Current File : //proc/self/root/usr/src/linux-headers-6.8.0-60-generic/arch/powerpc/include/asm/opal-api.h
/* SPDX-License-Identifier: GPL-2.0-or-later */
/*
 * OPAL API definitions.
 *
 * Copyright 2011-2015 IBM Corp.
 */

#ifndef __OPAL_API_H
#define __OPAL_API_H

/****** OPAL APIs ******/

/* Return codes */
#define OPAL_SUCCESS		0
#define OPAL_PARAMETER		-1
#define OPAL_BUSY		-2
#define OPAL_PARTIAL		-3
#define OPAL_CONSTRAINED	-4
#define OPAL_CLOSED		-5
#define OPAL_HARDWARE		-6
#define OPAL_UNSUPPORTED	-7
#define OPAL_PERMISSION		-8
#define OPAL_NO_MEM		-9
#define OPAL_RESOURCE		-10
#define OPAL_INTERNAL_ERROR	-11
#define OPAL_BUSY_EVENT		-12
#define OPAL_HARDWARE_FROZEN	-13
#define OPAL_WRONG_STATE	-14
#define OPAL_ASYNC_COMPLETION	-15
#define OPAL_EMPTY		-16
#define OPAL_I2C_TIMEOUT	-17
#define OPAL_I2C_INVALID_CMD	-18
#define OPAL_I2C_LBUS_PARITY	-19
#define OPAL_I2C_BKEND_OVERRUN	-20
#define OPAL_I2C_BKEND_ACCESS	-21
#define OPAL_I2C_ARBT_LOST	-22
#define OPAL_I2C_NACK_RCVD	-23
#define OPAL_I2C_STOP_ERR	-24
#define OPAL_XIVE_PROVISIONING	-31
#define OPAL_XIVE_FREE_ACTIVE	-32
#define OPAL_TIMEOUT		-33

/* API Tokens (in r0) */
#define OPAL_INVALID_CALL		       -1
#define OPAL_TEST				0
#define OPAL_CONSOLE_WRITE			1
#define OPAL_CONSOLE_READ			2
#define OPAL_RTC_READ				3
#define OPAL_RTC_WRITE				4
#define OPAL_CEC_POWER_DOWN			5
#define OPAL_CEC_REBOOT				6
#define OPAL_READ_NVRAM				7
#define OPAL_WRITE_NVRAM			8
#define OPAL_HANDLE_INTERRUPT			9
#define OPAL_POLL_EVENTS			10
#define OPAL_PCI_SET_HUB_TCE_MEMORY		11
#define OPAL_PCI_SET_PHB_TCE_MEMORY		12
#define OPAL_PCI_CONFIG_READ_BYTE		13
#define OPAL_PCI_CONFIG_READ_HALF_WORD  	14
#define OPAL_PCI_CONFIG_READ_WORD		15
#define OPAL_PCI_CONFIG_WRITE_BYTE		16
#define OPAL_PCI_CONFIG_WRITE_HALF_WORD		17
#define OPAL_PCI_CONFIG_WRITE_WORD		18
#define OPAL_SET_XIVE				19
#define OPAL_GET_XIVE				20
#define OPAL_GET_COMPLETION_TOKEN_STATUS	21 /* obsolete */
#define OPAL_REGISTER_OPAL_EXCEPTION_HANDLER	22
#define OPAL_PCI_EEH_FREEZE_STATUS		23
#define OPAL_PCI_SHPC				24
#define OPAL_CONSOLE_WRITE_BUFFER_SPACE		25
#define OPAL_PCI_EEH_FREEZE_CLEAR		26
#define OPAL_PCI_PHB_MMIO_ENABLE		27
#define OPAL_PCI_SET_PHB_MEM_WINDOW		28
#define OPAL_PCI_MAP_PE_MMIO_WINDOW		29
#define OPAL_PCI_SET_PHB_TABLE_MEMORY		30
#define OPAL_PCI_SET_PE				31
#define OPAL_PCI_SET_PELTV			32
#define OPAL_PCI_SET_MVE			33
#define OPAL_PCI_SET_MVE_ENABLE			34
#define OPAL_PCI_GET_XIVE_REISSUE		35
#define OPAL_PCI_SET_XIVE_REISSUE		36
#define OPAL_PCI_SET_XIVE_PE			37
#define OPAL_GET_XIVE_SOURCE			38
#define OPAL_GET_MSI_32				39
#define OPAL_GET_MSI_64				40
#define OPAL_START_CPU				41
#define OPAL_QUERY_CPU_STATUS			42
#define OPAL_WRITE_OPPANEL			43 /* unimplemented */
#define OPAL_PCI_MAP_PE_DMA_WINDOW		44
#define OPAL_PCI_MAP_PE_DMA_WINDOW_REAL		45
#define OPAL_PCI_RESET				49
#define OPAL_PCI_GET_HUB_DIAG_DATA		50
#define OPAL_PCI_GET_PHB_DIAG_DATA		51
#define OPAL_PCI_FENCE_PHB			52
#define OPAL_PCI_REINIT				53
#define OPAL_PCI_MASK_PE_ERROR			54
#define OPAL_SET_SLOT_LED_STATUS		55
#define OPAL_GET_EPOW_STATUS			56
#define OPAL_SET_SYSTEM_ATTENTION_LED		57
#define OPAL_RESERVED1				58
#define OPAL_RESERVED2				59
#define OPAL_PCI_NEXT_ERROR			60
#define OPAL_PCI_EEH_FREEZE_STATUS2		61
#define OPAL_PCI_POLL				62
#define OPAL_PCI_MSI_EOI			63
#define OPAL_PCI_GET_PHB_DIAG_DATA2		64
#define OPAL_XSCOM_READ				65
#define OPAL_XSCOM_WRITE			66
#define OPAL_LPC_READ				67
#define OPAL_LPC_WRITE				68
#define OPAL_RETURN_CPU				69
#define OPAL_REINIT_CPUS			70
#define OPAL_ELOG_READ				71
#define OPAL_ELOG_WRITE				72
#define OPAL_ELOG_ACK				73
#define OPAL_ELOG_RESEND			74
#define OPAL_ELOG_SIZE				75
#define OPAL_FLASH_VALIDATE			76
#define OPAL_FLASH_MANAGE			77
#define OPAL_FLASH_UPDATE			78
#define OPAL_RESYNC_TIMEBASE			79
#define OPAL_CHECK_TOKEN			80
#define OPAL_DUMP_INIT				81
#define OPAL_DUMP_INFO				82
#define OPAL_DUMP_READ				83
#define OPAL_DUMP_ACK				84
#define OPAL_GET_MSG				85
#define OPAL_CHECK_ASYNC_COMPLETION		86
#define OPAL_SYNC_HOST_REBOOT			87
#define OPAL_SENSOR_READ			88
#define OPAL_GET_PARAM				89
#define OPAL_SET_PARAM				90
#define OPAL_DUMP_RESEND			91
#define OPAL_ELOG_SEND				92	/* Deprecated */
#define OPAL_PCI_SET_PHB_CAPI_MODE		93
#define OPAL_DUMP_INFO2				94
#define OPAL_WRITE_OPPANEL_ASYNC		95
#define OPAL_PCI_ERR_INJECT			96
#define OPAL_PCI_EEH_FREEZE_SET			97
#define OPAL_HANDLE_HMI				98
#define OPAL_CONFIG_CPU_IDLE_STATE		99
#define OPAL_SLW_SET_REG			100
#define OPAL_REGISTER_DUMP_REGION		101
#define OPAL_UNREGISTER_DUMP_REGION		102
#define OPAL_WRITE_TPO				103
#define OPAL_READ_TPO				104
#define OPAL_GET_DPO_STATUS			105
#define OPAL_OLD_I2C_REQUEST			106	/* Deprecated */
#define OPAL_IPMI_SEND				107
#define OPAL_IPMI_RECV				108
#define OPAL_I2C_REQUEST			109
#define OPAL_FLASH_READ				110
#define OPAL_FLASH_WRITE			111
#define OPAL_FLASH_ERASE			112
#define OPAL_PRD_MSG				113
#define OPAL_LEDS_GET_INDICATOR			114
#define OPAL_LEDS_SET_INDICATOR			115
#define OPAL_CEC_REBOOT2			116
#define OPAL_CONSOLE_FLUSH			117
#define OPAL_GET_DEVICE_TREE			118
#define OPAL_PCI_GET_PRESENCE_STATE		119
#define OPAL_PCI_GET_POWER_STATE		120
#define OPAL_PCI_SET_POWER_STATE		121
#define OPAL_INT_GET_XIRR			122
#define	OPAL_INT_SET_CPPR			123
#define OPAL_INT_EOI				124
#define OPAL_INT_SET_MFRR			125
#define OPAL_PCI_TCE_KILL			126
#define OPAL_NMMU_SET_PTCR			127
#define OPAL_XIVE_RESET				128
#define OPAL_XIVE_GET_IRQ_INFO			129
#define OPAL_XIVE_GET_IRQ_CONFIG		130
#define OPAL_XIVE_SET_IRQ_CONFIG		131
#define OPAL_XIVE_GET_QUEUE_INFO		132
#define OPAL_XIVE_SET_QUEUE_INFO		133
#define OPAL_XIVE_DONATE_PAGE			134
#define OPAL_XIVE_ALLOCATE_VP_BLOCK		135
#define OPAL_XIVE_FREE_VP_BLOCK			136
#define OPAL_XIVE_GET_VP_INFO			137
#define OPAL_XIVE_SET_VP_INFO			138
#define OPAL_XIVE_ALLOCATE_IRQ			139
#define OPAL_XIVE_FREE_IRQ			140
#define OPAL_XIVE_SYNC				141
#define OPAL_XIVE_DUMP				142
#define OPAL_XIVE_GET_QUEUE_STATE		143
#define OPAL_XIVE_SET_QUEUE_STATE		144
#define OPAL_SIGNAL_SYSTEM_RESET		145
#define OPAL_NPU_INIT_CONTEXT			146
#define OPAL_NPU_DESTROY_CONTEXT		147
#define OPAL_NPU_MAP_LPAR			148
#define OPAL_IMC_COUNTERS_INIT			149
#define OPAL_IMC_COUNTERS_START			150
#define OPAL_IMC_COUNTERS_STOP			151
#define OPAL_GET_POWERCAP			152
#define OPAL_SET_POWERCAP			153
#define OPAL_GET_POWER_SHIFT_RATIO		154
#define OPAL_SET_POWER_SHIFT_RATIO		155
#define OPAL_SENSOR_GROUP_CLEAR			156
#define OPAL_PCI_SET_P2P			157
#define OPAL_QUIESCE				158
#define OPAL_NPU_SPA_SETUP			159
#define OPAL_NPU_SPA_CLEAR_CACHE		160
#define OPAL_NPU_TL_SET				161
#define OPAL_SENSOR_READ_U64			162
#define OPAL_SENSOR_GROUP_ENABLE		163
#define OPAL_PCI_GET_PBCQ_TUNNEL_BAR		164
#define OPAL_PCI_SET_PBCQ_TUNNEL_BAR		165
#define OPAL_HANDLE_HMI2			166
#define	OPAL_NX_COPROC_INIT			167
#define OPAL_XIVE_GET_VP_STATE			170
#define OPAL_MPIPL_UPDATE			173
#define OPAL_MPIPL_REGISTER_TAG			174
#define OPAL_MPIPL_QUERY_TAG			175
#define OPAL_SECVAR_GET				176
#define OPAL_SECVAR_GET_NEXT			177
#define OPAL_SECVAR_ENQUEUE_UPDATE		178
#define OPAL_LAST				178

