-static int virtio_reset(struct vm_device * dev) {
- struct virtio_sym_state * virtio = (struct virtio_sym_state *)dev->private_data;
+static int virtio_reset(struct virtio_sym_state * virtio) {
memset(virtio->queue, 0, sizeof(struct virtio_queue));
}
-static int handle_kick(struct vm_device * dev) {
- struct virtio_sym_state * virtio = (struct virtio_sym_state *)dev->private_data;
- struct virtio_queue * q = virtio->cur_queue;
+static int handle_kick(struct guest_info * core, struct virtio_sym_state * sym_state) {
+ struct virtio_queue * q = sym_state->cur_queue;
return -1;
tmp_desc->flags, tmp_desc->next);
- if (guest_pa_to_host_va(dev->vm, tmp_desc->addr_gpa, (addr_t *)&(page_addr)) == -1) {
+ if (guest_pa_to_host_va(core, tmp_desc->addr_gpa, (addr_t *)&(page_addr)) == -1) {
PrintError("Could not translate block header address\n");
return -1;
}
}
if (!(q->avail->flags & VIRTIO_NO_IRQ_FLAG)) {
- PrintDebug("Raising IRQ %d\n", virtio->pci_dev->config_header.intr_line);
- v3_pci_raise_irq(virtio->pci_bus, 0, virtio->pci_dev);
- virtio->virtio_cfg.pci_isr = VIRTIO_ISR_ACTIVE;
+ PrintDebug("Raising IRQ %d\n", sym_state->pci_dev->config_header.intr_line);
+ v3_pci_raise_irq(sym_state->pci_bus, 0, sym_state->pci_dev);
+ sym_state->virtio_cfg.pci_isr = VIRTIO_ISR_ACTIVE;
}
return 0;
}
-static int virtio_io_write(uint16_t port, void * src, uint_t length, void * private_data) {
- struct vm_device * dev = (struct vm_device *)private_data;
- struct virtio_sym_state * virtio = (struct virtio_sym_state *)dev->private_data;
- int port_idx = port % virtio->io_range_size;
+static int virtio_io_write(struct guest_info * core, uint16_t port, void * src, uint_t length, void * private_data) {
+ struct virtio_sym_state * sym_state = (struct virtio_sym_state *)private_data;
+ int port_idx = port % sym_state->io_range_size;
/*
return -1;
}
- virtio->virtio_cfg.guest_features = *(uint32_t *)src;
+ sym_state->virtio_cfg.guest_features = *(uint32_t *)src;
break;
case VRING_PG_NUM_PORT:
addr_t page_addr = (pfn << VIRTIO_PAGE_SHIFT);
- virtio->cur_queue->pfn = pfn;
+ sym_state->cur_queue->pfn = pfn;
- virtio->cur_queue->ring_desc_addr = page_addr ;
- virtio->cur_queue->ring_avail_addr = page_addr + (QUEUE_SIZE * sizeof(struct vring_desc));
- virtio->cur_queue->ring_used_addr = ( virtio->cur_queue->ring_avail_addr + \
+ sym_state->cur_queue->ring_desc_addr = page_addr ;
+ sym_state->cur_queue->ring_avail_addr = page_addr + (QUEUE_SIZE * sizeof(struct vring_desc));
+ sym_state->cur_queue->ring_used_addr = ( sym_state->cur_queue->ring_avail_addr + \
sizeof(struct vring_avail) + \
(QUEUE_SIZE * sizeof(uint16_t)));
// round up to next page boundary.
