Reggie Caudill
About Me
Dr. Reggie J. Caudill is Professor of Mechanical and Industrial Engineering at New Jersey Institute of Technology in Newark, N.J. and also serves as the Director of the Multi-lifecycle Engineering Research Center Program, an initiative established under the R&D Excellence Program of the New Jersey Commission on Science and Technology (NJCST). In addition, Dr. Caudill was founding director of the Center for Manufacturing Systems at NJIT, an Advanced Technology Center of the NJCST. Before joining the faculty at NJIT, Dr. Caudill was the Director of Robotics and Computer Graphics Laboratory and Associate Professor in Mechanical Engineering at the University of Alabama. Prior to Alabama, Dr. Caudill was Assistant Professor of Civil Engineering in the Transportation Program at Princeton University.
Dr. Caudill's primary research interests involve systems analysis, management and control of multi-lifecycle industrial processes, and resilient, sustainable systems. His current research activities include resilient supply chains, sustainable risk management support systems and performance metrics, demanufacturing technologies, design-for-environment and lifecycle assessment tools. He is the author of over 100 technical publications and has received research funding from various numerous governmental agencies, private industry, and corporate foundations.
Education
Ph.D.; University of Minnesota-Twin Cities; Dynamics And Controls/Mechanical Engineering; 1976
M.S.; The University of Alabama; Engineering Mechanics; 1973
B.S.; The University of Alabama; Mechanical Engineering; 1971
M.S.; The University of Alabama; Engineering Mechanics; 1973
B.S.; The University of Alabama; Mechanical Engineering; 1971
Past Courses
EM 691: COST ESTIMTNG CAPTL PROJ
IE 334: ENGR ECO & CPTL INV ANAL
IE 618: ENGR COST & PRODUC ECONO
IE 621: SYST ANALYSIS & SIMULATN
IE 651: INDUSTRIAL SYM & MODEL
MNE 638: MULTI-LIFECYCLE ENGINEERING
IE 334: ENGR ECO & CPTL INV ANAL
IE 618: ENGR COST & PRODUC ECONO
IE 621: SYST ANALYSIS & SIMULATN
IE 651: INDUSTRIAL SYM & MODEL
MNE 638: MULTI-LIFECYCLE ENGINEERING
Conference Proceeding
An Exergy Footprint Metric with Reference Values Based on US Exergy Consumption
IEEE International Symposium on Sustainability and Sustainable Technologies, May 2010
Design-for-Environment (DFE) Guidelines for Nanomaterials-Containing Products
IEEE International Symposium on Sustainability and Sustainable Technologies, May 2010
End-Of-Life Analysis of Nanotechnology Products: A Case Study Focusing on the High Temperature Battery Recycling Process
26th International Battery Materials Recycling Seminar and Exhibit(Note: INVITED PAPER), March 2009
Carrying capacity estimates for assessing environmental performance and sustainability
2002
Carrying capacity estimates for assessing environmental performance and sustainability
January (1st Quarter/Winter) 2002
IEEE International Symposium on Sustainability and Sustainable Technologies, May 2010
Design-for-Environment (DFE) Guidelines for Nanomaterials-Containing Products
IEEE International Symposium on Sustainability and Sustainable Technologies, May 2010
End-Of-Life Analysis of Nanotechnology Products: A Case Study Focusing on the High Temperature Battery Recycling Process
26th International Battery Materials Recycling Seminar and Exhibit(Note: INVITED PAPER), March 2009
Carrying capacity estimates for assessing environmental performance and sustainability
2002
Carrying capacity estimates for assessing environmental performance and sustainability
January (1st Quarter/Winter) 2002
SHOW MORE
Analysis and control of monolithic piezoelectric nano-actuator
2000
Contactless magnetic leadscrew: Modeling and load determination
2000
Contactless magnetic leadscrew: vibration control and resonance compensation
2000
Lifecycle analysis for environmentally conscious solid freeform manufacturing
2000
Environmental performance analysis of solid freedom fabrication processes
1999
Life Cycle Comparative Value of Solid Freeform Fabrication Processes
1999
Control of ultrahigh-precision magnetic leadscrew using recurrent neural networks
1998
Development and implementation of an application programming interface for PC/DSP-based motion control system
1998
High-precision multiple-degree-of-freedom piezoelectric actuator
1998
Vibration Control of Contactless Drive System Using Passband Shaping
1996
2000
Contactless magnetic leadscrew: Modeling and load determination
2000
Contactless magnetic leadscrew: vibration control and resonance compensation
2000
Lifecycle analysis for environmentally conscious solid freeform manufacturing
2000
Environmental performance analysis of solid freedom fabrication processes
1999
Life Cycle Comparative Value of Solid Freeform Fabrication Processes
1999
Control of ultrahigh-precision magnetic leadscrew using recurrent neural networks
1998
Development and implementation of an application programming interface for PC/DSP-based motion control system
1998
High-precision multiple-degree-of-freedom piezoelectric actuator
1998
Vibration Control of Contactless Drive System Using Passband Shaping
1996
COLLAPSE
Journal Article
Caudill, Reggie J, & Olapiriyakul, Sun (2009). Thermodynamic Analysis to Assess the Environmental Impacts of End-of-life Recovery Processing for Nanotechnology Products. Environmental Science and Technology/American Chemical Society, 43(21), 8140-8146.
Chang, Timothy N., & Dani, Bhaskar, & Ji, Zhiming, & Caudill, Reggie J (2004). Contactless magnetic transmission system: Vibration control and resonance compensation. IEEE/ASME Transactions on Mechatronics, 9(2), 458–461.
Ji, Zhiming, & Chang, Timothy N., & Shimanovich, Michael, & Caudill, Reggie J (2000). Determination of load capacity for magnetic leadscrew drives. IEEE transactions on magnetics, 36(5), 3824–3832.
Chang, Timothy N., & Dani, Bhaskar, & Ji, Zhiming, & Caudill, Reggie J (2004). Contactless magnetic transmission system: Vibration control and resonance compensation. IEEE/ASME Transactions on Mechatronics, 9(2), 458–461.
Ji, Zhiming, & Chang, Timothy N., & Shimanovich, Michael, & Caudill, Reggie J (2000). Determination of load capacity for magnetic leadscrew drives. IEEE transactions on magnetics, 36(5), 3824–3832.
Other
Low friction, high precision actuator
Google Patents, November 1999
Google Patents, November 1999