/* SPDX-License-Identifier: GPL-2.0-only */
#ifndef __LINUX_REGMAP_H
#define __LINUX_REGMAP_H

/*
 * Register map access API
 *
 * Copyright 2011 Wolfson Microelectronics plc
 *
 * Author: Mark Brown <broonie@opensource.wolfsonmicro.com>
 */

#include <linux/list.h>
#include <linux/rbtree.h>
#include <linux/ktime.h>
#include <linux/delay.h>
#include <linux/err.h>
#include <linux/bug.h>
#include <linux/lockdep.h>
#include <linux/iopoll.h>
#include <linux/fwnode.h>

struct module;
struct clk;
struct device;
struct device_node;
struct fsi_device;
struct i2c_client;
struct i3c_device;
struct irq_domain;
struct mdio_device;
struct slim_device;
struct spi_device;
struct spmi_device;
struct regmap;
struct regmap_range_cfg;
struct regmap_field;
struct snd_ac97;
struct sdw_slave;

/*
 * regmap_mdio address encoding. IEEE 802.3ae clause 45 addresses consist of a
 * device address and a register address.
 */
#define REGMAP_MDIO_C45_DEVAD_SHIFT     16
#define REGMAP_MDIO_C45_DEVAD_MASK      GENMASK(20, 16)
#define REGMAP_MDIO_C45_REGNUM_MASK     GENMASK(15, 0)

/*
 * regmap.reg_shift indicates by how much we must shift registers prior to
 * performing any operation. It's a signed value, positive numbers means
 * downshifting the register's address, while negative numbers means upshifting.
 */
#define REGMAP_UPSHIFT(s)       (-(s))
#define REGMAP_DOWNSHIFT(s)     (s)

/*
 * The supported cache types, the default is no cache.  Any new caches should
 * usually use the maple tree cache unless they specifically require that there
 * are never any allocations at runtime in which case they should use the sparse
 * flat cache.  The rbtree cache *may* have some performance advantage for very
 * low end systems that make heavy use of cache syncs but is mainly legacy.
 * These caches are sparse and entries will be initialized from hardware if no
 * default has been provided.
 * The non-sparse flat cache is provided for compatibility with existing users
 * and will zero-initialize cache entries for which no defaults are provided.
 * New users should use the sparse flat cache.
 */
enum regcache_type {
        REGCACHE_NONE,
        REGCACHE_RBTREE,
        REGCACHE_FLAT,
        REGCACHE_MAPLE,
        REGCACHE_FLAT_S,
};

/**
 * struct reg_default - Default value for a register.
 *
 * @reg: Register address.
 * @def: Register default value.
 *
 * We use an array of structs rather than a simple array as many modern devices
 * have very sparse register maps.
 */
struct reg_default {
        unsigned int reg;
        unsigned int def;
};

/**
 * struct reg_sequence - An individual write from a sequence of writes.
 *
 * @reg: Register address.
 * @def: Register value.
 * @delay_us: Delay to be applied after the register write in microseconds
 *
 * Register/value pairs for sequences of writes with an optional delay in
 * microseconds to be applied after each write.
 */
struct reg_sequence {
        unsigned int reg;
        unsigned int def;
        unsigned int delay_us;
};

#define REG_SEQ(_reg, _def, _delay_us) {                \
                                .reg = _reg,            \
                                .def = _def,            \
                                .delay_us = _delay_us,  \
                                }
#define REG_SEQ0(_reg, _def)    REG_SEQ(_reg, _def, 0)

/**
 * regmap_read_poll_timeout - Poll until a condition is met or a timeout occurs
 *
 * @map: Regmap to read from
 * @addr: Address to poll
 * @val: Unsigned integer variable to read the value into
 * @cond: Break condition (usually involving @val)
 * @sleep_us: Maximum time to sleep between reads in us (0 tight-loops). Please
 *            read usleep_range() function description for details and
 *            limitations.
 * @timeout_us: Timeout in us, 0 means never timeout
 *
 * This is modelled after the readx_poll_timeout macros in linux/iopoll.h.
 *
 * Returns: 0 on success and -ETIMEDOUT upon a timeout or the regmap_read
 * error return value in case of a error read. In the two former cases,
 * the last read value at @addr is stored in @val. Must not be called
 * from atomic context if sleep_us or timeout_us are used.
 */
#define regmap_read_poll_timeout(map, addr, val, cond, sleep_us, timeout_us) \
({ \
        int __ret, __tmp; \
        __tmp = read_poll_timeout(regmap_read, __ret, __ret || (cond), \
                        sleep_us, timeout_us, false, (map), (addr), &(val)); \
        __ret ?: __tmp; \
})

/**
 * regmap_read_poll_timeout_atomic - Poll until a condition is met or a timeout occurs
 *
 * @map: Regmap to read from
 * @addr: Address to poll
 * @val: Unsigned integer variable to read the value into
 * @cond: Break condition (usually involving @val)
 * @delay_us: Time to udelay between reads in us (0 tight-loops). Please
 *            read udelay() function description for details and
 *            limitations.
 * @timeout_us: Timeout in us, 0 means never timeout
 *
 * This is modelled after the readx_poll_timeout_atomic macros in linux/iopoll.h.
 *
 * Note: In general regmap cannot be used in atomic context. If you want to use
 * this macro then first setup your regmap for atomic use (flat or no cache
 * and MMIO regmap).
 *
 * Returns: 0 on success and -ETIMEDOUT upon a timeout or the regmap_read
 * error return value in case of a error read. In the two former cases,
 * the last read value at @addr is stored in @val.
 */
#define regmap_read_poll_timeout_atomic(map, addr, val, cond, delay_us, timeout_us) \
({ \
        u64 __timeout_us = (timeout_us); \
        unsigned long __delay_us = (delay_us); \
        ktime_t __timeout = ktime_add_us(ktime_get(), __timeout_us); \
        int __ret; \
        for (;;) { \
                __ret = regmap_read((map), (addr), &(val)); \
                if (__ret) \
                        break; \
                if (cond) \
                        break; \
                if ((__timeout_us) && \
                    ktime_compare(ktime_get(), __timeout) > 0) { \
                        __ret = regmap_read((map), (addr), &(val)); \
                        break; \
                } \
                if (__delay_us) \
                        udelay(__delay_us); \
        } \
        __ret ?: ((cond) ? 0 : -ETIMEDOUT); \
})

/**
 * regmap_field_read_poll_timeout - Poll until a condition is met or timeout
 *
 * @field: Regmap field to read from
 * @val: Unsigned integer variable to read the value into
 * @cond: Break condition (usually involving @val)
 * @sleep_us: Maximum time to sleep between reads in us (0 tight-loops). Please
 *            read usleep_range() function description for details and
 *            limitations.
 * @timeout_us: Timeout in us, 0 means never timeout
 *
 * This is modelled after the readx_poll_timeout macros in linux/iopoll.h.
 *
 * Returns: 0 on success and -ETIMEDOUT upon a timeout or the regmap_field_read
 * error return value in case of a error read. In the two former cases,
 * the last read value at @addr is stored in @val. Must not be called
 * from atomic context if sleep_us or timeout_us are used.
 */
#define regmap_field_read_poll_timeout(field, val, cond, sleep_us, timeout_us) \
({ \
        int __ret, __tmp; \
        __tmp = read_poll_timeout(regmap_field_read, __ret, __ret || (cond), \
                        sleep_us, timeout_us, false, (field), &(val)); \
        __ret ?: __tmp; \
})

#ifdef CONFIG_REGMAP

enum regmap_endian {
        /* Unspecified -> 0 -> Backwards compatible default */
        REGMAP_ENDIAN_DEFAULT = 0,
        REGMAP_ENDIAN_BIG,
        REGMAP_ENDIAN_LITTLE,
        REGMAP_ENDIAN_NATIVE,
};

/**
 * struct regmap_range - A register range, used for access related checks
 *                       (readable/writeable/volatile/precious checks)
 *
 * @range_min: address of first register
 * @range_max: address of last register
 */
struct regmap_range {
        unsigned int range_min;
        unsigned int range_max;
};

