switch (cmd) {
+#ifdef V3_CONFIG_TELEMETRY
case PRINT_TELEMETRY:
v3_print_core_telemetry(core);
break;
+#endif
case PRINT_CORE_STATE:
v3_raise_barrier(core->vm_info, NULL);
case PRINT_STATE:
v3_raise_barrier(core->vm_info, NULL);
+#ifdef V3_CONFIG_TELEMETRY
v3_print_core_telemetry(core);
+#endif
v3_print_guest_state(core);
v3_print_arch_state(core);
static int evt_handler(struct v3_vm_info * vm, struct v3_debug_event * evt, void * priv_data) {
- V3_Print("Debug Event Handler for core %d\n", evt->core_id);
+ V3_Print(vm, VCORE_NONE,"Debug Event Handler for core %d\n", evt->core_id);
if (evt->core_id == -1) {
int i = 0;
seg_ptr=(struct v3_segment *)segs;
char *seg_names[] = {"CS", "DS" , "ES", "FS", "GS", "SS" , "LDTR", "GDTR", "IDTR", "TR", NULL};
- V3_Print("Segments\n");
+ V3_Print(VM_NONE, VCORE_NONE, "Segments\n");
for (i = 0; seg_names[i] != NULL; i++) {
- V3_Print("\t%s: Sel=%x, base=%p, limit=%x (long_mode=%d, db=%d)\n", seg_names[i], seg_ptr[i].selector,
+ V3_Print(VM_NONE, VCORE_NONE, "\t%s: Sel=%x, base=%p, limit=%x (long_mode=%d, db=%d)\n", seg_names[i], seg_ptr[i].selector,
(void *)(addr_t)seg_ptr[i].base, seg_ptr[i].limit,
seg_ptr[i].long_mode, seg_ptr[i].db);
reg_ptr = (v3_reg_t *)regs;
- V3_Print("Ctrl Regs:\n");
+ V3_Print(core->vm_info, core,"Ctrl Regs:\n");
for (i = 0; reg_names[i] != NULL; i++) {
- V3_Print("\t%s=0x%p (at %p)\n", reg_names[i], (void *)(addr_t)reg_ptr[i], &(reg_ptr[i]));
+ V3_Print(core->vm_info, core, "\t%s=0x%p (at %p)\n", reg_names[i], (void *)(addr_t)reg_ptr[i], &(reg_ptr[i]));
}
/* start disassembly 64 bytes before current RIP, continue 32 bytes after */
rip = (addr_t) core->rip - 64;
while ((int) (rip - core->rip) < 32) {
- V3_Print("disassembly step\n");
+ V3_Print(info->vm_info, info, "disassembly step\n");
/* always print RIP, even if the instructions before were bad */
if (!passed_rip && rip >= core->rip) {
if (rip != core->rip) {
- V3_Print("***** bad disassembly up to this point *****\n");
+ V3_Print(info->vm_info, info, "***** bad disassembly up to this point *****\n");
rip = core->rip;
}
passed_rip = 1;
void v3_print_guest_state(struct guest_info * core) {
addr_t linear_addr = 0;
- V3_Print("RIP: %p\n", (void *)(addr_t)(core->rip));
+ V3_Print(core->vm_info, core, "RIP: %p\n", (void *)(addr_t)(core->rip));
linear_addr = get_addr_linear(core, core->rip, &(core->segments.cs));
- V3_Print("RIP Linear: %p\n", (void *)linear_addr);
+ V3_Print(core->vm_info, core, "RIP Linear: %p\n", (void *)linear_addr);
- V3_Print("NumExits: %u\n", (uint32_t)core->num_exits);
+ V3_Print(core->vm_info, core, "NumExits: %u\n", (uint32_t)core->num_exits);
- V3_Print("IRQ STATE: started=%d, pending=%d\n",
+ V3_Print(core->vm_info, core, "IRQ STATE: started=%d, pending=%d\n",
core->intr_core_state.irq_started,
