// functions are correctly handled. This will smash
		// the stack frame but we're not going back there
		// anyway.
		if usesLR {
			c.savelr(c.lr())
		}

		// If PC == 0, probably panicked because of a call to a nil func.
		// Not faking that as the return address will make the trace look like a call
		// to sigpanic instead. (Otherwise the trace will end at
		// sigpanic and we won't get to see who faulted).

	//  - 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)

		}
	}
}

func testUint64SmallSliceLengthPanics() (panicked bool) {
	defer func() {
		panicked = recover() != nil
	}()
	b := [8]byte{1, 2, 3, 4, 5, 6, 7, 8}
	LittleEndian.Uint64(b[:4])
	return false
}

func testPutUint64SmallSliceLengthPanics() (panicked bool) {
	defer func() {
		panicked = recover() != nil
	}()
	b := [8]byte{}

		// Call the debug function.
		h.debugCallRun(ctxt)
	case 1:
		// Function returned. Copy frame and result registers back out.
		h.debugCallReturn(ctxt)
	case 2:
		// Function panicked. Copy panic out.
		h.debugCallPanicOut(ctxt)
	case 8:
		// Call isn't safe. Get the reason.
		h.debugCallUnsafe(ctxt)
		// Don't wake h.done. We need to transition to status 16 first.
	case 16:

		if err := recover(); err == nil {
			t.Errorf("NewTicker(-1) should have panicked")
		}
	}()
	NewTicker(-1)
}

// Test that Ticker.Reset panics when given a duration less than zero.
func TestTickerResetLtZeroDuration(t *testing.T) {
	defer func() {
		if err := recover(); err == nil {
			t.Errorf("Ticker.Reset(0) should have panicked")
		}
	}()
	tk := NewTicker(Second)
	tk.Reset(0)
}

			}
			// Before resetting the current coverage, defer the snapshot so that
			// we make sure it is called right before the tRunner function
			// exits, regardless of whether it was executed cleanly, panicked,
			// or if the fuzzFn called t.Fatal.
			if f.testContext.isFuzzing {
				defer f.fuzzContext.deps.SnapshotCoverage()
				f.fuzzContext.deps.ResetCoverage()
			}
			fn.Call(args)
		})
		<-t.signal

	if v != uint64(orig.Cur) {
		t.Errorf("exec rlimit = %d, want %d", v, orig)
	}
}

func TestForkExecNilArgv(t *testing.T) {
	defer func() {
		if p := recover(); p != nil {
			t.Fatal("forkExec panicked")
		}
	}()

	// We don't really care what the result of forkExec is, just that it doesn't
	// panic, so we choose something we know won't actually spawn a process (probably).

	}
	for _, tt := range tests {
		didPanic := make(chan bool)
		go func() {
			defer func() { didPanic <- recover() != nil }()
			tt.fn()
		}()
		if got := <-didPanic; got != tt.wantPanic {
			t.Errorf("%s: panicked = %v; want %v", tt.name, got, tt.wantPanic)
		}
	}
}

func TestBuilderWriteInvalidRune(t *testing.T) {
	// Invalid runes, including negative ones, should be written as
	// utf8.RuneError.

						}
						return
					}
					// this ensures that the admission request fails and a message is provided.
					errCh <- apierrors.NewInternalError(fmt.Errorf("ValidatingAdmissionWebhook/%v has panicked: %v", hookName, r))
				},
			)

			hook, ok := invocation.Webhook.GetValidatingWebhook()
			if !ok {

	// Defer a panic recover, so that in case if panic we can still return
	// a proper error to the runtime.
	defer func() {
		if e := recover(); e != nil {
			msg := fmt.Sprintf("istio-cni panicked during cmdAdd: %v\n%v", e, string(debug.Stack()))
			if err != nil {
				// If we're recovering and there was also an error, then we need to
				// present both.
				msg = fmt.Sprintf("%s: %v", msg, err)
			}