}
	}

	myTags := make([]byte, 100)
	t.Logf("myTags is %p", &myTags[0])

	t.Run("BasicWriteRead", func(t *testing.T) {
		b := NewProfBuf(2, 11, 1)
		write(t, b, unsafe.Pointer(&myTags[0]), 1, []uint64{2, 3}, []uintptr{4, 5, 6, 7, 8, 9})
		read(t, b, []uint64{10, 1, 2, 3, 4, 5, 6, 7, 8, 9}, []unsafe.Pointer{unsafe.Pointer(&myTags[0])})

	}
	// Create new profBuf for CPU samples that will be emitted as events.
	// Format: after the timestamp, header is [pp.id, gp.goid, mp.procid].
	trace.cpuLogRead[0] = newProfBuf(3, profBufWordCount, profBufTagCount)
	trace.cpuLogRead[1] = newProfBuf(3, profBufWordCount, profBufTagCount)
	// We must not acquire trace.signalLock outside of a signal handler: a
	// profiling signal may arrive at any time and try to acquire it, leading to

		if cpuprof.on || cpuprof.log != nil {
			print("runtime: cannot set cpu profile rate until previous profile has finished.\n")
			unlock(&cpuprof.lock)
			return
		}

		cpuprof.on = true
		cpuprof.log = newProfBuf(1, profBufWordCount, profBufTagCount)
		hdr := [1]uint64{uint64(hz)}
		cpuprof.log.write(nil, nanotime(), hdr[:], nil)
		setcpuprofilerate(int32(hz))
	} else if cpuprof.on {
		setcpuprofilerate(0)
		cpuprof.on = false