</a>
    </div>
    <div class="item">

The second special case consists of stack events. These events are identified
by the IsStack flag. These events also have a trailing unsigned integer argument
describing the number of stack frame descriptors that follow. Each stack frame
descriptor is on its own line following the event, consisting of four signed
integer arguments: the PC, an integer describing the function name, an integer

				}
				r := frame
				if argRegs > 0 {
					r = unsafe.Pointer(&regs.Ints)
				} else {
					// frame is effectively uninitialized
					// memory. That means we have to clear
					// it before writing to it to avoid
					// confusing the write barrier.
					*(*[2]uintptr)(frame) = [2]uintptr{}
				}
				switch f.fint.Kind_ & abi.KindMask {
				case abi.Pointer:
					// direct use of pointer

// these pointers in regArgs.Ptrs such that they are visible to the GC.
//
// Package reflect passes a frame type. In package runtime, there is only
// one call that copies results back, in callbackWrap in syscall_windows.go, and it
// does NOT pass a frame type, meaning there are no write barriers invoked. See that
// call site for justification.
//
// Package reflect accesses this symbol through a linkname.
//

        final Map<String, String> childUrlRuleMap = newHashMap();
        childUrlRuleMap.put("//A", "href");
        childUrlRuleMap.put("//AREA", "href");
        childUrlRuleMap.put("//FRAME", "src");
        childUrlRuleMap.put("//IFRAME", "src");
        childUrlRuleMap.put("//IMG", "src");
        childUrlRuleMap.put("//LINK", "href");
        childUrlRuleMap.put("//SCRIPT", "src");

#endif
	DMB	MB_ISH

	MOVB	R0, ret+12(FP)
	RET
casfail:
	MOVW	$0, R0
	MOVB	R0, ret+12(FP)
	RET

// stubs

TEXT ·Loadp(SB),NOSPLIT|NOFRAME,$0-8
	B	·Load(SB)

TEXT ·LoadAcq(SB),NOSPLIT|NOFRAME,$0-8
	B	·Load(SB)

TEXT ·LoadAcquintptr(SB),NOSPLIT|NOFRAME,$0-8
	B 	·Load(SB)

TEXT ·Casint32(SB),NOSPLIT,$0-13
	B	·Cas(SB)

TEXT ·Casint64(SB),NOSPLIT,$-4-21
	B	·Cas64(SB)

/**
 * Relevance of a given stack frame or part of the stack trace to the user.
 * <p>
 * The relevance is a heuristic that aims at improving the user experience when the failures are displayed.
 */
public enum StackTraceRelevance {
    /**
     * Anything that cannot be classified as internal is considered user code.
     */
    USER_CODE,

    /**
     * Frames originating from JDK, Groovy or Gradle runtime calls.

		// Compatibility hack.
		p.From.Sym.Set(obj.AttrNoFrame, true)
		textstksiz = 0
	}
	if textstksiz%8 != 0 {
		c.ctxt.Diag("frame size %d not a multiple of 8", textstksiz)
	}
	if p.From.Sym.NoFrame() {
		if textstksiz != 0 {
			c.ctxt.Diag("NOFRAME functions must have a frame size of 0, not %d", textstksiz)
		}
	}

	c.cursym.Func().Args = p.To.Val.(int32)
	c.cursym.Func().Locals = int32(textstksiz)

			filtered.Events = append(filtered.Events, e)
		}
	}
	return
}

func stackFrames(data *format.Data, stackID int) (frames []string) {
	for {
		frame, ok := data.Frames[strconv.Itoa(stackID)]
		if !ok {
			return
		}
		frames = append(frames, frame.Name)
		stackID = frame.Parent
	}
}

func checkProcStartStop(t *testing.T, data format.Data) {
	procStarted := map[uint64]bool{}

		bv.n = -1
	}

	// Dump main body of stack frame.
	dumpint(tagStackFrame)
	dumpint(uint64(s.sp))                              // lowest address in frame
	dumpint(uint64(child.depth))                       // # of frames deep on the stack
	dumpint(uint64(uintptr(unsafe.Pointer(child.sp)))) // sp of child, or 0 if bottom of stack
	dumpmemrange(unsafe.Pointer(s.sp), s.fp-s.sp)      // frame contents
	dumpint(uint64(f.entry()))