/* SPDX-License-Identifier: MIT */
/******************************************************************************
* platform.h
*
* Hardware platform operations. Intended for use by domain-0 kernel.
*
* Copyright (c) 2002-2006, K Fraser
*/
#ifndef __XEN_PUBLIC_PLATFORM_H__
#define __XEN_PUBLIC_PLATFORM_H__
#include "xen.h"
#define XENPF_INTERFACE_VERSION 0x03000001
/*
* Set clock such that it would read <secs,nsecs> after 00:00:00 UTC,
* 1 January, 1970 if the current system time was <system_time>.
*/
#define XENPF_settime32 17
struct xenpf_settime32 {
/* IN variables. */
uint32_t secs;
uint32_t nsecs;
uint64_t system_time;
};
typedef struct xenpf_settime32 xenpf_settime32_t;
#define XENPF_settime64 62
struct xenpf_settime64 {
/* IN variables. */
uint64_t secs;
uint32_t nsecs;
uint32_t mbz;
uint64_t system_time;
};
typedef struct xenpf_settime64 xenpf_settime64_t;
#if __XEN_INTERFACE_VERSION__ < 0x00040600
#define XENPF_settime XENPF_settime32
#define xenpf_settime xenpf_settime32
#else
#define XENPF_settime XENPF_settime64
#define xenpf_settime xenpf_settime64
#endif
typedef struct xenpf_settime xenpf_settime_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_settime_t);
/*
* Request memory range (@mfn, @mfn+@nr_mfns-1) to have type @type.
* On x86, @type is an architecture-defined MTRR memory type.
* On success, returns the MTRR that was used (@reg) and a handle that can
* be passed to XENPF_DEL_MEMTYPE to accurately tear down the new setting.
* (x86-specific).
*/
#define XENPF_add_memtype 31
struct xenpf_add_memtype {
/* IN variables. */
xen_pfn_t mfn;
uint64_t nr_mfns;
uint32_t type;
/* OUT variables. */
uint32_t handle;
uint32_t reg;
};
typedef struct xenpf_add_memtype xenpf_add_memtype_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_add_memtype_t);
/*
* Tear down an existing memory-range type. If @handle is remembered then it
* should be passed in to accurately tear down the correct setting (in case
* of overlapping memory regions with differing types). If it is not known
* then @handle should be set to zero. In all cases @reg must be set.
* (x86-specific).
*/
#define XENPF_del_memtype 32
struct xenpf_del_memtype {
/* IN variables. */
uint32_t handle;
uint32_t reg;
};
typedef struct xenpf_del_memtype xenpf_del_memtype_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_del_memtype_t);
/* Read current type of an MTRR (x86-specific). */
#define XENPF_read_memtype 33
struct xenpf_read_memtype {
/* IN variables. */
uint32_t reg;
/* OUT variables. */
xen_pfn_t mfn;
uint64_t nr_mfns;
uint32_t type;
};
typedef struct xenpf_read_memtype xenpf_read_memtype_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_read_memtype_t);
#define XENPF_microcode_update 35
struct xenpf_microcode_update {
/* IN variables. */
XEN_GUEST_HANDLE(const_void) data;/* Pointer to microcode data */
uint32_t length; /* Length of microcode data. */
};
typedef struct xenpf_microcode_update xenpf_microcode_update_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_microcode_update_t);
#define XENPF_platform_quirk 39
#define QUIRK_NOIRQBALANCING 1 /* Do not restrict IO-APIC RTE targets */
#define QUIRK_IOAPIC_BAD_REGSEL 2 /* IO-APIC REGSEL forgets its value */
#define QUIRK_IOAPIC_GOOD_REGSEL 3 /* IO-APIC REGSEL behaves properly */
struct xenpf_platform_quirk {
/* IN variables. */
uint32_t quirk_id;
};
typedef struct xenpf_platform_quirk xenpf_platform_quirk_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_platform_quirk_t);
#define XENPF_efi_runtime_call 49
#define XEN_EFI_get_time 1
#define XEN_EFI_set_time 2
#define XEN_EFI_get_wakeup_time 3
#define XEN_EFI_set_wakeup_time 4
#define XEN_EFI_get_next_high_monotonic_count 5
#define XEN_EFI_get_variable 6
#define XEN_EFI_set_variable 7
#define XEN_EFI_get_next_variable_name 8
#define XEN_EFI_query_variable_info 9
#define XEN_EFI_query_capsule_capabilities 10
#define XEN_EFI_update_capsule 11
struct xenpf_efi_time {
uint16_t year;
uint8_t month;
uint8_t day;
uint8_t hour;
uint8_t min;
uint8_t sec;
uint32_t ns;
int16_t tz;
uint8_t daylight;
};
struct xenpf_efi_guid {
uint32_t data1;
uint16_t data2;
uint16_t data3;
uint8_t data4[8];
};
struct xenpf_efi_runtime_call {
uint32_t function;
/*
* This field is generally used for per sub-function flags (defined
* below), except for the XEN_EFI_get_next_high_monotonic_count case,
* where it holds the single returned value.
