ENGR 210: Intro Circuits and Instrumentation

Spring 2004, Prof. Frank Merat


General Information

Class Lectures: MWF 9:30-10:20pm, Schmitt Lecture Hall
Course Instructor: Frank Merat, flm at case.edu, Glennan 518, x4572
Prof. Merat's Office Hours:
 
Required Text
 
Supplemental Text
Solutions

Syllabus


Teaching Assistants

  • Ben Hothem bjh7 at case.edu - responsible for grading Monday HW assignments; office hours for general HW and quiz questions Thursday afternoon 3-4 PM in Glennan 519E
  • Run Wang rxw54 at case.edu - responsible for grading Tuesday HW assignments

  • Todd Levy tjl10 at case.edu - responsible for grading Wednesday HW assignments; office hours for general HW and quiz questions Tuesday afternoon 1:30-2:30 PM in Glennan 519E

  • Chad Simpson cxs101 at case.edu - responsible for hw solutions and Tuesday HW recitation

  • Run Wang rxw54 at case.edu - responsible for quiz grading

    and quiz solutions
  • Bryan Inderhees bpi at case.edu - responsible for Thursday evening recitation

    Recitations

  • White 411, Thursday 6:30-8:00pm - Bryan Inderhees

  • White 411, Tuesday 6:30-8:00pm - Chad Simpson

    Additional Office Hours

  • For help outside normal office hours, please contact the professor and teaching assistants using e-mail.

  • Lecture Notes


    Homework

    • Homework 1 Due 1/21 (PDF, 24 kB). Solutions (PDF, 64 kB).
    • Homework 2 Due 1/28 (PDF, 24 kB). Solutions (PDF, 68 kB).
    • Homework 3 Due 2/4 (PDF, 24 kB). Solutions (PDF, 120 kB).
    • Homework 4 Due 2/11 (PDF, 24 kB). Solutions (PDF, 160 kB).
    • Homework 5 Due 2/18 (PDF, 24 kB). Solutions (PDF, 184 kB).

      IMPORTANT: Many students are making numerical errors when they use the node voltage or mesh current techniques in the solution of homework problems. We HIGHLY RECOMMEND that you clearly write the node or loop equations just as in Problem 2 on Quiz 4. This will help us to identify numerical errors and give you more partial credit when we grade the homework.

    • Homework 6 Due 2/25 (PDF, 24 kB). Solutions (PDF, 292 kB).
    • Homework 7 Due 3/3 (PDF, 24 kB). Solutions (PDF, 60 kB).

      IMPORTANT: Please clearly indicate your answers by circling them. This will greatly help us in grading your papers. Also, please staple your hw papers together. This will help us to identify your work and avoid missing grades.

    • Homework 8 Due 3/17 (PDF, 24 kB). Solutions (PDF, 48 kB).
    • Homework 9 Due 3/24 (PDF, 24 kB). Solutions (PDF, 168 kB).
    • Homework 10 Due 3/31 (PDF, 24 kB). Solutions (PDF, 64 kB).
    • Homework 11 Due 4/7 (PDF, 28 kB). Solutions (PDF, 68 kB).
    • Homework 12 Due 4/14 (PDF, 24 kB). Solutions (PDF, 132 kB).
    • Homework 13 NOT to be turned in, for review only (PDF, 24 kB). Solutions CORRECTED 5/13/04 (PDF, 108 kB).

      IMPORTANT: HW13 has good examples of what you should know from Chapter 7 for the final.


    Laboratories

      Labs will be posted here on Monday morning and are due in Glennan 308 during your lab periods, one week after they are assigned.

      What to do if you think the equipment is not working.

      Manuals for the power supplies, oscilloscopes, meters, waveform generators, and Benchlink software.

      (January 20-21). Please meet with Lab TAs in Glennan 308 at the regularly scheduled laboratory times. Students will sign up for lab groups (of 2 students each) and be given a brief introduction to lab facilities. Because of the observance of Martin Luther King Day special arrangements will be announced for the Monday January 19th lab sections to receive the laboratory introduction and sign up for laboratory teams at another time.

    • Lab 1 (PDF, 160 kB) BASIC CIRCUITS AND OHM'S LAW
      Reports are to be done individually and turned in during regular lab sections during January 26-28.
      This lab may be done by downloading the lab software (read the lab for more details) to any Windows (or Mac) computer.
    • Lab 2 (PDF, 248 kB) BASIC LabVIEW PROGRAMMING
      (This lab will be done in Glennan 308 during January 26-28. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section February 2-4).
      This lab covers basic LabVIEW programming concepts. Although we will not use LabVIEW extensively in ENGR 210 it is commonly used by biomedical, chemical, mechanical and most other engineers in industry. NOTE: Monday laboratory groups will have a short orientation( at the beginning of this week's lab section) to the lab and assignment of partners to make up for the lab missed last Monday..
    • Lab 3 (PDF, 644 kB) BASIC MEASUREMENTS USING LabVIEW AND THE DMM
      (This lab will be done in Glennan 308 during February 2-4. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section February 9-11).
      This lab covers using LabVIEW to make very simple voltage measurements using a suitably equipped computer and comparing these measurements with the same measurements using a Digital MultiMeter.
    • Lab 4 (PDF, 140 kB) INTRO TO THE OSCILLOSCOPE/FUNCTION GENERATOR
      (This lab will be done in Glennan 308 during February 9-11. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section February 16-18).
      This lab introduces you to two of the most important instruments you can use to generate electrical test signals (the function generator) and the device which you can use to measure the time dependent behavior of circuits (the oscilloscope). UPDATED 2/9/04

      Oscilloscope Probe Manual . This document describes the electrical behavior of the oscilloscope probes used in the circuits lab.

