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University Outreach

About University Outreach

The purpose of the University Outreach program is to get ADVANCED Motion Controls servo drives into the hands of future engineers and further the educational process in motion control. The ADVANCED Motion Controls University Outreach program has been successful in hundreds of projects since 2004. Users gain valuable hands-on experience with high performance motion control equipment on various projects in support of their personal or organizational mission.

"Let me say that the AMC servo amps were probably the most reliable parts of the whole rig! We had plenty of headroom in terms of current and no problems with precision. We are very grateful for the discount that AMC gave us on the servo amps and we couldn't have done it without them!"

-Buddy Michini, MIT

From the very beginning, AMC has partnered with many in academia including: professors, researchers, and students by providing products for those requiring motion control equipment. In doing this, AMC receives plenty of satisfaction merely by assisting in the overall education. Our objective is to ease as much as feasible the financial burdens that come with establishing practicality while attempting to prove theory or ideas.

Click Here to Get Started with University Outreach

There are a minimal set of criteria to agree upon beforehand to be considered for support under the University Outreach program. First, a complete description of the project with anticipated hardware / support needs must be submitted. Second, confirmation that AMC can be listed as a sponsor in some manner throughout the activities of the project. And finally, an update as to the project's outcome.

Once initiated, we would be pleased to fulfill the request with either greatly cost-reduced or completely donated equipment. This will be up to the discretion of ADVANCED Motion Controls based on the project's contribution and financial need. Upon mutual agreement, it would be a simple matter of placing the equipment order on your respective educational institution's letterhead stating the intention and requesting the materials. No further paperwork will be necessary.

Click here to get started. Submit your request by filling out the University Outreach form!

View a list of servo drives available for FREE, or browse through our standard product line for need-based discounts or donations.

AMC Logo Download

The ADVANCED Motion Controls Logo is available in various sizes and formats for you to use on your project or website.

Featured Applications

These applications have taken advantage of the support provided by University Outreach.

Utah State University

Location:

North Logan, UT

Participants:

Electrical and Computer Engineering

Contact:

Dr. Kevin Moore

website:

http://www.utahstate.usu.edu/issues/spring%2002/spr02.otis.html

AMC Model:

10A8DD

Able-bodied young people aren't the only recruits sought by the U.S. military. Robots, developed by Utah State researchers at the Army's request, are inspecting suspicious vehicles in parking lots.

At less than four inches tall, the self-propelled robot on wheels can scurry underneath parked vehicles and snoop for bombs with its video camera.

Carnegie Observatories

Location:

Pasadena, CA

Participants:

Contact:

Mr. David Harbur

website:

http://www.ociw.edu/

AMC Model:

50A8, SRST70, FC15030

The Magellan Project a collaboration between the Observatories of the Carnegie Institution of Washington (OCIW), University of Arizona, Harvard University, University of Michigan, and Massachusetts Institute of Technology (MIT) to construct two 6.5 Meter optical telescopes in the southern hemisphere. The telescopes are located at Las Campanas Observatory, at an altitude of 8000 feet in the Chilean Andes, and operated by OCIW.

University of South Carolina

Location:

Columbia, SC

Participants:

Departmen of Mechanical Engineering

Contact:

Mr. Robert Kennedy

website:

http://www.me.sc.edu/SolarBoat/

AMC Model:

B100A8

The USC solar boat team competes in an annual week-long event called Solar Splash, the Solar Boating World Championship. We have been World Champions three times The international competition consists of three major events: sprint, slalom, and endurance. The Sprint race is a 300 meter sprint and is organized into something similar to a double elimination tournament. The slalom is a high speed maneuverability race that tests the boats’ handling abilities. The endurance race is the main event. The endurance consists of two 2 hour races during which teams try to accumulate the highest number of laps.

University of Connecticut

Location:

Storrs, CT

Participants:

Mechanical Engineering

Contact:

Ms. Jacqueline Veronese

website:

http://www.engr.uconn.edu/me/pdf/Brochure04.pdf (Team 7)

AMC Model:

25A8

This project involved the creation of an electromagnetic active device that attenuates transient oscillations in a helicopter tail rotor driveshaft. The device prevents large torsional overshoot within the shaft and reduces oscillation settling time. The result is increased operational life expectancy due to reduced fatigue.

