Commit 854457d2 authored by Stephen Boyd's avatar Stephen Boyd

Merge tag 'v4.19-rockchip-clk1' of...

Merge tag 'v4.19-rockchip-clk1' of git://git.kernel.org/pub/scm/linux/kernel/git/mmind/linux-rockchip into clk-rockchip

Pull Rockchip clk driver updates from Heiko Stuebner:

Support for Rockchip's PX30 SoC including its new half-divider
clock type that is doing freq_out = 2*freq_in / (2*div + 3).
As well as a register-bit fix for the rk3399 i2sout clock.

* tag 'v4.19-rockchip-clk1' of git://git.kernel.org/pub/scm/linux/kernel/git/mmind/linux-rockchip:
  clk: rockchip: fix clk_i2sout parent selection bits on rk3399
  clk: rockchip: add clock controller for px30
  clk: rockchip: add support for half divider
  dt-bindings: add bindings for px30 clock controller
  clk: rockchip: add dt-binding header for px30
parents ce397d21 a64ad008
* Rockchip PX30 Clock and Reset Unit
The PX30 clock controller generates and supplies clock to various
controllers within the SoC and also implements a reset controller for SoC
peripherals.
Required Properties:
- compatible: PMU for CRU should be "rockchip,px30-pmu-cru"
- compatible: CRU should be "rockchip,px30-cru"
- reg: physical base address of the controller and length of memory mapped
region.
- #clock-cells: should be 1.
- #reset-cells: should be 1.
Optional Properties:
- rockchip,grf: phandle to the syscon managing the "general register files"
If missing, pll rates are not changeable, due to the missing pll lock status.
Each clock is assigned an identifier and client nodes can use this identifier
to specify the clock which they consume. All available clocks are defined as
preprocessor macros in the dt-bindings/clock/px30-cru.h headers and can be
used in device tree sources. Similar macros exist for the reset sources in
these files.
External clocks:
There are several clocks that are generated outside the SoC. It is expected
that they are defined using standard clock bindings with following
clock-output-names:
- "xin24m" - crystal input - required,
- "xin32k" - rtc clock - optional,
- "i2sx_clkin" - external I2S clock - optional,
- "gmac_clkin" - external GMAC clock - optional
Example: Clock controller node:
pmucru: clock-controller@ff2bc000 {
compatible = "rockchip,px30-pmucru";
reg = <0x0 0xff2bc000 0x0 0x1000>;
#clock-cells = <1>;
#reset-cells = <1>;
};
cru: clock-controller@ff2b0000 {
compatible = "rockchip,px30-cru";
reg = <0x0 0xff2b0000 0x0 0x1000>;
rockchip,grf = <&grf>;
#clock-cells = <1>;
#reset-cells = <1>;
};
Example: UART controller node that consumes the clock generated by the clock
controller:
uart0: serial@ff030000 {
compatible = "rockchip,px30-uart", "snps,dw-apb-uart";
reg = <0x0 0xff030000 0x0 0x100>;
interrupts = <GIC_SPI 15 IRQ_TYPE_LEVEL_HIGH>;
clocks = <&pmucru SCLK_UART0_PMU>, <&pmucru PCLK_UART0_PMU>;
clock-names = "baudclk", "apb_pclk";
reg-shift = <2>;
reg-io-width = <4>;
};
......@@ -6,12 +6,14 @@
obj-y += clk.o
obj-y += clk-pll.o
obj-y += clk-cpu.o
obj-y += clk-half-divider.o
obj-y += clk-inverter.o
obj-y += clk-mmc-phase.o
obj-y += clk-muxgrf.o
obj-y += clk-ddr.o
obj-$(CONFIG_RESET_CONTROLLER) += softrst.o
obj-y += clk-px30.o
obj-y += clk-rv1108.o
obj-y += clk-rk3036.o
obj-y += clk-rk3128.o
......
