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ENGR Dept. Info Swarthmore College (Swarthmore)'s ENGR department has 45 courses in Course Hero with 61 documents.

  • School:
    Swarthmore College (Swarthmore)
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  • Professor:
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    Macken,N, McGarity,A, Cheever,E, Siddiqui,F, Moreshet,T, Molter,L, Newhall,T, Danner,A, Zucker,M, mattzucker, Everbach,C, Piovoso,M
Number of courses:
45

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ENGR Documents

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  • 3 pages E11_Measuring time constants on the TDS3014B using cursors_Fall2010

    E11_Measuring time constants on the TDS3014B using cursors_Fall2010

  • 4 pages E11_Transferring data from oscilloscope to Matlab_Fall2010
    • E11_Transferring data from oscilloscope to Matlab_Fall2010
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • ENGINEERING 11 ELECTRICAL CIRCUIT ANALYSIS Fall 2010 IMPORTING TEKTRONIX TDS 3014B OSCILLOSCOPE DATA INTO MATLAB Transferring data from oscilloscope to computer Start a web browser, and enter the IP address at the top of your scope (i.e., 130.58.84.xxx, w
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    E11_Transferring data from oscilloscope to Matlab_Fall2010

  • 7 pages E11_Lab5_Fall2010_MUS
    • E11_Lab5_Fall2010_MUS
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • ENGINEERING 11 ELECTRICAL CIRCUIT ANALYSIS Fall 2010 LABORATORY #5 TRANSIENT RESPONSE OF SECOND-ORDER RLC CIRCUITS OBJECTIVES This laboratory exercise provides an introduction to second-order resistor-inductor-capacitor (RLC) series circuits. The step res
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    E11_Lab5_Fall2010_MUS

  • 8 pages E11_Lab3_Fall2010_RevA_MUS
    • E11_Lab3_Fall2010_RevA_MUS
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • ENGINEERING 11 Fall 2010 ELECTRICAL CIRCUIT ANALYSIS LABORATORY #3 USING RESISTORS AS SENSORS OBJECTIVES This laboratory exercise introduces the practical implementation of resistors as sensors. Variable resistance components such as potentiometers and ph
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    E11_Lab3_Fall2010_RevA_MUS

  • 5 pages E11_Lab4_Fall2010_RevB_MUS
    • E11_Lab4_Fall2010_RevB_MUS
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • ENGINEERING 11 ELECTRICAL CIRCUIT ANALYSIS Fall 2010 LABORATORY #4 TRANSIENT RESPONSE OF FIRST-ORDER RC CIRCUITS OBJECTIVES This laboratory exercise provides an introduction to first-order resistor-capacitor (RC) series circuits. The step response of seve
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    E11_Lab4_Fall2010_RevB_MUS

  • 5 pages E11_Lab2_Fall2010_MUS
    • E11_Lab2_Fall2010_MUS
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • ENGINEERING 11 ELECTRICAL CIRCUIT ANALYSIS Fall 2010 LABORATORY #2 INTRODUCTION TO OPERATIONAL AMPLIFIERS OBJECTIVES This laboratory exercise will serve as an introduction to breadboards and operational amplifiers. perational Breadboards allow circuits to
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    E11_Lab2_Fall2010_MUS

  • 6 pages E11_Lab1_Fall2010_RevA_MUS
    • E11_Lab1_Fall2010_RevA_MUS
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • ENGINEERING 11 ELECTRICAL CIRCUIT ANALYSIS Fall 2010 LABORATORY #1 INTRODUCTION TO LABORATORY INSTRUMENTATION OBJECTIVES This laboratory exercise will serve as an introduction to the equipment that will be used throughout the semester. Since this lab invo
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    E11_Lab1_Fall2010_RevA_MUS

  • 2 pages E11_2010_Assignment9Rev
    • E11_2010_Assignment9Rev
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • LAM Engineering 11 ' due 11.15.10 Assignment 9 1. Solve problem P649 below, and find i(t) for 0— < t < 00. til-5649. In Fig. P619, switch S is closed at t = 0. a ’ L: C ; I l _. Determine the initial and final vaiues of: L64, R! 5 1, 1 . (a) Current 1‘ and
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    E11_2010_Assignment9Rev

