Fred Bertsch
fmb1@cornell.edu
http://mems.ee.cornell.edu/Fred/Resume
Work phone: (607) 255-8026
406 Triphammer Rd.
Ithaca, NY 14850
(607) 266-8849


Objective:
I am seeking a challanging position designing and implementing advanced software systems.
Education:
Currently working on a Ph.D. in a micromechanics group at Cornell University under Dr. Noel C. MacDonald.
Expected graduation date: August 2000.
Thesis: Modeling the Bosch Process using a Fast, Distributed Finite-Element Plasma Etch Simulator
Thesis work involves creating a simulation of a complex and poorly understood plasma etch in order to substantiate some possible explanations of how the etch works. The code was written from scratch in order to keep the speed, flexibility, and reliability as high as possible.
Cornell University: BS in Applied Physics (Honors), May 1994
Programming Experience:
11 years of C++ experience
Experienced in object oriented design, UML, client/server programming, distributed computing, real-time programming, Window NT, COM, ATL, ODBC, SQL, Java, Lua, Python, Mathematica, and more
Can learn new systems rapidly
Have designed, written, and maintained projects with 50,000+ lines of code
Proficient in CGI programming: have written complex database-driven CGIs
Clear, easily maintainable code a high priority when writing code
Can easily develop and analyze complex algorithms
Can take a challenging, experimental project and make it succeed
Wrote real-time control code for a prototype glass factory at Textron Defense Systems 1993
Wrote real-time beam analysis software for Cornell's linear accelerator 1991-2
Sample code is available at http://mems.ee.cornell.edu/Fred/Resume/CodeSamples/.
Leadership and Collaboration:
Lead programmer for a team of four people developing an advanced, experimental video game.
Led a team to design, develop, and build experimental accelerometers for Ford Motor Company 1996
Senior instructor for Cornell Outdoor Education 1995-
Led many groups of 6 to 12 students on rock climbing trips with assistance from other instructors
Worked closely with several other researchers analyzing data, testing devices, processing wafers, or developing theories
Microprocessing and Micromechanics:
Designed, characterized, and optimized processes to build MicroElectroMechanical Systems (MEMS)
Designed, analyzed, and simulated MEMS devices
Tested devices using complex real-time LabView programs
Experienced user of many processing tools including a thermal oxide tube, many RIEs, an ECR etcher, an ion implanter, a PECVD system, several evaporators, an i-line stepper, a g-line stepper, an IR backside aligner, a pattern generator, a e-beam lithography system, several SEMs, and a FIB
Publications and Patents:
N. C. MacDonald, F. Bertsch, K. A. Shaw, S. G. Adams, Capacitance Based Tunable Micromechanical Resonators, US Patent #5640133.
S. G. Adams, F. Bertsch, K. A. Shaw, N. C. MacDonald, Independent Tuning of Linear and Nonlinear Stiffness Coefficients, Journal of Microelectricomechanical Systems, 7, 172-180, 1998.
S. G. Adams, F. Bertsch, K. A. Shaw, P. G. Hartwell, F. C. Moon, N. C. MacDonald, Capacitance Based Tunable Resonators, Journal of Microelectromechanical Systems, 8, 15-23, 1998.
Y. C. Wang, S. G. Adams, J. S. Thorp, N. C. MacDonald, P. G. Hartwell, F. Bertsch, Chaos in MEMS, Parameter Estimation and its Potential Application, IEEE Transactions on Circuits and Systems I, 45 1013-1020, 1998.
P. G. Hartwell, F. M. Bertsch, S. A. Miller, K. L. Turner, N. C. MacDonald, Single Mask Lateral Tunneling Accelerometer, 11th Annual Intrntl Workshop on MEMS, 340-344, 1998.
S. G. Adams, F. Bertsch, N. C. MacDonald, Independent Tuning of the Linear and Nonlinear Stiffness Coefficients of a Micromechanical Device, 9th Annual Intrntl Workshop on MEMS, 32-37, San Diego, CA, 1996.
S. G. Adams, F. Bertsch, K. A. Shaw, P. G. Hartwell, N. C. MacDonald, Capacitance Based Tunable Resonators, 8th Intrntl Conference on Solid-State Sensors and Actuators, 1, 438-441, Stockholm, Sweden, 1995.
J. E. Jackson, F. Bertsch, Conversion of Methanol to Gasoline: a New Mechanism for Formation of the First Carbon-Carbon Bond, Journal of the American Chemical Society, 112, 9085-9092, 1990.