#define regmap_reg_range(low, high) { .range_min = low, .range_max = high, }

/**
 * struct regmap_access_table - A table of register ranges for access checks
 *
 * @yes_ranges : pointer to an array of regmap ranges used as "yes ranges"
 * @n_yes_ranges: size of the above array
 * @no_ranges: pointer to an array of regmap ranges used as "no ranges"
 * @n_no_ranges: size of the above array
 *
 * A table of ranges including some yes ranges and some no ranges.
 * If a register belongs to a no_range, the corresponding check function
 * will return false. If a register belongs to a yes range, the corresponding
 * check function will return true. "no_ranges" are searched first.
 */
struct regmap_access_table {
        const struct regmap_range *yes_ranges;
        unsigned int n_yes_ranges;
        const struct regmap_range *no_ranges;
        unsigned int n_no_ranges;
};

typedef void (*regmap_lock)(void *);
typedef void (*regmap_unlock)(void *);

/**
 * struct regmap_config - Configuration for the register map of a device.
 *
 * @name: Optional name of the regmap. Useful when a device has multiple
 *        register regions.
 *
 * @reg_bits: Number of bits in a register address, mandatory.
 * @reg_stride: The register address stride. Valid register addresses are a
 *              multiple of this value. If set to 0, a value of 1 will be
 *              used.
 * @reg_shift: The number of bits to shift the register before performing any
 *             operations. Any positive number will be downshifted, and negative
 *             values will be upshifted
 * @reg_base: Value to be added to every register address before performing any
 *            operation.
 * @pad_bits: Number of bits of padding between register and value.
 * @val_bits: Number of bits in a register value, mandatory.
 *
 * @writeable_reg: Optional callback returning true if the register
 *                 can be written to. If this field is NULL but wr_table
 *                 (see below) is not, the check is performed on such table
 *                 (a register is writeable if it belongs to one of the ranges
 *                  specified by wr_table).
 * @readable_reg: Optional callback returning true if the register
 *                can be read from. If this field is NULL but rd_table
 *                 (see below) is not, the check is performed on such table
 *                 (a register is readable if it belongs to one of the ranges
 *                  specified by rd_table).
 * @volatile_reg: Optional callback returning true if the register
 *                value can't be cached. If this field is NULL but
 *                volatile_table (see below) is not, the check is performed on
 *                such table (a register is volatile if it belongs to one of
 *                the ranges specified by volatile_table).
 * @precious_reg: Optional callback returning true if the register
 *                should not be read outside of a call from the driver
 *                (e.g., a clear on read interrupt status register). If this
 *                field is NULL but precious_table (see below) is not, the
 *                check is performed on such table (a register is precious if
 *                it belongs to one of the ranges specified by precious_table).
 * @writeable_noinc_reg: Optional callback returning true if the register
 *                      supports multiple write operations without incrementing
 *                      the register number. If this field is NULL but
 *                      wr_noinc_table (see below) is not, the check is
 *                      performed on such table (a register is no increment
 *                      writeable if it belongs to one of the ranges specified
 *                      by wr_noinc_table).
 * @readable_noinc_reg: Optional callback returning true if the register
 *                      supports multiple read operations without incrementing
 *                      the register number. If this field is NULL but
 *                      rd_noinc_table (see below) is not, the check is
 *                      performed on such table (a register is no increment
 *                      readable if it belongs to one of the ranges specified
 *                      by rd_noinc_table).
 * @reg_read:     Optional callback that if filled will be used to perform
 *                all the reads from the registers. Should only be provided for
 *                devices whose read operation cannot be represented as a simple
 *                read operation on a bus such as SPI, I2C, etc. Most of the
 *                devices do not need this.
 * @reg_write:    Same as above for writing.
 * @reg_update_bits: Optional callback that if filled will be used to perform
 *                   all the update_bits(rmw) operation. Should only be provided
 *                   if the function require special handling with lock and reg
 *                   handling and the operation cannot be represented as a simple
 *                   update_bits operation on a bus such as SPI, I2C, etc.
 * @read: Optional callback that if filled will be used to perform all the
 *        bulk reads from the registers. Data is returned in the buffer used
 *        to transmit data.
 * @write: Same as above for writing.
 * @max_raw_read: Max raw read size that can be used on the device.
 * @max_raw_write: Max raw write size that can be used on the device.
 * @can_sleep:    Optional, specifies whether regmap operations can sleep.
 * @fast_io:      Register IO is fast. Use a spinlock instead of a mutex
 *                to perform locking. This field is ignored if custom lock/unlock
 *                functions are used (see fields lock/unlock of struct regmap_config).
 *                This field is a duplicate of a similar file in
 *                'struct regmap_bus' and serves exact same purpose.
 *                 Use it only for "no-bus" cases.
 * @io_port:      Support IO port accessors. Makes sense only when MMIO vs. IO port
 *                access can be distinguished.
 * @disable_locking: This regmap is either protected by external means or
 *                   is guaranteed not to be accessed from multiple threads.
 *                   Don't use any locking mechanisms.
 * @lock:         Optional lock callback (overrides regmap's default lock
 *                function, based on spinlock or mutex).
 * @unlock:       As above for unlocking.
 * @lock_arg:     This field is passed as the only argument of lock/unlock
 *                functions (ignored in case regular lock/unlock functions
 *                are not overridden).
 * @max_register: Optional, specifies the maximum valid register address.
 * @max_register_is_0: Optional, specifies that zero value in @max_register
 *                     should be taken into account. This is a workaround to
 *                     apply handling of @max_register for regmap that contains
 *                     only one register.
 * @wr_table:     Optional, points to a struct regmap_access_table specifying
 *                valid ranges for write access.
 * @rd_table:     As above, for read access.
 * @volatile_table: As above, for volatile registers.
 * @precious_table: As above, for precious registers.
 * @wr_noinc_table: As above, for no increment writeable registers.
 * @rd_noinc_table: As above, for no increment readable registers.
 * @reg_defaults: Power on reset values for registers (for use with
 *                register cache support).
 * @num_reg_defaults: Number of elements in reg_defaults.
 * @reg_default_cb: Optional callback to return default values for registers
 *                  not listed in reg_defaults. This is only used for
 *                  REGCACHE_FLAT population; drivers must ensure the readable_reg/
 *                  writeable_reg callbacks are defined to handle holes.
 *
 * @read_flag_mask: Mask to be set in the top bytes of the register when doing
 *                  a read.
 * @write_flag_mask: Mask to be set in the top bytes of the register when doing
 *                   a write. If both read_flag_mask and write_flag_mask are
 *                   empty and zero_flag_mask is not set the regmap_bus default
 *                   masks are used.
 * @zero_flag_mask: If set, read_flag_mask and write_flag_mask are used even
 *                   if they are both empty.
 * @use_relaxed_mmio: If set, MMIO R/W operations will not use memory barriers.
 *                    This can avoid load on devices which don't require strict
 *                    orderings, but drivers should carefully add any explicit
 *                    memory barriers when they may require them.
 * @use_single_read: If set, converts the bulk read operation into a series of
 *                   single read operations. This is useful for a device that
 *                   does not support  bulk read.
 * @use_single_write: If set, converts the bulk write operation into a series of
 *                    single write operations. This is useful for a device that
 *                    does not support bulk write.
 * @can_multi_write: If set, the device supports the multi write mode of bulk
 *                   write operations, if clear multi write requests will be
 *                   split into individual write operations
 *
 * @cache_type: The actual cache type.
 * @reg_defaults_raw: Power on reset values for registers (for use with
 *                    register cache support).
 * @num_reg_defaults_raw: Number of elements in reg_defaults_raw.
 * @use_hwlock: Indicate if a hardware spinlock should be used.
 * @use_raw_spinlock: Indicate if a raw spinlock should be used.
 * @hwlock_id: Specify the hardware spinlock id.
 * @hwlock_mode: The hardware spinlock mode, should be HWLOCK_IRQSTATE,
 *               HWLOCK_IRQ or 0.
 * @reg_format_endian: Endianness for formatted register addresses. If this is
 *                     DEFAULT, the @reg_format_endian_default value from the
 *                     regmap bus is used.
 * @val_format_endian: Endianness for formatted register values. If this is
 *                     DEFAULT, the @reg_format_endian_default value from the
 *                     regmap bus is used.
 *
 * @ranges: Array of configuration entries for virtual address ranges.
 * @num_ranges: Number of range configuration entries.
 */
struct regmap_config {
        const char *name;

        int reg_bits;
        int reg_stride;
        int reg_shift;
        unsigned int reg_base;
        int pad_bits;
        int val_bits;