#define QUIESCE_HOLD			1 /* Spin all calls at entry */
#define QUIESCE_REJECT			2 /* Fail all calls with OPAL_BUSY */
#define QUIESCE_LOCK_BREAK		3 /* Set to ignore locks. */
#define QUIESCE_RESUME			4 /* Un-quiesce */
#define QUIESCE_RESUME_FAST_REBOOT	5 /* Un-quiesce, fast reboot */

/* Device tree flags */

/*
 * Flags set in power-mgmt nodes in device tree describing
 * idle states that are supported in the platform.
 */

#define OPAL_PM_TIMEBASE_STOP		0x00000002
#define OPAL_PM_LOSE_HYP_CONTEXT	0x00002000
#define OPAL_PM_LOSE_FULL_CONTEXT	0x00004000
#define OPAL_PM_NAP_ENABLED		0x00010000
#define OPAL_PM_SLEEP_ENABLED		0x00020000
#define OPAL_PM_WINKLE_ENABLED		0x00040000
#define OPAL_PM_SLEEP_ENABLED_ER1	0x00080000 /* with workaround */
#define OPAL_PM_STOP_INST_FAST		0x00100000
#define OPAL_PM_STOP_INST_DEEP		0x00200000

/*
 * OPAL_CONFIG_CPU_IDLE_STATE parameters
 */
#define OPAL_CONFIG_IDLE_FASTSLEEP	1
#define OPAL_CONFIG_IDLE_UNDO		0
#define OPAL_CONFIG_IDLE_APPLY		1

#ifndef __ASSEMBLY__

/* Other enums */
enum OpalFreezeState {
	OPAL_EEH_STOPPED_NOT_FROZEN = 0,
	OPAL_EEH_STOPPED_MMIO_FREEZE = 1,
	OPAL_EEH_STOPPED_DMA_FREEZE = 2,
	OPAL_EEH_STOPPED_MMIO_DMA_FREEZE = 3,
	OPAL_EEH_STOPPED_RESET = 4,
	OPAL_EEH_STOPPED_TEMP_UNAVAIL = 5,
	OPAL_EEH_STOPPED_PERM_UNAVAIL = 6
};

enum OpalEehFreezeActionToken {
	OPAL_EEH_ACTION_CLEAR_FREEZE_MMIO = 1,
	OPAL_EEH_ACTION_CLEAR_FREEZE_DMA = 2,
	OPAL_EEH_ACTION_CLEAR_FREEZE_ALL = 3,

