Yacob Astatke, Craig Scott, Ken Connor*, Kemi Ladeji-Osias, Department of Electrical and Computer Engineering *Rensselaer Polytechnic Institute (RPI) ECEDHA,

Slides:



Advertisements
Similar presentations
myDAQ Biomedical Instrumentation Board
Advertisements

WATERLOO ELECTRICAL AND COMPUTER ENGINEERING 60s: Power Engineering 1 WATERLOO ELECTRICAL AND COMPUTER ENGINEERING 60s Power Engineering Department of.
Teaching Computer-Based Data Acquisition and Analysis Research Skills Using LabVIEW John Essick Reed College Reed Advanced Laboratory LabVIEW-Based Instruction.
Laboratory for SoC design TEMPUS meeting Niš,
National Instruments LabVIEW and Data Acquisition: Applications for FIRST Danny Diaz, National Instruments.
Laboratory 5: Introduction to LabVIEW. Overview Objectives Background Materials Procedure Report / Presentation Closing.
© 2009 Pearson Education, Upper Saddle River, NJ All Rights ReservedFloyd, Digital Fundamentals, 10 th ed Digital Fundamentals Tenth Edition Floyd.
1 IMPROVING THE ELECTRICAL SYSTEMS SERVICE COURSE Cliff Grigg and Ed Wheeler ECE Department Rose-Hulman Institute of Technology.
ME 322: Instrumentation Lecture 19
CCLI PI 2008www.tech.uh.edu/rock COLLABORATIVE RESEARCH: REMOTE LABORATORY FOR OPTICAL CIRCUITS COURSES Driss Benhaddou and Deniz Gurkan University of.
Yacob Astatke The Online Revolution From e-books to MOOCs: Coping, adapting, embracing Frank Vahid UC Riverside Intro Systems Research Experiences Options.
Institute Of Applied Technology ATE 1012 Grade 10 Eng. Rose Hasan.
3D Micromanufacturing Lab. School of Mechatronics Gwangju Institute of Science and Technology 3D Micromanufacturing Lab. School of Mechatronics Gwangju.
myDAQ Biomedical Instrumentation Board
Get Real About Teaching with LabVIEW and myDAQ National Instruments Confidential2 STEM Education  Science, Technology, Engineering and Math Education.
Digital Fundamentals Floyd Chapter 1 Tenth Edition
Electronics Trainer Circuit Board
Implementing LabVIEW in an Intermediate Physics Laboratory Steven Sahyun Physics Department, University of Wisconsin - Whitewater, Whitewater, Wisconsin.
Interfacing the LEGO RCX to the outside world John M. Larkin Whitworth College Spokane, WA.
Designing a Multi-Disciplinary Hybrid Vehicle Systems Course Curriculum Suitable for Multiple Departments Dr. Vincent Winstead Assistant Professor Minnesota.
Electronic Devices Laboratory CE/EE 3110 Introduction to LabView.
Online Information Competence Tutorials: Influencing Change in Traditional Library Classrooms Pamela Jackson and Charity Hope San José State University.
1 A tutorial on the VISIR Open Lab Platform and an invitation to join the VISIR Group How to open a local electronics laboratory for remote access
6/15/2002ECE 345 ECE 445: Senior Design Laboratory Lectures and Training in Electrical Hardware and Associated Skills.
Slide No. 1 Course: Logic Design Dr. Ali Elkateeb Topic: Introduction Course Number: COMP 1213 Course Title: Logic Design Instructor: Dr. Ali Elkateeb.
© 2009 Pearson Education, Upper Saddle River, NJ All Rights ReservedFloyd, Digital Fundamentals, 10 th ed Digital Fundamentals with PLD Programming.
SYDE 292 Circuits, Instrumentation and Measurement Instructor: Prof. Dan Stashuk DC 2613 Ext Objectives: Based on E & M.
Investigating Sine Waves Using National Instrument’s MyDAQ Tool
1. Hardware: each component on the microcontroller will need to be tested individually using multi-meters, logic analyzers, and circuit probe analysis.
MOBILIZING THE FORGOTTEN ARMY Cottrell Scholar Summer Conference – Summer 2013 MOBILIZING THE FORGOTTEN ARMY: Equipping TAs with Inquiry-Based Instruction.