    • Lab 5 (PDF, 124 kB) KCL AND KVL
      (This lab will be done in Glennan 308 during February 16-18. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section February 23-25).
      You will construct a linear circuit of nine elements; measure the DC currents and voltages in the circuit; and validate Kirchoff's Laws and the superposition property for this linear circuit.
    • Lab 6 (PDF, 108 kB) THEVENIN EQUIVALENT CIRCUITS
      (This lab will be done in Glennan 308 during February 23-25. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section March 1-3).
      You will construct a linear circuit of eight elements (two voltage sources and six resistors); measure the i-v characteristics of this circuit at several output points,and determine the Thevenin equivalent circuit for each output.
    • Lab 7 (PDF, 136 kB) BASIC OP-AMP CIRCUITS
      (This lab will be done in Glennan 308 during March 1-7. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section March 15-17 — AFTER SPRING BREAK).
      This lab will introduce you to the integrated circuit OP AMP. In this lab you will learn how to power the integrated circuit OP AMP, construct simple inverting and non-inverting amplifier circuits based upon the OP AMP, and measure their operating characteristics.
    • Lab 8 (PDF, 84 kB) NON-LINEAR OP-AMP CIRCUITS
      (This lab will be done in Glennan 308 during March 15-18. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section March 22-24 ).
      This lab will introduce you to non-linear OP AMP circuits of which the comparator discussed in class and homework is one. In this lab you will build a comparator circuit using an OP AMP, measure its performance for signals with and without noise, and examine the performance of the Schmitt trigger for the same noisy signal.
    • Lab 9 (PDF, 140 kB) MEASURING RC TIME CONSTANTS
      (This lab will be done in Glennan 308 during March 22-24. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section March 29-31).
      This lab will introduce you to the experimental measurement of RC time constants using a digital oscilloscope.
    • Lab 10 (PDF, 128 kB) EXPONENTIAL WAVEFORM IC
      (This lab will be done in Glennan 308 during March 29-31. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section April 5-7).
      This lab introduces you to one of the most popular integrated circuits -- the 555 timer. You will use it as a one-shot (a popular circuit for removing noise from electrical signals), an oscillator, and a water level sensor.

      555 Lecture Notes These lectrure notes descibe the internal structure of the 555 (essentially two comparaors and a switch) and show how to perform 555 timing calculations based upon your knowledge of exponential waveforms.

    • Lab 11 (PDF, 136 kB) PASSIVE RL AND RC FILTERS
      (This lab will be done in Glennan 308 during April 5-7. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section April 12-14).
      This lab will examine the frequency dependence of capacitors and inductors in simple circuits. You will construct simple filter circuits and measure the magnitude and phase response of these circuits to sinusoids of various frequencies.

      BandPass Filter Analysis These notes derive the frequency response of the bandpass filter used in Lab #11 (Figure 6). The analysis is complicated because the two filter sections (a lowpass and a highpass) cannot be electrically separated from each other.

    • Lab 12 (PDF, 160 kB) ACTIVE RL AND RC FILTERS
      (This lab will be done in Glennan 308 during April 12-14. The corresponding lab write-up (ONLY ONE PER GROUP) will be due during your lab section April 19-21).
      This lab will measure the magnitude and phase response of active filter circuits as a function of frequency. This lab is the last lab of the semester!

      Second Order LowPass Filter Analysis These notes derive the frequency response of thefirst and second order lowpass filters used in Lab #12 (Figures 4 and 5). UPDATED 4/20/04.


    Quizzes


    Final Exam

    • The final exam is Tuesday May 4th from 8:30-11:30 AM in Schmitt Lecture Hall.
    • Download the final exam . (PDF, 408 kB)
    • Download the final exam solutions. (PDF, 244 kB)

    Formula Sheet

      Several students indicated they wanted a formula sheet for the exams. This formula sheet covers the entire semester and can be used on all quizzes and the final exam.

    • ENGR 210 Circuits Formula Sheet (PDF, 56 kB)

    Circuits at other schools

      It is often interesting to compare what we do in ENGR 210 to that done in similar classes at other schools.

      MIT's 6.002 Circuits and Electronics course emphasizes MOSFETs (electrically controlled resistors) and modeling.
      Michigan's EECS 215 Introduction to Circuits is pretty similar to ours.
      Berkeley's EECS40 class emphasizes microelectronics.
      Stanford's E40 Introduction to Electronics course emphasizes a lot more digital electronics.
      Illinois' ECE205 Introduction to Electric and Electronic Circuits uses a lot of computerized testing.
      Carnegie Mellon's 18-220 Fundamentals of Electrical Engineering course appears to be the most similar to ENGR 210. However, their course is very different from ours and, as CMU uses Blackboard, very little information is publically available.
      Duke's ECE 61L Introduction to Electric Circuits has a pretty eclectic Web site which includes Ben Franklin's original electric kite paper.
      Ohio State's EE205 Circuit Analysis class uses the same text we do but they do not appear to have anything publically accessible on-line.
      Rensselaer Polytechnic Institute's ECSE 2010 Electric Circuits class also uses the same text we do. However, they teach it in a "studio" style in which lectures and labs are integrated in the same classroom. They also cover virtually the entire book (see syllabus) in this course as they covered introductory electronics in their Freshman ENGR-1310 Engineering Electronics course.

    Useful Links

    This is a resistor color code calculator for when you forget what the colors mean.

    This is an explation of how to read resistor and capacitor color codes.

    This is a simple tutorial of how to build circuits using a protoboard.

    Let me know of any interesting Circuits Web sites you come across!


    Created: 2004-1-1. Last Modified: 2005-1-20.