	OPAL_EEH_ACTION_SET_FREEZE_MMIO = 1,
	OPAL_EEH_ACTION_SET_FREEZE_DMA  = 2,
	OPAL_EEH_ACTION_SET_FREEZE_ALL  = 3
};

enum OpalPciStatusToken {
	OPAL_EEH_NO_ERROR	= 0,
	OPAL_EEH_IOC_ERROR	= 1,
	OPAL_EEH_PHB_ERROR	= 2,
	OPAL_EEH_PE_ERROR	= 3,
	OPAL_EEH_PE_MMIO_ERROR	= 4,
	OPAL_EEH_PE_DMA_ERROR	= 5
};

enum OpalPciErrorSeverity {
	OPAL_EEH_SEV_NO_ERROR	= 0,
	OPAL_EEH_SEV_IOC_DEAD	= 1,
	OPAL_EEH_SEV_PHB_DEAD	= 2,
	OPAL_EEH_SEV_PHB_FENCED	= 3,
	OPAL_EEH_SEV_PE_ER	= 4,
	OPAL_EEH_SEV_INF	= 5
};

enum OpalErrinjectType {
	OPAL_ERR_INJECT_TYPE_IOA_BUS_ERR	= 0,
	OPAL_ERR_INJECT_TYPE_IOA_BUS_ERR64	= 1,
};

enum OpalErrinjectFunc {
	/* IOA bus specific errors */
	OPAL_ERR_INJECT_FUNC_IOA_LD_MEM_ADDR	= 0,
	OPAL_ERR_INJECT_FUNC_IOA_LD_MEM_DATA	= 1,
	OPAL_ERR_INJECT_FUNC_IOA_LD_IO_ADDR	= 2,
	OPAL_ERR_INJECT_FUNC_IOA_LD_IO_DATA	= 3,
	OPAL_ERR_INJECT_FUNC_IOA_LD_CFG_ADDR	= 4,
	OPAL_ERR_INJECT_FUNC_IOA_LD_CFG_DATA	= 5,
	OPAL_ERR_INJECT_FUNC_IOA_ST_MEM_ADDR	= 6,
	OPAL_ERR_INJECT_FUNC_IOA_ST_MEM_DATA	= 7,
	OPAL_ERR_INJECT_FUNC_IOA_ST_IO_ADDR	= 8,
	OPAL_ERR_INJECT_FUNC_IOA_ST_IO_DATA	= 9,
	OPAL_ERR_INJECT_FUNC_IOA_ST_CFG_ADDR	= 10,
	OPAL_ERR_INJECT_FUNC_IOA_ST_CFG_DATA	= 11,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_RD_ADDR	= 12,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_RD_DATA	= 13,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_RD_MASTER	= 14,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_RD_TARGET	= 15,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_WR_ADDR	= 16,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_WR_DATA	= 17,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_WR_MASTER	= 18,
	OPAL_ERR_INJECT_FUNC_IOA_DMA_WR_TARGET	= 19,
};

enum OpalMmioWindowType {
	OPAL_M32_WINDOW_TYPE = 1,
	OPAL_M64_WINDOW_TYPE = 2,
	OPAL_IO_WINDOW_TYPE  = 3
};

enum OpalExceptionHandler {
	OPAL_MACHINE_CHECK_HANDLER	    = 1,
	OPAL_HYPERVISOR_MAINTENANCE_HANDLER = 2,
	OPAL_SOFTPATCH_HANDLER		    = 3
};

enum OpalPendingState {
	OPAL_EVENT_OPAL_INTERNAL   = 0x1,
	OPAL_EVENT_NVRAM	   = 0x2,
	OPAL_EVENT_RTC		   = 0x4,
	OPAL_EVENT_CONSOLE_OUTPUT  = 0x8,
	OPAL_EVENT_CONSOLE_INPUT   = 0x10,
	OPAL_EVENT_ERROR_LOG_AVAIL = 0x20,
	OPAL_EVENT_ERROR_LOG	   = 0x40,
	OPAL_EVENT_EPOW		   = 0x80,
	OPAL_EVENT_LED_STATUS	   = 0x100,
	OPAL_EVENT_PCI_ERROR	   = 0x200,
	OPAL_EVENT_DUMP_AVAIL	   = 0x400,
	OPAL_EVENT_MSG_PENDING	   = 0x800,
};

enum OpalThreadStatus {
	OPAL_THREAD_INACTIVE = 0x0,
	OPAL_THREAD_STARTED = 0x1,
	OPAL_THREAD_UNAVAILABLE = 0x2 /* opal-v3 */
};

enum OpalPciBusCompare {
	OpalPciBusAny	= 0,	/* Any bus number match */
	OpalPciBus3Bits	= 2,	/* Match top 3 bits of bus number */
	OpalPciBus4Bits	= 3,	/* Match top 4 bits of bus number */
	OpalPciBus5Bits	= 4,	/* Match top 5 bits of bus number */
	OpalPciBus6Bits	= 5,	/* Match top 6 bits of bus number */
	OpalPciBus7Bits	= 6,	/* Match top 7 bits of bus number */
	OpalPciBusAll	= 7,	/* Match bus number exactly */
};

enum OpalDeviceCompare {
	OPAL_IGNORE_RID_DEVICE_NUMBER = 0,
	OPAL_COMPARE_RID_DEVICE_NUMBER = 1
};

enum OpalFuncCompare {
	OPAL_IGNORE_RID_FUNCTION_NUMBER = 0,
	OPAL_COMPARE_RID_FUNCTION_NUMBER = 1
};

enum OpalPeAction {
	OPAL_UNMAP_PE = 0,
	OPAL_MAP_PE = 1
};

enum OpalPeltvAction {
	OPAL_REMOVE_PE_FROM_DOMAIN = 0,
	OPAL_ADD_PE_TO_DOMAIN = 1
};

enum OpalMveEnableAction {
	OPAL_DISABLE_MVE = 0,
	OPAL_ENABLE_MVE = 1
};

enum OpalM64Action {
	OPAL_DISABLE_M64 = 0,
	OPAL_ENABLE_M64_SPLIT = 1,
	OPAL_ENABLE_M64_NON_SPLIT = 2
};

enum OpalPciResetScope {
	OPAL_RESET_PHB_COMPLETE		= 1,
	OPAL_RESET_PCI_LINK		= 2,
	OPAL_RESET_PHB_ERROR		= 3,
	OPAL_RESET_PCI_HOT		= 4,
	OPAL_RESET_PCI_FUNDAMENTAL	= 5,
	OPAL_RESET_PCI_IODA_TABLE	= 6
};

enum OpalPciReinitScope {
	/*
	 * Note: we chose values that do not overlap
	 * OpalPciResetScope as OPAL v2 used the same
	 * enum for both
	 */
	OPAL_REINIT_PCI_DEV = 1000
};

enum OpalPciResetState {
	OPAL_DEASSERT_RESET = 0,
	OPAL_ASSERT_RESET   = 1
};

enum OpalPciSlotPresence {
	OPAL_PCI_SLOT_EMPTY	= 0,
	OPAL_PCI_SLOT_PRESENT	= 1
};

enum OpalPciSlotPower {
	OPAL_PCI_SLOT_POWER_OFF	= 0,
	OPAL_PCI_SLOT_POWER_ON	= 1,
	OPAL_PCI_SLOT_OFFLINE	= 2,
	OPAL_PCI_SLOT_ONLINE	= 3
};

enum OpalSlotLedType {
	OPAL_SLOT_LED_TYPE_ID = 0,	/* IDENTIFY LED */
	OPAL_SLOT_LED_TYPE_FAULT = 1,	/* FAULT LED */
	OPAL_SLOT_LED_TYPE_ATTN = 2,	/* System Attention LED */
	OPAL_SLOT_LED_TYPE_MAX = 3
};

enum OpalSlotLedState {
	OPAL_SLOT_LED_STATE_OFF = 0,	/* LED is OFF */
	OPAL_SLOT_LED_STATE_ON = 1	/* LED is ON */
};

