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MLK-13911-5 soc: scfw: imx8: add SCFW

Add i.MX8 SCFW API support.

Based on below commit:

(fcd0efb5f2550712bd7d27f1279e51f7f687f71d)
Fix MX8 MU driver to follow Linux coding conventions.
Remove unused functions.

Signed-off-by: Anson Huang <Anson.Huang@nxp.com>
Signed-off-by: Ranjani Vaidyanathan <Ranjani.Vaidyanathan@nxp.com>

Added to drivers/soc/imx instead of drivers/soc/imx8
Skipped imx8 imx_rpmsg code

Signed-off-by: Leonard Crestez <leonard.crestez@nxp.com>
pull/10/head
Anson Huang 2017-01-19 03:59:00 +08:00 committed by Jason Liu
parent adfd731d95
commit cab852f340
34 changed files with 7579 additions and 1 deletions

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@ -9,7 +9,7 @@ obj-y += bcm/
obj-$(CONFIG_ARCH_DOVE) += dove/
obj-$(CONFIG_MACH_DOVE) += dove/
obj-y += fsl/
obj-$(CONFIG_ARCH_MXC) += imx/
obj-y += imx/
obj-$(CONFIG_SOC_XWAY) += lantiq/
obj-$(CONFIG_ARCH_MEDIATEK) += mediatek/
obj-$(CONFIG_ARCH_MESON) += amlogic/

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@ -1,2 +1,4 @@
obj-$(CONFIG_HAVE_IMX_GPC) += gpc.o
obj-$(CONFIG_IMX7_PM_DOMAINS) += gpcv2.o
obj-$(CONFIG_ARCH_FSL_IMX8QM) += mu/
obj-$(CONFIG_ARCH_FSL_IMX8QM) += sc/

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@ -0,0 +1 @@
obj-y += mx8_mu.o

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@ -0,0 +1,78 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <linux/err.h>
#include <linux/io.h>
#include "mx8_mu.h"
/*!
* This function enables specific RX full interrupt.
*/
void MU_EnableRxFullInt(void __iomem *base, uint32_t index)
{
uint32_t reg = readl_relaxed(base + MU_ACR_OFFSET1);
reg &= ~(MU_CR_GIRn_MASK1 | MU_CR_NMI_MASK1);
reg |= ~MU_CR_RIE0_MASK1 >> index;
writel_relaxed(reg, base + MU_ACR_OFFSET1);
}
/*!
* This function enables specific general purpose interrupt.
*/
void MU_EnableGeneralInt(void __iomem *base, uint32_t index)
{
uint32_t reg = readl_relaxed(base + MU_ACR_OFFSET1);
reg &= ~(MU_CR_GIRn_MASK1 | MU_CR_NMI_MASK1);
reg |= MU_CR_GIE0_MASK1 >> index;
writel_relaxed(reg, base + MU_ACR_OFFSET1);
}
/*
* Wait and send message to the other core.
*/
void MU_SendMessage(void __iomem *base, uint32_t regIndex, uint32_t msg)
{
uint32_t mask = MU_SR_TE0_MASK1 >> regIndex;
/* Wait TX register to be empty. */
while (!(readl_relaxed(base + MU_ASR_OFFSET1) & mask))
;
writel_relaxed(msg, base + MU_ATR0_OFFSET1 + (regIndex * 4));
}
/*
* Wait to receive message from the other core.
*/
void MU_ReceiveMsg(void __iomem *base, uint32_t regIndex, uint32_t *msg)
{
uint32_t mask = MU_SR_RF0_MASK1 >> regIndex;
/* Wait RX register to be full. */
while (!(readl_relaxed(base + MU_ASR_OFFSET1) & mask))
;
*msg = readl_relaxed(base + MU_ARR0_OFFSET1 + (regIndex * 4));
}
void MU_Init(void __iomem *base)
{
uint32_t reg;
reg = readl_relaxed(base + MU_ACR_OFFSET1);
/* Clear GIEn, RIEn, TIEn, GIRn and ABFn. */
reg &= ~(MU_CR_GIEn_MASK1 | MU_CR_RIEn_MASK1 | MU_CR_TIEn_MASK1
| MU_CR_GIRn_MASK1 | MU_CR_NMI_MASK1 | MU_CR_Fn_MASK1);
writel_relaxed(reg, base + MU_ACR_OFFSET1);
}
/**@}*/

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@ -0,0 +1,36 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
#define MU_ATR0_OFFSET1 0x0
#define MU_ARR0_OFFSET1 0x10
#define MU_ASR_OFFSET1 0x20
#define MU_ACR_OFFSET1 0x24
#define MU_TR_COUNT1 4
#define MU_RR_COUNT1 4
#define MU_CR_GIEn_MASK1 (0xF << 28)
#define MU_CR_RIEn_MASK1 (0xF << 24)
#define MU_CR_TIEn_MASK1 (0xF << 20)
#define MU_CR_GIRn_MASK1 (0xF << 16)
#define MU_CR_NMI_MASK1 (1 << 3)
#define MU_CR_Fn_MASK1 0x7
#define MU_SR_TE0_MASK1 (1 << 23)
#define MU_SR_RF0_MASK1 (1 << 27)
#define MU_CR_RIE0_MASK1 (1 << 27)
#define MU_CR_GIE0_MASK1 (1 << 31)
#define MU_TR_COUNT 4
#define MU_RR_COUNT 4
void MU_Init(void __iomem *base);
void MU_SendMessage(void __iomem *base, uint32_t regIndex, uint32_t msg);
void MU_ReceiveMsg(void __iomem *base, uint32_t regIndex, uint32_t *msg);
void MU_EnableGeneralInt(void __iomem *base, uint32_t index);
void MU_EnableRxFullInt(void __iomem *base, uint32_t index);

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@ -0,0 +1,8 @@
obj-y += main/ipc.o
obj-y += svc/misc/rpc_clnt.o
obj-y += svc/pad/rpc_clnt.o
obj-y += svc/pm/rpc_clnt.o
obj-y += svc/rm/rpc_clnt.o
obj-y += svc/timer/rpc_clnt.o
obj-y += svc/irq/rpc_clnt.o

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@ -0,0 +1,366 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/* Includes */
#include <linux/err.h>
#include <linux/kernel.h>
#include <linux/of.h>
#include <linux/of_irq.h>
#include <linux/of_address.h>
#include <linux/of_device.h>
#include <linux/of_fdt.h>
#include <linux/interrupt.h>
#include <linux/irq.h>
#include <soc/imx8/sc/svc/irq/api.h>
#include <soc/imx8/sc/ipc.h>
#include <soc/imx8/sc/sci.h>
#include "../../mu/mx8_mu.h"
#include "rpc.h"
/* Local Defines */
#define MU_SIZE 0x10000
/* Local Types */
unsigned int scu_mu_id;
static void __iomem *mu_base_virtaddr;
static struct delayed_work scu_mu_work;
static sc_ipc_t mu_ipcHandle;
/* Local functions */
/* Local variables */
static uint32_t gIPCport;
static bool scu_mu_init;
DEFINE_MUTEX(scu_mu_mutex);
static BLOCKING_NOTIFIER_HEAD(SCU_notifier_chain);
EXPORT_SYMBOL(sc_pm_set_resource_power_mode);
EXPORT_SYMBOL(sc_pm_get_resource_power_mode);
EXPORT_SYMBOL(sc_pm_cpu_start);
EXPORT_SYMBOL(sc_misc_set_control);
EXPORT_SYMBOL(sc_pm_clock_enable);
EXPORT_SYMBOL(sc_pm_set_clock_rate);
/*--------------------------------------------------------------------------*/
/* RPC command/response */
/*--------------------------------------------------------------------------*/
void sc_call_rpc(sc_ipc_t handle, sc_rpc_msg_t *msg, bool no_resp)
{
if (in_interrupt()) {
pr_warn("Cannot make SC IPC calls from an interrupt context\n");
dump_stack();
return;
}
mutex_lock(&scu_mu_mutex);
sc_ipc_write(handle, msg);
if (!no_resp)
sc_ipc_read(handle, msg);
mutex_unlock(&scu_mu_mutex);
}
EXPORT_SYMBOL(sc_call_rpc);
/*--------------------------------------------------------------------------*/
/* Get MU base address for specified IPC channel */
/*--------------------------------------------------------------------------*/
static uint32_t *sc_ipc_get_mu_base(uint32_t id)
{
uint32_t *base;
/* Check parameters */
if (id >= SC_NUM_IPC)
base = NULL;
else
base = (uint32_t *) (mu_base_virtaddr + (id * MU_SIZE));
return base;
}
/*--------------------------------------------------------------------------*/
/* Get the MU ID used by Linux */
/*--------------------------------------------------------------------------*/
int sc_ipc_getMuID(uint32_t *mu_id)
{
if (scu_mu_init) {
*mu_id = scu_mu_id;
return SC_ERR_NONE;
}
return SC_ERR_UNAVAILABLE;
}
EXPORT_SYMBOL(sc_ipc_getMuID);
/*--------------------------------------------------------------------------*/
/* Open an IPC channel */
/*--------------------------------------------------------------------------*/
sc_err_t sc_ipc_requestInt(sc_ipc_t *handle, uint32_t id)
{
return SC_ERR_NONE;
}
/*--------------------------------------------------------------------------*/
/* Open an IPC channel */
/*--------------------------------------------------------------------------*/
sc_err_t sc_ipc_open(sc_ipc_t *handle, uint32_t id)
{
uint32_t *base;
mutex_lock(&scu_mu_mutex);
if (!scu_mu_init) {
mutex_unlock(&scu_mu_mutex);
return SC_ERR_UNAVAILABLE;
}
/* Get MU base associated with IPC channel */
base = sc_ipc_get_mu_base(id);
if (base == NULL) {
mutex_unlock(&scu_mu_mutex);
return SC_ERR_IPC;
}
*handle = (sc_ipc_t) task_pid_vnr(current);
mutex_unlock(&scu_mu_mutex);
return SC_ERR_NONE;
}
EXPORT_SYMBOL(sc_ipc_open);
/*--------------------------------------------------------------------------*/
/* Close an IPC channel */
/*--------------------------------------------------------------------------*/
void sc_ipc_close(sc_ipc_t handle)
{
uint32_t *base;
mutex_lock(&scu_mu_mutex);
if (!scu_mu_init) {
mutex_unlock(&scu_mu_mutex);
return;
}
/* Get MU base associated with IPC channel */
base = sc_ipc_get_mu_base(gIPCport);
/* TBD ***** What needs to be done here? */
mutex_unlock(&scu_mu_mutex);
}
EXPORT_SYMBOL(sc_ipc_close);
/*!
* This function reads a message from an IPC channel.
*
* @param[in] ipc id of channel read from
* @param[out] data pointer to message buffer to read
*
* This function will block if no message is available to be read.
*/
void sc_ipc_read(sc_ipc_t handle, void *data)
{
uint32_t *base;
uint8_t count = 0;
sc_rpc_msg_t *msg = (sc_rpc_msg_t *) data;
/* Get MU base associated with IPC channel */
base = sc_ipc_get_mu_base(gIPCport);
if ((base == NULL) || (msg == NULL))
return;
/* Read first word */
MU_ReceiveMsg(base, 0, (uint32_t *) msg);
count++;
/* Check size */
if (msg->size > SC_RPC_MAX_MSG) {
*((uint32_t *) msg) = 0;
return;
}
/* Read remaining words */
while (count < msg->size) {
MU_ReceiveMsg(base, count % MU_RR_COUNT,
&(msg->DATA.u32[count - 1]));
count++;
}
}
/*!
* This function writes a message to an IPC channel.
*
* @param[in] ipc id of channel to write to
* @param[in] data pointer to message buffer to write
*
* This function will block if the outgoing buffer is full.
*/
void sc_ipc_write(sc_ipc_t handle, void *data)
{
uint32_t *base;
uint8_t count = 0;
sc_rpc_msg_t *msg = (sc_rpc_msg_t *) data;
/* Get MU base associated with IPC channel */
base = sc_ipc_get_mu_base(gIPCport);
if ((base == NULL) || (msg == NULL))
return;
/* Check size */
if (msg->size > SC_RPC_MAX_MSG)
return;
/* Write first word */
MU_SendMessage(base, 0, *((uint32_t *) msg));
count++;
/* Write remaining words */
while (count < msg->size) {
MU_SendMessage(base, count % MU_TR_COUNT, msg->DATA.u32[count - 1]);
count++;
}
}
int register_scu_notifier(struct notifier_block *nb)
{
return blocking_notifier_chain_register(&SCU_notifier_chain, nb);
}
EXPORT_SYMBOL(register_scu_notifier);
int unregister_scu_notifier(struct notifier_block *nb)
{
return blocking_notifier_chain_unregister(&SCU_notifier_chain, nb);
}
EXPORT_SYMBOL(unregister_scu_notifier);
static int SCU_notifier_call_chain(unsigned long val)
{
return (blocking_notifier_call_chain(&SCU_notifier_chain, val, NULL) ==
NOTIFY_BAD) ? -EINVAL : 0;
}
static void scu_mu_work_handler(struct work_struct *work)
{
uint32_t irq_status;
sc_err_t sciErr;
/* Figure out what caused the interrupt. */
sciErr = sc_irq_status(mu_ipcHandle, SC_R_MU_0A, SC_IRQ_GROUP_TEMP,
&irq_status);
if (irq_status & (SC_IRQ_TEMP_PMIC0_HIGH | SC_IRQ_TEMP_PMIC1_HIGH))
SCU_notifier_call_chain(irq_status);
sciErr = sc_irq_status(mu_ipcHandle, SC_R_MU_0A, SC_IRQ_GROUP_RTC,
&irq_status);
if (irq_status & SC_IRQ_RTC)
SCU_notifier_call_chain(irq_status);
}
static irqreturn_t imx8_scu_mu_isr(int irq, void *param)
{
u32 irqs;
irqs = (readl_relaxed(mu_base_virtaddr + 0x20) & (0xf << 28));
if (irqs) {
/* Clear the General Interrupt */
writel_relaxed(irqs, mu_base_virtaddr + 0x20);
/* Setup a bottom-half to handle the irq work. */
schedule_delayed_work(&scu_mu_work, 0);
}
return IRQ_HANDLED;
}
/*Initialization of the MU code. */
int __init imx8_mu_init(void)
{
struct device_node *np;
u32 irq;
int err;
sc_err_t sciErr;
/*
* Get the address of MU to be used for communication with the SCU
*/
np = of_find_compatible_node(NULL, NULL, "fsl,imx8-mu");
if (!np) {
pr_info("Cannot find MU entry in device tree\n");
return 0;
}
mu_base_virtaddr = of_iomap(np, 0);
WARN_ON(!mu_base_virtaddr);
err = of_property_read_u32_index(np, "fsl,scu_ap_mu_id", 0, &scu_mu_id);
if (err)
pr_info("imx8_mu_init: Cannot get mu_id err = %d\n", err);
irq = of_irq_get(np, 0);
err = request_irq(irq, imx8_scu_mu_isr,
IRQF_EARLY_RESUME, "imx8_mu_isr", NULL);
if (err) {
pr_info("imx8_mu_init :request_irq failed %d, err = %d\n", irq,
err);
}
if (!scu_mu_init) {
uint32_t i;
INIT_DELAYED_WORK(&scu_mu_work, scu_mu_work_handler);
/* Init MU */
MU_Init(mu_base_virtaddr);
#if 1
/* Enable all RX interrupts */
for (i = 0; i < MU_RR_COUNT; i++)
MU_EnableGeneralInt(mu_base_virtaddr, i);
#endif
gIPCport = scu_mu_id;
scu_mu_init = true;
}
sciErr = sc_ipc_open(&mu_ipcHandle, scu_mu_id);
if (sciErr != SC_ERR_NONE) {
pr_info("Cannot open MU channel to SCU\n");
return sciErr;
};
/* Request for the high temp interrupt. */
sciErr = sc_irq_enable(mu_ipcHandle, SC_R_MU_0A, SC_IRQ_GROUP_TEMP,
SC_IRQ_TEMP_PMIC0_HIGH, true);
if (sciErr)
pr_info("Cannot request PMIC0_TEMP interrupt\n");
/* Request for the high temp interrupt. */
sciErr = sc_irq_enable(mu_ipcHandle, SC_R_MU_0A, SC_IRQ_GROUP_TEMP,
SC_IRQ_TEMP_PMIC1_HIGH, true);
if (sciErr)
pr_info("Cannot request PMIC1_TEMP interrupt\n");
/* Request for the rtc alarm interrupt. */
sciErr = sc_irq_enable(mu_ipcHandle, SC_R_MU_0A, SC_IRQ_GROUP_RTC,
SC_IRQ_RTC, true);
if (sciErr)
pr_info("Cannot request ALARM_RTC interrupt\n");
pr_info("*****Initialized MU\n");
return scu_mu_id;
}
early_initcall(imx8_mu_init);

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@ -0,0 +1,124 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the RPC implementation.
*/
#ifndef _SC_RPC_H
#define _SC_RPC_H
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/ipc.h>
/* Defines */
#define SC_RPC_VERSION 1
#define SC_RPC_MAX_MSG 8
#define RPC_VER(MSG) ((MSG)->version)
#define RPC_SIZE(MSG) ((MSG)->size)
#define RPC_SVC(MSG) ((MSG)->svc)
#define RPC_FUNC(MSG) ((MSG)->func)
#define RPC_R8(MSG) ((MSG)->func)
#define RPC_I32(MSG, IDX) ((MSG)->DATA.i32[(IDX) / 4])
#define RPC_I16(MSG, IDX) ((MSG)->DATA.i16[(IDX) / 2])
#define RPC_I8(MSG, IDX) ((MSG)->DATA.i8[(IDX)])
#define RPC_U32(MSG, IDX) ((MSG)->DATA.u32[(IDX) / 4])
#define RPC_U16(MSG, IDX) ((MSG)->DATA.u16[(IDX) / 2])
#define RPC_U8(MSG, IDX) ((MSG)->DATA.u8[(IDX)])
/* Types */
typedef enum sc_rpc_svc_e {
SC_RPC_SVC_UNKNOWN = 0,
SC_RPC_SVC_RETURN = 1,
SC_RPC_SVC_PM = 2,
SC_RPC_SVC_RM = 3,
SC_RPC_SVC_TIMER = 5,
SC_RPC_SVC_PAD = 6,
SC_RPC_SVC_MISC = 7,
SC_RPC_SVC_IRQ = 8,
SC_RPC_SVC_ABORT = 9
} sc_rpc_svc_t;
typedef struct sc_rpc_msg_s {
uint8_t version;
uint8_t size;
uint8_t svc;
uint8_t func;
union {
int32_t i32[(SC_RPC_MAX_MSG - 1)];
int16_t i16[(SC_RPC_MAX_MSG - 1) * 2];
int8_t i8[(SC_RPC_MAX_MSG - 1) * 4];
uint32_t u32[(SC_RPC_MAX_MSG - 1)];
uint16_t u16[(SC_RPC_MAX_MSG - 1) * 2];
uint8_t u8[(SC_RPC_MAX_MSG - 1) * 4];
} DATA;
} sc_rpc_msg_t;
typedef enum sc_rpc_async_state_e {
SC_RPC_ASYNC_STATE_RD_START = 0,
SC_RPC_ASYNC_STATE_RD_ACTIVE = 1,
SC_RPC_ASYNC_STATE_RD_DONE = 2,
SC_RPC_ASYNC_STATE_WR_START = 3,
SC_RPC_ASYNC_STATE_WR_ACTIVE = 4,
SC_RPC_ASYNC_STATE_WR_DONE = 5,
} sc_rpc_async_state_t;
typedef struct sc_rpc_async_msg_s {
sc_rpc_async_state_t state;
uint8_t wordIdx;
sc_rpc_msg_t msg;
uint32_t timeStamp;
} sc_rpc_async_msg_t;
/* Functions */
/*!
* This is an internal function to send an RPC message over an IPC
* channel. It is called by client-side SCFW API function shims.
*
* @param[in] ipc IPC handle
* @param[in,out] msg handle to a message
* @param[in] no_resp response flag
*
* If \a no_resp is false then this function waits for a response
* and returns the result in \a msg.
*/
void sc_call_rpc(sc_ipc_t ipc, sc_rpc_msg_t *msg, bool no_resp);
/*!
* This is an internal function to dispath an RPC call that has
* arrived via IPC over an MU. It is called by server-side SCFW.
*
* @param[in] mu MU message arrived on
* @param[in,out] msg handle to a message
*
* The function result is returned in \a msg.
*/
void sc_rpc_dispatch(sc_rsrc_t mu, sc_rpc_msg_t *msg);
/*!
* This function translates an RPC message and forwards on to the
* normal RPC API. It is used only by hypervisors.
*
* @param[in] ipc IPC handle
* @param[in,out] msg handle to a message
*
* This function decodes a message, calls macros to translate the
* resources, pads, addresses, partitions, memory regions, etc. and
* then forwards on to the hypervisors SCFW API.Return results are
* translated back abd placed back into the message to be returned
* to the original API.
*/
void sc_rpc_xlate(sc_ipc_t ipc, sc_rpc_msg_t *msg);
#endif /* _SC_RPC_H */