// SPDX-License-Identifier: GPL-2.0
/*
* Copyright (c) 2018 Fuzhou Rockchip Electronics Co., Ltd
*/
#include <linux/slab.h>
#include <linux/clk-provider.h>
#include "clk.h"
#define div_mask(width) ((1 << (width)) - 1)
static bool _is_best_half_div(unsigned long rate, unsigned long now,
unsigned long best, unsigned long flags)
{
if (flags & CLK_DIVIDER_ROUND_CLOSEST)
return abs(rate - now) < abs(rate - best);
return now <= rate && now > best;
}
static unsigned long clk_half_divider_recalc_rate(struct clk_hw *hw,
unsigned long parent_rate)
{
struct clk_divider *divider = to_clk_divider(hw);
unsigned int val;
val = clk_readl(divider->reg) >> divider->shift;
val &= div_mask(divider->width);
val = val * 2 + 3;
return DIV_ROUND_UP_ULL(((u64)parent_rate * 2), val);
}
static int clk_half_divider_bestdiv(struct clk_hw *hw, unsigned long rate,
unsigned long *best_parent_rate, u8 width,
unsigned long flags)
{
unsigned int i, bestdiv = 0;
unsigned long parent_rate, best = 0, now, maxdiv;
unsigned long parent_rate_saved = *best_parent_rate;
if (!rate)
rate = 1;
maxdiv = div_mask(width);
if (!(clk_hw_get_flags(hw) & CLK_SET_RATE_PARENT)) {
parent_rate = *best_parent_rate;
bestdiv = DIV_ROUND_UP_ULL(((u64)parent_rate * 2), rate);
if (bestdiv < 3)
bestdiv = 0;
else
bestdiv = (bestdiv - 3) / 2;
bestdiv = bestdiv > maxdiv ? maxdiv : bestdiv;
return bestdiv;
}
/*
* The maximum divider we can use without overflowing
* unsigned long in rate * i below
*/
maxdiv = min(ULONG_MAX / rate, maxdiv);
for (i = 0; i <= maxdiv; i++) {
if (((u64)rate * (i * 2 + 3)) == ((u64)parent_rate_saved * 2)) {
/*
* It's the most ideal case if the requested rate can be
* divided from parent clock without needing to change
* parent rate, so return the divider immediately.
*/
*best_parent_rate = parent_rate_saved;
return i;
}
parent_rate = clk_hw_round_rate(clk_hw_get_parent(hw),
((u64)rate * (i * 2 + 3)) / 2);
now = DIV_ROUND_UP_ULL(((u64)parent_rate * 2),
(i * 2 + 3));
if (_is_best_half_div(rate, now, best, flags)) {
bestdiv = i;
best = now;
*best_parent_rate = parent_rate;
}
}
if (!bestdiv) {
bestdiv = div_mask(width);
*best_parent_rate = clk_hw_round_rate(clk_hw_get_parent(hw), 1);
}
return bestdiv;
}
static long clk_half_divider_round_rate(struct clk_hw *hw, unsigned long rate,
unsigned long *prate)
{
struct clk_divider *divider = to_clk_divider(hw);
int div;
div = clk_half_divider_bestdiv(hw, rate, prate,
divider->width,
divider->flags);
return DIV_ROUND_UP_ULL(((u64)*prate * 2), div * 2 + 3);
}
static int clk_half_divider_set_rate(struct clk_hw *hw, unsigned long rate,
unsigned long parent_rate)
{
struct clk_divider *divider = to_clk_divider(hw);
unsigned int value;
unsigned long flags = 0;
u32 val;
value = DIV_ROUND_UP_ULL(((u64)parent_rate * 2), rate);
value = (value - 3) / 2;
value = min_t(unsigned int, value, div_mask(divider->width));
if (divider->lock)
spin_lock_irqsave(divider->lock, flags);
else
__acquire(divider->lock);
if (divider->flags & CLK_DIVIDER_HIWORD_MASK) {
val = div_mask(divider->width) << (divider->shift + 16);
} else {
val = clk_readl(divider->reg);
val &= ~(div_mask(divider->width) << divider->shift);
}
val |= value << divider->shift;
clk_writel(val, divider->reg);
if (divider->lock)
spin_unlock_irqrestore(divider->lock, flags);
else
__release(divider->lock);
return 0;
}
const struct clk_ops clk_half_divider_ops = {
.recalc_rate = clk_half_divider_recalc_rate,
.round_rate = clk_half_divider_round_rate,
.set_rate = clk_half_divider_set_rate,
};
EXPORT_SYMBOL_GPL(clk_half_divider_ops);
/**
* Register a clock branch.