- virtio->cur_queue->ring_used_addr = (virtio->cur_queue->ring_used_addr + 0xfff) & ~0xfff;
+ sym_state->cur_queue->ring_used_addr = (sym_state->cur_queue->ring_used_addr + 0xfff) & ~0xfff;
- if (guest_pa_to_host_va(dev->vm, virtio->cur_queue->ring_desc_addr, (addr_t *)&(virtio->cur_queue->desc)) == -1) {
+ if (guest_pa_to_host_va(core, sym_state->cur_queue->ring_desc_addr, (addr_t *)&(sym_state->cur_queue->desc)) == -1) {
PrintError("Could not translate ring descriptor address\n");
return -1;
}
- if (guest_pa_to_host_va(dev->vm, virtio->cur_queue->ring_avail_addr, (addr_t *)&(virtio->cur_queue->avail)) == -1) {
+ if (guest_pa_to_host_va(core, sym_state->cur_queue->ring_avail_addr, (addr_t *)&(sym_state->cur_queue->avail)) == -1) {
PrintError("Could not translate ring available address\n");
return -1;
}
- if (guest_pa_to_host_va(dev->vm, virtio->cur_queue->ring_used_addr, (addr_t *)&(virtio->cur_queue->used)) == -1) {
+ if (guest_pa_to_host_va(core, sym_state->cur_queue->ring_used_addr, (addr_t *)&(sym_state->cur_queue->used)) == -1) {
PrintError("Could not translate ring used address\n");
return -1;
}
PrintDebug("RingDesc_addr=%p, Avail_addr=%p, Used_addr=%p\n",
- (void *)(virtio->cur_queue->ring_desc_addr),
- (void *)(virtio->cur_queue->ring_avail_addr),
- (void *)(virtio->cur_queue->ring_used_addr));
+ (void *)(sym_state->cur_queue->ring_desc_addr),
+ (void *)(sym_state->cur_queue->ring_avail_addr),
+ (void *)(sym_state->cur_queue->ring_used_addr));
PrintDebug("RingDesc=%p, Avail=%p, Used=%p\n",
- virtio->cur_queue->desc, virtio->cur_queue->avail, virtio->cur_queue->used);
+ sym_state->cur_queue->desc, sym_state->cur_queue->avail, sym_state->cur_queue->used);
} else {
PrintError("Illegal write length for page frame number\n");
}
break;
case VRING_Q_SEL_PORT:
- virtio->virtio_cfg.vring_queue_selector = *(uint16_t *)src;
+ sym_state->virtio_cfg.vring_queue_selector = *(uint16_t *)src;
- if (virtio->virtio_cfg.vring_queue_selector > 0) {
+ if (sym_state->virtio_cfg.vring_queue_selector > 0) {
PrintError("Virtio Symbiotic device has not qeueues. Selected %d\n",
- virtio->virtio_cfg.vring_queue_selector);
+ sym_state->virtio_cfg.vring_queue_selector);
return -1;
}
- virtio->cur_queue = &(virtio->queue[virtio->virtio_cfg.vring_queue_selector]);
+ sym_state->cur_queue = &(sym_state->queue[sym_state->virtio_cfg.vring_queue_selector]);
break;
case VRING_Q_NOTIFY_PORT:
PrintDebug("Handling Kick\n");
- if (handle_kick(dev) == -1) {
+ if (handle_kick(core, sym_state) == -1) {
PrintError("Could not handle Symbiotic Notification\n");
return -1;
}
break;
case VIRTIO_STATUS_PORT:
- virtio->virtio_cfg.status = *(uint8_t *)src;
+ sym_state->virtio_cfg.status = *(uint8_t *)src;
- if (virtio->virtio_cfg.status == 0) {
+ if (sym_state->virtio_cfg.status == 0) {
PrintDebug("Resetting device\n");
- virtio_reset(dev);
+ virtio_reset(sym_state);
}
break;
case VIRTIO_ISR_PORT:
- virtio->virtio_cfg.pci_isr = *(uint8_t *)src;
+ sym_state->virtio_cfg.pci_isr = *(uint8_t *)src;
break;
default:
return -1;
}