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the IRQ RPC implementation.
*
* @addtogroup IRQ_SVC
* @{
*/
#ifndef _SC_IRQ_RPC_H
#define _SC_IRQ_RPC_H
/* Includes */
/* Defines */
/* Types */
/*!
* This type is used to indicate RPC IRQ function calls.
*/
typedef enum irq_func_e {
IRQ_FUNC_UNKNOWN = 0, /* Unknown function */
IRQ_FUNC_ENABLE = 1, /* Index for irq_enable() RPC call */
IRQ_FUNC_STATUS = 2, /* Index for irq_status() RPC call */
} irq_func_t;
/* Functions */
/*!
* This function dispatches an incoming IRQ RPC request.
*
* @param[in] caller_pt caller partition
* @param[in] msg pointer to RPC message
*/
void irq_dispatch(sc_rm_pt_t caller_pt, sc_rpc_msg_t *msg);
/*!
* This function translates and dispatches an IRQ RPC request.
*
* @param[in] ipc IPC handle
* @param[in] msg pointer to RPC message
*/
void irq_xlate(sc_ipc_t ipc, sc_rpc_msg_t *msg);
#endif /* _SC_IRQ_RPC_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* File containing client-side RPC functions for the IRQ service. These
* functions are ported to clients that communicate to the SC.
*
* @addtogroup IRQ_SVC
* @{
*/
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
#include <soc/imx8/sc/svc/irq/api.h>
#include "../../main/rpc.h"
#include "rpc.h"
/* Local Defines */
/* Local Types */
/* Local Functions */
sc_err_t sc_irq_enable(sc_ipc_t ipc, sc_rsrc_t resource,
sc_irq_group_t group, uint32_t mask, bool enable)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_IRQ;
RPC_FUNC(&msg) = (uint8_t)IRQ_FUNC_ENABLE;
RPC_U32(&msg, 0) = mask;
RPC_U16(&msg, 4) = resource;
RPC_U8(&msg, 6) = group;
RPC_U8(&msg, 7) = (uint8_t)enable;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_irq_status(sc_ipc_t ipc, sc_rsrc_t resource,
sc_irq_group_t group, uint32_t *status)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_IRQ;
RPC_FUNC(&msg) = (uint8_t)IRQ_FUNC_STATUS;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = group;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (status != NULL) {
*status = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the MISC RPC implementation.
*
* @addtogroup MISC_SVC
* @{
*/
#ifndef _SC_MISC_RPC_H
#define _SC_MISC_RPC_H
/* Includes */
/* Defines */
/* Types */
/*!
* This type is used to indicate RPC MISC function calls.
*/
typedef enum misc_func_e {
MISC_FUNC_UNKNOWN = 0, /* Unknown function */
MISC_FUNC_SET_CONTROL = 1, /* Index for misc_set_control() RPC call */
MISC_FUNC_GET_CONTROL = 2, /* Index for misc_get_control() RPC call */
MISC_FUNC_SET_MAX_DMA_GROUP = 4, /* Index for misc_set_max_dma_group() RPC call */
MISC_FUNC_SET_DMA_GROUP = 5, /* Index for misc_set_dma_group() RPC call */
MISC_FUNC_SECO_IMAGE_LOAD = 8, /* Index for misc_seco_image_load() RPC call */
MISC_FUNC_SECO_AUTHENTICATE = 9, /* Index for misc_seco_authenticate() RPC call */
MISC_FUNC_DEBUG_OUT = 10, /* Index for misc_debug_out() RPC call */
MISC_FUNC_WAVEFORM_CAPTURE = 6, /* Index for misc_waveform_capture() RPC call */
MISC_FUNC_BUILD_INFO = 15, /* Index for misc_build_info() RPC call */
MISC_FUNC_UNIQUE_ID = 19, /* Index for misc_unique_id() RPC call */
MISC_FUNC_SET_ARI = 3, /* Index for misc_set_ari() RPC call */
MISC_FUNC_BOOT_STATUS = 7, /* Index for misc_boot_status() RPC call */
MISC_FUNC_BOOT_DONE = 14, /* Index for misc_boot_done() RPC call */
MISC_FUNC_OTP_FUSE_READ = 11, /* Index for misc_otp_fuse_read() RPC call */
MISC_FUNC_OTP_FUSE_WRITE = 17, /* Index for misc_otp_fuse_write() RPC call */
MISC_FUNC_SET_TEMP = 12, /* Index for misc_set_temp() RPC call */
MISC_FUNC_GET_TEMP = 13, /* Index for misc_get_temp() RPC call */
MISC_FUNC_GET_BOOT_DEV = 16, /* Index for misc_get_boot_dev() RPC call */
MISC_FUNC_GET_BUTTON_STATUS = 18, /* Index for misc_get_button_status() RPC call */
} misc_func_t;
/* Functions */
/*!
* This function dispatches an incoming MISC RPC request.
*
* @param[in] caller_pt caller partition
* @param[in] msg pointer to RPC message
*/
void misc_dispatch(sc_rm_pt_t caller_pt, sc_rpc_msg_t *msg);
/*!
* This function translates and dispatches an MISC RPC request.
*
* @param[in] ipc IPC handle
* @param[in] msg pointer to RPC message
*/
void misc_xlate(sc_ipc_t ipc, sc_rpc_msg_t *msg);
#endif /* _SC_MISC_RPC_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* File containing client-side RPC functions for the MISC service. These
* functions are ported to clients that communicate to the SC.
*
* @addtogroup MISC_SVC
* @{
*/
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
#include <soc/imx8/sc/svc/misc/api.h>
#include "../../main/rpc.h"
#include "rpc.h"
/* Local Defines */
/* Local Types */
/* Local Functions */
sc_err_t sc_misc_set_control(sc_ipc_t ipc, sc_rsrc_t resource,
sc_ctrl_t ctrl, uint32_t val)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_SET_CONTROL;
RPC_U32(&msg, 0) = ctrl;
RPC_U32(&msg, 4) = val;
RPC_U16(&msg, 8) = resource;
RPC_SIZE(&msg) = 4;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_get_control(sc_ipc_t ipc, sc_rsrc_t resource,
sc_ctrl_t ctrl, uint32_t *val)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_GET_CONTROL;
RPC_U32(&msg, 0) = ctrl;
RPC_U16(&msg, 4) = resource;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
if (val != NULL) {
*val = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_set_max_dma_group(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_misc_dma_group_t max)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_SET_MAX_DMA_GROUP;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = max;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_set_dma_group(sc_ipc_t ipc, sc_rsrc_t resource,
sc_misc_dma_group_t group)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_SET_DMA_GROUP;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = group;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_seco_image_load(sc_ipc_t ipc, uint32_t addr_src,
uint32_t addr_dst, uint32_t len, bool fw)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_SECO_IMAGE_LOAD;
RPC_U32(&msg, 0) = addr_src;
RPC_U32(&msg, 4) = addr_dst;
RPC_U32(&msg, 8) = len;
RPC_U8(&msg, 12) = (uint8_t)fw;
RPC_SIZE(&msg) = 5;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_seco_authenticate(sc_ipc_t ipc,
sc_misc_seco_auth_cmd_t cmd,
uint32_t addr_meta)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_SECO_AUTHENTICATE;
RPC_U32(&msg, 0) = addr_meta;
RPC_U8(&msg, 4) = cmd;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
void sc_misc_debug_out(sc_ipc_t ipc, uint8_t ch)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_DEBUG_OUT;
RPC_U8(&msg, 0) = ch;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
return;
}
sc_err_t sc_misc_waveform_capture(sc_ipc_t ipc, bool enable)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_WAVEFORM_CAPTURE;
RPC_U8(&msg, 0) = (uint8_t)enable;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
void sc_misc_build_info(sc_ipc_t ipc, uint32_t *build, uint32_t *commit)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_BUILD_INFO;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
if (build != NULL) {
*build = RPC_U32(&msg, 0);
}
if (commit != NULL) {
*commit = RPC_U32(&msg, 4);
}
return;
}
void sc_misc_unique_id(sc_ipc_t ipc, uint32_t *id_l, uint32_t *id_h)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_UNIQUE_ID;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
if (id_l != NULL) {
*id_l = RPC_U32(&msg, 0);
}
if (id_h != NULL) {
*id_h = RPC_U32(&msg, 4);
}
return;
}
sc_err_t sc_misc_set_ari(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rsrc_t resource_mst, uint16_t ari, bool enable)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_SET_ARI;
RPC_U16(&msg, 0) = resource;
RPC_U16(&msg, 2) = resource_mst;
RPC_U16(&msg, 4) = ari;
RPC_U8(&msg, 6) = (uint8_t)enable;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
void sc_misc_boot_status(sc_ipc_t ipc, sc_misc_boot_status_t status)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_BOOT_STATUS;
RPC_U8(&msg, 0) = status;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, true);
return;
}
sc_err_t sc_misc_boot_done(sc_ipc_t ipc, sc_rsrc_t cpu)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_BOOT_DONE;
RPC_U16(&msg, 0) = cpu;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_otp_fuse_read(sc_ipc_t ipc, uint32_t word, uint32_t *val)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_OTP_FUSE_READ;
RPC_U32(&msg, 0) = word;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (val != NULL) {
*val = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_otp_fuse_write(sc_ipc_t ipc, uint32_t word, uint32_t val)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_OTP_FUSE_WRITE;
RPC_U32(&msg, 0) = word;
RPC_U32(&msg, 4) = val;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_set_temp(sc_ipc_t ipc, sc_rsrc_t resource,
sc_misc_temp_t temp, int16_t celsius, int8_t tenths)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_SET_TEMP;
RPC_U16(&msg, 0) = resource;
RPC_I16(&msg, 2) = celsius;
RPC_U8(&msg, 4) = temp;
RPC_I8(&msg, 5) = tenths;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_misc_get_temp(sc_ipc_t ipc, sc_rsrc_t resource,
sc_misc_temp_t temp, int16_t * celsius,
int8_t * tenths)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_GET_TEMP;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = temp;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (celsius != NULL) {
*celsius = RPC_I16(&msg, 0);
}
result = RPC_R8(&msg);
if (tenths != NULL) {
*tenths = RPC_I8(&msg, 2);
}
return (sc_err_t)result;
}
void sc_misc_get_boot_dev(sc_ipc_t ipc, sc_rsrc_t *dev)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_GET_BOOT_DEV;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
if (dev != NULL) {
*dev = RPC_U16(&msg, 0);
}
return;
}
void sc_misc_get_button_status(sc_ipc_t ipc, bool *status)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_MISC;
RPC_FUNC(&msg) = (uint8_t)MISC_FUNC_GET_BUTTON_STATUS;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
if (status != NULL) {
*status = RPC_U8(&msg, 0);
}
return;
}
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the PAD RPC implementation.
*
* @addtogroup PAD_SVC
* @{
*/
#ifndef _SC_PAD_RPC_H
#define _SC_PAD_RPC_H
/* Includes */
/* Defines */
/* Types */
/*!
* This type is used to indicate RPC PAD function calls.
*/
typedef enum pad_func_e {
PAD_FUNC_UNKNOWN = 0, /* Unknown function */
PAD_FUNC_SET_MUX = 1, /* Index for pad_set_mux() RPC call */
PAD_FUNC_GET_MUX = 6, /* Index for pad_get_mux() RPC call */
PAD_FUNC_SET_GP = 2, /* Index for pad_set_gp() RPC call */
PAD_FUNC_GET_GP = 7, /* Index for pad_get_gp() RPC call */
PAD_FUNC_SET_WAKEUP = 4, /* Index for pad_set_wakeup() RPC call */
PAD_FUNC_GET_WAKEUP = 9, /* Index for pad_get_wakeup() RPC call */
PAD_FUNC_SET_ALL = 5, /* Index for pad_set_all() RPC call */
PAD_FUNC_GET_ALL = 10, /* Index for pad_get_all() RPC call */
PAD_FUNC_SET = 15, /* Index for pad_set() RPC call */
PAD_FUNC_GET = 16, /* Index for pad_get() RPC call */
PAD_FUNC_SET_GP_28FDSOI = 11, /* Index for pad_set_gp_28fdsoi() RPC call */
PAD_FUNC_GET_GP_28FDSOI = 12, /* Index for pad_get_gp_28fdsoi() RPC call */
PAD_FUNC_SET_GP_28FDSOI_HSIC = 3, /* Index for pad_set_gp_28fdsoi_hsic() RPC call */
PAD_FUNC_GET_GP_28FDSOI_HSIC = 8, /* Index for pad_get_gp_28fdsoi_hsic() RPC call */
PAD_FUNC_SET_GP_28FDSOI_COMP = 13, /* Index for pad_set_gp_28fdsoi_comp() RPC call */
PAD_FUNC_GET_GP_28FDSOI_COMP = 14, /* Index for pad_get_gp_28fdsoi_comp() RPC call */
} pad_func_t;
/* Functions */
/*!
* This function dispatches an incoming PAD RPC request.
*
* @param[in] caller_pt caller partition
* @param[in] msg pointer to RPC message
*/
void pad_dispatch(sc_rm_pt_t caller_pt, sc_rpc_msg_t *msg);
/*!
* This function translates and dispatches an PAD RPC request.
*
* @param[in] ipc IPC handle
* @param[in] msg pointer to RPC message
*/
void pad_xlate(sc_ipc_t ipc, sc_rpc_msg_t *msg);
#endif /* _SC_PAD_RPC_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* File containing client-side RPC functions for the PAD service. These
* functions are ported to clients that communicate to the SC.
*
* @addtogroup PAD_SVC
* @{
*/
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
#include <soc/imx8/sc/svc/pad/api.h>
#include "../../main/rpc.h"
#include "rpc.h"
/* Local Defines */
/* Local Types */
/* Local Functions */
sc_err_t sc_pad_set_mux(sc_ipc_t ipc, sc_pad_t pad,
uint8_t mux, sc_pad_config_t config, sc_pad_iso_t iso)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET_MUX;
RPC_U16(&msg, 0) = pad;
RPC_U8(&msg, 2) = mux;
RPC_U8(&msg, 3) = config;
RPC_U8(&msg, 4) = iso;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get_mux(sc_ipc_t ipc, sc_pad_t pad,
uint8_t *mux, sc_pad_config_t *config,
sc_pad_iso_t *iso)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET_MUX;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (mux != NULL) {
*mux = RPC_U8(&msg, 0);
}
if (config != NULL) {
*config = RPC_U8(&msg, 1);
}
if (iso != NULL) {
*iso = RPC_U8(&msg, 2);
}
return (sc_err_t)result;
}
sc_err_t sc_pad_set_gp(sc_ipc_t ipc, sc_pad_t pad, uint32_t ctrl)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET_GP;
RPC_U32(&msg, 0) = ctrl;
RPC_U16(&msg, 4) = pad;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get_gp(sc_ipc_t ipc, sc_pad_t pad, uint32_t *ctrl)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET_GP;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (ctrl != NULL) {
*ctrl = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_set_wakeup(sc_ipc_t ipc, sc_pad_t pad, sc_pad_wakeup_t wakeup)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET_WAKEUP;
RPC_U16(&msg, 0) = pad;
RPC_U8(&msg, 2) = wakeup;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get_wakeup(sc_ipc_t ipc, sc_pad_t pad, sc_pad_wakeup_t *wakeup)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET_WAKEUP;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (wakeup != NULL) {
*wakeup = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_pad_set_all(sc_ipc_t ipc, sc_pad_t pad, uint8_t mux,
sc_pad_config_t config, sc_pad_iso_t iso, uint32_t ctrl,
sc_pad_wakeup_t wakeup)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET_ALL;
RPC_U32(&msg, 0) = ctrl;
RPC_U16(&msg, 4) = pad;
RPC_U8(&msg, 6) = mux;
RPC_U8(&msg, 7) = config;
RPC_U8(&msg, 8) = iso;
RPC_U8(&msg, 9) = wakeup;
RPC_SIZE(&msg) = 4;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get_all(sc_ipc_t ipc, sc_pad_t pad, uint8_t *mux,
sc_pad_config_t *config, sc_pad_iso_t *iso,
uint32_t *ctrl, sc_pad_wakeup_t *wakeup)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET_ALL;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (ctrl != NULL) {
*ctrl = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
if (mux != NULL) {
*mux = RPC_U8(&msg, 4);
}
if (config != NULL) {
*config = RPC_U8(&msg, 5);
}
if (iso != NULL) {
*iso = RPC_U8(&msg, 6);
}
if (wakeup != NULL) {
*wakeup = RPC_U8(&msg, 7);
}
return (sc_err_t)result;
}
sc_err_t sc_pad_set(sc_ipc_t ipc, sc_pad_t pad, uint32_t val)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET;
RPC_U32(&msg, 0) = val;
RPC_U16(&msg, 4) = pad;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get(sc_ipc_t ipc, sc_pad_t pad, uint32_t *val)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (val != NULL) {
*val = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_set_gp_28fdsoi(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t dse, sc_pad_28fdsoi_ps_t ps)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET_GP_28FDSOI;
RPC_U16(&msg, 0) = pad;
RPC_U8(&msg, 2) = dse;
RPC_U8(&msg, 3) = ps;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get_gp_28fdsoi(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t *dse,
sc_pad_28fdsoi_ps_t *ps)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET_GP_28FDSOI;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (dse != NULL) {
*dse = RPC_U8(&msg, 0);
}
if (ps != NULL) {
*ps = RPC_U8(&msg, 1);
}
return (sc_err_t)result;
}
sc_err_t sc_pad_set_gp_28fdsoi_hsic(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t dse, bool hys,
sc_pad_28fdsoi_pus_t pus, bool pke,
bool pue)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET_GP_28FDSOI_HSIC;
RPC_U16(&msg, 0) = pad;
RPC_U8(&msg, 2) = dse;
RPC_U8(&msg, 3) = pus;
RPC_U8(&msg, 4) = (uint8_t)hys;
RPC_U8(&msg, 5) = (uint8_t)pke;
RPC_U8(&msg, 6) = (uint8_t)pue;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get_gp_28fdsoi_hsic(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t *dse, bool *hys,
sc_pad_28fdsoi_pus_t *pus, bool *pke,
bool *pue)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET_GP_28FDSOI_HSIC;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (dse != NULL) {
*dse = RPC_U8(&msg, 0);
}
if (pus != NULL) {
*pus = RPC_U8(&msg, 1);
}
if (hys != NULL) {
*hys = RPC_U8(&msg, 2);
}
if (pke != NULL) {
*pke = RPC_U8(&msg, 3);
}
if (pue != NULL) {
*pue = RPC_U8(&msg, 4);
}
return (sc_err_t)result;
}
sc_err_t sc_pad_set_gp_28fdsoi_comp(sc_ipc_t ipc, sc_pad_t pad,
uint8_t compen, bool fastfrz,
uint8_t rasrcp, uint8_t rasrcn,
bool nasrc_sel, bool psw_ovr)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_SET_GP_28FDSOI_COMP;
RPC_U16(&msg, 0) = pad;
RPC_U8(&msg, 2) = compen;
RPC_U8(&msg, 3) = rasrcp;
RPC_U8(&msg, 4) = rasrcn;
RPC_U8(&msg, 5) = (uint8_t)fastfrz;
RPC_U8(&msg, 6) = (uint8_t)nasrc_sel;
RPC_U8(&msg, 7) = (uint8_t)psw_ovr;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pad_get_gp_28fdsoi_comp(sc_ipc_t ipc, sc_pad_t pad,
uint8_t *compen, bool *fastfrz,
uint8_t *rasrcp, uint8_t *rasrcn,
bool *nasrc_sel, bool *compok,
uint8_t *nasrc, bool *psw_ovr)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PAD;
RPC_FUNC(&msg) = (uint8_t)PAD_FUNC_GET_GP_28FDSOI_COMP;
RPC_U16(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (compen != NULL) {
*compen = RPC_U8(&msg, 0);
}
if (rasrcp != NULL) {
*rasrcp = RPC_U8(&msg, 1);
}
if (rasrcn != NULL) {
*rasrcn = RPC_U8(&msg, 2);
}
if (nasrc != NULL) {
*nasrc = RPC_U8(&msg, 3);
}
if (fastfrz != NULL) {
*fastfrz = RPC_U8(&msg, 4);
}
if (nasrc_sel != NULL) {
*nasrc_sel = RPC_U8(&msg, 5);
}
if (compok != NULL) {
*compok = RPC_U8(&msg, 6);
}
if (psw_ovr != NULL) {
*psw_ovr = RPC_U8(&msg, 7);
}
return (sc_err_t)result;
}
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the PM RPC implementation.
*
* @addtogroup PM_SVC
* @{
*/
#ifndef _SC_PM_RPC_H
#define _SC_PM_RPC_H
/* Includes */
/* Defines */
/* Types */
/*!
* This type is used to indicate RPC PM function calls.
*/
typedef enum pm_func_e {
PM_FUNC_UNKNOWN = 0, /* Unknown function */
PM_FUNC_SET_SYS_POWER_MODE = 19, /* Index for pm_set_sys_power_mode() RPC call */
PM_FUNC_SET_PARTITION_POWER_MODE = 1, /* Index for pm_set_partition_power_mode() RPC call */
PM_FUNC_GET_SYS_POWER_MODE = 2, /* Index for pm_get_sys_power_mode() RPC call */
PM_FUNC_SET_RESOURCE_POWER_MODE = 3, /* Index for pm_set_resource_power_mode() RPC call */
PM_FUNC_GET_RESOURCE_POWER_MODE = 4, /* Index for pm_get_resource_power_mode() RPC call */
PM_FUNC_REQ_LOW_POWER_MODE = 16, /* Index for pm_req_low_power_mode() RPC call */
PM_FUNC_SET_CPU_RESUME_ADDR = 17, /* Index for pm_set_cpu_resume_addr() RPC call */
PM_FUNC_REQ_SYS_IF_POWER_MODE = 18, /* Index for pm_req_sys_if_power_mode() RPC call */
PM_FUNC_SET_CLOCK_RATE = 5, /* Index for pm_set_clock_rate() RPC call */
PM_FUNC_GET_CLOCK_RATE = 6, /* Index for pm_get_clock_rate() RPC call */
PM_FUNC_CLOCK_ENABLE = 7, /* Index for pm_clock_enable() RPC call */
PM_FUNC_SET_CLOCK_PARENT = 14, /* Index for pm_set_clock_parent() RPC call */
PM_FUNC_GET_CLOCK_PARENT = 15, /* Index for pm_get_clock_parent() RPC call */
PM_FUNC_RESET = 13, /* Index for pm_reset() RPC call */
PM_FUNC_RESET_REASON = 10, /* Index for pm_reset_reason() RPC call */
PM_FUNC_BOOT = 8, /* Index for pm_boot() RPC call */
PM_FUNC_REBOOT = 9, /* Index for pm_reboot() RPC call */
PM_FUNC_REBOOT_PARTITION = 12, /* Index for pm_reboot_partition() RPC call */
PM_FUNC_CPU_START = 11, /* Index for pm_cpu_start() RPC call */
} pm_func_t;
/* Functions */
/*!
* This function dispatches an incoming PM RPC request.
*
* @param[in] caller_pt caller partition
* @param[in] msg pointer to RPC message
*/
void pm_dispatch(sc_rm_pt_t caller_pt, sc_rpc_msg_t *msg);
/*!
* This function translates and dispatches an PM RPC request.
*
* @param[in] ipc IPC handle
* @param[in] msg pointer to RPC message
*/
void pm_xlate(sc_ipc_t ipc, sc_rpc_msg_t *msg);
#endif /* _SC_PM_RPC_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* File containing client-side RPC functions for the PM service. These
* functions are ported to clients that communicate to the SC.
*
* @addtogroup PM_SVC
* @{
*/
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
#include <soc/imx8/sc/svc/pm/api.h>
#include "../../main/rpc.h"
#include "rpc.h"
/* Local Defines */
/* Local Types */
/* Local Functions */
sc_err_t sc_pm_set_sys_power_mode(sc_ipc_t ipc, sc_pm_power_mode_t mode)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_SET_SYS_POWER_MODE;
RPC_U8(&msg, 0) = mode;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_set_partition_power_mode(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_pm_power_mode_t mode)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_SET_PARTITION_POWER_MODE;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = mode;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_get_sys_power_mode(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_pm_power_mode_t *mode)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_GET_SYS_POWER_MODE;
RPC_U8(&msg, 0) = pt;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (mode != NULL) {
*mode = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_pm_set_resource_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_power_mode_t mode)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_SET_RESOURCE_POWER_MODE;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = mode;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_get_resource_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_power_mode_t *mode)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_GET_RESOURCE_POWER_MODE;
RPC_U16(&msg, 0) = resource;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (mode != NULL) {
*mode = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_pm_req_low_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_power_mode_t mode)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_REQ_LOW_POWER_MODE;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = mode;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_set_cpu_resume_addr(sc_ipc_t ipc, sc_rsrc_t resource,
sc_faddr_t address)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_SET_CPU_RESUME_ADDR;
RPC_U32(&msg, 0) = (uint32_t)(address >> 32u);
RPC_U32(&msg, 4) = (uint32_t)address;
RPC_U16(&msg, 8) = resource;
RPC_SIZE(&msg) = 4;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_req_sys_if_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_sys_if_t sys_if,
sc_pm_power_mode_t hpm,
sc_pm_power_mode_t lpm)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_REQ_SYS_IF_POWER_MODE;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = sys_if;
RPC_U8(&msg, 3) = hpm;
RPC_U8(&msg, 4) = lpm;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_set_clock_rate(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clock_rate_t *rate)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_SET_CLOCK_RATE;
RPC_U32(&msg, 0) = *rate;
RPC_U16(&msg, 4) = resource;
RPC_U8(&msg, 6) = clk;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
*rate = RPC_U32(&msg, 0);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_get_clock_rate(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clock_rate_t *rate)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_GET_CLOCK_RATE;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = clk;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (rate != NULL) {
*rate = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_clock_enable(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, bool enable, bool autog)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_CLOCK_ENABLE;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = clk;
RPC_U8(&msg, 3) = (uint8_t)enable;
RPC_U8(&msg, 4) = (uint8_t)autog;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_set_clock_parent(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clk_parent_t parent)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_SET_CLOCK_PARENT;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = clk;
RPC_U8(&msg, 3) = parent;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_get_clock_parent(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clk_parent_t * parent)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_GET_CLOCK_PARENT;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = clk;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (parent != NULL) {
*parent = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_pm_reset(sc_ipc_t ipc, sc_pm_reset_type_t type)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_RESET;
RPC_U8(&msg, 0) = type;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_reset_reason(sc_ipc_t ipc, sc_pm_reset_reason_t *reason)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_RESET_REASON;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (reason != NULL) {
*reason = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_pm_boot(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_rsrc_t resource_cpu, sc_faddr_t boot_addr,
sc_rsrc_t resource_mu, sc_rsrc_t resource_dev)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_BOOT;
RPC_U32(&msg, 0) = (uint32_t)(boot_addr >> 32u);
RPC_U32(&msg, 4) = (uint32_t)boot_addr;
RPC_U16(&msg, 8) = resource_cpu;
RPC_U16(&msg, 10) = resource_mu;
RPC_U16(&msg, 12) = resource_dev;
RPC_U8(&msg, 14) = pt;
RPC_SIZE(&msg) = 5;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
void sc_pm_reboot(sc_ipc_t ipc, sc_pm_reset_type_t type)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_REBOOT;
RPC_U8(&msg, 0) = type;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, true);
return;
}
sc_err_t sc_pm_reboot_partition(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_pm_reset_type_t type)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_REBOOT_PARTITION;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = type;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_pm_cpu_start(sc_ipc_t ipc, sc_rsrc_t resource, bool enable,
sc_faddr_t address)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_PM;
RPC_FUNC(&msg) = (uint8_t)PM_FUNC_CPU_START;
RPC_U32(&msg, 0) = (uint32_t)(address >> 32u);
RPC_U32(&msg, 4) = (uint32_t)address;
RPC_U16(&msg, 8) = resource;
RPC_U8(&msg, 10) = (uint8_t)enable;
RPC_SIZE(&msg) = 4;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the RM RPC implementation.
*
* @addtogroup RM_SVC
* @{
*/
#ifndef _SC_RM_RPC_H
#define _SC_RM_RPC_H
/* Includes */
/* Defines */
/* Types */
/*!
* This type is used to indicate RPC RM function calls.
*/
typedef enum rm_func_e {
RM_FUNC_UNKNOWN = 0, /* Unknown function */
RM_FUNC_PARTITION_ALLOC = 1, /* Index for rm_partition_alloc() RPC call */
RM_FUNC_SET_CONFIDENTIAL = 31, /* Index for rm_set_confidential() RPC call */
RM_FUNC_PARTITION_FREE = 2, /* Index for rm_partition_free() RPC call */
RM_FUNC_GET_DID = 26, /* Index for rm_get_did() RPC call */
RM_FUNC_PARTITION_STATIC = 3, /* Index for rm_partition_static() RPC call */
RM_FUNC_PARTITION_LOCK = 4, /* Index for rm_partition_lock() RPC call */
RM_FUNC_GET_PARTITION = 5, /* Index for rm_get_partition() RPC call */
RM_FUNC_SET_PARENT = 6, /* Index for rm_set_parent() RPC call */
RM_FUNC_MOVE_ALL = 7, /* Index for rm_move_all() RPC call */
RM_FUNC_ASSIGN_RESOURCE = 8, /* Index for rm_assign_resource() RPC call */
RM_FUNC_SET_RESOURCE_MOVABLE = 9, /* Index for rm_set_resource_movable() RPC call */
RM_FUNC_SET_SUBSYS_RSRC_MOVABLE = 28, /* Index for rm_set_subsys_rsrc_movable() RPC call */
RM_FUNC_SET_MASTER_ATTRIBUTES = 10, /* Index for rm_set_master_attributes() RPC call */
RM_FUNC_SET_MASTER_SID = 11, /* Index for rm_set_master_sid() RPC call */
RM_FUNC_SET_PERIPHERAL_PERMISSIONS = 12, /* Index for rm_set_peripheral_permissions() RPC call */
RM_FUNC_IS_RESOURCE_OWNED = 13, /* Index for rm_is_resource_owned() RPC call */
RM_FUNC_IS_RESOURCE_MASTER = 14, /* Index for rm_is_resource_master() RPC call */
RM_FUNC_IS_RESOURCE_PERIPHERAL = 15, /* Index for rm_is_resource_peripheral() RPC call */
RM_FUNC_GET_RESOURCE_INFO = 16, /* Index for rm_get_resource_info() RPC call */
RM_FUNC_MEMREG_ALLOC = 17, /* Index for rm_memreg_alloc() RPC call */
RM_FUNC_MEMREG_SPLIT = 29, /* Index for rm_memreg_split() RPC call */
RM_FUNC_MEMREG_FREE = 18, /* Index for rm_memreg_free() RPC call */
RM_FUNC_FIND_MEMREG = 30, /* Index for rm_find_memreg() RPC call */
RM_FUNC_ASSIGN_MEMREG = 19, /* Index for rm_assign_memreg() RPC call */
RM_FUNC_SET_MEMREG_PERMISSIONS = 20, /* Index for rm_set_memreg_permissions() RPC call */
RM_FUNC_IS_MEMREG_OWNED = 21, /* Index for rm_is_memreg_owned() RPC call */
RM_FUNC_GET_MEMREG_INFO = 22, /* Index for rm_get_memreg_info() RPC call */
RM_FUNC_ASSIGN_PAD = 23, /* Index for rm_assign_pad() RPC call */
RM_FUNC_SET_PAD_MOVABLE = 24, /* Index for rm_set_pad_movable() RPC call */
RM_FUNC_IS_PAD_OWNED = 25, /* Index for rm_is_pad_owned() RPC call */
RM_FUNC_DUMP = 27, /* Index for rm_dump() RPC call */
} rm_func_t;
/* Functions */
/*!
* This function dispatches an incoming RM RPC request.
*
* @param[in] caller_pt caller partition
* @param[in] msg pointer to RPC message
*/
void rm_dispatch(sc_rm_pt_t caller_pt, sc_rpc_msg_t *msg);
/*!
* This function translates and dispatches an RM RPC request.
*
* @param[in] ipc IPC handle
* @param[in] msg pointer to RPC message
*/
void rm_xlate(sc_ipc_t ipc, sc_rpc_msg_t *msg);
#endif /* _SC_RM_RPC_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* File containing client-side RPC functions for the RM service. These
* functions are ported to clients that communicate to the SC.
*
* @addtogroup RM_SVC
* @{
*/
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
#include "../../main/rpc.h"
#include "rpc.h"
/* Local Defines */
/* Local Types */
/* Local Functions */
sc_err_t sc_rm_partition_alloc(sc_ipc_t ipc, sc_rm_pt_t *pt, bool secure,
bool isolated, bool restricted, bool grant,
bool coherent)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_PARTITION_ALLOC;
RPC_U8(&msg, 0) = (uint8_t)secure;
RPC_U8(&msg, 1) = (uint8_t)isolated;
RPC_U8(&msg, 2) = (uint8_t)restricted;
RPC_U8(&msg, 3) = (uint8_t)grant;
RPC_U8(&msg, 4) = (uint8_t)coherent;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (pt != NULL) {
*pt = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_rm_set_confidential(sc_ipc_t ipc, sc_rm_pt_t pt, bool retro)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_CONFIDENTIAL;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = (uint8_t)retro;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_partition_free(sc_ipc_t ipc, sc_rm_pt_t pt)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_PARTITION_FREE;
RPC_U8(&msg, 0) = pt;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_rm_did_t sc_rm_get_did(sc_ipc_t ipc)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_GET_DID;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_rm_did_t) result;
}
sc_err_t sc_rm_partition_static(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rm_did_t did)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_PARTITION_STATIC;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = did;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_partition_lock(sc_ipc_t ipc, sc_rm_pt_t pt)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_PARTITION_LOCK;
RPC_U8(&msg, 0) = pt;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_get_partition(sc_ipc_t ipc, sc_rm_pt_t *pt)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_GET_PARTITION;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (pt != NULL) {
*pt = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_rm_set_parent(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rm_pt_t pt_parent)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_PARENT;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = pt_parent;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_move_all(sc_ipc_t ipc, sc_rm_pt_t pt_src, sc_rm_pt_t pt_dst,
bool move_rsrc, bool move_pads)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_MOVE_ALL;
RPC_U8(&msg, 0) = pt_src;
RPC_U8(&msg, 1) = pt_dst;
RPC_U8(&msg, 2) = (uint8_t)move_rsrc;
RPC_U8(&msg, 3) = (uint8_t)move_pads;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_assign_resource(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rsrc_t resource)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_ASSIGN_RESOURCE;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = pt;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_set_resource_movable(sc_ipc_t ipc, sc_rsrc_t resource_fst,
sc_rsrc_t resource_lst, bool movable)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_RESOURCE_MOVABLE;
RPC_U16(&msg, 0) = resource_fst;
RPC_U16(&msg, 2) = resource_lst;
RPC_U8(&msg, 4) = (uint8_t)movable;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_set_subsys_rsrc_movable(sc_ipc_t ipc, sc_rsrc_t resource,
bool movable)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_SUBSYS_RSRC_MOVABLE;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = (uint8_t)movable;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_set_master_attributes(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rm_spa_t sa, sc_rm_spa_t pa,
bool smmu_bypass)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_MASTER_ATTRIBUTES;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = sa;
RPC_U8(&msg, 3) = pa;
RPC_U8(&msg, 4) = (uint8_t)smmu_bypass;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_set_master_sid(sc_ipc_t ipc, sc_rsrc_t resource, sc_rm_sid_t sid)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_MASTER_SID;
RPC_U16(&msg, 0) = resource;
RPC_U16(&msg, 2) = sid;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_set_peripheral_permissions(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rm_pt_t pt, sc_rm_perm_t perm)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_PERIPHERAL_PERMISSIONS;
RPC_U16(&msg, 0) = resource;
RPC_U8(&msg, 2) = pt;
RPC_U8(&msg, 3) = perm;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
bool sc_rm_is_resource_owned(sc_ipc_t ipc, sc_rsrc_t resource)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_IS_RESOURCE_OWNED;
RPC_U16(&msg, 0) = resource;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (bool)result;
}
bool sc_rm_is_resource_master(sc_ipc_t ipc, sc_rsrc_t resource)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_IS_RESOURCE_MASTER;
RPC_U16(&msg, 0) = resource;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (bool)result;
}
bool sc_rm_is_resource_peripheral(sc_ipc_t ipc, sc_rsrc_t resource)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_IS_RESOURCE_PERIPHERAL;
RPC_U16(&msg, 0) = resource;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (bool)result;
}
sc_err_t sc_rm_get_resource_info(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rm_sid_t *sid)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_GET_RESOURCE_INFO;
RPC_U16(&msg, 0) = resource;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (sid != NULL) {
*sid = RPC_U16(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_memreg_alloc(sc_ipc_t ipc, sc_rm_mr_t *mr,
sc_faddr_t addr_start, sc_faddr_t addr_end)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_MEMREG_ALLOC;
RPC_U32(&msg, 0) = (uint32_t)(addr_start >> 32u);
RPC_U32(&msg, 4) = (uint32_t)addr_start;
RPC_U32(&msg, 8) = (uint32_t)(addr_end >> 32u);
RPC_U32(&msg, 12) = (uint32_t)addr_end;
RPC_SIZE(&msg) = 5;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (mr != NULL) {
*mr = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_rm_memreg_split(sc_ipc_t ipc, sc_rm_mr_t mr,
sc_rm_mr_t *mr_ret, sc_faddr_t addr_start,
sc_faddr_t addr_end)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_MEMREG_SPLIT;
RPC_U32(&msg, 0) = (uint32_t)(addr_start >> 32u);
RPC_U32(&msg, 4) = (uint32_t)addr_start;
RPC_U32(&msg, 8) = (uint32_t)(addr_end >> 32u);
RPC_U32(&msg, 12) = (uint32_t)addr_end;
RPC_U8(&msg, 16) = mr;
RPC_SIZE(&msg) = 6;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (mr_ret != NULL) {
*mr_ret = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_rm_memreg_free(sc_ipc_t ipc, sc_rm_mr_t mr)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_MEMREG_FREE;
RPC_U8(&msg, 0) = mr;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_find_memreg(sc_ipc_t ipc, sc_rm_mr_t *mr,
sc_faddr_t addr_start, sc_faddr_t addr_end)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_FIND_MEMREG;
RPC_U32(&msg, 0) = (uint32_t)(addr_start >> 32u);
RPC_U32(&msg, 4) = (uint32_t)addr_start;
RPC_U32(&msg, 8) = (uint32_t)(addr_end >> 32u);
RPC_U32(&msg, 12) = (uint32_t)addr_end;
RPC_SIZE(&msg) = 5;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
if (mr != NULL) {
*mr = RPC_U8(&msg, 0);
}
return (sc_err_t)result;
}
sc_err_t sc_rm_assign_memreg(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rm_mr_t mr)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_ASSIGN_MEMREG;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = mr;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_set_memreg_permissions(sc_ipc_t ipc, sc_rm_mr_t mr,
sc_rm_pt_t pt, sc_rm_perm_t perm)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_MEMREG_PERMISSIONS;
RPC_U8(&msg, 0) = mr;
RPC_U8(&msg, 1) = pt;
RPC_U8(&msg, 2) = perm;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
bool sc_rm_is_memreg_owned(sc_ipc_t ipc, sc_rm_mr_t mr)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_IS_MEMREG_OWNED;
RPC_U8(&msg, 0) = mr;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (bool)result;
}
sc_err_t sc_rm_get_memreg_info(sc_ipc_t ipc, sc_rm_mr_t mr,
sc_faddr_t *addr_start, sc_faddr_t *addr_end)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_GET_MEMREG_INFO;
RPC_U8(&msg, 0) = mr;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (addr_start != NULL) {
*addr_start =
((uint64_t) RPC_U32(&msg, 0) << 32u) | RPC_U32(&msg, 4);
}
if (addr_end != NULL) {
*addr_end =
((uint64_t) RPC_U32(&msg, 8) << 32u) | RPC_U32(&msg, 12);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_assign_pad(sc_ipc_t ipc, sc_rm_pt_t pt, sc_pad_t pad)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_ASSIGN_PAD;
RPC_U16(&msg, 0) = pad;
RPC_U8(&msg, 2) = pt;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_rm_set_pad_movable(sc_ipc_t ipc, sc_pad_t pad_fst,
sc_pad_t pad_lst, bool movable)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_SET_PAD_MOVABLE;
RPC_U16(&msg, 0) = pad_fst;
RPC_U16(&msg, 2) = pad_lst;
RPC_U8(&msg, 4) = (uint8_t)movable;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
bool sc_rm_is_pad_owned(sc_ipc_t ipc, sc_pad_t pad)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_IS_PAD_OWNED;
RPC_U8(&msg, 0) = pad;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (bool)result;
}
void sc_rm_dump(sc_ipc_t ipc)
{
sc_rpc_msg_t msg;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_RM;
RPC_FUNC(&msg) = (uint8_t)RM_FUNC_DUMP;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
return;
}
/**@}*/