* Most clock branches have a form like
*
* src1 --|--\
* |M |--[GATE]-[DIV]-
* src2 --|--/
*
* sometimes without one of those components.
*/
struct clk *rockchip_clk_register_halfdiv(const char *name,
const char *const *parent_names,
u8 num_parents, void __iomem *base,
int muxdiv_offset, u8 mux_shift,
u8 mux_width, u8 mux_flags,
u8 div_shift, u8 div_width,
u8 div_flags, int gate_offset,
u8 gate_shift, u8 gate_flags,
unsigned long flags,
spinlock_t *lock)
{
struct clk *clk;
struct clk_mux *mux = NULL;
struct clk_gate *gate = NULL;
struct clk_divider *div = NULL;
const struct clk_ops *mux_ops = NULL, *div_ops = NULL,
*gate_ops = NULL;
if (num_parents > 1) {
mux = kzalloc(sizeof(*mux), GFP_KERNEL);
if (!mux)
return ERR_PTR(-ENOMEM);
mux->reg = base + muxdiv_offset;
mux->shift = mux_shift;
mux->mask = BIT(mux_width) - 1;
mux->flags = mux_flags;
mux->lock = lock;
mux_ops = (mux_flags & CLK_MUX_READ_ONLY) ? &clk_mux_ro_ops
: &clk_mux_ops;
}
if (gate_offset >= 0) {
gate = kzalloc(sizeof(*gate), GFP_KERNEL);
if (!gate)
goto err_gate;
gate->flags = gate_flags;
gate->reg = base + gate_offset;
gate->bit_idx = gate_shift;
gate->lock = lock;
gate_ops = &clk_gate_ops;
}
if (div_width > 0) {
div = kzalloc(sizeof(*div), GFP_KERNEL);
if (!div)
goto err_div;
div->flags = div_flags;
div->reg = base + muxdiv_offset;
div->shift = div_shift;
div->width = div_width;
div->lock = lock;
div_ops = &clk_half_divider_ops;
}
clk = clk_register_composite(NULL, name, parent_names, num_parents,
mux ? &mux->hw : NULL, mux_ops,
div ? &div->hw : NULL, div_ops,
gate ? &gate->hw : NULL, gate_ops,
flags);
return clk;
err_div:
kfree(gate);
err_gate:
kfree(mux);
return ERR_PTR(-ENOMEM);
}
This diff is collapsed.
......@@ -631,7 +631,7 @@ static struct rockchip_clk_branch rk3399_clk_branches[] __initdata = {
MUX(0, "clk_i2sout_src", mux_i2sch_p, CLK_SET_RATE_PARENT,
RK3399_CLKSEL_CON(31), 0, 2, MFLAGS),
COMPOSITE_NODIV(SCLK_I2S_8CH_OUT, "clk_i2sout", mux_i2sout_p, CLK_SET_RATE_PARENT,
RK3399_CLKSEL_CON(30), 8, 2, MFLAGS,
RK3399_CLKSEL_CON(31), 2, 1, MFLAGS,
RK3399_CLKGATE_CON(8), 12, GFLAGS),
/* uart */
......
......@@ -492,6 +492,16 @@ void __init rockchip_clk_register_branches(
list->gate_flags, flags, list->child,
&ctx->lock);
break;
case branch_half_divider:
clk = rockchip_clk_register_halfdiv(list->name,
list->parent_names, list->num_parents,
ctx->reg_base, list->muxdiv_offset,
list->mux_shift, list->mux_width,
list->mux_flags, list->div_shift,
list->div_width, list->div_flags,
list->gate_offset, list->gate_shift,
list->gate_flags, flags, &ctx->lock);
break;
case branch_gate:
flags |= CLK_SET_RATE_PARENT;
......