Charge Measurement Using Commercial Devices Jinyuan Wu, Zonghan Shi For CKM Collaboration. Jan
Vassar College May 22, 1997Rensselaer1 Interactive Learning at Rensselaer Sharon Roy Director, Academic Computing Services Don Porter Associate Director,
SMART LIGHTING Diodes K. A. Connor Mobile Studio Project Center for Mobile Hands-On STEM SMART LIGHTING Engineering Research Center ECSE Department Rensselaer.
Charles L. Brown Department of Electrical and Computer Engineering EE Undergraduate Curriculum Proposal ECE Faculty Meeting 1/31/14 L.R. Harriott, Joanne.
SMART LIGHTING Using Excel with Data from Analog Discovery and LTspice K. A. Connor Mobile Studio Project Center for Mobile Hands-On STEM SMART LIGHTING.
Charles L. Brown Department of Electrical and Computer Engineering EE Undergraduate Curriculum Proposal SEAS UCC Meeting 2/12/14 L.R. Harriott, Joanne.
Course Title : ECE-246 Fundamental of Electronics Lecture #1 : Introduction Instructor: Dr. Selma Özaydın.
Introduction to LabVIEW
ELECTRONICS AND COMPUTER TECHNOLOGY DEPARTMENT TECHNOLOGY AND AVIATION DIVISION FACULTY ENGINEERING TECHNOLOGY (ELECTRONICS) VIDEO ENGINEERING TECHNOLOGY.
ECE 101 Exploring Electrical Engineering Chapter 7 Data Acquisition Herbert G. Mayer, PSU Status 11/30/2015 Derived with permission from PSU Prof. Phillip.
Simple Circuits 1 st year physics laboratories University of Ottawa
©2008 The McGraw-Hill Companies, Inc. All rights reserved. Digital Electronics Principles & Applications Seventh Edition Chapter 1 Digital Electronics.
Problem Solving Motivated Engineering Curriculum Jungho Kim University of Maryland Keywords: Self learning, active learning, problem solving, hands-on.
“Guided Hands-on Learning” in Electrical Engineering: Computer Simulations and Personal Laboratories Leonid Tsybeskov New Jersey Institute of Technology.
Fall 2006P7305: Freshman Practicum AM Receiver P7305: Learning Module for EE Freshman Practicum Chris Urban: Lead Engineer Hans-Christian Rotmann: Project.
Electrical Engineering Lab I
Diodes Part II Intro to ECSE Analysis K. A. Connor
A Portable Lab Kit for Teaching Introduction to Logic Circuits & Logic Design Brock J. LaMeres Associate Professor Department of Electrical & Computer.
Development of MEMS Course Content Using
Instrumentation & Root Mean Square Voltage
EKT124 Digital Electronics 1 Introduction to Digital Electronics
MODULE 2: Circuits, Signals and the Analog Discovery Board SUMMER CHALLENGE Electrical Engineering: Smart Lighting Michael Rahaim, PhD Candidate Multimedia.
IUSE: EHR - Enhancing and Expanding Experiential Learning Modules across Disciplines and Institutions Gloria Kim, Robert Linsenmeier, Hao Zhang, Eric Perreault,
Intro to ECSE 1010 Intro to ECSE Analysis K. A. Connor
Digital Electronics, Software and Hardware
Software for Hardware Intro to ECSE Analysis K. A. Connor
Intro to Engineering Electronics
ECET 105 Innovative Education--snaptutorial.com
ECET 105Competitive Success/snaptutorial.com
Op Amps Intro to ECSE Analysis K. A. Connor Mobile Studio Project
Intro to ECSE 1010 Intro to ECSE Analysis K. A. Connor Was ECSE 1961
EET 2259 Unit 12 Data Acquisition
Intro to Analog Discovery
DC Power Supplies Intro to ECSE Analysis K. A. Connor
Intro to Logic Gates Intro to ECSE Analysis K. A. Connor
Intro to Engineering Electronics
Electrical Engineering Lab I
Electrical Engineering Lab I
Transformers Intro to ECSE Analysis K. A. Connor Mobile Studio Project
Digital Fundamentals Floyd Chapter 1 Tenth Edition
Presentation transcript:

Yacob Astatke, Craig Scott, Ken Connor*, Kemi Ladeji-Osias, Department of Electrical and Computer Engineering *Rensselaer Polytechnic Institute (RPI) ECEDHA, Napa CA March 21-24, 2014 Ubiquitous Hands-On Learning Using Mobile Laboratory Instrumentation in the era of MOOCs MORGAN STATE UNIVERSITY

Outline This presentation will provide examples of how mobile learning and MOOC-like environments work together to: 1)Level the playing field and make higher education accessible to more engineering students; and 2)Disrupt the traditional teaching models while continuing good quality, research-based university education. Growing the Future, Leading the World

Introduction The use of technology in the classroom has greatly impacted engineering education during the last 15 years. BUT, traditional method of teaching, i.e. lecturing or “chalk-and-talk” is still dominant. Instructors need to deliver course content that students can access from anywhere at any time. WHY : today’s students expect it !!! Growing the Future, Leading the World

Mobile Hands-On Learning Hands-On Learning: Anywhere, Anytime.  New portable devices replace a rack of equipment that is equivalent to $5Kto $10K  Question: Can these new portable devices be used in MOOCs ?  Answer: YES !!! Growing the Future, Leading the World

Mobile Hands-On Learning Portable ECE Laboratory Instrumentation:  MStudio Board (RPI)  $150  myDAQ (NI)  $175 - $250  Electronics Explorer (Digilent)  $199 - $250  Agilent X-Series Scope+FG  $1,000  Analog Discovery (Digilent)  $99 - $159 (Academic) Growing the Future, Leading the World

Models of Mobile Hands-On Learning 1.Mobile Studios: Integrated Classroom Environment (RPI, Rose-Hulman) 2.Labs Integrated into Lecture-Based Courses (Georgia Tech) 3.Lab Courses with Student-Owned Devices (Virginia Tech) 4.Online Lab Courses (Morgan State University) 5.Circuits Lab MOOC-Coursera Growing the Future, Leading the World

Model #1: Mobile Studio Model (RPI) Growing the Future, Leading the World Studio classroom: Flipped Classroom  active, collaborative/team learning Hands-On, Mobile, Inexpensive PSpice, MATLAB, LabVIEW, etc. Theory, Background Fundamentals

Model #2: Labs Integrated into Lecture Courses (Georgia Tech) Growing the Future, Leading the World

Model #3: Lab Courses with Student- Oriented Devices (Virginia Tech) Lab-in-a-Box (LiaB)  Students purchase Lab Kit  $200  Plus Laptop or Tablet PC  Students conduct 10 experiments in circuits outside of the classroom and demonstrate the operation of the circuits in an open lab environment.  Scale: 700 students / semester  Developed an online circuits lab course in summer of Growing the Future, Leading the World

Model #4: Online ECE Lab Courses using Portable Devices (Morgan State) Growing the Future, Leading the World

Model #4: Online ECE Lab Courses using Portable Devices (Morgan State) Growing the Future, Leading the World Online Laboratory Demonstration using Adobe Connect  Summer of 2010

Model #4: Online ECE Lab Courses using Portable Devices (Morgan State) Growing the Future, Leading the World Online Laboratory Demonstration using Adobe Connect  Summer of 2010

Model #4: Online ECE Lab Courses using Portable Devices (Morgan State) Growing the Future, Leading the World Online Laboratory Demonstration using Adobe Connect  Summer of 2010

Model #4: Online ECE Lab Courses using Portable Devices (Morgan State) Growing the Future, Leading the World Results & comparison: F2F vs online students  Fall 2010 & Spring 2011

Portable Devices Improving ECE Education around the world (Ethiopia) Growing the Future, Leading the World ECE lab course at Hawassa Univ before (left pic) and after (right pic) the use of the Mobile Studio Boards

Summary: Mobile Hands-On Learning Model 1: In Studio-Style Courses  low-cost studio-style learning environment, more thoroughly integrates theory and practice Model 2: In Lecture-Based Courses  enhance learning of difficult concepts, low threshold Model 2: In Lab Courses  give flexibility to students, alleviates department resources Model 4: Online Lab Courses  allow students to enroll in ECE online courses and complete them from anywhere at anytime Growing the Future, Leading the World

Future of Mobile Hands-On Learning  Coursera Circuits Lab MOOC  Using NI myDAQ TM   In collaboration with Rice Univ: Prof. Don H. Johnson  Started on Jan 27, 2014  10 week course  Students complete 8 labs + Final Project  Students must purchase a myDAQ TM Lab kit :$250 Growing the Future, Leading the World

EXTRA SLIDES

19 Frontiers in Education FIE 2013 Center for Hands-On STEM Portable Instrumentation Specs Analog Discovery Specs 2-Channel Oscilloscope 2-Channel Waveform Generator 16-Channel Logic Analyzer 16-Channel Digital Pattern Generator ±5VDC Power Supplies Spectrum Analyzer Network Analyzer Voltmeter Digital I/O Now supported by MATLAB / MATLAB student edition

20 Frontiers in Education FIE 2013 Center for Hands-On STEM Portable Instrumentation Specs MyDAQ Specs The platform includes a data acquisition engine that students can use to measure two differential analog input and analog output channels (200 kS/s, 16 bits, ±10 V). The eight digital input and digital output lines (3.3 V TTL-compatible) help students interface both low voltage TTL (LVTTL) and 5 V TTL digital circuits. NI myDAQ supplies enough power for simple circuits and sensors with +5 V, +15 V, and -15 V power supply outputs (up to 500 mW of power). The isolated 60 V DMM can measure both AC and DC voltage and current as well as resistance, diode voltage, and continuity.