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@ -0,0 +1,64 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the TIMER RPC implementation.
*
* @addtogroup TIMER_SVC
* @{
*/
#ifndef _SC_TIMER_RPC_H
#define _SC_TIMER_RPC_H
/* Includes */
/* Defines */
/* Types */
/*!
* This type is used to indicate RPC TIMER function calls.
*/
typedef enum timer_func_e {
TIMER_FUNC_UNKNOWN = 0, /* Unknown function */
TIMER_FUNC_SET_WDOG_TIMEOUT = 1, /* Index for timer_set_wdog_timeout() RPC call */
TIMER_FUNC_SET_WDOG_PRE_TIMEOUT = 12, /* Index for timer_set_wdog_pre_timeout() RPC call */
TIMER_FUNC_START_WDOG = 2, /* Index for timer_start_wdog() RPC call */
TIMER_FUNC_STOP_WDOG = 3, /* Index for timer_stop_wdog() RPC call */
TIMER_FUNC_PING_WDOG = 4, /* Index for timer_ping_wdog() RPC call */
TIMER_FUNC_GET_WDOG_STATUS = 5, /* Index for timer_get_wdog_status() RPC call */
TIMER_FUNC_PT_GET_WDOG_STATUS = 13, /* Index for timer_pt_get_wdog_status() RPC call */
TIMER_FUNC_SET_WDOG_ACTION = 10, /* Index for timer_set_wdog_action() RPC call */
TIMER_FUNC_SET_RTC_TIME = 6, /* Index for timer_set_rtc_time() RPC call */
TIMER_FUNC_GET_RTC_TIME = 7, /* Index for timer_get_rtc_time() RPC call */
TIMER_FUNC_GET_RTC_SEC1970 = 9, /* Index for timer_get_rtc_sec1970() RPC call */
TIMER_FUNC_SET_RTC_ALARM = 8, /* Index for timer_set_rtc_alarm() RPC call */
TIMER_FUNC_SET_RTC_CALB = 11, /* Index for timer_set_rtc_calb() RPC call */
} timer_func_t;
/* Functions */
/*!
* This function dispatches an incoming TIMER RPC request.
*
* @param[in] caller_pt caller partition
* @param[in] msg pointer to RPC message
*/
void timer_dispatch(sc_rm_pt_t caller_pt, sc_rpc_msg_t *msg);
/*!
* This function translates and dispatches an TIMER RPC request.
*
* @param[in] ipc IPC handle
* @param[in] msg pointer to RPC message
*/
void timer_xlate(sc_ipc_t ipc, sc_rpc_msg_t *msg);
#endif /* _SC_TIMER_RPC_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* File containing client-side RPC functions for the TIMER service. These
* functions are ported to clients that communicate to the SC.
*
* @addtogroup TIMER_SVC
* @{
*/
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
#include <soc/imx8/sc/svc/timer/api.h>
#include "../../main/rpc.h"
#include "rpc.h"
/* Local Defines */
/* Local Types */
/* Local Functions */
sc_err_t sc_timer_set_wdog_timeout(sc_ipc_t ipc, sc_timer_wdog_time_t timeout)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_SET_WDOG_TIMEOUT;
RPC_U32(&msg, 0) = timeout;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_set_wdog_pre_timeout(sc_ipc_t ipc,
sc_timer_wdog_time_t pre_timeout)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_SET_WDOG_PRE_TIMEOUT;
RPC_U32(&msg, 0) = pre_timeout;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_start_wdog(sc_ipc_t ipc, bool lock)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_START_WDOG;
RPC_U8(&msg, 0) = (uint8_t)lock;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_stop_wdog(sc_ipc_t ipc)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_STOP_WDOG;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_ping_wdog(sc_ipc_t ipc)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_PING_WDOG;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_get_wdog_status(sc_ipc_t ipc,
sc_timer_wdog_time_t *timeout,
sc_timer_wdog_time_t *max_timeout,
sc_timer_wdog_time_t *remaining_time)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_GET_WDOG_STATUS;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
if (timeout != NULL) {
*timeout = RPC_U32(&msg, 0);
}
if (max_timeout != NULL) {
*max_timeout = RPC_U32(&msg, 4);
}
if (remaining_time != NULL) {
*remaining_time = RPC_U32(&msg, 8);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_pt_get_wdog_status(sc_ipc_t ipc, sc_rm_pt_t pt, bool *enb,
sc_timer_wdog_time_t *timeout,
sc_timer_wdog_time_t *remaining_time)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_PT_GET_WDOG_STATUS;
RPC_U8(&msg, 0) = pt;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
if (timeout != NULL) {
*timeout = RPC_U32(&msg, 0);
}
if (remaining_time != NULL) {
*remaining_time = RPC_U32(&msg, 4);
}
result = RPC_R8(&msg);
if (enb != NULL) {
*enb = RPC_U8(&msg, 8);
}
return (sc_err_t)result;
}
sc_err_t sc_timer_set_wdog_action(sc_ipc_t ipc,
sc_rm_pt_t pt, sc_timer_wdog_action_t action)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_SET_WDOG_ACTION;
RPC_U8(&msg, 0) = pt;
RPC_U8(&msg, 1) = action;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_set_rtc_time(sc_ipc_t ipc, uint16_t year, uint8_t mon,
uint8_t day, uint8_t hour, uint8_t min,
uint8_t sec)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_SET_RTC_TIME;
RPC_U16(&msg, 0) = year;
RPC_U8(&msg, 2) = mon;
RPC_U8(&msg, 3) = day;
RPC_U8(&msg, 4) = hour;
RPC_U8(&msg, 5) = min;
RPC_U8(&msg, 6) = sec;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_get_rtc_time(sc_ipc_t ipc, uint16_t *year, uint8_t *mon,
uint8_t *day, uint8_t *hour, uint8_t *min,
uint8_t *sec)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_GET_RTC_TIME;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
if (year != NULL) {
*year = RPC_U16(&msg, 0);
}
result = RPC_R8(&msg);
if (mon != NULL) {
*mon = RPC_U8(&msg, 2);
}
if (day != NULL) {
*day = RPC_U8(&msg, 3);
}
if (hour != NULL) {
*hour = RPC_U8(&msg, 4);
}
if (min != NULL) {
*min = RPC_U8(&msg, 5);
}
if (sec != NULL) {
*sec = RPC_U8(&msg, 6);
}
return (sc_err_t)result;
}
sc_err_t sc_timer_get_rtc_sec1970(sc_ipc_t ipc, uint32_t *sec)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_GET_RTC_SEC1970;
RPC_SIZE(&msg) = 1;
sc_call_rpc(ipc, &msg, false);
if (sec != NULL) {
*sec = RPC_U32(&msg, 0);
}
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_set_rtc_alarm(sc_ipc_t ipc, uint16_t year, uint8_t mon,
uint8_t day, uint8_t hour, uint8_t min,
uint8_t sec)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_SET_RTC_ALARM;
RPC_U16(&msg, 0) = year;
RPC_U8(&msg, 2) = mon;
RPC_U8(&msg, 3) = day;
RPC_U8(&msg, 4) = hour;
RPC_U8(&msg, 5) = min;
RPC_U8(&msg, 6) = sec;
RPC_SIZE(&msg) = 3;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
sc_err_t sc_timer_set_rtc_calb(sc_ipc_t ipc, int8_t count)
{
sc_rpc_msg_t msg;
uint8_t result;
RPC_VER(&msg) = SC_RPC_VERSION;
RPC_SVC(&msg) = (uint8_t)SC_RPC_SVC_TIMER;
RPC_FUNC(&msg) = (uint8_t)TIMER_FUNC_SET_RTC_CALB;
RPC_I8(&msg, 0) = count;
RPC_SIZE(&msg) = 2;
sc_call_rpc(ipc, &msg, false);
result = RPC_R8(&msg);
return (sc_err_t)result;
}
/**@}*/

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@ -43,6 +43,8 @@
#include <linux/mutex.h>
#include <linux/poll.h>
#define VIRTIO_RPMSG_F_NS 0
#define RPMSG_ADDR_ANY 0xFFFFFFFF
struct rpmsg_device;

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version 2
* of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*/
/*!
* @file devices/MX8/include/fsl_bitaccess.h
*
* Header file containing register access macros.
*
* \addtogroup Peripheral_access_layer (HAL) Device Peripheral Access Layer
*
* @{
*/
#ifndef _FSL_BITACCESS_H
#define _FSL_BITACCESS_H 1
/*!
* @addtogroup SCF Register Access Macros
* @{
*/
/*
* Macros for single instance registers
*/
#define BF_SET(reg, field) HW_##reg##_SET(BM_##reg##_##field)
#define BF_CLR(reg, field) HW_##reg##_CLR(BM_##reg##_##field)
#define BF_TOG(reg, field) HW_##reg##_TOG(BM_##reg##_##field)
#define BF_SETV(reg, field, v) HW_##reg##_SET(BF_##reg##_##field(v))
#define BF_CLRV(reg, field, v) HW_##reg##_CLR(BF_##reg##_##field(v))
#define BF_TOGV(reg, field, v) HW_##reg##_TOG(BF_##reg##_##field(v))
#define BV_FLD(reg, field, sym) BF_##reg##_##field(BV_##reg##_##field##__##sym)
#define BV_VAL(reg, field, sym) BV_##reg##_##field##__##sym
#define BF_RD(reg, field) HW_##reg.B.field
#define BF_WR(reg, field, v) BW_##reg##_##field(v)
/*******************************************************************************
* Macros to create bitfield mask, shift, and width from CMSIS definitions
******************************************************************************/
/* Bitfield Mask */
#define SCF_BMSK(bit) (bit ## _MASK)
/* Bitfield Left Shift */
#define SCF_BLSH(bit) (bit ## _SHIFT)
/* Bitfield Width */
#define SCF_BWID(bit) (bit ## _WIDTH)
/* Bitfield Value */
#define SCF_BVAL(bit, val) ((val) << (SCF_BLSH(bit)))
/*******************************************************************************
* Macros to set, clear, extact, and insert bitfields into register structures
* or local variables
******************************************************************************/
/* Bitfield Set */
#define SCF_BSET(var, bit) (var |= (SCF_BMSK(bit)))
/* Bitfield Clear */
#define SCF_BCLR(var, bit) (var &= (~(SCF_BMSK(bit))))
/* Bitfield Extract */
#define SCF_BEXR(var, bit) ((var & (SCF_BMSK(bit))) >> (SCF_BLSH(bit)))
/* Bitfield Insert */
#define SCF_BINS(var, bit, val) (var = (var & (~(SCF_BMSK(bit)))) | SCF_BVAL(bit, val))
/*******************************************************************************
* Macros to set, clear, extact, and insert bitfields into register structures
* that support SCT
******************************************************************************/
#ifdef EMUL
/* Emulation does not have SCT hardware and must fallback to non-SCT definitions */
/* SCT Bitfield Set */
#define SCF_SCT_BSET(var, bit) (SCF_BSET(var, bit))
/* SCT Bitfield Clear */
#define SCF_SCT_BCLR(var, bit) (SCF_BCLR(var, bit))
/* SCT Bitfield Insert */
#define SCF_SCT_BINS(var, bit, val) (SCF_BINS(var, bit, val))
#else
/*! @todo Port macros leverage SCT register access hardware */
/* SCT Bitfield Set */
#define SCF_SCT_BSET(var, bit) (SCF_BSET(var, bit))
/* SCT Bitfield Clear */
#define SCF_SCT_BCLR(var, bit) (SCF_BCLR(var, bit))
/* SCT Bitfield Insert */
#define SCF_SCT_BINS(var, bit, val) (SCF_BINS(var, bit, val))
#endif /* EMUL */
/*!
* @}
*/ /* end of group SCF */
/*!
* @}
*/ /* end of group Peripheral_access_layer */
#endif /* _FSL_BITACCESS_H */
/******************************************************************************/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
#ifndef _SC_LPCG_H
#define _SC_LPCG_H
/*LSIO SS */
#define PWM_0_LPCG 0x5D400000
#define PWM_1_LPCG 0x5D410000
#define PWM_2_LPCG 0x5D420000
#define PWM_3_LPCG 0x5D430000
#define PWM_4_LPCG 0x5D440000
#define PWM_5_LPCG 0x5D450000
#define PWM_6_LPCG 0x5D460000
#define PWM_7_LPCG 0x5D470000
#define GPIO_0_LPCG 0x5D480000
#define GPIO_1_LPCG 0x5D490000
#define GPIO_2_LPCG 0x5D4A0000
#define GPIO_3_LPCG 0x5D4B0000
#define GPIO_4_LPCG 0x5D4C0000
#define GPIO_5_LPCG 0x5D4D0000
#define GPIO_6_LPCG 0x5D4E0000
#define GPIO_7_LPCG 0x5D4F0000
#define ROMCP_LPCG 0x5D500000
#define FSPI_0_LPCG 0x5D520000
#define FSPI_1_LPCG 0x5D530000
#define GPT_0_LPCG 0x5D540000
#define GPT_1_LPCG 0x5D550000
#define GPT_2_LPCG 0x5D560000
#define GPT_3_LPCG 0x5D570000
#define GPT_4_LPCG 0x5D580000
#define OCRAM_LPCG 0x5D590000
#define KPP_LPCG 0x5D5A0000
/* HSIO SS */
#define CRR_5_LPCG 0x5F0F0000
#define CRR_4_LPCG 0x5F0E0000
#define CRR_3_LPCG 0x5F0D0000
#define CRR_2_LPCG 0x5F0C0000
#define CRR_1_LPCG 0x5F0B0000
#define CRR_0_LPCG 0x5F0A0000
#define PHY_1_LPCG 0x5F090000
#define PHY_2_LPCG 0x5F080000
#define SATA_0_LPCG 0x5F070000
#define PCIE_B_LPCG 0x5F060000
#define PCIE_A_LPCG 0x5F050000
/* DMA SS */
#define FLEX_CAN_2_LPCG 0x5ACF0000
#define FLEX_CAN_1_LPCG 0x5ACE0000
#define FLEX_CAN_0_LPCG 0x5ACD0000
#define FTM_1_LPCG 0x5ACB0000
#define FTM_0_LPCG 0x5ACA0000
#define ADC_1_LPCG 0x5AC90000
#define ADC_0_LPCG 0x5AC80000
#define LPI2C_4_LPCG 0x5AC40000
#define LPI2C_3_LPCG 0x5AC30000
#define LPI2C_2_LPCG 0x5AC20000
#define LPI2C_1_LPCG 0x5AC10000
#define LPI2C_0_LPCG 0x5AC00000
#define EMVSIM_1_LPCG 0x5A4E0000
#define EMVSIM_0_LPCG 0x5A4D0000
#define LPUART_4_LPCG 0x5A4A0000
#define LPUART_3_LPCG 0x5A490000
#define LPUART_2_LPCG 0x5A480000
#define LPUART_1_LPCG 0x5A470000
#define LPUART_0_LPCG 0x5A460000
#define LPSPI_3_LPCG 0x5A430000
#define LPSPI_2_LPCG 0x5A420000
#define LPSPI_1_LPCG 0x5A410000
#define LPSPI_0_LPCG 0x5A400000
/* Display SS */
#define DC_0_LPCG 0x56010000
#define DC_1_LPCG 0x57010000
/* LVDS */
#define DI_LVDS_0_LPCG 0x56243000
#define DI_LVDS_1_LPCG 0x57243000
/* DI HDMI */
#define DI_HDMI_LPCG 0x56263000
/* RX-HDMI */
#define RX_HDMI_LPCG 0x58263000
/* MIPI CSI SS */
#define MIPI_CSI_0_LPCG 0x58223000
#define MIPI_CSI_1_LPCG 0x58243000
/* Imaging SS */
#define IMG_JPEG_ENC_LPCG 0x585F0000
#define IMG_JPEG_DEC_LPCG 0x585D0000
#define IMG_PXL_LINK_DC1_LPCG 0x585C0000
#define IMG_PXL_LINK_DC0_LPCG 0x585B0000
#define IMG_PXL_LINK_HDMI_LPCG 0x585A0000
#define IMG_PXL_LINK_CSI0_LPCG 0x58590000
#define IMG_PXL_LINK_CSI1_LPCG 0x58580000
#define IMG_PDMA_7_LPCG 0x58570000
#define IMG_PDMA_6_LPCG 0x58560000
#define IMG_PDMA_5_LPCG 0x58550000
#define IMG_PDMA_4_LPCG 0x58540000
#define IMG_PDMA_3_LPCG 0x58530000
#define IMG_PDMA_2_LPCG 0x58520000
#define IMG_PDMA_1_LPCG 0x58510000
#define IMG_PDMA_0_LPCG 0x58500000
/* HSIO SS */
#define HSIO_GPIO_LPCG 0x5F100000
#define HSIO_MISC_LPCG 0x5F0F0000
#define HSIO_SATA_CRR4_LPCG 0x5F0E0000
#define HSIO_PCIE_X1_CRR3_LPCG 0x5F0D0000
#define HSIO_PCIE_X2_CRR2_LPCG 0x5F0C0000
#define HSIO_PHY_X1_CRR1_LPCG 0x5F0B0000
#define HSIO_PHY_X2_CRR0_LPCG 0x5F0A0000
#define HSIO_PHY_X1_LPCG 0x5F090000
#define HSIO_PHY_X2_LPCG 0x5F080000
#define HSIO_SATA_LPCG 0x5F070000
#define HSIO_PCIE_X1_LPCG 0x5F060000
#define HSIO_PCIE_X2_LPCG 0x5F050000
/* M4 SS */
#define M4_0_I2C_LPCG 0x37630000
#define M4_0_LPUART_LPCG 0x37620000
#define M4_0_LPIT_LPCG 0x37610000
#define M4_1_I2C_LPCG 0x3B630000
#define M4_1_LPUART_LPCG 0x3B620000
#define M4_1_LPIT_LPCG 0x3B610000
/* Audio SS */
#define AUD_ASRC_0_LPCG 0x59400000
#define AUD_ESAI_0_LPCG 0x59410000
#define AUD_SPDIF_0_LPCG 0x59420000
#define AUD_SPDIF_1_LPCG 0x59430000
#define AUD_SAI_0_LPCG 0x59440000
#define AUD_SAI_1_LPCG 0x59450000
#define AUD_SAI_2_LPCG 0x59460000
#define AUD_SAI_3_LPCG 0x59470000
#define AUD_HDMI_RX_SAI_0_LPCG 0x59480000
#define AUD_HDMI_TX_SAI_0_LPCG 0x59490000
#define AUD_GPT_5_LPCG 0x594B0000
#define AUD_GPT_6_LPCG 0x594C0000
#define AUD_GPT_7_LPCG 0x594D0000
#define AUD_GPT_8_LPCG 0x594E0000
#define AUD_GPT_9_LPCG 0x594F0000
#define AUD_GPT_10_LPCG 0x59500000
#define AUD_EDMA_0_LPCG 0x595f0000
#define AUD_ASRC_1_LPCG 0x59c00000
#define AUD_ESAI_1_LPCG 0x59c10000
#define AUD_SAI_6_LPCG 0x59c20000
#define AUD_SAI_7_LPCG 0x59c30000
#define AUD_AMIX_LPCG 0x59c40000
#define AUD_MQS_LPCG 0x59c50000
#define AUD_ACM_LPCG 0x59c60000
#define AUD_REC_CLK0_LPCG 0x59d00000
#define AUD_REC_CLK1_LPCG 0x59d10000
#define AUD_PLL_CLK0_LPCG 0x59d20000
#define AUD_PLL_CLK1_LPCG 0x59d30000
#define AUD_MCLKOUT0_LPCG 0x59d50000
#define AUD_MCLKOUT1_LPCG 0x59d60000
#define AUD_EDMA_1_LPCG 0x59df0000
/* Connectivity SS */
#define USDHC_0_LPCG 0x5B200000
#define USDHC_1_LPCG 0x5B210000
#define USDHC_2_LPCG 0x5B220000
#define ENET_0_LPCG 0x5B230000
#define ENET_1_LPCG 0x5B240000
#define DTCP_LPCG 0x5B250000
#define MLB_LPCG 0x5B260000
#define USB_2_LPCG 0x5B270000
#define USB_3_LPCG 0x5B280000
#define NAND_LPCG 0x5B290000
#define EDMA_LPCG 0x5B2A0000
#endif