......@@ -34,7 +34,46 @@ struct clk;
#define HIWORD_UPDATE(val, mask, shift) \
((val) << (shift) | (mask) << ((shift) + 16))
/* register positions shared by RV1108, RK2928, RK3036, RK3066, RK3188 and RK3228 */
/* register positions shared by PX30, RV1108, RK2928, RK3036, RK3066, RK3188 and RK3228 */
#define BOOST_PLL_H_CON(x) ((x) * 0x4)
#define BOOST_CLK_CON 0x0008
#define BOOST_BOOST_CON 0x000c
#define BOOST_SWITCH_CNT 0x0010
#define BOOST_HIGH_PERF_CNT0 0x0014
#define BOOST_HIGH_PERF_CNT1 0x0018
#define BOOST_STATIS_THRESHOLD 0x001c
#define BOOST_SHORT_SWITCH_CNT 0x0020
#define BOOST_SWITCH_THRESHOLD 0x0024
#define BOOST_FSM_STATUS 0x0028
#define BOOST_PLL_L_CON(x) ((x) * 0x4 + 0x2c)
#define BOOST_RECOVERY_MASK 0x1
#define BOOST_RECOVERY_SHIFT 1
#define BOOST_SW_CTRL_MASK 0x1
#define BOOST_SW_CTRL_SHIFT 2
#define BOOST_LOW_FREQ_EN_MASK 0x1
#define BOOST_LOW_FREQ_EN_SHIFT 3
#define BOOST_BUSY_STATE BIT(8)
#define PX30_PLL_CON(x) ((x) * 0x4)
#define PX30_CLKSEL_CON(x) ((x) * 0x4 + 0x100)
#define PX30_CLKGATE_CON(x) ((x) * 0x4 + 0x200)
#define PX30_GLB_SRST_FST 0xb8
#define PX30_GLB_SRST_SND 0xbc
#define PX30_SOFTRST_CON(x) ((x) * 0x4 + 0x300)
#define PX30_MODE_CON 0xa0
#define PX30_MISC_CON 0xa4
#define PX30_SDMMC_CON0 0x380
#define PX30_SDMMC_CON1 0x384
#define PX30_SDIO_CON0 0x388
#define PX30_SDIO_CON1 0x38c
#define PX30_EMMC_CON0 0x390
#define PX30_EMMC_CON1 0x394
#define PX30_PMU_PLL_CON(x) ((x) * 0x4)
#define PX30_PMU_CLKSEL_CON(x) ((x) * 0x4 + 0x40)
#define PX30_PMU_CLKGATE_CON(x) ((x) * 0x4 + 0x80)
#define PX30_PMU_MODE 0x0020
#define RV1108_PLL_CON(x) ((x) * 0x4)
#define RV1108_CLKSEL_CON(x) ((x) * 0x4 + 0x60)
#define RV1108_CLKGATE_CON(x) ((x) * 0x4 + 0x120)
......@@ -354,6 +393,7 @@ enum rockchip_clk_branch_type {
branch_inverter,
branch_factor,
branch_ddrclk,
branch_half_divider,
};
struct rockchip_clk_branch {
......@@ -684,6 +724,79 @@ struct rockchip_clk_branch {
.gate_flags = gf, \
}
#define COMPOSITE_HALFDIV(_id, cname, pnames, f, mo, ms, mw, mf, ds, dw,\
df, go, gs, gf) \
{ \
.id = _id, \
.branch_type = branch_half_divider, \
.name = cname, \
.parent_names = pnames, \
.num_parents = ARRAY_SIZE(pnames), \
.flags = f, \
.muxdiv_offset = mo, \
.mux_shift = ms, \
.mux_width = mw, \
.mux_flags = mf, \
.div_shift = ds, \
.div_width = dw, \
.div_flags = df, \
.gate_offset = go, \
.gate_shift = gs, \
.gate_flags = gf, \
}
#define COMPOSITE_NOGATE_HALFDIV(_id, cname, pnames, f, mo, ms, mw, mf, \
ds, dw, df) \
{ \
.id = _id, \
.branch_type = branch_half_divider, \
.name = cname, \
.parent_names = pnames, \
.num_parents = ARRAY_SIZE(pnames), \