-static int virtio_io_read(uint16_t port, void * dst, uint_t length, void * private_data) {
- struct vm_device * dev = (struct vm_device *)private_data;
- struct virtio_sym_state * virtio = (struct virtio_sym_state *)dev->private_data;
- int port_idx = port % virtio->io_range_size;
+static int virtio_io_read(struct guest_info * core, uint16_t port, void * dst, uint_t length, void * private_data) {
+
+ struct virtio_sym_state * sym_state = (struct virtio_sym_state *)private_data;
+ int port_idx = port % sym_state->io_range_size;
/*
PrintDebug("VIRTIO SYMBIOTIC Read for port %d (index =%d), length=%d\n",
return -1;
}
- *(uint32_t *)dst = virtio->virtio_cfg.host_features;
+ *(uint32_t *)dst = sym_state->virtio_cfg.host_features;
break;
case VRING_PG_NUM_PORT:
return -1;
}
- *(uint32_t *)dst = virtio->cur_queue->pfn;
+ *(uint32_t *)dst = sym_state->cur_queue->pfn;
break;
case VRING_SIZE_PORT:
return -1;
}
- *(uint16_t *)dst = virtio->cur_queue->queue_size;
+ *(uint16_t *)dst = sym_state->cur_queue->queue_size;
break;
return -1;
}
- *(uint8_t *)dst = virtio->virtio_cfg.status;
+ *(uint8_t *)dst = sym_state->virtio_cfg.status;
break;
case VIRTIO_ISR_PORT:
- *(uint8_t *)dst = virtio->virtio_cfg.pci_isr;
- virtio->virtio_cfg.pci_isr = 0;
- v3_pci_lower_irq(virtio->pci_bus, 0, virtio->pci_dev);
+ *(uint8_t *)dst = sym_state->virtio_cfg.pci_isr;
+ sym_state->virtio_cfg.pci_isr = 0;
+ v3_pci_lower_irq(sym_state->pci_bus, 0, sym_state->pci_dev);
break;
default:
if ( (port_idx >= sizeof(struct virtio_config)) &&
(port_idx < (sizeof(struct virtio_config) + sizeof(struct sym_config))) ) {
int cfg_offset = port_idx - sizeof(struct virtio_config);
- uint8_t * cfg_ptr = (uint8_t *)&(virtio->sym_cfg);
+ uint8_t * cfg_ptr = (uint8_t *)&(sym_state->sym_cfg);
memcpy(dst, cfg_ptr + cfg_offset, length);
-static int virtio_init(struct guest_info * vm, v3_cfg_tree_t * cfg) {
+static int virtio_init(struct v3_vm_info * vm, v3_cfg_tree_t * cfg) {
struct vm_device * pci_bus = v3_find_dev(vm, v3_cfg_val(cfg, "bus"));
struct virtio_sym_state * virtio_state = NULL;
struct pci_device * pci_dev = NULL;
virtio_state->pci_bus = pci_bus;
}
- virtio_reset(dev);
+ virtio_reset(virtio_state);
return 0;
#include <palacios/vmm_mem.h>
#include <palacios/vmm_hypercall.h>
#include <palacios/vm_guest.h>
+#include <palacios/vmm_sprintf.h>
-#define SYM_PAGE_MSR 0x535
+
+#define SYMSPY_GLOBAL_MSR 0x534
+#define SYMSPY_LOCAL_MSR 0x535
#define SYM_CPUID_NUM 0x90000000
#define SYMCALL_GS_MSR 0x539
#define SYMCALL_FS_MSR 0x540
-static int msr_read(uint_t msr, struct v3_msr * dst, void * priv_data) {
- struct guest_info * info = (struct guest_info *)priv_data;
- struct v3_sym_state * state = &(info->vm_info->sym_state);
+static int symspy_msr_read(struct guest_info * core, uint_t msr,
+ struct v3_msr * dst, void * priv_data) {
+ struct v3_sym_global_state * global_state = &(core->vm_info->sym_global_state);
+ struct v3_sym_local_state * local_state = &(core->sym_local_state);
switch (msr) {
- case SYM_PAGE_MSR:
- dst->value = state->guest_pg_addr;
+ case SYMSPY_GLOBAL_MSR:
+ dst->value = global_state->global_guest_pa;
+ break;
+ case SYMSPY_LOCAL_MSR:
+ dst->value = local_state->local_guest_pa;
break;
default:
return -1;
return 0;
}
-static int symcall_msr_read(uint_t msr, struct v3_msr * dst, void * priv_data) {
- struct guest_info * info = (struct guest_info *)priv_data;
- struct v3_symcall_state * state = &(info->vm_info->sym_state.symcalls[info->cpu_id]);
+static int symcall_msr_read(struct guest_info * core, uint_t msr,
+ struct v3_msr * dst, void * priv_data) {
+ struct v3_symcall_state * state = &(core->sym_local_state.symcall_state);
switch (msr) {
case SYMCALL_RIP_MSR:
return 0;
}
-static int msr_write(uint_t msr, struct v3_msr src, void * priv_data) {
- struct guest_info * info = (struct guest_info *)priv_data;
- struct v3_sym_state * state = &(info->vm_info->sym_state);
+static int symspy_msr_write(struct guest_info * core, uint_t msr, struct v3_msr src, void * priv_data) {
+
+ if (msr == SYMSPY_GLOBAL_MSR) {
+ struct v3_sym_global_state * global_state = &(core->vm_info->sym_global_state);
+
+ PrintDebug("Symbiotic Glbal MSR write for page %p\n", (void *)(addr_t)src.value);
+
+ if (global_state->active == 1) {
+ // unmap page
+ struct v3_shadow_region * old_reg = v3_get_shadow_region(core->vm_info, core->cpu_id,
+ (addr_t)global_state->global_guest_pa);
+
+ if (old_reg == NULL) {
+ PrintError("Could not find previously active symbiotic page (%p)\n",
+ (void *)(addr_t)global_state->global_guest_pa);
+ return -1;
+ }
+
+ v3_delete_shadow_region(core->vm_info, old_reg);
+ }
+
+ global_state->global_guest_pa = src.value;
+ global_state->global_guest_pa &= ~0xfffLL;
+
+ global_state->active = 1;
- if (msr == SYM_PAGE_MSR) {
- PrintDebug("Symbiotic MSR write for page %p\n", (void *)(addr_t)src.value);
+ // map page
+ v3_add_shadow_mem(core->vm_info, V3_MEM_CORE_ANY, (addr_t)global_state->global_guest_pa,
+ (addr_t)(global_state->global_guest_pa + PAGE_SIZE_4KB - 1),
+ global_state->global_page_pa);
+ } else if (msr == SYMSPY_LOCAL_MSR) {
+ struct v3_sym_local_state * local_state = &(core->sym_local_state);
+
+ PrintDebug("Symbiotic Local MSR write for page %p\n", (void *)(addr_t)src.value);
- if (state->active == 1) {
+ if (local_state->active == 1) {
// unmap page
- struct v3_shadow_region * old_reg = v3_get_shadow_region(info->vm_info, (addr_t)state->guest_pg_addr);
+ struct v3_shadow_region * old_reg = v3_get_shadow_region(core->vm_info, core->cpu_id,
+ (addr_t)local_state->local_guest_pa);
if (old_reg == NULL) {
- PrintError("Could not find previously active symbiotic page (%p)\n", (void *)(addr_t)state->guest_pg_addr);
+ PrintError("Could not find previously active symbiotic page (%p)\n",
+ (void *)(addr_t)local_state->local_guest_pa);
return -1;
}
- v3_delete_shadow_region(info->vm_info, old_reg);
+ v3_delete_shadow_region(core->vm_info, old_reg);
}
- state->guest_pg_addr = src.value;
- state->guest_pg_addr &= ~0xfffLL;
+ local_state->local_guest_pa = src.value;
+ local_state->local_guest_pa &= ~0xfffLL;
- state->active = 1;
+ local_state->active = 1;