/*
 * Address cycle types for LPC accesses. These also correspond
 * to the content of the first cell of the "reg" property for
 * device nodes on the LPC bus
 */
enum OpalLPCAddressType {
	OPAL_LPC_MEM	= 0,
	OPAL_LPC_IO	= 1,
	OPAL_LPC_FW	= 2,
};

enum opal_msg_type {
	OPAL_MSG_ASYNC_COMP	= 0,	/* params[0] = token, params[1] = rc,
					 * additional params function-specific
					 */
	OPAL_MSG_MEM_ERR	= 1,
	OPAL_MSG_EPOW		= 2,
	OPAL_MSG_SHUTDOWN	= 3,	/* params[0] = 1 reboot, 0 shutdown */
	OPAL_MSG_HMI_EVT	= 4,
	OPAL_MSG_DPO		= 5,
	OPAL_MSG_PRD		= 6,
	OPAL_MSG_OCC		= 7,
	OPAL_MSG_PRD2		= 8,
	OPAL_MSG_TYPE_MAX,
};

struct opal_msg {
	__be32 msg_type;
	__be32 reserved;
	__be64 params[8];
};

/* System parameter permission */
enum OpalSysparamPerm {
	OPAL_SYSPARAM_READ  = 0x1,
	OPAL_SYSPARAM_WRITE = 0x2,
	OPAL_SYSPARAM_RW    = (OPAL_SYSPARAM_READ | OPAL_SYSPARAM_WRITE),
};

enum {
	OPAL_IPMI_MSG_FORMAT_VERSION_1 = 1,
};

struct opal_ipmi_msg {
	uint8_t version;
	uint8_t netfn;
	uint8_t cmd;
	uint8_t data[];
};

/* FSP memory errors handling */
enum OpalMemErr_Version {
	OpalMemErr_V1 = 1,
};

enum OpalMemErrType {
	OPAL_MEM_ERR_TYPE_RESILIENCE	= 0,
	OPAL_MEM_ERR_TYPE_DYN_DALLOC,
};

/* Memory Reilience error type */
enum OpalMemErr_ResilErrType {
	OPAL_MEM_RESILIENCE_CE		= 0,
	OPAL_MEM_RESILIENCE_UE,
	OPAL_MEM_RESILIENCE_UE_SCRUB,
};

/* Dynamic Memory Deallocation type */
enum OpalMemErr_DynErrType {
	OPAL_MEM_DYNAMIC_DEALLOC	= 0,
};

struct OpalMemoryErrorData {
	enum OpalMemErr_Version	version:8;	/* 0x00 */
	enum OpalMemErrType	type:8;		/* 0x01 */
	__be16			flags;		/* 0x02 */
	uint8_t			reserved_1[4];	/* 0x04 */

	union {
		/* Memory Resilience corrected/uncorrected error info */
		struct {
			enum OpalMemErr_ResilErrType	resil_err_type:8;
			uint8_t				reserved_1[7];
			__be64				physical_address_start;
			__be64				physical_address_end;
		} resilience;
		/* Dynamic memory deallocation error info */
		struct {
			enum OpalMemErr_DynErrType	dyn_err_type:8;
			uint8_t				reserved_1[7];
			__be64				physical_address_start;
			__be64				physical_address_end;
		} dyn_dealloc;
	} u;
};

/* HMI interrupt event */
enum OpalHMI_Version {
	OpalHMIEvt_V1 = 1,
	OpalHMIEvt_V2 = 2,
};

enum OpalHMI_Severity {
	OpalHMI_SEV_NO_ERROR = 0,
	OpalHMI_SEV_WARNING = 1,
	OpalHMI_SEV_ERROR_SYNC = 2,
	OpalHMI_SEV_FATAL = 3,
};

enum OpalHMI_Disposition {
	OpalHMI_DISPOSITION_RECOVERED = 0,
	OpalHMI_DISPOSITION_NOT_RECOVERED = 1,
};

enum OpalHMI_ErrType {
	OpalHMI_ERROR_MALFUNC_ALERT	= 0,
	OpalHMI_ERROR_PROC_RECOV_DONE,
	OpalHMI_ERROR_PROC_RECOV_DONE_AGAIN,
	OpalHMI_ERROR_PROC_RECOV_MASKED,
	OpalHMI_ERROR_TFAC,
	OpalHMI_ERROR_TFMR_PARITY,
	OpalHMI_ERROR_HA_OVERFLOW_WARN,
	OpalHMI_ERROR_XSCOM_FAIL,
	OpalHMI_ERROR_XSCOM_DONE,
	OpalHMI_ERROR_SCOM_FIR,
	OpalHMI_ERROR_DEBUG_TRIG_FIR,
	OpalHMI_ERROR_HYP_RESOURCE,
	OpalHMI_ERROR_CAPP_RECOVERY,
};

enum OpalHMI_XstopType {
	CHECKSTOP_TYPE_UNKNOWN	=	0,
	CHECKSTOP_TYPE_CORE	=	1,
	CHECKSTOP_TYPE_NX	=	2,
	CHECKSTOP_TYPE_NPU	=	3
};

enum OpalHMI_CoreXstopReason {
	CORE_CHECKSTOP_IFU_REGFILE		= 0x00000001,
	CORE_CHECKSTOP_IFU_LOGIC		= 0x00000002,
	CORE_CHECKSTOP_PC_DURING_RECOV		= 0x00000004,
	CORE_CHECKSTOP_ISU_REGFILE		= 0x00000008,
	CORE_CHECKSTOP_ISU_LOGIC		= 0x00000010,
	CORE_CHECKSTOP_FXU_LOGIC		= 0x00000020,
	CORE_CHECKSTOP_VSU_LOGIC		= 0x00000040,
	CORE_CHECKSTOP_PC_RECOV_IN_MAINT_MODE	= 0x00000080,
	CORE_CHECKSTOP_LSU_REGFILE		= 0x00000100,
	CORE_CHECKSTOP_PC_FWD_PROGRESS		= 0x00000200,
	CORE_CHECKSTOP_LSU_LOGIC		= 0x00000400,
	CORE_CHECKSTOP_PC_LOGIC			= 0x00000800,
	CORE_CHECKSTOP_PC_HYP_RESOURCE		= 0x00001000,
	CORE_CHECKSTOP_PC_HANG_RECOV_FAILED	= 0x00002000,
	CORE_CHECKSTOP_PC_AMBI_HANG_DETECTED	= 0x00004000,
	CORE_CHECKSTOP_PC_DEBUG_TRIG_ERR_INJ	= 0x00008000,
	CORE_CHECKSTOP_PC_SPRD_HYP_ERR_INJ	= 0x00010000,
};

enum OpalHMI_NestAccelXstopReason {
	NX_CHECKSTOP_SHM_INVAL_STATE_ERR	= 0x00000001,
	NX_CHECKSTOP_DMA_INVAL_STATE_ERR_1	= 0x00000002,
	NX_CHECKSTOP_DMA_INVAL_STATE_ERR_2	= 0x00000004,
	NX_CHECKSTOP_DMA_CH0_INVAL_STATE_ERR	= 0x00000008,
	NX_CHECKSTOP_DMA_CH1_INVAL_STATE_ERR	= 0x00000010,
	NX_CHECKSTOP_DMA_CH2_INVAL_STATE_ERR	= 0x00000020,
	NX_CHECKSTOP_DMA_CH3_INVAL_STATE_ERR	= 0x00000040,
	NX_CHECKSTOP_DMA_CH4_INVAL_STATE_ERR	= 0x00000080,
	NX_CHECKSTOP_DMA_CH5_INVAL_STATE_ERR	= 0x00000100,
	NX_CHECKSTOP_DMA_CH6_INVAL_STATE_ERR	= 0x00000200,
	NX_CHECKSTOP_DMA_CH7_INVAL_STATE_ERR	= 0x00000400,
	NX_CHECKSTOP_DMA_CRB_UE			= 0x00000800,
	NX_CHECKSTOP_DMA_CRB_SUE		= 0x00001000,
	NX_CHECKSTOP_PBI_ISN_UE			= 0x00002000,
};

struct OpalHMIEvent {
	uint8_t		version;	/* 0x00 */
	uint8_t		severity;	/* 0x01 */
	uint8_t		type;		/* 0x02 */
	uint8_t		disposition;	/* 0x03 */
	uint8_t		reserved_1[4];	/* 0x04 */