.flags = f, \
.muxdiv_offset = mo, \
.mux_shift = ms, \
.mux_width = mw, \
.mux_flags = mf, \
.div_shift = ds, \
.div_width = dw, \
.div_flags = df, \
.gate_offset = -1, \
}
#define COMPOSITE_NOMUX_HALFDIV(_id, cname, pname, f, mo, ds, dw, df, \
go, gs, gf) \
{ \
.id = _id, \
.branch_type = branch_half_divider, \
.name = cname, \
.parent_names = (const char *[]){ pname }, \
.num_parents = 1, \
.flags = f, \
.muxdiv_offset = mo, \
.div_shift = ds, \
.div_width = dw, \
.div_flags = df, \
.gate_offset = go, \
.gate_shift = gs, \
.gate_flags = gf, \
}
#define DIV_HALF(_id, cname, pname, f, o, s, w, df) \
{ \
.id = _id, \
.branch_type = branch_half_divider, \
.name = cname, \
.parent_names = (const char *[]){ pname }, \
.num_parents = 1, \
.flags = f, \
.muxdiv_offset = o, \
.div_shift = s, \
.div_width = w, \
.div_flags = df, \
.gate_offset = -1, \
}
struct rockchip_clk_provider *rockchip_clk_init(struct device_node *np,
void __iomem *base, unsigned long nr_clks);
void rockchip_clk_of_add_provider(struct device_node *np,
......@@ -708,6 +821,17 @@ void rockchip_register_restart_notifier(struct rockchip_clk_provider *ctx,
#define ROCKCHIP_SOFTRST_HIWORD_MASK BIT(0)
struct clk *rockchip_clk_register_halfdiv(const char *name,
const char *const *parent_names,
u8 num_parents, void __iomem *base,
int muxdiv_offset, u8 mux_shift,
u8 mux_width, u8 mux_flags,
u8 div_shift, u8 div_width,
u8 div_flags, int gate_offset,
u8 gate_shift, u8 gate_flags,
unsigned long flags,
spinlock_t *lock);
#ifdef CONFIG_RESET_CONTROLLER
void rockchip_register_softrst(struct device_node *np,
unsigned int num_regs,
......
/* SPDX-License-Identifier: GPL-2.0 */
#ifndef _DT_BINDINGS_CLK_ROCKCHIP_PX30_H
#define _DT_BINDINGS_CLK_ROCKCHIP_PX30_H
/* core clocks */
#define PLL_APLL 1
#define PLL_DPLL 2
#define PLL_CPLL 3
#define PLL_NPLL 4
#define APLL_BOOST_H 5
#define APLL_BOOST_L 6
#define ARMCLK 7
/* sclk gates (special clocks) */
#define USB480M 14
#define SCLK_PDM 15
#define SCLK_I2S0_TX 16
#define SCLK_I2S0_TX_OUT 17
#define SCLK_I2S0_RX 18
#define SCLK_I2S0_RX_OUT 19
#define SCLK_I2S1 20
#define SCLK_I2S1_OUT 21
#define SCLK_I2S2 22
#define SCLK_I2S2_OUT 23
#define SCLK_UART1 24
#define SCLK_UART2 25
#define SCLK_UART3 26
#define SCLK_UART4 27
#define SCLK_UART5 28
#define SCLK_I2C0 29
#define SCLK_I2C1 30
#define SCLK_I2C2 31
#define SCLK_I2C3 32
#define SCLK_I2C4 33
#define SCLK_PWM0 34
#define SCLK_PWM1 35
#define SCLK_SPI0 36
#define SCLK_SPI1 37
#define SCLK_TIMER0 38
#define SCLK_TIMER1 39
#define SCLK_TIMER2 40
#define SCLK_TIMER3 41
#define SCLK_TIMER4 42
#define SCLK_TIMER5 43
