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include
xen
arch-arm.h
Go to the documentation of this file.
1
/* SPDX-License-Identifier: MIT */
2
/******************************************************************************
3
* arch-arm.h
4
*
5
* Guest OS interface to ARM Xen.
6
*
7
* Copyright 2011 (C) Citrix Systems
8
*/
9
10
#ifndef __XEN_PUBLIC_ARCH_ARM_H__
11
#define __XEN_PUBLIC_ARCH_ARM_H__
12
13
FILE_LICENCE
( MIT );
14
15
/*
16
* `incontents 50 arm_abi Hypercall Calling Convention
17
*
18
* A hypercall is issued using the ARM HVC instruction.
19
*
20
* A hypercall can take up to 5 arguments. These are passed in
21
* registers, the first argument in x0/r0 (for arm64/arm32 guests
22
* respectively irrespective of whether the underlying hypervisor is
23
* 32- or 64-bit), the second argument in x1/r1, the third in x2/r2,
24
* the forth in x3/r3 and the fifth in x4/r4.
25
*
26
* The hypercall number is passed in r12 (arm) or x16 (arm64). In both
27
* cases the relevant ARM procedure calling convention specifies this
28
* is an inter-procedure-call scratch register (e.g. for use in linker
29
* stubs). This use does not conflict with use during a hypercall.
30
*
31
* The HVC ISS must contain a Xen specific TAG: XEN_HYPERCALL_TAG.
32
*
33
* The return value is in x0/r0.
34
*
35
* The hypercall will clobber x16/r12 and the argument registers used
36
* by that hypercall (except r0 which is the return value) i.e. in
37
* addition to x16/r12 a 2 argument hypercall will clobber x1/r1 and a
38
* 4 argument hypercall will clobber x1/r1, x2/r2 and x3/r3.
39
*
40
* Parameter structs passed to hypercalls are laid out according to
41
* the Procedure Call Standard for the ARM Architecture (AAPCS, AKA
42
* EABI) and Procedure Call Standard for the ARM 64-bit Architecture
43
* (AAPCS64). Where there is a conflict the 64-bit standard should be
44
* used regardless of guest type. Structures which are passed as
45
* hypercall arguments are always little endian.
46
*
47
* All memory which is shared with other entities in the system
48
* (including the hypervisor and other guests) must reside in memory
49
* which is mapped as Normal Inner Write-Back Outer Write-Back Inner-Shareable.
50
* This applies to:
51
* - hypercall arguments passed via a pointer to guest memory.
52
* - memory shared via the grant table mechanism (including PV I/O
53
* rings etc).
54
* - memory shared with the hypervisor (struct shared_info, struct
55
* vcpu_info, the grant table, etc).
56
*
57
* Any cache allocation hints are acceptable.
58
*/
59
60
/*
61
* `incontents 55 arm_hcall Supported Hypercalls
62
*
63
* Xen on ARM makes extensive use of hardware facilities and therefore
64
* only a subset of the potential hypercalls are required.
65
*
66
* Since ARM uses second stage paging any machine/physical addresses
67
* passed to hypercalls are Guest Physical Addresses (Intermediate
68
* Physical Addresses) unless otherwise noted.
69
*
70
* The following hypercalls (and sub operations) are supported on the
71
* ARM platform. Other hypercalls should be considered
72
* unavailable/unsupported.
73
*
74
* HYPERVISOR_memory_op
75
* All generic sub-operations
76
*
77
* HYPERVISOR_domctl
78
* All generic sub-operations, with the exception of:
79
* * XEN_DOMCTL_irq_permission (not yet implemented)
80
*
81
* HYPERVISOR_sched_op
82
* All generic sub-operations, with the exception of:
83
* * SCHEDOP_block -- prefer wfi hardware instruction
84
*
85
* HYPERVISOR_console_io
86
* All generic sub-operations
87
*
88
* HYPERVISOR_xen_version
89
* All generic sub-operations
90
*
91
* HYPERVISOR_event_channel_op
92
* All generic sub-operations
93
*
94
* HYPERVISOR_physdev_op
95
* Exactly these sub-operations are supported:
96
* PHYSDEVOP_pci_device_add
97
* PHYSDEVOP_pci_device_remove
98
*
99
* HYPERVISOR_sysctl
100
* All generic sub-operations, with the exception of:
101
* * XEN_SYSCTL_page_offline_op
102
* * XEN_SYSCTL_get_pmstat
103
* * XEN_SYSCTL_pm_op
104
*
105
* HYPERVISOR_hvm_op
106
* Exactly these sub-operations are supported:
107
* * HVMOP_set_param
108
* * HVMOP_get_param
109
*
110
* HYPERVISOR_grant_table_op
111
* All generic sub-operations
112
*
113
* HYPERVISOR_vcpu_op
114
* Exactly these sub-operations are supported:
115
* * VCPUOP_register_vcpu_info
116
* * VCPUOP_register_runstate_memory_area
117
*
118
* HYPERVISOR_argo_op
119
* All generic sub-operations
120
*
121
* Other notes on the ARM ABI:
122
*
123
* - struct start_info is not exported to ARM guests.
