java gs1-128

java gs1 128

java gs1-128

java gs1 128

java gs1 128

java barcode ean 128,
java ean 128,

java ean 128,
java barcode ean 128,
java gs1-128,
java barcode ean 128,
java gs1-128,
java ean 128,
java ean 128,
java gs1-128,
java gs1 128,
java barcode ean 128,
java gs1 128,

java gs1 128,
java gs1 128,
java barcode ean 128,
java ean 128,
java gs1 128,
java ean 128,
java gs1 128,
java gs1-128,
java ean 128,
java gs1 128,
java barcode ean 128,
java ean 128,
java gs1 128,
java gs1 128,
java gs1 128,
java ean 128,
java barcode ean 128,
java gs1-128,
java gs1 128,
java barcode ean 128,
java ean 128,
java barcode ean 128,
java ean 128,
java barcode ean 128,
java ean 128,
java ean 128,
java barcode ean 128,

java gs1 128,
java ean 128,
java barcode ean 128,
java ean 128,
java gs1-128,
java gs1 128,
java gs1 128,
java ean 128,
java ean 128,
java gs1-128,
java gs1-128,
java gs1 128,
java gs1 128,
java gs1 128,
java barcode ean 128,
java gs1-128,
java ean 128,
java ean 128,
java barcode ean 128,
java gs1 128,
java barcode ean 128,
java gs1-128,
java gs1 128,
java ean 128,
java gs1-128,
java ean 128,
java barcode ean 128,
java gs1-128,
java gs1-128,

public static <E> Queue<E> reversed(Queue<E> queue) { // returns a new queue that contains the same elements as the given // queue, but in reversed order, and leaves the given queue in its // original state Queue<E> queue1 = new ArrayDeque<E>(); Deque<E> stack = new ArrayDeque<E>(); for (int i=0; i<queue.size(); i++) { stack.push(queue.element()); queue.add(queue.remove()); } while(!stack.isEmpty()) { queue1.add(stack.pop()); } return queue1; } public static <E> void reverse(Queue<E> queue) { // returns a new queue that contains the same elements as the given // queue, but in reversed order, and leaves the given queue in its // original state Deque<E> stack = new ArrayDeque<E>(); while(!queue.isEmpty()) { stack.push(queue.remove()); } while(!stack.isEmpty()) { queue.add(stack.pop()); } } public static <E> E secondElement(Queue<E> queue) { // returns the second element in the specified queue, leaving the // queue in its original state queue.add(queue.remove()); E element = queue.element(); for (int i=1; i<queue.size(); i++) { queue.add(queue.remove()); } return element; } public static <E> E lastElement(Queue<E> queue) { // returns the last element in the specified queue, leaving the // queue in its original state for (int i=1; i<queue.size(); i++) { queue.add(queue.remove()); } E element = queue.element(); queue.add(queue.remove()); return element; } public static <E> void removeLastElement(Queue<E> queue) { // removes the last element in the specified queue for (int i=1; i<queue.size(); i++) { queue.add(queue.remove()); } queue.remove(); } public static <E> Queue<E> merge(Queue<E> queue1, Queue<E> queue2) { // returns a new queue that contains the same elements as the two // specified queues, alternately merged together, leaving the two // specified queues in their original state

A circuit that satis es (3) and (4) with de nitions (5) to (8) is displayed by Fig. 6-16.

try { System.out.print("Enter file name: " ); sc = new Scanner( System.in ); fileName = sc.nextLine(); myWriter = new PrintWriter( fileName ); System.out.println( "Now enter lines of text." ); System.out.println( "When you are done, " + "type only Cntrl/z (EOF) on the line." ); lineNumber = 1; while( sc.hasNextLine() ) { lineOfData = sc.nextLine(); myWriter.println( lineNumber + ". " + lineOfData ); lineNumber++; } myWriter.close(); } catch( IOException e ) {

hrc Lec _

CHAP. 6]

hoc (S)

Queue<E> queue3 = new ArrayDeque<E>(); int n1 = queue1.size(); int n2 = queue2.size(); int n = Math.min(n1, n2); for (int i = 0; i < n; i++) { queue3.add(queue1.element()); queue1.add(queue1.remove()); queue3.add(queue2.element()); queue2.add(queue2.remove()); } for (int i = 0; i < n1 - n; i++) { queue3.add(queue1.element()); queue1.add(queue1.remove()); } for (int i = 0; i < n2 - n; i++) { queue3.add(queue2.element()); queue2.add(queue2.remove()); } return queue3; }

CHAP. 5]

Redraw the CE small-signal equivalent circuit of Fig. 6-1(a) so that the collector C is common to the input and output ports. Then apply KVL at the input port and KCL at the output port to nd a set of equations that can be compared with (3) and (4) of Problem 6.13 to determine the CC h parameters in terms of the CE h parameters.

public void reverse() { // reverses the contents of this queue resize(); int n = size(); for (int i=0; i<n/2; i++) { E e = elements[i]; elements[i] = elements[n-1-i]; elements[n-1-i] = e; } } public void reverse() { // reverses the contents of this queue Node<E> p = head; for (int i=0; i<=size; i++) { Node<E> q = p.next; p.next = p.prev; p = p.prev = q; } } public E second() { // returns the second element of this queue if (size() < 2) { throw new java.util.NoSuchElementException(); } int len = elements.length; if (front + 1 == len) { return elements[0]; } else { return elements[front+1]; } } public E second() { // returns the second element of this queue if (size < 2) { throw new java.util.NoSuchElementException(); } return head.next.next.element; }

Figure 6-1(a) is rearranged, to make the collector common, in Fig. 6-17. B; C loop, with vce vec , results in vbc hie ib hre vce vec hie ib 1 hre vec Applying KVL around the

public E removeSecond() { // removes and returns the second element of this queue if (size() < 2) { throw new java.util.NoSuchElementException(); } int len = elements.length; E e; if (front + 1 == len) { e = elements[0]; elements[0] = elements[len-1]; elements[len-1] = null; front = 0; } else { e = elements[front+1]; elements[front+1] = elements[front]; elements[front] = null; ++front; } return e; } public E removeSecond() { // removes and returns the second element of this queue if (size() < 2) { throw new java.util.NoSuchElementException(); } E element = head.next.next.element; head.next.next = head.next.next.next; head.next.next.prev = head.next; --size; return e; }

Fig. 6-17

Systemerrprintln( "I/O error: " + egetMessage() ); } } } SUMMARY Java is a modern object-oriented programming language This chapter discussed how to compile and run Java programs We discussed the primitive data types in Java, as well as the frequently used reference types including String and Array types We explained the use of control structures for selective code execution and iteration These statements included the if-else, for, while, do-while, and switch statements Java takes advantage of the OO concept of classes, and the attendant principles of inheritance, encapsulation, and polymorphism An instance of a class is called an object, and objects have state and behavior Classes define both instance and static variables, which manifest the state of an object Classes also define both instance and static methods, which endow objects with their characteristic behaviors.