        bool (*writeable_reg)(struct device *dev, unsigned int reg);
        bool (*readable_reg)(struct device *dev, unsigned int reg);
        bool (*volatile_reg)(struct device *dev, unsigned int reg);
        bool (*precious_reg)(struct device *dev, unsigned int reg);
        bool (*writeable_noinc_reg)(struct device *dev, unsigned int reg);
        bool (*readable_noinc_reg)(struct device *dev, unsigned int reg);

        int (*reg_read)(void *context, unsigned int reg, unsigned int *val);
        int (*reg_write)(void *context, unsigned int reg, unsigned int val);
        int (*reg_update_bits)(void *context, unsigned int reg,
                               unsigned int mask, unsigned int val);
        /* Bulk read/write */
        int (*read)(void *context, const void *reg_buf, size_t reg_size,
                    void *val_buf, size_t val_size);
        int (*write)(void *context, const void *data, size_t count);
        size_t max_raw_read;
        size_t max_raw_write;

        bool can_sleep;

        bool fast_io;
        bool io_port;

        bool disable_locking;
        regmap_lock lock;
        regmap_unlock unlock;
        void *lock_arg;

        unsigned int max_register;
        bool max_register_is_0;
        const struct regmap_access_table *wr_table;
        const struct regmap_access_table *rd_table;
        const struct regmap_access_table *volatile_table;
        const struct regmap_access_table *precious_table;
        const struct regmap_access_table *wr_noinc_table;
        const struct regmap_access_table *rd_noinc_table;
        const struct reg_default *reg_defaults;
        unsigned int num_reg_defaults;
        int (*reg_default_cb)(struct device *dev, unsigned int reg,
                              unsigned int *def);
        enum regcache_type cache_type;
        const void *reg_defaults_raw;
        unsigned int num_reg_defaults_raw;

        unsigned long read_flag_mask;
        unsigned long write_flag_mask;
        bool zero_flag_mask;

        bool use_single_read;
        bool use_single_write;
        bool use_relaxed_mmio;
        bool can_multi_write;

        bool use_hwlock;
        bool use_raw_spinlock;
        unsigned int hwlock_id;
        unsigned int hwlock_mode;

        enum regmap_endian reg_format_endian;
        enum regmap_endian val_format_endian;

        const struct regmap_range_cfg *ranges;
        unsigned int num_ranges;
};

/**
 * struct regmap_range_cfg - Configuration for indirectly accessed or paged
 *                           registers.
 *
 * @name: Descriptive name for diagnostics
 *
 * @range_min: Address of the lowest register address in virtual range.
 * @range_max: Address of the highest register in virtual range.
 *
 * @selector_reg: Register with selector field.
 * @selector_mask: Bit mask for selector value.
 * @selector_shift: Bit shift for selector value.
 *
 * @window_start: Address of first (lowest) register in data window.
 * @window_len: Number of registers in data window.
 *
 * Registers, mapped to this virtual range, are accessed in two steps:
 *     1. page selector register update;
 *     2. access through data window registers.
 */
struct regmap_range_cfg {
        const char *name;

        /* Registers of virtual address range */
        unsigned int range_min;
        unsigned int range_max;

        /* Page selector for indirect addressing */
        unsigned int selector_reg;
        unsigned int selector_mask;
        int selector_shift;

        /* Data window (per each page) */
        unsigned int window_start;
        unsigned int window_len;
};

/**
 * struct regmap_sdw_mbq_cfg - Configuration for Multi-Byte Quantities
 *
 * @mbq_size: Callback returning the actual size of the given register.
 * @deferrable: Callback returning true if the hardware can defer
 *              transactions to the given register. Deferral should
 *              only be used by SDCA parts and typically which controls
 *              are deferrable will be specified in either as a hard
 *              coded list or from the DisCo tables in the platform
 *              firmware.
 *
 * @timeout_us: The time in microseconds after which waiting for a deferred
 *              transaction should time out.
 * @retry_us: The time in microseconds between polls of the function busy
 *            status whilst waiting for an opportunity to retry a deferred
 *            transaction.
 *
 * Provides additional configuration required for SoundWire MBQ register maps.
 */
struct regmap_sdw_mbq_cfg {
        int (*mbq_size)(struct device *dev, unsigned int reg);
        bool (*deferrable)(struct device *dev, unsigned int reg);
        unsigned long timeout_us;
        unsigned long retry_us;
};

struct regmap_async;

typedef int (*regmap_hw_write)(void *context, const void *data,
                               size_t count);
typedef int (*regmap_hw_gather_write)(void *context,
                                      const void *reg, size_t reg_len,
                                      const void *val, size_t val_len);
typedef int (*regmap_hw_async_write)(void *context,
                                     const void *reg, size_t reg_len,
                                     const void *val, size_t val_len,
                                     struct regmap_async *async);
typedef int (*regmap_hw_read)(void *context,
                              const void *reg_buf, size_t reg_size,
                              void *val_buf, size_t val_size);
typedef int (*regmap_hw_reg_read)(void *context, unsigned int reg,
                                  unsigned int *val);
typedef int (*regmap_hw_reg_noinc_read)(void *context, unsigned int reg,
                                        void *val, size_t val_count);
typedef int (*regmap_hw_reg_write)(void *context, unsigned int reg,
                                   unsigned int val);
typedef int (*regmap_hw_reg_noinc_write)(void *context, unsigned int reg,
                                         const void *val, size_t val_count);
typedef int (*regmap_hw_reg_update_bits)(void *context, unsigned int reg,
                                         unsigned int mask, unsigned int val);
typedef struct regmap_async *(*regmap_hw_async_alloc)(void);
typedef void (*regmap_hw_free_context)(void *context);

/**
 * struct regmap_bus - Description of a hardware bus for the register map
 *                     infrastructure.
 *
 * @fast_io: Register IO is fast. Use a spinlock instead of a mutex
 *           to perform locking. This field is ignored if custom lock/unlock
 *           functions are used (see fields lock/unlock of
 *           struct regmap_config).
 * @free_on_exit: kfree this on exit of regmap
 * @write: Write operation.
 * @gather_write: Write operation with split register/value, return -ENOTSUPP
 *                if not implemented  on a given device.
 * @async_write: Write operation which completes asynchronously, optional and
 *               must serialise with respect to non-async I/O.
 * @reg_write: Write a single register value to the given register address. This
 *             write operation has to complete when returning from the function.
 * @reg_write_noinc: Write multiple register value to the same register. This
 *             write operation has to complete when returning from the function.
 * @reg_update_bits: Update bits operation to be used against volatile
 *                   registers, intended for devices supporting some mechanism
 *                   for setting clearing bits without having to
 *                   read/modify/write.
 * @read: Read operation.  Data is returned in the buffer used to transmit
 *         data.
 * @reg_read: Read a single register value from a given register address.
 * @free_context: Free context.
 * @async_alloc: Allocate a regmap_async() structure.
 * @read_flag_mask: Mask to be set in the top byte of the register when doing
 *                  a read.
 * @reg_format_endian_default: Default endianness for formatted register
 *     addresses. Used when the regmap_config specifies DEFAULT. If this is
 *     DEFAULT, BIG is assumed.
 * @val_format_endian_default: Default endianness for formatted register
 *     values. Used when the regmap_config specifies DEFAULT. If this is
 *     DEFAULT, BIG is assumed.
 * @max_raw_read: Max raw read size that can be used on the bus.
 * @max_raw_write: Max raw write size that can be used on the bus.
 */
struct regmap_bus {
        bool fast_io;
        bool free_on_exit;
        regmap_hw_write write;
        regmap_hw_gather_write gather_write;
        regmap_hw_async_write async_write;
        regmap_hw_reg_write reg_write;
        regmap_hw_reg_noinc_write reg_noinc_write;
        regmap_hw_reg_update_bits reg_update_bits;
        regmap_hw_read read;
        regmap_hw_reg_read reg_read;
        regmap_hw_reg_noinc_read reg_noinc_read;
        regmap_hw_free_context free_context;
        regmap_hw_async_alloc async_alloc;
        u8 read_flag_mask;
        enum regmap_endian reg_format_endian_default;
        enum regmap_endian val_format_endian_default;
        size_t max_raw_read;
        size_t max_raw_write;
};

