©2004 Brooks/Cole FIGURES FOR CHAPTER 9 MULTIPLEXERS, DECODERS, AND PROGRAMMABLE LOGIC DEVICES Click the mouse to move to the next page. Use the ESC key.

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Presentation transcript:

©2004 Brooks/Cole FIGURES FOR CHAPTER 9 MULTIPLEXERS, DECODERS, AND PROGRAMMABLE LOGIC DEVICES Click the mouse to move to the next page. Use the ESC key to exit this chapter. This chapter in the book includes: Objectives Study Guide 9.1Introduction 9.2Multiplexers 9.3Three-State Buffers 9.4Decoders and Encoders 9.5Read-Only Memories 9.6Programmable Logic Devices 9.7Complex Programmable Logic Devices 9.8Field Programmable Gate Arrays Problems

©2004 Brooks/Cole Figure 9-1: 2-to-1 Multiplexer and Switch Analog

©2004 Brooks/Cole Figure 9-2: Multiplexers

©2004 Brooks/Cole Figure 9-3: Logic Diagram for 8-to-1 MUX

©2004 Brooks/Cole Figure 9-4: Quad Multiplexer Used to Select Data

©2004 Brooks/Cole Figure 9-5: Quad Multiplexer with Bus Inputs and Output

©2004 Brooks/Cole Figure 9-6: Gate Circuit with Added Buffer

©2004 Brooks/Cole Figure 9-7: Three-State Buffer

©2004 Brooks/Cole Figure 9-8: Four Kinds of Three-State Buffers (a) (b) (c) (d)

©2004 Brooks/Cole Figure 9-9: Data Selection Using Three-State Buffers

©2004 Brooks/Cole Figure 9-10: Circuit with Two Three-State Buffers

©2004 Brooks/Cole Figure 9-11: 4-Bit Adder with Four Sources for One Operand

©2004 Brooks/Cole Figure 9-12: Integrated Circuit with Bi-Directional Input/Output Pin

©2004 Brooks/Cole Figure 9-13: 3-to-8 Line Decoder

©2004 Brooks/Cole Figure 9-13: 3-to-8 Line Decoder

©2004 Brooks/Cole Figure 9-14a: A 4-to-10 Line Decoder

©2004 Brooks/Cole (b) Block diagram Figure 9-14b: A 4-to-10 Line Decoder

©2004 Brooks/Cole (c) Truth Table Figure 9-14c: A 4-to-10 Line Decoder

©2004 Brooks/Cole Figure 9-15: Realization of a Multiple-Output Circuit Using a Decoder

©2004 Brooks/Cole Figure 9-16: 8-to-3 Priority Coder

©2004 Brooks/Cole Figure 9-17: An 8-Word x 4-Bit ROM (a) Block diagram

©2004 Brooks/Cole Figure 9-18: Read-Only Memory with n Inputs and m Outputs

©2004 Brooks/Cole Figure 9-19: Basic ROM Structure

©2004 Brooks/Cole Figure 9-20: An 8-Word x 4-Bit ROM

©2004 Brooks/Cole Figure 9-21: Equivalent OR Gate for F 0

©2004 Brooks/Cole Figure 9-22: Hexadecimal to ASCII Code Converter

©2004 Brooks/Cole Figure 9-22: Hexadecimal to ASCII Code Converter

©2004 Brooks/Cole Figure 9-23: ROM Realization of Code Converter

©2004 Brooks/Cole Figure 9-24: Programmable Logic Array Structure

©2004 Brooks/Cole Figure 9-25: PLA with Three Inputs, Five Product Terms, and Four Outputs

©2004 Brooks/Cole Figure 9-26: AND-OR Array Equivalent to Figure 9-25

©2004 Brooks/Cole Table 9-1. PLA Table for Figure 9-25

©2004 Brooks/Cole Figure 9-27b: PLA Realization of Equations (a) PLA table

©2004 Brooks/Cole Section 9.6, p. 245 Buffer logically equivalent to

©2004 Brooks/Cole Section 9.6, p. 246

©2004 Brooks/Cole Figure 9-28: PAL Segment

©2004 Brooks/Cole Figure 9-29: Implementation of a Full Adder Using a PAL

©2004 Brooks/Cole Figure 9-30: Architecture of Xilinx XCR3064XL CPLD (Figure based on figures and text owned by Xilinx, Inc., Courtesy of Xilinx, Inc. © Xilinx, Inc All rights reserved.)

©2004 Brooks/Cole Figure 9-31: CPLD Function Block and Macrocell (A Simplified Version of XCR3064XL)

©2004 Brooks/Cole Figure 9-32: Layout of a Typical FPGA

©2004 Brooks/Cole Figure 9-33: Simplified Configurable Logic Block (CLB)

©2004 Brooks/Cole Figure 9-34: Implementation of a Lookup Table (LUT)

©2004 Brooks/Cole Figure 9-35: Function Expansion Using a Karnaugh Map

©2004 Brooks/Cole Figure 9-36: Realization of Five- and Six- Variable Functions with Function Generators