*/
uint32_t misc;
xen_ulong_t status;
union {
#define XEN_EFI_GET_TIME_SET_CLEARS_NS 0x00000001
struct {
struct xenpf_efi_time time;
uint32_t resolution;
uint32_t accuracy;
} get_time;
struct xenpf_efi_time set_time;
#define XEN_EFI_GET_WAKEUP_TIME_ENABLED 0x00000001
#define XEN_EFI_GET_WAKEUP_TIME_PENDING 0x00000002
struct xenpf_efi_time get_wakeup_time;
#define XEN_EFI_SET_WAKEUP_TIME_ENABLE 0x00000001
#define XEN_EFI_SET_WAKEUP_TIME_ENABLE_ONLY 0x00000002
struct xenpf_efi_time set_wakeup_time;
#define XEN_EFI_VARIABLE_NON_VOLATILE 0x00000001
#define XEN_EFI_VARIABLE_BOOTSERVICE_ACCESS 0x00000002
#define XEN_EFI_VARIABLE_RUNTIME_ACCESS 0x00000004
struct {
XEN_GUEST_HANDLE(void) name; /* UCS-2/UTF-16 string */
xen_ulong_t size;
XEN_GUEST_HANDLE(void) data;
struct xenpf_efi_guid vendor_guid;
} get_variable, set_variable;
struct {
xen_ulong_t size;
XEN_GUEST_HANDLE(void) name; /* UCS-2/UTF-16 string */
struct xenpf_efi_guid vendor_guid;
} get_next_variable_name;
#define XEN_EFI_VARINFO_BOOT_SNAPSHOT 0x00000001
struct {
uint32_t attr;
uint64_t max_store_size;
uint64_t remain_store_size;
uint64_t max_size;
} query_variable_info;
struct {
XEN_GUEST_HANDLE(void) capsule_header_array;
xen_ulong_t capsule_count;
uint64_t max_capsule_size;
uint32_t reset_type;
} query_capsule_capabilities;
struct {
XEN_GUEST_HANDLE(void) capsule_header_array;
xen_ulong_t capsule_count;
uint64_t sg_list; /* machine address */
} update_capsule;
} u;
};
typedef struct xenpf_efi_runtime_call xenpf_efi_runtime_call_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_efi_runtime_call_t);
#define XENPF_firmware_info 50
#define XEN_FW_DISK_INFO 1 /* from int 13 AH=08/41/48 */
#define XEN_FW_DISK_MBR_SIGNATURE 2 /* from MBR offset 0x1b8 */
#define XEN_FW_VBEDDC_INFO 3 /* from int 10 AX=4f15 */
#define XEN_FW_EFI_INFO 4 /* from EFI */
#define XEN_FW_EFI_VERSION 0
#define XEN_FW_EFI_CONFIG_TABLE 1
#define XEN_FW_EFI_VENDOR 2
#define XEN_FW_EFI_MEM_INFO 3
#define XEN_FW_EFI_RT_VERSION 4
#define XEN_FW_EFI_PCI_ROM 5
#define XEN_FW_EFI_APPLE_PROPERTIES 6
#define XEN_FW_KBD_SHIFT_FLAGS 5
struct xenpf_firmware_info {
/* IN variables. */
uint32_t type;
uint32_t index;
/* OUT variables. */
union {
struct {
/* Int13, Fn48: Check Extensions Present. */
uint8_t device; /* %dl: bios device number */
uint8_t version; /* %ah: major version */
uint16_t interface_support; /* %cx: support bitmap */
/* Int13, Fn08: Legacy Get Device Parameters. */
uint16_t legacy_max_cylinder; /* %cl[7:6]:%ch: max cyl # */
uint8_t legacy_max_head; /* %dh: max head # */
uint8_t legacy_sectors_per_track; /* %cl[5:0]: max sector # */
/* Int13, Fn41: Get Device Parameters (as filled into %ds:%esi). */