// map page
- v3_add_shadow_mem(info->vm_info, (addr_t)state->guest_pg_addr,
- (addr_t)(state->guest_pg_addr + PAGE_SIZE_4KB - 1),
- state->sym_page_pa);
+ v3_add_shadow_mem(core->vm_info, core->cpu_id, (addr_t)local_state->local_guest_pa,
+ (addr_t)(local_state->local_guest_pa + PAGE_SIZE_4KB - 1),
+ local_state->local_page_pa);
} else {
PrintError("Invalid Symbiotic MSR write (0x%x)\n", msr);
return -1;
}
-static int symcall_msr_write(uint_t msr, struct v3_msr src, void * priv_data) {
- struct guest_info * info = (struct guest_info *)priv_data;
- struct v3_symcall_state * state = &(info->vm_info->sym_state.symcalls[info->cpu_id]);
+static int symcall_msr_write(struct guest_info * core, uint_t msr, struct v3_msr src, void * priv_data) {
+ struct v3_symcall_state * state = &(core->sym_local_state.symcall_state);
switch (msr) {
case SYMCALL_RIP_MSR:
return 0;
}
-static int cpuid_fn(struct guest_info * info, uint32_t cpuid,
+static int cpuid_fn(struct guest_info * core, uint32_t cpuid,
uint32_t * eax, uint32_t * ebx,
uint32_t * ecx, uint32_t * edx,
void * private_data) {
*eax = *(uint32_t *)"V3V";
- if ((v3_cpu_types[info->cpu_id] == V3_SVM_CPU) ||
- (v3_cpu_types[info->cpu_id] == V3_SVM_REV3_CPU)) {
+ if ((v3_cpu_types[core->cpu_id] == V3_SVM_CPU) ||
+ (v3_cpu_types[core->cpu_id] == V3_SVM_REV3_CPU)) {
*ebx = *(uint32_t *)"SVM";
- } else if ((v3_cpu_types[info->cpu_id] == V3_VMX_CPU) ||
- (v3_cpu_types[info->cpu_id] == V3_VMX_EPT_CPU)) {
+ } else if ((v3_cpu_types[core->cpu_id] == V3_VMX_CPU) ||
+ (v3_cpu_types[core->cpu_id] == V3_VMX_EPT_CPU)) {
*ebx = *(uint32_t *)"VMX";
}
return 0;
}
-
+
static int sym_call_ret(struct guest_info * info, uint_t hcall_id, void * private_data);
static int sym_call_err(struct guest_info * info, uint_t hcall_id, void * private_data);
int v3_init_sym_iface(struct v3_vm_info * vm) {
- struct v3_sym_state * state = &(vm->sym_state);
- memset(state, 0, sizeof(struct v3_sym_state));
+ struct v3_sym_global_state * global_state = &(vm->sym_global_state);
+ memset(global_state, 0, sizeof(struct v3_sym_global_state));
- state->sym_page_pa = (addr_t)V3_AllocPages(1);
- state->sym_page = (struct v3_sym_interface *)V3_VAddr((void *)state->sym_page_pa);
- memset(state->sym_page, 0, PAGE_SIZE_4KB);
+ global_state->global_page_pa = (addr_t)V3_AllocPages(1);
+ global_state->sym_page = (struct v3_sym_global_page *)V3_VAddr((void *)global_state->global_page_pa);
+ memset(global_state->sym_page, 0, PAGE_SIZE_4KB);
-
- memcpy(&(state->sym_page->magic), "V3V", 3);
+ memcpy(&(global_state->sym_page->magic), "V3V", 3);
- v3_hook_msr(vm, SYM_PAGE_MSR, msr_read, msr_write, info);
+ v3_hook_msr(vm, SYMSPY_LOCAL_MSR, symspy_msr_read, symspy_msr_write, NULL);
+ v3_hook_msr(vm, SYMSPY_GLOBAL_MSR, symspy_msr_read, symspy_msr_write, NULL);
- v3_hook_cpuid(vm, SYM_CPUID_NUM, cpuid_fn, info);
+ v3_hook_cpuid(vm, SYM_CPUID_NUM, cpuid_fn, NULL);
- v3_hook_msr(vm, SYMCALL_RIP_MSR, symcall_msr_read, msr_write, info);
- v3_hook_msr(vm, SYMCALL_RSP_MSR, symcall_msr_read, msr_write, info);