University of Colorado

Location:

Boulder, CO

Participants:

Aerospace Engineering

Contact:

Mr. Zac Eichmeyer

website:

https://webfiles.colorado.edu/arringo/ASEN/SpEC/spec_home.htm

AMC Model:

B20A25

Conceive, design, fabricate, integrate, test, and verify a space elevator climber prototype to ascend and descend a thin ribbon carrying a payload following the 2006 guidelines for the NASA Space Elevator Challenge 2010. The competition will not be attended but the climber will be designed in every aspect for a "phantom" beam power. Theoretical performances of the "phantom" beam power will be calculated in order to regulate the actual power that will be supplied to the climber.

Ohio State University

Location:

Columbus, OH

Department:

Mechanical Engineering

Contact:

Dr. Eric R. Westervelt

website:

http://www.mecheng.ohio-state.edu/locomotion/

AMC Model:

ZB12A8, PS16L30

A primary goal of this lab is to develop design principles and control theory approaches for legged machines that are able to realize fast and efficient locomotion. Also being explored is the application of the understanding gained from the study of robotic locomotion to the study of human gait and lower-limb prosthetic design.

Stanford University

Location:

Stanford, CA

Department:

Mechanical Engineering Design Division

Contact:

Mr. Paul Csonka

website:

http://www.stanford.edu/group/locolab

AMC Model:

BE40A8

Evaluation of autonomous galloping quadraped robot

Ohio State and Stanford Universities are cooperating to better understand quadrupedal galloping through the design of a self-contained quadrupedal robot. The leg for this quadruped was first designed at Ohio State University (OSU). A second-generation leg is being tested at Stanford University.

The Stanford leg incorporates important characteristics of a quadruped leg. These characteristics are grouped into three categories: biomimetic design, design for simulation and control, and design for experimentation. Important biomimetic design characteristics include minimal impact loss, elastic energy storage, and low inertia. Important characteristics for simulation and control include freedom from tether forces, high structural rigidity, and uncoupled actuation. To facilitate experimentation, the leg should resist the vibration of constant galloping, and be rapid to fabricate. The Stanford leg design is intended to improve on the OSU leg design with respect to these characteristics.

Dartmouth College

Location:

Hanover, NH

Department:

Thayer School of Engineering

Contact:

Dr. Laura Ray

website:

http://engineering.dartmouth.edu/other/crobots/

AMC Model:

BE15A8-H

Our research task is the design and fabrication of a lightweight mobile robot that enables deployment of instrument networks in Antarctica. One can envision deploying multiple robots from the South Pole to desired locations on the plateau for long- or short-term observation, and retrieving or repositioning the robot network through Iridium-based communication. Potential missions include deploying arrays of magnetometers, seismometers, radio receivers and meteorological instruments, measuring ionosphere disturbances through synchronization of GPS signals, using ground-penetrating radar (GPR) to survey crevasse-free routes for field parties or traverse teams, and conducting glaciological surveys with GPR. Robot arrays could also provide high-bandwidth communications links and mobile power systems for field scientists.

