Files
loramodem/build/zephyr/include/generated/zephyr/syscalls/espi.h
maze 45d1364a71 Add XIAO Wio-SX1262 overlay; support SX12xx bandwidths (including 62.5 kHz) as default
- boards/seeed/xiao_wio_sx1262: add overlay, .conf, board.yml
- app: support full set of SX12xx bandwidths; default BW set to 62 (62.5 kHz)
- Update Kconfig and prj.conf
- Update lora_modem.h/c for validation and mapping
2026-03-26 13:01:47 +01:00

345 lines
13 KiB
C

/* auto-generated by gen_syscalls.py, don't edit */
#ifndef Z_INCLUDE_SYSCALLS_ESPI_H
#define Z_INCLUDE_SYSCALLS_ESPI_H
#include <zephyr/tracing/tracing_syscall.h>
#ifndef _ASMLANGUAGE
#include <stdarg.h>
#include <zephyr/syscall_list.h>
#include <zephyr/syscall.h>
#include <zephyr/linker/sections.h>
#ifdef __cplusplus
extern "C" {
#endif
extern int z_impl_espi_config(const struct device * dev, struct espi_cfg * cfg);
__pinned_func
static inline int espi_config(const struct device * dev, struct espi_cfg * cfg)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_cfg * val; } parm1 = { .val = cfg };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_CONFIG);
}
#endif
compiler_barrier();
return z_impl_espi_config(dev, cfg);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_config(dev, cfg) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_CONFIG, espi_config, dev, cfg); syscall__retval = espi_config(dev, cfg); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_CONFIG, espi_config, dev, cfg, syscall__retval); syscall__retval; })
#endif
#endif
extern bool z_impl_espi_get_channel_status(const struct device * dev, enum espi_channel ch);
__pinned_func
static inline bool espi_get_channel_status(const struct device * dev, enum espi_channel ch)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; enum espi_channel val; } parm1 = { .val = ch };
return (bool) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_GET_CHANNEL_STATUS);
}
#endif
compiler_barrier();
return z_impl_espi_get_channel_status(dev, ch);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_get_channel_status(dev, ch) ({ bool syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_GET_CHANNEL_STATUS, espi_get_channel_status, dev, ch); syscall__retval = espi_get_channel_status(dev, ch); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_GET_CHANNEL_STATUS, espi_get_channel_status, dev, ch, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_read_request(const struct device * dev, struct espi_request_packet * req);
__pinned_func
static inline int espi_read_request(const struct device * dev, struct espi_request_packet * req)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_request_packet * val; } parm1 = { .val = req };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_READ_REQUEST);
}
#endif
compiler_barrier();
return z_impl_espi_read_request(dev, req);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_read_request(dev, req) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_READ_REQUEST, espi_read_request, dev, req); syscall__retval = espi_read_request(dev, req); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_READ_REQUEST, espi_read_request, dev, req, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_write_request(const struct device * dev, struct espi_request_packet * req);
__pinned_func
static inline int espi_write_request(const struct device * dev, struct espi_request_packet * req)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_request_packet * val; } parm1 = { .val = req };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_WRITE_REQUEST);
}
#endif
compiler_barrier();
return z_impl_espi_write_request(dev, req);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_write_request(dev, req) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_WRITE_REQUEST, espi_write_request, dev, req); syscall__retval = espi_write_request(dev, req); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_WRITE_REQUEST, espi_write_request, dev, req, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_read_lpc_request(const struct device * dev, enum lpc_peripheral_opcode op, uint32_t * data);
__pinned_func
static inline int espi_read_lpc_request(const struct device * dev, enum lpc_peripheral_opcode op, uint32_t * data)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; enum lpc_peripheral_opcode val; } parm1 = { .val = op };
union { uintptr_t x; uint32_t * val; } parm2 = { .val = data };
return (int) arch_syscall_invoke3(parm0.x, parm1.x, parm2.x, K_SYSCALL_ESPI_READ_LPC_REQUEST);
}
#endif
compiler_barrier();
return z_impl_espi_read_lpc_request(dev, op, data);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_read_lpc_request(dev, op, data) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_READ_LPC_REQUEST, espi_read_lpc_request, dev, op, data); syscall__retval = espi_read_lpc_request(dev, op, data); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_READ_LPC_REQUEST, espi_read_lpc_request, dev, op, data, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_write_lpc_request(const struct device * dev, enum lpc_peripheral_opcode op, uint32_t * data);
__pinned_func
static inline int espi_write_lpc_request(const struct device * dev, enum lpc_peripheral_opcode op, uint32_t * data)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; enum lpc_peripheral_opcode val; } parm1 = { .val = op };
union { uintptr_t x; uint32_t * val; } parm2 = { .val = data };
return (int) arch_syscall_invoke3(parm0.x, parm1.x, parm2.x, K_SYSCALL_ESPI_WRITE_LPC_REQUEST);
}
#endif
compiler_barrier();
return z_impl_espi_write_lpc_request(dev, op, data);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_write_lpc_request(dev, op, data) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_WRITE_LPC_REQUEST, espi_write_lpc_request, dev, op, data); syscall__retval = espi_write_lpc_request(dev, op, data); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_WRITE_LPC_REQUEST, espi_write_lpc_request, dev, op, data, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_send_vwire(const struct device * dev, enum espi_vwire_signal signal, uint8_t level);