- v3_hook_msr(vm, SYMCALL_CS_MSR, symcall_msr_read, msr_write, info);
- v3_hook_msr(vm, SYMCALL_GS_MSR, symcall_msr_read, msr_write, info);
- v3_hook_msr(vm, SYMCALL_FS_MSR, symcall_msr_read, msr_write, info);
+ v3_hook_msr(vm, SYMCALL_RIP_MSR, symcall_msr_read, symcall_msr_write, NULL);
+ v3_hook_msr(vm, SYMCALL_RSP_MSR, symcall_msr_read, symcall_msr_write, NULL);
+ v3_hook_msr(vm, SYMCALL_CS_MSR, symcall_msr_read, symcall_msr_write, NULL);
+ v3_hook_msr(vm, SYMCALL_GS_MSR, symcall_msr_read, symcall_msr_write, NULL);
+ v3_hook_msr(vm, SYMCALL_FS_MSR, symcall_msr_read, symcall_msr_write, NULL);
v3_register_hypercall(vm, SYM_CALL_RET_HCALL, sym_call_ret, NULL);
v3_register_hypercall(vm, SYM_CALL_ERR_HCALL, sym_call_err, NULL);
return 0;
}
+
+int v3_init_sym_core(struct guest_info * core) {
+ struct v3_sym_local_state * local_state = &(core->sym_local_state);
+ memset(local_state, 0, sizeof(struct v3_sym_local_state));
+
+ local_state->local_page_pa = (addr_t)V3_AllocPages(1);
+ local_state->local_page = (struct v3_sym_local_page *)V3_VAddr((void *)local_state->local_page_pa);
+ memset(local_state->local_page, 0, PAGE_SIZE_4KB);
+
+ snprintf((uint8_t *)&(local_state->local_page->magic), 8, "V3V.%d", core->cpu_id);
+
+ return 0;
+}
+
+
int v3_sym_map_pci_passthrough(struct v3_vm_info * vm, uint_t bus, uint_t dev, uint_t fn) {
- struct v3_sym_state * state = &(vm->sym_state);
+ struct v3_sym_global_state * global_state = &(vm->sym_global_state);
uint_t dev_index = (bus << 8) + (dev << 3) + fn;
uint_t major = dev_index / 8;
uint_t minor = dev_index % 8;
PrintDebug("Setting passthrough pci map for index=%d\n", dev_index);
- state->sym_page->pci_pt_map[major] |= 0x1 << minor;
+ global_state->sym_page->pci_pt_map[major] |= 0x1 << minor;
- PrintDebug("pt_map entry=%x\n", state->sym_page->pci_pt_map[major]);
+ PrintDebug("pt_map entry=%x\n", global_state->sym_page->pci_pt_map[major]);
- PrintDebug("pt map vmm addr=%p\n", state->sym_page->pci_pt_map);
+ PrintDebug("pt map vmm addr=%p\n", global_state->sym_page->pci_pt_map);
return 0;
}
int v3_sym_unmap_pci_passthrough(struct v3_vm_info * vm, uint_t bus, uint_t dev, uint_t fn) {
- struct v3_sym_state * state = &(vm->sym_state);
+ struct v3_sym_global_state * global_state = &(vm->sym_global_state);
uint_t dev_index = (bus << 8) + (dev << 3) + fn;
uint_t major = dev_index / 8;
uint_t minor = dev_index % 8;
return -1;
}
- state->sym_page->pci_pt_map[major] &= ~(0x1 << minor);
+ global_state->sym_page->pci_pt_map[major] &= ~(0x1 << minor);
return 0;
}
-static int sym_call_err(struct guest_info * info, uint_t hcall_id, void * private_data) {
- struct v3_symcall_state * state = (struct v3_symcall_state *)&(info->sym_state.symcalls[info->cpu_id]);
+static int sym_call_err(struct guest_info * core, uint_t hcall_id, void * private_data) {
+ struct v3_symcall_state * state = (struct v3_symcall_state *)&(core->sym_local_state.symcall_state);
PrintError("sym call error\n");
- state->sym_call_errno = (int)info->vm_regs.rbx;
- v3_print_guest_state(info);
- v3_print_mem_map(info);
