COMBINATIONAL LOGIC CIRCUITS. 1. Preliminary Concepts. 2. Logic Gates: INVERTER, OR, and AND. 3. Logic Gates: NAND and NOR. 4. Boolean Theorems. 5. Universality of NAND and NOR Gates. 6. Analyzing Combinational Logic Circuits. 7. Simplifying Combinational Logic Circuits. 8. Logic Simplification Using Karnaugh Maps. 9. Designing Combinational Logic Circuits. 10. Troubleshooting Combinational Logic Circuits. II. ARITHMETIC LOGIC CIRCUITS. 11. Logic Gates: XOR and XNOR. 12. Arithmetic Circuits. 13. Parallel Binary Adder. 14. BCD Adder. 15. Parity Generator/Checker. 16. Magnitude Comparator. 17. Troubleshooting Arithmetic Circuits. III. MSI LOGIC CIRCUITS. 18. Decoders and Encoders. 19. Multiplexers and Demultiplexers. 20. Troubleshooting MSI Logic Circuits. IV. SEQUENTIAL LOGIC CIRCUITS. 21. S-R and D Latches. 22. Edge-triggered Flip-Flops. 23. Monostable and Astable Multivibrators. 24. Registers and Data Storage. 25. Asynchronous Counters. 26. Synchronous Counters. 27. BCD Counters. 28. Troubleshooting Sequential Logic Circuits. V. INTERFACING THE ANALOG WORLD. 29. Digital-to-Analog Converters. 30. Analog-to-Digital Converters. 31. Data Acquisition. Appendix A. IC Chip Pin Diagrams. Appendix B. Notes on Using Electronics Workbench. Bibliography.

This unique and innovative laboratory manual helps users learn and understand circuit analysis concepts by using Electronic Workbench software to simulate actual laboratory experiments on a computer. Learners work with circuits drawn on the computer screen and with simulated instruments that act like actual laboratory instruments. Circuits can be modified easily with on-screen editing, and analysis results provide fast, accurate feedback. "Hands-on" in approach throughoutin both interactive experiments and a series of questions about the results of each experiment--it is more cost effective, safer, and more thorough and efficient than using hardwired experiments. This For use with any DC/AC text.

COMBINATIONAL LOGIC CIRCUITS. 1. Preliminary Concepts. 2. Logic Gates: INVERTER, OR, and AND. 3. Logic Gates: NAND and NOR. 4. Boolean Theorems. 5. Universality of NAND and NOR Gates. 6. Analyzing Combinational Logic Circuits. 7. Simplifying Combinational Logic Circuits. 8. Logic Simplification Using Karnaugh Maps. 9. Designing Combinational Logic Circuits. 10. Troubleshooting Combinational Logic Circuits. II. ARITHMETIC LOGIC CIRCUITS. 11. Logic Gates: XOR and XNOR. 12. Arithmetic Circuits. 13. Parallel Binary Adder. 14. BCD Adder. 15. Parity Generator/Checker. 16. Magnitude Comparator. 17. Troubleshooting Arithmetic Circuits. III. MSI LOGIC CIRCUITS. 18. Decoders and Encoders. 19. Multiplexers and Demultiplexers. 20. Troubleshooting MSI Logic Circuits. IV. SEQUENTIAL LOGIC CIRCUITS. 21. S-R and D Latches. 22. Edge-triggered Flip-Flops. 23. Monostable and Astable Multivibrators. 24. Registers and Data Storage. 25. Asynchronous Counters. 26. Synchronous Counters. 27. BCD Counters. 28. Troubleshooting Sequential Logic Circuits. V. INTERFACING THE ANALOG WORLD. 29. Digital-to-Analog Converters. 30. Analog-to-Digital Converters. 31. Data Acquisition. Appendix A. IC Chip Pin Diagrams. Appendix B. Notes on Using Electronics Workbench. Bibliography.

This laboratory manual uses Electronics Workbench to simulate actual lab experiments on a computer. Berube (Community College of Rhode Island) designed the experiments to help reinforce the classroom theory in a dc and ac electric circuits course, including discussions of nodal voltage circuit analy

For courses in Electric Circuits. This unique and innovative laboratory manual helps students learn and understand circuit analysis concepts by using Electronic Workbench software to simulate actual laboratory experiments on a computer. Students work with circuits drawn on the computer screen and with simulated instruments that act like actual laboratory instruments. Circuits can be modified easily with on-screen editing, and analysis results provide fast, accurate feedback. "Hands-on" in approach throughout - in both interactive experiments and a series of questions about the results of each experiment - it is more cost effective, safer, and more thorough and efficient than using hardwired experiments. This lab manual can be sold for use with any DC/AC text. Note: This book no longer comes with a CD. Any reference to a CD within the book is out of date and will be updated on our next printing. The information from the CD is available online: http: //media.pearsoncmg.com/ph/chet/chet_electronics_student_1/ Click on Older Titles

The accompanying CD-ROM includes all of the troubleshooting circuits and all of the circuits needed to perform the experiments.

For junior-level courses in Digital Electronics. Designed to help students perform important and relevant analysis on typical circuit configurations on the computer without the cost of the associated lab equipment this lab manual provides hands-on experience in using the virtual instruments of Electronic Workbench to simulate the operation of many typical digital circuits from basic logic gates (AND, OR, inverter) through decoders, oscillators, D/A converters, and others. It features clear, multi-step procedures supported with screen shots for each step, troubleshooting exercises, critical thinking questions, and an accompanying disk with all necessary files.

Created to provide a safer and more cost effective lab environment, these innovative manuals introduce new methods to learning and understanding circuit analysis concepts by using Electronics Workbench to simulate actual lab experiments on the computer. Using the latest circuit simulation software, they allow for easy circuit modification, more extensive troubleshooting experiments, and more powerful computational tools. Readers work with circuits drawn on the computer screen and with simulated instruments that act like actual laboratory instruments. Circuits can be modified easily with on-screen editing, and analysis results provide fast, accurate feedback. The manuals provide extensive technical preparation for each interactive experiment, and a series of questions about the results of each experiment requires users to think about and to analyze the results of the experiments in more depth than is customary in other lab manuals. The manual examines diodes, bipolar transistors, field-effect transistors, operational amplifiers, amplifier frequency response, active filters, and oscillators. For individuals interested in fine tuning their knowledge of electronic devises using Electronics Workbench.

2012 International Conference of Intelligence Computation and Evolutionary Computation (ICEC 2012) is held on July 7, 2012 in Wuhan, China. This conference is sponsored by Information Technology & Industrial Engineering Research Center. ICEC 2012 is a forum for presentation of new research results of intelligent computation and evolutionary computation. Cross-fertilization of intelligent computation, evolutionary computation, evolvable hardware and newly emerging technologies is strongly encouraged. The forum aims to bring together researchers, developers, and users from around the world in both industry and academia for sharing state-of-art results, for exploring new areas of research and development, and to discuss emerging issues facing intelligent computation and evolutionary computation.