	__be64		hmer;
	/* TFMR register. Valid only for TFAC and TFMR_PARITY error type. */
	__be64		tfmr;

	/* version 2 and later */
	union {
		/*
		 * checkstop info (Core/NX).
		 * Valid for OpalHMI_ERROR_MALFUNC_ALERT.
		 */
		struct {
			uint8_t	xstop_type;	/* enum OpalHMI_XstopType */
			uint8_t reserved_1[3];
			__be32  xstop_reason;
			union {
				__be32 pir;	/* for CHECKSTOP_TYPE_CORE */
				__be32 chip_id;	/* for CHECKSTOP_TYPE_NX */
			} u;
		} xstop_error;
	} u;
};

/* OPAL_HANDLE_HMI2 out_flags */
enum {
	OPAL_HMI_FLAGS_TB_RESYNC	= (1ull << 0), /* Timebase has been resynced */
	OPAL_HMI_FLAGS_DEC_LOST		= (1ull << 1), /* DEC lost, needs to be reprogrammed */
	OPAL_HMI_FLAGS_HDEC_LOST	= (1ull << 2), /* HDEC lost, needs to be reprogrammed */
	OPAL_HMI_FLAGS_TOD_TB_FAIL	= (1ull << 3), /* TOD/TB recovery failed. */
	OPAL_HMI_FLAGS_NEW_EVENT	= (1ull << 63), /* An event has been created */
};

enum {
	OPAL_P7IOC_DIAG_TYPE_NONE	= 0,
	OPAL_P7IOC_DIAG_TYPE_RGC	= 1,
	OPAL_P7IOC_DIAG_TYPE_BI		= 2,
	OPAL_P7IOC_DIAG_TYPE_CI		= 3,
	OPAL_P7IOC_DIAG_TYPE_MISC	= 4,
	OPAL_P7IOC_DIAG_TYPE_I2C	= 5,
	OPAL_P7IOC_DIAG_TYPE_LAST	= 6
};

struct OpalIoP7IOCErrorData {
	__be16 type;

	/* GEM */
	__be64 gemXfir;
	__be64 gemRfir;
	__be64 gemRirqfir;
	__be64 gemMask;
	__be64 gemRwof;

	/* LEM */
	__be64 lemFir;
	__be64 lemErrMask;
	__be64 lemAction0;
	__be64 lemAction1;
	__be64 lemWof;

	union {
		struct OpalIoP7IOCRgcErrorData {
			__be64 rgcStatus;	/* 3E1C10 */
			__be64 rgcLdcp;		/* 3E1C18 */
		}rgc;
		struct OpalIoP7IOCBiErrorData {
			__be64 biLdcp0;		/* 3C0100, 3C0118 */
			__be64 biLdcp1;		/* 3C0108, 3C0120 */
			__be64 biLdcp2;		/* 3C0110, 3C0128 */
			__be64 biFenceStatus;	/* 3C0130, 3C0130 */

			uint8_t biDownbound;	/* BI Downbound or Upbound */
		}bi;
		struct OpalIoP7IOCCiErrorData {
			__be64 ciPortStatus;	/* 3Dn008 */
			__be64 ciPortLdcp;	/* 3Dn010 */

			uint8_t ciPort;		/* Index of CI port: 0/1 */
		}ci;
	};
};

/**
 * This structure defines the overlay which will be used to store PHB error
 * data upon request.
 */
enum {
	OPAL_PHB_ERROR_DATA_VERSION_1 = 1,
};

enum {
	OPAL_PHB_ERROR_DATA_TYPE_P7IOC = 1,
	OPAL_PHB_ERROR_DATA_TYPE_PHB3 = 2,
	OPAL_PHB_ERROR_DATA_TYPE_PHB4 = 3
};

enum {
	OPAL_P7IOC_NUM_PEST_REGS = 128,
	OPAL_PHB3_NUM_PEST_REGS = 256,
	OPAL_PHB4_NUM_PEST_REGS = 512
};

struct OpalIoPhbErrorCommon {
	__be32 version;
	__be32 ioType;
	__be32 len;
};

struct OpalIoP7IOCPhbErrorData {
	struct OpalIoPhbErrorCommon common;

	__be32 brdgCtl;

	// P7IOC utl regs
	__be32 portStatusReg;
	__be32 rootCmplxStatus;
	__be32 busAgentStatus;

	// P7IOC cfg regs
	__be32 deviceStatus;
	__be32 slotStatus;
	__be32 linkStatus;
	__be32 devCmdStatus;
	__be32 devSecStatus;

	// cfg AER regs
	__be32 rootErrorStatus;
	__be32 uncorrErrorStatus;
	__be32 corrErrorStatus;
	__be32 tlpHdr1;
	__be32 tlpHdr2;
	__be32 tlpHdr3;
	__be32 tlpHdr4;
	__be32 sourceId;

	__be32 rsv3;

	// Record data about the call to allocate a buffer.
	__be64 errorClass;
	__be64 correlator;

	//P7IOC MMIO Error Regs
	__be64 p7iocPlssr;                // n120
	__be64 p7iocCsr;                  // n110
	__be64 lemFir;                    // nC00
	__be64 lemErrorMask;              // nC18
	__be64 lemWOF;                    // nC40
	__be64 phbErrorStatus;            // nC80
	__be64 phbFirstErrorStatus;       // nC88
	__be64 phbErrorLog0;              // nCC0
	__be64 phbErrorLog1;              // nCC8
	__be64 mmioErrorStatus;           // nD00
	__be64 mmioFirstErrorStatus;      // nD08
	__be64 mmioErrorLog0;             // nD40
	__be64 mmioErrorLog1;             // nD48
	__be64 dma0ErrorStatus;           // nD80
	__be64 dma0FirstErrorStatus;      // nD88
	__be64 dma0ErrorLog0;             // nDC0
	__be64 dma0ErrorLog1;             // nDC8
	__be64 dma1ErrorStatus;           // nE00
	__be64 dma1FirstErrorStatus;      // nE08
	__be64 dma1ErrorLog0;             // nE40
	__be64 dma1ErrorLog1;             // nE48
	__be64 pestA[OPAL_P7IOC_NUM_PEST_REGS];
	__be64 pestB[OPAL_P7IOC_NUM_PEST_REGS];
};

struct OpalIoPhb3ErrorData {
	struct OpalIoPhbErrorCommon common;

	__be32 brdgCtl;

	/* PHB3 UTL regs */
	__be32 portStatusReg;
	__be32 rootCmplxStatus;
	__be32 busAgentStatus;

	/* PHB3 cfg regs */
	__be32 deviceStatus;
	__be32 slotStatus;
	__be32 linkStatus;
	__be32 devCmdStatus;
	__be32 devSecStatus;

	/* cfg AER regs */
	__be32 rootErrorStatus;
	__be32 uncorrErrorStatus;
	__be32 corrErrorStatus;
	__be32 tlpHdr1;
	__be32 tlpHdr2;
	__be32 tlpHdr3;
	__be32 tlpHdr4;
	__be32 sourceId;

	__be32 rsv3;

	/* Record data about the call to allocate a buffer */
	__be64 errorClass;
	__be64 correlator;

