trace.h 24 KB

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  1. #if !defined(_TRACE_KVM_H) || defined(TRACE_HEADER_MULTI_READ)
  2. #define _TRACE_KVM_H
  3. #include <linux/tracepoint.h>
  4. #include <asm/vmx.h>
  5. #include <asm/svm.h>
  6. #include <asm/clocksource.h>
  7. #include <asm/pvclock-abi.h>
  8. #undef TRACE_SYSTEM
  9. #define TRACE_SYSTEM kvm
  10. /*
  11. * Tracepoint for guest mode entry.
  12. */
  13. TRACE_EVENT(kvm_entry,
  14. TP_PROTO(unsigned int vcpu_id),
  15. TP_ARGS(vcpu_id),
  16. TP_STRUCT__entry(
  17. __field( unsigned int, vcpu_id )
  18. ),
  19. TP_fast_assign(
  20. __entry->vcpu_id = vcpu_id;
  21. ),
  22. TP_printk("vcpu %u", __entry->vcpu_id)
  23. );
  24. /*
  25. * Tracepoint for hypercall.
  26. */
  27. TRACE_EVENT(kvm_hypercall,
  28. TP_PROTO(unsigned long nr, unsigned long a0, unsigned long a1,
  29. unsigned long a2, unsigned long a3),
  30. TP_ARGS(nr, a0, a1, a2, a3),
  31. TP_STRUCT__entry(
  32. __field( unsigned long, nr )
  33. __field( unsigned long, a0 )
  34. __field( unsigned long, a1 )
  35. __field( unsigned long, a2 )
  36. __field( unsigned long, a3 )
  37. ),
  38. TP_fast_assign(
  39. __entry->nr = nr;
  40. __entry->a0 = a0;
  41. __entry->a1 = a1;
  42. __entry->a2 = a2;
  43. __entry->a3 = a3;
  44. ),
  45. TP_printk("nr 0x%lx a0 0x%lx a1 0x%lx a2 0x%lx a3 0x%lx",
  46. __entry->nr, __entry->a0, __entry->a1, __entry->a2,
  47. __entry->a3)
  48. );
  49. /*
  50. * Tracepoint for hypercall.
  51. */
  52. TRACE_EVENT(kvm_hv_hypercall,
  53. TP_PROTO(__u16 code, bool fast, __u16 rep_cnt, __u16 rep_idx,
  54. __u64 ingpa, __u64 outgpa),
  55. TP_ARGS(code, fast, rep_cnt, rep_idx, ingpa, outgpa),
  56. TP_STRUCT__entry(
  57. __field( __u16, rep_cnt )
  58. __field( __u16, rep_idx )
  59. __field( __u64, ingpa )
  60. __field( __u64, outgpa )
  61. __field( __u16, code )
  62. __field( bool, fast )
  63. ),
  64. TP_fast_assign(
  65. __entry->rep_cnt = rep_cnt;
  66. __entry->rep_idx = rep_idx;
  67. __entry->ingpa = ingpa;
  68. __entry->outgpa = outgpa;
  69. __entry->code = code;
  70. __entry->fast = fast;
  71. ),
  72. TP_printk("code 0x%x %s cnt 0x%x idx 0x%x in 0x%llx out 0x%llx",
  73. __entry->code, __entry->fast ? "fast" : "slow",
  74. __entry->rep_cnt, __entry->rep_idx, __entry->ingpa,
  75. __entry->outgpa)
  76. );
  77. /*
  78. * Tracepoint for PIO.
  79. */
  80. #define KVM_PIO_IN 0
  81. #define KVM_PIO_OUT 1
  82. TRACE_EVENT(kvm_pio,
  83. TP_PROTO(unsigned int rw, unsigned int port, unsigned int size,
  84. unsigned int count, void *data),
  85. TP_ARGS(rw, port, size, count, data),
  86. TP_STRUCT__entry(
  87. __field( unsigned int, rw )
  88. __field( unsigned int, port )
  89. __field( unsigned int, size )
  90. __field( unsigned int, count )
  91. __field( unsigned int, val )
  92. ),
  93. TP_fast_assign(
  94. __entry->rw = rw;
  95. __entry->port = port;
  96. __entry->size = size;
  97. __entry->count = count;
  98. if (size == 1)
  99. __entry->val = *(unsigned char *)data;
  100. else if (size == 2)
  101. __entry->val = *(unsigned short *)data;
  102. else
  103. __entry->val = *(unsigned int *)data;
  104. ),
  105. TP_printk("pio_%s at 0x%x size %d count %d val 0x%x %s",
  106. __entry->rw ? "write" : "read",
  107. __entry->port, __entry->size, __entry->count, __entry->val,
  108. __entry->count > 1 ? "(...)" : "")
  109. );
  110. /*
  111. * Tracepoint for cpuid.