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
#ifndef _SC_LPCG_H
#define _SC_LPCG_H
/*LSIO SS */
#define PWM_0_LPCG 0x5D400000
#define PWM_1_LPCG 0x5D410000
#define PWM_2_LPCG 0x5D420000
#define PWM_3_LPCG 0x5D430000
#define PWM_4_LPCG 0x5D440000
#define PWM_5_LPCG 0x5D450000
#define PWM_6_LPCG 0x5D460000
#define PWM_7_LPCG 0x5D470000
#define GPIO_0_LPCG 0x5D480000
#define GPIO_1_LPCG 0x5D490000
#define GPIO_2_LPCG 0x5D4A0000
#define GPIO_3_LPCG 0x5D4B0000
#define GPIO_4_LPCG 0x5D4C0000
#define GPIO_5_LPCG 0x5D4D0000
#define GPIO_6_LPCG 0x5D4E0000
#define GPIO_7_LPCG 0x5D4F0000
#define FSPI_0_LPCG 0x5D520000
#define FSPI_1_LPCG 0x5D530000
#define GPT_0_LPCG 0x5D540000
#define GPT_1_LPCG 0x5D550000
#define GPT_2_LPCG 0x5D560000
#define GPT_3_LPCG 0x5D570000
#define GPT_4_LPCG 0x5D580000
#define OCRAM_LPCG 0x5D590000
#define KPP_LPCG 0x5D5A0000
#define ROMCP_LPCG 0x5D500000
/* HSIO SS */
#define CRR_5_LPCG 0x5F0F0000
#define CRR_4_LPCG 0x5F0E0000
#define CRR_3_LPCG 0x5F0D0000
#define CRR_2_LPCG 0x5F0C0000
#define CRR_1_LPCG 0x5F0B0000
#define CRR_0_LPCG 0x5F0A0000
#define PHY_1_LPCG 0x5F090000
#define PHY_2_LPCG 0x5F080000
#define SATA_0_LPCG 0x5F070000
#define PCIE_B_LPCG 0x5F060000
#define PCIE_A_LPCG 0x5F050000
/* DMA SS */
#define FLEX_CAN_2_LPCG 0x5ACF0000
#define FLEX_CAN_1_LPCG 0x5ACE0000
#define FLEX_CAN_0_LPCG 0x5ACD0000
#define FTM_1_LPCG 0x5ACB0000
#define FTM_0_LPCG 0x5ACA0000
#define ADC_0_LPCG 0x5AC80000
#define LPI2C_3_LPCG 0x5AC30000
#define LPI2C_2_LPCG 0x5AC20000
#define LPI2C_1_LPCG 0x5AC10000
#define LPI2C_0_LPCG 0x5AC00000
#define PWM_LPCG 0x5A590000
#define LCD_LPCG 0x5A580000
#define LPUART_3_LPCG 0x5A490000
#define LPUART_2_LPCG 0x5A480000
#define LPUART_1_LPCG 0x5A470000
#define LPUART_0_LPCG 0x5A460000
#define LPSPI_3_LPCG 0x5A430000
#define LPSPI_2_LPCG 0x5A420000
#define LPSPI_1_LPCG 0x5A410000
#define LPSPI_0_LPCG 0x5A400000
/* Display SS */
#define DC_0_LPCG 0x56010000
#define DC_1_LPCG 0x57010000
/* LVDS */
#define DI_LVDS_0_LPCG 0x56243000
#define DI_LVDS_1_LPCG 0x57243000
/* DI HDMI */
#define DI_HDMI_LPCG 0x56263000
/* RX-HDMI */
#define RX_HDMI_LPCG 0x58263000
/* MIPI CSI SS */
#define MIPI_CSI_0_LPCG 0x58223000
#define MIPI_CSI_1_LPCG 0x58243000
/* Display MIPI SS */
#define DI_MIPI_LPCG 0x56030000
/* Imaging SS */
#define IMG_JPEG_ENC_LPCG 0x585F0000
#define IMG_JPEG_DEC_LPCG 0x585D0000
#define IMG_PXL_LINK_DC1_LPCG 0x585C0000
#define IMG_PXL_LINK_DC0_LPCG 0x585B0000
#define IMG_PXL_LINK_HDMI_LPCG 0x585A0000
#define IMG_PXL_LINK_CSI0_LPCG 0x58590000
#define IMG_PXL_LINK_CSI1_LPCG 0x58580000
#define IMG_PDMA_7_LPCG 0x58570000
#define IMG_PDMA_6_LPCG 0x58560000
#define IMG_PDMA_5_LPCG 0x58550000
#define IMG_PDMA_4_LPCG 0x58540000
#define IMG_PDMA_3_LPCG 0x58530000
#define IMG_PDMA_2_LPCG 0x58520000
#define IMG_PDMA_1_LPCG 0x58510000
#define IMG_PDMA_0_LPCG 0x58500000
/* HSIO SS */
#define HSIO_GPIO_LPCG 0x5F100000
#define HSIO_MISC_LPCG 0x5F0F0000
#define HSIO_SATA_CRR4_LPCG 0x5F0E0000
#define HSIO_PCIE_X1_CRR3_LPCG 0x5F0D0000
#define HSIO_PCIE_X2_CRR2_LPCG 0x5F0C0000
#define HSIO_PHY_X1_CRR1_LPCG 0x5F0B0000
#define HSIO_PHY_X2_CRR0_LPCG 0x5F0A0000
#define HSIO_PHY_X1_LPCG 0x5F090000
#define HSIO_PHY_X2_LPCG 0x5F080000
#define HSIO_SATA_LPCG 0x5F070000
#define HSIO_PCIE_X1_LPCG 0x5F060000
#define HSIO_PCIE_X2_LPCG 0x5F050000
/* M4 SS */
#define M4_0_I2C_LPCG 0x37630000
#define M4_0_LPUART_LPCG 0x37620000
#define M4_0_LPIT_LPCG 0x37610000
#define M4_1_I2C_LPCG 0x3B630000
#define M4_1_LPUART_LPCG 0x3B620000
#define M4_1_LPIT_LPCG 0x3B610000
/* Audio SS */
#define AUD_ASRC_0_LPCG 0x59400000
#define AUD_ESAI_0_LPCG 0x59410000
#define AUD_SPDIF_0_LPCG 0x59420000
#define AUD_SPDIF_1_LPCG 0x59430000
#define AUD_SAI_0_LPCG 0x59440000
#define AUD_SAI_1_LPCG 0x59450000
#define AUD_SAI_2_LPCG 0x59460000
#define AUD_SAI_3_LPCG 0x59470000
#define AUD_HDMI_RX_SAI_0_LPCG 0x59480000
#define AUD_HDMI_TX_SAI_0_LPCG 0x59490000
#define AUD_GPT_5_LPCG 0x594B0000
#define AUD_GPT_6_LPCG 0x594C0000
#define AUD_GPT_7_LPCG 0x594D0000
#define AUD_GPT_8_LPCG 0x594E0000
#define AUD_GPT_9_LPCG 0x594F0000
#define AUD_GPT_10_LPCG 0x59500000
#define AUD_EDMA_0_LPCG 0x595f0000
#define AUD_ASRC_1_LPCG 0x59c00000
#define AUD_ESAI_1_LPCG 0x59c10000
#define AUD_SAI_6_LPCG 0x59c20000
#define AUD_SAI_7_LPCG 0x59c30000
#define AUD_AMIX_LPCG 0x59c40000
#define AUD_MQS_LPCG 0x59c50000
#define AUD_ACM_LPCG 0x59c60000
#define AUD_REC_CLK0_LPCG 0x59d00000
#define AUD_REC_CLK1_LPCG 0x59d10000
#define AUD_PLL_CLK0_LPCG 0x59d20000
#define AUD_PLL_CLK1_LPCG 0x59d30000
#define AUD_MCLKOUT0_LPCG 0x59d50000
#define AUD_MCLKOUT1_LPCG 0x59d60000
#define AUD_EDMA_1_LPCG 0x59df0000
/* Connectivity SS */
#define USDHC_0_LPCG 0x5B200000
#define USDHC_1_LPCG 0x5B210000
#define USDHC_2_LPCG 0x5B220000
#define ENET_0_LPCG 0x5B230000
#define ENET_1_LPCG 0x5B240000
#define DTCP_LPCG 0x5B250000
#define MLB_LPCG 0x5B260000
#define USB_2_LPCG 0x5B270000
#define USB_3_LPCG 0x5B280000
#define NAND_LPCG 0x5B290000
#define EDMA_LPCG 0x5B2A0000
#endif

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file for the IPC implementation.
*/
#ifndef _SC_IPC_H
#define _SC_IPC_H
/* Includes */
#include <linux/thermal.h>
#include <soc/imx8/sc/types.h>
/* Defines */
/* Types */
/* Functions */
/*!
* This function opens an IPC channel.
*
* @param[out] ipc return pointer for ipc handle
* @param[in] id id of channel to open
*
* @return Returns an error code (SC_ERR_NONE = success, SC_ERR_IPC
* otherwise).
*
* The \a id parameter is implementation specific. Could be an MU
* address, pointer to a driver path, channel index, etc.
*/
sc_err_t sc_ipc_open(sc_ipc_t *ipc, sc_ipc_id_t id);
/*!
* This function closes an IPC channel.
*
* @param[in] ipc id of channel to close
*/
void sc_ipc_close(sc_ipc_t ipc);
/*!
* This function reads a message from an IPC channel.
*
* @param[in] ipc id of channel read from
* @param[out] data pointer to message buffer to read
*
* This function will block if no message is available to be read.
*/
void sc_ipc_read(sc_ipc_t ipc, void *data);
/*!
* This function writes a message to an IPC channel.
*
* @param[in] ipc id of channel to write to
* @param[in] data pointer to message buffer to write
*
* This function will block if the outgoing buffer is full.
*/
void sc_ipc_write(sc_ipc_t ipc, void *data);
int register_scu_notifier(struct notifier_block *nb);
int unregister_scu_notifier(struct notifier_block *nb);
#endif /* _SC_IPC_H */

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
#ifndef _SC_SCFW_H
#define _SC_SCFW_H
#include <linux/types.h>
/*!
* This type is used to declare a handle for an IPC communication
* channel. Its meaning is specific to the IPC implementation.
*/
typedef uint32_t sc_ipc_t;
/*!
* This type is used to declare an ID for an IPC communication
* channel. Its meaning is specific to the IPC implementation.
*/
typedef uint32_t sc_ipc_id_t;
/*!
* This function returns the MU channel ID for this implementation
*
* @param[in] ipc pointer to Mu channel ID
* @return Returns an error code (SC_ERR_NONE = success, SC_ERR_IPC
* otherwise).
*/
int sc_ipc_getMuID(uint32_t *mu_id);
#endif

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/*==========================================================================*/
/*!
* @file sci.h
*
* Header file containing the public System Controller Interface (SCI)
* definitions.
*
*
* @{
*/
/*==========================================================================*/
#ifndef _SC_SCI_H
#define _SC_SCI_H
/* Defines */
#define SC_NUM_IPC 5
/* Includes */
#include <soc/imx8/sc/ipc.h>
#include <soc/imx8/sc/svc/misc/api.h>
#include <soc/imx8/sc/svc/pad/api.h>
#include <soc/imx8/sc/svc/pm/api.h>
#include <soc/imx8/sc/svc/rm/api.h>
#include <soc/imx8/sc/svc/timer/api.h>
/* Types */
/* Functions */
/*!
* This function initializes the MU connection to SCU.
*
* @return Returns an error code.
*/
int imx8_mu_init(void);
#endif /* _SC_SCI_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file containing the public API for the System Controller (SC)
* Interrupt (IRQ) function.
*
* @addtogroup IRQ_SVC (SVC) Interrupt Service
*
* Module for the Interrupt (IRQ) service.
*
* @{
*/
#ifndef _SC_IRQ_API_H
#define _SC_IRQ_API_H
/* Includes */
#include <soc/imx8/sc/types.h>
/* Defines */
#define SC_IRQ_NUM_GROUP 4 /* Number of groups */
/*!
* @name Defines for sc_irq_group_t
*/
/*@{*/
#define SC_IRQ_GROUP_TEMP 0 /* Temp interrupts */
#define SC_IRQ_GROUP_WDOG 1 /* Watchdog interrupts */
#define SC_IRQ_GROUP_RTC 2 /* RTC interrupts */
#define SC_IRQ_GROUP_WAKE 3 /* Wakeup interrupts */
/*@}*/
/*!
* @name Defines for sc_irq_temp_t
*/
/*@{*/
#define SC_IRQ_TEMP_HIGH (1 << 0) /* Temp alarm interrupt */
#define SC_IRQ_TEMP_CPU0_HIGH (1 << 1) /* CPU0 temp alarm interrupt */
#define SC_IRQ_TEMP_CPU1_HIGH (1 << 2) /* CPU1 temp alarm interrupt */
#define SC_IRQ_TEMP_GPU0_HIGH (1 << 3) /* GPU0 temp alarm interrupt */
#define SC_IRQ_TEMP_GPU1_HIGH (1 << 4) /* GPU1 temp alarm interrupt */
#define SC_IRQ_TEMP_DRC0_HIGH (1 << 5) /* DRC0 temp alarm interrupt */
#define SC_IRQ_TEMP_DRC1_HIGH (1 << 6) /* DRC1 temp alarm interrupt */
#define SC_IRQ_TEMP_VPU_HIGH (1 << 7) /* DRC1 temp alarm interrupt */
#define SC_IRQ_TEMP_PMIC0_HIGH (1 << 8) /* PMIC0 temp alarm interrupt */
#define SC_IRQ_TEMP_PMIC1_HIGH (1 << 9) /* PMIC1 temp alarm interrupt */
#define SC_IRQ_TEMP_LOW (1 << 10) /* Temp alarm interrupt */
#define SC_IRQ_TEMP_CPU0_LOW (1 << 11) /* CPU0 temp alarm interrupt */
#define SC_IRQ_TEMP_CPU1_LOW (1 << 12) /* CPU1 temp alarm interrupt */
#define SC_IRQ_TEMP_GPU0_LOW (1 << 13) /* GPU0 temp alarm interrupt */
#define SC_IRQ_TEMP_GPU1_LOW (1 << 14) /* GPU1 temp alarm interrupt */
#define SC_IRQ_TEMP_DRC0_LOW (1 << 15) /* DRC0 temp alarm interrupt */
#define SC_IRQ_TEMP_DRC1_LOW (1 << 16) /* DRC1 temp alarm interrupt */
#define SC_IRQ_TEMP_VPU_LOW (1 << 17) /* DRC1 temp alarm interrupt */
#define SC_IRQ_TEMP_PMIC0_LOW (1 << 18) /* PMIC0 temp alarm interrupt */
#define SC_IRQ_TEMP_PMIC1_LOW (1 << 19) /* PMIC1 temp alarm interrupt */
#define SC_IRQ_TEMP_PMIC2_HIGH (1 << 20) /* PMIC2 temp alarm interrupt */
#define SC_IRQ_TEMP_PMIC2_LOW (1 << 21) /* PMIC2 temp alarm interrupt */
/*@}*/
/*!
* @name Defines for sc_irq_wdog_t
*/
/*@{*/
#define SC_IRQ_WDOG (1 << 0) /* Watchdog interrupt */
/*@}*/
/*!
* @name Defines for sc_irq_rtc_t
*/
/*@{*/
#define SC_IRQ_RTC (1 << 0) /* RTC interrupt */
/*@}*/
/*!
* @name Defines for sc_irq_wake_t
*/
/*@{*/
#define SC_IRQ_BUTTON (1 << 0) /* Button interrupt */
/*@}*/
/* Types */
/*!
* This type is used to declare an interrupt group.
*/
typedef uint8_t sc_irq_group_t;
/*!
* This type is used to declare a bit mask of temp interrupts.
*/
typedef uint8_t sc_irq_temp_t;
/*!
* This type is used to declare a bit mask of watchdog interrupts.
*/
typedef uint8_t sc_irq_wdog_t;
/*!
* This type is used to declare a bit mask of RTC interrupts.
*/
typedef uint8_t sc_irq_rtc_t;
/*!
* This type is used to declare a bit mask of wakeup interrupts.
*/
typedef uint8_t sc_irq_wake_t;
/* Functions */
/*!
* This function enables/disables interrupts. If pending interrupts
* are unmasked, an interrupt will be triggered.
*
* @param[in] ipc IPC handle
* @param[in] resource MU channel
* @param[in] group group the interrupts are in
* @param[in] mask mask of interrupts to affect
* @param[in] enable state to change interrupts to
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if group invalid
*/
sc_err_t sc_irq_enable(sc_ipc_t ipc, sc_rsrc_t resource,
sc_irq_group_t group, uint32_t mask, bool enable);
/*!
* This function returns the current interrupt status (regardless if
* masked). Automatically clears pending interrupts.
*
* @param[in] ipc IPC handle
* @param[in] resource MU channel
* @param[in] group groups the interrupts are in
* @param[in] status status of interrupts
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if group invalid
*
* The returned \a status may show interrupts pending that are
* currently masked.
*/
sc_err_t sc_irq_status(sc_ipc_t ipc, sc_rsrc_t resource,
sc_irq_group_t group, uint32_t *status);
#endif /* _SC_IRQ_API_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file containing the public API for the System Controller (SC)
* Miscellaneous (MISC) function.
*
* @addtogroup MISC_SVC (SVC) Miscellaneous Service
*
* Module for the Miscellaneous (MISC) service.
*
* @{
*/
#ifndef _SC_MISC_API_H
#define _SC_MISC_API_H
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
/* Defines */
/*!
* @name Defines for type widths
*/
/*@{*/
#define SC_MISC_DMA_GRP_W 5 /* Width of sc_misc_dma_group_t */
/*@}*/
/*! Max DMA channel priority group */
#define SC_MISC_DMA_GRP_MAX 31
/*!
* @name Defines for sc_misc_boot_status_t
*/
/*@{*/
#define SC_MISC_BOOT_STATUS_SUCCESS 0 /* Success */
#define SC_MISC_BOOT_STATUS_SECURITY 1 /* Security violation */
/*@}*/
/*!
* @name Defines for sc_misc_seco_auth_cmd_t
*/
/*@{*/
#define SC_MISC_SECO_AUTH_SECO_FW 0 /* SECO Firmware */
#define SC_MISC_SECO_AUTH_HDMI_TX_FW 1 /* HDMI TX Firmware */
#define SC_MISC_SECO_AUTH_HDMI_RX_FW 2 /* HDMI RX Firmware */
/*@}*/
/*!
* @name Defines for sc_misc_temp_t
*/
/*@{*/
#define SC_MISC_TEMP 0 /* Temp sensor */
#define SC_MISC_TEMP_HIGH 1 /* Temp high alarm */
#define SC_MISC_TEMP_LOW 2 /* Temp low alarm */
/*@}*/
/*!
* @name Defines for sc_misc_seco_auth_cmd_t
*/
/*@{*/
#define SC_MISC_AUTH_CONTAINER 0 /* Authenticate container */
#define SC_MISC_VERIFY_IMAGE 1 /* Verify image */
#define SC_MISC_REL_CONTAINER 2 /* Release container */
/*@}*/
/* Types */
/*!
* This type is used to store a DMA channel priority group.
*/
typedef uint8_t sc_misc_dma_group_t;
/*!
* This type is used report boot status.
*/
typedef uint8_t sc_misc_boot_status_t;
/*!
* This type is used to issue SECO authenticate commands.
*/
typedef uint8_t sc_misc_seco_auth_cmd_t;
/*!
* This type is used report boot status.
*/
typedef uint8_t sc_misc_temp_t;
/* Functions */
/*!
* @name Control Functions
* @{
*/
/*!
* This function sets a miscellaneous control value.
*
* @param[in] ipc IPC handle
* @param[in] resource resource the control is associated with
* @param[in] ctrl control to change
* @param[in] val value to apply to the control
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner or parent
* of the owner
*
* Refer to the [Control List](@ref CONTROLS) for valid control values.
*/
sc_err_t sc_misc_set_control(sc_ipc_t ipc, sc_rsrc_t resource,
sc_ctrl_t ctrl, uint32_t val);
/*!
* This function gets a miscellaneous control value.
*
* @param[in] ipc IPC handle
* @param[in] resource resource the control is associated with
* @param[in] ctrl control to get
* @param[out] val pointer to return the control value
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner or parent
* of the owner
*
* Refer to the [Control List](@ref CONTROLS) for valid control values.
*/
sc_err_t sc_misc_get_control(sc_ipc_t ipc, sc_rsrc_t resource,
sc_ctrl_t ctrl, uint32_t *val);
/* @} */
/*!
* @name DMA Functions
* @{
*/
/*!
* This function configures the max DMA channel priority group for a
* partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to assign \a max
* @param[in] max max priority group (0-31)
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the parent
* of the affected partition
*
* Valid \a max range is 0-31 with 0 being the lowest and 31 the highest.
* Default is the max priority group for the parent partition of \a pt.
*/
sc_err_t sc_misc_set_max_dma_group(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_misc_dma_group_t max);
/*!
* This function configures the priority group for a DMA channel.
*
* @param[in] ipc IPC handle
* @param[in] resource DMA channel resource
* @param[in] group priority group (0-31)
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the owner or parent
* of the owner of the DMA channel
*
* Valid \a group range is 0-31 with 0 being the lowest and 31 the highest.
* The max value of \a group is limited by the partition max set using
* sc_misc_set_max_dma_group().
*/
sc_err_t sc_misc_set_dma_group(sc_ipc_t ipc, sc_rsrc_t resource,
sc_misc_dma_group_t group);
/* @} */
/*!
* @name Security Functions
* @{
*/
/*!
* This function loads a SECO image.
*
* @param[in] ipc IPC handle
* @param[in] addr_src address of image source
* @param[in] addr_dst address of image destination
* @param[in] len lenth of image to load
* @param[in] fw true = firmware load
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* This is used to load images via the SECO. Examples include SECO
* Firmware and IVT/CSF data used for authentication. These are usually
* loaded into SECO TCM. \a addr_src is in secure memory.
*/
sc_err_t sc_misc_seco_image_load(sc_ipc_t ipc, uint32_t addr_src,
uint32_t addr_dst, uint32_t len, bool fw);
/*!
* This function is used to authenticate a SECO image or command.
*
* @param[in] ipc IPC handle
* @param[in] cmd authenticate command
* @param[in] addr_meta address of/or metadata
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* This is used to authenticate a SECO image or issue a security
* command. \a addr_meta often points to an container. It is also
* just data (or even unused) for some commands.
*/
sc_err_t sc_misc_seco_authenticate(sc_ipc_t ipc,
sc_misc_seco_auth_cmd_t cmd,
uint32_t addr_meta);
/* @} */
/*!
* @name Debug Functions
* @{
*/
/*!
* This function is used output a debug character from the SCU UART.
*
* @param[in] ipc IPC handle
* @param[in] ch character to output
*/
void sc_misc_debug_out(sc_ipc_t ipc, uint8_t ch);
/*!
* This function starts/stops emulation waveform capture.
*
* @param[in] ipc IPC handle
* @param[in] enable flag to enable/disable capture
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_UNAVAILABLE if not running on emulation
*/
sc_err_t sc_misc_waveform_capture(sc_ipc_t ipc, bool enable);
/*!
* This function is used to return the SCFW build info.
*
* @param[in] ipc IPC handle
* @param[out] build pointer to return build number
* @param[out] commit pointer to return commit ID (git SHA-1)
*/
void sc_misc_build_info(sc_ipc_t ipc, uint32_t *build, uint32_t *commit);
/*!
* This function is used to return the device's unique ID.
*
* @param[in] ipc IPC handle
* @param[out] id_l pointer to return lower 32-bit of ID [31:0]
* @param[out] id_h pointer to return upper 32-bits of ID [63:32]
*/
void sc_misc_unique_id(sc_ipc_t ipc, uint32_t *id_l, uint32_t *id_h);
/* @} */
/*!
* @name Other Functions
* @{
*/
/*!
* This function configures the ARI match value for PCIe/SATA resources.
*
* @param[in] ipc IPC handle
* @param[in] resource match resource
* @param[in] resource_mst PCIe/SATA master to match
* @param[in] ari ARI to match
* @param[in] enable enable match or not
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the owner or parent
* of the owner of the resource and translation
*
* For PCIe, the ARI is the 16-bit value that includes the bus number,
* device number, and function number. For SATA, this value includes the
* FISType and PM_Port.
*/
sc_err_t sc_misc_set_ari(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rsrc_t resource_mst, uint16_t ari, bool enable);
/*!
* This function reports boot status.
*
* @param[in] ipc IPC handle
* @param[in] status boot status
*
* This is used by SW partitions to report status of boot. This is
* normally used to report a boot failure.
*/
void sc_misc_boot_status(sc_ipc_t ipc, sc_misc_boot_status_t status);
/*!
* This function tells the SCFW that a CPU is done booting.
*
* @param[in] ipc IPC handle
* @param[in] cpu CPU that is done booting
*
* This is called by early booting CPUs to report they are done with
* initialization. After starting early CPUs, the SCFW halts the
* booting process until they are done. During this time, early
* CPUs can call the SCFW with lower latency as the SCFW is idle.
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the CPU owner
*/
sc_err_t sc_misc_boot_done(sc_ipc_t ipc, sc_rsrc_t cpu);
/*!
* This function reads a given fuse word index.
*
* @param[in] ipc IPC handle
* @param[in] word fuse word index
* @param[out] val fuse read value
*
* @return Returns and error code (SC_ERR_NONE = success).
*
* Return errors codes:
* - SC_ERR_PARM if word fuse index param out of range or invalid
* - SC_ERR_NOACCESS if read operation failed
* - SC_ERR_LOCKED if read operation is locked
*/
sc_err_t sc_misc_otp_fuse_read(sc_ipc_t ipc, uint32_t word, uint32_t *val);
/*!
* This function writes a given fuse word index.
*
* @param[in] ipc IPC handle
* @param[in] word fuse word index
* @param[in] val fuse write value
*
* @return Returns and error code (SC_ERR_NONE = success).
*
* Return errors codes:
* - SC_ERR_PARM if word fuse index param out of range or invalid
* - SC_ERR_NOACCESS if write operation failed
* - SC_ERR_LOCKED if write operation is locked
*/
sc_err_t sc_misc_otp_fuse_write(sc_ipc_t ipc, uint32_t word, uint32_t val);
/*!
* This function sets a temp sensor alarm.
*
* @param[in] ipc IPC handle
* @param[in] resource resource with sensor
* @param[in] temp alarm to set
* @param[in] celsius whole part of temp to set
* @param[in] tenths fractional part of temp to set
*
* @return Returns and error code (SC_ERR_NONE = success).
*
* Return errors codes:
* - SC_ERR_PARM if parameters invalid
*/
sc_err_t sc_misc_set_temp(sc_ipc_t ipc, sc_rsrc_t resource,
sc_misc_temp_t temp, int16_t celsius, int8_t tenths);
/*!
* This function gets a temp sensor value.
*
* @param[in] ipc IPC handle
* @param[in] resource resource with sensor
* @param[in] temp value to get (sensor or alarm)
* @param[out] celsius whole part of temp to get
* @param[out] tenths fractional part of temp to get
*
* @return Returns and error code (SC_ERR_NONE = success).
*
* Return errors codes:
* - SC_ERR_PARM if parameters invalid
*/
sc_err_t sc_misc_get_temp(sc_ipc_t ipc, sc_rsrc_t resource,
sc_misc_temp_t temp, int16_t * celsius,
int8_t * tenths);
/*!
* This function returns the boot device.
*
* @param[in] ipc IPC handle
* @param[out] dev pointer to return boot device
*/
void sc_misc_get_boot_dev(sc_ipc_t ipc, sc_rsrc_t *dev);
/*!
* This function returns the current status of the ON/OFF button.
*
* @param[in] ipc IPC handle
* @param[out] status pointer to return button status
*/
void sc_misc_get_button_status(sc_ipc_t ipc, bool *status);
/* @} */
#endif /* _SC_MISC_API_H */
/**@}*/