Educational Institution Location Department Main Contact Project Name / Description AMC products (quantity) Website or other Informatoin
Bucknell University Lewisburg, PA Mechanical Engineering Keith Buffinton Adaptive Pulse-Width Control of Structurally Flexible Systems Z6A6  
California Institute of Technology Pasadena, CA Astronomy Dr. Anthony Readhead Cosmic Background Imager S100A40, PS50A website
California Polytechnic State University San Luis Obispo, CA Mechanical Engineering Mr. Joe Walsh Plankton Viewing Exhibit for K-12 students with 3-D physical models 12A8  
California Polytechnic State University San Luis Obispo, CA Mechanical Engineering Mr. Christopher Koroly Robotic Sea Camera Exhibit for the Port of San Luis Marine Institute ZDR150EE12A8LDC, MC1XZDR  
California State University at Northridge Northridge, CA Manufacturing System Engineering Management Dr. Kang Chang Graduate project designing and building a 3-axes machining center - MSE 697 50A8, 50A20, PS16L60  
Carnegie Mellon University Pittsburgh, PA Robotics Jonathan Hurst Biped with Mechanically Adjustable Series Compliance PS16H160 website
Carnegie Observatories Pasadena, CA ? Mr. David Harbur Chilean telescope project 50A8, SRST70, FC15030 website
Clarkson University
Potsdam, NY MAE Department Mr. Kevin Fite Electrically-powered Active Knee Prosthesis for Transfemoral Amputees. Development and control of an actively powered lower-extremity prosthesis. Z12A8 (1)  
Clemson University Clemson, SC Electrical and Computer Engineering Mr. Vilas Chitrakaran Develop biologically inspired soft robot manipulators resembling biological trunks and tentacles. Z12A8, MC2XZQD website
Colorado School of Mines Golden, CO Division of Engineering Dr. Richard E. Christenson Full-Scale experimental verification of semi-active control applied to a nonlinear structure. 30A8 website
Colorado State University
Pueblo, CO Engineering Nebojsa Jaksic Laboratory equipment for Mechatronics BD30A8 (15), DR101EE15A40NAC(15), 25A20-INV (15)  
Concordia University Montreal, PQ Mechanical & Industrial Engineering Dr. Weng-Fang Xie Mechatronics - high precision control of imperfect actuator over wider temperature range. 30A20AC website
Cuesta College
San Luis Obispo, CA Engineering & Technology Mr. Jeremy Edmonds Industrial Electronics Motor Control Lab ZDR150EE12A8 (10), MC1XZDR (10)  
Dartmouth College Hanover, NH Engineering Department Mr. Eric Trautmann Antarctic robot B30A8 (4) blog/website
Dartmouth College Hanover, NH Thayer School of Engineering Dr. Laura Ray Intelligent Control of Distributed Systems ZBH12A8 website
Florida Institute of Technology
Melbourne, FL Mechanical and Aerospace Engineering Hector Gutierrez Sub micro-meter control of a 6 DOF machine. 3 translational axes (200mm x 200mm x 1mm) and 3 rotational axes. 25A20-INV (6)  
Florida Institute of Technology
Melbourne, FL Mechanical and Aerospace Engineering Hector Gutierrez Modeling Slosh Dynamics in Cryogenic Fuel Tanks. Develop an experiment to study low-gravity fluid sloshing. The model is intended to improve spacecraft performance when large motions lead to liquid propellant slosh within the fuel tanks. To mimic low-gravity conditions, preparations for a multi-DOF experiment in NASA's zero-gravity aircraft are currently under way, and will take place in the summer of 2008. B60A40AC (2), B25A20AC (1), BE25A20AC-INV (1)  
Florida State University
Tallahassee, FL Meteorology Dr. Peter Ray Mobile Doppler Research Facility A state-of-the-art mobile Doppler research facility with the special capacity of withstanding the most severe hurricane force winds. Drive is a replacement for an existing application. B30A40 (1)  
Georgetown University Washington, DC   Mr. Jonathan Tang Upperbody exoskeleton for shoulder rehabilitation B30A8  
Georgia Institute of Technology Atlanta, GA Electrical Engineering Mr. Shane Migliori Neuromuscular Control of a Full-Scale Robotic Human Leg 50A8, FC15030 website
Georgia Institute of Technology Atlanta, GA GTRI - Georgia Tech's Research Inst. Mr. Gary McMuray Intelligent control of a robotic endoscope DR101EE20A8BDC  
Harvey Mudd College Claremont, CA Engineering Mr. Robert Parish Engineering clinic to develop a new type of submersible proplusion that involves pitching the individual blades of a rotating propeller BE25A20AC, BFC10010  
Helsinki University of Technology Helsinki, Finland Machine Design Laboratory Mr. Jari Kostamo Developing magnetorheological solutions for active vibration control in large rotating machines. 25A8  
Johns Hopkins University
