4 * Copyright (C) 2006-2008 Qumranet Technologies
6 * Licensed under the terms of the GNU GPL version 2 or higher.
8 #ifndef THE_ORIGINAL_AND_TRUE_QEMU_KVM_H
9 #define THE_ORIGINAL_AND_TRUE_QEMU_KVM_H
19 #include <asm/ptrace.h>
25 #define __user /* temporary, until installed via make headers_install */
28 #include <linux/kvm.h>
32 /* FIXME: share this number with kvm */
33 /* FIXME: or dynamically alloc/realloc regions */
35 #define KVM_MAX_NUM_MEM_REGIONS 1u
37 #define LIBKVM_S390_ORIGIN (0UL)
38 #elif defined(__ia64__)
39 #define KVM_MAX_NUM_MEM_REGIONS 32u
42 #define KVM_MAX_NUM_MEM_REGIONS 32u
46 /* kvm abi verison variable */
50 * \brief The KVM context
52 * The verbose KVM context
57 /// is dirty pages logging enabled for all regions or not
58 int dirty_pages_log_all
;
59 /// do not create in-kernel irqchip if set
60 int no_irqchip_creation
;
61 /// in-kernel irqchip status
62 int irqchip_in_kernel
;
63 /// ioctl to use to inject interrupts
64 int irqchip_inject_ioctl
;
65 /// do not create in-kernel pit if set
67 #ifdef KVM_CAP_IRQ_ROUTING
68 struct kvm_irq_routing
*irq_routes
;
69 int nr_allocated_irq_routes
;
71 void *used_gsi_bitmap
;
75 typedef struct kvm_context
*kvm_context_t
;
78 int kvm_alloc_kernel_memory(kvm_context_t kvm
, unsigned long memory
,
80 int kvm_alloc_userspace_memory(kvm_context_t kvm
, unsigned long memory
,
83 int kvm_arch_create(kvm_context_t kvm
, unsigned long phys_mem_bytes
,
86 int kvm_arch_run(CPUState
*env
);
89 void kvm_show_code(CPUState
*env
);
91 int handle_halt(CPUState
*env
);
93 int handle_shutdown(kvm_context_t kvm
, CPUState
*env
);
94 void post_kvm_run(kvm_context_t kvm
, CPUState
*env
);
95 int pre_kvm_run(kvm_context_t kvm
, CPUState
*env
);
96 int handle_io_window(kvm_context_t kvm
);
97 int try_push_interrupts(kvm_context_t kvm
);
99 #if defined(__x86_64__) || defined(__i386__)
100 struct kvm_msr_list
*kvm_get_msr_list(kvm_context_t
);
101 int kvm_get_msrs(CPUState
*env
, struct kvm_msr_entry
*msrs
, int n
);
102 int kvm_set_msrs(CPUState
*env
, struct kvm_msr_entry
*msrs
, int n
);
103 int kvm_get_mce_cap_supported(kvm_context_t
, uint64_t *mce_cap
,
105 int kvm_setup_mce(CPUState
*env
, uint64_t *mcg_cap
);
107 int kvm_set_mce(CPUState
*env
, struct kvm_x86_mce
*mce
);
111 * \brief Create new KVM context
113 * This creates a new kvm_context. A KVM context is a small area of data that
114 * holds information about the KVM instance that gets created by this call.\n
115 * This should always be your first call to KVM.
117 * \param opaque Not used
118 * \return NULL on failure
120 int kvm_init(int smp_cpus
);
123 * \brief Disable the in-kernel IRQCHIP creation
125 * In-kernel irqchip is enabled by default. If userspace irqchip is to be used,
126 * this should be called prior to kvm_create().
128 * \param kvm Pointer to the kvm_context
130 void kvm_disable_irqchip_creation(kvm_context_t kvm
);
133 * \brief Disable the in-kernel PIT creation
135 * In-kernel pit is enabled by default. If userspace pit is to be used,
136 * this should be called prior to kvm_create().