#define SCLK_TSADC 44
#define SCLK_SARADC 45
#define SCLK_OTP 46
#define SCLK_OTP_USR 47
#define SCLK_CRYPTO 48
#define SCLK_CRYPTO_APK 49
#define SCLK_DDRC 50
#define SCLK_ISP 51
#define SCLK_CIF_OUT 52
#define SCLK_RGA_CORE 53
#define SCLK_VOPB_PWM 54
#define SCLK_NANDC 55
#define SCLK_SDIO 56
#define SCLK_EMMC 57
#define SCLK_SFC 58
#define SCLK_SDMMC 59
#define SCLK_OTG_ADP 60
#define SCLK_GMAC_SRC 61
#define SCLK_GMAC 62
#define SCLK_GMAC_RX_TX 63
#define SCLK_MAC_REF 64
#define SCLK_MAC_REFOUT 65
#define SCLK_MAC_OUT 66
#define SCLK_SDMMC_DRV 67
#define SCLK_SDMMC_SAMPLE 68
#define SCLK_SDIO_DRV 69
#define SCLK_SDIO_SAMPLE 70
#define SCLK_EMMC_DRV 71
#define SCLK_EMMC_SAMPLE 72
#define SCLK_GPU 73
#define SCLK_PVTM 74
#define SCLK_CORE_VPU 75
#define SCLK_GMAC_RMII 76
#define SCLK_UART2_SRC 77
#define SCLK_NANDC_DIV 78
#define SCLK_NANDC_DIV50 79
#define SCLK_SDIO_DIV 80
#define SCLK_SDIO_DIV50 81
#define SCLK_EMMC_DIV 82
#define SCLK_EMMC_DIV50 83
#define SCLK_DDRCLK 84
#define SCLK_UART1_SRC 85
/* dclk gates */
#define DCLK_VOPB 150
#define DCLK_VOPL 151
/* aclk gates */
#define ACLK_GPU 170
#define ACLK_BUS_PRE 171
#define ACLK_CRYPTO 172
#define ACLK_VI_PRE 173
#define ACLK_VO_PRE 174
#define ACLK_VPU 175
#define ACLK_PERI_PRE 176
#define ACLK_GMAC 178
#define ACLK_CIF 179
#define ACLK_ISP 180
#define ACLK_VOPB 181
#define ACLK_VOPL 182
#define ACLK_RGA 183
#define ACLK_GIC 184
#define ACLK_DCF 186
#define ACLK_DMAC 187
#define ACLK_BUS_SRC 188
#define ACLK_PERI_SRC 189
/* hclk gates */
#define HCLK_BUS_PRE 240
#define HCLK_CRYPTO 241
#define HCLK_VI_PRE 242
#define HCLK_VO_PRE 243
#define HCLK_VPU 244
#define HCLK_PERI_PRE 245
#define HCLK_MMC_NAND 246
#define HCLK_SDMMC 247
#define HCLK_USB 248
#define HCLK_CIF 249
#define HCLK_ISP 250
#define HCLK_VOPB 251
#define HCLK_VOPL 252
#define HCLK_RGA 253
#define HCLK_NANDC 254
#define HCLK_SDIO 255
#define HCLK_EMMC 256
#define HCLK_SFC 257
#define HCLK_OTG 258
#define HCLK_HOST 259
#define HCLK_HOST_ARB 260
#define HCLK_PDM 261
#define HCLK_I2S0 262
#define HCLK_I2S1 263
#define HCLK_I2S2 264
/* pclk gates */
#define PCLK_BUS_PRE 320
#define PCLK_DDR 321
#define PCLK_VO_PRE 322
#define PCLK_GMAC 323
#define PCLK_MIPI_DSI 324
#define PCLK_MIPIDSIPHY 325
#define PCLK_MIPICSIPHY 326
#define PCLK_USB_GRF 327
#define PCLK_DCF 328
#define PCLK_UART1 329
#define PCLK_UART2 330
#define PCLK_UART3 331
#define PCLK_UART4 332
#define PCLK_UART5 333
#define PCLK_I2C0 334
#define PCLK_I2C1 335
#define PCLK_I2C2 336
#define PCLK_I2C3 337
#define PCLK_I2C4 338
#define PCLK_PWM0 339
#define PCLK_PWM1 340
#define PCLK_SPI0 341
