E

E95005. Electronic System Design Based on PIC Microcontrollers

Academic department: Electronic & Electrical Engineering
Units: 3-0-8
Requirement: E 00856 , CS00002
Equivalence: ninguna
Semester and career: 8°semestre de IEC e ISE

General aim of the course: Este curso está dirigido a los alumnos interesados en el diseño de sistemas electrónicos gobernados por microcontroladores. El curso está orientado al manejo de dispositivos que se emplean generalmente en la instrumentación, en el control y en el diseño de interfaces entre dispositivos analógicos y digitales. Durante el curso se aplicarán técnicas de acondicionamiento de señales y manejo de actuadores.
El alumno explotará las ventajas que ofrece el uso de un compilador de C, como herramienta de programación, sin perder de vista las bases de la programación en ensamblador y el conocimiento de la arquitectura interna del microcontrolador. Aprenderá el manejo de los recursos especiales del microcontrolador
Si bien, el curso está orientado al manejo de PIC16F877, los conocimientos adquiridos se podrán extrapolar a otros microcontroladores. Por otro lado, con el fin de ofrecer otras alternativas, durante el curso se revisarán otros microcontroladores de la misma familia.

Bibliography: Texto:
1. Microcontroladores PIC : Diseño Práctico De Aplicaciones, Segunda parte PIC 16F87X
By: José Ma. Angulo Usategui, Susana Romero Yesa E Ignacio Angulo Martínez
McGraw-Hill,c2000

2. PIC16F87X Data sheet
By: Microchip. www.microchip.com

Consulta:
3. C Compiler Reference Manual
By: Custom Computer Services Inc.
August 2002

4. PICmicro MCUC. An introduction to programming the Microchip PIC in CCS C
By Nigel Gardner

5. PIC : Your Personal Introductory Course
By: John Morton
Newnes, 2001

6. An Introduction To The Design Of Small-Scale Embedded Systems
By: Tim Wilmshurst
Palgrave, 2001.

7. Design With Operational Amplifiers And Analog Integrated Circuits
By: Sergio Franco.
McGraw-Hill, 2002.

8. Electronic Circuit Analysis And Design
By: Donald A. Neamen
Irwin, 1996

9. MPLAB IDE versión 6.40
PICSTART PLUS System

Instructor's profile: Profesor con Doctorado o Maestría en ingeniería eléctrica o ingeniería electrónica. Con experiencia en el diseño de sistemas analógicos y sistemas basados en microcontroladores.
Language of Instruction: Spanish

E95007. Advanced mobile telephony

Academic department: Electric Engineering
Units: 3-0-8
Requirement: E 95 006
Equivalence: None
Semester and career: 8°, 9° IEC

General aim of the course: This topic is focus on apply the fundamentals of digital and mobile telephony. Mainly, the course continue the theory of the telephony, beginning from the "Telefonica Digital y Celular" (E 95 006 ) topic. The course emphasizes the design aspect and of course, the optimization issues on this design.

Bibliography: Map info Professional User's guide
Ver. 6.5
May 2001.
Troy, New York, USA

Digital telephony and network integration. Bernhard E. Keiser and Eugene Strange. New York : Van Nostrand Reinhold, c1995, 2nd ed

Telecommunications Primer
E. Bryan Carne Second Prentice Hall 1999 0-13-022155-4
The Telecommunications Handbook Terplan/Morreale
CRC Press 2000 0-8493-3137-4

The Fundamentals of Wireless Communications Course
The Fundamentals of Cellular Communications Technologies
The Personal Communications Services
Copyright(c) 1998 Bellcore.

CDMA RF System Engeenering
1998 Artech house Inc.
685 Canton Street
Norwood MA, USA

Instructor's profile: Master on Science or Engineering or PHD on Electrical Engineering, electronics or Telecommunications, specialized on digital telecommunications.
Language of Instruction: Spanish

E95031Sensors and Biomedical Applications

Requirement: E-00-857 Speciality topic for the bachelor degree in IEC, ISE and IFI

GENERAL OBJECTIVE OF THE SUBJECT: Provide the student with a theoretical and practical base on biomedical instrumentation based on sensors and microcontrollers. This course is based on the most widely used systems in hospitals and includes some new technologies for data transmission like USB port and cordless Bluetooth. The course starts with an introduction about medical procedures as well as a description of the most common systems in biomedical instrumentation in hospitals. Thereafter we take a look on principles and applications of sensors. And later we integrate in a complete data adquisition and transmission system controled by microcontrollers.