138 * \param kvm Pointer to the kvm_context
140 void kvm_disable_pit_creation(kvm_context_t kvm
);
143 * \brief Create new virtual machine
145 * This creates a new virtual machine, maps physical RAM to it, and creates a
146 * virtual CPU for it.\n
148 * Memory gets mapped for addresses 0->0xA0000, 0xC0000->phys_mem_bytes
150 * \param kvm Pointer to the current kvm_context
151 * \param phys_mem_bytes The amount of physical ram you want the VM to have
152 * \param phys_mem This pointer will be set to point to the memory that
153 * kvm_create allocates for physical RAM
154 * \return 0 on success
156 int kvm_create(kvm_context_t kvm
, unsigned long phys_mem_bytes
,
158 int kvm_create_vm(kvm_context_t kvm
);
159 void kvm_create_irqchip(kvm_context_t kvm
);
162 * \brief Start the VCPU
164 * This starts the VCPU and virtualization is started.\n
166 * This function will not return until any of these conditions are met:
167 * - An IO/MMIO handler does not return "0"
168 * - An exception that neither the guest OS, nor KVM can handle occurs
170 * \note This function will call the callbacks registered in kvm_init()
171 * to emulate those functions
172 * \note If you at any point want to interrupt the VCPU, kvm_run() will
173 * listen to the EINTR signal. This allows you to simulate external interrupts
174 * and asyncronous IO.
176 * \param kvm Pointer to the current kvm_context
177 * \param vcpu Which virtual CPU should be started
178 * \return 0 on success, but you really shouldn't expect this function to
179 * return except for when an error has occured, or when you have sent it
182 int kvm_run(CPUState
*env
);
185 * \brief Check if a vcpu is ready for interrupt injection
187 * This checks if vcpu interrupts are not masked by mov ss or sti.
189 * \param kvm Pointer to the current kvm_context
190 * \param vcpu Which virtual CPU should get dumped
191 * \return boolean indicating interrupt injection readiness
193 int kvm_is_ready_for_interrupt_injection(CPUState
*env
);
196 * \brief Read VCPU registers
198 * This gets the GP registers from the VCPU and outputs them
199 * into a kvm_regs structure
201 * \note This function returns a \b copy of the VCPUs registers.\n
202 * If you wish to modify the VCPUs GP registers, you should call kvm_set_regs()
204 * \param kvm Pointer to the current kvm_context
205 * \param vcpu Which virtual CPU should get dumped
206 * \param regs Pointer to a kvm_regs which will be populated with the VCPUs
208 * \return 0 on success
210 int kvm_get_regs(CPUState
*env
, struct kvm_regs
*regs
);
213 * \brief Write VCPU registers
215 * This sets the GP registers on the VCPU from a kvm_regs structure
217 * \note When this function returns, the regs pointer and the data it points to
219 * \param kvm Pointer to the current kvm_context
220 * \param vcpu Which virtual CPU should get dumped
221 * \param regs Pointer to a kvm_regs which will be populated with the VCPUs
223 * \return 0 on success
225 int kvm_set_regs(CPUState
*env
, struct kvm_regs
*regs
);
227 * \brief Read VCPU fpu registers
229 * This gets the FPU registers from the VCPU and outputs them
230 * into a kvm_fpu structure
232 * \note This function returns a \b copy of the VCPUs registers.\n
