hv:move some files to guest folder

move the following files to guest folder:
renamed:    arch/x86/assign.c -> arch/x86/guest/assign.c
renamed:    arch/x86/ept.c -> arch/x86/guest/ept.c
renamed:    arch/x86/io_emul.c -> arch/x86/guest/io_emul.c
renamed:    arch/x86/trusty.c -> arch/x86/guest/trusty.c
renamed:    arch/x86/virq.c -> arch/x86/guest/virq.c
renamed:    arch/x86/virtual_cr.c -> arch/x86/guest/virtual_cr.c
renamed:    arch/x86/vmcs.c -> arch/x86/guest/vmcs.c
renamed:    arch/x86/vmexit.c -> arch/x86/guest/vmexit.c
renamed:    arch/x86/vmx_asm.S -> arch/x86/guest/vmx_asm.S
renamed:    include/arch/x86/assign.h ->
	    include/arch/x86/guest/assign.h
renamed:    include/arch/x86/io_emul.h ->
	    include/arch/x86/guest/io_emul.h
renamed:    include/arch/x86/trusty.h ->
            include/arch/x86/guest/trusty.h
renamed:    include/arch/x86/virtual_cr.h ->
            include/arch/x86/guest/virtual_cr.h
renamed:    include/arch/x86/vmcs.h -> include/arch/x86/guest/vmcs.h
renamed:    include/arch/x86/vmexit.h ->
            include/arch/x86/guest/vmexit.h

After these files movement, all the files in arch/x86 are native
hardware related, and all the files in arch/x86/guest are
virtualiztion related.

Tracked-On: #1842
Signed-off-by: Mingqiang Chi <mingqiang.chi@intel.com>
Reviewed-by: Jason Chen CJ <jason.cj.chen@intel.com>
Reviewed-by: Eddie Dong <eddie.dong@intel.com>
This commit is contained in:
Mingqiang Chi
2019-01-29 15:56:48 +08:00
committed by Eddie Dong
parent e9bb4267a7
commit 2b2dbe43d7
17 changed files with 13 additions and 13 deletions