#define PCLK_SPI1 342
#define PCLK_SARADC 343
#define PCLK_TSADC 344
#define PCLK_TIMER 345
#define PCLK_OTP_NS 346
#define PCLK_WDT_NS 347
#define PCLK_GPIO1 348
#define PCLK_GPIO2 349
#define PCLK_GPIO3 350
#define PCLK_ISP 351
#define PCLK_CIF 352
#define PCLK_OTP_PHY 353
#define CLK_NR_CLKS (PCLK_OTP_PHY + 1)
/* pmu-clocks indices */
#define PLL_GPLL 1
#define SCLK_RTC32K_PMU 4
#define SCLK_WIFI_PMU 5
#define SCLK_UART0_PMU 6
#define SCLK_PVTM_PMU 7
#define PCLK_PMU_PRE 8
#define SCLK_REF24M_PMU 9
#define SCLK_USBPHY_REF 10
#define SCLK_MIPIDSIPHY_REF 11
#define XIN24M_DIV 12
#define PCLK_GPIO0_PMU 20
#define PCLK_UART0_PMU 21
#define CLKPMU_NR_CLKS (PCLK_UART0_PMU + 1)
/* soft-reset indices */
#define SRST_CORE0_PO 0
#define SRST_CORE1_PO 1
#define SRST_CORE2_PO 2
#define SRST_CORE3_PO 3
#define SRST_CORE0 4
#define SRST_CORE1 5
#define SRST_CORE2 6
#define SRST_CORE3 7
#define SRST_CORE0_DBG 8
#define SRST_CORE1_DBG 9
#define SRST_CORE2_DBG 10
#define SRST_CORE3_DBG 11
#define SRST_TOPDBG 12
#define SRST_CORE_NOC 13
#define SRST_STRC_A 14
#define SRST_L2C 15
#define SRST_DAP 16
#define SRST_CORE_PVTM 17
#define SRST_GPU 18
#define SRST_GPU_NIU 19
#define SRST_UPCTL2 20
#define SRST_UPCTL2_A 21
#define SRST_UPCTL2_P 22
#define SRST_MSCH 23
#define SRST_MSCH_P 24
#define SRST_DDRMON_P 25
#define SRST_DDRSTDBY_P 26
#define SRST_DDRSTDBY 27
#define SRST_DDRGRF_p 28
#define SRST_AXI_SPLIT_A 29
#define SRST_AXI_CMD_A 30
#define SRST_AXI_CMD_P 31
#define SRST_DDRPHY 32
#define SRST_DDRPHYDIV 33
#define SRST_DDRPHY_P 34
#define SRST_VPU_A 36
#define SRST_VPU_NIU_A 37
#define SRST_VPU_H 38
#define SRST_VPU_NIU_H 39
#define SRST_VI_NIU_A 40
#define SRST_VI_NIU_H 41
#define SRST_ISP_H 42
#define SRST_ISP 43
#define SRST_CIF_A 44
#define SRST_CIF_H 45
#define SRST_CIF_PCLKIN 46
#define SRST_MIPICSIPHY_P 47
#define SRST_VO_NIU_A 48
#define SRST_VO_NIU_H 49
#define SRST_VO_NIU_P 50
#define SRST_VOPB_A 51
#define SRST_VOPB_H 52
#define SRST_VOPB 53
#define SRST_PWM_VOPB 54
#define SRST_VOPL_A 55
#define SRST_VOPL_H 56
#define SRST_VOPL 57
#define SRST_RGA_A 58
#define SRST_RGA_H 59
#define SRST_RGA 60
#define SRST_MIPIDSI_HOST_P 61
#define SRST_MIPIDSIPHY_P 62
#define SRST_VPU_CORE 63
#define SRST_PERI_NIU_A 64
#define SRST_USB_NIU_H 65
#define SRST_USB2OTG_H 66
#define SRST_USB2OTG 67
#define SRST_USB2OTG_ADP 68
#define SRST_USB2HOST_H 69
#define SRST_USB2HOST_ARB_H 70
#define SRST_USB2HOST_AUX_H 71
#define SRST_USB2HOST_EHCI 72
#define SRST_USB2HOST 73
#define SRST_USBPHYPOR 74
#define SRST_USBPHY_OTG_PORT 75
#define SRST_USBPHY_HOST_PORT 76
#define SRST_USBPHY_GRF 77