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@ -0,0 +1,565 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file containing the public API for the System Controller (SC)
* Pad Control (PAD) function.
*
* @addtogroup PAD_SVC (SVC) Pad Service
*
* Module for the Pad Control (PAD) service.
*
* @details
*
* Pad configuration is managed by SC firmware. The pad configuration
* features supported by the SC firmware include:
*
* - Configuring the mux, input/output connection, and low-power isolation
mode.
* - Configuring the technology-specific pad setting such as drive strength,
* pullup/pulldown, etc.
* - Configuring compensation for pad groups with dual voltage capability.
*
* Pad functions fall into one of three categories. Generic functions are
* common to all SoCs and all process technologies. SoC functions are raw
* low-level functions. Technology-specific functions are specific to the
* process technology.
*
* The list of pads is SoC specific. Refer to the SoC [Pad List](@ref PADS)
* for valid pad values. Note that all pads exist on a die but may or
* may not be brought out by the specific package. Mapping of pads to
* package pins/balls is documented in the associated Data Sheet. Some pads
* may not be brought out because the part (die+package) is defeatured and
* some pads may connect to the substrate in the package.
*
* Some pads (SC_P_COMP_*) that can be specified are not individual pads
* but are in fact pad groups. These groups have additional configuration
* that can be done using the sc_pad_set_gp_28fdsoi_comp() function. More
* info on these can be found in the associated Reference Manual.
*
* Pads are managed as a resource by the Resource Manager (RM). They have
* assigned owners and only the owners can configure the pads. Some of the
* pads are reserved for use by the SCFW itself and this can be overriden
* with the implementation of board_config_sc(). Additionally, pads may
* be assigned to various other partitions via SCD or via the implementation
* of board_system_config().
*
* @{
*/
#ifndef _SC_PAD_API_H
#define _SC_PAD_API_H
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
/* Defines */
/*!
* @name Defines for type widths
*/
/*@{*/
#define SC_PAD_MUX_W 3 /* Width of mux parameter */
/*@}*/
/*!
* @name Defines for sc_pad_config_t
*/
/*@{*/
#define SC_PAD_CONFIG_NORMAL 0 /* Normal */
#define SC_PAD_CONFIG_OD 1 /* Open Drain */
#define SC_PAD_CONFIG_OD_IN 2 /* Open Drain and input */
#define SC_PAD_CONFIG_OUT_IN 3 /* Output and input */
/*@}*/
/*!
* @name Defines for sc_pad_iso_t
*/
/*@{*/
#define SC_PAD_ISO_OFF 0 /* ISO latch is transparent */
#define SC_PAD_ISO_EARLY 1 /* Follow EARLY_ISO */
#define SC_PAD_ISO_LATE 2 /* Follow LATE_ISO */
#define SC_PAD_ISO_ON 3 /* ISO latched data is held */
/*@}*/
/*!
* @name Defines for sc_pad_28fdsoi_dse_t
*/
/*@{*/
#define SC_PAD_28FDSOI_DSE_18V_1MA 0 /* Drive strength of 1mA for 1.8v */
#define SC_PAD_28FDSOI_DSE_18V_2MA 1 /* Drive strength of 2mA for 1.8v */
#define SC_PAD_28FDSOI_DSE_18V_4MA 2 /* Drive strength of 4mA for 1.8v */
#define SC_PAD_28FDSOI_DSE_18V_6MA 3 /* Drive strength of 6mA for 1.8v */
#define SC_PAD_28FDSOI_DSE_18V_8MA 4 /* Drive strength of 8mA for 1.8v */
#define SC_PAD_28FDSOI_DSE_18V_10MA 5 /* Drive strength of 10mA for 1.8v */
#define SC_PAD_28FDSOI_DSE_18V_12MA 6 /* Drive strength of 12mA for 1.8v */
#define SC_PAD_28FDSOI_DSE_18V_HS 7 /* High-speed drive strength for 1.8v */
#define SC_PAD_28FDSOI_DSE_33V_2MA 0 /* Drive strength of 2mA for 3.3v */
#define SC_PAD_28FDSOI_DSE_33V_4MA 1 /* Drive strength of 4mA for 3.3v */
#define SC_PAD_28FDSOI_DSE_33V_8MA 2 /* Drive strength of 8mA for 3.3v */
#define SC_PAD_28FDSOI_DSE_33V_12MA 3 /* Drive strength of 12mA for 3.3v */
#define SC_PAD_28FDSOI_DSE_DV_HIGH 0 /* High drive strength for dual volt */
#define SC_PAD_28FDSOI_DSE_DV_LOW 1 /* Low drive strength for dual volt */
/*@}*/
/*!
* @name Defines for sc_pad_28fdsoi_ps_t
*/
/*@{*/
#define SC_PAD_28FDSOI_PS_KEEPER 0 /* Bus-keeper (only valid for 1.8v) */
#define SC_PAD_28FDSOI_PS_PU 1 /* Pull-up */
#define SC_PAD_28FDSOI_PS_PD 2 /* Pull-down */
#define SC_PAD_28FDSOI_PS_NONE 3 /* No pull (disabled) */
/*@}*/
/*!
* @name Defines for sc_pad_28fdsoi_pus_t
*/
/*@{*/
#define SC_PAD_28FDSOI_PUS_30K_PD 0 /* 30K pull-down */
#define SC_PAD_28FDSOI_PUS_100K_PU 1 /* 100K pull-up */
#define SC_PAD_28FDSOI_PUS_3K_PU 2 /* 3K pull-up */
#define SC_PAD_28FDSOI_PUS_30K_PU 3 /* 30K pull-up */
/*@}*/
/*!
* @name Defines for sc_pad_wakeup_t
*/
/*@{*/
#define SC_PAD_WAKEUP_OFF 0 /* Off */
#define SC_PAD_WAKEUP_CLEAR 1 /* Clears pending flag */
#define SC_PAD_WAKEUP_LOW_LVL 4 /* Low level */
#define SC_PAD_WAKEUP_FALL_EDGE 5 /* Falling edge */
#define SC_PAD_WAKEUP_RISE_EDGE 6 /* Rising edge */
#define SC_PAD_WAKEUP_HIGH_LVL 7 /* High-level */
/*@}*/
/* Types */
/*!
* This type is used to declare a pad config. It determines how the
* output data is driven, pull-up is controlled, and input signal is
* connected. Normal and OD are typical and only connect the input
* when the output is not driven. The IN options are less common and
* force an input connection even when driving the output.
*/
typedef uint8_t sc_pad_config_t;
/*!
* This type is used to declare a pad low-power isolation config.
* ISO_LATE is the most common setting. ISO_EARLY is only used when
* an output pad is directly determined by another input pad. The
* other two are only used when SW wants to directly contol isolation.
*/
typedef uint8_t sc_pad_iso_t;
/*!
* This type is used to declare a drive strength. Note it is specific
* to 28FDSOI. Also note that valid values depend on the pad type.
*/
typedef uint8_t sc_pad_28fdsoi_dse_t;
/*!
* This type is used to declare a pull select. Note it is specific
* to 28FDSOI.
*/
typedef uint8_t sc_pad_28fdsoi_ps_t;
/*!
* This type is used to declare a pull-up select. Note it is specific
* to 28FDSOI HSIC pads.
*/
typedef uint8_t sc_pad_28fdsoi_pus_t;
/*!
* This type is used to declare a wakeup mode of a pad.
*/
typedef uint8_t sc_pad_wakeup_t;
/* Functions */
/*!
* @name Generic Functions
* @{
*/
/*!
* This function configures the mux settings for a pad. This includes
* the signal mux, pad config, and low-power isolation mode.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] mux mux setting
* @param[in] config pad config
* @param[in] iso low-power isolation mode
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_set_mux(sc_ipc_t ipc, sc_pad_t pad,
uint8_t mux, sc_pad_config_t config, sc_pad_iso_t iso);
/*!
* This function gets the mux settings for a pad. This includes
* the signal mux, pad config, and low-power isolation mode.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] mux pointer to return mux setting
* @param[out] config pointer to return pad config
* @param[out] iso pointer to return low-power isolation mode
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get_mux(sc_ipc_t ipc, sc_pad_t pad,
uint8_t *mux, sc_pad_config_t *config,
sc_pad_iso_t *iso);
/*!
* This function configures the general purpose pad control. This
* is technology dependent and includes things like drive strength,
* slew rate, pull up/down, etc. Refer to the SoC Reference Manual
* for bit field details.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] ctrl control value to set
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_set_gp(sc_ipc_t ipc, sc_pad_t pad, uint32_t ctrl);
/*!
* This function gets the general purpose pad control. This
* is technology dependent and includes things like drive strength,
* slew rate, pull up/down, etc. Refer to the SoC Reference Manual
* for bit field details.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] ctrl pointer to return control value
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get_gp(sc_ipc_t ipc, sc_pad_t pad, uint32_t *ctrl);
/*!
* This function configures the wakeup mode of the pad.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] wakeup wakeup to set
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_set_wakeup(sc_ipc_t ipc, sc_pad_t pad, sc_pad_wakeup_t wakeup);
/*!
* This function gets the wakeup mode of a pad.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] wakeup pointer to return wakeup
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get_wakeup(sc_ipc_t ipc, sc_pad_t pad, sc_pad_wakeup_t *wakeup);
/*!
* This function configures a pad.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] mux mux setting
* @param[in] config pad config
* @param[in] iso low-power isolation mode
* @param[in] ctrl control value
* @param[in] wakeup wakeup to set
*
* @see sc_pad_set_mux().
* @see sc_pad_set_gp().
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_set_all(sc_ipc_t ipc, sc_pad_t pad, uint8_t mux,
sc_pad_config_t config, sc_pad_iso_t iso, uint32_t ctrl,
sc_pad_wakeup_t wakeup);
/*!
* This function gets a pad's config.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] mux pointer to return mux setting
* @param[out] config pointer to return pad config
* @param[out] iso pointer to return low-power isolation mode
* @param[out] ctrl pointer to return control value
* @param[out] wakeup pointer to return wakeup to set
*
* @see sc_pad_set_mux().
* @see sc_pad_set_gp().
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get_all(sc_ipc_t ipc, sc_pad_t pad, uint8_t *mux,
sc_pad_config_t *config, sc_pad_iso_t *iso,
uint32_t *ctrl, sc_pad_wakeup_t *wakeup);
/* @} */
/*!
* @name SoC Specific Functions
* @{
*/
/*!
* This function configures the settings for a pad. This setting is SoC
* specific.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] val value to set
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_set(sc_ipc_t ipc, sc_pad_t pad, uint32_t val);
/*!
* This function gets the settings for a pad. This setting is SoC
* specific.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] val pointer to return setting
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get(sc_ipc_t ipc, sc_pad_t pad, uint32_t *val);
/* @} */
/*!
* @name Technology Specific Functions
* @{
*/
/*!
* This function configures the pad control specific to 28FDSOI.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] dse drive strength
* @param[in] ps pull select
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner,
* - SC_ERR_UNAVAILABLE if process not applicable
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_set_gp_28fdsoi(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t dse,
sc_pad_28fdsoi_ps_t ps);
/*!
* This function gets the pad control specific to 28FDSOI.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] dse pointer to return drive strength
* @param[out] ps pointer to return pull select
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner,
* - SC_ERR_UNAVAILABLE if process not applicable
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get_gp_28fdsoi(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t *dse,
sc_pad_28fdsoi_ps_t *ps);
/*!
* This function configures the pad control specific to 28FDSOI.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] dse drive strength
* @param[in] hys hysteresis
* @param[in] pus pull-up select
* @param[in] pke pull keeper enable
* @param[in] pue pull-up enable
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner,
* - SC_ERR_UNAVAILABLE if process not applicable
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_set_gp_28fdsoi_hsic(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t dse, bool hys,
sc_pad_28fdsoi_pus_t pus, bool pke,
bool pue);
/*!
* This function gets the pad control specific to 28FDSOI.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] dse pointer to return drive strength
* @param[out] hys pointer to return hysteresis
* @param[out] pus pointer to return pull-up select
* @param[out] pke pointer to return pull keeper enable
* @param[out] pue pointer to return pull-up enable
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner,
* - SC_ERR_UNAVAILABLE if process not applicable
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get_gp_28fdsoi_hsic(sc_ipc_t ipc, sc_pad_t pad,
sc_pad_28fdsoi_dse_t *dse, bool *hys,
sc_pad_28fdsoi_pus_t *pus, bool *pke,
bool *pue);
/*!
* This function configures the compensation control specific to 28FDSOI.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to configure
* @param[in] compen compensation/freeze mode
* @param[in] fastfrz fast freeze
* @param[in] rasrcp compensation code for PMOS
* @param[in] rasrcn compensation code for NMOS
* @param[in] nasrc_sel NASRC read select
* @param[in] psw_ovr 2.5v override
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner,
* - SC_ERR_UNAVAILABLE if process not applicable
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*
* Note \a psw_ovr is only applicable to pads supporting 2.5 volt
* operation (e.g. some Ethernet pads).
*/
sc_err_t sc_pad_set_gp_28fdsoi_comp(sc_ipc_t ipc, sc_pad_t pad,
uint8_t compen, bool fastfrz,
uint8_t rasrcp, uint8_t rasrcn,
bool nasrc_sel, bool psw_ovr);
/*!
* This function gets the compensation control specific to 28FDSOI.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to query
* @param[out] compen pointer to return compensation/freeze mode
* @param[out] fastfrz pointer to return fast freeze
* @param[out] rasrcp pointer to return compensation code for PMOS
* @param[out] rasrcn pointer to return compensation code for NMOS
* @param[out] nasrc_sel pointer to return NASRC read select
* @param[out] compok pointer to return compensation status
* @param[out] nasrc pointer to return NASRCP/NASRCN
* @param[out] psw_ovr pointer to return the 2.5v override
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner,
* - SC_ERR_UNAVAILABLE if process not applicable
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
sc_err_t sc_pad_get_gp_28fdsoi_comp(sc_ipc_t ipc, sc_pad_t pad,
uint8_t *compen, bool *fastfrz,
uint8_t *rasrcp, uint8_t *rasrcn,
bool *nasrc_sel, bool *compok,
uint8_t *nasrc, bool *psw_ovr);
/* @} */
#endif /* _SC_PAD_API_H */
/**@}*/