/*
 * __regmap_init functions.
 *
 * These functions take a lock key and name parameter, and should not be called
 * directly. Instead, use the regmap_init macros that generate a key and name
 * for each call.
 */
struct regmap *__regmap_init(struct device *dev,
                             const struct regmap_bus *bus,
                             void *bus_context,
                             const struct regmap_config *config,
                             struct lock_class_key *lock_key,
                             const char *lock_name);
struct regmap *__regmap_init_i2c(struct i2c_client *i2c,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__regmap_init_mdio(struct mdio_device *mdio_dev,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__regmap_init_sccb(struct i2c_client *i2c,
                                  const struct regmap_config *config,
                                  struct lock_class_key *lock_key,
                                  const char *lock_name);
struct regmap *__regmap_init_slimbus(struct slim_device *slimbus,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__regmap_init_spi(struct spi_device *dev,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__regmap_init_spmi_base(struct spmi_device *dev,
                                       const struct regmap_config *config,
                                       struct lock_class_key *lock_key,
                                       const char *lock_name);
struct regmap *__regmap_init_spmi_ext(struct spmi_device *dev,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);
struct regmap *__regmap_init_w1(struct device *w1_dev,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__regmap_init_mmio_clk(struct device *dev, const char *clk_id,
                                      void __iomem *regs,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);
struct regmap *__regmap_init_ac97(struct snd_ac97 *ac97,
                                  const struct regmap_config *config,
                                  struct lock_class_key *lock_key,
                                  const char *lock_name);
struct regmap *__regmap_init_sdw(struct sdw_slave *sdw,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__regmap_init_sdw_mbq(struct device *dev, struct sdw_slave *sdw,
                                     const struct regmap_config *config,
                                     const struct regmap_sdw_mbq_cfg *mbq_config,
                                     struct lock_class_key *lock_key,
                                     const char *lock_name);
struct regmap *__regmap_init_spi_avmm(struct spi_device *spi,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);
struct regmap *__regmap_init_fsi(struct fsi_device *fsi_dev,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);

struct regmap *__devm_regmap_init(struct device *dev,
                                  const struct regmap_bus *bus,
                                  void *bus_context,
                                  const struct regmap_config *config,
                                  struct lock_class_key *lock_key,
                                  const char *lock_name);
struct regmap *__devm_regmap_init_i2c(struct i2c_client *i2c,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);
struct regmap *__devm_regmap_init_mdio(struct mdio_device *mdio_dev,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);
struct regmap *__devm_regmap_init_sccb(struct i2c_client *i2c,
                                       const struct regmap_config *config,
                                       struct lock_class_key *lock_key,
                                       const char *lock_name);
struct regmap *__devm_regmap_init_spi(struct spi_device *dev,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);
struct regmap *__devm_regmap_init_spmi_base(struct spmi_device *dev,
                                            const struct regmap_config *config,
                                            struct lock_class_key *lock_key,
                                            const char *lock_name);
struct regmap *__devm_regmap_init_spmi_ext(struct spmi_device *dev,
                                           const struct regmap_config *config,
                                           struct lock_class_key *lock_key,
                                           const char *lock_name);
struct regmap *__devm_regmap_init_w1(struct device *w1_dev,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);
struct regmap *__devm_regmap_init_mmio_clk(struct device *dev,
                                           const char *clk_id,
                                           void __iomem *regs,
                                           const struct regmap_config *config,
                                           struct lock_class_key *lock_key,
                                           const char *lock_name);
struct regmap *__devm_regmap_init_ac97(struct snd_ac97 *ac97,
                                       const struct regmap_config *config,
                                       struct lock_class_key *lock_key,
                                       const char *lock_name);
struct regmap *__devm_regmap_init_sdw(struct sdw_slave *sdw,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__devm_regmap_init_sdw_mbq(struct device *dev, struct sdw_slave *sdw,
                                          const struct regmap_config *config,
                                          const struct regmap_sdw_mbq_cfg *mbq_config,
                                          struct lock_class_key *lock_key,
                                          const char *lock_name);
struct regmap *__devm_regmap_init_slimbus(struct slim_device *slimbus,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__devm_regmap_init_i3c(struct i3c_device *i3c,
                                 const struct regmap_config *config,
                                 struct lock_class_key *lock_key,
                                 const char *lock_name);
struct regmap *__devm_regmap_init_spi_avmm(struct spi_device *spi,
                                           const struct regmap_config *config,
                                           struct lock_class_key *lock_key,
                                           const char *lock_name);
struct regmap *__devm_regmap_init_fsi(struct fsi_device *fsi_dev,
                                      const struct regmap_config *config,
                                      struct lock_class_key *lock_key,
                                      const char *lock_name);

/*
 * Wrapper for regmap_init macros to include a unique lockdep key and name
 * for each call. No-op if CONFIG_LOCKDEP is not set.
 *
 * @fn: Real function to call (in the form __[*_]regmap_init[_*])
 * @name: Config variable name (#config in the calling macro)
 **/
#ifdef CONFIG_LOCKDEP
#define __regmap_lockdep_wrapper(fn, name, ...)                         \
(                                                                       \
        ({                                                              \
                static struct lock_class_key _key;                      \
                fn(__VA_ARGS__, &_key,                                  \
                        KBUILD_BASENAME ":"                             \
                        __stringify(__LINE__) ":"                       \
                        "(" name ")->lock");                            \
        })                                                              \
)
#else
#define __regmap_lockdep_wrapper(fn, name, ...) fn(__VA_ARGS__, NULL, NULL)
#endif

/**
 * regmap_init() - Initialise register map
 *
 * @dev: Device that will be interacted with
 * @bus: Bus-specific callbacks to use with device
 * @bus_context: Data passed to bus-specific callbacks
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.  This function should generally not be called
 * directly, it should be called by bus-specific init functions.
 */
#define regmap_init(dev, bus, bus_context, config)                      \
        __regmap_lockdep_wrapper(__regmap_init, #config,                \
                                dev, bus, bus_context, config)
int regmap_attach_dev(struct device *dev, struct regmap *map,
                      const struct regmap_config *config);

/**
 * regmap_init_i2c() - Initialise register map
 *
 * @i2c: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_i2c(i2c, config)                                    \
        __regmap_lockdep_wrapper(__regmap_init_i2c, #config,            \
                                i2c, config)

/**
 * regmap_init_mdio() - Initialise register map
 *
 * @mdio_dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_mdio(mdio_dev, config)                              \
        __regmap_lockdep_wrapper(__regmap_init_mdio, #config,           \
                                mdio_dev, config)

/**
 * regmap_init_sccb() - Initialise register map
 *
 * @i2c: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_sccb(i2c, config)                                   \
        __regmap_lockdep_wrapper(__regmap_init_sccb, #config,           \
                                i2c, config)

/**
 * regmap_init_slimbus() - Initialise register map
 *
 * @slimbus: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_slimbus(slimbus, config)                            \
        __regmap_lockdep_wrapper(__regmap_init_slimbus, #config,        \
                                slimbus, config)

/**
 * regmap_init_spi() - Initialise register map
 *
 * @dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_spi(dev, config)                                    \
        __regmap_lockdep_wrapper(__regmap_init_spi, #config,            \
                                dev, config)

/**
 * regmap_init_spmi_base() - Create regmap for the Base register space
 *
 * @dev:        SPMI device that will be interacted with
 * @config:     Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_spmi_base(dev, config)                              \
        __regmap_lockdep_wrapper(__regmap_init_spmi_base, #config,      \
                                dev, config)

/**
 * regmap_init_spmi_ext() - Create regmap for Ext register space
 *
 * @dev:        Device that will be interacted with
 * @config:     Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_spmi_ext(dev, config)                               \
        __regmap_lockdep_wrapper(__regmap_init_spmi_ext, #config,       \
                                dev, config)

/**
 * regmap_init_w1() - Initialise register map
 *
 * @w1_dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_w1(w1_dev, config)                                  \
        __regmap_lockdep_wrapper(__regmap_init_w1, #config,             \
                                w1_dev, config)

/**
 * regmap_init_mmio_clk() - Initialise register map with register clock
 *
 * @dev: Device that will be interacted with
 * @clk_id: register clock consumer ID
 * @regs: Pointer to memory-mapped IO region
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap. Implies 'fast_io'.
 */
#define regmap_init_mmio_clk(dev, clk_id, regs, config)                 \
        __regmap_lockdep_wrapper(__regmap_init_mmio_clk, #config,       \
                                dev, clk_id, regs, config)