#define SRST_CPU_BOOST_P 78
#define SRST_CPU_BOOST 79
#define SRST_MMC_NAND_NIU_H 80
#define SRST_SDIO_H 81
#define SRST_EMMC_H 82
#define SRST_SFC_H 83
#define SRST_SFC 84
#define SRST_SDCARD_NIU_H 85
#define SRST_SDMMC_H 86
#define SRST_NANDC_H 89
#define SRST_NANDC 90
#define SRST_GMAC_NIU_A 92
#define SRST_GMAC_NIU_P 93
#define SRST_GMAC_A 94
#define SRST_PMU_NIU_P 96
#define SRST_PMU_SGRF_P 97
#define SRST_PMU_GRF_P 98
#define SRST_PMU 99
#define SRST_PMU_MEM_P 100
#define SRST_PMU_GPIO0_P 101
#define SRST_PMU_UART0_P 102
#define SRST_PMU_CRU_P 103
#define SRST_PMU_PVTM 104
#define SRST_PMU_UART 105
#define SRST_PMU_NIU_H 106
#define SRST_PMU_DDR_FAIL_SAVE 107
#define SRST_PMU_CORE_PERF_A 108
#define SRST_PMU_CORE_GRF_P 109
#define SRST_PMU_GPU_PERF_A 110
#define SRST_PMU_GPU_GRF_P 111
#define SRST_CRYPTO_NIU_A 112
#define SRST_CRYPTO_NIU_H 113
#define SRST_CRYPTO_A 114
#define SRST_CRYPTO_H 115
#define SRST_CRYPTO 116
#define SRST_CRYPTO_APK 117
#define SRST_BUS_NIU_H 120
#define SRST_USB_NIU_P 121
#define SRST_BUS_TOP_NIU_P 122
#define SRST_INTMEM_A 123
#define SRST_GIC_A 124
#define SRST_ROM_H 126
#define SRST_DCF_A 127
#define SRST_DCF_P 128
#define SRST_PDM_H 129
#define SRST_PDM 130
#define SRST_I2S0_H 131
#define SRST_I2S0_TX 132
#define SRST_I2S1_H 133
#define SRST_I2S1 134
#define SRST_I2S2_H 135
#define SRST_I2S2 136
#define SRST_UART1_P 137
#define SRST_UART1 138
#define SRST_UART2_P 139
#define SRST_UART2 140
#define SRST_UART3_P 141
#define SRST_UART3 142
#define SRST_UART4_P 143
#define SRST_UART4 144
#define SRST_UART5_P 145
#define SRST_UART5 146
#define SRST_I2C0_P 147
#define SRST_I2C0 148
#define SRST_I2C1_P 149
#define SRST_I2C1 150
#define SRST_I2C2_P 151
#define SRST_I2C2 152
#define SRST_I2C3_P 153
#define SRST_I2C3 154
#define SRST_PWM0_P 157
#define SRST_PWM0 158
#define SRST_PWM1_P 159
#define SRST_PWM1 160
#define SRST_SPI0_P 161
#define SRST_SPI0 162
#define SRST_SPI1_P 163
#define SRST_SPI1 164
#define SRST_SARADC_P 165
#define SRST_SARADC 166
#define SRST_TSADC_P 167
#define SRST_TSADC 168
#define SRST_TIMER_P 169
#define SRST_TIMER0 170
#define SRST_TIMER1 171
#define SRST_TIMER2 172
#define SRST_TIMER3 173
#define SRST_TIMER4 174
#define SRST_TIMER5 175
#define SRST_OTP_NS_P 176
#define SRST_OTP_NS_SBPI 177
#define SRST_OTP_NS_USR 178
#define SRST_OTP_PHY_P 179
#define SRST_OTP_PHY 180
#define SRST_WDT_NS_P 181
#define SRST_GPIO1_P 182
#define SRST_GPIO2_P 183
#define SRST_GPIO3_P 184
#define SRST_SGRF_P 185
#define SRST_GRF_P 186
#define SRST_I2S0_RX 191
#endif
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