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@ -0,0 +1,595 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file containing the public API for the System Controller (SC)
* Power Management (PM) function. This includes functions for power state
* control, clock control, reset control, and wake-up event control.
*
* @addtogroup PM_SVC (SVC) Power Management Service
*
* Module for the Power Management (PM) service.
*
* @{
*/
#ifndef _SC_PM_API_H
#define _SC_PM_API_H
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
/* Defines */
/*!
* @name Defines for type widths
*/
/*@{*/
#define SC_PM_POWER_MODE_W 2 /* Width of sc_pm_power_mode_t */
#define SC_PM_CLOCK_MODE_W 3 /* Width of sc_pm_clock_mode_t */
#define SC_PM_RESET_TYPE_W 2 /* Width of sc_pm_reset_type_t */
#define SC_PM_RESET_REASON_W 3 /* Width of sc_pm_reset_reason_t */
/*@}*/
/*!
* @name Defines for clock indexes (sc_pm_clk_t)
*/
/*@{*/
/*@}*/
/*!
* @name Defines for ALL parameters
*/
/*@{*/
#define SC_PM_CLK_ALL UINT8_MAX /* All clocks */
/*@}*/
/*!
* @name Defines for sc_pm_power_mode_t
*/
/*@{*/
#define SC_PM_PW_MODE_OFF 0 /* Power off */
#define SC_PM_PW_MODE_STBY 1 /* Power in standby */
#define SC_PM_PW_MODE_LP 2 /* Power in low-power */
#define SC_PM_PW_MODE_ON 3 /* Power on */
/*@}*/
/*!
* @name Defines for sc_pm_clk_t
*/
/*@{*/
#define SC_PM_CLK_SLV_BUS 0 /* Slave bus clock */
#define SC_PM_CLK_MST_BUS 1 /* Master bus clock */
#define SC_PM_CLK_PER 2 /* Peripheral clock */
#define SC_PM_CLK_PHY 3 /* Phy clock */
#define SC_PM_CLK_MISC 4 /* Misc clock */
#define SC_PM_CLK_MISC0 0 /* Misc 0 clock */
#define SC_PM_CLK_MISC1 1 /* Misc 1 clock */
#define SC_PM_CLK_MISC2 2 /* Misc 2 clock */
#define SC_PM_CLK_MISC3 3 /* Misc 3 clock */
#define SC_PM_CLK_MISC4 4 /* Misc 4 clock */
#define SC_PM_CLK_CPU 2 /* CPU clock */
#define SC_PM_CLK_PLL 4 /* PLL */
#define SC_PM_CLK_BYPASS 4 /* Bypass clock */
/*@}*/
/*!
* @name Defines for sc_pm_clk_mode_t
*/
/*@{*/
#define SC_PM_CLK_MODE_ROM_INIT 0 /* Clock is initialized by ROM. */
#define SC_PM_CLK_MODE_OFF 1 /* Clock is disabled */
#define SC_PM_CLK_MODE_ON 2 /* Clock is enabled. */
#define SC_PM_CLK_MODE_AUTOGATE_SW 3 /* Clock is in SW autogate mode */
#define SC_PM_CLK_MODE_AUTOGATE_HW 4 /* Clock is in HW autogate mode */
#define SC_PM_CLK_MODE_AUTOGATE_SW_HW 5 /* Clock is in SW-HW autogate mode */
/*@}*/
/*!
* @name Defines for sc_pm_clk_parent_t
*/
/*@{*/
#define SC_PM_PARENT_XTAL 0 /* Parent is XTAL. */
#define SC_PM_PARENT_PLL0 1 /* Parent is PLL0 */
#define SC_PM_PARENT_PLL1 2 /* Parent is PLL1 or PLL0/2 */
#define SC_PM_PARENT_PLL2 3 /* Parent in PLL2 or PLL0/4 */
#define SC_PM_PARENT_BYPS 4 /* Parent is a bypass clock. */
/*@}*/
/*!
* @name Defines for sc_pm_reset_type_t
*/
/*@{*/
#define SC_PM_RESET_TYPE_COLD 0 /* Cold reset */
#define SC_PM_RESET_TYPE_WARM 1 /* Warm reset */
#define SC_PM_RESET_TYPE_BOARD 2 /* Board reset */
/*@}*/
/*!
* @name Defines for sc_pm_reset_reason_t
*/
/*@{*/
#define SC_PM_RESET_REASON_POR 0 /* Power on reset */
#define SC_PM_RESET_REASON_WARM 1 /* Warm reset */
#define SC_PM_RESET_REASON_SW 2 /* Software reset */
#define SC_PM_RESET_REASON_WDOG 3 /* Watchdog reset */
#define SC_PM_RESET_REASON_LOCKUP 4 /* Lockup reset */
#define SC_PM_RESET_REASON_TAMPER 5 /* Tamper reset */
#define SC_PM_RESET_REASON_TEMP 6 /* Temp reset */
#define SC_PM_RESET_REASON_LOW_VOLT 7 /* Low voltage reset */
/*@}*/
/*!
* @name Defines for sc_pm_sys_if_t
*/
/*@{*/
#define SC_PM_SYS_IF_INTERCONNECT 0 /* System interconnect */
#define SC_PM_SYS_IF_MU 1 /* AP -> SCU message units */
#define SC_PM_SYS_IF_OCMEM 2 /* On-chip memory (ROM/OCRAM) */
#define SC_PM_SYS_IF_DDR 3 /* DDR memory */
/*@}*/
/* Types */
/*!
* This type is used to declare a power mode. Note resources only use
* SC_PM_PW_MODE_OFF and SC_PM_PW_MODE_ON. The other modes are used only
* as system power modes.
*/
typedef uint8_t sc_pm_power_mode_t;
/*!
* This type is used to declare a clock.
*/
typedef uint8_t sc_pm_clk_t;
/*!
* This type is used to declare a clock mode.
*/
typedef uint8_t sc_pm_clk_mode_t;
/*!
* This type is used to declare the clock parent.
*/
typedef uint8_t sc_pm_clk_parent_t;
/*!
* This type is used to declare clock rates.
*/
typedef uint32_t sc_pm_clock_rate_t;
/*!
* This type is used to declare a desired reset type.
*/
typedef uint8_t sc_pm_reset_type_t;
/*!
* This type is used to declare a reason for a reset.
*/
typedef uint8_t sc_pm_reset_reason_t;
/*!
* This type is used to specify a system-level interface to be power managed.
*/
typedef uint8_t sc_pm_sys_if_t;
/* Functions */
/*!
* @name Power Functions
* @{
*/
/*!
* This function sets the system power mode. Only the owner of the
* SC_R_SYSTEM resource can do this.
*
* @param[in] ipc IPC handle
* @param[in] mode power mode to apply
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid mode,
* - SC_ERR_NOACCESS if caller not the owner of SC_R_SYSTEM
*
* @see sc_pm_set_sys_power_mode().
*/
sc_err_t sc_pm_set_sys_power_mode(sc_ipc_t ipc, sc_pm_power_mode_t mode);
/*!
* This function sets the power mode of a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition
* @param[in] mode power mode to apply
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid partition or mode,
* - SC_ERR_NOACCESS if caller's partition is not the owner or
* parent of \a pt
*
* All resources owned by \a pt that are on will have their power
* mode changed to \a mode.
*
* @see sc_pm_set_resource_power_mode().
*/
sc_err_t sc_pm_set_partition_power_mode(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_pm_power_mode_t mode);
/*!
* This function gets the power mode of a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition
* @param[out] mode pointer to return power mode
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid partition
*/
sc_err_t sc_pm_get_sys_power_mode(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_pm_power_mode_t *mode);
/*!
* This function sets the power mode of a resource.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[in] mode power mode to apply
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or mode,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner
* or parent of the owner
*
* Resources set to SC_PM_PW_MODE_ON will reflect the
* power mode of the partition and will change as that changes.
*
* Note some resources are still not accessible even when powered up if bus
* transactions go through a fabric not powered up. Examples of this are
* resources in display and capture subsystems which require the display
* controller or the imaging subsytem to be powered up first.
*
* @see sc_pm_set_partition_power_mode().
*/
sc_err_t sc_pm_set_resource_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_power_mode_t mode);
/*!
* This function gets the power mode of a resource.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[out] mode pointer to return power mode
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Note only SC_PM_PW_MODE_OFF and SC_PM_PW_MODE_ON are valid. The value
* returned does not reflect the power mode of the partition..
*/
sc_err_t sc_pm_get_resource_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_power_mode_t *mode);
/*!
* This function requests the low power mode some of the resources
* can enter based on their state. This API is only valid for the
* following resources : SC_R_A53, SC_R_A53_0, SC_R_A53_1, SC_A53_2,
* SC_A53_3, SC_R_A72, SC_R_A72_0, SC_R_A72_1, SC_R_CC1, SC_R_A35,
* SC_R_A35_0, SC_R_A35_1, SC_R_A35_2, SC_R_A35_3.
* For all other resources it will return SC_ERR_PARAM.
* This function will set the low power mode the cores, cluster
* and cluster associated resources will enter when all the cores
* in a given cluster execute WFI
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[out] mode pointer to return power mode
*
* @return Returns an error code (SC_ERR_NONE = success).
*
*/
sc_err_t sc_pm_req_low_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_power_mode_t mode);
/*!
* This function is used to set the resume address of a CPU.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the CPU resource
* @param[in] address 64-bit resume address
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or address,
* - SC_ERR_NOACCESS if caller's partition is not the parent of the
* resource (CPU) owner
*/
sc_err_t sc_pm_set_cpu_resume_addr(sc_ipc_t ipc, sc_rsrc_t resource,
sc_faddr_t address);
/*!
* This function requests the power mode configuration for system-level
* interfaces including messaging units, interconnect, and memories. This API
* is only valid for the following resources : SC_R_A53, SC_R_A72, and
* SC_R_M4_x_PID_y. For all other resources, it will return SC_ERR_PARAM.
* The requested power mode will be captured and applied to system-level
* resources as system conditions allow.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[in] sys_if system-level interface to be configured
* @param[in] hpm high-power mode for the system interface
* @param[in] lpm low-power mode for the system interface
*
* @return Returns an error code (SC_ERR_NONE = success).
*
*/
sc_err_t sc_pm_req_sys_if_power_mode(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_sys_if_t sys_if,
sc_pm_power_mode_t hpm,
sc_pm_power_mode_t lpm);
/* @} */
/*!
* @name Clock/PLL Functions
* @{
*/
/*!
* This function sets the rate of a resource's clock/PLL.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[in] clk clock/PLL to affect
* @param[in,out] rate pointer to rate to set,
* return actual rate
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or clock/PLL,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner
* or parent of the owner,
* - SC_ERR_UNAVAILABLE if clock/PLL not applicable to this resource,
* - SC_ERR_LOCKED if rate locked (usually because shared clock/PLL)
*
* Refer to the [Clock List](@ref CLOCKS) for valid clock/PLL values.
*/
sc_err_t sc_pm_set_clock_rate(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clock_rate_t *rate);
/*!
* This function gets the rate of a resource's clock/PLL.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[in] clk clock/PLL to affect
* @param[out] rate pointer to return rate
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or clock/PLL,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner
* or parent of the owner,
* - SC_ERR_UNAVAILABLE if clock/PLL not applicable to this resource
*
* Refer to the [Clock List](@ref CLOCKS) for valid clock/PLL values.
*/
sc_err_t sc_pm_get_clock_rate(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clock_rate_t *rate);
/*!
* This function enables/disables a resource's clock.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[in] clk clock to affect
* @param[in] enable enable if true; otherwise disabled
* @param[in] autog HW auto clock gating
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or clock,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner
* or parent of the owner,
* - SC_ERR_UNAVAILABLE if clock not applicable to this resource
*
* Refer to the [Clock List](@ref CLOCKS) for valid clock values.
*/
sc_err_t sc_pm_clock_enable(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, bool enable, bool autog);
/*!
* This function sets the parent of a resource's clock.
* This function should only be called when the clock is disabled.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[in] clk clock to affect
* @param[in] parent New parent of the clock.
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or clock,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner
* or parent of the owner,
* - SC_ERR_UNAVAILABLE if clock not applicable to this resource
* - SC_ERR_BUSY if clock is currently enabled.
*
* Refer to the [Clock List](@ref CLOCKS) for valid clock values.
*/
sc_err_t sc_pm_set_clock_parent(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clk_parent_t parent);
/*!
* This function gets the parent of a resource's clock.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the resource
* @param[in] clk clock to affect
* @param[out] parent pointer to return parent of clock.
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or clock,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner
* or parent of the owner,
* - SC_ERR_UNAVAILABLE if clock not applicable to this resource
*
* Refer to the [Clock List](@ref CLOCKS) for valid clock values.
*/
sc_err_t sc_pm_get_clock_parent(sc_ipc_t ipc, sc_rsrc_t resource,
sc_pm_clk_t clk, sc_pm_clk_parent_t * parent);
/* @} */
/*!
* @name Reset Functions
* @{
*/
/*!
* This function is used to reset the system. Only the owner of the
* SC_R_SYSTEM resource can do this.
*
* @param[in] ipc IPC handle
* @param[in] type reset type
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid type,
* - SC_ERR_NOACCESS if caller not the owner of SC_R_SYSTEM
*
* If this function returns, then the reset did not occur due to an
* invalid parameter.
*/
sc_err_t sc_pm_reset(sc_ipc_t ipc, sc_pm_reset_type_t type);
/*!
* This function gets a caller's reset reason.
*
* @param[in] ipc IPC handle
* @param[out] reason pointer to return reset reason
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_pm_reset_reason(sc_ipc_t ipc, sc_pm_reset_reason_t *reason);
/*!
* This function is used to boot a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to boot
* @param[in] resource_cpu ID of the CPU resource to start
* @param[in] boot_addr 64-bit boot address
* @param[in] resource_mu ID of the MU that must be powered
* @param[in] resource_dev ID of the boot device that must be powered
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid partition, resource, or addr,
* - SC_ERR_NOACCESS if caller's partition is not the parent of the
* partition to boot
*/
sc_err_t sc_pm_boot(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_rsrc_t resource_cpu, sc_faddr_t boot_addr,
sc_rsrc_t resource_mu, sc_rsrc_t resource_dev);
/*!
* This function is used to reboot the caller's partition.
*
* @param[in] ipc IPC handle
* @param[in] type reset type
*
* If \a type is SC_PM_RESET_TYPE_COLD, then most peripherals owned by
* the calling partition will be reset if possible. SC state (partitions,
* power, clocks, etc.) is reset. The boot SW of the booting CPU must be
* able to handle peripherals that that are not reset.
*
* If \a type is SC_PM_RESET_TYPE_WARM, then only the boot CPU is reset.
* SC state (partitions, power, clocks, etc.) are NOT reset. The boot SW
* of the booting CPU must be able to handle peripherals and SC state that
* that are not reset.
*
* If \a type is SC_PM_RESET_TYPE_BOARD, then return with no action.
*
* If this function returns, then the reset did not occur due to an
* invalid parameter.
*/
void sc_pm_reboot(sc_ipc_t ipc, sc_pm_reset_type_t type);
/*!
* This function is used to reboot a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to reboot
* @param[in] type reset type
*
* If \a type is SC_PM_RESET_TYPE_COLD, then most peripherals owned by
* the calling partition will be reset if possible. SC state (partitions,
* power, clocks, etc.) is reset. The boot SW of the booting CPU must be
* able to handle peripherals that that are not reset.
*
* If \a type is SC_PM_RESET_TYPE_WARM, then only the boot CPU is reset.
* SC state (partitions, power, clocks, etc.) are NOT reset. The boot SW
* of the booting CPU must be able to handle peripherals and SC state that
* that are not reset.
*
* If \a type is SC_PM_RESET_TYPE_BOARD, then return with no action.
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid partition or type
* - SC_ERR_NOACCESS if caller's partition is not the parent of \a pt,
*
* Most peripherals owned by the partition will be reset if
* possible. SC state (partitions, power, clocks, etc.) is reset. The
* boot SW of the booting CPU must be able to handle peripherals that
* that are not reset.
*/
sc_err_t sc_pm_reboot_partition(sc_ipc_t ipc, sc_rm_pt_t pt,
sc_pm_reset_type_t type);
/*!
* This function is used to start/stop a CPU.
*
* @param[in] ipc IPC handle
* @param[in] resource ID of the CPU resource
* @param[in] enable start if true; otherwise stop
* @param[in] address 64-bit boot address
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid resource or address,
* - SC_ERR_NOACCESS if caller's partition is not the parent of the
* resource (CPU) owner
*/
sc_err_t sc_pm_cpu_start(sc_ipc_t ipc, sc_rsrc_t resource, bool enable,
sc_faddr_t address);
/* @} */
#endif /* _SC_PM_API_H */
/**@}*/

