"runtime.gopanic", "runtime.panicmem", "runtime.sigpanic"}

	defer func() {
		if r := recover(); r == nil {
			t.Fatal("did not panic")
		}
		pcs := make([]uintptr, 20)
		pcs = pcs[:runtime.Callers(0, pcs)]
		testCallersEqual(t, pcs, want)
		if state == 1 {
			t.Fatal("nil defer func panicked at defer time rather than function exit time")
		}

	}()
	var f func()

		i := indexNoFloat(note, "addr=")
		if i >= 0 {
			i += 5
		} else if i = indexNoFloat(note, "va="); i >= 0 {
			i += 3
		} else {
			panicmem()
		}
		addr := note[i:]
		gp.sigcode1 = uintptr(atolwhex(addr))
		if gp.sigcode1 < 0x1000 {
			panicmem()
		}
		if gp.paniconfault {
			panicmemAddr(gp.sigcode1)
		}
		if inUserArenaChunk(gp.sigcode1) {

	gp := getg()
	if !canpanic() {
		throw("unexpected signal during runtime execution")
	}

	switch gp.sig {
	case _EXCEPTION_ACCESS_VIOLATION, _EXCEPTION_IN_PAGE_ERROR:
		if gp.sigcode1 < 0x1000 {
			panicmem()
		}
		if gp.paniconfault {
			panicmemAddr(gp.sigcode1)
		}
		if inUserArenaChunk(gp.sigcode1) {
			// We could check that the arena chunk is explicitly set to fault,

			panicmem()
		}
		// Support runtime/debug.SetPanicOnFault.
		if gp.paniconfault {
			panicmemAddr(gp.sigcode1)
		}
		print("unexpected fault address ", hex(gp.sigcode1), "\n")
		throw("fault")
	case _SIGSEGV:
		if (gp.sigcode0 == 0 || gp.sigcode0 == _SEGV_MAPERR || gp.sigcode0 == _SEGV_ACCERR) && gp.sigcode1 < 0x1000 {
			panicmem()
		}

// code generated by the compiler for out of bounds index expressions,
// out of bounds slice expressions, division by zero, and shift by negative.
// The panicdivide (again), panicoverflow, panicfloat, and panicmem
// functions are called by the signal handler when a signal occurs
// indicating the respective problem.
//
// Since panic{Index,Slice,shift} are never called directly, and

func TestPullPanic(t *testing.T) {
	t.Run("next", func(t *testing.T) {
		next, stop := Pull(panicSeq())
		if !panicsWith("boom", func() { next() }) {
			t.Fatal("failed to propagate panic on first next")
		}
		// Make sure we don't panic again if we try to call next or stop.
		if _, ok := next(); ok {
			t.Fatal("next returned true after iterator panicked")
		}
		// Calling stop again should be a no-op.
		stop()
	})

	defer func() {
		if err := recover(); err == nil {
			t.Error("Div should have panicked when y<=hi")
		} else if e, ok := err.(runtime.Error); !ok || e.Error() != overflowError {
			t.Errorf("Div expected panic: %q, got: %q ", overflowError, e.Error())
		}
	}()
	q, r := Div(1, 0, 1)
	t.Errorf("undefined q, r = %v, %v calculated when Div should have panicked", q, r)
}

func TestDiv32PanicOverflow(t *testing.T) {

	panicked := make(chan bool)
	go func() {
		defer func() {
			if recover() != nil {
				panicked <- true
			}
		}()
		s.AddKnownTypeWithName(gv.WithKind("InternalSimple"), &runtimetesting.InternalSimple{})
		s.AddKnownTypeWithName(gv.WithKind("InternalSimple"), &runtimetesting.ExternalSimple{})
		panicked <- false
	}()
	if !<-panicked {

				if panicked || err != nil {
					db.RollbackTo(fmt.Sprintf("sp%p", fc))
				}
			}()
		}
		err = fc(db.Session(&Session{NewDB: db.clone == 1}))
	} else {
		tx := db.Begin(opts...)
		if tx.Error != nil {
			return tx.Error
		}

		defer func() {
			// Make sure to rollback when panic, Block error or Commit error
			if panicked || err != nil {
				tx.Rollback()
			}

	//  - rest-handler: the "executing" handler returns after the rest layer times out the request.
	// status: whether the handler panicked or threw an error, possible values:
	//  - 'panic': the handler panicked
	//  - 'error': the handler return an error
	//  - 'ok': the handler returned a result (no error and no panic)