Baltimore, MD Mechanical Engineering David Grow Haptic Simulation of Elbow Joint Spasticity. We are developing a simulator that replicates spastic arm dynamics for clinical training of physical therapists and neurologists. 25A20 (2)  
Lehigh University Bethlehem, PA Civil Engineering Mr. Matthew Velderman Active Building Control (ABC) project DR100EE20A8BDC, PS300W72  
Lehigh University Bethlehem, PA Packard Laboratory, Mechanical Engineering and Mechanics Dr. Duke Perreira Student lab station solutions for the "dynamics" section 10A8, MC1X510 website
Massachusetts Institute of Technology Boston, MA Aeronautics and Astronautics Buddy Michini Autonomous Stability Control of a Moving Bicycle Z12A8DDC website
McMaster University
Hamilton, ON Canada Mechanical Engineering David Leferink Proof of concept design for drilling small holes (200-500 microns) in glass using a technique similar to Electrical Discharge Machining (EDM). DR101EE15A40NAC (1)  
Michigan State University
East Lansing, MI Mechanical Engineering Mr. Louis Flynn Bipedal Walker, a simple bipedal walker that uses the inherent dynamics of the walker to increase stability and decrease complexity of control. ZDR150EE12A8LDC (4), MC1XZDR (4)  
Michigan State University East Lansing, MI Mechanical Engineering Mr. Nandagopal Methil Tactile and haptic interface for telediagnostics of breast pathology in remote areas 12A8, PS2X3W24 website
Michigan Technological University
Houghton, MI Mechanical Engineering Justin Keske Active control of exhaust system on a snowmobile engine to maintain quiet engine noise at all speeds. DR101EE15A40NAC (1), DR101EE30A40NAC (1)  
Mississippi State University Mississippi State Electrical and Computer Engineering Dr. Bryan Jones cable-actuated continuum trunk Z12A8 website
North Carolina Agricultural & Technical State University Greensboro, NC Electrical & Computer Engineering Dr. David Song Autonomous robotic vehicle research 30A8, FC10010  
Ohio State University Columbus, OH Mechanical Engineering Dr. Jim Schmiedeler X-Y Table for Human Arm Motion Coordination Studies. BE30A8, PS16L30  
Ohio State University Columbus, OH Mechanical Engineering Dr. Eric R. Westervelt Design of a biped robot capable of planar walking and running to be used as mechanism for investigating locomotion gaits and control. B60A40AC website
Ohio University Athens Mechanical Engineering Christopher Gregg Electric vehicle testbed B100A40  
Old Dominion University Norfolk, VA Aerospace Engineering Thomas Alberts ODU Maglev 100A40, PS50A  
Oregon Institute of Technology Klamath Falls, OR Manufacturing Engineering Dr. Nathan Mead Portable servo laboratories 10A8, MC1X510C website
Oregon State University Corvallis, OR Mechanical Engineering Mr. Mike Chamblin Insect Identification for Environmental Monitoring and Ecological Science DPRALTE-020B080  
Pennsylvania State University University Park, PA Department of Mechanical Engineering Dr. Eric Keller 5 axis robot arm for Segway platform ZDCR300EE12A8LDC, MC1XZDCR website
Purdue University
Hammond, IN Electrical Computer Engineering Technology Mr. Joe Cody Self-Navigating Tracked Vehicle. The vehicle will self-navigate a set of user-defined coordinates utilizing a digital compass and encoder feedback for position/displacement and heading information. The ADVANCED Motion Controls servo drives will provide the control necessary for precise motion. Z12A8 (2)  
Rensselaer Polytechnic Institute Troy, NY Department of Mechanical, Aerospace, and Nuclear Engineering Dr. Kevin C. Craig LOT-V (Light Object Transport Vehicle) Z6A6 website
Rice University Houston, TX Electrical Engineering Mr. Matt Gen The Banister Project: Bipedal Running Robot Z12A8  
Rice University Houston, TX Mechanical Engineering Mr. Russell Schafer TIPSY - Two-dimensional Inverted Pendulum control project 30A8  
Royal Military College of Canada Kingston, ON Canada Mechanical Engineering Marc Arsenault Analysis of tensegrity mechanisms. Tensegrity mechanisms are a relatively new type of mechanism built by an assembly of components that are either in tension or in compression for all possible configurations. This has the advantage of allowing for the use of cables for the tension components thus reducing the overall mass and inertia of the mechanisms' moving parts. 12A8 (8), PS300W24 (4)  
Saginaw Valley State University Saginaw, MI Electrical & Computer Engineering Mr. Pietro Condello Drive-by-wire Go-Kart 120A10  
Stanford University Stanford, CA SUMMIT Dept. / Mechanical Engineering - Dept. Mr. Chris Enedah HAVnet Teledermatoloty Project, remote haptic dermatology ZDR150EE12A8LDC, PS16L36, PS300W24  
Stanford University Stanford, CA Mechanical Engineering Design Div. Mr. Paul Csonka Evaluation of autonomous galloping quadraped robot. BE40A8 website