  112. */
  113. TRACE_EVENT(kvm_cpuid,
  114. TP_PROTO(unsigned int function, unsigned long rax, unsigned long rbx,
  115. unsigned long rcx, unsigned long rdx),
  116. TP_ARGS(function, rax, rbx, rcx, rdx),
  117. TP_STRUCT__entry(
  118. __field( unsigned int, function )
  119. __field( unsigned long, rax )
  120. __field( unsigned long, rbx )
  121. __field( unsigned long, rcx )
  122. __field( unsigned long, rdx )
  123. ),
  124. TP_fast_assign(
  125. __entry->function = function;
  126. __entry->rax = rax;
  127. __entry->rbx = rbx;
  128. __entry->rcx = rcx;
  129. __entry->rdx = rdx;
  130. ),
  131. TP_printk("func %x rax %lx rbx %lx rcx %lx rdx %lx",
  132. __entry->function, __entry->rax,
  133. __entry->rbx, __entry->rcx, __entry->rdx)
  134. );
  135. #define AREG(x) { APIC_##x, "APIC_" #x }
  136. #define kvm_trace_symbol_apic \
  137. AREG(ID), AREG(LVR), AREG(TASKPRI), AREG(ARBPRI), AREG(PROCPRI), \
  138. AREG(EOI), AREG(RRR), AREG(LDR), AREG(DFR), AREG(SPIV), AREG(ISR), \
  139. AREG(TMR), AREG(IRR), AREG(ESR), AREG(ICR), AREG(ICR2), AREG(LVTT), \
  140. AREG(LVTTHMR), AREG(LVTPC), AREG(LVT0), AREG(LVT1), AREG(LVTERR), \
  141. AREG(TMICT), AREG(TMCCT), AREG(TDCR), AREG(SELF_IPI), AREG(EFEAT), \
  142. AREG(ECTRL)
  143. /*
  144. * Tracepoint for apic access.
  145. */
  146. TRACE_EVENT(kvm_apic,
  147. TP_PROTO(unsigned int rw, unsigned int reg, unsigned int val),
  148. TP_ARGS(rw, reg, val),
  149. TP_STRUCT__entry(
  150. __field( unsigned int, rw )
  151. __field( unsigned int, reg )
  152. __field( unsigned int, val )
  153. ),
  154. TP_fast_assign(
  155. __entry->rw = rw;
  156. __entry->reg = reg;
  157. __entry->val = val;
  158. ),
  159. TP_printk("apic_%s %s = 0x%x",
  160. __entry->rw ? "write" : "read",
  161. __print_symbolic(__entry->reg, kvm_trace_symbol_apic),
  162. __entry->val)
  163. );
  164. #define trace_kvm_apic_read(reg, val) trace_kvm_apic(0, reg, val)
  165. #define trace_kvm_apic_write(reg, val) trace_kvm_apic(1, reg, val)
  166. #define KVM_ISA_VMX 1
  167. #define KVM_ISA_SVM 2
  168. /*
  169. * Tracepoint for kvm guest exit:
  170. */
  171. TRACE_EVENT(kvm_exit,
  172. TP_PROTO(unsigned int exit_reason, struct kvm_vcpu *vcpu, u32 isa),
  173. TP_ARGS(exit_reason, vcpu, isa),
  174. TP_STRUCT__entry(
  175. __field( unsigned int, exit_reason )
  176. __field( unsigned long, guest_rip )
  177. __field( u32, isa )
  178. __field( u64, info1 )
  179. __field( u64, info2 )
  180. ),
  181. TP_fast_assign(
  182. __entry->exit_reason = exit_reason;
  183. __entry->guest_rip = kvm_rip_read(vcpu);
  184. __entry->isa = isa;
  185. kvm_x86_ops->get_exit_info(vcpu, &__entry->info1,
  186. &__entry->info2);
  187. ),
  188. TP_printk("reason %s rip 0x%lx info %llx %llx",
  189. (__entry->isa == KVM_ISA_VMX) ?