/**
 * regmap_init_mmio() - Initialise register map
 *
 * @dev: Device that will be interacted with
 * @regs: Pointer to memory-mapped IO region
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap. Implies 'fast_io'.
 */
#define regmap_init_mmio(dev, regs, config)             \
        regmap_init_mmio_clk(dev, NULL, regs, config)

/**
 * regmap_init_ac97() - Initialise AC'97 register map
 *
 * @ac97: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_ac97(ac97, config)                                  \
        __regmap_lockdep_wrapper(__regmap_init_ac97, #config,           \
                                ac97, config)
bool regmap_ac97_default_volatile(struct device *dev, unsigned int reg);

/**
 * regmap_init_sdw() - Initialise register map
 *
 * @sdw: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_sdw(sdw, config)                                    \
        __regmap_lockdep_wrapper(__regmap_init_sdw, #config,            \
                                sdw, config)

/**
 * regmap_init_sdw_mbq() - Initialise register map
 *
 * @sdw: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_sdw_mbq(sdw, config)                                        \
        __regmap_lockdep_wrapper(__regmap_init_sdw_mbq, #config,                \
                                &sdw->dev, sdw, config, NULL)

/**
 * regmap_init_sdw_mbq_cfg() - Initialise MBQ SDW register map with config
 *
 * @sdw: Device that will be interacted with
 * @config: Configuration for register map
 * @mbq_config: Properties for the MBQ registers
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap. The regmap will be automatically freed by the
 * device management code.
 */
#define regmap_init_sdw_mbq_cfg(dev, sdw, config, mbq_config)           \
        __regmap_lockdep_wrapper(__regmap_init_sdw_mbq, #config,        \
                                dev, sdw, config, mbq_config)

/**
 * regmap_init_spi_avmm() - Initialize register map for Intel SPI Slave
 * to AVMM Bus Bridge
 *
 * @spi: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.
 */
#define regmap_init_spi_avmm(spi, config)                                       \
        __regmap_lockdep_wrapper(__regmap_init_spi_avmm, #config,               \
                                 spi, config)

/**
 * regmap_init_fsi() - Initialise register map
 *
 * @fsi_dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer to
 * a struct regmap.
 */
#define regmap_init_fsi(fsi_dev, config)                                \
        __regmap_lockdep_wrapper(__regmap_init_fsi, #config, fsi_dev,   \
                                 config)

/**
 * devm_regmap_init() - Initialise managed register map
 *
 * @dev: Device that will be interacted with
 * @bus: Bus-specific callbacks to use with device
 * @bus_context: Data passed to bus-specific callbacks
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  This function should generally not be called
 * directly, it should be called by bus-specific init functions.  The
 * map will be automatically freed by the device management code.
 */
#define devm_regmap_init(dev, bus, bus_context, config)                 \
        __regmap_lockdep_wrapper(__devm_regmap_init, #config,           \
                                dev, bus, bus_context, config)

/**
 * devm_regmap_init_i2c() - Initialise managed register map
 *
 * @i2c: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_i2c(i2c, config)                               \
        __regmap_lockdep_wrapper(__devm_regmap_init_i2c, #config,       \
                                i2c, config)

/**
 * devm_regmap_init_mdio() - Initialise managed register map
 *
 * @mdio_dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_mdio(mdio_dev, config)                         \
        __regmap_lockdep_wrapper(__devm_regmap_init_mdio, #config,      \
                                mdio_dev, config)

/**
 * devm_regmap_init_sccb() - Initialise managed register map
 *
 * @i2c: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_sccb(i2c, config)                              \
        __regmap_lockdep_wrapper(__devm_regmap_init_sccb, #config,      \
                                i2c, config)

/**
 * devm_regmap_init_spi() - Initialise register map
 *
 * @dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The map will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_spi(dev, config)                               \
        __regmap_lockdep_wrapper(__devm_regmap_init_spi, #config,       \
                                dev, config)

/**
 * devm_regmap_init_spmi_base() - Create managed regmap for Base register space
 *
 * @dev:        SPMI device that will be interacted with
 * @config:     Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_spmi_base(dev, config)                         \
        __regmap_lockdep_wrapper(__devm_regmap_init_spmi_base, #config, \
                                dev, config)

/**
 * devm_regmap_init_spmi_ext() - Create managed regmap for Ext register space
 *
 * @dev:        SPMI device that will be interacted with
 * @config:     Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_spmi_ext(dev, config)                          \
        __regmap_lockdep_wrapper(__devm_regmap_init_spmi_ext, #config,  \
                                dev, config)

/**
 * devm_regmap_init_w1() - Initialise managed register map
 *
 * @w1_dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_w1(w1_dev, config)                             \
        __regmap_lockdep_wrapper(__devm_regmap_init_w1, #config,        \
                                w1_dev, config)
/**
 * devm_regmap_init_mmio_clk() - Initialise managed register map with clock
 *
 * @dev: Device that will be interacted with
 * @clk_id: register clock consumer ID
 * @regs: Pointer to memory-mapped IO region
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code. Implies 'fast_io'.
 */
#define devm_regmap_init_mmio_clk(dev, clk_id, regs, config)            \
        __regmap_lockdep_wrapper(__devm_regmap_init_mmio_clk, #config,  \
                                dev, clk_id, regs, config)

/**
 * devm_regmap_init_mmio() - Initialise managed register map
 *
 * @dev: Device that will be interacted with
 * @regs: Pointer to memory-mapped IO region
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code. Implies 'fast_io'.
 */
#define devm_regmap_init_mmio(dev, regs, config)                \
        devm_regmap_init_mmio_clk(dev, NULL, regs, config)

/**
 * devm_regmap_init_ac97() - Initialise AC'97 register map
 *
 * @ac97: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_ac97(ac97, config)                             \
        __regmap_lockdep_wrapper(__devm_regmap_init_ac97, #config,      \
                                ac97, config)

/**
 * devm_regmap_init_sdw() - Initialise managed register map
 *
 * @sdw: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap. The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_sdw(sdw, config)                               \
        __regmap_lockdep_wrapper(__devm_regmap_init_sdw, #config,       \
                                sdw, config)

/**
 * devm_regmap_init_sdw_mbq() - Initialise managed register map
 *
 * @sdw: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap. The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_sdw_mbq(sdw, config)                   \
        __regmap_lockdep_wrapper(__devm_regmap_init_sdw_mbq, #config,   \
                                &sdw->dev, sdw, config, NULL)

/**
 * devm_regmap_init_sdw_mbq_cfg() - Initialise managed MBQ SDW register map with config
 *
 * @dev: Device that will be interacted with
 * @sdw: SoundWire Device that will be interacted with
 * @config: Configuration for register map
 * @mbq_config: Properties for the MBQ registers
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap. The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_sdw_mbq_cfg(dev, sdw, config, mbq_config)      \
        __regmap_lockdep_wrapper(__devm_regmap_init_sdw_mbq,            \
                                #config, dev, sdw, config, mbq_config)

/**
 * devm_regmap_init_slimbus() - Initialise managed register map
 *
 * @slimbus: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap. The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_slimbus(slimbus, config)                       \
        __regmap_lockdep_wrapper(__devm_regmap_init_slimbus, #config,   \
                                slimbus, config)

/**
 * devm_regmap_init_i3c() - Initialise managed register map
 *
 * @i3c: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_i3c(i3c, config)                               \
        __regmap_lockdep_wrapper(__devm_regmap_init_i3c, #config,       \
                                i3c, config)

/**
 * devm_regmap_init_spi_avmm() - Initialize register map for Intel SPI Slave
 * to AVMM Bus Bridge
 *
 * @spi: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The map will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_spi_avmm(spi, config)                          \
        __regmap_lockdep_wrapper(__devm_regmap_init_spi_avmm, #config,  \
                                 spi, config)