PROFESSORS PROFILE: Professor with Master or PhD degree in Electronic Engineering. Research experience preferably in sensors and biomedical instrumentation.

The objective of this course is to design, model and co-simulate heterogeneous systems initially with hardware and software components. Also, the modeling of the system gradually incorporates components such as analog components and other non-electronic components. The design specification and co-simulation of the systems is going to require the use of technological aids such as hardware description languages, SystemC, and other industry standard development tools.

Bibliography
Textbook:
• J. Bhasker, “A SystemC primer”, Star Galaxy Publishing, 2002| ISBN 0-9650391-8-8

Reference:
• Grötker, Liao, Martin, Swan, “System Design with SystemC”, Kluwer, Academia Publishers, 2002 | ISBN 0-306-47652-5
• Felice Balarin et al.”Hardware-Software Co-Design of Embedded Systems: The POLIS approach”, Kluwer Academic Publishers, 1997 | ISBN 0-7923-9936-6.
• J. Bhansker, “A VHDL primer”, Prentice Hall, Third Edition, 1999| ISBN 0-13-096575-8.

Professor background
Instructor must hold a Ph.D. in Electrical Engineering, Computer Engineering and related areas. The instructor must have research or industry experience related to embedded system design and application specific integrated circuit design.

E95042. Biomedical Instrumentation

Academic department:E
Units:2-1-8
Requirement:E00863 or E00861
Semester and career:8º IEC, 7º IMT
Equivalence:NT
General aim of the course:To introduce the students to the principles, applications and design of medical instrumentation applied to the measurement of the most important biosignals.

Campus:Edo. México
Bibliography:Joseph J. Carr & John M. Brown, Introduction to Biomedical Equipment Technology, Prentice Hall, ISBN: 0-13-010492-2, 4a. edición, 2001.

John G. Webster (Editor), Bioinstrumentation, John Wiley & Sons, ISBN: 0-471-26327-3, 1a edición, 2004.

John G. Webster (Editor), Medical Instrumentation: Applications and Design, John Wiley & Sons, ISBN: 0-471-15368-0, 3a. edición, New York, 1998.

Instructor's profile:Master of Science in Biomedical Engineering, Bioelectronics, Electrical, Engineering, Electronics Engineering or similar. Preferably with experience in projects related to applied research and development of medical instrumentation.

Language of Instruction:Spanish

E95048. Semiconductors

Academic department:Electrical and Electronics Engineering
Units:3-0-8
Requirement:F-00-001 and Ma-00-841
Semester and career:4 IEC, 5 IFI, 5 ISE
Equivalence:none
General aim of the course:To use the statistical-mechanical and quantum-mechanical frameworks in the analysis of solid-state device properties and to provide the physical rudiments necessary in the characterization of semiconductor-based devices such as transistors, diodes, optoelectronic components and microelectromechanic systems. The student is expected to apply mathematical models (Bloch, Kronig-Penney) to understand the behavior of intrinsic and extrinsic semiconductors under equilibrium conditions.

Campus:Cd. México
Bibliography: • Ferry, David K. and Jonathan Bird. Electronic Materials and Devices. Academic Press, 2001. ISBN 01-2254-161-8.

• Grahn, Holger T. Introduction to Semiconductor Physics. World Scientific, 1999. ISBN 98-1023-302-7.
• Hamaguchi, Chihiro. Basic Semiconductor Physics. Springer-Verlag, 2001. ISBN 35-4041-639-0.
• Kittel, Charles. Introduction to Solid State Physics. Wiley, 1998. ISBN 04-7111-181-3.
• McKelvey, John P. Solid State and Semiconductor Physics. Krieger Publishing Company, 1982. ISBN 08-9874-396-6.

• McKelvey, John P. Solid State Physics for Engineering and Materials Science. Krieger Publishing Company, 1993. ISBN 08-9464-436-X.

• Navon, Charles. Electronic Materials and Devices. Houghton-Mifflin, 1976. ISBN 03-9518-917-9.

