_28nm_PHY_TIMING_CTRL_10_TA_GET(timing->ta_get)); + dsi_phy_write(base + REG_DSI_28nm_PHY_TIMING_CTRL_11, + DSI_28nm_PHY_TIMING_CTRL_11_TRIG3_CMD(0)); +} + +static void dsi_28nm_phy_regulator_enable_dcdc(struct msm_dsi_phy *phy) +{ + void __iomem *base = phy->reg_base; + + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_0, 0x0); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CAL_PWR_CFG, 1); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_5, 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_3, 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_2, 0x3); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_1, 0x9); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_0, 0x7); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_4, 0x20); + dsi_phy_write(phy->base + REG_DSI_28nm_PHY_LDO_CNTRL, 0x00); +} + +static void dsi_28nm_phy_regulator_enable_ldo(struct msm_dsi_phy *phy) +{ + void __iomem *base = phy->reg_base; + + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_0, 0x0); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CAL_PWR_CFG, 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_5, 0x7); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_3, 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_2, 0x1); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_1, 0x1); + dsi_phy_write(base + REG_DSI_28nm_PHY_REGULATOR_CTRL_4, 0x20); + + if (phy->cfg->quirks & DSI_PHY_28NM_QUIRK_PHY_LP) + dsi_phy_write(phy->base + REG_DSI_28nm_PHY_LDO_CNTRL, 0x05); + else + dsi_phy_write(phy->base + REG_DSI_28nm_PHY_LDO_CNTRL, 0x0d); +} + +static void dsi_28nm_phy_regulator_ctrl(struct msm_dsi_phy *phy, bool enable) +{ + if (!enable) { + dsi_phy_write(phy->reg_base + + REG_DSI_28nm_PHY_REGULATOR_CAL_PWR_CFG, 0); + return; + } + + if (phy->regulator_ldo_mode) + dsi_28nm_phy_regulator_enable_ldo(phy); + else + dsi_28nm_phy_regulator_enable_dcdc(phy); +} + +static int dsi_28nm_phy_enable(struct msm_dsi_phy *phy, + struct msm_dsi_phy_clk_request *clk_req) +{ + struct msm_dsi_dphy_timing *timing = &phy->timing; + int i; + void __iomem *base = phy->base; + u32 val; + + DBG(""); + + if (msm_dsi_dphy_timing_calc(timing, clk_req)) { + DRM_DEV_ERROR(&phy->pdev->dev, + "%s: D-PHY timing calculation failed\n", + __func__); + return -EINVAL; + } + + dsi_phy_write(base + REG_DSI_28nm_PHY_STRENGTH_0, 0xff); + + dsi_28nm_phy_regulator_ctrl(phy, true); + + dsi_28nm_dphy_set_timing(phy, timing); + + dsi_phy_write(base + REG_DSI_28nm_PHY_CTRL_1, 0x00); + dsi_phy_write(base + REG_DSI_28nm_PHY_CTRL_0, 0x5f); + + dsi_phy_write(base + REG_DSI_28nm_PHY_STRENGTH_1, 0x6); + + for (i = 0; i < 4; i++) { + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_CFG_0(i), 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_CFG_1(i), 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_CFG_2(i), 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_CFG_3(i), 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_CFG_4(i), 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_TEST_DATAPATH(i), 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_DEBUG_SEL(i), 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_TEST_STR_0(i), 0x1); + dsi_phy_write(base + REG_DSI_28nm_PHY_LN_TEST_STR_1(i), 0x97); + } + + dsi_phy_write(base + REG_DSI_28nm_PHY_LNCK_CFG_4, 0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LNCK_CFG_1, 0xc0); + dsi_phy_write(base + REG_DSI_28nm_PHY_LNCK_TEST_STR0, 0x1); + dsi_phy_write(base + REG_DSI_28nm_PHY_LNCK_TEST_STR1, 0xbb); + + dsi_phy_write(base + REG_DSI_28nm_PHY_CTRL_0, 0x5f); + + val = dsi_phy_read(base + REG_DSI_28nm_PHY_GLBL_TEST_CTRL); + if (phy->id == DSI_1 && phy->usecase == MSM_DSI_PHY_SLAVE) + val &= ~DSI_28nm_PHY_GLBL_TEST_CTRL_BITCLK_HS_SEL; + else + val |= DSI_28nm_PHY_GLBL_TEST_CTRL_BITCLK_HS_SEL; + dsi_phy_write(base + REG_DSI_28nm_PHY_GLBL_TEST_CTRL, val); + + return 0; +} + +static void dsi_28nm_phy_disable(struct msm_dsi_phy *phy) +{ + dsi_phy_write(phy->base + REG_DSI_28nm_PHY_CTRL_0, 0); + dsi_28nm_phy_regulator_ctrl(phy, false); + + /* + * Wait for the registers writes to complete in order to + * ensure that the phy is completely disabled + */ + wmb(); +} + +static const struct regulator_bulk_data dsi_phy_28nm_regulators[] = { + { .supply = "vddio", .init_load_uA = 100000 }, +}; + +const struct msm_dsi_phy_cfg dsi_phy_28nm_hpm_cfgs = { + .has_phy_regulator = true, + .regulator_data = dsi_phy_28nm_regulators, + .num_regulators = ARRAY_SIZE(dsi_phy_28nm_regulators), + .ops = { + .enable = dsi_28nm_phy_enable, + .disable = dsi_28nm_phy_disable, + .pll_init = dsi_pll_28nm_init, + .save_pll_state = dsi_28nm_pll_save_state, + .restore_pll_state = dsi_28nm_pll_restore_state, + }, + .min_pll_rate = VCO_MIN_RATE, + .max_pll_rate = VCO_MAX_RATE, + .io_start = { 0xfd922b00, 0xfd923100 }, + .num_dsi_phy = 2, +}; + +const struct msm_dsi_phy_cfg dsi_phy_28nm_hpm_famb_cfgs = { + .has_phy_regulator = true, + .regulator_data = dsi_phy_28nm_regulators, + .num_regulators = ARRAY_SIZE(dsi_phy_28nm_regulators), + .ops = { + .enable = dsi_28nm_phy_enable, + .disable = dsi_28nm_phy_disable, + .pll_init = dsi_pll_28nm_init, + .save_pll_state = dsi_28nm_pll_save_state, + .restore_pll_state = dsi_28nm_pll_restore_state, + }, + .min_pll_rate = VCO_MIN_RATE, + .max_pll_rate = VCO_MAX_RATE, + .io_start = { 0x1a94400, 0x1a96400 }, + .num_dsi_phy = 2, +}; + +const struct msm_dsi_phy_cfg dsi_phy_28nm_lp_cfgs = { + .has_phy_regulator = true, + .regulator_data = dsi_phy_28nm_regulators, + .num_regulators = ARRAY_SIZE(dsi_phy_28nm_regulators), + .ops = { + .enable = dsi_28nm_phy_enable, + .disable = dsi_28nm_phy_disable, + .pll_init = dsi_pll_28nm_init, + .save_pll_state = dsi_28nm_pll_save_state, + .restore_pll_state = dsi_28nm_pll_restore_state, + }, + .min_pll_rate = VCO_MIN_RATE, + .max_pll_rate = VCO_MAX_RATE, + .io_start = { 0x1a98500 }, + .num_dsi_phy = 1, + .quirks = DSI_PHY_28NM_QUIRK_PHY_LP, +}; + -- cgit v1.2.3