/**
 * devm_regmap_init_fsi() - Initialise managed register map
 *
 * @fsi_dev: Device that will be interacted with
 * @config: Configuration for register map
 *
 * The return value will be an ERR_PTR() on error or a valid pointer
 * to a struct regmap.  The regmap will be automatically freed by the
 * device management code.
 */
#define devm_regmap_init_fsi(fsi_dev, config)                           \
        __regmap_lockdep_wrapper(__devm_regmap_init_fsi, #config,       \
                                 fsi_dev, config)

int regmap_mmio_attach_clk(struct regmap *map, struct clk *clk);
void regmap_mmio_detach_clk(struct regmap *map);
void regmap_exit(struct regmap *map);
int regmap_reinit_cache(struct regmap *map,
                        const struct regmap_config *config);
struct regmap *dev_get_regmap(struct device *dev, const char *name);
struct device *regmap_get_device(struct regmap *map);
int regmap_write(struct regmap *map, unsigned int reg, unsigned int val);
int regmap_write_async(struct regmap *map, unsigned int reg, unsigned int val);
int regmap_raw_write(struct regmap *map, unsigned int reg,
                     const void *val, size_t val_len);
int regmap_noinc_write(struct regmap *map, unsigned int reg,
                     const void *val, size_t val_len);
int regmap_bulk_write(struct regmap *map, unsigned int reg, const void *val,
                        size_t val_count);
int regmap_multi_reg_write(struct regmap *map, const struct reg_sequence *regs,
                        int num_regs);
int regmap_multi_reg_write_bypassed(struct regmap *map,
                                    const struct reg_sequence *regs,
                                    int num_regs);
int regmap_raw_write_async(struct regmap *map, unsigned int reg,
                           const void *val, size_t val_len);
int regmap_read(struct regmap *map, unsigned int reg, unsigned int *val);
int regmap_read_bypassed(struct regmap *map, unsigned int reg, unsigned int *val);
int regmap_raw_read(struct regmap *map, unsigned int reg,
                    void *val, size_t val_len);
int regmap_noinc_read(struct regmap *map, unsigned int reg,
                      void *val, size_t val_len);
int regmap_bulk_read(struct regmap *map, unsigned int reg, void *val,
                     size_t val_count);
int regmap_multi_reg_read(struct regmap *map, const unsigned int *reg, void *val,
                          size_t val_count);
int regmap_update_bits_base(struct regmap *map, unsigned int reg,
                            unsigned int mask, unsigned int val,
                            bool *change, bool async, bool force);

static inline int regmap_update_bits(struct regmap *map, unsigned int reg,
                                     unsigned int mask, unsigned int val)
{
        return regmap_update_bits_base(map, reg, mask, val, NULL, false, false);
}

static inline int regmap_update_bits_async(struct regmap *map, unsigned int reg,
                                           unsigned int mask, unsigned int val)
{
        return regmap_update_bits_base(map, reg, mask, val, NULL, true, false);
}

static inline int regmap_update_bits_check(struct regmap *map, unsigned int reg,
                                           unsigned int mask, unsigned int val,
                                           bool *change)
{
        return regmap_update_bits_base(map, reg, mask, val,
                                       change, false, false);
}

static inline int
regmap_update_bits_check_async(struct regmap *map, unsigned int reg,
                               unsigned int mask, unsigned int val,
                               bool *change)
{
        return regmap_update_bits_base(map, reg, mask, val,
                                       change, true, false);
}

static inline int regmap_write_bits(struct regmap *map, unsigned int reg,
                                    unsigned int mask, unsigned int val)
{
        return regmap_update_bits_base(map, reg, mask, val, NULL, false, true);
}

static inline int regmap_default_zero_cb(struct device *dev,
                                         unsigned int reg,
                                         unsigned int *def)
{
        *def = 0;
        return 0;
}

int regmap_get_val_bytes(struct regmap *map);
int regmap_get_max_register(struct regmap *map);
int regmap_get_reg_stride(struct regmap *map);
bool regmap_might_sleep(struct regmap *map);
int regmap_async_complete(struct regmap *map);
bool regmap_can_raw_write(struct regmap *map);
size_t regmap_get_raw_read_max(struct regmap *map);
size_t regmap_get_raw_write_max(struct regmap *map);

void regcache_sort_defaults(struct reg_default *defaults, unsigned int ndefaults);
int regcache_sync(struct regmap *map);
int regcache_sync_region(struct regmap *map, unsigned int min,
                         unsigned int max);
int regcache_drop_region(struct regmap *map, unsigned int min,
                         unsigned int max);
void regcache_cache_only(struct regmap *map, bool enable);
void regcache_cache_bypass(struct regmap *map, bool enable);
void regcache_mark_dirty(struct regmap *map);
bool regcache_reg_cached(struct regmap *map, unsigned int reg);

bool regmap_check_range_table(struct regmap *map, unsigned int reg,
                              const struct regmap_access_table *table);

int regmap_register_patch(struct regmap *map, const struct reg_sequence *regs,
                          int num_regs);
int regmap_parse_val(struct regmap *map, const void *buf,
                                unsigned int *val);

static inline bool regmap_reg_in_range(unsigned int reg,
                                       const struct regmap_range *range)
{
        return reg >= range->range_min && reg <= range->range_max;
}

bool regmap_reg_in_ranges(unsigned int reg,
                          const struct regmap_range *ranges,
                          unsigned int nranges);

static inline int regmap_set_bits(struct regmap *map,
                                  unsigned int reg, unsigned int bits)
{
        return regmap_update_bits_base(map, reg, bits, bits,
                                       NULL, false, false);
}

static inline int regmap_clear_bits(struct regmap *map,
                                    unsigned int reg, unsigned int bits)
{
        return regmap_update_bits_base(map, reg, bits, 0, NULL, false, false);
}

static inline int regmap_assign_bits(struct regmap *map, unsigned int reg,
                                     unsigned int bits, bool value)
{
        if (value)
                return regmap_set_bits(map, reg, bits);
        else
                return regmap_clear_bits(map, reg, bits);
}

int regmap_test_bits(struct regmap *map, unsigned int reg, unsigned int bits);

/**
 * struct reg_field - Description of an register field
 *
 * @reg: Offset of the register within the regmap bank
 * @lsb: lsb of the register field.
 * @msb: msb of the register field.
 * @id_size: port size if it has some ports
 * @id_offset: address offset for each ports
 */
struct reg_field {
        unsigned int reg;
        unsigned int lsb;
        unsigned int msb;
        unsigned int id_size;
        unsigned int id_offset;
};

#define REG_FIELD(_reg, _lsb, _msb) {           \
                                .reg = _reg,    \
                                .lsb = _lsb,    \
                                .msb = _msb,    \
                                }

#define REG_FIELD_ID(_reg, _lsb, _msb, _size, _offset) {        \
                                .reg = _reg,                    \
                                .lsb = _lsb,                    \
                                .msb = _msb,                    \
                                .id_size = _size,               \
                                .id_offset = _offset,           \
                                }

struct regmap_field *regmap_field_alloc(struct regmap *regmap,
                struct reg_field reg_field);
void regmap_field_free(struct regmap_field *field);

struct regmap_field *devm_regmap_field_alloc(struct device *dev,
                struct regmap *regmap, struct reg_field reg_field);
void devm_regmap_field_free(struct device *dev, struct regmap_field *field);

int regmap_field_bulk_alloc(struct regmap *regmap,
                             struct regmap_field **rm_field,
                             const struct reg_field *reg_field,
                             int num_fields);
void regmap_field_bulk_free(struct regmap_field *field);
int devm_regmap_field_bulk_alloc(struct device *dev, struct regmap *regmap,
                                 struct regmap_field **field,
                                 const struct reg_field *reg_field,
                                 int num_fields);
void devm_regmap_field_bulk_free(struct device *dev,
                                 struct regmap_field *field);

int regmap_field_read(struct regmap_field *field, unsigned int *val);
int regmap_field_update_bits_base(struct regmap_field *field,
                                  unsigned int mask, unsigned int val,
                                  bool *change, bool async, bool force);
int regmap_fields_read(struct regmap_field *field, unsigned int id,
                       unsigned int *val);
int regmap_fields_update_bits_base(struct regmap_field *field,  unsigned int id,
                                   unsigned int mask, unsigned int val,
                                   bool *change, bool async, bool force);

static inline int regmap_field_write(struct regmap_field *field,
                                     unsigned int val)
{
        return regmap_field_update_bits_base(field, ~0, val,
                                             NULL, false, false);
}

static inline int regmap_field_force_write(struct regmap_field *field,
                                           unsigned int val)
{
        return regmap_field_update_bits_base(field, ~0, val, NULL, false, true);
}

static inline int regmap_field_update_bits(struct regmap_field *field,
                                           unsigned int mask, unsigned int val)
{
        return regmap_field_update_bits_base(field, mask, val,
                                             NULL, false, false);
}