/* NB. First uint16_t of buffer must be set to buffer size. */
XEN_GUEST_HANDLE(void) edd_params;
} disk_info; /* XEN_FW_DISK_INFO */
struct {
uint8_t device; /* bios device number */
uint32_t mbr_signature; /* offset 0x1b8 in mbr */
} disk_mbr_signature; /* XEN_FW_DISK_MBR_SIGNATURE */
struct {
/* Int10, AX=4F15: Get EDID info. */
uint8_t capabilities;
uint8_t edid_transfer_time;
/* must refer to 128-byte buffer */
XEN_GUEST_HANDLE(uint8) edid;
} vbeddc_info; /* XEN_FW_VBEDDC_INFO */
union xenpf_efi_info {
uint32_t version;
struct {
uint64_t addr; /* EFI_CONFIGURATION_TABLE */
uint32_t nent;
} cfg;
struct {
uint32_t revision;
uint32_t bufsz; /* input, in bytes */
XEN_GUEST_HANDLE(void) name; /* UCS-2/UTF-16 string */
} vendor;
struct {
uint64_t addr;
uint64_t size;
uint64_t attr;
uint32_t type;
} mem;
struct {
/* IN variables */
uint16_t segment;
uint8_t bus;
uint8_t devfn;
uint16_t vendor;
uint16_t devid;
/* OUT variables */
uint64_t address;
xen_ulong_t size;
} pci_rom;
struct {
/* OUT variables */
uint64_t address;
xen_ulong_t size;
} apple_properties;
} efi_info; /* XEN_FW_EFI_INFO */
/* Int16, Fn02: Get keyboard shift flags. */
uint8_t kbd_shift_flags; /* XEN_FW_KBD_SHIFT_FLAGS */
} u;
};
typedef struct xenpf_firmware_info xenpf_firmware_info_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_firmware_info_t);
#define XENPF_enter_acpi_sleep 51
struct xenpf_enter_acpi_sleep {
/* IN variables */
#if __XEN_INTERFACE_VERSION__ < 0x00040300
uint16_t pm1a_cnt_val; /* PM1a control value. */
uint16_t pm1b_cnt_val; /* PM1b control value. */
#else
uint16_t val_a; /* PM1a control / sleep type A. */
uint16_t val_b; /* PM1b control / sleep type B. */
#endif
uint32_t sleep_state; /* Which state to enter (Sn). */
#define XENPF_ACPI_SLEEP_EXTENDED 0x00000001
uint32_t flags; /* XENPF_ACPI_SLEEP_*. */
};
typedef struct xenpf_enter_acpi_sleep xenpf_enter_acpi_sleep_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_enter_acpi_sleep_t);
#define XENPF_change_freq 52
struct xenpf_change_freq {
/* IN variables */
uint32_t flags; /* Must be zero. */
uint32_t cpu; /* Physical cpu. */
uint64_t freq; /* New frequency (Hz). */
};
typedef struct xenpf_change_freq xenpf_change_freq_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_change_freq_t);
/*
* Get idle times (nanoseconds since boot) for physical CPUs specified in the
* @cpumap_bitmap with range [0..@cpumap_nr_cpus-1]. The @idletime array is
* indexed by CPU number; only entries with the corresponding @cpumap_bitmap
* bit set are written to. On return, @cpumap_bitmap is modified so that any
* non-existent CPUs are cleared. Such CPUs have their @idletime array entry
* cleared.