233 * If you wish to modify the VCPU FPU registers, you should call kvm_set_fpu()
235 * \param kvm Pointer to the current kvm_context
236 * \param vcpu Which virtual CPU should get dumped
237 * \param fpu Pointer to a kvm_fpu which will be populated with the VCPUs
238 * fpu registers values
239 * \return 0 on success
241 int kvm_get_fpu(CPUState
*env
, struct kvm_fpu
*fpu
);
244 * \brief Write VCPU fpu registers
246 * This sets the FPU registers on the VCPU from a kvm_fpu structure
248 * \note When this function returns, the fpu pointer and the data it points to
250 * \param kvm Pointer to the current kvm_context
251 * \param vcpu Which virtual CPU should get dumped
252 * \param fpu Pointer to a kvm_fpu which holds the new vcpu fpu state
253 * \return 0 on success
255 int kvm_set_fpu(CPUState
*env
, struct kvm_fpu
*fpu
);
258 * \brief Read VCPU system registers
260 * This gets the non-GP registers from the VCPU and outputs them
261 * into a kvm_sregs structure
263 * \note This function returns a \b copy of the VCPUs registers.\n
264 * If you wish to modify the VCPUs non-GP registers, you should call
267 * \param kvm Pointer to the current kvm_context
268 * \param vcpu Which virtual CPU should get dumped
269 * \param regs Pointer to a kvm_sregs which will be populated with the VCPUs
271 * \return 0 on success
273 int kvm_get_sregs(CPUState
*env
, struct kvm_sregs
*regs
);
276 * \brief Write VCPU system registers
278 * This sets the non-GP registers on the VCPU from a kvm_sregs structure
280 * \note When this function returns, the regs pointer and the data it points to
282 * \param kvm Pointer to the current kvm_context
283 * \param vcpu Which virtual CPU should get dumped
284 * \param regs Pointer to a kvm_sregs which will be populated with the VCPUs
286 * \return 0 on success
288 int kvm_set_sregs(CPUState
*env
, struct kvm_sregs
*regs
);
290 #ifdef KVM_CAP_MP_STATE
292 * * \brief Read VCPU MP state
295 int kvm_get_mpstate(CPUState
*env
, struct kvm_mp_state
*mp_state
);
298 * * \brief Write VCPU MP state
301 int kvm_set_mpstate(CPUState
*env
, struct kvm_mp_state
*mp_state
);
305 * \brief Simulate an external vectored interrupt
307 * This allows you to simulate an external vectored interrupt.
309 * \param kvm Pointer to the current kvm_context
310 * \param vcpu Which virtual CPU should get dumped
311 * \param irq Vector number
312 * \return 0 on success
314 int kvm_inject_irq(CPUState
*env
, unsigned irq
);
316 #if defined(__i386__) || defined(__x86_64__)
318 * \brief Setup a vcpu's cpuid instruction emulation
320 * Set up a table of cpuid function to cpuid outputs.\n
322 * \param kvm Pointer to the current kvm_context
323 * \param vcpu Which virtual CPU should be initialized
324 * \param nent number of entries to be installed
325 * \param entries cpuid function entries table
326 * \return 0 on success, or -errno on error
328 int kvm_setup_cpuid(CPUState
*env
, int nent
,
329 struct kvm_cpuid_entry
*entries
);
332 * \brief Setup a vcpu's cpuid instruction emulation
334 * Set up a table of cpuid function to cpuid outputs.
335 * This call replaces the older kvm_setup_cpuid interface by adding a few
336 * parameters to support cpuid functions that have sub-leaf values.