static inline int regmap_field_set_bits(struct regmap_field *field,
                                        unsigned int bits)
{
        return regmap_field_update_bits_base(field, bits, bits, NULL, false,
                                             false);
}

static inline int regmap_field_clear_bits(struct regmap_field *field,
                                          unsigned int bits)
{
        return regmap_field_update_bits_base(field, bits, 0, NULL, false,
                                             false);
}

int regmap_field_test_bits(struct regmap_field *field, unsigned int bits);

static inline int
regmap_field_force_update_bits(struct regmap_field *field,
                               unsigned int mask, unsigned int val)
{
        return regmap_field_update_bits_base(field, mask, val,
                                             NULL, false, true);
}

static inline int regmap_fields_write(struct regmap_field *field,
                                      unsigned int id, unsigned int val)
{
        return regmap_fields_update_bits_base(field, id, ~0, val,
                                              NULL, false, false);
}

static inline int regmap_fields_force_write(struct regmap_field *field,
                                            unsigned int id, unsigned int val)
{
        return regmap_fields_update_bits_base(field, id, ~0, val,
                                              NULL, false, true);
}

static inline int
regmap_fields_update_bits(struct regmap_field *field, unsigned int id,
                          unsigned int mask, unsigned int val)
{
        return regmap_fields_update_bits_base(field, id, mask, val,
                                              NULL, false, false);
}

static inline int
regmap_fields_force_update_bits(struct regmap_field *field, unsigned int id,
                                unsigned int mask, unsigned int val)
{
        return regmap_fields_update_bits_base(field, id, mask, val,
                                              NULL, false, true);
}

/**
 * struct regmap_irq_type - IRQ type definitions.
 *
 * @type_reg_offset: Offset register for the irq type setting.
 * @type_rising_val: Register value to configure RISING type irq.
 * @type_falling_val: Register value to configure FALLING type irq.
 * @type_level_low_val: Register value to configure LEVEL_LOW type irq.
 * @type_level_high_val: Register value to configure LEVEL_HIGH type irq.
 * @types_supported: logical OR of IRQ_TYPE_* flags indicating supported types.
 */
struct regmap_irq_type {
        unsigned int type_reg_offset;
        unsigned int type_reg_mask;
        unsigned int type_rising_val;
        unsigned int type_falling_val;
        unsigned int type_level_low_val;
        unsigned int type_level_high_val;
        unsigned int types_supported;
};

/**
 * struct regmap_irq - Description of an IRQ for the generic regmap irq_chip.
 *
 * @reg_offset: Offset of the status/mask register within the bank
 * @mask:       Mask used to flag/control the register.
 * @type:       IRQ trigger type setting details if supported.
 */
struct regmap_irq {
        unsigned int reg_offset;
        unsigned int mask;
        struct regmap_irq_type type;
};

#define REGMAP_IRQ_REG(_irq, _off, _mask)               \
        [_irq] = { .reg_offset = (_off), .mask = (_mask) }

#define REGMAP_IRQ_REG_LINE(_id, _reg_bits) \
        [_id] = {                               \
                .mask = BIT((_id) % (_reg_bits)),       \
                .reg_offset = (_id) / (_reg_bits),      \
        }

#define REGMAP_IRQ_MAIN_REG_OFFSET(arr)                         \
        { .num_regs = ARRAY_SIZE((arr)), .offset = &(arr)[0] }

struct regmap_irq_sub_irq_map {
        unsigned int num_regs;
        unsigned int *offset;
};

struct regmap_irq_chip_data;

/**
 * struct regmap_irq_chip - Description of a generic regmap irq_chip.
 *
 * @name:        Descriptive name for IRQ controller.
 * @domain_suffix: Name suffix to be appended to end of IRQ domain name. Needed
 *                 when multiple regmap-IRQ controllers are created from same
 *                 device.
 *
 * @main_status: Base main status register address. For chips which have
 *               interrupts arranged in separate sub-irq blocks with own IRQ
 *               registers and which have a main IRQ registers indicating
 *               sub-irq blocks with unhandled interrupts. For such chips fill
 *               sub-irq register information in status_base, mask_base and
 *               ack_base.
 * @num_main_status_bits: Should be given to chips where number of meaningfull
 *                        main status bits differs from num_regs.
 * @sub_reg_offsets: arrays of mappings from main register bits to sub irq
 *                   registers. First item in array describes the registers
 *                   for first main status bit. Second array for second bit etc.
 *                   Offset is given as sub register status offset to
 *                   status_base. Should contain num_regs arrays.
 *                   Can be provided for chips with more complex mapping than
 *                   1.st bit to 1.st sub-reg, 2.nd bit to 2.nd sub-reg, ...
 * @num_main_regs: Number of 'main status' irq registers for chips which have
 *                 main_status set.
 *
 * @status_base: Base status register address.
 * @mask_base:   Base mask register address. Mask bits are set to 1 when an
 *               interrupt is masked, 0 when unmasked.
 * @unmask_base:  Base unmask register address. Unmask bits are set to 1 when
 *                an interrupt is unmasked and 0 when masked.
 * @ack_base:    Base ack address. If zero then the chip is clear on read.
 *               Using zero value is possible with @use_ack bit.
 * @wake_base:   Base address for wake enables.  If zero unsupported.
 * @config_base: Base address for IRQ type config regs. If null unsupported.
 * @irq_reg_stride:  Stride to use for chips where registers are not contiguous.
 * @init_ack_masked: Ack all masked interrupts once during initalization.
 * @mask_unmask_non_inverted: Controls mask bit inversion for chips that set
 *      both @mask_base and @unmask_base. If false, mask and unmask bits are
 *      inverted (which is deprecated behavior); if true, bits will not be
 *      inverted and the registers keep their normal behavior. Note that if
 *      you use only one of @mask_base or @unmask_base, this flag has no
 *      effect and is unnecessary. Any new drivers that set both @mask_base
 *      and @unmask_base should set this to true to avoid relying on the
 *      deprecated behavior.
 * @use_ack:     Use @ack register even if it is zero.
 * @ack_invert:  Inverted ack register: cleared bits for ack.
 * @clear_ack:  Use this to set 1 and 0 or vice-versa to clear interrupts.
 * @status_invert: Inverted status register: cleared bits are active interrupts.
 * @status_is_level: Status register is actuall signal level: Xor status
 *                   register with previous value to get active interrupts.
 * @wake_invert: Inverted wake register: cleared bits are wake disabled.
 * @type_in_mask: Use the mask registers for controlling irq type. Use this if
 *                the hardware provides separate bits for rising/falling edge
 *                or low/high level interrupts and they should be combined into
 *                a single logical interrupt. Use &struct regmap_irq_type data
 *                to define the mask bit for each irq type.
 * @clear_on_unmask: For chips with interrupts cleared on read: read the status
 *                   registers before unmasking interrupts to clear any bits
 *                   set when they were masked.
 * @runtime_pm:  Hold a runtime PM lock on the device when accessing it.
 * @no_status: No status register: all interrupts assumed generated by device.
 *
 * @num_regs:    Number of registers in each control bank.
 *
 * @irqs:        Descriptors for individual IRQs.  Interrupt numbers are
 *               assigned based on the index in the array of the interrupt.
 * @num_irqs:    Number of descriptors.
 * @num_config_bases:   Number of config base registers.
 * @num_config_regs:    Number of config registers for each config base register.
 *
 * @handle_pre_irq:  Driver specific callback to handle interrupt from device
 *                   before regmap_irq_handler process the interrupts.
 * @handle_post_irq: Driver specific callback to handle interrupt from device
 *                   after handling the interrupts in regmap_irq_handler().
 * @handle_mask_sync: Callback used to handle IRQ mask syncs. The index will be
 *                    in the range [0, num_regs)
 * @set_type_config: Callback used for configuring irq types.
 * @get_irq_reg: Callback for mapping (base register, index) pairs to register
 *               addresses. The base register will be one of @status_base,
 *               @mask_base, etc., @main_status, or any of @config_base.
 *               The index will be in the range [0, num_main_regs[ for the
 *               main status base, [0, num_config_regs[ for any config
 *               register base, and [0, num_regs[ for any other base.
 *               If unspecified then regmap_irq_get_irq_reg_linear() is used.
 * @irq_drv_data:    Driver specific IRQ data which is passed as parameter when
 *                   driver specific pre/post interrupt handler is called.
 *
 * This is not intended to handle every possible interrupt controller, but
 * it should handle a substantial proportion of those that are found in the
 * wild.
 */
struct regmap_irq_chip {
        const char *name;
        const char *domain_suffix;

