Difference between revisions of "Electronics boot camp I: passive circuits and transfer functions"

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This assignment has three parts:
 
This assignment has three parts:
  
# Part 1: [[Assignment 6, Part 1: Pre-lab questions|A few questions to answer before you start your lab work.]];
+
# Part 1: [[Electronics written problems|A few questions to answer before you start your lab work.]];
# Part 2: [[Assignment 6, Part 2: Electronics bootcamp|Get in the lab and start building and measuring basic circuits]];
+
# Part 2: [[Electronics boot camp lab part 1|Build and measure circuits in the lab]];
  
 
Submit your work on Stellar in a single PDF file with the naming convention <Lastname><Firstname>Assignment6.pdf.  
 
Submit your work on Stellar in a single PDF file with the naming convention <Lastname><Firstname>Assignment6.pdf.  
{{Template:Assignment Turn In|message= Here is a checklist of all things you have to turn in: ('''individually''')
 
# answers to the [[Assignment 6, Part 1: Pre-lab questions|prelab questions]]
 
# answers to the following voltage divider questions:
 
#* Record the values you selected for R<sub>1</sub> and R<sub>2</sub>.
 
#* Find the gain of the circuit, <math>^{V_{out}}/_{V_{in}}</math>
 
#* Plot an ''I-V'' curve with ''I'' on the vertical axis and ''V<sub>in</sub>'' on the horizontal axis, over the range 0 V <  ''V<sub>in</sub>'' < 15 V. (A hand-drawn plot is fine.)
 
#* What is the maximum power dissipated in each resistor between 0 V <  ''V<sub>in</sub>'' < 15 V?
 
# the measured values of your resistors.
 
# your measured voltages ''V<sub>out</sub>'' for ''V<sub>in</sub>'' = 0, 2.5, 5, 10 and 15 V.
 
# your measured voltage across ''R<sub>2</sub>'' in the presence of the 1k&Omega; resistor. By what percentage did the measurement change?
 
# Recorded values of the current through the circuit for ''V<sub>in</sub>'' = 0, 2.5, 5, 10 and 15 V
 
# A plot of the measured ''I-V'' curve on the same set of axes as the calculated curve.
 
# your choice of capacitor and resistor values and corresponding Bode plot. Make sure to label the cutoff frequency.
 
# a plot of the measured values of <math>\frac{V_{out}}{V_{in}}</math> versus frequency on the same set of axes as your Bode plot.
 
# your Bode gain and phase plots and the corresponding circuit diagram for each of the four circuits A through D. Optional: In Matlab, use <tt>nlinfit</tt> to fit parameters of a transfer function for each circuit.
 
}}
 
  
 
{{Template:Electronics boot camp part 1 navigation}}
 
{{Template:Electronics boot camp part 1 navigation}}

Revision as of 02:22, 18 October 2018

20.309: Biological Instrumentation and Measurement

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'“It is exciting to discover electrons and figure out the equations that govern their movement; it is boring to use those principles to design electric can openers. From here on out, it's all can openers.”

— Neal Stephenson, Cryptonomicon

Photo by Brendan Dolan-Gavitt

Overview

This assignment will introduce you to electronic circuits and the test equipment commonly used to measure voltage and current. If you need to review circuit concepts, start with the Electronics Primer page.

This assignment has three parts:

  1. Part 1: A few questions to answer before you start your lab work.;
  2. Part 2: Build and measure circuits in the lab;

Submit your work on Stellar in a single PDF file with the naming convention <Lastname><Firstname>Assignment6.pdf.

Navigation

Back to 20.309 Main Page.

Background Reading

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