core->intr_core_state.irq_pending);
- V3_Print("EXCP STATE: err_code_valid=%d, err_code=%x\n",
+ V3_Print(core->vm_info, core, "EXCP STATE: err_code_valid=%d, err_code=%x\n",
core->excp_state.excp_error_code_valid,
core->excp_state.excp_error_code);
v3_print_ctrl_regs(core);
if (core->shdw_pg_mode == SHADOW_PAGING) {
- V3_Print("Shadow Paging Guest Registers:\n");
- V3_Print("\tGuest CR0=%p\n", (void *)(addr_t)(core->shdw_pg_state.guest_cr0));
- V3_Print("\tGuest CR3=%p\n", (void *)(addr_t)(core->shdw_pg_state.guest_cr3));
- V3_Print("\tGuest EFER=%p\n", (void *)(addr_t)(core->shdw_pg_state.guest_efer.value));
+ V3_Print(core->vm_info, core, "Shadow Paging Guest Registers:\n");
+ V3_Print(core->vm_info, core, "\tGuest CR0=%p\n", (void *)(addr_t)(core->shdw_pg_state.guest_cr0));
+ V3_Print(core->vm_info, core, "\tGuest CR3=%p\n", (void *)(addr_t)(core->shdw_pg_state.guest_cr3));
+ V3_Print(core->vm_info, core, "\tGuest EFER=%p\n", (void *)(addr_t)(core->shdw_pg_state.guest_efer.value));
// CR4
}
v3_print_GPRs(core);
void v3_print_guest_state_all(struct v3_vm_info * vm) {
int i = 0;
- V3_Print("VM Core states for %s\n", vm->name);
+ V3_Print(vm, VCORE_NONE,"VM Core states for %s\n", vm->name);
for (i = 0; i < 80; i++) {
- V3_Print("-");
+ V3_Print(vm, VCORE_NONE, "-");
}
for (i = 0; i < vm->num_cores; i++) {
}
for (i = 0; i < 80; i++) {
- V3_Print("-");
+ V3_Print(vm, VCORE_NONE, "-");
}
- V3_Print("\n");
+ V3_Print(vm, VCORE_NONE, "\n");
}
linear_addr = get_addr_linear(core, core->vm_regs.rsp, &(core->segments.ss));
- V3_Print("Stack at %p:\n", (void *)linear_addr);
+ V3_Print(core->vm_info, core, "Stack at %p:\n", (void *)linear_addr);
if (core->mem_mode == PHYSICAL_MEM) {
if (v3_gpa_to_hva(core, linear_addr, &host_addr) == -1) {
- PrintError("Could not translate Stack address\n");
+ PrintError(core->vm_info, core, "Could not translate Stack address\n");
return;
}
} else if (core->mem_mode == VIRTUAL_MEM) {
if (v3_gva_to_hva(core, linear_addr, &host_addr) == -1) {
- PrintError("Could not translate Virtual Stack address\n");
+ PrintError(core->vm_info, core, "Could not translate Virtual Stack address\n");
return;
}
}
- V3_Print("Host Address of rsp = 0x%p\n", (void *)host_addr);
+ V3_Print(core->vm_info, core, "Host Address of rsp = 0x%p\n", (void *)host_addr);
// We start i at one because the current stack pointer points to an unused stack element
for (i = 0; i <= 24; i++) {
if (cpu_mode == REAL) {
- V3_Print("\t0x%.4x\n", *((uint16_t *)host_addr + (i * 2)));
+ V3_Print(core->vm_info, core, "\t0x%.4x\n", *((uint16_t *)host_addr + (i * 2)));
} else if (cpu_mode == LONG) {
- V3_Print("\t%p\n", (void *)*(addr_t *)(host_addr + (i * 8)));
+ V3_Print(core->vm_info, core, "\t%p\n", (void *)*(addr_t *)(host_addr + (i * 8)));
} else {
// 32 bit stacks...