+ state->sym_call_errno = (int)core->vm_regs.rbx;
+ v3_print_guest_state(core);
+ v3_print_mem_map(core->vm_info);
// clear sym flags
state->sym_call_error = 1;
return -1;
}
-static int sym_call_ret(struct guest_info * info, uint_t hcall_id, void * private_data) {
- struct v3_symcall_state * state = (struct v3_symcall_state *)&(info->vm_info->sym_state.symcalls[info->cpu_id]);
+static int sym_call_ret(struct guest_info * core, uint_t hcall_id, void * private_data) {
+ struct v3_symcall_state * state = (struct v3_symcall_state *)&(core->sym_local_state.symcall_state);
// PrintError("Return from sym call (ID=%x)\n", hcall_id);
// v3_print_guest_state(info);
return 0;
}
-static int execute_symcall(struct guest_info * info) {
- struct v3_symcall_state * state = (struct v3_symcall_state *)&(info->vm_info->sym_state.symcalls[info->cpu_id]);
+static int execute_symcall(struct guest_info * core) {
+ struct v3_symcall_state * state = (struct v3_symcall_state *)&(core->sym_local_state.symcall_state);
while (state->sym_call_returned == 0) {
- if (v3_vm_enter(info) == -1) {
+ if (v3_vm_enter(core) == -1) {
PrintError("Error in Sym call\n");
return -1;
}
}
-int v3_sym_call(struct guest_info * info,
+int v3_sym_call(struct guest_info * core,
uint64_t call_num, sym_arg_t * arg0,
sym_arg_t * arg1, sym_arg_t * arg2,
sym_arg_t * arg3, sym_arg_t * arg4) {
- struct v3_sym_state * sym_state = (struct v3_sym_state *)&(info->vm_info->sym_sate);
- struct v3_symcall_state * state = (struct v3_symcall_state *)&(sym_state->symcalls[info->cpu_id]);
- struct v3_sym_context * old_ctx = (struct v3_sym_context *)&(state->old_ctx);
+ struct v3_sym_local_state * sym_state = (struct v3_sym_local_state *)&(core->sym_local_state);
+ struct v3_symcall_state * state = (struct v3_symcall_state *)&(sym_state->symcall_state);
+ struct v3_sym_cpu_context * old_ctx = (struct v3_sym_cpu_context *)&(state->old_ctx);
struct v3_segment sym_cs;
struct v3_segment sym_ss;
uint64_t trash_args[5] = { [0 ... 4] = 0 };
// PrintDebug("Making Sym call\n");
// v3_print_guest_state(info);
- if ((sym_state->sym_page->sym_call_enabled == 0) ||
+ if ((sym_state->local_page->sym_call_enabled == 0) ||
(state->sym_call_active == 1)) {
return -1;
}
if (!arg4) arg4 = &trash_args[4];
// Save the old context
- memcpy(&(old_ctx->vm_regs), &(info->vm_regs), sizeof(struct v3_gprs));
- memcpy(&(old_ctx->cs), &(info->segments.cs), sizeof(struct v3_segment));
- memcpy(&(old_ctx->ss), &(info->segments.ss), sizeof(struct v3_segment));
- old_ctx->gs_base = info->segments.gs.base;
- old_ctx->fs_base = info->segments.fs.base;
- old_ctx->rip = info->rip;
- old_ctx->cpl = info->cpl;
- old_ctx->flags = info->ctrl_regs.rflags;
+ memcpy(&(old_ctx->vm_regs), &(core->vm_regs), sizeof(struct v3_gprs));
+ memcpy(&(old_ctx->cs), &(core->segments.cs), sizeof(struct v3_segment));
+ memcpy(&(old_ctx->ss), &(core->segments.ss), sizeof(struct v3_segment));
+ old_ctx->gs_base = core->segments.gs.base;
+ old_ctx->fs_base = core->segments.fs.base;
+ old_ctx->rip = core->rip;