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/*
* Copyright (C) 2018 Intel Corporation. All rights reserved.
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef ASSIGN_H
#define ASSIGN_H
#include <ptdev.h>
/**
* @file assign.h
*
* @brief public APIs for Passthrough Interrupt Remapping
*/
/**
* @brief VT-d
*
* @defgroup acrn_passthrough ACRN Passthrough
* @{
*/
/**
* @brief Acknowledge a virtual interrupt for passthrough device.
*
* Acknowledge a virtual legacy interrupt for a passthrough device.
*
* @param[in] vm pointer to acrn_vm
* @param[in] virt_pin virtual pin number associated with the passthrough device
* @param[in] vpin_src ioapic or pic
*
* @return None
*
* @pre vm != NULL
*
*/
void ptirq_intx_ack(struct acrn_vm *vm, uint32_t virt_pin, uint32_t vpin_src);
/**
* @brief MSI/MSI-x remapping for passthrough device.
*
* Main entry for PCI device assignment with MSI and MSI-X.
* MSI can up to 8 vectors and MSI-X can up to 1024 Vectors.
*
* @param[in] vm pointer to acrn_vm
* @param[in] virt_bdf virtual bdf associated with the passthrough device
* @param[in] entry_nr indicate coming vectors, entry_nr = 0 means first vector
* @param[in] info structure used for MSI/MSI-x remapping
*
* @return
* - 0: on success
* - \p -ENODEV:
* - for SOS, the entry already be held by others
* - for UOS, no pre-hold mapping found.
*
* @pre vm != NULL
* @pre info != NULL
*
*/
int32_t ptirq_msix_remap(struct acrn_vm *vm, uint16_t virt_bdf, uint16_t entry_nr, struct ptirq_msi_info *info);
/**
* @brief INTx remapping for passthrough device.
*
* Set up the remapping of the given virtual pin for the given vm.
* This is the main entry for PCI/Legacy device assignment with INTx, calling from vIOAPIC or vPIC.
*
* @param[in] vm pointer to acrn_vm
* @param[in] virt_pin virtual pin number associated with the passthrough device
* @param[in] vpin_src ioapic or pic
*
* @return
* - 0: on success
* - \p -ENODEV:
* - for SOS, the entry already be held by others
* - for UOS, no pre-hold mapping found.
*
* @pre vm != NULL
*
*/
int32_t ptirq_intx_pin_remap(struct acrn_vm *vm, uint32_t virt_pin, uint32_t vpin_src);
/**
* @brief Add an interrupt remapping entry for INTx as pre-hold mapping.
*
* Except sos_vm, Device Model should call this function to pre-hold ptdev intx
* The entry is identified by phys_pin, one entry vs. one phys_pin.
* Currently, one phys_pin can only be held by one pin source (vPIC or vIOAPIC).
*
* @param[in] vm pointer to acrn_vm
* @param[in] virt_pin virtual pin number associated with the passthrough device
* @param[in] phys_pin physical pin number associated with the passthrough device
* @param[in] pic_pin true for pic, false for ioapic
*
* @return
* - 0: on success
* - \p -EINVAL: invalid virt_pin value
* - \p -ENODEV: failed to add the remapping entry
*
* @pre vm != NULL
*
*/
int32_t ptirq_add_intx_remapping(struct acrn_vm *vm, uint32_t virt_pin, uint32_t phys_pin, bool pic_pin);
/**
* @brief Remove an interrupt remapping entry for INTx.
*
* Deactivate & remove mapping entry of the given virt_pin for given vm.
*
* @param[in] vm pointer to acrn_vm
* @param[in] virt_pin virtual pin number associated with the passthrough device
* @param[in] pic_pin true for pic, false for ioapic
*
* @return None
*
* @pre vm != NULL
*
*/
void ptirq_remove_intx_remapping(struct acrn_vm *vm, uint32_t virt_pin, bool pic_pin);
/**
* @brief Add interrupt remapping entry/entries for MSI/MSI-x as pre-hold mapping.
*
* Add pre-hold mapping of the given number of vectors between the given physical and virtual BDF for the given vm.
* Except sos_vm, Device Model should call this function to pre-hold ptdev MSI/MSI-x.
* The entry is identified by phys_bdf:msi_idx, one entry vs. one phys_bdf:msi_idx.
*
* @param[in] vm pointer to acrn_vm
* @param[in] virt_bdf virtual bdf associated with the passthrough device
* @param[in] phys_bdf physical bdf associated with the passthrough device
* @param[in] vector_count number of vectors
*
* @return
* - 0: on success
* - \p -ENODEV: failed to add the remapping entry
*
* @pre vm != NULL
*
*/
int32_t ptirq_add_msix_remapping(struct acrn_vm *vm, uint16_t virt_bdf, uint16_t phys_bdf, uint32_t vector_count);
/**
* @brief Remove interrupt remapping entry/entries for MSI/MSI-x.
*
* Remove the mapping of given number of vectors of the given virtual BDF for the given vm.
*
* @param[in] vm pointer to acrn_vm
* @param[in] virt_bdf virtual bdf associated with the passthrough device
* @param[in] vector_count number of vectors
*
* @return None
*
* @pre vm != NULL
*
*/
void ptirq_remove_msix_remapping(const struct acrn_vm *vm, uint16_t virt_bdf, uint32_t vector_count);
/**
* @}
*/
#endif /* ASSIGN_H */