Instructor's profile: Specialist in solid-state physics or solid-state electronics with an M. Sc. or Ph. D. degree
Language of Instruction:spanish

E95049.Microdevice fabrication

Academic department:Electrical and Electronics Engineering
Units:3-0-8
Requirement:Semiconductors
Semester and career:5 IEC, 6 IFI, 6 ISE
Equivalence:E-85-046
General aim of the course:To understand and analyze the main technologies available for the fabrication of integrated circuits and microelectromechanical systems, emphasizing the scientific underpinnings, the available tools and the economic and environmental factors. To describe the operation of microsystems. To explain the fundamental laws governing the behavior of devices at micrometric and nanometric scales. To evaluate the possible future trends in nanotechnology.

Campus:Cd. México
Bibliography:• Plummer, J.D.; M.D. Deal and P.B. Griffin. Silicon VLSI Technology. Prentice-Hall, 2003. ISBN 0-13-085037-3.

• Gad-El-Hak, M. The MEMS Handbook. CRC Press, 2001. ISBN 084-930-077-0.
• Madou, Marc J. Fundamentals of Microfabrication: The Science of Miniaturization, 2nd ed. CRC Press, 2002. ISBN 084-930-826-7.

• Navon, Charles. Electronic Materials and Devices. Houghton-Mifflin, 1976. ISBN 03-9518-917-9.
• Pelesko, John A. and David H. Bernstein. Modeling MEMS and NEMS. CRC Press, 2002. ISBN 158-488-306-5.
• Razavi, Behzad. Design of Analog CMOS ICs. McGraw-Hill, 2000. ISBN 007-238-032-2.
• Van Zant, Peter. Microchip Fabrication. McGraw-Hill, 2000. ISBN 007-135-636-3.

Instructor's profile: Specialist in solid-state physics or solid-state electronics with an M. Sc. or Ph. D. degree
Language of Instruction:spanish

E95055. Intelligent Control

Academic department: Electronic & Electrical Engineering
Units:3-0-8
Requirement:Control I & Control II
Semester and career:9th Electronics & Communications Engineering , 9th Electronic Systems Engineering
Equivalence:none
General aim of the course:The ever increasing technological demands of today call for very complex systems, which in turn require
highly sophisticated controllers to ensure that high performance can be achieved and maintained under
adverse conditions. There are needs in the control of these complex systems which cannot be met by
conventional approaches to control. For instance, there is a significant interest in enhancing current
avionic systems so that they can reconfigure the aircraft controls to maintain adequate levels of
performance even if there are complete failures in one or more of the actuators or sensors. In a similar
manner, there is a significant need to achieve higher degrees of autonomous operation for robotic
systems, spacecraft, manufacturing systems, automotive systems, underwater and land vehicles, and
others. To achieve such highly autonomous behavior for complex systems one can enhance today's
control methods using intelligent control systems and techniques. [IEEE]

Campus:Cd. México
Bibliography:1. www.mathworks.com
2. www. neurolab.com
3. Intelligent Control Systems Using Soft Computing Methodologies
by Ali Zilouchian , Mohammad Jamshidi
4. Fuzzy Logic and Control: Software and Hardware Applications, Vol.2
by Mohammad Jamshidi,
5. Robust Control Systems with Genetic Algorithms
by Mohammad Jamshidi
6. oft Computing: Fuzzy Logic, Neural Networks, and Distributed Artificial Intelligence (Prentice Hall Series on Environmental and Intelligent Manufac)
by Fred Aminzadeh , Mohammad Jamshidi
7. A First Course in Fuzzy Logic, Second Edition
by Hung T. Nguyen, Elbert A. Walker
8. Fuzzy Thinking: The New Science of Fuzzy Logic
by Bart Kosko
9. Introduction to Fuzzy Sets, Fuzzy Logic, and Fuzzy Control Systems
by Trung Tat Pham, Guanrong Chen
10. Fuzzy Automata and Languages: Theory and Application
by Davender S. Malik, John N. Mordeson
11. Understanding 99% of Artificial Neural Networks : Introduction & Tricks
by Marcelo Bosque
12. Fundamentals of Neural Networks
by Laurene V. Fausett
13. Learning Bayesian Networks
by Richard E. Neapolitan
14. A First Course in Fuzzy and Neural Control
by Hung T. Nguyen, Nadipuram R. Prasad, Carol L. Walker, Ebert A. Walker
15. Neural Networks for Modelling and Control of Dynamic Systems: A Practitioner's Handbook
by Magnus Nrgaard, O. Ravn, N. K. Poulsen, Peter M. Norgaard, Lars K. Hansen

