@Test
public void getDifferenceTest_PerfectParameters() {
Vector v = new Vector(5, 15);
Vector differenceVector = testVector1.getDifference(testVector2);
assertTrue(Util.fuzzyEquals(differenceVector._X(), v._X()));
assertTrue(Util.fuzzyEquals(differenceVector._Y(), v._Y()));
}
@Test
public void getSumTest_PerfectParameters() {
Vector v = new Vector(15, 5);
Vector sumVector = testVector1.getSum(testVector2);
assertTrue(Util.fuzzyEquals(sumVector._X(), v._X()));
assertTrue(Util.fuzzyEquals(sumVector._Y(), v._Y()));
}
@Test
public void extendedConstructorTest_ComponentsMatchGivenComponents_IllegalYComponent() {
Vector v = new Vector(5, Double.NaN);
assertTrue(Util.fuzzyEquals(v._X(), 5));
assertFalse(Util.fuzzyEquals(v._Y(), 6));
assertTrue(Util.fuzzyEquals(v._Y(), 0));
}
@Test
public void GetUnitVectorInSameDirectionTest_LegalCase() {
Vector v = new Vector(Math.sqrt(2) / 2, Math.sqrt(2) / 2);
Vector result = testVector1.getUnitVectorInDirection();
assertTrue(Util.fuzzyEquals(v._X(), result._X()));
assertTrue(Util.fuzzyEquals(v._Y(), result._Y()));
}
public void sendFactory(Factory factory) {
try {
oos.writeObject(factory);
oos.flush();
} catch (IOException ioe) {
Util.printExceptionToCommand(ioe);
}
}
public void sendResource(Resource resource) {
try {
oos.writeObject(resource);
oos.flush();
} catch (IOException e) {
Util.printExceptionToCommand(e);
e.printStackTrace();
}
}
/**
* Sets the angle of this direction to the given angle.
*
* @param angle The new angle for this direction.
* @pre The given angle is not null. | angle != null
* @post If this direction can have the given angle as its angle, then the angle of this direction
* is now equal to the given angle. | new.getAngle() == angle
* @post The magnitude of this new direction is equal to one. | Util.fuzzyEquals(getMagnitude(),
* 1.0)
* @post The angle of this direction is a valid angle. | canHaveAsAngle(getAngle())
*/
@Basic
@Raw
public void setAngle(Angle angle) {
assert (canHaveAsAngle(angle));
this.angle = angle;
assert (getAngle().equals(angle));
assert (Util.fuzzyEquals(getMagnitude(), 1.0));
assert (canHaveAsAngle(getAngle()));
}
public MarketBtce(Currency cur1, Currency cur2) throws ExchangeError {
super(cur1, cur2, "btce");
// JSON mapper inialisation
mapper = new ObjectMapper();
mapper.configure(DeserializationConfig.Feature.FAIL_ON_UNKNOWN_PROPERTIES, false);
mapper.configure(DeserializationConfig.Feature.USE_BIG_DECIMAL_FOR_FLOATS, false);
// Ajout d'un deserializer d'ordre customis� pour passer de "[ prix, amount ]" dans le json �
// "new Order(prix,amount,Type.XXX) en java"
SimpleModule testModule = new SimpleModule("MyModule", new Version(1, 0, 0, null));
testModule.addDeserializer(Order.class, new OrderDeserializer());
mapper.registerModule(testModule);
// Ajout d'un deserializer des types customis� pour passer de "ask"(resp. "bid") dans le json �
// "Type.ASK" (resp. "Type.BID") en java
testModule = new SimpleModule("MyModule2", new Version(1, 0, 0, null));
testModule.addDeserializer(Type.class, new TypeDeserializer(true));
mapper.registerModule(testModule);
// Verification si la pair <cur1, cur2> est accepte par l'exchange
URL fee_url;
Fee f;
try {
fee_url =
new URL(
"https://btc-e.com/api/2/"
+ cur1.name().toLowerCase()
+ "_"
+ cur2.name().toLowerCase()
+ "/fee");
String is = Util.getData(fee_url);
f = mapper.readValue(is, Fee.class);
Assert.checkPrecond(
f.error == null,
"BTC-E n'autorise pas la pair: <" + cur1.name() + "," + cur2.name() + ">");
// On set les frais de transaction maintenant qu'on est sur que Btc-e autorise la paire
// <cur1,cur2>
fee_percent = Op.mult(f.trade, new Decimal("0.01"));
} catch (JsonParseException e) {
e.printStackTrace();
throw new ExchangeError("JsonParseException: Erreur jackson");
} catch (JsonMappingException e) {
e.printStackTrace();
throw new ExchangeError("JsonMappingException: Erreur jackson");
} catch (IOException e) {
e.printStackTrace();
throw new ExchangeError("IOException: Erreur jackson");
}
}
// reading a message
public void run() {
try {
String line = br.readLine();
while (line != null) {
FactoryServerGUI.addMessage(
socket.getInetAddress() + ":" + socket.getPort() + " - " + line);
line = br.readLine();
}
} catch (IOException ioe) {
serverListener.removeServerClientCommunicator(this);
FactoryServerGUI.addMessage(
socket.getInetAddress() + ":" + socket.getPort() + " - " + Constants.clientDisconnected);
// this means that the socket is closed since no more lines are being received
try {
socket.close();
} catch (IOException ioe1) {
Util.printExceptionToCommand(ioe1);
}
}
}
@Override
public void updateTrades() throws ExchangeError {
try {
String is = getJsonTrades();
last_trades =
Util.filterRecentTrade(