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/*
* Copyright (C) 2019 Intel Corporation. All rights reserved.
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef IO_EMUL_H
#define IO_EMUL_H
/* Define emulated port IO index */
#define PIC_MASTER_PIO_IDX 0U
#define PIC_SLAVE_PIO_IDX (PIC_MASTER_PIO_IDX + 1U)
#define PIC_ELC_PIO_IDX (PIC_SLAVE_PIO_IDX + 1U)
#define PCI_CFGADDR_PIO_IDX (PIC_ELC_PIO_IDX + 1U)
#define PCI_CFGDATA_PIO_IDX (PCI_CFGADDR_PIO_IDX + 1U)
#define UART_PIO_IDX (PCI_CFGDATA_PIO_IDX + 1U)
#define PM1A_EVT_PIO_IDX (UART_PIO_IDX + 1U)
#define PM1A_CNT_PIO_IDX (PM1A_EVT_PIO_IDX + 1U)
#define PM1B_EVT_PIO_IDX (PM1A_CNT_PIO_IDX + 1U)
#define PM1B_CNT_PIO_IDX (PM1B_EVT_PIO_IDX + 1U)
#define RTC_PIO_IDX (PM1B_CNT_PIO_IDX + 1U)
#define EMUL_PIO_IDX_MAX (RTC_PIO_IDX + 1U)
/**
* @brief The handler of VM exits on I/O instructions
*
* @param vcpu The virtual CPU which triggers the VM exit on I/O instruction
*/
int32_t pio_instr_vmexit_handler(struct acrn_vcpu *vcpu);
/**
* @brief EPT violation handling
*
* @param[in] vcpu the pointer that points to vcpu data structure
*
* @retval -EINVAL fail to handle the EPT violation
* @retval 0 Success to handle the EPT violation
*/
int32_t ept_violation_vmexit_handler(struct acrn_vcpu *vcpu);
/**
* @brief Allow a VM to access a port I/O range
*
* This API enables direct access from the given \p vm to the port I/O space
* starting from \p port_address to \p port_address + \p nbytes - 1.
*
* @param vm The VM whose port I/O access permissions is to be changed
* @param port_address The start address of the port I/O range
* @param nbytes The size of the range, in bytes
*/
void allow_guest_pio_access(struct acrn_vm *vm, uint16_t port_address, uint32_t nbytes);
/**
* @brief Register a port I/O handler
*
* @param vm The VM to which the port I/O handlers are registered
* @param pio_idx The emulated port io index
* @param range The emulated port io range
* @param io_read_fn_ptr The handler for emulating reads from the given range
* @param io_write_fn_ptr The handler for emulating writes to the given range
* @pre pio_idx < EMUL_PIO_IDX_MAX
*/
void register_pio_emulation_handler(struct acrn_vm *vm, uint32_t pio_idx,
const struct vm_io_range *range, io_read_fn_t io_read_fn_ptr, io_write_fn_t io_write_fn_ptr);
/**
* @brief Register a MMIO handler
*
* This API registers a MMIO handler to \p vm before it is launched.
*
* @param vm The VM to which the MMIO handler is registered
* @param read_write The handler for emulating accesses to the given range
* @param start The base address of the range \p read_write can emulate
* @param end The end of the range (exclusive) \p read_write can emulate
* @param handler_private_data Handler-specific data which will be passed to \p read_write when called
*
* @retval 0 Registration succeeds
* @retval -EINVAL \p read_write is NULL, \p end is not larger than \p start or \p vm has been launched
*/
int32_t register_mmio_emulation_handler(struct acrn_vm *vm,
hv_mem_io_handler_t read_write, uint64_t start,
uint64_t end, void *handler_private_data);
#endif /* IO_EMUL_H */