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@ -0,0 +1,758 @@
/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file containing the public API for the System Controller (SC)
* Resource Management (RM) function. This includes functions for
* partitioning resources, pads, and memory regions.
*
* @addtogroup RM_SVC (SVC) Resource Management Service
*
* Module for the Resource Management (RM) service.
*
* @includedoc rm/details.dox
*
* @{
*/
#ifndef _SC_RM_API_H
#define _SC_RM_API_H
/* Includes */
#include <soc/imx8/sc/types.h>
/* Defines */
/*!
* @name Defines for type widths
*/
/*@{*/
#define SC_RM_PARTITION_W 5 /* Width of sc_rm_pt_t */
#define SC_RM_MEMREG_W 6 /* Width of sc_rm_mr_t */
#define SC_RM_DID_W 4 /* Width of sc_rm_did_t */
#define SC_RM_SID_W 6 /* Width of sc_rm_sid_t */
#define SC_RM_SPA_W 2 /* Width of sc_rm_spa_t */
#define SC_RM_PERM_W 3 /* Width of sc_rm_perm_t */
/*@}*/
/*!
* @name Defines for ALL parameters
*/
/*@{*/
#define SC_RM_PT_ALL UINT8_MAX /* All partitions */
#define SC_RM_MR_ALL UINT8_MAX /* All memory regions */
/*@}*/
/*!
* @name Defines for sc_rm_spa_t
*/
/*@{*/
#define SC_RM_SPA_PASSTHRU 0 /* Pass through (attribute driven by master) */
#define SC_RM_SPA_PASSSID 1 /* Pass through and output on SID */
#define SC_RM_SPA_ASSERT 2 /* Assert (force to be secure/privileged) */
#define SC_RM_SPA_NEGATE 3 /* Negate (force to be non-secure/user) */
/*@}*/
/*!
* @name Defines for sc_rm_perm_t
*/
/*@{*/
#define SC_RM_PERM_NONE 0 /* No access */
#define SC_RM_PERM_SEC_R 1 /* Secure RO */
#define SC_RM_PERM_SECPRIV_RW 2 /* Secure privilege R/W */
#define SC_RM_PERM_SEC_RW 3 /* Secure R/W */
#define SC_RM_PERM_NSPRIV_R 4 /* Secure R/W, non-secure privilege RO */
#define SC_RM_PERM_NS_R 5 /* Secure R/W, non-secure RO */
#define SC_RM_PERM_NSPRIV_RW 6 /* Secure R/W, non-secure privilege R/W */
#define SC_RM_PERM_FULL 7 /* Full access */
/*@}*/
/* Types */
/*!
* This type is used to declare a resource partition.
*/
typedef uint8_t sc_rm_pt_t;
/*!
* This type is used to declare a memory region.
*/
typedef uint8_t sc_rm_mr_t;
/*!
* This type is used to declare a resource domain ID used by the
* isolation HW.
*/
typedef uint8_t sc_rm_did_t;
/*!
* This type is used to declare an SMMU StreamID.
*/
typedef uint16_t sc_rm_sid_t;
/*!
* This type is a used to declare master transaction attributes.
*/
typedef uint8_t sc_rm_spa_t;
/*!
* This type is used to declare a resource/memory region access permission.
* Refer to the XRDC2 Block Guide for more information.
*/
typedef uint8_t sc_rm_perm_t;
/* Functions */
/*!
* @name Partition Functions
* @{
*/
/*!
* This function requests that the SC create a new resource partition.
*
* @param[in] ipc IPC handle
* @param[out] pt return handle for partition; used for subsequent function
* calls associated with this partition
* @param[in] secure boolean indicating if this partition should be secure; only
* valid if caller is secure
* @param[in] isolated boolean indicating if this partition should be HW isolated
* via XRDC; set true if new DID is desired
* @param[in] restricted boolean indicating if this partition should be restricted; set
* true if masters in this partition cannot create new partitions
* @param[in] grant boolean indicating if this partition should always grant
* access and control to the parent
* @param[in] coherent boolean indicating if this partition is coherent;
* set true if only this partition will contain both AP clusters
* and they will be coherent via the CCI
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_ERR_PARM if caller's partition is not secure but a new secure partition is requested,
* - SC_ERR_LOCKED if caller's partition is locked,
* - SC_ERR_UNAVAILABLE if partition table is full (no more allocation space)
*
* Marking as non-secure prevents subsequent functions from configuring masters in this
* partition to assert the secure signal. If restricted then the new partition is limited
* in what functions it can call, especially those associated with managing partitions.
*
* The grant option is usually used to isolate a bus master's traffic to specific
* memory without isolating the peripheral interface of the master or the API
* controls of that master.
*/
sc_err_t sc_rm_partition_alloc(sc_ipc_t ipc, sc_rm_pt_t *pt, bool secure,
bool isolated, bool restricted, bool grant,
bool coherent);
/*!
* This function makes a partition confidential.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition that is granting
* @param[in] retro retroactive
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if \a pt out of range,
* - SC_ERR_NOACCESS if caller's not allowed to change \a pt
* - SC_ERR_LOCKED if partition \a pt is locked
*
* Call to make a partition confidential. Confidential means only this
* partition should be able to grant access permissions to this partition.
*
* If retroactive, then all resources owned by other partitions will have
* access rights for this partition removed, even if locked.
*/
sc_err_t sc_rm_set_confidential(sc_ipc_t ipc, sc_rm_pt_t pt, bool retro);
/*!
* This function frees a partition and assigns all resources to the caller.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to free
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if \a pt out of range or invalid,
* - SC_ERR_NOACCESS if \a pt is the SC partition,
* - SC_ERR_NOACCESS if caller's partition is not the parent of \a pt,
* - SC_ERR_LOCKED if \a pt or caller's partition is locked
*
* All resources, memory regions, and pads are assigned to the caller/parent.
* The partition watchdog is disabled (even if locked). DID is freed.
*/
sc_err_t sc_rm_partition_free(sc_ipc_t ipc, sc_rm_pt_t pt);
/*!
* This function returns the DID of a partition.
*
* @param[in] ipc IPC handle
*
* @return Returns the domain ID (DID) of the caller's partition.
*
* The DID is a SoC-specific internal ID used by the HW resource
* protection mechanism. It is only required by clients when using the
* SEMA42 module as the DID is sometimes connected to the master ID.
*/
sc_rm_did_t sc_rm_get_did(sc_ipc_t ipc);
/*!
* This function forces a partition to use a specific static DID.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to assign \a did
* @param[in] did static DID to assign
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if \a pt or \a did out of range,
* - SC_ERR_NOACCESS if caller's partition is not the parent of \a pt,
* - SC_ERR_LOCKED if \a pt is locked
*
* Assumes no assigned resources or memory regions yet! The number of static
* DID is fixed by the SC at boot.
*/
sc_err_t sc_rm_partition_static(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rm_did_t did);
/*!
* This function locks a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to lock
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if \a pt out of range,
* - SC_ERR_NOACCESS if caller's partition is not the parent of \a pt
*
* If a partition is locked it cannot be freed, have resources/pads assigned
* to/from it, memory regions created/assigned, DID changed, or parent changed.
*/
sc_err_t sc_rm_partition_lock(sc_ipc_t ipc, sc_rm_pt_t pt);
/*!
* This function gets the partition handle of the caller.
*
* @param[in] ipc IPC handle
* @param[out] pt return handle for caller's partition
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_rm_get_partition(sc_ipc_t ipc, sc_rm_pt_t *pt);
/*!
* This function sets a new parent for a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition for which parent is to be
* changed
* @param[in] pt_parent handle of partition to set as parent
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the parent of \a pt,
* - SC_ERR_LOCKED if either partition is locked
*/
sc_err_t sc_rm_set_parent(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rm_pt_t pt_parent);
/*!
* This function moves all movable resources/pads owned by a source partition
* to a destination partition. It can be used to more quickly set up a new
* partition if a majority of the caller's resources are to be moved to a
* new partition.
*
* @param[in] ipc IPC handle
* @param[in] pt_src handle of partition from which resources should
* be moved from
* @param[in] pt_dst handle of partition to which resources should be
* moved to
* @param[in] move_rsrc boolean to indicate if resources should be moved
* @param[in] move_pads boolean to indicate if pads should be moved
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* By default, all resources are movable. This can be changed using the
* sc_rm_set_resource_movable() function. Note all masters defaulted to SMMU
* bypass.
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not \a pt_src or the
* parent of \a pt_src,
* - SC_ERR_LOCKED if either partition is locked
*/
sc_err_t sc_rm_move_all(sc_ipc_t ipc, sc_rm_pt_t pt_src, sc_rm_pt_t pt_dst,
bool move_rsrc, bool move_pads);
/* @} */
/*!
* @name Resource Functions
* @{
*/
/*!
* This function assigns ownership of a resource to a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to which resource should be
* assigned
* @param[in] resource resource to assign
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* This action resets the resource's master and peripheral attributes.
* Privilege attribute will be PASSTHRU, security attribute will be
* ASSERT if the partition si secure and NEGATE if it is not, and
* masters will defaulted to SMMU bypass. Access permissions will reset
* to SEC_RW for the owning partition only for secure partitions, FULL for
* non-secure. DEfault is no access by other partitions.
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner or parent
* of the owner,
* - SC_ERR_LOCKED if the owning partition or \a pt is locked
*/
sc_err_t sc_rm_assign_resource(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rsrc_t resource);
/*!
* This function flags resources as movable or not.
*
* @param[in] ipc IPC handle
* @param[in] resource_fst first resource for which flag should be set
* @param[in] resource_lst last resource for which flag should be set
* @param[in] movable movable flag (true) is movable
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if resources are out of range,
* - SC_ERR_NOACCESS if caller's partition is not a parent of a resource owner,
* - SC_ERR_LOCKED if the owning partition is locked
*
* This function is used to determine the set of resources that will be
* moved using the sc_rm_move_all() function. All resources are movable
* by default so this function is normally used to prevent a set of
* resources from moving.
*/
sc_err_t sc_rm_set_resource_movable(sc_ipc_t ipc, sc_rsrc_t resource_fst,
sc_rsrc_t resource_lst, bool movable);
/*!
* This function flags all of a subsystem's resources as movable
* or not.
*
* @param[in] ipc IPC handle
* @param[in] resource resource to use to identify subsystem
* @param[in] movable movable flag (true) is movable
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if a function argument is out of range
*
* Note \a resource is used to find the associated subsystem. Only
* resources owned by the caller are set.
*/
sc_err_t sc_rm_set_subsys_rsrc_movable(sc_ipc_t ipc, sc_rsrc_t resource,
bool movable);
/*!
* This function sets attributes for a resource which is a bus master (i.e.
* capable of DMA).
*
* @param[in] ipc IPC handle
* @param[in] resource master resource for which attributes should apply
* @param[in] sa security attribute
* @param[in] pa privilege attribute
* @param[in] smmu_bypass SMMU bypass mode
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not a parent of the resource owner,
* - SC_ERR_LOCKED if the owning partition is locked
*
* This function configures how the HW isolation will see bus transactions
* from the specified master. Note the security attribute will only be
* changed if the caller's partition is secure.
*/
sc_err_t sc_rm_set_master_attributes(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rm_spa_t sa, sc_rm_spa_t pa,
bool smmu_bypass);
/*!
* This function sets the StreamID for a resource which is a bus master (i.e.
* capable of DMA).
*
* @param[in] ipc IPC handle
* @param[in] resource master resource for which attributes should apply
* @param[in] sid StreamID
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner or parent
* of the owner,
* - SC_ERR_LOCKED if the owning partition is locked
*
* This function configures the SID attribute associated with all bus transactions
* from this master. Note 0 is not a valid SID as it is reserved to indicate
* bypass.
*/
sc_err_t sc_rm_set_master_sid(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rm_sid_t sid);
/*!
* This function sets access permissions for a peripheral resource.
*
* @param[in] ipc IPC handle
* @param[in] resource peripheral resource for which permissions should apply
* @param[in] pt handle of partition \a perm should by applied for
* @param[in] perm permissions to apply to \a resource for \a pt
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the resource owner or parent
* of the owner,
* - SC_ERR_LOCKED if the owning partition is locked
* - SC_ERR_LOCKED if the \a pt is confidential and the caller isn't \a pt
*
* This function configures how the HW isolation will restrict access to a
* peripheral based on the attributes of a transaction from bus master.
*/
sc_err_t sc_rm_set_peripheral_permissions(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rm_pt_t pt, sc_rm_perm_t perm);
/*!
* This function gets ownership status of a resource.
*
* @param[in] ipc IPC handle
* @param[in] resource resource to check
*
* @return Returns a boolean (true if caller's partition owns the resource).
*
* If \a resource is out of range then false is returned.
*/
bool sc_rm_is_resource_owned(sc_ipc_t ipc, sc_rsrc_t resource);
/*!
* This function is used to test if a resource is a bus master.
*
* @param[in] ipc IPC handle
* @param[in] resource resource to check
*
* @return Returns a boolean (true if the resource is a bus master).
*
* If \a resource is out of range then false is returned.
*/
bool sc_rm_is_resource_master(sc_ipc_t ipc, sc_rsrc_t resource);
/*!
* This function is used to test if a resource is a peripheral.
*
* @param[in] ipc IPC handle
* @param[in] resource resource to check
*
* @return Returns a boolean (true if the resource is a peripheral).
*
* If \a resource is out of range then false is returned.
*/
bool sc_rm_is_resource_peripheral(sc_ipc_t ipc, sc_rsrc_t resource);
/*!
* This function is used to obtain info about a resource.
*
* @param[in] ipc IPC handle
* @param[in] resource resource to inquire about
* @param[out] sid pointer to return StreamID
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if \a resource is out of range
*/
sc_err_t sc_rm_get_resource_info(sc_ipc_t ipc, sc_rsrc_t resource,
sc_rm_sid_t *sid);
/* @} */
/*!
* @name Memory Region Functions
* @{
*/
/*!
* This function requests that the SC create a new memory region.
*
* @param[in] ipc IPC handle
* @param[out] mr return handle for region; used for
* subsequent function calls
* associated with this region
* @param[in] addr_start start address of region (physical)
* @param[in] addr_end end address of region (physical)
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if the new memory region is misaligned,
* - SC_ERR_LOCKED if caller's partition is locked,
* - SC_ERR_PARM if the new memory region spans multiple existing regions,
* - SC_ERR_NOACCESS if caller's partition does not own the memory containing
* the new region,
* - SC_ERR_UNAVAILABLE if memory region table is full (no more allocation
* space)
*
* The area covered by the memory region must currently be owned by the caller.
* By default, the new region will have access permission set to allow the
* caller to access.
*/
sc_err_t sc_rm_memreg_alloc(sc_ipc_t ipc, sc_rm_mr_t *mr,
sc_faddr_t addr_start, sc_faddr_t addr_end);
/*!
* This function requests that the SC split a memory region.
*
* @param[in] ipc IPC handle
* @param[in] mr handle of memory region to split
* @param[out] mr_ret return handle for new region; used for
* subsequent function calls
* associated with this region
* @param[in] addr_start start address of region (physical)
* @param[in] addr_end end address of region (physical)
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if the new memory region is not start/end part of mr,
* - SC_ERR_LOCKED if caller's partition is locked,
* - SC_ERR_PARM if the new memory region spans multiple existing regions,
* - SC_ERR_NOACCESS if caller's partition does not own the memory containing
* the new region,
* - SC_ERR_UNAVAILABLE if memory region table is full (no more allocation
* space)
*
* Note the new region must start or end on the split region.
*/
sc_err_t sc_rm_memreg_split(sc_ipc_t ipc, sc_rm_mr_t mr,
sc_rm_mr_t *mr_ret, sc_faddr_t addr_start,
sc_faddr_t addr_end);
/*!
* This function frees a memory region.
*
* @param[in] ipc IPC handle
* @param[in] mr handle of memory region to free
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if \a mr out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not a parent of \a mr,
* - SC_ERR_LOCKED if the owning partition of \a mr is locked
*/
sc_err_t sc_rm_memreg_free(sc_ipc_t ipc, sc_rm_mr_t mr);
/*!
* Internal SC function to find a memory region.
*
* @see sc_rm_find_memreg().
*/
/*!
* This function finds a memory region.
*
* @param[in] ipc IPC handle
* @param[out] mr return handle for region; used for
* subsequent function calls
* associated with this region
* @param[in] addr_start start address of region to search for
* @param[in] addr_end end address of region to search for
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOTFOUND if region not found,
*
* Searches only for regions owned by the caller. Finds first
* region containing the range specified.
*/
sc_err_t sc_rm_find_memreg(sc_ipc_t ipc, sc_rm_mr_t *mr,
sc_faddr_t addr_start, sc_faddr_t addr_end);
/*!
* This function assigns ownership of a memory region.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to which memory region
* should be assigned
* @param[in] mr handle of memory region to assign
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the \a mr owner or parent
* of the owner,
* - SC_ERR_LOCKED if the owning partition or \a pt is locked
*/
sc_err_t sc_rm_assign_memreg(sc_ipc_t ipc, sc_rm_pt_t pt, sc_rm_mr_t mr);
/*!
* This function sets access permissions for a memory region.
*
* @param[in] ipc IPC handle
* @param[in] mr handle of memory region for which permissions
* should apply
* @param[in] pt handle of partition \a perm should by
* applied for
* @param[in] perm permissions to apply to \a mr for \a pt
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the region owner or parent
* of the owner,
* - SC_ERR_LOCKED if the owning partition is locked
* - SC_ERR_LOCKED if the \a pt is confidential and the caller isn't \a pt
*
* This function configures how the HW isolation will restrict access to a
* memory region based on the attributes of a transaction from bus master.
*/
sc_err_t sc_rm_set_memreg_permissions(sc_ipc_t ipc, sc_rm_mr_t mr,
sc_rm_pt_t pt, sc_rm_perm_t perm);
/*!
* This function gets ownership status of a memory region.
*
* @param[in] ipc IPC handle
* @param[in] mr handle of memory region to check
*
* @return Returns a boolean (true if caller's partition owns the
* memory region).
*
* If \a mr is out of range then false is returned.
*/
bool sc_rm_is_memreg_owned(sc_ipc_t ipc, sc_rm_mr_t mr);
/*!
* This function is used to obtain info about a memory region.
*
* @param[in] ipc IPC handle
* @param[in] mr handle of memory region to inquire about
* @param[out] addr_start pointer to return start address
* @param[out] addr_end pointer to return end address
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if \a mr is out of range
*/
sc_err_t sc_rm_get_memreg_info(sc_ipc_t ipc, sc_rm_mr_t mr,
sc_faddr_t *addr_start, sc_faddr_t *addr_end);
/* @} */
/*!
* @name Pad Functions
* @{
*/
/*!
* This function assigns ownership of a pad to a partition.
*
* @param[in] ipc IPC handle
* @param[in] pt handle of partition to which pad should
* be assigned
* @param[in] pad pad to assign
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_NOACCESS if caller's partition is restricted,
* - SC_PARM if arguments out of range or invalid,
* - SC_ERR_NOACCESS if caller's partition is not the pad owner or parent
* of the owner,
* - SC_ERR_LOCKED if the owning partition or \a pt is locked
*/
sc_err_t sc_rm_assign_pad(sc_ipc_t ipc, sc_rm_pt_t pt, sc_pad_t pad);
/*!
* This function flags pads as movable or not.
*
* @param[in] ipc IPC handle
* @param[in] pad_fst first pad for which flag should be set
* @param[in] pad_lst last pad for which flag should be set
* @param[in] movable movable flag (true) is movable
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_PARM if pads are out of range,
* - SC_ERR_NOACCESS if caller's partition is not a parent of a pad owner,
* - SC_ERR_LOCKED if the owning partition is locked
*
* This function is used to determine the set of pads that will be
* moved using the sc_rm_move_all() function. All pads are movable
* by default so this function is normally used to prevent a set of
* pads from moving.
*/
sc_err_t sc_rm_set_pad_movable(sc_ipc_t ipc, sc_pad_t pad_fst,
sc_pad_t pad_lst, bool movable);
/*!
* This function gets ownership status of a pad.
*
* @param[in] ipc IPC handle
* @param[in] pad pad to check
*
* @return Returns a boolean (true if caller's partition owns the pad).
*
* If \a pad is out of range then false is returned.
*/
bool sc_rm_is_pad_owned(sc_ipc_t ipc, sc_pad_t pad);
/* @} */
/*!
* @name Debug Functions
* @{
*/
/*!
* This function dumps the RM state for debug.
*
* @param[in] ipc IPC handle
*/
void sc_rm_dump(sc_ipc_t ipc);
/* @} */
#endif /* _SC_RM_API_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file containing the public API for the System Controller (SC)
* Timer function.
*
* @addtogroup TIMER_SVC (SVC) Timer Service
*
* Module for the Timer service. This includes support for the watchdog, RTC,
* and system counter. Note every resource partition has a watchdog it can
* use.
*
* @{
*/
#ifndef _SC_TIMER_API_H
#define _SC_TIMER_API_H
/* Includes */
#include <soc/imx8/sc/types.h>
#include <soc/imx8/sc/svc/rm/api.h>
/* Defines */
/*!
* @name Defines for type widths
*/
/*@{*/
#define SC_TIMER_ACTION_W 3 /* Width of sc_timer_wdog_action_t */
/*@}*/
/*!
* @name Defines for sc_timer_wdog_action_t
*/
/*@{*/
#define SC_TIMER_WDOG_ACTION_PARTITION 0 /* Reset partition */
#define SC_TIMER_WDOG_ACTION_WARM 1 /* Warm reset system */
#define SC_TIMER_WDOG_ACTION_COLD 2 /* Cold reset system */
#define SC_TIMER_WDOG_ACTION_BOARD 3 /* Reset board */
#define SC_TIMER_WDOG_ACTION_IRQ 4 /* Only generate IRQs */
/*@}*/
/* Types */
/*!
* This type is used to configure the watchdog action.
*/
typedef uint8_t sc_timer_wdog_action_t;
/*!
* This type is used to declare a watchdog time value in milliseconds.
*/
typedef uint32_t sc_timer_wdog_time_t;
/* Functions */
/*!
* @name Wathdog Functions
* @{
*/
/*!
* This function sets the watchdog timeout in milliseconds. If not
* set then the timeout defaults to the max. Once locked this value
* cannot be changed.
*
* @param[in] ipc IPC handle
* @param[in] timeout timeout period for the watchdog
*
* @return Returns an error code (SC_ERR_NONE = success, SC_ERR_LOCKED
* = locked).
*/
sc_err_t sc_timer_set_wdog_timeout(sc_ipc_t ipc, sc_timer_wdog_time_t timeout);
/*!
* This function sets the watchdog pre-timeout in milliseconds. If not
* set then the pre-timeout defaults to the max. Once locked this value
* cannot be changed.
*
* @param[in] ipc IPC handle
* @param[in] pre_timeout pre-timeout period for the watchdog
*
* When the pre-timout expires an IRQ will be generated. Note this timeout
* clears when the IRQ is triggered. An IRQ is generated for the failing
* partition and all of its child partitions.
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_timer_set_wdog_pre_timeout(sc_ipc_t ipc,
sc_timer_wdog_time_t pre_timeout);
/*!
* This function starts the watchdog.
*
* @param[in] ipc IPC handle
* @param[in] lock boolean indicating the lock status
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* If \a lock is set then the watchdog cannot be stopped or the timeout
* period changed.
*/
sc_err_t sc_timer_start_wdog(sc_ipc_t ipc, bool lock);
/*!
* This function stops the watchdog if it is not locked.
*
* @param[in] ipc IPC handle
*
* @return Returns an error code (SC_ERR_NONE = success, SC_ERR_LOCKED
* = locked).
*/
sc_err_t sc_timer_stop_wdog(sc_ipc_t ipc);
/*!
* This function pings (services, kicks) the watchdog resetting the time
* before expiration back to the timeout.
*
* @param[in] ipc IPC handle
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_timer_ping_wdog(sc_ipc_t ipc);
/*!
* This function gets the status of the watchdog. All arguments are
* in milliseconds.
*
* @param[in] ipc IPC handle
* @param[out] timeout pointer to return the timeout
* @param[out] max_timeout pointer to return the max timeout
* @param[out] remaining_time pointer to return the time remaining
* until trigger
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_timer_get_wdog_status(sc_ipc_t ipc,
sc_timer_wdog_time_t *timeout,
sc_timer_wdog_time_t *max_timeout,
sc_timer_wdog_time_t *remaining_time);
/*!
* This function gets the status of the watchdog of a partition. All
* arguments are in milliseconds.
*
* @param[in] ipc IPC handle
* @param[in] pt partition to query
* @param[out] enb pointer to return enable status
* @param[out] timeout pointer to return the timeout
* @param[out] remaining_time pointer to return the time remaining
* until trigger
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_timer_pt_get_wdog_status(sc_ipc_t ipc, sc_rm_pt_t pt, bool *enb,
sc_timer_wdog_time_t *timeout,
sc_timer_wdog_time_t *remaining_time);
/*!
* This function configures the action to be taken when a watchdog
* expires.
*
* @param[in] ipc IPC handle
* @param[in] pt partition to affect
* @param[in] action action to take
*
* Default action is inherited from the parent.
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid parameters,
* - SC_ERR_NOACCESS if caller's partition is not the SYSTEM owner,
* - SC_ERR_LOCKED if the watchdog is locked
*/
sc_err_t sc_timer_set_wdog_action(sc_ipc_t ipc,
sc_rm_pt_t pt, sc_timer_wdog_action_t action);
/* @} */
/*!
* @name Real-Time Clock (RTC) Functions
* @{
*/
/*!
* This function sets the RTC time. Only the owner of the SC_R_SYSTEM
* resource can set the time.
*
* @param[in] ipc IPC handle
* @param[in] year year (min 1970)
* @param[in] mon month (1-12)
* @param[in] day day of the month (1-31)
* @param[in] hour hour (0-23)
* @param[in] min minute (0-59)
* @param[in] sec second (0-59)
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid time/date parameters,
* - SC_ERR_NOACCESS if caller's partition is not the SYSTEM owner
*/
sc_err_t sc_timer_set_rtc_time(sc_ipc_t ipc, uint16_t year, uint8_t mon,
uint8_t day, uint8_t hour, uint8_t min,
uint8_t sec);
/*!
* This function gets the RTC time.
*
* @param[in] ipc IPC handle
* @param[out] year pointer to return year (min 1970)
* @param[out] mon pointer to return month (1-12)
* @param[out] day pointer to return day of the month (1-31)
* @param[out] hour pointer to return hour (0-23)
* @param[out] min pointer to return minute (0-59)
* @param[out] sec pointer to return second (0-59)
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_timer_get_rtc_time(sc_ipc_t ipc, uint16_t *year, uint8_t *mon,
uint8_t *day, uint8_t *hour, uint8_t *min,
uint8_t *sec);
/*!
* This function gets the RTC time in seconds since 1/1/1970.
*
* @param[in] ipc IPC handle
* @param[out] sec pointer to return second
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_timer_get_rtc_sec1970(sc_ipc_t ipc, uint32_t *sec);
/*!
* This function sets the RTC alarm.
*
* @param[in] ipc IPC handle
* @param[in] year year (min 1970)
* @param[in] mon month (1-12)
* @param[in] day day of the month (1-31)
* @param[in] hour hour (0-23)
* @param[in] min minute (0-59)
* @param[in] sec second (0-59)
*
* Note this alarm setting clears when the alarm is triggered.
*
* @return Returns an error code (SC_ERR_NONE = success).
*
* Return errors:
* - SC_ERR_PARM if invalid time/date parameters
*/
sc_err_t sc_timer_set_rtc_alarm(sc_ipc_t ipc, uint16_t year, uint8_t mon,
uint8_t day, uint8_t hour, uint8_t min,
uint8_t sec);
/*!
* This function sets the RTC calibration value. Only the owner of the SC_R_SYSTEM
* resource can set the calibration.
*
* @param[in] ipc IPC handle
* @param[in] count calbration count (-16 to 15)
*
* The calibration value is a 5-bit value including the sign bit, which is
* implemented in 2's complement. It is added or subtracted from the RTC on
* a perdiodic basis, once per 32768 cycles of the RTC clock.
*
* @return Returns an error code (SC_ERR_NONE = success).
*/
sc_err_t sc_timer_set_rtc_calb(sc_ipc_t ipc, int8_t count);
/* @} */
#endif /* _SC_TIMER_API_H */
/**@}*/