Instructor's profile: Professor with PhD in Control, mechanical, electrical or electronic engineering, with experience in the development of artificial intelligent systems.
Language of Instruction: spanish

E95086. CMOS analog microelectronics

Academic department:IE
Units:3-0-8
Requirement:E00863-Analog Integrated Circuits
Semester and career:Elective course in the following career programs: IEC,
IMT, IFI, ISE
Equivalence:None
General aim of the course:The purpose of this course is to enable the student to model, analyze and design analog integrated circuits using CMOS technologies. At the conclusion of the course, the student should be able to successfully perform the electrical and physical design of operational amplifiers and other important analog building blocks.
Campus:Monterrey
Bibliography:P. E. Allen, D. R. Holberg, CMOS Analog Circuit Design, Oxford University Press, Second Edition, 2002. (textbook)
B. Razavi, Design of Analog CMOS Integrated Circuits, McGraw Hill, 2001.
D. A. Johns, K. Martin, Analog Integrated Circuit Design, John Wiley & Sons, 1997.

T. H. Lee, The Design of CMOS Radio-Frequency Integrated Circuits, Cambridge University Press, 1998.

P. R. Gray, R. G. Meyer, P. J. Hurst, S. H. Lewis, Analysis and Design of Analog Integrated Circuits, John Wiley & Sons, 4th Edition, 2001.

Instructor's profile:Professor with Ph.D. in Electronics
Language of Instruction:Spanish

E95091. Wireless communications systems II

Academic department:Electrics and Electronics Engineering
Units:3-0-8
Requirement:E 00018 Digital Telephony or equivalent
Semester and career: 7-8-9 IEC
Equivalence:None
General aim of the course:Identify, describe and deferenciate the elements of an cellular system, for industry purpouses. To analyse and select the instruments for a specific application, using techniques from digital modulations, wireless equipments and acess techniques. To know and differentiate the radiocommunication systems and the localization systems.
Campus:Seleccionar Campus
Bibliography:Lee, William C.Y. Mobile Cellular Telecommunications
Mc Graw Hill, 2a ed. ISBN: 0-07-038089-9

Instructor's profile:Ph D or Master in Telecommunications Engineering, with a practical experience in cellular networking applications.
Language of Instruction:Spanish

E95092. New generations in optical networks

Academic department: Electrics and Electronics Engineering
Units:3-0-8
Requirement:E 00018 Digital Telephony
Semester and career:7-8-9 IEC, ISE
Equivalence:None
General aim of the course:Identify, describe and deferenciate the characteristics of optical networks to analyse and select the elements for a specific application or envolvement. To know and differentiate some classes of fiber optics and detect problems in this kind of networking. Know PDH and SHD systems. Know the new advances in optical communications systems.
Campus:Cd. México
Bibliography:Winch Robert G. Telecommunications transmissión system.
Mc Graw Hill, 1a ed. ISBN: 0-07-113768-8

Instructor's profile:Ph D or Master in Telecommunications Engineering, with a practical experience in networking application.


Language of Instruction:spanish

E95098. Industrial Instrumentation

Academic department:Electrics and Electronics Engineering
Units:3-0-8
Requirement:Mr00021 o E00863 Previous knowledge on linear systems
Semester and career:6-7 IEC, ISE & IMT
Equivalence:None

General aim of the course:Identify, describe and deferenciate the elements of an instrumentation loop, for industry purpouses, applying the measurements basic units and international norms for industrial instrumentation. To analyse and select the instruments for a specific application, using fundamental measurements elements: pressure, level, temperture and flow; for the transmition processes and convertion and for valves and linear actuators for industrial instrumentation loops. To know and differentiate some classes of instrumental amplifiers, filtereing and different structures of industrial controllers. Analyse and detect problems in the instrrumentation loop. To know and differentiate the analitical instrumentation and basics of virtual intrumentation.
Campus:Seleccionar Campus
Bibliography:Creus Antonio. Instrumentacion Industrial.
Alfaomega-Marcombo, 6a ed. ISBN: 970-15-0246-9

Instructor's profile:Ph D or Master in Control Engineering, Signal processing or Instrumentation with a practical experience in Industrial Instrumentation.
Language of Instruction:Spanish

Fecha de última actualización: 13 de diciembre de 2004.(M)