	/* PHB3 MMIO Error Regs */
	__be64 nFir;			/* 000 */
	__be64 nFirMask;		/* 003 */
	__be64 nFirWOF;		/* 008 */
	__be64 phbPlssr;		/* 120 */
	__be64 phbCsr;		/* 110 */
	__be64 lemFir;		/* C00 */
	__be64 lemErrorMask;		/* C18 */
	__be64 lemWOF;		/* C40 */
	__be64 phbErrorStatus;	/* C80 */
	__be64 phbFirstErrorStatus;	/* C88 */
	__be64 phbErrorLog0;		/* CC0 */
	__be64 phbErrorLog1;		/* CC8 */
	__be64 mmioErrorStatus;	/* D00 */
	__be64 mmioFirstErrorStatus;	/* D08 */
	__be64 mmioErrorLog0;		/* D40 */
	__be64 mmioErrorLog1;		/* D48 */
	__be64 dma0ErrorStatus;	/* D80 */
	__be64 dma0FirstErrorStatus;	/* D88 */
	__be64 dma0ErrorLog0;		/* DC0 */
	__be64 dma0ErrorLog1;		/* DC8 */
	__be64 dma1ErrorStatus;	/* E00 */
	__be64 dma1FirstErrorStatus;	/* E08 */
	__be64 dma1ErrorLog0;		/* E40 */
	__be64 dma1ErrorLog1;		/* E48 */
	__be64 pestA[OPAL_PHB3_NUM_PEST_REGS];
	__be64 pestB[OPAL_PHB3_NUM_PEST_REGS];
};

struct OpalIoPhb4ErrorData {
	struct OpalIoPhbErrorCommon common;

	__be32 brdgCtl;

	/* PHB4 cfg regs */
	__be32 deviceStatus;
	__be32 slotStatus;
	__be32 linkStatus;
	__be32 devCmdStatus;
	__be32 devSecStatus;

	/* cfg AER regs */
	__be32 rootErrorStatus;
	__be32 uncorrErrorStatus;
	__be32 corrErrorStatus;
	__be32 tlpHdr1;
	__be32 tlpHdr2;
	__be32 tlpHdr3;
	__be32 tlpHdr4;
	__be32 sourceId;

	/* PHB4 ETU Error Regs */
	__be64 nFir;				/* 000 */
	__be64 nFirMask;			/* 003 */
	__be64 nFirWOF;				/* 008 */
	__be64 phbPlssr;			/* 120 */
	__be64 phbCsr;				/* 110 */
	__be64 lemFir;				/* C00 */
	__be64 lemErrorMask;			/* C18 */
	__be64 lemWOF;				/* C40 */
	__be64 phbErrorStatus;			/* C80 */
	__be64 phbFirstErrorStatus;		/* C88 */
	__be64 phbErrorLog0;			/* CC0 */
	__be64 phbErrorLog1;			/* CC8 */
	__be64 phbTxeErrorStatus;		/* D00 */
	__be64 phbTxeFirstErrorStatus;		/* D08 */
	__be64 phbTxeErrorLog0;			/* D40 */
	__be64 phbTxeErrorLog1;			/* D48 */
	__be64 phbRxeArbErrorStatus;		/* D80 */
	__be64 phbRxeArbFirstErrorStatus;	/* D88 */
	__be64 phbRxeArbErrorLog0;		/* DC0 */
	__be64 phbRxeArbErrorLog1;		/* DC8 */
	__be64 phbRxeMrgErrorStatus;		/* E00 */
	__be64 phbRxeMrgFirstErrorStatus;	/* E08 */
	__be64 phbRxeMrgErrorLog0;		/* E40 */
	__be64 phbRxeMrgErrorLog1;		/* E48 */
	__be64 phbRxeTceErrorStatus;		/* E80 */
	__be64 phbRxeTceFirstErrorStatus;	/* E88 */
	__be64 phbRxeTceErrorLog0;		/* EC0 */
	__be64 phbRxeTceErrorLog1;		/* EC8 */

	/* PHB4 REGB Error Regs */
	__be64 phbPblErrorStatus;		/* 1900 */
	__be64 phbPblFirstErrorStatus;		/* 1908 */
	__be64 phbPblErrorLog0;			/* 1940 */
	__be64 phbPblErrorLog1;			/* 1948 */
	__be64 phbPcieDlpErrorLog1;		/* 1AA0 */
	__be64 phbPcieDlpErrorLog2;		/* 1AA8 */
	__be64 phbPcieDlpErrorStatus;		/* 1AB0 */
	__be64 phbRegbErrorStatus;		/* 1C00 */
	__be64 phbRegbFirstErrorStatus;		/* 1C08 */
	__be64 phbRegbErrorLog0;		/* 1C40 */
	__be64 phbRegbErrorLog1;		/* 1C48 */

	__be64 pestA[OPAL_PHB4_NUM_PEST_REGS];
	__be64 pestB[OPAL_PHB4_NUM_PEST_REGS];
};

enum {
	OPAL_REINIT_CPUS_HILE_BE	= (1 << 0),
	OPAL_REINIT_CPUS_HILE_LE	= (1 << 1),

	/* These two define the base MMU mode of the host on P9
	 *
	 * On P9 Nimbus DD2.0 and Cumlus (and later), KVM can still
	 * create hash guests in "radix" mode with care (full core
	 * switch only).
	 */
	OPAL_REINIT_CPUS_MMU_HASH	= (1 << 2),
	OPAL_REINIT_CPUS_MMU_RADIX	= (1 << 3),

	OPAL_REINIT_CPUS_TM_SUSPEND_DISABLED = (1 << 4),
};

typedef struct oppanel_line {
	__be64 line;
	__be64 line_len;
} oppanel_line_t;

enum opal_prd_msg_type {
	OPAL_PRD_MSG_TYPE_INIT = 0,	/* HBRT --> OPAL */
	OPAL_PRD_MSG_TYPE_FINI,		/* HBRT/kernel --> OPAL */
	OPAL_PRD_MSG_TYPE_ATTN,		/* HBRT <-- OPAL */
	OPAL_PRD_MSG_TYPE_ATTN_ACK,	/* HBRT --> OPAL */
	OPAL_PRD_MSG_TYPE_OCC_ERROR,	/* HBRT <-- OPAL */
	OPAL_PRD_MSG_TYPE_OCC_RESET,	/* HBRT <-- OPAL */
};

struct opal_prd_msg_header {
	uint8_t		type;
	uint8_t		pad[1];
	__be16		size;
};

struct opal_prd_msg;

#define OCC_RESET                       0
#define OCC_LOAD                        1
#define OCC_THROTTLE                    2
#define OCC_MAX_THROTTLE_STATUS         5

struct opal_occ_msg {
	__be64 type;
	__be64 chip;
	__be64 throttle_status;
};

/*
 * SG entries
 *
 * WARNING: The current implementation requires each entry
 * to represent a block that is 4k aligned *and* each block
 * size except the last one in the list to be as well.
 */
struct opal_sg_entry {
	__be64 data;
	__be64 length;
};

/*
 * Candidate image SG list.
 *
 * length = VER | length
 */
struct opal_sg_list {
	__be64 length;
	__be64 next;
	struct opal_sg_entry entry[];
};

/*
 * Dump region ID range usable by the OS
 */
#define OPAL_DUMP_REGION_HOST_START		0x80
#define OPAL_DUMP_REGION_LOG_BUF		0x80
#define OPAL_DUMP_REGION_HOST_END		0xFF