- V3_Print("\t0x%.8x\n", *(uint32_t *)(host_addr + (i * 4)));
+ V3_Print(core->vm_info, core, "\t0x%.8x\n", *(uint32_t *)(host_addr + (i * 4)));
}
}
v3_cpu_mode_t cpu_mode = v3_get_vm_cpu_mode(core);
struct v3_cfg_file * system_map = v3_cfg_get_file(core->vm_info, "System.map");
- V3_Print("Performing Backtrace for Core %d\n", core->vcpu_id);
- V3_Print("\tRSP=%p, RBP=%p\n", (void *)core->vm_regs.rsp, (void *)core->vm_regs.rbp);
+ V3_Print(core->vm_info, core, "Performing Backtrace for Core %d\n", core->vcpu_id);
+ V3_Print(core->vm_info, core, "\tRSP=%p, RBP=%p\n", (void *)core->vm_regs.rsp, (void *)core->vm_regs.rbp);
gla_rbp = get_addr_linear(core, core->vm_regs.rbp, &(core->segments.ss));
if (core->mem_mode == PHYSICAL_MEM) {
if (v3_gpa_to_hva(core, gla_rbp, &hva_rbp) == -1) {
- PrintError("Could not translate Stack address\n");
+ PrintError(core->vm_info, core, "Could not translate Stack address\n");
return;
}
} else if (core->mem_mode == VIRTUAL_MEM) {
if (v3_gva_to_hva(core, gla_rbp, &hva_rbp) == -1) {
- PrintError("Could not translate Virtual Stack address\n");
+ PrintError(core->vm_info, core, "Could not translate Virtual Stack address\n");
return;
}
}
}
if (cpu_mode == REAL) {
- V3_Print("Next RBP=0x%.4x, RIP=0x%.4x (%s)\n",
+ V3_Print(core->vm_info, core, "Next RBP=0x%.4x, RIP=0x%.4x (%s)\n",
*(uint16_t *)hva_rbp,*(uint16_t *)hva_rip,
sym_name);
gla_rbp = *(uint16_t *)hva_rbp;
} else if (cpu_mode == LONG) {
- V3_Print("Next RBP=%p, RIP=%p (%s)\n",
+ V3_Print(core->vm_info, core, "Next RBP=%p, RIP=%p (%s)\n",
(void *)*(uint64_t *)hva_rbp, (void *)*(uint64_t *)hva_rip,
sym_name);
gla_rbp = *(uint64_t *)hva_rbp;
} else {
- V3_Print("Next RBP=0x%.8x, RIP=0x%.8x (%s)\n",
+ V3_Print(core->vm_info, core, "Next RBP=0x%.8x, RIP=0x%.8x (%s)\n",
*(uint32_t *)hva_rbp, *(uint32_t *)hva_rip,
sym_name);
gla_rbp = *(uint32_t *)hva_rbp;
reg_ptr = (v3_reg_t *)regs;
- V3_Print("32 bit GPRs:\n");
+ V3_Print(info->vm_info, info, "32 bit GPRs:\n");
for (i = 0; reg_names[i] != NULL; i++) {
- V3_Print("\t%s=0x%p (at %p)\n", reg_names[i], (void *)(addr_t)reg_ptr[i], &(reg_ptr[i]));
+ V3_Print(info->vm_info, info, "\t%s=0x%p (at %p)\n", reg_names[i], (void *)(addr_t)reg_ptr[i], &(reg_ptr[i]));
}
}
reg_ptr = (v3_reg_t *)regs;
- V3_Print("64 bit GPRs:\n");
+ V3_Print(core->vm_info, core, "64 bit GPRs:\n");
for (i = 0; reg_names[i] != NULL; i++) {
- V3_Print("\t%s=0x%p (at %p)\n", reg_names[i], (void *)(addr_t)reg_ptr[i], &(reg_ptr[i]));
+ V3_Print(core->vm_info, core, "\t%s=0x%p (at %p)\n", reg_names[i], (void *)(addr_t)reg_ptr[i], &(reg_ptr[i]));
}
}