Stanford University Stanford, CA Mechanical Engineering - Dynamic Design Lab Mr. Josh Switkes Driving simulator of steering wheel force feedback. 30A20AC website, website
Texas A&M
College Station, TX Mechanical Engineering Ali Sadighi Development of linear motor to run in two phase and three phase configurations. 30A20AC (1)  
Texas A&M Kingsville, TX Mechanical Engineering Dr. Selahattin Ozcelik Undergraduate research / student engagement of new technological solutions. B12A6, B15A8  
Univeristy of La Plata - Instituto Argentino de Radioastronomía Buenos Aires, Argentina Technology Transfer Mr. Luciano Gimenez Automation of Antenna Measurement Systems for Anechoic Chambers 25A20DD website
Université de Sherbrooke Sherbrooke, PQ ETS - École de Technologie Supérieure Mr. Raymond Robert Tidal Liquid Ventilator for patients with respiratory difficulty ZB6A6 website
Université du Québec Montreal, PQ ETS - École de Technologie Supérieure Mr. Stéphane Achkar Walking Machine ÉTS BE15A8 website
University of Albany Albany, NY College of Nanoscale Science and Engineering Mr. Terry Black   B30A8  
University of British Columbia Vancouver, BC Engineering Physics Steve Jones UBC Snowstar, 2006 Space Elevator B40A8 website, website
University of California, Berkley Berkley, CA Department of Mechanical Engineering Mr. Anthony Levandowski DARPA's Grand Challenge 'Blue Team' motorcycle gimbal control. BD15A8, 50A8DD website
University of California, San Diego San Diego, CA Marine Physical Laboratory Mr. David Price   BE40A8 website
University of California, San Diego San Diego, CA Marine Physical Laboratory Mr. David Price   B100A8 website
University of California, San Diego San Diego, CA Marine Physical Laboratory Mr. David Price   ZDR150EE12A8LDC, ZB12A8, BE15A8-H website
University of California, Santa Barbara Santa Barbara, CA Mechanical Engineering Dr. Brad Paden Mechatronics instruction laboratory demonstrations for ME104 - Sensors, Actuators and Computer Interfacing BX25A20AC website
University of Colorado
Boulder, CO Aerospace Engineering Michael Krieg Unmanned Underwater Vehicle competition sponsored by AUVSI. A new method of generating control forces will emulate the way a squid propels itself by ingesting low momentum fluid and ejecting it at a much higher momentum. BE15A8 (1)  
University of Colorado Boulder, CO Aerospace Engineering Mr. Zac Eichmeyer SPEC: SPace Elevator Climber B20A25 website
University of Delaware Newark, DE Department of Mechanical Engineering Mr. Parasar Kodati Biomimetic flapping mechanisms for dragonfly motion simulation Z6A6 website
University of Delaware Newark, DE Spencer Lab Mr. Parasar Kodati Autonomous Micro Underwater Vehicle Using Biomimetic Ostraciiform Locomotion KCB1A2  
University of Hawaíi Honolulu, HI Civil Engineering Mr. Jef Snyder Shaker table used to conduct laboratory geotechnical earthquake instruction and research BE25A20AC  
University of Maryland
College Park, MD Mechanical Engineering Xingyong Song Design, develop and evaluate a haptic feedback interface which will serve both as a master to control a robot arm (and a modular laparoscopic tool) as well as provide force feedback to the user during manipulation tasks. B25A20 (1), 30A8I-INV (3), 25A20-INV (3)  
University of Maryland
College Park, MD Mechanical Engineering Rebecca Kokes Characterization of needle force and tissue deformation of a needle passing through breast tissue to calibrate and correctly model a 6-DOF MRI-Compatible haptic robot for biopsy and radiofrequency ablation of breast tumors. 25A20-INV (2)  
University of Maryland
College Park, MD Mechanical Engineering Kevin Lister Soft Tissue Characterization during Monopolar Electrocautery Procedures 25A8 (2)  
University of Maryland College Park, MD Aerospace Engineering, Space Systems Laboratory Leon AksmanRichard baum External Force Estimation for a 2-Degree of Freedom Manipulator B15A8 website
University of Michigan
Ann Arbor, MI Mechanical Engineering Shorya Awtar Design, build and test two-wheeled balancing robots as part of a Mechatronic Systems Design class. 30A8I-INV (8)  
University of Michigan Ann Arbor, MI Student Space Systems Fabrication Laboratory Mr. Brian Baca MClimber B40A8 website
University of Michigan Ann Arbor, MI Atmospheric, Oceanic, and Space Sciences Department Mr. Brian Baca The Spaceward Foundation’s Space Elevator competition ZB12A8  
University of Michigan Ann Arbor, MI Electrical Engineering, Mechanical Engineering Dan Opila Interdisciplinary motion control lab that implements motion, feedback and a microcontroller in a self contained box 50A8 website