  190. __print_symbolic(__entry->exit_reason, VMX_EXIT_REASONS) :
  191. __print_symbolic(__entry->exit_reason, SVM_EXIT_REASONS),
  192. __entry->guest_rip, __entry->info1, __entry->info2)
  193. );
  194. /*
  195. * Tracepoint for kvm interrupt injection:
  196. */
  197. TRACE_EVENT(kvm_inj_virq,
  198. TP_PROTO(unsigned int irq),
  199. TP_ARGS(irq),
  200. TP_STRUCT__entry(
  201. __field( unsigned int, irq )
  202. ),
  203. TP_fast_assign(
  204. __entry->irq = irq;
  205. ),
  206. TP_printk("irq %u", __entry->irq)
  207. );
  208. #define EXS(x) { x##_VECTOR, "#" #x }
  209. #define kvm_trace_sym_exc \
  210. EXS(DE), EXS(DB), EXS(BP), EXS(OF), EXS(BR), EXS(UD), EXS(NM), \
  211. EXS(DF), EXS(TS), EXS(NP), EXS(SS), EXS(GP), EXS(PF), \
  212. EXS(MF), EXS(MC)
  213. /*
  214. * Tracepoint for kvm interrupt injection:
  215. */
  216. TRACE_EVENT(kvm_inj_exception,
  217. TP_PROTO(unsigned exception, bool has_error, unsigned error_code),
  218. TP_ARGS(exception, has_error, error_code),
  219. TP_STRUCT__entry(
  220. __field( u8, exception )
  221. __field( u8, has_error )
  222. __field( u32, error_code )
  223. ),
  224. TP_fast_assign(
  225. __entry->exception = exception;
  226. __entry->has_error = has_error;
  227. __entry->error_code = error_code;
  228. ),
  229. TP_printk("%s (0x%x)",
  230. __print_symbolic(__entry->exception, kvm_trace_sym_exc),
  231. /* FIXME: don't print error_code if not present */
  232. __entry->has_error ? __entry->error_code : 0)
  233. );
  234. /*
  235. * Tracepoint for page fault.
  236. */
  237. TRACE_EVENT(kvm_page_fault,
  238. TP_PROTO(unsigned long fault_address, unsigned int error_code),
  239. TP_ARGS(fault_address, error_code),
  240. TP_STRUCT__entry(
  241. __field( unsigned long, fault_address )
  242. __field( unsigned int, error_code )
  243. ),
  244. TP_fast_assign(
  245. __entry->fault_address = fault_address;
  246. __entry->error_code = error_code;
  247. ),
  248. TP_printk("address %lx error_code %x",
  249. __entry->fault_address, __entry->error_code)
  250. );
  251. /*
  252. * Tracepoint for guest MSR access.
  253. */
  254. TRACE_EVENT(kvm_msr,
  255. TP_PROTO(unsigned write, u32 ecx, u64 data, bool exception),
  256. TP_ARGS(write, ecx, data, exception),
  257. TP_STRUCT__entry(
  258. __field( unsigned, write )
  259. __field( u32, ecx )
  260. __field( u64, data )
  261. __field( u8, exception )
  262. ),
  263. TP_fast_assign(
  264. __entry->write = write;
  265. __entry->ecx = ecx;
  266. __entry->data = data;
  267. __entry->exception = exception;
  268. ),
  269. TP_printk("msr_%s %x = 0x%llx%s",
  270. __entry->write ? "write" : "read",
  271. __entry->ecx, __entry->data,
  272. __entry->exception ? " (#GP)" : "")
  273. );
  274. #define trace_kvm_msr_read(ecx, data) trace_kvm_msr(0, ecx, data, false)
  275. #define trace_kvm_msr_write(ecx, data) trace_kvm_msr(1, ecx, data, false)
  276. #define trace_kvm_msr_read_ex(ecx) trace_kvm_msr(0, ecx, 0, true)
  277. #define trace_kvm_msr_write_ex(ecx, data) trace_kvm_msr(1, ecx, data, true)
  278. /*
  279. * Tracepoint for guest CR access.
  280. */
  281. TRACE_EVENT(kvm_cr,
  282. TP_PROTO(unsigned int rw, unsigned int cr, unsigned long val),
  283. TP_ARGS(rw, cr, val),
  284. TP_STRUCT__entry(
  285. __field( unsigned int, rw )
  286. __field( unsigned int, cr )
  287. __field( unsigned long, val )
  288. ),
  289. TP_fast_assign(
  290. __entry->rw = rw;
  291. __entry->cr = cr;
  292. __entry->val = val;
  293. ),
  294. TP_printk("cr_%s %x = 0x%lx",
  295. __entry->rw ? "write" : "read",
  296. __entry->cr, __entry->val)
  297. );
  298. #define trace_kvm_cr_read(cr, val) trace_kvm_cr(0, cr, val)