124
*
125
* - struct shared_info is mapped by ARM guests using the
126
* HYPERVISOR_memory_op sub-op XENMEM_add_to_physmap, passing
127
* XENMAPSPACE_shared_info as space parameter.
128
*
129
* - All the per-cpu struct vcpu_info are mapped by ARM guests using the
130
* HYPERVISOR_vcpu_op sub-op VCPUOP_register_vcpu_info, including cpu0
131
* struct vcpu_info.
132
*
133
* - The grant table is mapped using the HYPERVISOR_memory_op sub-op
134
* XENMEM_add_to_physmap, passing XENMAPSPACE_grant_table as space
135
* parameter. The memory range specified under the Xen compatible
136
* hypervisor node on device tree can be used as target gpfn for the
137
* mapping.
138
*
139
* - Xenstore is initialized by using the two hvm_params
140
* HVM_PARAM_STORE_PFN and HVM_PARAM_STORE_EVTCHN. They can be read
141
* with the HYPERVISOR_hvm_op sub-op HVMOP_get_param.
142
*
143
* - The paravirtualized console is initialized by using the two
144
* hvm_params HVM_PARAM_CONSOLE_PFN and HVM_PARAM_CONSOLE_EVTCHN. They
145
* can be read with the HYPERVISOR_hvm_op sub-op HVMOP_get_param.
146
*
147
* - Event channel notifications are delivered using the percpu GIC
148
* interrupt specified under the Xen compatible hypervisor node on
149
* device tree.
150
*
151
* - The device tree Xen compatible node is fully described under Linux
152
* at Documentation/devicetree/bindings/arm/xen.txt.
153
*/
154
155
#define XEN_HYPERCALL_TAG 0XEA1
156
157
#define int64_aligned_t int64_t __attribute__((aligned(8)))
158
#define uint64_aligned_t uint64_t __attribute__((aligned(8)))
159
160
#ifndef __ASSEMBLY__
161
#define ___DEFINE_XEN_GUEST_HANDLE(name, type) \
162
typedef union { type *p; unsigned long q; } \
163
__guest_handle_ ## name; \
164
typedef union { type *p; uint64_aligned_t q; } \
165
__guest_handle_64_ ## name
166
167
/*
168
* XEN_GUEST_HANDLE represents a guest pointer, when passed as a field
169
* in a struct in memory. On ARM is always 8 bytes sizes and 8 bytes
170
* aligned.
171
* XEN_GUEST_HANDLE_PARAM represents a guest pointer, when passed as an
172
* hypercall argument. It is 4 bytes on aarch32 and 8 bytes on aarch64.
173
*/
174
#define __DEFINE_XEN_GUEST_HANDLE(name, type) \
175
___DEFINE_XEN_GUEST_HANDLE(name, type); \
176
___DEFINE_XEN_GUEST_HANDLE(const_##name, const type)
177
#define DEFINE_XEN_GUEST_HANDLE(name) __DEFINE_XEN_GUEST_HANDLE(name, name)
178
#define __XEN_GUEST_HANDLE(name) __guest_handle_64_ ## name
179
#define XEN_GUEST_HANDLE(name) __XEN_GUEST_HANDLE(name)
180
#define XEN_GUEST_HANDLE_PARAM(name) __guest_handle_ ## name
181
#define set_xen_guest_handle_raw(hnd, val) \
182
do { \
183
__typeof__(&(hnd)) _sxghr_tmp = &(hnd); \
184
_sxghr_tmp->q = 0; \
185
_sxghr_tmp->p = val; \
186
} while ( 0 )
187
#define set_xen_guest_handle(hnd, val) set_xen_guest_handle_raw(hnd, val)
188
189
typedef
uint64_t
xen_pfn_t
;
190
#define PRI_xen_pfn PRIx64
191
#define PRIu_xen_pfn PRIu64
192
193
/*
194
* Maximum number of virtual CPUs in legacy multi-processor guests.
