public void testSetUserAddress() {
// test the code to set the User address
SerialNode node = new SerialNode();
byte uad[] = {(byte) 0x6D, (byte) 0x97};
node.setUserAddress(uad);
Assert.assertEquals("Node user address high byte", uad[0], node.getUserAddress()[0]);
Assert.assertEquals("Node user address low byte", uad[1], node.getUserAddress()[1]);
}
/**
* Set the current state of this Light This routine requests the hardware to change. If this is
* really a change in state of this bit (tested in SerialNode), a Transmit packet will be sent
* before this Node is next polled.
*/
protected void doNewState(int oldState, int newState) {
SerialNode mNode = SerialAddress.getNodeFromSystemName(getSystemName());
if (mNode != null) {
if (newState == ON) {
mNode.setOutputBit(mBit, false);
} else if (newState == OFF) {
mNode.setOutputBit(mBit, true);
} else {
log.warn("illegal state requested for Light: " + getSystemName());
}
}
}
/**
* Public method to set a SECSI Output bit Note: systemName is of format CNnnnBxxxx where "nnn" is
* the serial node number (0 - 127) "xxxx' is the bit number within that node (1 thru number of
* defined bits) state is 'true' for 0, 'false' for 1 The bit is transmitted to the hardware
* immediately before the next poll packet is sent.
*/
public void setSerialOutput(String systemName, boolean state) {
// get the node and bit numbers
SerialNode node = SerialAddress.getNodeFromSystemName(systemName);
if (node == null) {
log.error("bad SerialNode specification in SerialOutput system name:" + systemName);
return;
}
int bit = SerialAddress.getBitFromSystemName(systemName);
if (bit == 0) {
log.error("bad output bit specification in SerialOutput system name:" + systemName);
return;
}
// set the bit
node.setOutputBit(bit, state);
}
public void testSetGlobalAddress() {
// test the code to set the User address
SerialNode node = new SerialNode();
byte gad[] = {
(byte) 0x00,
(byte) 0x13,
(byte) 0xA2,
(byte) 0x00,
(byte) 0x40,
(byte) 0xA0,
(byte) 0x4D,
(byte) 0x2D
};
node.setGlobalAddress(gad);
for (int i = 0; i < gad.length; i++) {
Assert.assertEquals("Node global address byte " + i, gad[i], node.getGlobalAddress()[i]);
}
}
public void testSerialOutput() {
SerialTrafficController c = new SerialTrafficController();
SerialNode a = new SerialNode();
Assert.assertNotNull("exists", a);
SerialNode g = new SerialNode(5, SerialNode.DAUGHTER);
Assert.assertTrue("must Send", g.mustSend());
g.resetMustSend();
Assert.assertTrue("must Send off", !(g.mustSend()));
c.setSerialOutput("VL5B2", false);
c.setSerialOutput("VL5B1", false);
c.setSerialOutput("VL5B23", false);
c.setSerialOutput("VL5B22", false);
c.setSerialOutput("VL5B21", false);
c.setSerialOutput("VL5B2", true);
c.setSerialOutput("VL5B19", false);
c.setSerialOutput("VL5B5", false);
c.setSerialOutput("VL5B20", false);
c.setSerialOutput("VL5B17", true);
Assert.assertTrue("must Send on", g.mustSend());
AbstractMRMessage m = g.createOutPacket();
Assert.assertEquals("packet size", 9, m.getNumDataElements());
Assert.assertEquals("node address", 5, m.getElement(0));
Assert.assertEquals("byte 1 lo nibble", 0x02, m.getElement(1));
Assert.assertEquals("byte 1 hi nibble", 0x10, m.getElement(2));
Assert.assertEquals("byte 2 lo nibble", 0x20, m.getElement(3));
Assert.assertEquals("byte 2 hi nibble", 0x30, m.getElement(4));
Assert.assertEquals("byte 3 lo nibble", 0x41, m.getElement(5));
Assert.assertEquals("byte 3 hi nibble", 0x50, m.getElement(6));
Assert.assertEquals("byte 4 lo nibble", 0x60, m.getElement(7));
Assert.assertEquals("byte 4 hi nibble", 0x70, m.getElement(8));
}
public void testSensorCreationAndRegistration() {
// replace the SerialTrafficController to get clean reset
SerialTrafficController t =
new SerialTrafficController() {
SerialTrafficController test() {
setInstance();
return this;
}
}.test();
Assert.assertNotNull("exists", t);
// construct nodes
SerialNode n1 = new SerialNode(1, SerialNode.NODE2002V6);
SerialNode n2 = new SerialNode(2, SerialNode.NODE2002V6);
SerialNode n3 = new SerialNode(3, SerialNode.NODE2002V1);
SerialSensorManager s = new SerialSensorManager();
Assert.assertTrue("none expected A1", !(n1.getSensorsActive()));
Assert.assertTrue("none expected A2", !(n2.getSensorsActive()));
Assert.assertTrue("none expected A3", !(n3.getSensorsActive()));
s.provideSensor("1003");
Assert.assertTrue("UA 1", n1.getSensorsActive());
Assert.assertTrue("2nd none expected A2", !(n2.getSensorsActive()));
Assert.assertTrue("2nd none expected A3", !(n3.getSensorsActive()));
s.provideSensor("1011");
s.provideSensor("1008");
s.provideSensor("1009");
s.provideSensor("1011");
s.provideSensor("GS2006");
Assert.assertTrue("2nd UA 1", n1.getSensorsActive());
Assert.assertTrue("2nd UA 2", n2.getSensorsActive());
Assert.assertTrue("2nd none expected UA 3", !(n3.getSensorsActive()));
s.provideSensor("1010");
s.provideSensor("3001");
Assert.assertTrue("3rd UA 1", n1.getSensorsActive());
Assert.assertTrue("3rd UA 2", n2.getSensorsActive());
Assert.assertTrue("3nd UA 3", n3.getSensorsActive());
s.provideSensor("1007");
s.provideSensor("2007");
s.provideSensor("3007");
Assert.assertTrue("4th UA 1", n1.getSensorsActive());
Assert.assertTrue("4th UA 2", n2.getSensorsActive());
Assert.assertTrue("4th UA 3", n3.getSensorsActive());
// some equality tests
Assert.assertTrue("GS1p7 == GS1007", s.getSensor("GS1p7") == s.getSensor("GS1007"));
Assert.assertTrue("GS1B7 == GS1007", s.getSensor("GS1B7") == s.getSensor("GS1007"));
}