/* CAPI modes for PHB */
enum {
	OPAL_PHB_CAPI_MODE_PCIE		= 0,
	OPAL_PHB_CAPI_MODE_CAPI		= 1,
	OPAL_PHB_CAPI_MODE_SNOOP_OFF    = 2,
	OPAL_PHB_CAPI_MODE_SNOOP_ON	= 3,
	OPAL_PHB_CAPI_MODE_DMA		= 4,
	OPAL_PHB_CAPI_MODE_DMA_TVT1	= 5,
};

/* OPAL I2C request */
struct opal_i2c_request {
	uint8_t	type;
#define OPAL_I2C_RAW_READ	0
#define OPAL_I2C_RAW_WRITE	1
#define OPAL_I2C_SM_READ	2
#define OPAL_I2C_SM_WRITE	3
	uint8_t flags;
#define OPAL_I2C_ADDR_10	0x01	/* Not supported yet */
	uint8_t	subaddr_sz;		/* Max 4 */
	uint8_t reserved;
	__be16 addr;			/* 7 or 10 bit address */
	__be16 reserved2;
	__be32 subaddr;		/* Sub-address if any */
	__be32 size;			/* Data size */
	__be64 buffer_ra;		/* Buffer real address */
};

/*
 * EPOW status sharing (OPAL and the host)
 *
 * The host will pass on OPAL, a buffer of length OPAL_SYSEPOW_MAX
 * with individual elements being 16 bits wide to fetch the system
 * wide EPOW status. Each element in the buffer will contain the
 * EPOW status in it's bit representation for a particular EPOW sub
 * class as defined here. So multiple detailed EPOW status bits
 * specific for any sub class can be represented in a single buffer
 * element as it's bit representation.
 */

/* System EPOW type */
enum OpalSysEpow {
	OPAL_SYSEPOW_POWER	= 0,	/* Power EPOW */
	OPAL_SYSEPOW_TEMP	= 1,	/* Temperature EPOW */
	OPAL_SYSEPOW_COOLING	= 2,	/* Cooling EPOW */
	OPAL_SYSEPOW_MAX	= 3,	/* Max EPOW categories */
};

/* Power EPOW */
enum OpalSysPower {
	OPAL_SYSPOWER_UPS	= 0x0001, /* System on UPS power */
	OPAL_SYSPOWER_CHNG	= 0x0002, /* System power config change */
	OPAL_SYSPOWER_FAIL	= 0x0004, /* System impending power failure */
	OPAL_SYSPOWER_INCL	= 0x0008, /* System incomplete power */
};

/* Temperature EPOW */
enum OpalSysTemp {
	OPAL_SYSTEMP_AMB	= 0x0001, /* System over ambient temperature */
	OPAL_SYSTEMP_INT	= 0x0002, /* System over internal temperature */
	OPAL_SYSTEMP_HMD	= 0x0004, /* System over ambient humidity */
};

/* Cooling EPOW */
enum OpalSysCooling {
	OPAL_SYSCOOL_INSF	= 0x0001, /* System insufficient cooling */
};

/* Argument to OPAL_CEC_REBOOT2() */
enum {
	OPAL_REBOOT_NORMAL		= 0,
	OPAL_REBOOT_PLATFORM_ERROR	= 1,
	OPAL_REBOOT_FULL_IPL		= 2,
	OPAL_REBOOT_MPIPL		= 3,
	OPAL_REBOOT_FAST		= 4,
};

/* Argument to OPAL_PCI_TCE_KILL */
enum {
	OPAL_PCI_TCE_KILL_PAGES,
	OPAL_PCI_TCE_KILL_PE,
	OPAL_PCI_TCE_KILL_ALL,
};

/* The xive operation mode indicates the active "API" and
 * corresponds to the "mode" parameter of the opal_xive_reset()
 * call
 */
enum {
	OPAL_XIVE_MODE_EMU	= 0,
	OPAL_XIVE_MODE_EXPL	= 1,
};

/* Flags for OPAL_XIVE_GET_IRQ_INFO */
enum {
	OPAL_XIVE_IRQ_TRIGGER_PAGE	= 0x00000001,
	OPAL_XIVE_IRQ_STORE_EOI		= 0x00000002,
	OPAL_XIVE_IRQ_LSI		= 0x00000004,
	OPAL_XIVE_IRQ_SHIFT_BUG		= 0x00000008, /* P9 DD1.0 workaround */
	OPAL_XIVE_IRQ_MASK_VIA_FW	= 0x00000010, /* P9 DD1.0 workaround */
	OPAL_XIVE_IRQ_EOI_VIA_FW	= 0x00000020, /* P9 DD1.0 workaround */
	OPAL_XIVE_IRQ_STORE_EOI2	= 0x00000040,
};

/* Flags for OPAL_XIVE_GET/SET_QUEUE_INFO */
enum {
	OPAL_XIVE_EQ_ENABLED		= 0x00000001,
	OPAL_XIVE_EQ_ALWAYS_NOTIFY	= 0x00000002,
	OPAL_XIVE_EQ_ESCALATE		= 0x00000004,
};

/* Flags for OPAL_XIVE_GET/SET_VP_INFO */
enum {
	OPAL_XIVE_VP_ENABLED		= 0x00000001,
	OPAL_XIVE_VP_SINGLE_ESCALATION	= 0x00000002,
};

/* "Any chip" replacement for chip ID for allocation functions */
enum {
	OPAL_XIVE_ANY_CHIP		= 0xffffffff,
};

/* Xive sync options */
enum {
	/* This bits are cumulative, arg is a girq */
	XIVE_SYNC_EAS			= 0x00000001, /* Sync irq source */
	XIVE_SYNC_QUEUE			= 0x00000002, /* Sync irq target */
};

/* Dump options */
enum {
	XIVE_DUMP_TM_HYP	= 0,
	XIVE_DUMP_TM_POOL	= 1,
	XIVE_DUMP_TM_OS		= 2,
	XIVE_DUMP_TM_USER	= 3,
	XIVE_DUMP_VP		= 4,
	XIVE_DUMP_EMU_STATE	= 5,
};

/* "type" argument options for OPAL_IMC_COUNTERS_* calls */
enum {
	OPAL_IMC_COUNTERS_NEST = 1,
	OPAL_IMC_COUNTERS_CORE = 2,
	OPAL_IMC_COUNTERS_TRACE = 3,
};


/* PCI p2p descriptor */
#define OPAL_PCI_P2P_ENABLE		0x1
#define OPAL_PCI_P2P_LOAD		0x2
#define OPAL_PCI_P2P_STORE		0x4

/* MPIPL update operations */
enum opal_mpipl_ops {
	OPAL_MPIPL_ADD_RANGE			= 0,
	OPAL_MPIPL_REMOVE_RANGE			= 1,
	OPAL_MPIPL_REMOVE_ALL			= 2,
	OPAL_MPIPL_FREE_PRESERVED_MEMORY	= 3,
};

/* Tag will point to various metadata area. Kernel will
 * use tag to get metadata value.
 */
enum opal_mpipl_tags {
	OPAL_MPIPL_TAG_CPU	= 0,
	OPAL_MPIPL_TAG_OPAL	= 1,
	OPAL_MPIPL_TAG_KERNEL	= 2,
	OPAL_MPIPL_TAG_BOOT_MEM	= 3,
};

/* Preserved memory details */
struct opal_mpipl_region {
	__be64	src;
	__be64	dest;
	__be64	size;
};

/* Structure version */
#define OPAL_MPIPL_VERSION		0x01

struct opal_mpipl_fadump {
	u8	version;
	u8	reserved[7];
	__be32	crashing_pir;	/* OPAL crashing CPU PIR */
	__be32	cpu_data_version;
	__be32	cpu_data_size;
	__be32	region_cnt;
	struct	opal_mpipl_region region[];
} __packed;

#endif /* __ASSEMBLY__ */

#endif /* __OPAL_API_H */
¿Qué es la limpieza dental de perros? - Clínica veterinaria


Es la eliminación del sarro y la placa adherida a la superficie de los dientes mediante un equipo de ultrasonidos que garantiza la integridad de las piezas dentales a la vez que elimina en profundidad cualquier resto de suciedad.