338 * \param kvm Pointer to the current kvm_context
339 * \param vcpu Which virtual CPU should be initialized
340 * \param nent number of entries to be installed
341 * \param entries cpuid function entries table
342 * \return 0 on success, or -errno on error
344 int kvm_setup_cpuid2(CPUState
*env
, int nent
,
345 struct kvm_cpuid_entry2
*entries
);
348 * \brief Setting the number of shadow pages to be allocated to the vm
350 * \param kvm pointer to kvm_context
351 * \param nrshadow_pages number of pages to be allocated
353 int kvm_set_shadow_pages(kvm_context_t kvm
, unsigned int nrshadow_pages
);
356 * \brief Getting the number of shadow pages that are allocated to the vm
358 * \param kvm pointer to kvm_context
359 * \param nrshadow_pages number of pages to be allocated
361 int kvm_get_shadow_pages(kvm_context_t kvm
, unsigned int *nrshadow_pages
);
366 * \brief Dump VCPU registers
368 * This dumps some of the information that KVM has about a virtual CPU, namely:
371 * A much more verbose version of this is available as kvm_dump_vcpu()
373 * \param kvm Pointer to the current kvm_context
374 * \param vcpu Which virtual CPU should get dumped
375 * \return 0 on success
377 void kvm_show_regs(CPUState
*env
);
380 void *kvm_create_phys_mem(kvm_context_t
, unsigned long phys_start
,
381 unsigned long len
, int log
, int writable
);
382 void kvm_destroy_phys_mem(kvm_context_t
, unsigned long phys_start
,
385 int kvm_is_containing_region(kvm_context_t kvm
, unsigned long phys_start
,
387 int kvm_register_phys_mem(kvm_context_t kvm
, unsigned long phys_start
,
388 void *userspace_addr
, unsigned long len
, int log
);
389 int kvm_get_dirty_pages_range(kvm_context_t kvm
, unsigned long phys_addr
,
390 unsigned long end_addr
, void *opaque
,
391 int (*cb
)(unsigned long start
,
392 unsigned long len
, void *bitmap
,
394 int kvm_register_coalesced_mmio(kvm_context_t kvm
, uint64_t addr
,
396 int kvm_unregister_coalesced_mmio(kvm_context_t kvm
, uint64_t addr
,
400 * \brief Get a bitmap of guest ram pages which are allocated to the guest.
402 * \param kvm Pointer to the current kvm_context
403 * \param phys_addr Memory slot phys addr
404 * \param bitmap Long aligned address of a big enough bitmap (one bit per page)
406 int kvm_get_mem_map(kvm_context_t kvm
, unsigned long phys_addr
, void *bitmap
);
407 int kvm_get_mem_map_range(kvm_context_t kvm
, unsigned long phys_addr
,
408 unsigned long len
, void *buf
, void *opaque
,
409 int (*cb
)(unsigned long start
,
410 unsigned long len
, void *bitmap
,
412 int kvm_set_irq_level(kvm_context_t kvm
, int irq
, int level
, int *status
);
414 int kvm_dirty_pages_log_enable_slot(kvm_context_t kvm
, uint64_t phys_start
,
416 int kvm_dirty_pages_log_disable_slot(kvm_context_t kvm
, uint64_t phys_start
,
419 * \brief Enable dirty-pages-logging for all memory regions
421 * \param kvm Pointer to the current kvm_context
423 int kvm_dirty_pages_log_enable_all(kvm_context_t kvm
);
426 * \brief Disable dirty-page-logging for some memory regions
428 * Disable dirty-pages-logging for those memory regions that were
429 * created with dirty-page-logging disabled.
431 * \param kvm Pointer to the current kvm_context
433 int kvm_dirty_pages_log_reset(kvm_context_t kvm
);
435 #ifdef KVM_CAP_IRQCHIP
437 * \brief Dump in kernel IRQCHIP contents
439 * Dump one of the in kernel irq chip devices, including PIC (master/slave)
440 * and IOAPIC into a kvm_irqchip structure
442 * \param kvm Pointer to the current kvm_context
443 * \param chip The irq chip device to be dumped
445 int kvm_get_irqchip(kvm_context_t kvm
, struct kvm_irqchip
*chip
);
448 * \brief Set in kernel IRQCHIP contents
450 * Write one of the in kernel irq chip devices, including PIC (master/slave)
454 * \param kvm Pointer to the current kvm_context
455 * \param chip THe irq chip device to be written
457 int kvm_set_irqchip(kvm_context_t kvm
, struct kvm_irqchip
*chip
);
459 #if defined(__i386__) || defined(__x86_64__)
461 * \brief Get in kernel local APIC for vcpu
463 * Save the local apic state including the timer of a virtual CPU
465 * \param kvm Pointer to the current kvm_context
466 * \param vcpu Which virtual CPU should be accessed
467 * \param s Local apic state of the specific virtual CPU
469 int kvm_get_lapic(CPUState
*env
, struct kvm_lapic_state
*s
);
472 * \brief Set in kernel local APIC for vcpu
474 * Restore the local apic state including the timer of a virtual CPU
476 * \param kvm Pointer to the current kvm_context
477 * \param vcpu Which virtual CPU should be accessed
478 * \param s Local apic state of the specific virtual CPU
480 int kvm_set_lapic(CPUState
*env
, struct kvm_lapic_state
*s
);
485 * \brief Simulate an NMI
487 * This allows you to simulate a non-maskable interrupt.
