b := v.Bool()
	if b || state.sendZero {
		state.update(i)
		if b {
			state.encodeUint(1)
		} else {
			state.encodeUint(0)
		}
	}
}

// encInt encodes the signed integer (int int8 int16 int32 int64) referenced by v.
func encInt(i *encInstr, state *encoderState, v reflect.Value) {
	value := v.Int()
	if value != 0 || state.sendZero {
		state.update(i)
		state.encodeInt(value)
	}

	slice, ok := v.Interface().([]%[1]s)
	if !ok {
		// It is kind %[1]s but not type %[1]s. TODO: We can handle this unsafely.
		return false
	}
	for _, x := range slice {
		if x != %[3]s || state.sendZero {
			%[4]s
		}
	}
	return true
}

			}
			return true, false
		}
		// The channel has been closed, but the channel's buffer have data.
	} else {
		// Just found waiting sender with not closed.
		if sg := c.sendq.dequeue(); sg != nil {
			// Found a waiting sender. If buffer is size 0, receive value
			// directly from sender. Otherwise, receive from head of queue
			// and add sender's value to the tail of the queue (both map to

func (m *Map[K, V]) InOrder() *Iterator[K, V] {
	sender, receiver := chans_Ranger[keyValue[K, V]]()
	var f func(*node[K, V]) bool
	f = func(n *node[K, V]) bool {
		if n == nil {
			return true
		}
		// Stop sending values if sender.Send returns false,
		// meaning that nothing is listening at the receiver end.
		return f(n.left) &&
			sender.Send(keyValue[K, V]{n.key, n.val}) &&
			f(n.right)
	}
	go func() {

	if err != nil {
		return nil, nil, err
	}

	return encapsulatedKey, &Sender{
		kem:            kem,
		aead:           aead,
		sharedSecret:   sharedSecret,
		suiteID:        suiteID,
		key:            key,
		baseNonce:      baseNonce,
		exporterSecret: exporterSecret,
	}, nil
}

func (s *Sender) nextNonce() []byte {
	nonce := s.seqNum.bytes()[16-s.aead.NonceSize():]

    }

    @Override
    public Object getProperty(Class sender, Object object, String name, boolean useSuper, boolean fromInsideClass) {
        if (useSuper || fromInsideClass) {
            return adaptee.getProperty(sender, object, name, useSuper, fromInsideClass);
        } else {
            return invokeIntercepted(object, GET_PROPERTY, name, NO_ARG, () -> adaptee.getProperty(sender, object, name, false, false));
        }
    }

	PCMPEQB	X0, X1
	PMOVMSKB X1, DX
	// Apply mask
	ANDQ R10, DX
	POPCNTL DX, DX
	ADDQ DX, R12
end:
	MOVQ R12, (R8)
	RET

// handle for lengths < 16
small:
	TESTQ	BX, BX
	JEQ	endzero

	// Check if we'll load across a page boundary.
	LEAQ	16(SI), AX
	TESTW	$0xff0, AX
	JEQ	endofpage

	// We must ignore high bytes as they aren't part of our slice.
	// Create mask.
	MOVB BX, CX

		_ = data[i]
	}
}

// Test that sender synchronizes with receiver even if the sender was blocked.
func TestNoRaceBlockedSendSync(t *testing.T) {
	c := make(chan *int, 1)
	c <- nil
	go func() {
		i := 42
		c <- &i
	}()
	// Give the sender time to actually block.
	// This sleep is completely optional: race report must not be printed
	// regardless of whether the sender actually blocks or not.

	if cr.err != nil {
		return
	}
	cr.n, cr.err = parseHexUint(line)
	if cr.err != nil {
		return
	}
	// A sender who sends one byte per chunk will send 5 bytes of overhead
	// for every byte of data. ("1\r\nX\r\n" to send "X".)
	// We want to allow this, since streaming a byte at a time can be legitimate.
	//
	// A sender can use chunk extensions to add arbitrary amounts of additional

        "invokeMethod(sender, receiver, methodName, arguments, false, false)" | { instance.metaClass.invokeMethod(getClass(), instance, "test", [].toArray(), false, false) } | true        | false

        // These should not be intercepted because of isCallToSuper and fromInsideClass