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if (p == null) { throw new java.util.NoSuchElementException(); } return p.data; }

With negligible gate current, KVL requires that VGG VGSQ 0:422 V. (b) Applying KVL around the drain-source loop gives VDSQ VDD IDQ RD 20 8 10 3 1:5 103 8 V

void put(Node list, int i, int x) { // inserts x as element number i; if (list == null) { throw new java.util.NoSuchElementException("list is empty"); } else if (i == 0) { list.next = new Node(list.data, list.next); list.data = x; } else { Node p = list; int j = 1; while (j < i && p != null) { ++j; p = p.next; } if (p == null) { String error=String.format("the list has onlt %d elements",j-1); throw new java.util.NoSuchElementException(error); } p.next = new Node(x, p.next); } void swap(Node list, int i, int j) { if (i < 0 || j < 0) { throw new IllegalArgumentException(); } else if (i == j) { return; } Node p=list, q=list; for (int ii=0; ii<i; ii++) { if (p == null) { throw new IllegalStateException(); } p = p.next; } for (int jj=0; jj<j; jj++) { if (q == null) { throw new IllegalStateException(); } q = q.next; } int pdata = p.data, qdata = q.data; p.data = qdata; q.data = pdata; return; } Node merged(Node list1, Node list2) { Node list = new Node(0), p = list, p1 = list1, p2 = list2; while (p1 != null && p2 != null) { if (p1.data < p2.data) { p = p.next = new Node(p1.data); p1 = p1.next; } else { p = p.next = new Node(p2.data); p2 = p2.next;

The n-channel enhancement-mode MOSFET of Fig. 4-18 is characterized by VT 4 V and IDon 10 mA. Assume negligible gate current, R1 50 k ; R2 0:4 M ; RS 0; RD 2 k , and VDD 15 V. Find (a) VGSQ ; b IDQ , and (c) VDSQ .

The instructions are referred to as bytecode In the case of Java, the JVM implements a machine described by the official JVM specification by Lindholm and Yellin, which you can view on the Sun Microsystems website: http://javasuncom/docs/ books/vmspec/..

} } while (p1 != null) p = p.next = new p1 = p1.next; } while (p2 != null) p = p.next = new p2 = p2.next; } return list.next; }

(a) With negligible gate current, (4.3) leads to VGSQ VGG (b) By (4.6), VGSQ 2 1:67 2 IDQ IDon 1 10 10 3 1 3:39 mA 4 VT (c) By KVL around the drain-source loop, VDSQ VDD IDQ RD 15 3:39 10 3 2 103 8:22 V R2 50 103 V 15 1:67 V R2 R1 DD 50 103 0:4 106

Fig. 4-18

{ Node(p1.data);

The Java Virtual Machine is the cornerstone of the Java and Java 2 platforms. It is the component of the technology responsible for its hardware and operating system independence, the small size of its compiled code, and its ability to protect users from malicious programs. The Java Virtual Machine is an abstract computing machine. Like a real computing machine, it has an instruction set and manipulates various memory areas at run time.

For the n-channel enhancement-mode MOSFET of Fig. 4-18, gate current is negligible, IDon 10 mA, and VT 4 V. If RS 0; R1 50 k ; VDD 15 V; VGSQ 3 V, and VDSQ 9 V, determine the values of (a) R1 and (b) RD .

{ Node(p2.data);

(a) Since iG 0; VGSQ VGG of (4.3). R2 R1 (b) By (4.6), VGSQ 2 3 2 IDQ IDon 1 10 10 3 1 0:625 mA 4 VT Then KVL around the drain-source loop requires that RD VDD VDSQ 15 9 9:6 k IDQ 0:625 10 3 Solving for R2 gives VDD 15 1 200 k 1 50 103 3 VGSQ

void rotateLeft(Node list) { Node p = list, q = list; while (p != null) { p = p.next; if (p != null) { p = p.next; } q = q.next; } // now q = middle node: Node m = q; p = list; Node t=p.next, tt=m.next; while (m.next != null) { tt = m.next; p.next = m; p = m.next = t; t = p.next; m = tt; } p.next = m; }

A p-channel MOSFET operating in the enhancement mode is characterized by VT 3 V and IDQ 8 mA when VGSQ 4:5 V. Find (a) VGSQ if IDQ 16 mA and (b) IDQ if VGSQ 5 V.