University of Minnesota Duluth, MN Mechanical and Industrial Engineering Xun Yu Laboratory equipment for control systems, mechatronics and robotics. 12A8 (6), PS2X3W24 (6)  
University of Moncton
Moncton, NB Canada Electrical Engineering Mohsen Ghribi Develop advanced control systems for induction and permament magnet synchronous motors based on fuzzy logic and genetic algorithms. Develop ways to save energy in induction motors. BD30A8 (3), DR100EE15A40NAC (1)  
University of Moncton
Moncton, NB Canada Electrical Engineering Mohsen Ghribi Develop an autonomous mobile robot connected remotely via Internet and LAN. The robot will be able to send pictures, video and sound; detect and avoid obstacles; record the path of movement; and extend its time of operation by minimizing energy usage. Z6A6DDC (2)  
University of Moncton
Moncton, NB Canada Electrical Engineering Mohsen Ghribi Laboratory equipment for motion control and control systems. 25A20-INV (6)  
University of Moncton
Moncton, NB Canada Electrical Engineering Jamel Ghouili 2 fuel cell powered electric vehicles. 2 DR101EE15A40NAC's will be used on each vehicle for the drivetrain. The other drives will be used as laboratory equipment to demonstrate open and closed loop control and space vector modulation. DR101EE30A40NAC (3), DR101EE15A40NAC (5)  
University of Moncton
Moncton, NB Canada Electrical Engineering Azeddine Kaddouri Solar Vehicle to compete in the American Solar Challenge S60A40AC (1)  
University of Nevada Las Vegas, NV Department of Mechanical Engineering Woosoon Yim Electromagnetic stiffening in elastomeric smart materials Z6A6DDC, MC2XZQD website
University of New Brunswick Fredericton, NB Canada Electrical and Computer Engineering Chris Diduch Laboratory equipment 12A8 (10), PS2X3W24 (10)  
University of Pennsylvania
Philadelphia, PA Mechanical Engineering Joseph Romano Air-Wand. A novel haptic device designed to allow users to feel force feedback in virtual reality simulations. The user will hold the wand tool in their hand and force feedback will be generated by high pressure air jets that can be ejected in several different directions. 25A8-CUR (6)  
University of Regina Regina, SK Canada Industrial Systems Engineering Mehran Mehrandezh design and development of a human-like control system for an inverted pendulum 25A8, PS2X3W24 website
University of Regina Regina, SK Canada Industrial Systems Engineering Mehran Mehrandezh virtual reality locomotion interface using an omni-directional treadmill 25A8, PS2X3W48 website
University of Saskatchewan
Saskatoon, SK Canada Mechanical Engineering Doug Bitner Class project in a mechanical engineering graduate digital control systems course as part of an electro-mechanical setup to test digital control algorithms in a Hardware-in-the-loop configuration. 25A8-CUR (2)  
University of Tennessee
Knoxville, TN Mechanical, Aerospace & Biomedical Engineering Dongjun Lee Haptic research. Investigation of stability/perception issues of teleoperated robots communicating via the Internet. DR101EE15A40NAC (1), DR101EE30A40NAC (1)  
University of Texas Dallas, TX Department of Physics Dr. John Hoffman NASA sponsored tethered satellite deployer project DR100EE25A20NAC  
University of Toronto Toronto, ON Institute of Aerospace Studies Dr. Reza Emami Hardware-in-the-Loop simulation platform, used to simulate degrees of freedom in a robotic system DR100EE30A40NAC, DR100EE15A40NAC, BE15A8, PS16L60 website
University of Victoria Victoria, BC Mechanical Engineering Department Dr. Afzal Suleman Electric brake acuator for vehicles 30A8 website
University of Washington Seattle, WA Mechanical Engineering Mr. Tim Lowry Mechantroincs Capstone Project: Snowboard Simulator 50A8, PS16L30-L  
University of Washington Seattle, WA Electrical Engineering Timothy Kowalewski Transport arm for surgery robot ZDCR300EE12A8LDC, MC1XZDCR website
Washington State University Vancouver, WA College of Engineering & Architecture Hakan Gurocak Lab Equipment for hands on learning of mechanical control systems DR100EE20A8BDC-QD1 (1), ZDCR300EE12A8LDC (1), MC1XZDCR (1)  
Washington State University
Richland, WA Mechanical and Materials Engineering Mr. Jen-Yuan (James) Chang Mechatronics Lab. The lab will serve as the essential element for students to build their own mechatronic devices. ZDR150EE12A8LDC (5), MC1XZDR (5), BD30A8 (10), BE25A20AC (3)  
Washington State University
Richland, WA Materials and Mechanical Engineering He Huang Vision control of micro-manipulator for medical & biological applications. Z6A6 (1), Z6A6DDC (4), Z12A8 (1)  

Servo Drives 101 Free Drives Contest

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