  299. #define trace_kvm_cr_write(cr, val) trace_kvm_cr(1, cr, val)
  300. TRACE_EVENT(kvm_pic_set_irq,
  301. TP_PROTO(__u8 chip, __u8 pin, __u8 elcr, __u8 imr, bool coalesced),
  302. TP_ARGS(chip, pin, elcr, imr, coalesced),
  303. TP_STRUCT__entry(
  304. __field( __u8, chip )
  305. __field( __u8, pin )
  306. __field( __u8, elcr )
  307. __field( __u8, imr )
  308. __field( bool, coalesced )
  309. ),
  310. TP_fast_assign(
  311. __entry->chip = chip;
  312. __entry->pin = pin;
  313. __entry->elcr = elcr;
  314. __entry->imr = imr;
  315. __entry->coalesced = coalesced;
  316. ),
  317. TP_printk("chip %u pin %u (%s%s)%s",
  318. __entry->chip, __entry->pin,
  319. (__entry->elcr & (1 << __entry->pin)) ? "level":"edge",
  320. (__entry->imr & (1 << __entry->pin)) ? "|masked":"",
  321. __entry->coalesced ? " (coalesced)" : "")
  322. );
  323. #define kvm_apic_dst_shorthand \
  324. {0x0, "dst"}, \
  325. {0x1, "self"}, \
  326. {0x2, "all"}, \
  327. {0x3, "all-but-self"}
  328. TRACE_EVENT(kvm_apic_ipi,
  329. TP_PROTO(__u32 icr_low, __u32 dest_id),
  330. TP_ARGS(icr_low, dest_id),
  331. TP_STRUCT__entry(
  332. __field( __u32, icr_low )
  333. __field( __u32, dest_id )
  334. ),
  335. TP_fast_assign(
  336. __entry->icr_low = icr_low;
  337. __entry->dest_id = dest_id;
  338. ),
  339. TP_printk("dst %x vec %u (%s|%s|%s|%s|%s)",
  340. __entry->dest_id, (u8)__entry->icr_low,
  341. __print_symbolic((__entry->icr_low >> 8 & 0x7),
  342. kvm_deliver_mode),
  343. (__entry->icr_low & (1<<11)) ? "logical" : "physical",
  344. (__entry->icr_low & (1<<14)) ? "assert" : "de-assert",
  345. (__entry->icr_low & (1<<15)) ? "level" : "edge",
  346. __print_symbolic((__entry->icr_low >> 18 & 0x3),
  347. kvm_apic_dst_shorthand))
  348. );
  349. TRACE_EVENT(kvm_apic_accept_irq,
  350. TP_PROTO(__u32 apicid, __u16 dm, __u8 tm, __u8 vec),
  351. TP_ARGS(apicid, dm, tm, vec),
  352. TP_STRUCT__entry(
  353. __field( __u32, apicid )
  354. __field( __u16, dm )
  355. __field( __u8, tm )
  356. __field( __u8, vec )
  357. ),
  358. TP_fast_assign(
  359. __entry->apicid = apicid;
  360. __entry->dm = dm;
  361. __entry->tm = tm;
  362. __entry->vec = vec;
  363. ),
  364. TP_printk("apicid %x vec %u (%s|%s)",
  365. __entry->apicid, __entry->vec,
  366. __print_symbolic((__entry->dm >> 8 & 0x7), kvm_deliver_mode),
  367. __entry->tm ? "level" : "edge")
  368. );
  369. TRACE_EVENT(kvm_eoi,
  370. TP_PROTO(struct kvm_lapic *apic, int vector),
  371. TP_ARGS(apic, vector),
  372. TP_STRUCT__entry(
  373. __field( __u32, apicid )
  374. __field( int, vector )
  375. ),
  376. TP_fast_assign(
  377. __entry->apicid = apic->vcpu->vcpu_id;
  378. __entry->vector = vector;
  379. ),
  380. TP_printk("apicid %x vector %d", __entry->apicid, __entry->vector)
  381. );
  382. TRACE_EVENT(kvm_pv_eoi,
  383. TP_PROTO(struct kvm_lapic *apic, int vector),
  384. TP_ARGS(apic, vector),
  385. TP_STRUCT__entry(
  386. __field( __u32, apicid )
  387. __field( int, vector )
  388. ),
  389. TP_fast_assign(
  390. __entry->apicid = apic->vcpu->vcpu_id;
  391. __entry->vector = vector;
  392. ),
  393. TP_printk("apicid %x vector %d", __entry->apicid, __entry->vector)
  394. );
  395. /*
  396. * Tracepoint for nested VMRUN
  397. */
  398. TRACE_EVENT(kvm_nested_vmrun,
  399. TP_PROTO(__u64 rip, __u64 vmcb, __u64 nested_rip, __u32 int_ctl,
  400. __u32 event_inj, bool npt),
  401. TP_ARGS(rip, vmcb, nested_rip, int_ctl, event_inj, npt),
  402. TP_STRUCT__entry(
  403. __field( __u64, rip )
  404. __field( __u64, vmcb )
  405. __field( __u64, nested_rip )
  406. __field( __u32, int_ctl )
  407. __field( __u32, event_inj )