489 * \param kvm Pointer to the current kvm_context
490 * \param vcpu Which virtual CPU should get dumped
491 * \return 0 on success
493 int kvm_inject_nmi(CPUState
*env
);
498 * \brief Simulate an x86 MCE
500 * This allows you to simulate a x86 MCE.
502 * \param cenv Which virtual CPU should get MCE injected
503 * \param bank Bank number
504 * \param status MSR_MCI_STATUS
505 * \param mcg_status MSR_MCG_STATUS
506 * \param addr MSR_MCI_ADDR
507 * \param misc MSR_MCI_MISC
508 * \param abort_on_error abort on error
510 void kvm_inject_x86_mce(CPUState
*cenv
, int bank
, uint64_t status
,
511 uint64_t mcg_status
, uint64_t addr
, uint64_t misc
,
515 * \brief Initialize coalesced MMIO
517 * Check for coalesced MMIO capability and store in context
519 * \param kvm Pointer to the current kvm_context
521 int kvm_init_coalesced_mmio(kvm_context_t kvm
);
525 #if defined(__i386__) || defined(__x86_64__)
527 * \brief Get in kernel PIT of the virtual domain
529 * Save the PIT state.
531 * \param kvm Pointer to the current kvm_context
532 * \param s PIT state of the virtual domain
534 int kvm_get_pit(kvm_context_t kvm
, struct kvm_pit_state
*s
);
537 * \brief Set in kernel PIT of the virtual domain
539 * Restore the PIT state.
540 * Timer would be retriggerred after restored.
542 * \param kvm Pointer to the current kvm_context
543 * \param s PIT state of the virtual domain
545 int kvm_set_pit(kvm_context_t kvm
, struct kvm_pit_state
*s
);
547 int kvm_reinject_control(kvm_context_t kvm
, int pit_reinject
);
549 #ifdef KVM_CAP_PIT_STATE2
551 * \brief Check for kvm support of kvm_pit_state2
553 * \param kvm Pointer to the current kvm_context
554 * \return 0 on success
556 int kvm_has_pit_state2(kvm_context_t kvm
);
559 * \brief Set in kernel PIT state2 of the virtual domain
562 * \param kvm Pointer to the current kvm_context
563 * \param ps2 PIT state2 of the virtual domain
564 * \return 0 on success
566 int kvm_set_pit2(kvm_context_t kvm
, struct kvm_pit_state2
*ps2
);
569 * \brief Get in kernel PIT state2 of the virtual domain
572 * \param kvm Pointer to the current kvm_context
573 * \param ps2 PIT state2 of the virtual domain
574 * \return 0 on success
576 int kvm_get_pit2(kvm_context_t kvm
, struct kvm_pit_state2
*ps2
);
584 int kvm_enable_vapic(CPUState
*env
, uint64_t vapic
);
588 #if defined(__s390__)
589 int kvm_s390_initial_reset(kvm_context_t kvm
, int slot
);
590 int kvm_s390_interrupt(kvm_context_t kvm
, int slot
,
591 struct kvm_s390_interrupt
*kvmint
);
592 int kvm_s390_set_initial_psw(kvm_context_t kvm
, int slot
, psw_t psw
);
593 int kvm_s390_store_status(kvm_context_t kvm
, int slot
, unsigned long addr
);
596 #ifdef KVM_CAP_DEVICE_ASSIGNMENT
598 * \brief Notifies host kernel about a PCI device to be assigned to a guest
600 * Used for PCI device assignment, this function notifies the host
601 * kernel about the assigning of the physical PCI device to a guest.