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/*
* Copyright (C) 2018 Intel Corporation. All rights reserved.
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef TRUSTY_H_
#define TRUSTY_H_
#define BOOTLOADER_SEED_MAX_ENTRIES 10U
#define RPMB_MAX_PARTITION_NUMBER 6U
#define MMC_PROD_NAME_WITH_PSN_LEN 15U
#define BUP_MKHI_BOOTLOADER_SEED_LEN 64U
#define TRUSTY_RAM_SIZE (16UL * 1024UL * 1024UL) /* 16 MB for now */
/* Trusty EPT rebase gpa: 511G */
#define TRUSTY_EPT_REBASE_GPA (511UL * 1024UL * 1024UL * 1024UL)
#define NON_TRUSTY_PDPT_ENTRIES 511U
/* Structure of seed info */
struct seed_info {
uint8_t cse_svn;
uint8_t bios_svn;
uint8_t padding[2];
uint8_t seed[BUP_MKHI_BOOTLOADER_SEED_LEN];
};
/* Structure of key info */
struct trusty_key_info {
uint32_t size_of_this_struct;
/* version info:
0: baseline structure
1: add ** new field
*/
uint32_t version;
/* platform:
0: Dummy (fake secret)
1: APL (APL + ABL)
2: ICL (ICL + SBL)
3: ACRN (APL|ICL + SBL + ACRN)
4: Brillo (Android Things)
*/
uint32_t platform;
/* flags info:
Bit 0: manufacturing state (0:manufacturing done;
1:in manufacturing mode)
Bit 1: secure boot state (0:disabled; 1: enabled)
Bit 2: test seeds (ICL only - 0:production seeds; 1: test seeds)
other bits all reserved as 0
*/
uint32_t flags;
/* Keep 64-bit align */
uint32_t pad1;
/* Seed list, include useeds(user seeds) and dseed(device seeds) */
uint32_t num_seeds;
struct seed_info useed_list[BOOTLOADER_SEED_MAX_ENTRIES];
struct seed_info dseed_list[BOOTLOADER_SEED_MAX_ENTRIES];
/* For ICL+ */
/* rpmb keys, Currently HMAC-SHA256 is used in RPMB spec
* and 256-bit (32byte) is enough. Hence only lower 32 bytes will be
* used for now for each entry. But keep higher 32 bytes for future
* extension. Note that, RPMB keys are already tied to storage device
* serial number.If there are multiple RPMB partitions, then we will
* get multiple available RPMB keys. And if rpmb_key[n][64] == 0,
* then the n-th RPMB key is unavailable (Either because of no such
* RPMB partition, or because OSloader doesn't want to share
* the n-th RPMB key with Trusty)
*/
uint8_t rpmb_key[RPMB_MAX_PARTITION_NUMBER][64];
/* 256-bit AES encryption key to encrypt/decrypt attestation keybox,
this key should be derived from a fixed key which is RPMB seed.
RPMB key (HMAC key) and this encryption key (AES key) are both
derived from the same RPMB seed.
*/
uint8_t attkb_enc_key[32];
/* For APL only */
/* RPMB key is derived with dseed together with this serial number,
* for ICL +, CSE directly provides the rpmb_key which is already
* tied to serial number. Concatenation of emmc product name
* with a string representation of PSN
*/
char serial[MMC_PROD_NAME_WITH_PSN_LEN];
char pad2;
};
struct secure_world_memory {
/* The original secure world base address allocated by bootloader */
uint64_t base_gpa_in_uos;
/* The secure world base address of HPA */
uint64_t base_hpa;
/* Secure world runtime memory size */
uint64_t length;
};
struct secure_world_control {
/* Flag indicates Secure World's state */
struct {
/* sworld supporting: 0(unsupported), 1(supported) */
uint64_t supported : 1;
/* sworld running status: 0(inactive), 1(active) */
uint64_t active : 1;
/* sworld context saving status: 0(unsaved), 1(saved) */
uint64_t ctx_saved : 1;
uint64_t reserved : 61;
} flag;
/* Secure world memory structure */
struct secure_world_memory sworld_memory;
};
struct trusty_startup_param {
uint32_t size_of_this_struct;
uint32_t mem_size;
uint64_t tsc_per_ms;
uint64_t trusty_mem_base;
uint32_t reserved;
uint8_t padding[4];
};
void switch_world(struct acrn_vcpu *vcpu, int32_t next_world);
bool initialize_trusty(struct acrn_vcpu *vcpu, const struct trusty_boot_param *boot_param);
void destroy_secure_world(struct acrn_vm *vm, bool need_clr_mem);
void save_sworld_context(struct acrn_vcpu *vcpu);
void restore_sworld_context(struct acrn_vcpu *vcpu);
void trusty_set_dseed(const void *dseed, uint8_t dseed_num);
#endif /* TRUSTY_H_ */

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/*
* Copyright (C) 2018 Intel Corporation. All rights reserved.
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef VCR_H
#define VCR_H
/**
* @file virtual_cr.h
*
* @brief public APIs for vCR operations
*/
void init_cr0_cr4_host_mask(void);
/**
* @brief vCR from vcpu
*
* @defgroup vCR ACRN
* @{
*/
/**
* @brief get vcpu CR0 value
*
* Get & cache target vCPU's CR0 in run_context.
*
* @param[in] vcpu pointer to vcpu data structure
*
* @return the value of CR0.
*/
uint64_t vcpu_get_cr0(struct acrn_vcpu *vcpu);
/**
* @brief set vcpu CR0 value
*
* Update target vCPU's CR0 in run_context.
*
* @param[inout] vcpu pointer to vcpu data structure
* @param[in] val the value set CR0
*/
void vcpu_set_cr0(struct acrn_vcpu *vcpu, uint64_t val);
/**
* @brief get vcpu CR2 value
*
* Get & cache target vCPU's CR2 in run_context.
*
* @param[in] vcpu pointer to vcpu data structure
*
* @return the value of CR2.
*/
uint64_t vcpu_get_cr2(const struct acrn_vcpu *vcpu);
/**
* @brief set vcpu CR2 value
*
* Update target vCPU's CR2 in run_context.
*
* @param[inout] vcpu pointer to vcpu data structure
* @param[in] val the value set CR2
*/
void vcpu_set_cr2(struct acrn_vcpu *vcpu, uint64_t val);
/**
* @brief get vcpu CR4 value
*
* Get & cache target vCPU's CR4 in run_context.
*
* @param[in] vcpu pointer to vcpu data structure
*
* @return the value of CR4.
*/
uint64_t vcpu_get_cr4(struct acrn_vcpu *vcpu);
/**
* @brief set vcpu CR4 value
*
* Update target vCPU's CR4 in run_context.
*
* @param[inout] vcpu pointer to vcpu data structure
* @param[in] val the value set CR4
*/
void vcpu_set_cr4(struct acrn_vcpu *vcpu, uint64_t val);
/**
* @}
*/
/* End of vCR */
int32_t cr_access_vmexit_handler(struct acrn_vcpu *vcpu);
#endif /* VCR_H */