+ old_ctx->cpl = core->cpl;
+ old_ctx->flags = core->ctrl_regs.rflags;
// Setup the sym call context
- info->rip = state->sym_call_rip;
- info->vm_regs.rsp = state->sym_call_rsp; // old contest rsp is saved in vm_regs
+ core->rip = state->sym_call_rip;
+ core->vm_regs.rsp = state->sym_call_rsp; // old contest rsp is saved in vm_regs
- v3_translate_segment(info, state->sym_call_cs, &sym_cs);
- memcpy(&(info->segments.cs), &sym_cs, sizeof(struct v3_segment));
+ v3_translate_segment(core, state->sym_call_cs, &sym_cs);
+ memcpy(&(core->segments.cs), &sym_cs, sizeof(struct v3_segment));
- v3_translate_segment(info, state->sym_call_cs + 8, &sym_ss);
- memcpy(&(info->segments.ss), &sym_ss, sizeof(struct v3_segment));
+ v3_translate_segment(core, state->sym_call_cs + 8, &sym_ss);
+ memcpy(&(core->segments.ss), &sym_ss, sizeof(struct v3_segment));
- info->segments.gs.base = state->sym_call_gs;
- info->segments.fs.base = state->sym_call_fs;
- info->cpl = 0;
+ core->segments.gs.base = state->sym_call_gs;
+ core->segments.fs.base = state->sym_call_fs;
+ core->cpl = 0;
- info->vm_regs.rax = call_num;
- info->vm_regs.rbx = *arg0;
- info->vm_regs.rcx = *arg1;
- info->vm_regs.rdx = *arg2;
- info->vm_regs.rsi = *arg3;
- info->vm_regs.rdi = *arg4;
+ core->vm_regs.rax = call_num;
+ core->vm_regs.rbx = *arg0;
+ core->vm_regs.rcx = *arg1;
+ core->vm_regs.rdx = *arg2;
+ core->vm_regs.rsi = *arg3;
+ core->vm_regs.rdi = *arg4;
// Mark sym call as active
state->sym_call_active = 1;
state->sym_call_returned = 0;
// PrintDebug("Sym state\n");
- // v3_print_guest_state(info);
+ // v3_print_guest_state(core);
// Do the sym call entry
- if (execute_symcall(info) == -1) {
+ if (execute_symcall(core) == -1) {
PrintError("SYMCALL error\n");
return -1;
}
// clear sym flags
state->sym_call_active = 0;
- *arg0 = info->vm_regs.rbx;
- *arg1 = info->vm_regs.rcx;
- *arg2 = info->vm_regs.rdx;
- *arg3 = info->vm_regs.rsi;
- *arg4 = info->vm_regs.rdi;
+ *arg0 = core->vm_regs.rbx;
+ *arg1 = core->vm_regs.rcx;
+ *arg2 = core->vm_regs.rdx;
+ *arg3 = core->vm_regs.rsi;
+ *arg4 = core->vm_regs.rdi;
// restore guest state
- memcpy(&(info->vm_regs), &(old_ctx->vm_regs), sizeof(struct v3_gprs));
- memcpy(&(info->segments.cs), &(old_ctx->cs), sizeof(struct v3_segment));
- memcpy(&(info->segments.ss), &(old_ctx->ss), sizeof(struct v3_segment));
- info->segments.gs.base = old_ctx->gs_base;
- info->segments.fs.base = old_ctx->fs_base;
- info->rip = old_ctx->rip;
- info->cpl = old_ctx->cpl;
- info->ctrl_regs.rflags = old_ctx->flags;
+ memcpy(&(core->vm_regs), &(old_ctx->vm_regs), sizeof(struct v3_gprs));
+ memcpy(&(core->segments.cs), &(old_ctx->cs), sizeof(struct v3_segment));
+ memcpy(&(core->segments.ss), &(old_ctx->ss), sizeof(struct v3_segment));
+ core->segments.gs.base = old_ctx->gs_base;
+ core->segments.fs.base = old_ctx->fs_base;
+ core->rip = old_ctx->rip;
+ core->cpl = old_ctx->cpl;
+ core->ctrl_regs.rflags = old_ctx->flags;
// PrintError("restoring guest state\n");
- // v3_print_guest_state(info);
+ // v3_print_guest_state(core);
return 0;
}
