EE at Caltech has a century-long record of excellence, innovation and training many distinguished leaders in the field. As a discipline, EE has had a huge impact on the technologies that define modern-day life and society. EE at Caltech emphasizes both the fundamentals of electronics and systems, as well as acknowledging the multi-disciplinary nature of the field. Closely allied with Computation and Neural Systems, Applied Physics, Bioengineering, Computer Science, and Control and Dynamical System, it offers students the opportunity for study and research, both theoretical and experimental, in a wide variety of subjects, including wireless systems, quantum electronics, modern optics, lasers and guided waves, solid-state materials and devices, bio-optics and bio-electronics, power and energy systems, control theory, learning systems, computational finance, signal processing, data compression, communications, parallel and distributed computing, fault-tolerant computing, and computational vision.
Substantial experimental laboratory facilities, housed mainly in the Moore Laboratory of Engineering, are associated with each of these research fields.
Announcements Electrical Engineering Faculty Search
The search is in the broadly-defined area of EE-systems. Research areas of interest include, but are not restricted to, signal processing, communications and information theory, control systems, networks, optimization, machine learning, large data systems, power systems, robotics and autonomous systems and cyber-physical systems. Click to apply
The Charles Wilts Prize is awarded every year to one EE graduate student for outstanding independent research in Electrical Engineering leading to a PhD. View a list of recipients.
The first Caltech EE student to send the correct answer receives a $25 gift certificate for The Red Door. Send your answers to email@example.com
Consider an infinite grid of 1-Ω resistors. Let's call the dimension of the grid n, where a 1-dimensional grid would be a line of resistors connected end-to-end, a 2-dimensional grid would be a rectangular array of resistors, where each resistor is connected at each end to three other resistors, a 3-dimensional grid would be a cubic lattice where each resistor is connected at end to five resistors, and so on.
What is the resistance that you would measure across a resistor, as a function on n? For the n = 1, it is just 1 Ω, but for higher n, the grid gives a parallel component that reduces the resistance that you would measure.
Axel Scherer, Bernard Neches Professor of Electrical Engineering, Applied Physics and Physics, will be giving the next Caltech Earnest C. Watson Lecture on November 6, 2013 at 8pm. His lecture is entitled From Lab-on-a-Chip to Lab-in-the-Body and will focus on the role of nanotechnology in the miniaturization of medical diagnostic tools. [Caltech Release] [ENGenious Article] 11.06.13
Thomas F. Rosenbaum has been named the ninth president of Caltech. Dr. Rosenbaum, is currently the John T. Wilson Distinguished Service Professor of Physics at the University of Chicago, where he has served as the university's provost for the past seven years. Also joining Caltech and the EAS Division will be Dr. Rosenbaum's spouse, Katherine T. Faber, the Walter P. Murphy Professor of Materials Science and Engineering at Northwestern University. Professor Faber's research focuses on understanding stress fractures in ceramics, as well as on the fabrication of ceramic materials with controlled porosity, which are important as thermal and environmental barrier coatings for engine components. She is also the codirector of the Northwestern University-Art Institute of Chicago Center for Scientific Studies in the Arts (NU-ACCESS), which employs advanced materials science techniques for art history and restoration. [Caltech Release] 10.28.13
On July 26, 1963 Caltech Distinguished Alumnus Harold A. Rosen (MS 1948 EE, PhD 1951 EE) and his team at the defense electronics laboratories of Hughes Aircraft Company in Culver City overcame technical and political hurdles to successfully launch the first geostationary satellite, Syncom. Dr. Harold A. Rosen has earned worldwide recognition for his pioneering work in the field of communications satellites and is known as “the father of the geostationary satellite” in that he formed and led the team that designed and built Syncom, and subsequently, as Vice President, went on to help build the world’s largest communications satellite business at Hughes Aircraft Company. [LA Times Article] [Video of Presentation at EE Centennial] 7.29.13
Changhuei Yang, Professor of Electrical Engineering and Bioengineering, and colleagues have shown how to make cost-effective, ultra-high-performance microscopes. The final images produced by their new system contain 100 times more information than those produced by conventional microscope platforms. And building upon a conventional microscope, their new system costs only about $200 to implement. This new method could have wide applications not only in digital pathology but also in everything from hematology to wafer inspection to forensic photography. [Caltech Release] 7.29.13