        unsigned int main_status;
        unsigned int num_main_status_bits;
        const struct regmap_irq_sub_irq_map *sub_reg_offsets;
        int num_main_regs;

        unsigned int status_base;
        unsigned int mask_base;
        unsigned int unmask_base;
        unsigned int ack_base;
        unsigned int wake_base;
        const unsigned int *config_base;
        unsigned int irq_reg_stride;
        unsigned int init_ack_masked:1;
        unsigned int mask_unmask_non_inverted:1;
        unsigned int use_ack:1;
        unsigned int ack_invert:1;
        unsigned int clear_ack:1;
        unsigned int status_invert:1;
        unsigned int status_is_level:1;
        unsigned int wake_invert:1;
        unsigned int type_in_mask:1;
        unsigned int clear_on_unmask:1;
        unsigned int runtime_pm:1;
        unsigned int no_status:1;

        int num_regs;

        const struct regmap_irq *irqs;
        int num_irqs;

        int num_config_bases;
        int num_config_regs;

        int (*handle_pre_irq)(void *irq_drv_data);
        int (*handle_post_irq)(void *irq_drv_data);
        int (*handle_mask_sync)(int index, unsigned int mask_buf_def,
                                unsigned int mask_buf, void *irq_drv_data);
        int (*set_type_config)(unsigned int **buf, unsigned int type,
                               const struct regmap_irq *irq_data, int idx,
                               void *irq_drv_data);
        unsigned int (*get_irq_reg)(struct regmap_irq_chip_data *data,
                                    unsigned int base, int index);
        void *irq_drv_data;
};

unsigned int regmap_irq_get_irq_reg_linear(struct regmap_irq_chip_data *data,
                                           unsigned int base, int index);
int regmap_irq_set_type_config_simple(unsigned int **buf, unsigned int type,
                                      const struct regmap_irq *irq_data,
                                      int idx, void *irq_drv_data);

int regmap_add_irq_chip(struct regmap *map, int irq, int irq_flags,
                        int irq_base, const struct regmap_irq_chip *chip,
                        struct regmap_irq_chip_data **data);
int regmap_add_irq_chip_fwnode(struct fwnode_handle *fwnode,
                               struct regmap *map, int irq,
                               int irq_flags, int irq_base,
                               const struct regmap_irq_chip *chip,
                               struct regmap_irq_chip_data **data);
void regmap_del_irq_chip(int irq, struct regmap_irq_chip_data *data);

int devm_regmap_add_irq_chip(struct device *dev, struct regmap *map, int irq,
                             int irq_flags, int irq_base,
                             const struct regmap_irq_chip *chip,
                             struct regmap_irq_chip_data **data);
int devm_regmap_add_irq_chip_fwnode(struct device *dev,
                                    struct fwnode_handle *fwnode,
                                    struct regmap *map, int irq,
                                    int irq_flags, int irq_base,
                                    const struct regmap_irq_chip *chip,
                                    struct regmap_irq_chip_data **data);
void devm_regmap_del_irq_chip(struct device *dev, int irq,
                              struct regmap_irq_chip_data *data);

int regmap_irq_chip_get_base(struct regmap_irq_chip_data *data);
int regmap_irq_get_virq(struct regmap_irq_chip_data *data, int irq);
struct irq_domain *regmap_irq_get_domain(struct regmap_irq_chip_data *data);

#else

/*
 * These stubs should only ever be called by generic code which has
 * regmap based facilities, if they ever get called at runtime
 * something is going wrong and something probably needs to select
 * REGMAP.
 */

static inline int regmap_write(struct regmap *map, unsigned int reg,
                               unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_write_async(struct regmap *map, unsigned int reg,
                                     unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_raw_write(struct regmap *map, unsigned int reg,
                                   const void *val, size_t val_len)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_raw_write_async(struct regmap *map, unsigned int reg,
                                         const void *val, size_t val_len)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_noinc_write(struct regmap *map, unsigned int reg,
                                    const void *val, size_t val_len)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_bulk_write(struct regmap *map, unsigned int reg,
                                    const void *val, size_t val_count)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_read(struct regmap *map, unsigned int reg,
                              unsigned int *val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_read_bypassed(struct regmap *map, unsigned int reg,
                                       unsigned int *val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_raw_read(struct regmap *map, unsigned int reg,
                                  void *val, size_t val_len)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_noinc_read(struct regmap *map, unsigned int reg,
                                    void *val, size_t val_len)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_bulk_read(struct regmap *map, unsigned int reg,
                                   void *val, size_t val_count)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_update_bits_base(struct regmap *map, unsigned int reg,
                                          unsigned int mask, unsigned int val,
                                          bool *change, bool async, bool force)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_set_bits(struct regmap *map,
                                  unsigned int reg, unsigned int bits)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_clear_bits(struct regmap *map,
                                    unsigned int reg, unsigned int bits)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_assign_bits(struct regmap *map, unsigned int reg,
                                     unsigned int bits, bool value)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_test_bits(struct regmap *map,
                                   unsigned int reg, unsigned int bits)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_field_update_bits_base(struct regmap_field *field,
                                        unsigned int mask, unsigned int val,
                                        bool *change, bool async, bool force)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_fields_update_bits_base(struct regmap_field *field,
                                   unsigned int id,
                                   unsigned int mask, unsigned int val,
                                   bool *change, bool async, bool force)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_update_bits(struct regmap *map, unsigned int reg,
                                     unsigned int mask, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_update_bits_async(struct regmap *map, unsigned int reg,
                                           unsigned int mask, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_update_bits_check(struct regmap *map, unsigned int reg,
                                           unsigned int mask, unsigned int val,
                                           bool *change)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int
regmap_update_bits_check_async(struct regmap *map, unsigned int reg,
                               unsigned int mask, unsigned int val,
                               bool *change)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_write_bits(struct regmap *map, unsigned int reg,
                                    unsigned int mask, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_field_write(struct regmap_field *field,
                                     unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_field_force_write(struct regmap_field *field,
                                           unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_field_update_bits(struct regmap_field *field,
                                           unsigned int mask, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int
regmap_field_force_update_bits(struct regmap_field *field,
                               unsigned int mask, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_field_set_bits(struct regmap_field *field,
                                        unsigned int bits)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_field_clear_bits(struct regmap_field *field,
                                          unsigned int bits)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_field_test_bits(struct regmap_field *field,
                                         unsigned int bits)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_fields_write(struct regmap_field *field,
                                      unsigned int id, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_fields_force_write(struct regmap_field *field,
                                            unsigned int id, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int
regmap_fields_update_bits(struct regmap_field *field, unsigned int id,
                          unsigned int mask, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int
regmap_fields_force_update_bits(struct regmap_field *field, unsigned int id,
                                unsigned int mask, unsigned int val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_get_val_bytes(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_get_max_register(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_get_reg_stride(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline bool regmap_might_sleep(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
        return true;
}

static inline void regcache_sort_defaults(struct reg_default *defaults,
                                          unsigned int ndefaults)
{
        WARN_ONCE(1, "regmap API is disabled");
}

static inline int regcache_sync(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regcache_sync_region(struct regmap *map, unsigned int min,
                                       unsigned int max)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regcache_drop_region(struct regmap *map, unsigned int min,
                                       unsigned int max)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline void regcache_cache_only(struct regmap *map, bool enable)
{
        WARN_ONCE(1, "regmap API is disabled");
}

static inline void regcache_cache_bypass(struct regmap *map, bool enable)
{
        WARN_ONCE(1, "regmap API is disabled");
}

static inline void regcache_mark_dirty(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
}

static inline void regmap_async_complete(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
}

static inline int regmap_register_patch(struct regmap *map,
                                        const struct reg_sequence *regs,
                                        int num_regs)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline int regmap_parse_val(struct regmap *map, const void *buf,
                                unsigned int *val)
{
        WARN_ONCE(1, "regmap API is disabled");
        return -EINVAL;
}

static inline struct regmap *dev_get_regmap(struct device *dev,
                                            const char *name)
{
        return NULL;
}

static inline struct device *regmap_get_device(struct regmap *map)
{
        WARN_ONCE(1, "regmap API is disabled");
        return NULL;
}

#endif

#endif