  408. __field( bool, npt )
  409. ),
  410. TP_fast_assign(
  411. __entry->rip = rip;
  412. __entry->vmcb = vmcb;
  413. __entry->nested_rip = nested_rip;
  414. __entry->int_ctl = int_ctl;
  415. __entry->event_inj = event_inj;
  416. __entry->npt = npt;
  417. ),
  418. TP_printk("rip: 0x%016llx vmcb: 0x%016llx nrip: 0x%016llx int_ctl: 0x%08x "
  419. "event_inj: 0x%08x npt: %s",
  420. __entry->rip, __entry->vmcb, __entry->nested_rip,
  421. __entry->int_ctl, __entry->event_inj,
  422. __entry->npt ? "on" : "off")
  423. );
  424. TRACE_EVENT(kvm_nested_intercepts,
  425. TP_PROTO(__u16 cr_read, __u16 cr_write, __u32 exceptions, __u64 intercept),
  426. TP_ARGS(cr_read, cr_write, exceptions, intercept),
  427. TP_STRUCT__entry(
  428. __field( __u16, cr_read )
  429. __field( __u16, cr_write )
  430. __field( __u32, exceptions )
  431. __field( __u64, intercept )
  432. ),
  433. TP_fast_assign(
  434. __entry->cr_read = cr_read;
  435. __entry->cr_write = cr_write;
  436. __entry->exceptions = exceptions;
  437. __entry->intercept = intercept;
  438. ),
  439. TP_printk("cr_read: %04x cr_write: %04x excp: %08x intercept: %016llx",
  440. __entry->cr_read, __entry->cr_write, __entry->exceptions,
  441. __entry->intercept)
  442. );
  443. /*
  444. * Tracepoint for #VMEXIT while nested
  445. */
  446. TRACE_EVENT(kvm_nested_vmexit,
  447. TP_PROTO(__u64 rip, __u32 exit_code,
  448. __u64 exit_info1, __u64 exit_info2,
  449. __u32 exit_int_info, __u32 exit_int_info_err, __u32 isa),
  450. TP_ARGS(rip, exit_code, exit_info1, exit_info2,
  451. exit_int_info, exit_int_info_err, isa),
  452. TP_STRUCT__entry(
  453. __field( __u64, rip )
  454. __field( __u32, exit_code )
  455. __field( __u64, exit_info1 )
  456. __field( __u64, exit_info2 )
  457. __field( __u32, exit_int_info )
  458. __field( __u32, exit_int_info_err )
  459. __field( __u32, isa )
  460. ),
  461. TP_fast_assign(
  462. __entry->rip = rip;
  463. __entry->exit_code = exit_code;
  464. __entry->exit_info1 = exit_info1;
  465. __entry->exit_info2 = exit_info2;
  466. __entry->exit_int_info = exit_int_info;
  467. __entry->exit_int_info_err = exit_int_info_err;
  468. __entry->isa = isa;
  469. ),
  470. TP_printk("rip: 0x%016llx reason: %s ext_inf1: 0x%016llx "
  471. "ext_inf2: 0x%016llx ext_int: 0x%08x ext_int_err: 0x%08x",
  472. __entry->rip,
  473. (__entry->isa == KVM_ISA_VMX) ?
  474. __print_symbolic(__entry->exit_code, VMX_EXIT_REASONS) :
  475. __print_symbolic(__entry->exit_code, SVM_EXIT_REASONS),
  476. __entry->exit_info1, __entry->exit_info2,
  477. __entry->exit_int_info, __entry->exit_int_info_err)
  478. );
  479. /*
  480. * Tracepoint for #VMEXIT reinjected to the guest
  481. */
  482. TRACE_EVENT(kvm_nested_vmexit_inject,
  483. TP_PROTO(__u32 exit_code,
  484. __u64 exit_info1, __u64 exit_info2,
  485. __u32 exit_int_info, __u32 exit_int_info_err, __u32 isa),
  486. TP_ARGS(exit_code, exit_info1, exit_info2,
  487. exit_int_info, exit_int_info_err, isa),
  488. TP_STRUCT__entry(
  489. __field( __u32, exit_code )
  490. __field( __u64, exit_info1 )
  491. __field( __u64, exit_info2 )
  492. __field( __u32, exit_int_info )
  493. __field( __u32, exit_int_info_err )
  494. __field( __u32, isa )
  495. ),
  496. TP_fast_assign(
  497. __entry->exit_code = exit_code;
  498. __entry->exit_info1 = exit_info1;
  499. __entry->exit_info2 = exit_info2;
  500. __entry->exit_int_info = exit_int_info;
  501. __entry->exit_int_info_err = exit_int_info_err;
  502. __entry->isa = isa;
  503. ),
  504. TP_printk("reason: %s ext_inf1: 0x%016llx "
  505. "ext_inf2: 0x%016llx ext_int: 0x%08x ext_int_err: 0x%08x",
  506. (__entry->isa == KVM_ISA_VMX) ?