__pinned_func
static inline int espi_send_vwire(const struct device * dev, enum espi_vwire_signal signal, uint8_t level)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; enum espi_vwire_signal val; } parm1 = { .val = signal };
union { uintptr_t x; uint8_t val; } parm2 = { .val = level };
return (int) arch_syscall_invoke3(parm0.x, parm1.x, parm2.x, K_SYSCALL_ESPI_SEND_VWIRE);
}
#endif
compiler_barrier();
return z_impl_espi_send_vwire(dev, signal, level);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_send_vwire(dev, signal, level) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_SEND_VWIRE, espi_send_vwire, dev, signal, level); syscall__retval = espi_send_vwire(dev, signal, level); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_SEND_VWIRE, espi_send_vwire, dev, signal, level, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_receive_vwire(const struct device * dev, enum espi_vwire_signal signal, uint8_t * level);
__pinned_func
static inline int espi_receive_vwire(const struct device * dev, enum espi_vwire_signal signal, uint8_t * level)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; enum espi_vwire_signal val; } parm1 = { .val = signal };
union { uintptr_t x; uint8_t * val; } parm2 = { .val = level };
return (int) arch_syscall_invoke3(parm0.x, parm1.x, parm2.x, K_SYSCALL_ESPI_RECEIVE_VWIRE);
}
#endif
compiler_barrier();
return z_impl_espi_receive_vwire(dev, signal, level);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_receive_vwire(dev, signal, level) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_RECEIVE_VWIRE, espi_receive_vwire, dev, signal, level); syscall__retval = espi_receive_vwire(dev, signal, level); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_RECEIVE_VWIRE, espi_receive_vwire, dev, signal, level, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_send_oob(const struct device * dev, struct espi_oob_packet * pckt);
__pinned_func
static inline int espi_send_oob(const struct device * dev, struct espi_oob_packet * pckt)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_oob_packet * val; } parm1 = { .val = pckt };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_SEND_OOB);
}
#endif
compiler_barrier();
return z_impl_espi_send_oob(dev, pckt);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_send_oob(dev, pckt) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_SEND_OOB, espi_send_oob, dev, pckt); syscall__retval = espi_send_oob(dev, pckt); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_SEND_OOB, espi_send_oob, dev, pckt, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_receive_oob(const struct device * dev, struct espi_oob_packet * pckt);
__pinned_func
static inline int espi_receive_oob(const struct device * dev, struct espi_oob_packet * pckt)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_oob_packet * val; } parm1 = { .val = pckt };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_RECEIVE_OOB);
}
#endif
compiler_barrier();
return z_impl_espi_receive_oob(dev, pckt);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_receive_oob(dev, pckt) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_RECEIVE_OOB, espi_receive_oob, dev, pckt); syscall__retval = espi_receive_oob(dev, pckt); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_RECEIVE_OOB, espi_receive_oob, dev, pckt, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_read_flash(const struct device * dev, struct espi_flash_packet * pckt);
__pinned_func
static inline int espi_read_flash(const struct device * dev, struct espi_flash_packet * pckt)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_flash_packet * val; } parm1 = { .val = pckt };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_READ_FLASH);
}
#endif
compiler_barrier();
return z_impl_espi_read_flash(dev, pckt);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_read_flash(dev, pckt) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_READ_FLASH, espi_read_flash, dev, pckt); syscall__retval = espi_read_flash(dev, pckt); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_READ_FLASH, espi_read_flash, dev, pckt, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_write_flash(const struct device * dev, struct espi_flash_packet * pckt);
__pinned_func
static inline int espi_write_flash(const struct device * dev, struct espi_flash_packet * pckt)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_flash_packet * val; } parm1 = { .val = pckt };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_WRITE_FLASH);
}
#endif
compiler_barrier();
return z_impl_espi_write_flash(dev, pckt);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_write_flash(dev, pckt) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_WRITE_FLASH, espi_write_flash, dev, pckt); syscall__retval = espi_write_flash(dev, pckt); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_WRITE_FLASH, espi_write_flash, dev, pckt, syscall__retval); syscall__retval; })
#endif
#endif
extern int z_impl_espi_flash_erase(const struct device * dev, struct espi_flash_packet * pckt);
__pinned_func
static inline int espi_flash_erase(const struct device * dev, struct espi_flash_packet * pckt)
{
#ifdef CONFIG_USERSPACE
if (z_syscall_trap()) {
union { uintptr_t x; const struct device * val; } parm0 = { .val = dev };
union { uintptr_t x; struct espi_flash_packet * val; } parm1 = { .val = pckt };
return (int) arch_syscall_invoke2(parm0.x, parm1.x, K_SYSCALL_ESPI_FLASH_ERASE);
}
#endif
compiler_barrier();
return z_impl_espi_flash_erase(dev, pckt);
}
#if defined(CONFIG_TRACING_SYSCALL)
#ifndef DISABLE_SYSCALL_TRACING
#define espi_flash_erase(dev, pckt) ({ int syscall__retval; sys_port_trace_syscall_enter(K_SYSCALL_ESPI_FLASH_ERASE, espi_flash_erase, dev, pckt); syscall__retval = espi_flash_erase(dev, pckt); sys_port_trace_syscall_exit(K_SYSCALL_ESPI_FLASH_ERASE, espi_flash_erase, dev, pckt, syscall__retval); syscall__retval; })
#endif
#endif
#ifdef __cplusplus
}
#endif
#endif
#endif /* include guard */