195
* Only one. All other VCPUS must use VCPUOP_register_vcpu_info.
196
*/
197
#define XEN_LEGACY_MAX_VCPUS 1
198
199
typedef
uint64_t
xen_ulong_t
;
200
#define PRI_xen_ulong PRIx64
201
202
#if defined(__XEN__) || defined(__XEN_TOOLS__)
203
#if defined(__GNUC__) && !defined(__STRICT_ANSI__)
204
/* Anonymous union includes both 32- and 64-bit names (e.g., r0/x0). */
205
# define __DECL_REG(n64, n32) union { \
206
uint64_t n64; \
207
uint32_t n32; \
208
}
209
#else
210
/* Non-gcc sources must always use the proper 64-bit name (e.g., x0). */
211
#define __DECL_REG(n64, n32) uint64_t n64
212
#endif
213
214
struct
vcpu_guest_core_regs
215
{
216
/* Aarch64 Aarch32 */
217
__DECL_REG
(x0, r0_usr);
218
__DECL_REG
(x1, r1_usr);
219
__DECL_REG
(x2, r2_usr);
220
__DECL_REG
(x3, r3_usr);
221
__DECL_REG
(x4, r4_usr);
222
__DECL_REG
(x5, r5_usr);
223
__DECL_REG
(x6, r6_usr);
224
__DECL_REG
(x7, r7_usr);
225
__DECL_REG
(x8, r8_usr);
226
__DECL_REG
(x9, r9_usr);
227
__DECL_REG
(x10, r10_usr);
228
__DECL_REG
(x11, r11_usr);
229
__DECL_REG
(x12, r12_usr);
230
231
__DECL_REG
(x13, sp_usr);
232
__DECL_REG
(x14, lr_usr);
233
234
__DECL_REG
(x15, __unused_sp_hyp);
235
236
__DECL_REG
(x16, lr_irq);
237
__DECL_REG
(x17, sp_irq);
238
239
__DECL_REG
(x18, lr_svc);
240
__DECL_REG
(x19, sp_svc);
241
242
__DECL_REG
(x20, lr_abt);
243
__DECL_REG
(x21, sp_abt);
244
245
__DECL_REG
(x22, lr_und);
246
__DECL_REG
(x23, sp_und);
247
248
__DECL_REG
(x24, r8_fiq);
249
__DECL_REG
(x25, r9_fiq);
250
__DECL_REG
(x26, r10_fiq);
251
__DECL_REG
(x27, r11_fiq);
252
__DECL_REG
(x28, r12_fiq);
253
254
__DECL_REG
(x29, sp_fiq);
255
__DECL_REG
(x30, lr_fiq);
256
257
/* Return address and mode */
258
__DECL_REG
(pc64, pc32);
/* ELR_EL2 */
259
uint64_t
cpsr;
/* SPSR_EL2 */
260
261
union
{
262
uint64_t
spsr_el1;
/* AArch64 */
263
uint32_t
spsr_svc;
/* AArch32 */
264
};
265
266
/* AArch32 guests only */
267
uint32_t
spsr_fiq, spsr_irq, spsr_und, spsr_abt;
268
269
/* AArch64 guests only */
270
uint64_t
sp_el0;
271
uint64_t
sp_el1, elr_el1;
272
};
273
typedef
struct
vcpu_guest_core_regs vcpu_guest_core_regs_t;
274
DEFINE_XEN_GUEST_HANDLE
(vcpu_guest_core_regs_t);
275
276
#undef __DECL_REG
277
278
struct
vcpu_guest_context
{
279
#define _VGCF_online 0
280
#define VGCF_online (1<<_VGCF_online)
281
uint32_t
flags
;
/* VGCF_* */
282
283
struct
vcpu_guest_core_regs
user_regs
;
/* Core CPU registers */
284
285
uint64_t
sctlr;
286
uint64_t
ttbcr, ttbr0, ttbr1;
287
};
288
typedef
struct
vcpu_guest_context
vcpu_guest_context_t
;
289
DEFINE_XEN_GUEST_HANDLE
(
vcpu_guest_context_t
);
290
291
/*
292
* struct xen_arch_domainconfig's ABI is covered by
293
* XEN_DOMCTL_INTERFACE_VERSION.
