Mark Horowitz

In 2006, Horowitz received the IEEE Donald O. Pederson Award in Solid-State Circuits "for pioneering contributions to the design of high-performance digital integrated circuits and systems". In 2007, he was elected to the National Academy of Engineering for his "leadership in high-bandwidth memory-interface technology and in scalable cache-coherent multiprocessor architectures." In 2008, he was elected to the American Academy of Arts and Sciences. At the 2014 International Solid-State Circuits Conference, he presented his studies on the outlook for the semiconductor industry in Computing's Energy Problem (And What We Can Do About It).

In the 2000s he teamed up with Marc Levoy to work on computational photography, research which explored how to use computation to create better pictures, often by using data from multiple sensors. This research also explored light-field photography, which captured enough information to allow a computer to reconstruct the view to an arbitrary viewpoint. The need to capture light-fields to process led to the creation of the Stanford Camera Array, a system which could synchronize and collect images from 100 image sensors, as well as work that eventually led to the Lytro camera.

In 1990 Horowitz took a leave of absence from Stanford to work with Mike Farmwald on a new high-bandwidth DRAM design which, in April of that year, led to the formation of Rambus Inc., a company specializing in high-bandwidth memory technology. After working at Rambus for a year, he returned to Stanford and started a research program in high-speed input/output. Video game machines were early adopters of this technology, with Nintendo 64 and PlayStation 2 the first two mass-produced products to use the company's DRAMs. Intel later adopted the company's RDRAM processor interface, and Rambus memory chips were used in PCs in the late 1990s. Horowitz returned briefly to Rambus in 2005 to help start a research organization at the company and left the board of directors in 2011.

In 1984, Horowitz joined the Stanford faculty. At Stanford his research focused on VLSI circuits and he led a number of early RISC processor designs, including MIPS-X. His research has been in the fields of electrical engineering, computer science, and applying engineering tools to biology. He has worked on RISC processors, multiprocessor designs, low-power circuits, high-speed links, computational photography, and applying engineering to biology.

Horowitz received bachelor's and master's degrees in electrical engineering from the Massachusetts Institute of Technology in 1978. After graduating, he moved to Silicon Valley to work at Signetics, one of the early integrated circuits companies. After working for a year, he entered Stanford, and worked on CAD tools for very-large-scale integration (VLSI) design. His research at Stanford included some of the earliest work on extracting the resistance of integrated circuit wires, and estimating the delay of MOS transistor circuits. He was advised at Stanford by Robert Dutton and graduated with a Ph.D. in electrical engineering in 1984.