603 * \param kvm Pointer to the current kvm_context
604 * \param assigned_dev Parameters, like bus, devfn number, etc
606 int kvm_assign_pci_device(kvm_context_t kvm
,
607 struct kvm_assigned_pci_dev
*assigned_dev
);
610 * \brief Assign IRQ for an assigned device
612 * Used for PCI device assignment, this function assigns IRQ numbers for
613 * an physical device and guest IRQ handling.
615 * \param kvm Pointer to the current kvm_context
616 * \param assigned_irq Parameters, like dev id, host irq, guest irq, etc
618 int kvm_assign_irq(kvm_context_t kvm
, struct kvm_assigned_irq
*assigned_irq
);
620 #ifdef KVM_CAP_ASSIGN_DEV_IRQ
622 * \brief Deassign IRQ for an assigned device
624 * Used for PCI device assignment, this function deassigns IRQ numbers
625 * for an assigned device.
627 * \param kvm Pointer to the current kvm_context
628 * \param assigned_irq Parameters, like dev id, host irq, guest irq, etc
630 int kvm_deassign_irq(kvm_context_t kvm
, struct kvm_assigned_irq
*assigned_irq
);
634 #ifdef KVM_CAP_DEVICE_DEASSIGNMENT
636 * \brief Notifies host kernel about a PCI device to be deassigned from a guest
638 * Used for hot remove PCI device, this function notifies the host
639 * kernel about the deassigning of the physical PCI device from a guest.
641 * \param kvm Pointer to the current kvm_context
642 * \param assigned_dev Parameters, like bus, devfn number, etc
644 int kvm_deassign_pci_device(kvm_context_t kvm
,
645 struct kvm_assigned_pci_dev
*assigned_dev
);
649 * \brief Checks whether the generic irq routing capability is present
651 * Checks whether kvm can reroute interrupts among the various interrupt
654 * \param kvm Pointer to the current kvm_context
656 int kvm_has_gsi_routing(kvm_context_t kvm
);
659 * \brief Determines the number of gsis that can be routed
661 * Returns the number of distinct gsis that can be routed by kvm. This is
662 * also the number of distinct routes (if a gsi has two routes, than another
663 * gsi cannot be used...)
665 * \param kvm Pointer to the current kvm_context
667 int kvm_get_gsi_count(kvm_context_t kvm
);
670 * \brief Clears the temporary irq routing table
672 * Clears the temporary irq routing table. Nothing is committed to the
675 * \param kvm Pointer to the current kvm_context
677 int kvm_clear_gsi_routes(kvm_context_t kvm
);
680 * \brief Adds an irq route to the temporary irq routing table
682 * Adds an irq route to the temporary irq routing table. Nothing is
683 * committed to the running VM.
685 * \param kvm Pointer to the current kvm_context
687 int kvm_add_irq_route(kvm_context_t kvm
, int gsi
, int irqchip
, int pin
);
690 * \brief Removes an irq route from the temporary irq routing table
692 * Adds an irq route to the temporary irq routing table. Nothing is
693 * committed to the running VM.
695 * \param kvm Pointer to the current kvm_context
697 int kvm_del_irq_route(kvm_context_t kvm
, int gsi
, int irqchip
, int pin
);
699 struct kvm_irq_routing_entry
;
701 * \brief Adds a routing entry to the temporary irq routing table
703 * Adds a filled routing entry to the temporary irq routing table. Nothing is
704 * committed to the running VM.
706 * \param kvm Pointer to the current kvm_context
708 int kvm_add_routing_entry(kvm_context_t kvm
,
709 struct kvm_irq_routing_entry
*entry
);
712 * \brief Removes a routing from the temporary irq routing table
714 * Remove a routing to the temporary irq routing table. Nothing is
715 * committed to the running VM.