*/
#define XENPF_getidletime 53
struct xenpf_getidletime {
/* IN/OUT variables */
/* IN: CPUs to interrogate; OUT: subset of IN which are present */
XEN_GUEST_HANDLE(uint8) cpumap_bitmap;
/* IN variables */
/* Size of cpumap bitmap. */
uint32_t cpumap_nr_cpus;
/* Must be indexable for every cpu in cpumap_bitmap. */
XEN_GUEST_HANDLE(uint64) idletime;
/* OUT variables */
/* System time when the idletime snapshots were taken. */
uint64_t now;
};
typedef struct xenpf_getidletime xenpf_getidletime_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_getidletime_t);
#define XENPF_set_processor_pminfo 54
/* ability bits */
#define XEN_PROCESSOR_PM_CX 1
#define XEN_PROCESSOR_PM_PX 2
#define XEN_PROCESSOR_PM_TX 4
/* cmd type */
#define XEN_PM_CX 0
#define XEN_PM_PX 1
#define XEN_PM_TX 2
#define XEN_PM_PDC 3
/* Px sub info type */
#define XEN_PX_PCT 1
#define XEN_PX_PSS 2
#define XEN_PX_PPC 4
#define XEN_PX_PSD 8
struct xen_power_register {
uint32_t space_id;
uint32_t bit_width;
uint32_t bit_offset;
uint32_t access_size;
uint64_t address;
};
struct xen_processor_csd {
uint32_t domain; /* domain number of one dependent group */
uint32_t coord_type; /* coordination type */
uint32_t num; /* number of processors in same domain */
};
typedef struct xen_processor_csd xen_processor_csd_t;
DEFINE_XEN_GUEST_HANDLE(xen_processor_csd_t);
struct xen_processor_cx {
struct xen_power_register reg; /* GAS for Cx trigger register */
uint8_t type; /* cstate value, c0: 0, c1: 1, ... */
uint32_t latency; /* worst latency (ms) to enter/exit this cstate */
uint32_t power; /* average power consumption(mW) */
uint32_t dpcnt; /* number of dependency entries */
XEN_GUEST_HANDLE(xen_processor_csd_t) dp; /* NULL if no dependency */
};
typedef struct xen_processor_cx xen_processor_cx_t;
DEFINE_XEN_GUEST_HANDLE(xen_processor_cx_t);
struct xen_processor_flags {
uint32_t bm_control:1;
uint32_t bm_check:1;
uint32_t has_cst:1;
uint32_t power_setup_done:1;
uint32_t bm_rld_set:1;
};
struct xen_processor_power {
uint32_t count; /* number of C state entries in array below */
struct xen_processor_flags flags; /* global flags of this processor */
XEN_GUEST_HANDLE(xen_processor_cx_t) states; /* supported c states */
};
struct xen_pct_register {
uint8_t descriptor;
uint16_t length;
uint8_t space_id;
uint8_t bit_width;
uint8_t bit_offset;
uint8_t reserved;
uint64_t address;
};
struct xen_processor_px {
uint64_t core_frequency; /* megahertz */
uint64_t power; /* milliWatts */
uint64_t transition_latency; /* microseconds */
uint64_t bus_master_latency; /* microseconds */
uint64_t control; /* control value */
uint64_t status; /* success indicator */
};
typedef struct xen_processor_px xen_processor_px_t;
DEFINE_XEN_GUEST_HANDLE(xen_processor_px_t);
struct xen_psd_package {
uint64_t num_entries;
uint64_t revision;
uint64_t domain;
uint64_t coord_type;
uint64_t num_processors;
};
struct xen_processor_performance {
uint32_t flags; /* flag for Px sub info type */
uint32_t platform_limit; /* Platform limitation on freq usage */
struct xen_pct_register control_register;
struct xen_pct_register status_register;
uint32_t state_count; /* total available performance states */
XEN_GUEST_HANDLE(xen_processor_px_t) states;
struct xen_psd_package domain_info;
/* Coordination type of this processor */
#define XEN_CPUPERF_SHARED_TYPE_HW 1 /* HW does needed coordination */