294
*/
295
#define XEN_DOMCTL_CONFIG_GIC_NATIVE 0
296
#define XEN_DOMCTL_CONFIG_GIC_V2 1
297
#define XEN_DOMCTL_CONFIG_GIC_V3 2
298
299
#define XEN_DOMCTL_CONFIG_TEE_NONE 0
300
#define XEN_DOMCTL_CONFIG_TEE_OPTEE 1
301
302
struct
xen_arch_domainconfig {
303
/* IN/OUT */
304
uint8_t
gic_version;
305
/* IN */
306
uint16_t
tee_type;
307
/* IN */
308
uint32_t
nr_spis;
309
/*
310
* OUT
311
* Based on the property clock-frequency in the DT timer node.
312
* The property may be present when the bootloader/firmware doesn't
313
* set correctly CNTFRQ which hold the timer frequency.
314
*
315
* As it's not possible to trap this register, we have to replicate
316
* the value in the guest DT.
317
*
318
* = 0 => property not present
319
* > 0 => Value of the property
320
*
321
*/
322
uint32_t
clock_frequency;
323
};
324
#endif
/* __XEN__ || __XEN_TOOLS__ */
325
326
struct
arch_vcpu_info
{
327
};
328
typedef
struct
arch_vcpu_info
arch_vcpu_info_t
;
329
330
struct
arch_shared_info
{
331
};
332
typedef
struct
arch_shared_info
arch_shared_info_t
;
333
typedef
uint64_t
xen_callback_t
;
334
335
#endif
336
337
#if defined(__XEN__) || defined(__XEN_TOOLS__)
338
339
/* PSR bits (CPSR, SPSR) */
340
341
#define PSR_THUMB (1<<5)
/* Thumb Mode enable */
342
#define PSR_FIQ_MASK (1<<6)
/* Fast Interrupt mask */
343
#define PSR_IRQ_MASK (1<<7)
/* Interrupt mask */
344
#define PSR_ABT_MASK (1<<8)
/* Asynchronous Abort mask */
345
#define PSR_BIG_ENDIAN (1<<9)
/* arm32: Big Endian Mode */
346
#define PSR_DBG_MASK (1<<9)
/* arm64: Debug Exception mask */
347
#define PSR_IT_MASK (0x0600fc00)
/* Thumb If-Then Mask */
348
#define PSR_JAZELLE (1<<24)
/* Jazelle Mode */
349
#define PSR_Z (1<<30)
/* Zero condition flag */
350
351
/* 32 bit modes */
352
#define PSR_MODE_USR 0x10
353
#define PSR_MODE_FIQ 0x11
354
#define PSR_MODE_IRQ 0x12
355
#define PSR_MODE_SVC 0x13
356
#define PSR_MODE_MON 0x16
357
#define PSR_MODE_ABT 0x17
358
#define PSR_MODE_HYP 0x1a
359
#define PSR_MODE_UND 0x1b
360
#define PSR_MODE_SYS 0x1f
361
362
/* 64 bit modes */
363
#define PSR_MODE_BIT 0x10
/* Set iff AArch32 */
364
#define PSR_MODE_EL3h 0x0d
365
#define PSR_MODE_EL3t 0x0c
366
#define PSR_MODE_EL2h 0x09
367
#define PSR_MODE_EL2t 0x08
368
#define PSR_MODE_EL1h 0x05
369
#define PSR_MODE_EL1t 0x04
370
#define PSR_MODE_EL0t 0x00
371
372
/*
373
* We set PSR_Z to be able to boot Linux kernel versions with an invalid
374
* encoding of the first 8 NOP instructions. See commit a92882a4d270 in
375
* Linux.