  • 2 pages E11_10_Assignment11
    • E11_10_Assignment11
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • LAM Assignment 11 P3-25. Explaining your reasoning and stating any simplifying assumptions, predict current I in Fig. P325. ' 2 k9 D1 D2 2kg Figure P325 P341. In Fig. P3.41, when voltage U, = Vm(0.5 + sin wt) V, the high-resistance dc voltmeter VM reads
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    E11_10_Assignment11

  • 2 pages E11Assignment8
    • E11Assignment8
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • LAM ' Engineering 11 due 11.8.10 Electrical Circuit Analysis 1_ 7.58 The switch in the circuit shOWn in Fig. P750 has FSPEEE bee closed a 1012 time before 0 enino tr : 0. MUETISIM n g p ‘ a a Figure P750 3) What is the initial value of £06)? 2 kg _ 32 k0
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    E11Assignment8

  • 2 pages E11_2010_Assignment6
    • E11_2010_Assignment6
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • “sasasmfiflufl LAlVI ' Engineering 11 due 10.13.10 Assignment 6 _ _ page 1/2 1. . Simplify the following complex expressions. Show your results in rectangular and polar for, and plot them on the complex plane. a. : 2 v 7.17 The 240V, 2 0. source in the cir
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    E11_2010_Assignment6

  • 1 pages E11_10_Assignment4

    E11_10_Assignment4

  • 2 pages E11_2010_Assignment3
    • E11_2010_Assignment3
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • " 5.22 The circuit in Fig. P522 is a noninverting summing ) U36 the mesh—current method to determine 7 DESIGN mm“ amplifier. Assume the op amp is ideal. Design the. which sources in the circuit in Fig. P446 are gen- . PsPrté ' circuit so that Crating-powe
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    E11_2010_Assignment3

  • 1 pages E11_2010_Assignment2

    E11_2010_Assignment2

  • 2 pages E11_2010_Assignment1
    • E11_2010_Assignment1
    • Swarthmore
    • Electrical Circuit Analysis
    • ENGR 011 - Fall 2010
    • LAM ENGINEERING 11: 1.14 Two electric'circuits, represented by boxes A and B, are connected as shown in Fig. P114. The reference direction for the current fin the interconnection and the reference polarity for the voltage 1) across the interconnection are
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    E11_2010_Assignment1

  • 2 pages E5M2
    • E5M2
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % MATLAB script for E5 Assignment 2 % Name: Ascanio Guarini % Read data into a variable called "kwh" load FebKWH % Separate the data into 7 variables, one for each day. % Create arrays for the values from FebKWH that correspond to each day. d1 = k
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    E5M2

  • 1 pages E5M3
    • E5M3
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % MATLAB script for E5 Assignment 3 % Name: Ascanio Guarini % Read data into a variable called "febElecUse" % This matrix is a 29x48 matrix representing the college's electric use in % February of 2012. The columns represent 1/2 hour intervals starting a
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    E5M3

  • 3 pages E5M4
    • E5M4
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % Engineering 005 Lab 5 % Ascanio Guarini 10/4/2012 % Matrices, Iterations and Animations % Cell 1 - Simple Matrix % Solving simple simultaneous equations using matrices disp('Cell 1'); % display first cell M = [1 2 3 4; % Create matrix corresponding to c
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    E5M4

  • 4 pages E5Lab5
    • E5Lab5
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % Engineering 005 Lab 5 % Ascanio Guarini 10/4/2012 % Matrices, Iterations and Animations % Cell 1 - Simple Matrix % Solving simple simultaneous equations using matrices disp('Cell 1'); % display first cell M = [1 2 3 4; % Create matrix corresponding to c
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    E5Lab5

  • 2 pages E5Lab6
    • E5Lab6
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % Engineering 005 - Lab 6 % Ascanio Guarini 10/22/2012 % Functions and Coordinate Transformation % Cell 1 - Plot single shape % Creating a patch image of a shape using the shapes array disp(' '); disp('Cell 1'); load shapes % Load Shapes file clf % Clear
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    E5Lab6