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/*
* Copyright (C) 2016 Freescale Semiconductor, Inc.
* Copyright 2017 NXP
*
* SPDX-License-Identifier: GPL-2.0+
*/
/*!
* Header file containing types used across multiple service APIs.
*/
#ifndef _SC_TYPES_H
#define _SC_TYPES_H
/* Includes */
#include <soc/imx8/sc/scfw.h>
/* Defines */
/*!
* @name Defines for common frequencies
*/
/*@{*/
#define SC_32KHZ 32768 /* 32KHz */
#define SC_10MHZ 10000000 /* 10MHz */
#define SC_20MHZ 20000000 /* 20MHz */
#define SC_25MHZ 25000000 /* 25MHz */
#define SC_27MHZ 27000000 /* 27MHz */
#define SC_40MHZ 40000000 /* 40MHz */
#define SC_45MHZ 45000000 /* 45MHz */
#define SC_50MHZ 50000000 /* 50MHz */
#define SC_60MHZ 60000000 /* 60MHz */
#define SC_66MHZ 66666666 /* 66MHz */
#define SC_74MHZ 74250000 /* 74.25MHz */
#define SC_80MHZ 80000000 /* 80MHz */
#define SC_83MHZ 83333333 /* 83MHz */
#define SC_84MHZ 84375000 /* 84.37MHz */
#define SC_100MHZ 100000000 /* 100MHz */
#define SC_125MHZ 125000000 /* 125MHz */
#define SC_133MHZ 133333333 /* 133MHz */
#define SC_135MHZ 135000000 /* 135MHz */
#define SC_150MHZ 150000000 /* 150MHz */
#define SC_160MHZ 160000000 /* 160MHz */
#define SC_166MHZ 166666666 /* 160MHz */
#define SC_175MHZ 175000000 /* 175MHz */
#define SC_180MHZ 180000000 /* 180MHz */
#define SC_200MHZ 200000000 /* 200MHz */
#define SC_250MHZ 250000000 /* 250MHz */
#define SC_266MHZ 266666666 /* 266MHz */
#define SC_300MHZ 300000000 /* 300MHz */
#define SC_320MHZ 320000000 /* 320MHz */
#define SC_325MHZ 325000000 /* 325MHz */
#define SC_333MHZ 333333333 /* 333MHz */
#define SC_350MHZ 350000000 /* 350MHz */
#define SC_372MHZ 372000000 /* 372MHz */
#define SC_375MHZ 375000000 /* 375MHz */
#define SC_400MHZ 400000000 /* 400MHz */
#define SC_500MHZ 500000000 /* 500MHz */
#define SC_594MHZ 594000000 /* 594MHz */
#define SC_650MHZ 650000000 /* 650MHz */
#define SC_667MHZ 666666667 /* 667MHz */
#define SC_675MHZ 675000000 /* 675MHz */
#define SC_700MHZ 700000000 /* 700MHz */
#define SC_720MHZ 720000000 /* 720MHz */
#define SC_750MHZ 750000000 /* 750MHz */
#define SC_800MHZ 800000000 /* 800MHz */
#define SC_850MHZ 850000000 /* 850MHz */
#define SC_900MHZ 900000000 /* 900MHz */
#define SC_1000MHZ 1000000000 /* 1GHz */
#define SC_1056MHZ 1056000000 /* 1.056GHz */
#define SC_1188MHZ 1188000000 /* 1.188GHz */
#define SC_1260MHZ 1260000000 /* 1.26GHz */
#define SC_1300MHZ 1300000000 /* 1.3GHz */
#define SC_1400MHZ 1400000000 /* 1.4GHz */
#define SC_1500MHZ 1500000000 /* 1.5GHz */
#define SC_1600MHZ 1600000000 /* 1.6GHz */
#define SC_1800MHZ 1800000000 /* 1.8GHz */
#define SC_2000MHZ 2000000000 /* 2.0GHz */
#define SC_2112MHZ 2112000000 /* 2.12GHz */
/*@}*/
/*!
* @name Defines for 24M related frequencies
*/
/*@{*/
#define SC_8MHZ 8000000 /* 8MHz */
#define SC_12MHZ 12000000 /* 12MHz */
#define SC_19MHZ 19800000 /* 19.8MHz */
#define SC_24MHZ 24000000 /* 24MHz */
#define SC_48MHZ 48000000 /* 48MHz */
#define SC_120MHZ 120000000 /* 120MHz */
#define SC_132MHZ 132000000 /* 132MHz */
#define SC_144MHZ 144000000 /* 144MHz */
#define SC_192MHZ 192000000 /* 192MHz */
#define SC_211MHZ 211200000 /* 211.2MHz */
#define SC_240MHZ 240000000 /* 240MHz */
#define SC_264MHZ 264000000 /* 264MHz */
#define SC_352MHZ 352000000 /* 352MHz */
#define SC_360MHZ 360000000 /* 360MHz */
#define SC_384MHZ 384000000 /* 384MHz */
#define SC_396MHZ 396000000 /* 396MHz */
#define SC_432MHZ 432000000 /* 432MHz */
#define SC_480MHZ 480000000 /* 480MHz */
#define SC_600MHZ 600000000 /* 600MHz */
#define SC_744MHZ 744000000 /* 744MHz */
#define SC_792MHZ 792000000 /* 792MHz */
#define SC_864MHZ 864000000 /* 864MHz */
#define SC_960MHZ 960000000 /* 960MHz */
#define SC_1056MHZ 1056000000 /* 1056MHz */
#define SC_1200MHZ 1200000000 /* 1.2GHz */
#define SC_1464MHZ 1464000000 /* 1.464GHz */
#define SC_2400MHZ 2400000000 /* 2.4GHz */
/*@}*/
/*!
* @name Defines for A/V related frequencies
*/
/*@{*/
#define SC_62MHZ 62937500 /* 62.9375MHz */
#define SC_755MHZ 755250000 /* 755.25MHz */
/*@}*/
/*!
* @name Defines for type widths
*/
/*@{*/
#define SC_FADDR_W 36 /* Width of sc_faddr_t */
#define SC_BOOL_W 1 /* Width of bool */
#define SC_ERR_W 4 /* Width of sc_err_t */
#define SC_RSRC_W 10 /* Width of sc_rsrc_t */
#define SC_CTRL_W 6 /* Width of sc_ctrl_t */
/*@}*/
#define SC_R_ALL UINT16_MAX /* All resources */
#define SC_P_ALL UINT16_MAX /* All pads */
/*!
* This type is used to store a system (full-size) address.
*/
typedef uint64_t sc_faddr_t;
/*!
* This type is used to indicate error response for most functions.
*/
typedef enum sc_err_e {
SC_ERR_NONE = 0, /* Success */
SC_ERR_VERSION = 1, /* Incompatible API version */
SC_ERR_CONFIG = 2, /* Configuration error */
SC_ERR_PARM = 3, /* Bad parameter */
SC_ERR_NOACCESS = 4, /* Permission error (no access) */
SC_ERR_LOCKED = 5, /* Permission error (locked) */
SC_ERR_UNAVAILABLE = 6, /* Unavailable (out of resources) */
SC_ERR_NOTFOUND = 7, /* Not found */
SC_ERR_NOPOWER = 8, /* No power */
SC_ERR_IPC = 9, /* Generic IPC error */
SC_ERR_BUSY = 10, /* Resource is currently busy/active */
SC_ERR_FAIL = 11, /* General I/O failure */
SC_ERR_LAST
} sc_err_t;
/*!
* This type is used to indicate a resource. Resources include peripherals
* and bus masters (but not memory regions). Note items from list should
* never be changed or removed (only added to at the end of the list).
*/
typedef enum sc_rsrc_e {
SC_R_A53 = 0,
SC_R_A53_0 = 1,
SC_R_A53_1 = 2,
SC_R_A53_2 = 3,
SC_R_A53_3 = 4,
SC_R_A72 = 5,
SC_R_A72_0 = 6,
SC_R_A72_1 = 7,
SC_R_A72_2 = 8,
SC_R_A72_3 = 9,
SC_R_CCI = 10,
SC_R_DB = 11,
SC_R_DRC_0 = 12,
SC_R_DRC_1 = 13,
SC_R_GIC_SMMU = 14,
SC_R_IRQSTR_M4_0 = 15,
SC_R_IRQSTR_M4_1 = 16,
SC_R_SMMU = 17,
SC_R_GIC = 18,
SC_R_DC_0_BLIT0 = 19,
SC_R_DC_0_BLIT1 = 20,
SC_R_DC_0_BLIT2 = 21,
SC_R_DC_0_BLIT_OUT = 22,
SC_R_DC_0_CAPTURE0 = 23,
SC_R_DC_0_CAPTURE1 = 24,
SC_R_DC_0_WARP = 25,
SC_R_DC_0_INTEGRAL0 = 26,
SC_R_DC_0_INTEGRAL1 = 27,
SC_R_DC_0_VIDEO0 = 28,
SC_R_DC_0_VIDEO1 = 29,
SC_R_DC_0_FRAC0 = 30,
SC_R_DC_0_FRAC1 = 31,
SC_R_DC_0 = 32,
SC_R_GPU_2_PID0 = 33,
SC_R_DC_0_PLL_0 = 34,
SC_R_DC_0_PLL_1 = 35,
SC_R_DC_1_BLIT0 = 36,
SC_R_DC_1_BLIT1 = 37,
SC_R_DC_1_BLIT2 = 38,
SC_R_DC_1_BLIT_OUT = 39,
SC_R_DC_1_CAPTURE0 = 40,
SC_R_DC_1_CAPTURE1 = 41,
SC_R_DC_1_WARP = 42,
SC_R_DC_1_INTEGRAL0 = 43,
SC_R_DC_1_INTEGRAL1 = 44,
SC_R_DC_1_VIDEO0 = 45,
SC_R_DC_1_VIDEO1 = 46,
SC_R_DC_1_FRAC0 = 47,
SC_R_DC_1_FRAC1 = 48,
SC_R_DC_1 = 49,
SC_R_GPU_3_PID0 = 50,
SC_R_DC_1_PLL_0 = 51,
SC_R_DC_1_PLL_1 = 52,
SC_R_SPI_0 = 53,
SC_R_SPI_1 = 54,
SC_R_SPI_2 = 55,
SC_R_SPI_3 = 56,
SC_R_UART_0 = 57,
SC_R_UART_1 = 58,
SC_R_UART_2 = 59,
SC_R_UART_3 = 60,
SC_R_UART_4 = 61,
SC_R_EMVSIM_0 = 62,
SC_R_EMVSIM_1 = 63,
SC_R_DMA_0_CH0 = 64,
SC_R_DMA_0_CH1 = 65,
SC_R_DMA_0_CH2 = 66,
SC_R_DMA_0_CH3 = 67,
SC_R_DMA_0_CH4 = 68,
SC_R_DMA_0_CH5 = 69,
SC_R_DMA_0_CH6 = 70,
SC_R_DMA_0_CH7 = 71,
SC_R_DMA_0_CH8 = 72,
SC_R_DMA_0_CH9 = 73,
SC_R_DMA_0_CH10 = 74,
SC_R_DMA_0_CH11 = 75,
SC_R_DMA_0_CH12 = 76,
SC_R_DMA_0_CH13 = 77,
SC_R_DMA_0_CH14 = 78,
SC_R_DMA_0_CH15 = 79,
SC_R_DMA_0_CH16 = 80,
SC_R_DMA_0_CH17 = 81,
SC_R_DMA_0_CH18 = 82,
SC_R_DMA_0_CH19 = 83,
SC_R_DMA_0_CH20 = 84,
SC_R_DMA_0_CH21 = 85,
SC_R_DMA_0_CH22 = 86,
SC_R_DMA_0_CH23 = 87,
SC_R_DMA_0_CH24 = 88,
SC_R_DMA_0_CH25 = 89,
SC_R_DMA_0_CH26 = 90,
SC_R_DMA_0_CH27 = 91,
SC_R_DMA_0_CH28 = 92,
SC_R_DMA_0_CH29 = 93,
SC_R_DMA_0_CH30 = 94,
SC_R_DMA_0_CH31 = 95,
SC_R_I2C_0 = 96,
SC_R_I2C_1 = 97,
SC_R_I2C_2 = 98,
SC_R_I2C_3 = 99,
SC_R_I2C_4 = 100,
SC_R_ADC_0 = 101,
SC_R_ADC_1 = 102,
SC_R_FTM_0 = 103,
SC_R_FTM_1 = 104,
SC_R_CAN_0 = 105,
SC_R_CAN_1 = 106,
SC_R_CAN_2 = 107,
SC_R_DMA_1_CH0 = 108,
SC_R_DMA_1_CH1 = 109,
SC_R_DMA_1_CH2 = 110,
SC_R_DMA_1_CH3 = 111,
SC_R_DMA_1_CH4 = 112,
SC_R_DMA_1_CH5 = 113,
SC_R_DMA_1_CH6 = 114,
SC_R_DMA_1_CH7 = 115,
SC_R_DMA_1_CH8 = 116,
SC_R_DMA_1_CH9 = 117,
SC_R_DMA_1_CH10 = 118,
SC_R_DMA_1_CH11 = 119,
SC_R_DMA_1_CH12 = 120,
SC_R_DMA_1_CH13 = 121,
SC_R_DMA_1_CH14 = 122,
SC_R_DMA_1_CH15 = 123,
SC_R_DMA_1_CH16 = 124,
SC_R_DMA_1_CH17 = 125,
SC_R_DMA_1_CH18 = 126,
SC_R_DMA_1_CH19 = 127,
SC_R_DMA_1_CH20 = 128,
SC_R_DMA_1_CH21 = 129,
SC_R_DMA_1_CH22 = 130,
SC_R_DMA_1_CH23 = 131,
SC_R_DMA_1_CH24 = 132,
SC_R_DMA_1_CH25 = 133,
SC_R_DMA_1_CH26 = 134,
SC_R_DMA_1_CH27 = 135,
SC_R_DMA_1_CH28 = 136,
SC_R_DMA_1_CH29 = 137,
SC_R_DMA_1_CH30 = 138,
SC_R_DMA_1_CH31 = 139,
SC_R_UNUSED1 = 140,
SC_R_UNUSED2 = 141,
SC_R_UNUSED3 = 142,
SC_R_UNUSED4 = 143,
SC_R_GPU_0_PID0 = 144,
SC_R_GPU_0_PID1 = 145,
SC_R_GPU_0_PID2 = 146,
SC_R_GPU_0_PID3 = 147,
SC_R_GPU_1_PID0 = 148,
SC_R_GPU_1_PID1 = 149,
SC_R_GPU_1_PID2 = 150,
SC_R_GPU_1_PID3 = 151,
SC_R_PCIE_A = 152,
SC_R_SERDES_0 = 153,
SC_R_MATCH_0 = 154,
SC_R_MATCH_1 = 155,
SC_R_MATCH_2 = 156,
SC_R_MATCH_3 = 157,
SC_R_MATCH_4 = 158,
SC_R_MATCH_5 = 159,
SC_R_MATCH_6 = 160,
SC_R_MATCH_7 = 161,
SC_R_MATCH_8 = 162,
SC_R_MATCH_9 = 163,
SC_R_MATCH_10 = 164,
SC_R_MATCH_11 = 165,
SC_R_MATCH_12 = 166,
SC_R_MATCH_13 = 167,
SC_R_MATCH_14 = 168,
SC_R_PCIE_B = 169,
SC_R_SATA_0 = 170,
SC_R_SERDES_1 = 171,
SC_R_HSIO_GPIO = 172,
SC_R_MATCH_15 = 173,
SC_R_MATCH_16 = 174,
SC_R_MATCH_17 = 175,
SC_R_MATCH_18 = 176,
SC_R_MATCH_19 = 177,
SC_R_MATCH_20 = 178,
SC_R_MATCH_21 = 179,
SC_R_MATCH_22 = 180,
SC_R_MATCH_23 = 181,
SC_R_MATCH_24 = 182,
SC_R_MATCH_25 = 183,
SC_R_MATCH_26 = 184,
SC_R_MATCH_27 = 185,
SC_R_MATCH_28 = 186,
SC_R_LCD_0 = 187,
SC_R_LCD_0_PWM_0 = 188,
SC_R_LCD_0_I2C_0 = 189,
SC_R_LCD_0_I2C_1 = 190,
SC_R_PWM_0 = 191,
SC_R_PWM_1 = 192,
SC_R_PWM_2 = 193,
SC_R_PWM_3 = 194,
SC_R_PWM_4 = 195,
SC_R_PWM_5 = 196,
SC_R_PWM_6 = 197,
SC_R_PWM_7 = 198,
SC_R_GPIO_0 = 199,
SC_R_GPIO_1 = 200,
SC_R_GPIO_2 = 201,
SC_R_GPIO_3 = 202,
SC_R_GPIO_4 = 203,
SC_R_GPIO_5 = 204,
SC_R_GPIO_6 = 205,
SC_R_GPIO_7 = 206,
SC_R_GPT_0 = 207,
SC_R_GPT_1 = 208,
SC_R_GPT_2 = 209,
SC_R_GPT_3 = 210,
SC_R_GPT_4 = 211,
SC_R_KPP = 212,
SC_R_MU_0A = 213,
SC_R_MU_1A = 214,
SC_R_MU_2A = 215,
SC_R_MU_3A = 216,
SC_R_MU_4A = 217,
SC_R_MU_5A = 218,
SC_R_MU_6A = 219,
SC_R_MU_7A = 220,
SC_R_MU_8A = 221,
SC_R_MU_9A = 222,
SC_R_MU_10A = 223,
SC_R_MU_11A = 224,
SC_R_MU_12A = 225,
SC_R_MU_13A = 226,
SC_R_MU_5B = 227,
SC_R_MU_6B = 228,
SC_R_MU_7B = 229,
SC_R_MU_8B = 230,
SC_R_MU_9B = 231,
SC_R_MU_10B = 232,
SC_R_MU_11B = 233,
SC_R_MU_12B = 234,
SC_R_MU_13B = 235,
SC_R_ROM_0 = 236,
SC_R_FSPI_0 = 237,
SC_R_FSPI_1 = 238,
SC_R_IEE = 239,
SC_R_IEE_R0 = 240,
SC_R_IEE_R1 = 241,
SC_R_IEE_R2 = 242,
SC_R_IEE_R3 = 243,
SC_R_IEE_R4 = 244,
SC_R_IEE_R5 = 245,
SC_R_IEE_R6 = 246,
SC_R_IEE_R7 = 247,
SC_R_SDHC_0 = 248,
SC_R_SDHC_1 = 249,
SC_R_SDHC_2 = 250,
SC_R_ENET_0 = 251,
SC_R_ENET_1 = 252,
SC_R_MLB_0 = 253,
SC_R_DMA_2_CH0 = 254,
SC_R_DMA_2_CH1 = 255,
SC_R_DMA_2_CH2 = 256,
SC_R_DMA_2_CH3 = 257,
SC_R_DMA_2_CH4 = 258,
SC_R_USB_0 = 259,
SC_R_USB_1 = 260,
SC_R_USB_0_PHY = 261,
SC_R_USB_2 = 262,
SC_R_USB_2_PHY = 263,
SC_R_DTCP = 264,
SC_R_NAND = 265,
SC_R_LVDS_0 = 266,
SC_R_LVDS_0_PWM_0 = 267,
SC_R_LVDS_0_I2C_0 = 268,
SC_R_LVDS_0_I2C_1 = 269,
SC_R_LVDS_1 = 270,
SC_R_LVDS_1_PWM_0 = 271,
SC_R_LVDS_1_I2C_0 = 272,
SC_R_LVDS_1_I2C_1 = 273,
SC_R_LVDS_2 = 274,
SC_R_LVDS_2_PWM_0 = 275,
SC_R_LVDS_2_I2C_0 = 276,
SC_R_LVDS_2_I2C_1 = 277,
SC_R_M4_0_PID0 = 278,
SC_R_M4_0_PID1 = 279,
SC_R_M4_0_PID2 = 280,
SC_R_M4_0_PID3 = 281,
SC_R_M4_0_PID4 = 282,
SC_R_M4_0_RGPIO = 283,
SC_R_M4_0_SEMA42 = 284,
SC_R_M4_0_TPM = 285,
SC_R_M4_0_PIT = 286,
SC_R_M4_0_UART = 287,
SC_R_M4_0_I2C = 288,
SC_R_M4_0_INTMUX = 289,
SC_R_M4_0_SIM = 290,
SC_R_M4_0_WDOG = 291,
SC_R_M4_0_MU_0B = 292,
SC_R_M4_0_MU_0A0 = 293,
SC_R_M4_0_MU_0A1 = 294,
SC_R_M4_0_MU_0A2 = 295,
SC_R_M4_0_MU_0A3 = 296,
SC_R_M4_0_MU_1A = 297,
SC_R_M4_1_PID0 = 298,
SC_R_M4_1_PID1 = 299,
SC_R_M4_1_PID2 = 300,
SC_R_M4_1_PID3 = 301,
SC_R_M4_1_PID4 = 302,
SC_R_M4_1_RGPIO = 303,
SC_R_M4_1_SEMA42 = 304,
SC_R_M4_1_TPM = 305,
SC_R_M4_1_PIT = 306,
SC_R_M4_1_UART = 307,
SC_R_M4_1_I2C = 308,
SC_R_M4_1_INTMUX = 309,
SC_R_M4_1_SIM = 310,
SC_R_M4_1_WDOG = 311,
SC_R_M4_1_MU_0B = 312,
SC_R_M4_1_MU_0A0 = 313,
SC_R_M4_1_MU_0A1 = 314,
SC_R_M4_1_MU_0A2 = 315,
SC_R_M4_1_MU_0A3 = 316,
SC_R_M4_1_MU_1A = 317,
SC_R_SAI_0 = 318,
SC_R_SAI_1 = 319,
SC_R_SAI_2 = 320,
SC_R_IRQSTR_SCU2 = 321,
SC_R_IRQSTR_DSP = 322,
SC_R_UNUSED5 = 323,
SC_R_UNUSED6 = 324,
SC_R_AUDIO_PLL_0 = 325,
SC_R_PI_0 = 326,
SC_R_PI_0_PWM_0 = 327,
SC_R_PI_0_PWM_1 = 328,
SC_R_PI_0_I2C_0 = 329,
SC_R_PI_0_PLL = 330,
SC_R_PI_1 = 331,
SC_R_PI_1_PWM_0 = 332,
SC_R_PI_1_PWM_1 = 333,
SC_R_PI_1_I2C_0 = 334,
SC_R_PI_1_PLL = 335,
SC_R_SC_PID0 = 336,
SC_R_SC_PID1 = 337,
SC_R_SC_PID2 = 338,
SC_R_SC_PID3 = 339,
SC_R_SC_PID4 = 340,
SC_R_SC_SEMA42 = 341,
SC_R_SC_TPM = 342,
SC_R_SC_PIT = 343,
SC_R_SC_UART = 344,
SC_R_SC_I2C = 345,
SC_R_SC_MU_0B = 346,
SC_R_SC_MU_0A0 = 347,
SC_R_SC_MU_0A1 = 348,
SC_R_SC_MU_0A2 = 349,
SC_R_SC_MU_0A3 = 350,
SC_R_SC_MU_1A = 351,
SC_R_SYSCNT_RD = 352,
SC_R_SYSCNT_CMP = 353,
SC_R_DEBUG = 354,
SC_R_SYSTEM = 355,
SC_R_SNVS = 356,
SC_R_OTP = 357,
SC_R_VPU_PID0 = 358,
SC_R_VPU_PID1 = 359,
SC_R_VPU_PID2 = 360,
SC_R_VPU_PID3 = 361,
SC_R_VPU_PID4 = 362,
SC_R_VPU_PID5 = 363,
SC_R_VPU_PID6 = 364,
SC_R_VPU_PID7 = 365,
SC_R_VPU_UART = 366,
SC_R_VPUCORE = 367,
SC_R_VPUCORE_0 = 368,
SC_R_VPUCORE_1 = 369,
SC_R_VPUCORE_2 = 370,
SC_R_VPUCORE_3 = 371,
SC_R_DMA_4_CH0 = 372,
SC_R_DMA_4_CH1 = 373,
SC_R_DMA_4_CH2 = 374,
SC_R_DMA_4_CH3 = 375,
SC_R_DMA_4_CH4 = 376,
SC_R_ISI_CH0 = 377,
SC_R_ISI_CH1 = 378,
SC_R_ISI_CH2 = 379,
SC_R_ISI_CH3 = 380,
SC_R_ISI_CH4 = 381,
SC_R_ISI_CH5 = 382,
SC_R_ISI_CH6 = 383,
SC_R_ISI_CH7 = 384,
SC_R_MJPEG_DEC_S0 = 385,
SC_R_MJPEG_DEC_S1 = 386,
SC_R_MJPEG_DEC_S2 = 387,
SC_R_MJPEG_DEC_S3 = 388,
SC_R_MJPEG_ENC_S0 = 389,
SC_R_MJPEG_ENC_S1 = 390,
SC_R_MJPEG_ENC_S2 = 391,
SC_R_MJPEG_ENC_S3 = 392,
SC_R_MIPI_0 = 393,
SC_R_MIPI_0_PWM_0 = 394,
SC_R_MIPI_0_I2C_0 = 395,
SC_R_MIPI_0_I2C_1 = 396,
SC_R_MIPI_1 = 397,
SC_R_MIPI_1_PWM_0 = 398,
SC_R_MIPI_1_I2C_0 = 399,
SC_R_MIPI_1_I2C_1 = 400,
SC_R_CSI_0 = 401,
SC_R_CSI_0_PWM_0 = 402,
SC_R_CSI_0_I2C_0 = 403,
SC_R_CSI_1 = 404,
SC_R_CSI_1_PWM_0 = 405,
SC_R_CSI_1_I2C_0 = 406,
SC_R_HDMI = 407,
SC_R_HDMI_I2S = 408,
SC_R_HDMI_I2C_0 = 409,
SC_R_HDMI_PLL_0 = 410,
SC_R_HDMI_RX = 411,
SC_R_HDMI_RX_BYPASS = 412,
SC_R_HDMI_RX_I2C_0 = 413,
SC_R_ASRC_0 = 414,
SC_R_ESAI_0 = 415,
SC_R_SPDIF_0 = 416,
SC_R_SPDIF_1 = 417,
SC_R_SAI_3 = 418,
SC_R_SAI_4 = 419,
SC_R_SAI_5 = 420,
SC_R_GPT_5 = 421,
SC_R_GPT_6 = 422,
SC_R_GPT_7 = 423,
SC_R_GPT_8 = 424,
SC_R_GPT_9 = 425,
SC_R_GPT_10 = 426,
SC_R_DMA_2_CH5 = 427,
SC_R_DMA_2_CH6 = 428,
SC_R_DMA_2_CH7 = 429,
SC_R_DMA_2_CH8 = 430,
SC_R_DMA_2_CH9 = 431,
SC_R_DMA_2_CH10 = 432,
SC_R_DMA_2_CH11 = 433,
SC_R_DMA_2_CH12 = 434,
SC_R_DMA_2_CH13 = 435,
SC_R_DMA_2_CH14 = 436,
SC_R_DMA_2_CH15 = 437,
SC_R_DMA_2_CH16 = 438,
SC_R_DMA_2_CH17 = 439,
SC_R_DMA_2_CH18 = 440,
SC_R_DMA_2_CH19 = 441,
SC_R_DMA_2_CH20 = 442,
SC_R_DMA_2_CH21 = 443,
SC_R_DMA_2_CH22 = 444,
SC_R_DMA_2_CH23 = 445,
SC_R_DMA_2_CH24 = 446,
SC_R_DMA_2_CH25 = 447,
SC_R_DMA_2_CH26 = 448,
SC_R_DMA_2_CH27 = 449,
SC_R_DMA_2_CH28 = 450,
SC_R_DMA_2_CH29 = 451,
SC_R_DMA_2_CH30 = 452,
SC_R_DMA_2_CH31 = 453,
SC_R_ASRC_1 = 454,
SC_R_ESAI_1 = 455,
SC_R_SAI_6 = 456,
SC_R_SAI_7 = 457,
SC_R_AMIX = 458,
SC_R_MQS_0 = 459,
SC_R_DMA_3_CH0 = 460,
SC_R_DMA_3_CH1 = 461,
SC_R_DMA_3_CH2 = 462,
SC_R_DMA_3_CH3 = 463,
SC_R_DMA_3_CH4 = 464,
SC_R_DMA_3_CH5 = 465,
SC_R_DMA_3_CH6 = 466,
SC_R_DMA_3_CH7 = 467,
SC_R_DMA_3_CH8 = 468,
SC_R_DMA_3_CH9 = 469,
SC_R_DMA_3_CH10 = 470,
SC_R_DMA_3_CH11 = 471,
SC_R_DMA_3_CH12 = 472,
SC_R_DMA_3_CH13 = 473,
SC_R_DMA_3_CH14 = 474,
SC_R_DMA_3_CH15 = 475,
SC_R_DMA_3_CH16 = 476,
SC_R_DMA_3_CH17 = 477,
SC_R_DMA_3_CH18 = 478,
SC_R_DMA_3_CH19 = 479,
SC_R_DMA_3_CH20 = 480,
SC_R_DMA_3_CH21 = 481,
SC_R_DMA_3_CH22 = 482,
SC_R_DMA_3_CH23 = 483,
SC_R_DMA_3_CH24 = 484,
SC_R_DMA_3_CH25 = 485,
SC_R_DMA_3_CH26 = 486,
SC_R_DMA_3_CH27 = 487,
SC_R_DMA_3_CH28 = 488,
SC_R_DMA_3_CH29 = 489,
SC_R_DMA_3_CH30 = 490,
SC_R_DMA_3_CH31 = 491,
SC_R_AUDIO_PLL_1 = 492,
SC_R_AUDIO_CLK_0 = 493,
SC_R_AUDIO_CLK_1 = 494,
SC_R_MCLK_OUT_0 = 495,
SC_R_MCLK_OUT_1 = 496,
SC_R_PMIC_0 = 497,
SC_R_PMIC_1 = 498,
SC_R_SECO = 499,
SC_R_CAAM_JR1 = 500,
SC_R_CAAM_JR2 = 501,
SC_R_CAAM_JR3 = 502,
SC_R_SECO_MU_2 = 503,
SC_R_SECO_MU_3 = 504,
SC_R_SECO_MU_4 = 505,
SC_R_HDMI_RX_PWM_0 = 506,
SC_R_A35 = 507,
SC_R_A35_0 = 508,
SC_R_A35_1 = 509,
SC_R_A35_2 = 510,
SC_R_A35_3 = 511,
SC_R_DSP = 512,
SC_R_DSP_RAM = 513,
SC_R_CAAM_JR1_OUT = 514,
SC_R_CAAM_JR2_OUT = 515,
SC_R_CAAM_JR3_OUT = 516,
SC_R_VPU_DEC_0 = 517,
SC_R_VPU_ENC_0 = 518,
SC_R_CAAM_JR0 = 519,
SC_R_CAAM_JR0_OUT = 520,
SC_R_PMIC_2 = 521,
SC_R_DBLOGIC = 522,
SC_R_HDMI_PLL_1 = 523,
SC_R_BOARD_R0 = 524,
SC_R_BOARD_R1 = 525,
SC_R_BOARD_R2 = 526,
SC_R_BOARD_R3 = 527,
SC_R_BOARD_R4 = 528,
SC_R_BOARD_R5 = 529,
SC_R_BOARD_R6 = 530,
SC_R_BOARD_R7 = 531,
SC_R_MJPEG_DEC_MP = 532,
SC_R_MJPEG_ENC_MP = 533,
SC_R_VPU_TS_0 = 534,
SC_R_VPU_MU_0 = 535,
SC_R_VPU_MU_1 = 536,
SC_R_VPU_MU_2 = 537,
SC_R_VPU_MU_3 = 538,
SC_R_VPU_ENC_1 = 539,
SC_R_VPU = 540,
SC_R_LAST
} sc_rsrc_t;
/* NOTE - please add by replacing some of the UNUSED from above! */
/*!
* This type is used to indicate a control.
*/
typedef enum sc_ctrl_e {
SC_C_TEMP = 0,
SC_C_TEMP_HI = 1,
SC_C_TEMP_LOW = 2,
SC_C_PXL_LINK_MST1_ADDR = 3,
SC_C_PXL_LINK_MST2_ADDR = 4,
SC_C_PXL_LINK_MST_ENB = 5,
SC_C_PXL_LINK_MST1_ENB = 6,
SC_C_PXL_LINK_MST2_ENB = 7,
SC_C_PXL_LINK_SLV1_ADDR = 8,
SC_C_PXL_LINK_SLV2_ADDR = 9,
SC_C_PXL_LINK_MST_VLD = 10,
SC_C_PXL_LINK_MST1_VLD = 11,
SC_C_PXL_LINK_MST2_VLD = 12,
SC_C_SINGLE_MODE = 13,
SC_C_ID = 14,
SC_C_PXL_CLK_POLARITY = 15,
SC_C_LINESTATE = 16,
SC_C_PCIE_G_RST = 17,
SC_C_PCIE_BUTTON_RST = 18,
SC_C_PCIE_PERST = 19,
SC_C_PHY_RESET = 20,
SC_C_PXL_LINK_RATE_CORRECTION = 21,
SC_C_PANIC = 22,
SC_C_PRIORITY_GROUP = 23,
SC_C_TXCLK = 24,
SC_C_CLKDIV = 25,
SC_C_DISABLE_50 = 26,
SC_C_DISABLE_125 = 27,
SC_C_SEL_125 = 28,
SC_C_MODE = 29,
SC_C_SYNC_CTRL0 = 30,
SC_C_KACHUNK_CNT = 31,
SC_C_KACHUNK_SEL = 32,
SC_C_SYNC_CTRL1 = 33,
SC_C_DPI_RESET = 34,
SC_C_MIPI_RESET = 35,
SC_C_DUAL_MODE = 36,
SC_C_VOLTAGE = 37,
SC_C_PXL_LINK_SEL = 38,
SC_C_OFS_SEL = 39,
SC_C_OFS_AUDIO = 40,
SC_C_OFS_PERIPH = 41,
SC_C_OFS_IRQ = 42,
SC_C_RST0 = 43,
SC_C_RST1 = 44,
SC_C_LAST
} sc_ctrl_t;
/*!
* This type is used to indicate a pad. Valid values are SoC specific.
*
* Refer to the SoC [Pad List](@ref PADS) for valid pad values.
*/
typedef uint16_t sc_pad_t;
/* Extra documentation of standard types */
#ifdef DOXYGEN
/*!
* Type used to declare a true/false boolean.
*/
typedef enum { false = 0, true = 1 } bool;
/*!
* Type used to declare an 8-bit integer.
*/
typedef __INT8_TYPE__ int8_t;
/*!
* Type used to declare a 16-bit integer.
*/
typedef __INT16_TYPE__ int16_t;
/*!
* Type used to declare a 32-bit integer.
*/
typedef __INT32_TYPE__ int32_t;
/*!
* Type used to declare a 64-bit integer.
*/
typedef __INT64_TYPE__ int64_t;
/*!
* Type used to declare an 8-bit unsigned integer.
*/
typedef __UINT8_TYPE__ uint8_t;
/*!
* Type used to declare a 16-bit unsigned integer.
*/
typedef __UINT16_TYPE__ uint16_t;
/*!
* Type used to declare a 32-bit unsigned integer.
*/
typedef __UINT32_TYPE__ uint32_t;
/*!
* Type used to declare a 64-bit unsigned integer.
*/
typedef __UINT64_TYPE__ uint64_t;
#endif
#endif /* _SC_TYPES_H */