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/*
* Copyright (C) 2018 Intel Corporation. All rights reserved.
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef VMCS_H_
#define VMCS_H_
#define VM_SUCCESS 0
#define VM_FAIL -1
#ifndef ASSEMBLER
#define VMX_VMENTRY_FAIL 0x80000000U
static inline uint32_t vmx_eoi_exit(uint32_t vector)
{
return (VMX_EOI_EXIT0_FULL + ((vector >> 6U) * 2U));
}
/* VM exit qulifications for APIC-access
* Access type:
* 0 = linear access for a data read during instruction execution
* 1 = linear access for a data write during instruction execution
* 2 = linear access for an instruction fetch
* 3 = linear access (read or write) during event delivery
* 10 = guest-physical access during event delivery
* 15 = guest-physical access for an instructon fetch or during
* instruction execution
*/
static inline uint64_t apic_access_type(uint64_t qual)
{
return ((qual >> 12U) & 0xFUL);
}
static inline uint64_t apic_access_offset(uint64_t qual)
{
return (qual & 0xFFFUL);
}
#define RFLAGS_C (1U<<0U)
#define RFLAGS_Z (1U<<6U)
#define RFLAGS_AC (1U<<18U)
#define VMX_SUPPORT_UNRESTRICTED_GUEST (1U<<5U)
void init_vmcs(struct acrn_vcpu *vcpu);
uint64_t vmx_rdmsr_pat(const struct acrn_vcpu *vcpu);
int32_t vmx_wrmsr_pat(struct acrn_vcpu *vcpu, uint64_t value);
void switch_apicv_mode_x2apic(struct acrn_vcpu *vcpu);
static inline enum vm_cpu_mode get_vcpu_mode(const struct acrn_vcpu *vcpu)
{
return vcpu->arch.cpu_mode;
}
#endif /* ASSEMBLER */
#endif /* VMCS_H_ */

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/*
* Copyright (C) 2018 Intel Corporation. All rights reserved.
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef VMEXIT_H_
#define VMEXIT_H_
struct vm_exit_dispatch {
int32_t (*handler)(struct acrn_vcpu *);
uint32_t need_exit_qualification;
};
int32_t vmexit_handler(struct acrn_vcpu *vcpu);
int32_t vmcall_vmexit_handler(struct acrn_vcpu *vcpu);
int32_t cpuid_vmexit_handler(struct acrn_vcpu *vcpu);
extern void vm_exit(void);
static inline uint64_t
vm_exit_qualification_bit_mask(uint64_t exit_qual, uint32_t msb, uint32_t lsb)
{
return (exit_qual &
(((1UL << (msb + 1U)) - 1UL) - ((1UL << lsb) - 1UL)));
}
/* access Control-Register Info using exit qualification field */
static inline uint64_t vm_exit_cr_access_cr_num(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 3U, 0U) >> 0U);
}
static inline uint64_t vm_exit_cr_access_type(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 5U, 4U) >> 4U);
}
static inline uint64_t vm_exit_cr_access_lmsw_op(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 6U, 6U) >> 6U);
}
static inline uint64_t vm_exit_cr_access_reg_idx(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 11U, 8U) >> 8U);
}
static inline uint64_t vm_exit_cr_access_lmsw_src_date(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 31U, 16U) >> 16U);
}
/* access IO Access Info using exit qualification field */
static inline uint64_t vm_exit_io_instruction_size(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 2U, 0U) >> 0U);
}
static inline uint64_t
vm_exit_io_instruction_access_direction(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 3U, 3U) >> 3U);
}
static inline uint64_t vm_exit_io_instruction_is_string(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 4U, 4U) >> 4U);
}
static inline uint64_t
vm_exit_io_instruction_is_rep_prefixed(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 5U, 5U) >> 5U);
}
static inline uint64_t
vm_exit_io_instruction_is_operand_encoding(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 6U, 6U) >> 6U);
}
static inline uint64_t vm_exit_io_instruction_port_number(uint64_t exit_qual)
{
return (vm_exit_qualification_bit_mask(exit_qual, 31U, 16U) >> 16U);
}
#endif /* VMEXIT_H_ */