mapper.readValue(is, Trade[].class),
trades); // On conserve uniquement les echanges pas encore check�s
} catch (JsonParseException e) {
e.printStackTrace();
throw new ExchangeError("JsonParseException: Erreur jackson");
} catch (JsonMappingException e) {
e.printStackTrace();
throw new ExchangeError("JsonMappingException: Erreur jackson");
} catch (IOException e) {
e.printStackTrace();
throw new ExchangeError("IOException: Erreur jackson");
}
}
/**
* Initializes the gyro
*
* @throws GyroException If the initialization routine fails for any reason
*/
public void initializeGyro() throws GyroException {
// start a self-check
int result = doTransaction(SENSOR_DATA_CMD | CHK_GENERATE_FAULTS_BIT);
if (result != 1) {
System.out.println(
"Unexpected self-check response: 0x"
+ Integer.toHexString(result)
+ " errors: "
+ Util.joinStrings(", ", extractErrors(result)));
}
// wait for the fault conditions to occur
try {
Thread.sleep(50);
} catch (InterruptedException ignored) {
}
// clear latched non-fault data
doTransaction(SENSOR_DATA_CMD);
// actually read the self-test data
int selfCheckResult = doTransaction(SENSOR_DATA_CMD);
if (extractStatus(selfCheckResult) != StatusFlag.SELF_TEST_DATA) {
throw new GyroException("Gyro not in self test: 0x" + Integer.toHexString(selfCheckResult));
}
if (!extractErrors(selfCheckResult).containsAll(ALL_ERRORS)) {
throw new GyroException(
"Gyro self-test didn't include all errors: 0x" + Integer.toHexString(selfCheckResult));
}
// clear the latched self-test data
selfCheckResult = doTransaction(SENSOR_DATA_CMD);
if (extractStatus(selfCheckResult) != StatusFlag.SELF_TEST_DATA) {
throw new GyroException(
"Gyro second self test read failed: 0x" + Integer.toHexString(selfCheckResult));
}
}
@Test
public void extendedConstructorTest_ComponentsMatchGivenComponents_PerfectParameters() {
Vector v = new Vector(5, 6);
assertTrue(Util.fuzzyEquals(v._X(), 5));
assertTrue(Util.fuzzyEquals(v._Y(), 6));
}
/**
* Initializes this new direction with a default angle.
*
* @post The magnitude of this new direction is equal to one. | Util.fuzzyEquals(getMagnitude(),
* 1.0)
* @post The angle of this direction is a valid angle. | canHaveAsAngle(getAngle())
*/
public Direction() {
this(new Angle());
assert (Util.fuzzyEquals(getMagnitude(), 1.0));
assert (canHaveAsAngle(getAngle()));
}
/**
* Initializes this new direction with a given angle.
*
* @param angle The given angle.
* @pre The given angle is not null. | angle != null
* @post The magnitude of this new direction is equal to one. | Util.fuzzyEquals(getMagnitude(),
* 1.0)
* @post The angle of this direction is a valid angle. | canHaveAsAngle(getAngle())
*/
public Direction(Angle angle) {
assert (angle != null);
setAngle(angle);
assert (Util.fuzzyEquals(getMagnitude(), 1.0));
assert (canHaveAsAngle(getAngle()));
}
/**
* Rotates this direction by the given angle.
*
* @pre The given angle is not null. | angle != null
* @param angle The given angle.
* @post The magnitude of this new direction is equal to one. | Util.fuzzyEquals(getMagnitude(),
* 1.0)
* @post The angle of this direction is a valid angle. | canHaveAsAngle(getAngle())
*/
public void rotate(Angle angle) {
assert (angle != null);
getAngle().add(angle);
assert (Util.fuzzyEquals(getMagnitude(), 1.0));
assert (canHaveAsAngle(getAngle()));
}
@Test
public void setYComponentTest_IllegalCase() {
testVector1.setY(Double.NaN);
assertFalse(Util.fuzzyEquals(testVector1._Y(), Double.NaN));
}
@Test
public void setYComponentTest_LegalCase() {
testVector1.setY(5);
assertTrue(Util.fuzzyEquals(testVector1._Y(), 5));
}
@Test
public void simpleConstructorTest_ComponentsMatchZero() {
Vector v = new Vector();
assertTrue(Util.fuzzyEquals(v._X(), 0));
assertTrue(Util.fuzzyEquals(v._Y(), 0));
}
@Test
public void byVectorConstructorTest_ComponentsMatchGivenVectorsComponents_PerfectParameters() {
Vector v = new Vector(testVector1);
assertTrue(Util.fuzzyEquals(v._X(), testVector1._X()));
assertTrue(Util.fuzzyEquals(v._Y(), testVector1._Y()));
}
@Test
public void distanceToTest_PerfectParameters() {
double result = testVector1.getDistanceTo(testVector2);
assertTrue(Util.fuzzyEquals(result, 15.811388300841896));
}
@Test
public void scaleByTest_PerfectParameters() {
Vector scaleVector = testVector1.getScaledBy(2.0);
assertTrue(Util.fuzzyEquals(scaleVector._X(), 20.0));
assertTrue(Util.fuzzyEquals(scaleVector._Y(), 20.0));
}
@Test
public void magnitudeTest() {
double vectorMagnitude = testVector1.getMagnitude();
assertTrue(Util.fuzzyEquals(vectorMagnitude, Math.sqrt(200.0)));
}
@Test
public void dotTest_PerfectParameters() {
double vectorProduct = testVector1.dotProduct(testVector2);
assertTrue(Util.fuzzyEquals(vectorProduct, 0));
}