376
*
377
* Note that PSR_Z is also set by U-Boot and QEMU -kernel when loading
378
* zImage kernels on aarch32.
379
*/
380
#define PSR_GUEST32_INIT (PSR_Z|PSR_ABT_MASK|PSR_FIQ_MASK|PSR_IRQ_MASK|PSR_MODE_SVC)
381
#define PSR_GUEST64_INIT (PSR_ABT_MASK|PSR_FIQ_MASK|PSR_IRQ_MASK|PSR_MODE_EL1h)
382
383
#define SCTLR_GUEST_INIT xen_mk_ullong(0x00c50078)
384
385
/*
386
* Virtual machine platform (memory layout, interrupts)
387
*
388
* These are defined for consistency between the tools and the
389
* hypervisor. Guests must not rely on these hardcoded values but
390
* should instead use the FDT.
391
*/
392
393
/* Physical Address Space */
394
395
/* Virtio MMIO mappings */
396
#define GUEST_VIRTIO_MMIO_BASE xen_mk_ullong(0x02000000)
397
#define GUEST_VIRTIO_MMIO_SIZE xen_mk_ullong(0x00100000)
398
399
/*
400
* vGIC mappings: Only one set of mapping is used by the guest.
401
* Therefore they can overlap.
402
*/
403
404
/* vGIC v2 mappings */
405
#define GUEST_GICD_BASE xen_mk_ullong(0x03001000)
406
#define GUEST_GICD_SIZE xen_mk_ullong(0x00001000)
407
#define GUEST_GICC_BASE xen_mk_ullong(0x03002000)
408
#define GUEST_GICC_SIZE xen_mk_ullong(0x00002000)
409
410
/* vGIC v3 mappings */
411
#define GUEST_GICV3_GICD_BASE xen_mk_ullong(0x03001000)
412
#define GUEST_GICV3_GICD_SIZE xen_mk_ullong(0x00010000)
413
414
#define GUEST_GICV3_RDIST_REGIONS 1
415
416
#define GUEST_GICV3_GICR0_BASE xen_mk_ullong(0x03020000)
/* vCPU0..127 */
417
#define GUEST_GICV3_GICR0_SIZE xen_mk_ullong(0x01000000)
418
419
/*
420
* 256 MB is reserved for VPCI configuration space based on calculation
421
* 256 buses x 32 devices x 8 functions x 4 KB = 256 MB
422
*/
423
#define GUEST_VPCI_ECAM_BASE xen_mk_ullong(0x10000000)
424
#define GUEST_VPCI_ECAM_SIZE xen_mk_ullong(0x10000000)
425
426
/* ACPI tables physical address */
427
#define GUEST_ACPI_BASE xen_mk_ullong(0x20000000)
428
#define GUEST_ACPI_SIZE xen_mk_ullong(0x02000000)
429
430
/* PL011 mappings */
431
#define GUEST_PL011_BASE xen_mk_ullong(0x22000000)
432
#define GUEST_PL011_SIZE xen_mk_ullong(0x00001000)
433
434
/* Guest PCI-PCIe memory space where config space and BAR will be available.*/
435
#define GUEST_VPCI_ADDR_TYPE_MEM xen_mk_ullong(0x02000000)
436
#define GUEST_VPCI_MEM_ADDR xen_mk_ullong(0x23000000)
437
#define GUEST_VPCI_MEM_SIZE xen_mk_ullong(0x10000000)
438
439
/*
440
* 16MB == 4096 pages reserved for guest to use as a region to map its
441
* grant table in.
442
*/
443
#define GUEST_GNTTAB_BASE xen_mk_ullong(0x38000000)
444
#define GUEST_GNTTAB_SIZE xen_mk_ullong(0x01000000)
445
446
#define GUEST_MAGIC_BASE xen_mk_ullong(0x39000000)
447
#define GUEST_MAGIC_SIZE xen_mk_ullong(0x01000000)
448
449
#define GUEST_RAM_BANKS 2
450
451
/*
452
* The way to find the extended regions (to be exposed to the guest as unused
453
* address space) relies on the fact that the regions reserved for the RAM
454
* below are big enough to also accommodate such regions.