#define XEN_CPUPERF_SHARED_TYPE_ALL 2 /* All dependent CPUs should set freq */
#define XEN_CPUPERF_SHARED_TYPE_ANY 3 /* Freq can be set from any dependent CPU */
uint32_t shared_type;
};
typedef struct xen_processor_performance xen_processor_performance_t;
DEFINE_XEN_GUEST_HANDLE(xen_processor_performance_t);
struct xenpf_set_processor_pminfo {
/* IN variables */
uint32_t id; /* ACPI CPU ID */
uint32_t type; /* {XEN_PM_CX, XEN_PM_PX} */
union {
struct xen_processor_power power;/* Cx: _CST/_CSD */
struct xen_processor_performance perf; /* Px: _PPC/_PCT/_PSS/_PSD */
XEN_GUEST_HANDLE(uint32) pdc; /* _PDC */
} u;
};
typedef struct xenpf_set_processor_pminfo xenpf_set_processor_pminfo_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_set_processor_pminfo_t);
#define XENPF_get_cpuinfo 55
struct xenpf_pcpuinfo {
/* IN */
uint32_t xen_cpuid;
/* OUT */
/* The maxium cpu_id that is present */
uint32_t max_present;
#define XEN_PCPU_FLAGS_ONLINE 1
/* Correponding xen_cpuid is not present*/
#define XEN_PCPU_FLAGS_INVALID 2
uint32_t flags;
uint32_t apic_id;
uint32_t acpi_id;
};
typedef struct xenpf_pcpuinfo xenpf_pcpuinfo_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_pcpuinfo_t);
#define XENPF_get_cpu_version 48
struct xenpf_pcpu_version {
/* IN */
uint32_t xen_cpuid;
/* OUT */
/* The maxium cpu_id that is present */
uint32_t max_present;
char vendor_id[12];
uint32_t family;
uint32_t model;
uint32_t stepping;
};
typedef struct xenpf_pcpu_version xenpf_pcpu_version_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_pcpu_version_t);
#define XENPF_cpu_online 56
#define XENPF_cpu_offline 57
struct xenpf_cpu_ol
{
uint32_t cpuid;
};
typedef struct xenpf_cpu_ol xenpf_cpu_ol_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_cpu_ol_t);
#define XENPF_cpu_hotadd 58
struct xenpf_cpu_hotadd
{
uint32_t apic_id;
uint32_t acpi_id;
uint32_t pxm;
};
typedef struct xenpf_cpu_hotadd xenpf_cpu_hotadd_t;
#define XENPF_mem_hotadd 59
struct xenpf_mem_hotadd
{
uint64_t spfn;
uint64_t epfn;
uint32_t pxm;
uint32_t flags;
};
typedef struct xenpf_mem_hotadd xenpf_mem_hotadd_t;
#define XENPF_core_parking 60
#define XEN_CORE_PARKING_SET 1
#define XEN_CORE_PARKING_GET 2
struct xenpf_core_parking {
/* IN variables */
uint32_t type;
/* IN variables: set cpu nums expected to be idled */
/* OUT variables: get cpu nums actually be idled */
uint32_t idle_nums;
};
typedef struct xenpf_core_parking xenpf_core_parking_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_core_parking_t);
/*
* Access generic platform resources(e.g., accessing MSR, port I/O, etc)
* in unified way. Batch resource operations in one call are supported and
* they are always non-preemptible and executed in their original order.
* The batch itself returns a negative integer for general errors, or a
* non-negative integer for the number of successful operations. For the latter
* case, the @ret in the failed entry (if any) indicates the exact error.
*/
#define XENPF_resource_op 61
#define XEN_RESOURCE_OP_MSR_READ 0
#define XEN_RESOURCE_OP_MSR_WRITE 1
/*
* Specially handled MSRs:
* - MSR_IA32_TSC
* READ: Returns the scaled system time(ns) instead of raw timestamp. In
* multiple entry case, if other MSR read is followed by a MSR_IA32_TSC
* read, then both reads are guaranteed to be performed atomically (with
* IRQ disabled). The return time indicates the point of reading that MSR.
* WRITE: Not supported.