A continuación se procede al pulido de los dientes mediante una fresa especial que elimina la placa bacteriana y devuelve a los dientes el aspecto sano que deben tener.

Una vez terminado todo el proceso, se mantiene al perro en observación hasta que se despierta de la anestesia, bajo la atenta supervisión de un veterinario.

¿Cada cuánto tiempo tengo que hacerle una limpieza dental a mi perro?

A partir de cierta edad, los perros pueden necesitar una limpieza dental anual o bianual. Depende de cada caso. En líneas generales, puede decirse que los perros de razas pequeñas suelen acumular más sarro y suelen necesitar una atención mayor en cuanto a higiene dental.


Riesgos de una mala higiene


Los riesgos más evidentes de una mala higiene dental en los perros son los siguientes:

  • Cuando la acumulación de sarro no se trata, se puede producir una inflamación y retracción de las encías que puede descalzar el diente y provocar caídas.
  • Mal aliento (halitosis).
  • Sarro perros
  • Puede ir a más
  • Las bacterias de la placa pueden trasladarse a través del torrente circulatorio a órganos vitales como el corazón ocasionando problemas de endocarditis en las válvulas. Las bacterias pueden incluso acantonarse en huesos (La osteomielitis es la infección ósea, tanto cortical como medular) provocando mucho dolor y una artritis séptica).

¿Cómo se forma el sarro?

El sarro es la calcificación de la placa dental. Los restos de alimentos, junto con las bacterias presentes en la boca, van a formar la placa bacteriana o placa dental. Si la placa no se retira, al mezclarse con la saliva y los minerales presentes en ella, reaccionará formando una costra. La placa se calcifica y se forma el sarro.

El sarro, cuando se forma, es de color blanquecino pero a medida que pasa el tiempo se va poniendo amarillo y luego marrón.

Síntomas de una pobre higiene dental
La señal más obvia de una mala salud dental canina es el mal aliento.

Sin embargo, a veces no es tan fácil de detectar
Y hay perros que no se dejan abrir la boca por su dueño. Por ejemplo…

Recientemente nos trajeron a la clínica a un perro que parpadeaba de un ojo y decía su dueño que le picaba un lado de la cara. Tenía molestias y dificultad para comer, lo que había llevado a sus dueños a comprarle comida blanda (que suele ser un poco más cara y llevar más contenido en grasa) durante medio año. Después de una exploración oftalmológica, nos dimos cuenta de que el ojo tenía una úlcera en la córnea probablemente de rascarse . Además, el canto lateral del ojo estaba inflamado. Tenía lo que en humanos llamamos flemón pero como era un perro de pelo largo, no se le notaba a simple vista. Al abrirle la boca nos llamó la atención el ver una muela llena de sarro. Le realizamos una radiografía y encontramos una fístula que llegaba hasta la parte inferior del ojo.

Le tuvimos que extraer la muela. Tras esto, el ojo se curó completamente con unos colirios y una lentilla protectora de úlcera. Afortunadamente, la úlcera no profundizó y no perforó el ojo. Ahora el perro come perfectamente a pesar de haber perdido una muela.

¿Cómo mantener la higiene dental de tu perro?
Hay varias maneras de prevenir problemas derivados de la salud dental de tu perro.

Limpiezas de dientes en casa
Es recomendable limpiar los dientes de tu perro semanal o diariamente si se puede. Existe una gran variedad de productos que se pueden utilizar:

Pastas de dientes.
Cepillos de dientes o dedales para el dedo índice, que hacen más fácil la limpieza.
Colutorios para echar en agua de bebida o directamente sobre el diente en líquido o en spray.

En la Clínica Tus Veterinarios enseñamos a nuestros clientes a tomar el hábito de limpiar los dientes de sus perros desde que son cachorros. Esto responde a nuestro compromiso con la prevención de enfermedades caninas.

Hoy en día tenemos muchos clientes que limpian los dientes todos los días a su mascota, y como resultado, se ahorran el dinero de hacer limpiezas dentales profesionales y consiguen una mejor salud de su perro.


Limpiezas dentales profesionales de perros y gatos

Recomendamos hacer una limpieza dental especializada anualmente. La realizamos con un aparato de ultrasonidos que utiliza agua para quitar el sarro. Después, procedemos a pulir los dientes con un cepillo de alta velocidad y una pasta especial. Hacemos esto para proteger el esmalte.

La frecuencia de limpiezas dentales necesaria varía mucho entre razas. En general, las razas grandes tienen buena calidad de esmalte, por lo que no necesitan hacerlo tan a menudo e incluso pueden pasarse la vida sin requerir una limpieza. Sin embargo, razas pequeñas como el Yorkshire o el Maltés, deben hacérselas todos los años desde cachorros si se quiere conservar sus piezas dentales.

Otro factor fundamental es la calidad del pienso. Algunas marcas han diseñado croquetas que limpian la superficie del diente y de la muela al masticarse.

Ultrasonido para perros

¿Se necesita anestesia para las limpiezas dentales de perros y gatos?

La limpieza dental en perros no es una técnica que pueda practicarse sin anestesia general , aunque hay veces que los propietarios no quieren anestesiar y si tiene poco sarro y el perro es muy bueno se puede intentar…… , pero no se va a poder pulir ni acceder a todas la zona de la boca …. Además los limpiadores dentales van a irrigar agua y hay riesgo de aspiración a vías respiratorias si no se realiza una anestesia correcta con intubación traqueal . En resumen , sin anestesia no se va hacer una correcta limpieza dental.

Tampoco sirve la sedación ya que necesitamos que el animal esté totalmente quieto, y el veterinario tenga un acceso completo a todas sus piezas dentales y encías.

Alimentos para la limpieza dental

Hay que tener cierto cuidado a la hora de comprar determinados alimentos porque no todos son saludables. Algunos tienen demasiado contenido graso, que en exceso puede causar problemas cardiovasculares y obesidad.

Los mejores alimentos para los dientes son aquellos que están elaborados por empresas farmacéuticas y llevan componentes químicos con tratamientos específicos para el diente del perro. Esto implica no solo limpieza a través de la acción mecánica de morder sino también un tratamiento antibacteriano para prevenir el sarro.

Conclusión

Si eres como la mayoría de dueños, por falta de tiempo , es probable que no estés prestando la suficiente atención a la limpieza dental de tu perro. Por eso te animamos a que comiences a limpiar los dientes de tu perro y consideres atender a su higiene bucal con frecuencia.

Estas simples medidas pueden conllevar a que tu perro tenga una vida más larga y mucho más saludable.

Si te resulta imposible introducir un cepillo de dientes a tu perro en la boca, pásate con él por clínica Tus Veterinarios y te explicamos cómo hacerlo.

Necesitas hacer una limpieza dental profesional a tu mascota?
Llámanos al 622575274 o contacta con nosotros

Deja un comentario

Tu dirección de correo electrónico no será publicada. Los campos obligatorios están marcados con *

¡Hola!