  507. __print_symbolic(__entry->exit_code, VMX_EXIT_REASONS) :
  508. __print_symbolic(__entry->exit_code, SVM_EXIT_REASONS),
  509. __entry->exit_info1, __entry->exit_info2,
  510. __entry->exit_int_info, __entry->exit_int_info_err)
  511. );
  512. /*
  513. * Tracepoint for nested #vmexit because of interrupt pending
  514. */
  515. TRACE_EVENT(kvm_nested_intr_vmexit,
  516. TP_PROTO(__u64 rip),
  517. TP_ARGS(rip),
  518. TP_STRUCT__entry(
  519. __field( __u64, rip )
  520. ),
  521. TP_fast_assign(
  522. __entry->rip = rip
  523. ),
  524. TP_printk("rip: 0x%016llx", __entry->rip)
  525. );
  526. /*
  527. * Tracepoint for nested #vmexit because of interrupt pending
  528. */
  529. TRACE_EVENT(kvm_invlpga,
  530. TP_PROTO(__u64 rip, int asid, u64 address),
  531. TP_ARGS(rip, asid, address),
  532. TP_STRUCT__entry(
  533. __field( __u64, rip )
  534. __field( int, asid )
  535. __field( __u64, address )
  536. ),
  537. TP_fast_assign(
  538. __entry->rip = rip;
  539. __entry->asid = asid;
  540. __entry->address = address;
  541. ),
  542. TP_printk("rip: 0x%016llx asid: %d address: 0x%016llx",
  543. __entry->rip, __entry->asid, __entry->address)
  544. );
  545. /*
  546. * Tracepoint for nested #vmexit because of interrupt pending
  547. */
  548. TRACE_EVENT(kvm_skinit,
  549. TP_PROTO(__u64 rip, __u32 slb),
  550. TP_ARGS(rip, slb),
  551. TP_STRUCT__entry(
  552. __field( __u64, rip )
  553. __field( __u32, slb )
  554. ),
  555. TP_fast_assign(
  556. __entry->rip = rip;
  557. __entry->slb = slb;
  558. ),
  559. TP_printk("rip: 0x%016llx slb: 0x%08x",
  560. __entry->rip, __entry->slb)
  561. );
  562. #define KVM_EMUL_INSN_F_CR0_PE (1 << 0)
  563. #define KVM_EMUL_INSN_F_EFL_VM (1 << 1)
  564. #define KVM_EMUL_INSN_F_CS_D (1 << 2)
  565. #define KVM_EMUL_INSN_F_CS_L (1 << 3)
  566. #define kvm_trace_symbol_emul_flags \
  567. { 0, "real" }, \
  568. { KVM_EMUL_INSN_F_CR0_PE \
  569. | KVM_EMUL_INSN_F_EFL_VM, "vm16" }, \
  570. { KVM_EMUL_INSN_F_CR0_PE, "prot16" }, \
  571. { KVM_EMUL_INSN_F_CR0_PE \
  572. | KVM_EMUL_INSN_F_CS_D, "prot32" }, \
  573. { KVM_EMUL_INSN_F_CR0_PE \
  574. | KVM_EMUL_INSN_F_CS_L, "prot64" }
  575. #define kei_decode_mode(mode) ({ \
  576. u8 flags = 0xff; \
  577. switch (mode) { \
  578. case X86EMUL_MODE_REAL: \
  579. flags = 0; \
  580. break; \
  581. case X86EMUL_MODE_VM86: \
  582. flags = KVM_EMUL_INSN_F_EFL_VM; \
  583. break; \
  584. case X86EMUL_MODE_PROT16: \
  585. flags = KVM_EMUL_INSN_F_CR0_PE; \
  586. break; \
  587. case X86EMUL_MODE_PROT32: \
  588. flags = KVM_EMUL_INSN_F_CR0_PE \
  589. | KVM_EMUL_INSN_F_CS_D; \
  590. break; \
  591. case X86EMUL_MODE_PROT64: \
  592. flags = KVM_EMUL_INSN_F_CR0_PE \
  593. | KVM_EMUL_INSN_F_CS_L; \
  594. break; \
  595. } \
  596. flags; \
  597. })
  598. TRACE_EVENT(kvm_emulate_insn,
  599. TP_PROTO(struct kvm_vcpu *vcpu, __u8 failed),
  600. TP_ARGS(vcpu, failed),
  601. TP_STRUCT__entry(
  602. __field( __u64, rip )
  603. __field( __u32, csbase )
  604. __field( __u8, len )
  605. __array( __u8, insn, 15 )
  606. __field( __u8, flags )
  607. __field( __u8, failed )
  608. ),
  609. TP_fast_assign(
  610. __entry->csbase = kvm_x86_ops->get_segment_base(vcpu, VCPU_SREG_CS);
  611. __entry->len = vcpu->arch.emulate_ctxt.fetch.ptr
  612. - vcpu->arch.emulate_ctxt.fetch.data;
  613. __entry->rip = vcpu->arch.emulate_ctxt._eip - __entry->len;
  614. memcpy(__entry->insn,
  615. vcpu->arch.emulate_ctxt.fetch.data,
  616. 15);
  617. __entry->flags = kei_decode_mode(vcpu->arch.emulate_ctxt.mode);
  618. __entry->failed = failed;
  619. ),
  620. TP_printk("%x:%llx:%s (%s)%s",
  621. __entry->csbase, __entry->rip,