455
*/
456
#define GUEST_RAM0_BASE xen_mk_ullong(0x40000000)
/* 3GB of low RAM @ 1GB */
457
#define GUEST_RAM0_SIZE xen_mk_ullong(0xc0000000)
458
459
/* 4GB @ 4GB Prefetch Memory for VPCI */
460
#define GUEST_VPCI_ADDR_TYPE_PREFETCH_MEM xen_mk_ullong(0x42000000)
461
#define GUEST_VPCI_PREFETCH_MEM_ADDR xen_mk_ullong(0x100000000)
462
#define GUEST_VPCI_PREFETCH_MEM_SIZE xen_mk_ullong(0x100000000)
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#define GUEST_RAM1_BASE xen_mk_ullong(0x0200000000)
/* 1016GB of RAM @ 8GB */
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#define GUEST_RAM1_SIZE xen_mk_ullong(0xfe00000000)
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#define GUEST_RAM_BASE GUEST_RAM0_BASE
/* Lowest RAM address */
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/* Largest amount of actual RAM, not including holes */
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#define GUEST_RAM_MAX (GUEST_RAM0_SIZE + GUEST_RAM1_SIZE)
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/* Suitable for e.g. const uint64_t ramfoo[] = GUEST_RAM_BANK_FOOS; */
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#define GUEST_RAM_BANK_BASES { GUEST_RAM0_BASE, GUEST_RAM1_BASE }
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#define GUEST_RAM_BANK_SIZES { GUEST_RAM0_SIZE, GUEST_RAM1_SIZE }
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/* Current supported guest VCPUs */
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#define GUEST_MAX_VCPUS 128
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/* Interrupts */
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#define GUEST_TIMER_VIRT_PPI 27
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#define GUEST_TIMER_PHYS_S_PPI 29
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#define GUEST_TIMER_PHYS_NS_PPI 30
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#define GUEST_EVTCHN_PPI 31
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#define GUEST_VPL011_SPI 32
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#define GUEST_VIRTIO_MMIO_SPI_FIRST 33
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#define GUEST_VIRTIO_MMIO_SPI_LAST 43
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488
/* PSCI functions */
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#define PSCI_cpu_suspend 0
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#define PSCI_cpu_off 1
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#define PSCI_cpu_on 2
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#define PSCI_migrate 3
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#endif
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#ifndef __ASSEMBLY__
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/* Stub definition of PMU structure */
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typedef
struct
xen_pmu_arch
{
uint8_t
dummy
; }
xen_pmu_arch_t
;
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#endif
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#endif
/* __XEN_PUBLIC_ARCH_ARM_H__ */
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/*
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* Local variables:
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* mode: C
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* c-file-style: "BSD"
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* c-basic-offset: 4
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* tab-width: 4
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* indent-tabs-mode: nil
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* End:
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*/
uint16_t
unsigned short uint16_t
Definition:
stdint.h:11
uint64_t
unsigned long long uint64_t
Definition:
stdint.h:13
vcpu_guest_context
Definition:
xen.h:164
xen_ulong_t
uint64_t xen_ulong_t
Definition:
arch-arm.h:199
vcpu_guest_context::flags
unsigned long flags
Definition:
xen.h:179
arch_shared_info
Definition:
nonxen.h:31
DEFINE_XEN_GUEST_HANDLE
#define DEFINE_XEN_GUEST_HANDLE(name)
Definition:
arch-arm.h:177
__DECL_REG
#define __DECL_REG(name)
Definition:
xen-x86_64.h:154
xen_pmu_arch
Definition:
arch-arm.h:498
xen_pmu_arch::dummy
uint8_t dummy
Definition:
arch-arm.h:498
xen_pmu_arch_t
struct xen_pmu_arch xen_pmu_arch_t
uint8_t
unsigned char uint8_t
Definition:
stdint.h:10
vcpu_guest_context::user_regs
struct cpu_user_regs user_regs
Definition:
xen.h:180
uint32_t
unsigned int uint32_t
Definition:
stdint.h:12
xen_pfn_t
uint64_t xen_pfn_t
Definition:
arch-arm.h:189
FILE_LICENCE
FILE_LICENCE(MIT)
xen_callback_t
uint64_t xen_callback_t
Definition:
arch-arm.h:333
arch_vcpu_info
Definition:
nonxen.h:29
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