717 * \param kvm Pointer to the current kvm_context
719 int kvm_del_routing_entry(kvm_context_t kvm
,
720 struct kvm_irq_routing_entry
*entry
);
723 * \brief Updates a routing in the temporary irq routing table
725 * Update a routing in the temporary irq routing table
726 * with a new value. entry type and GSI can not be changed.
727 * Nothing is committed to the running VM.
729 * \param kvm Pointer to the current kvm_context
731 int kvm_update_routing_entry(kvm_context_t kvm
,
732 struct kvm_irq_routing_entry
*entry
,
733 struct kvm_irq_routing_entry
*newentry
);
736 * \brief Commit the temporary irq routing table
738 * Commit the temporary irq routing table to the running VM.
740 * \param kvm Pointer to the current kvm_context
742 int kvm_commit_irq_routes(kvm_context_t kvm
);
745 * \brief Get unused GSI number for irq routing table
747 * Get unused GSI number for irq routing table
749 * \param kvm Pointer to the current kvm_context
751 int kvm_get_irq_route_gsi(kvm_context_t kvm
);
754 * \brief Create a file descriptor for injecting interrupts
756 * Creates an eventfd based file-descriptor that maps to a specific GSI
757 * in the guest. eventfd compliant signaling (write() from userspace, or
758 * eventfd_signal() from kernelspace) will cause the GSI to inject
759 * itself into the guest at the next available window.
761 * \param kvm Pointer to the current kvm_context
762 * \param gsi GSI to assign to this fd
763 * \param flags reserved, must be zero
765 int kvm_irqfd(kvm_context_t kvm
, int gsi
, int flags
);
767 #ifdef KVM_CAP_DEVICE_MSIX
768 int kvm_assign_set_msix_nr(kvm_context_t kvm
,
769 struct kvm_assigned_msix_nr
*msix_nr
);
770 int kvm_assign_set_msix_entry(kvm_context_t kvm
,
771 struct kvm_assigned_msix_entry
*entry
);
774 #else /* !CONFIG_KVM */
776 typedef struct kvm_context
*kvm_context_t
;
777 typedef struct kvm_vcpu_context
*kvm_vcpu_context_t
;
779 struct kvm_pit_state
{
782 static inline int kvm_init(int smp_cpus
)
787 static inline void kvm_inject_x86_mce(CPUState
*cenv
, int bank
,
788 uint64_t status
, uint64_t mcg_status
,
789 uint64_t addr
, uint64_t misc
,
796 #endif /* !CONFIG_KVM */
799 int kvm_main_loop(void);
800 int kvm_init_ap(void);
801 int kvm_vcpu_inited(CPUState
*env
);
802 void kvm_save_lapic(CPUState
*env
);
803 void kvm_load_lapic(CPUState
*env
);
805 void kvm_hpet_enable_kpit(void);
806 void kvm_hpet_disable_kpit(void);
807 int kvm_set_irq(int irq
, int level
, int *status
);
809 int kvm_physical_memory_set_dirty_tracking(int enable
);
811 void qemu_kvm_call_with_env(void (*func
)(void *), void *data
, CPUState
*env
);
812 void qemu_kvm_cpuid_on_env(CPUState
*env
);
813 void kvm_inject_interrupt(CPUState
*env
, int mask
);
814 void kvm_update_after_sipi(CPUState
*env
);
815 void kvm_update_interrupt_request(CPUState
*env
);
816 void *kvm_cpu_create_phys_mem(target_phys_addr_t start_addr
, unsigned long size
,
817 int log
, int writable
);