  622. __print_hex(__entry->insn, __entry->len),
  623. __print_symbolic(__entry->flags,
  624. kvm_trace_symbol_emul_flags),
  625. __entry->failed ? " failed" : ""
  626. )
  627. );
  628. #define trace_kvm_emulate_insn_start(vcpu) trace_kvm_emulate_insn(vcpu, 0)
  629. #define trace_kvm_emulate_insn_failed(vcpu) trace_kvm_emulate_insn(vcpu, 1)
  630. TRACE_EVENT(
  631. vcpu_match_mmio,
  632. TP_PROTO(gva_t gva, gpa_t gpa, bool write, bool gpa_match),
  633. TP_ARGS(gva, gpa, write, gpa_match),
  634. TP_STRUCT__entry(
  635. __field(gva_t, gva)
  636. __field(gpa_t, gpa)
  637. __field(bool, write)
  638. __field(bool, gpa_match)
  639. ),
  640. TP_fast_assign(
  641. __entry->gva = gva;
  642. __entry->gpa = gpa;
  643. __entry->write = write;
  644. __entry->gpa_match = gpa_match
  645. ),
  646. TP_printk("gva %#lx gpa %#llx %s %s", __entry->gva, __entry->gpa,
  647. __entry->write ? "Write" : "Read",
  648. __entry->gpa_match ? "GPA" : "GVA")
  649. );
  650. TRACE_EVENT(kvm_write_tsc_offset,
  651. TP_PROTO(unsigned int vcpu_id, __u64 previous_tsc_offset,
  652. __u64 next_tsc_offset),
  653. TP_ARGS(vcpu_id, previous_tsc_offset, next_tsc_offset),
  654. TP_STRUCT__entry(
  655. __field( unsigned int, vcpu_id )
  656. __field( __u64, previous_tsc_offset )
  657. __field( __u64, next_tsc_offset )
  658. ),
  659. TP_fast_assign(
  660. __entry->vcpu_id = vcpu_id;
  661. __entry->previous_tsc_offset = previous_tsc_offset;
  662. __entry->next_tsc_offset = next_tsc_offset;
  663. ),
  664. TP_printk("vcpu=%u prev=%llu next=%llu", __entry->vcpu_id,
  665. __entry->previous_tsc_offset, __entry->next_tsc_offset)
  666. );
  667. #ifdef CONFIG_X86_64
  668. #define host_clocks \
  669. {VCLOCK_NONE, "none"}, \
  670. {VCLOCK_TSC, "tsc"}, \
  671. {VCLOCK_HPET, "hpet"} \
  672. TRACE_EVENT(kvm_update_master_clock,
  673. TP_PROTO(bool use_master_clock, unsigned int host_clock, bool offset_matched),
  674. TP_ARGS(use_master_clock, host_clock, offset_matched),
  675. TP_STRUCT__entry(
  676. __field( bool, use_master_clock )
  677. __field( unsigned int, host_clock )
  678. __field( bool, offset_matched )
  679. ),
  680. TP_fast_assign(
  681. __entry->use_master_clock = use_master_clock;
  682. __entry->host_clock = host_clock;
  683. __entry->offset_matched = offset_matched;
  684. ),
  685. TP_printk("masterclock %d hostclock %s offsetmatched %u",
  686. __entry->use_master_clock,
  687. __print_symbolic(__entry->host_clock, host_clocks),
  688. __entry->offset_matched)
  689. );
  690. TRACE_EVENT(kvm_track_tsc,
  691. TP_PROTO(unsigned int vcpu_id, unsigned int nr_matched,
  692. unsigned int online_vcpus, bool use_master_clock,
  693. unsigned int host_clock),
  694. TP_ARGS(vcpu_id, nr_matched, online_vcpus, use_master_clock,
  695. host_clock),
  696. TP_STRUCT__entry(
  697. __field( unsigned int, vcpu_id )
  698. __field( unsigned int, nr_vcpus_matched_tsc )
  699. __field( unsigned int, online_vcpus )
  700. __field( bool, use_master_clock )
  701. __field( unsigned int, host_clock )
  702. ),
  703. TP_fast_assign(
  704. __entry->vcpu_id = vcpu_id;
  705. __entry->nr_vcpus_matched_tsc = nr_matched;
  706. __entry->online_vcpus = online_vcpus;
  707. __entry->use_master_clock = use_master_clock;
  708. __entry->host_clock = host_clock;
  709. ),
  710. TP_printk("vcpu_id %u masterclock %u offsetmatched %u nr_online %u"
  711. " hostclock %s",
  712. __entry->vcpu_id, __entry->use_master_clock,
  713. __entry->nr_vcpus_matched_tsc, __entry->online_vcpus,
  714. __print_symbolic(__entry->host_clock, host_clocks))
  715. );
  716. #endif /* CONFIG_X86_64 */
  717. /*
  718. * Tracepoint for PML full VMEXIT.