  • 1 pages pickShape
    • pickShape
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • %Input variables % shape: a matrix that defines a set of shapes. See E5 Lab 6 for details. % n: a variable that chooses which matrix is selected. %Output variables % xShape: a vector containing x values for a shape. % yShape: a vector containing y values
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    pickShape

  • 1 pages rotTrans
    • rotTrans
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % Input Variables % x_in: a row vector of x values % y_in: arow vector of y values % theta: an angle, in degrees, for rotation % tx: distance to translate in x % ty: distance to translate in y % Output variables % xp: rotated and translated values for x %
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    rotTrans

  • 4 pages E5Lab7
    • E5Lab7
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % Cell 1 - Solve the T-Puzzle % Solving the T-Puzzle without animations clear all % Clear all variables in workspace. load shapes % Load shapes array numPieces=size(shapes,3); % Generate number of pieces theta=[0 90 -90 45]; % Define theta values tx=[1 1
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    E5Lab7

  • 1 pages getPCs
    • getPCs
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • function [pcA pcB] = getPCs(thetaA, thetaB) % The input to this function are two angles. % These angle conform to lines given by: % thetaA = mA*pcA + bA % thetaB = mB*pcB + bB % % The function returns the proper values of pwa and pwb. % % The values of
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    getPCs

  • 1 pages invKin
    • invKin
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • function [thetaA thetaB] = invKin(x,y) % This function does the inverse kinematics for the E5 robot, % Inputs: % x, y: the desired (x,y) location of the pencil % Outputs: % thetaA, thetaB: the angles of the two servo motors. La=4; Lb=3; thetaA=(180/pi)*(
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    invKin

  • 2 pages Matlab8
    • Matlab8
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • % Robot Arm % Team Robocop Date: 10/01/2012 % a=E5Shield('COM9'); % Use your own COM port number here % Cell 1 % This cell takes input from the user and uses it to calibrate % a motor connected to channel 3. It assumes that there is an E5Shield % objec
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    Matlab8

  • 1 pages gotoAngles
    • gotoAngles
    • Swarthmore
    • Engineering Methodology
    • ENGR 005 - Fall 2012
    • function gotoAngles(a, thetaA, thetaB) % This function turns servos to specified angles (in degrees). % a is "E5SHield" object. % thetaA is the angle of one motor. % thetaB is the angle of the second motor. [pcA,pcB]= getPCs(thetaA,thetaB) a.servoWrite(0,
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    gotoAngles

  • 2 pages e14_lab2
    • e14_lab2
    • Swarthmore
    • Linear Physical Systems Analysis
    • ENGR 012 - Spring 2014
    • % E14 Lab 2 Data Analysis % Clear and load data clear all close all load('E14_Lab2_Exp2.mat') % Experiment 1 Results %Mean mean_exp1 = runningmean(1000); mean_theo = 21/6; error_mean = abs(mean_exp1 - mean_theo)/mean_theo)*100; %Variance n=1:1000; for i =
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    e14_lab2

  • 5 pages e12_lab3
    • e12_lab3
    • Swarthmore
    • Linear Physical Systems Analysis
    • ENGR 012 - Spring 2014
    • % E12 Lab 3 % Date: 02/24/2014 % This program compares the approximation methods of Euler's Method and a % 4th Order Runge Kutta Method. Methods were compared for a first order % ordinary differential equation and a 4th order coupled pendulum system. % C
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    e12_lab3

  • 2 pages E12_Exam2_TakeHome
    • E12_Exam2_TakeHome
    • Swarthmore
    • Linear Physical Systems Analysis
    • ENGR 012 - Spring 2014
    • % E12 Exam 2 Take-Home % Ascanio Guarini close all clear all % Part d) Plot function, 2 ways for comparison k0=0.12; k1=0.006; H = tf([k0],[1 (k1+k0) k1*k0]); %generate transfer function %Plot using impulse command on transfer function impulse(H) title('I
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    E12_Exam2_TakeHome

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