*/
struct xenpf_resource_entry {
union {
uint32_t cmd; /* IN: XEN_RESOURCE_OP_* */
int32_t ret; /* OUT: return value for failed entry */
} u;
uint32_t rsvd; /* IN: padding and must be zero */
uint64_t idx; /* IN: resource address to access */
uint64_t val; /* IN/OUT: resource value to set/get */
};
typedef struct xenpf_resource_entry xenpf_resource_entry_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_resource_entry_t);
struct xenpf_resource_op {
uint32_t nr_entries; /* number of resource entry */
uint32_t cpu; /* which cpu to run */
XEN_GUEST_HANDLE(xenpf_resource_entry_t) entries;
};
typedef struct xenpf_resource_op xenpf_resource_op_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_resource_op_t);
#define XENPF_get_symbol 63
struct xenpf_symdata {
/* IN/OUT variables */
uint32_t namelen; /* IN: size of name buffer */
/* OUT: strlen(name) of hypervisor symbol (may be */
/* larger than what's been copied to guest) */
uint32_t symnum; /* IN: Symbol to read */
/* OUT: Next available symbol. If same as IN then */
/* we reached the end */
/* OUT variables */
XEN_GUEST_HANDLE(char) name;
uint64_t address;
char type;
};
typedef struct xenpf_symdata xenpf_symdata_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_symdata_t);
/*
* Fetch the video console information and mode setup by Xen. A non-
* negative return value indicates the size of the (part of the) structure
* which was filled.
*/
#define XENPF_get_dom0_console 64
typedef struct dom0_vga_console_info xenpf_dom0_console_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_dom0_console_t);
#define XENPF_get_ucode_revision 65
struct xenpf_ucode_revision {
uint32_t cpu; /* IN: CPU number to get the revision from. */
uint32_t signature; /* OUT: CPU signature (CPUID.1.EAX). */
uint32_t pf; /* OUT: Platform Flags (Intel only) */
uint32_t revision; /* OUT: Microcode Revision. */
};
typedef struct xenpf_ucode_revision xenpf_ucode_revision_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_ucode_revision_t);
/* Hypercall to microcode_update with flags */
#define XENPF_microcode_update2 66
struct xenpf_microcode_update2 {
/* IN variables. */
uint32_t flags; /* Flags to be passed with ucode. */
/* Force to skip microcode version check */
#define XENPF_UCODE_FORCE 1
uint32_t length; /* Length of microcode data. */
XEN_GUEST_HANDLE(const_void) data;/* Pointer to microcode data */
};
typedef struct xenpf_microcode_update2 xenpf_microcode_update2_t;
DEFINE_XEN_GUEST_HANDLE(xenpf_microcode_update2_t);
/*
* ` enum neg_errnoval
* ` HYPERVISOR_platform_op(const struct xen_platform_op*);
*/
struct xen_platform_op {
uint32_t cmd;
uint32_t interface_version; /* XENPF_INTERFACE_VERSION */
union {
xenpf_settime_t settime;
xenpf_settime32_t settime32;
xenpf_settime64_t settime64;
xenpf_add_memtype_t add_memtype;
xenpf_del_memtype_t del_memtype;
xenpf_read_memtype_t read_memtype;
xenpf_microcode_update_t microcode;
xenpf_platform_quirk_t platform_quirk;
xenpf_efi_runtime_call_t efi_runtime_call;
xenpf_firmware_info_t firmware_info;
xenpf_enter_acpi_sleep_t enter_acpi_sleep;
xenpf_change_freq_t change_freq;
xenpf_getidletime_t getidletime;
xenpf_set_processor_pminfo_t set_pminfo;
xenpf_pcpuinfo_t pcpu_info;
xenpf_pcpu_version_t pcpu_version;
xenpf_cpu_ol_t cpu_ol;
xenpf_cpu_hotadd_t cpu_add;
xenpf_mem_hotadd_t mem_add;
xenpf_core_parking_t core_parking;
xenpf_resource_op_t resource_op;
xenpf_symdata_t symdata;
xenpf_dom0_console_t dom0_console;
xenpf_ucode_revision_t ucode_revision;
xenpf_microcode_update2_t microcode2;
uint8_t pad[128];
} u;
};
typedef struct xen_platform_op xen_platform_op_t;
DEFINE_XEN_GUEST_HANDLE(xen_platform_op_t);
/* [see __HYPERVISOR_platform_op] */
#endif /* __XEN_PUBLIC_PLATFORM_H__ */
/*
* Local variables:
* mode: C
* c-file-style: "BSD"
* c-basic-offset: 4
* tab-width: 4
* indent-tabs-mode: nil
* End:
*/