  719. */
  720. TRACE_EVENT(kvm_pml_full,
  721. TP_PROTO(unsigned int vcpu_id),
  722. TP_ARGS(vcpu_id),
  723. TP_STRUCT__entry(
  724. __field( unsigned int, vcpu_id )
  725. ),
  726. TP_fast_assign(
  727. __entry->vcpu_id = vcpu_id;
  728. ),
  729. TP_printk("vcpu %d: PML full", __entry->vcpu_id)
  730. );
  731. TRACE_EVENT(kvm_ple_window,
  732. TP_PROTO(bool grow, unsigned int vcpu_id, int new, int old),
  733. TP_ARGS(grow, vcpu_id, new, old),
  734. TP_STRUCT__entry(
  735. __field( bool, grow )
  736. __field( unsigned int, vcpu_id )
  737. __field( int, new )
  738. __field( int, old )
  739. ),
  740. TP_fast_assign(
  741. __entry->grow = grow;
  742. __entry->vcpu_id = vcpu_id;
  743. __entry->new = new;
  744. __entry->old = old;
  745. ),
  746. TP_printk("vcpu %u: ple_window %d (%s %d)",
  747. __entry->vcpu_id,
  748. __entry->new,
  749. __entry->grow ? "grow" : "shrink",
  750. __entry->old)
  751. );
  752. #define trace_kvm_ple_window_grow(vcpu_id, new, old) \
  753. trace_kvm_ple_window(true, vcpu_id, new, old)
  754. #define trace_kvm_ple_window_shrink(vcpu_id, new, old) \
  755. trace_kvm_ple_window(false, vcpu_id, new, old)
  756. TRACE_EVENT(kvm_pvclock_update,
  757. TP_PROTO(unsigned int vcpu_id, struct pvclock_vcpu_time_info *pvclock),
  758. TP_ARGS(vcpu_id, pvclock),
  759. TP_STRUCT__entry(
  760. __field( unsigned int, vcpu_id )
  761. __field( __u32, version )
  762. __field( __u64, tsc_timestamp )
  763. __field( __u64, system_time )
  764. __field( __u32, tsc_to_system_mul )
  765. __field( __s8, tsc_shift )
  766. __field( __u8, flags )
  767. ),
  768. TP_fast_assign(
  769. __entry->vcpu_id = vcpu_id;
  770. __entry->version = pvclock->version;
  771. __entry->tsc_timestamp = pvclock->tsc_timestamp;
  772. __entry->system_time = pvclock->system_time;
  773. __entry->tsc_to_system_mul = pvclock->tsc_to_system_mul;
  774. __entry->tsc_shift = pvclock->tsc_shift;
  775. __entry->flags = pvclock->flags;
  776. ),
  777. TP_printk("vcpu_id %u, pvclock { version %u, tsc_timestamp 0x%llx, "
  778. "system_time 0x%llx, tsc_to_system_mul 0x%x, tsc_shift %d, "
  779. "flags 0x%x }",
  780. __entry->vcpu_id,
  781. __entry->version,
  782. __entry->tsc_timestamp,
  783. __entry->system_time,
  784. __entry->tsc_to_system_mul,
  785. __entry->tsc_shift,
  786. __entry->flags)
  787. );
  788. TRACE_EVENT(kvm_wait_lapic_expire,
  789. TP_PROTO(unsigned int vcpu_id, s64 delta),
  790. TP_ARGS(vcpu_id, delta),
  791. TP_STRUCT__entry(
  792. __field( unsigned int, vcpu_id )
  793. __field( s64, delta )
  794. ),
  795. TP_fast_assign(
  796. __entry->vcpu_id = vcpu_id;
  797. __entry->delta = delta;
  798. ),
  799. TP_printk("vcpu %u: delta %lld (%s)",
  800. __entry->vcpu_id,
  801. __entry->delta,
  802. __entry->delta < 0 ? "early" : "late")
  803. );
  804. TRACE_EVENT(kvm_enter_smm,
  805. TP_PROTO(unsigned int vcpu_id, u64 smbase, bool entering),
  806. TP_ARGS(vcpu_id, smbase, entering),
  807. TP_STRUCT__entry(
  808. __field( unsigned int, vcpu_id )
  809. __field( u64, smbase )
  810. __field( bool, entering )
  811. ),
  812. TP_fast_assign(
  813. __entry->vcpu_id = vcpu_id;
  814. __entry->smbase = smbase;
  815. __entry->entering = entering;
  816. ),
  817. TP_printk("vcpu %u: %s SMM, smbase 0x%llx",
  818. __entry->vcpu_id,
  819. __entry->entering ? "entering" : "leaving",
  820. __entry->smbase)
  821. );
  822. #endif /* _TRACE_KVM_H */
  823. #undef TRACE_INCLUDE_PATH
  824. #define TRACE_INCLUDE_PATH arch/x86/kvm
  825. #undef TRACE_INCLUDE_FILE
  826. #define TRACE_INCLUDE_FILE trace
  827. /* This part must be outside protection */
  828. #include <trace/define_trace.h>