819 void kvm_cpu_destroy_phys_mem(target_phys_addr_t start_addr
,
821 void kvm_qemu_log_memory(target_phys_addr_t start
, target_phys_addr_t size
,
823 int kvm_qemu_create_memory_alias(uint64_t phys_start
, uint64_t len
,
824 uint64_t target_phys
);
825 int kvm_qemu_destroy_memory_alias(uint64_t phys_start
);
827 int kvm_arch_qemu_create_context(void);
829 void kvm_arch_save_regs(CPUState
*env
);
830 void kvm_arch_load_regs(CPUState
*env
, int level
);
831 int kvm_arch_has_work(CPUState
*env
);
832 void kvm_arch_process_irqchip_events(CPUState
*env
);
833 int kvm_arch_try_push_interrupts(void *opaque
);
834 void kvm_arch_push_nmi(void *opaque
);
835 void kvm_arch_cpu_reset(CPUState
*env
);
836 int kvm_set_boot_cpu_id(uint32_t id
);
838 void qemu_kvm_aio_wait_start(void);
839 void qemu_kvm_aio_wait(void);
840 void qemu_kvm_aio_wait_end(void);
842 void qemu_kvm_notify_work(void);
844 void kvm_tpr_access_report(CPUState
*env
, uint64_t rip
, int is_write
);
846 int kvm_arch_init_irq_routing(void);
848 int kvm_mmio_read(void *opaque
, uint64_t addr
, uint8_t * data
, int len
);
849 int kvm_mmio_write(void *opaque
, uint64_t addr
, uint8_t * data
, int len
);
851 #ifdef CONFIG_KVM_DEVICE_ASSIGNMENT
854 void kvm_ioperm(CPUState
*env
, void *data
);
855 void kvm_add_ioperm_data(struct ioperm_data
*data
);
856 void kvm_remove_ioperm_data(unsigned long start_port
, unsigned long num
);
857 void kvm_arch_do_ioperm(void *_data
);
860 #define ALIGN(x, y) (((x)+(y)-1) & ~((y)-1))
861 #define BITMAP_SIZE(m) (ALIGN(((m)>>TARGET_PAGE_BITS), HOST_LONG_BITS) / 8)
864 #include "qemu-queue.h"
866 extern int kvm_irqchip
;
868 extern int kvm_pit_reinject
;
869 extern int kvm_nested
;
870 extern kvm_context_t kvm_context
;
873 unsigned long start_port
;
876 QLIST_ENTRY(ioperm_data
) entries
;
879 void qemu_kvm_cpu_stop(CPUState
*env
);
880 int kvm_arch_halt(CPUState
*env
);
881 int handle_tpr_access(void *opaque
, CPUState
*env
, uint64_t rip
,
884 #define qemu_kvm_has_gsi_routing() kvm_has_gsi_routing(kvm_context)
886 #define qemu_kvm_has_pit_state2() kvm_has_pit_state2(kvm_context)
890 #define qemu_kvm_has_gsi_routing() (0)
892 #define qemu_kvm_has_pit_state2() (0)
894 #define qemu_kvm_cpu_stop(env) do {} while(0)
897 void kvm_mutex_unlock(void);
898 void kvm_mutex_lock(void);
900 static inline int kvm_sync_vcpus(void)
907 typedef struct KVMSlot
{
908 target_phys_addr_t start_addr
;
909 ram_addr_t memory_size
;
910 ram_addr_t phys_offset
;
915 typedef struct kvm_dirty_log KVMDirtyLog
;
922 #ifdef KVM_CAP_COALESCED_MMIO
923 struct kvm_coalesced_mmio_ring
*coalesced_mmio_ring
;
925 int broken_set_mem_region
;
928 int robust_singlestep
;
930 #ifdef KVM_CAP_SET_GUEST_DEBUG
931 QTAILQ_HEAD(, kvm_sw_breakpoint
) kvm_sw_breakpoints
;
933 int irqchip_in_kernel
;
936 struct kvm_context kvm_context
;
939 extern struct KVMState
*kvm_state
;
941 int kvm_tpr_enable_vapic(CPUState
*env
);
943 unsigned long kvm_get_thread_id(void);
944 int kvm_cpu_is_stopped(CPUState
*env
);