Geneva. STMicroelectronics today announced that ST was providing micro-mirrors and control devices for perceptual computing initiatives at Intel.
In addition to the ASIC control devices, ST supplies a tiny MEMS mirror that moves thousands of times per second to scan an infrared light beam, painting an invisible grid on objects in front of it. The light reflected back from the object is captured and analyzed for 3D imaging and gesture applications. The use of MEMS technology to realize the mirror enables small and robust systems with high-performance and low-energy characteristics suited to a variety of consumer devices, creating new dimensions in the natural interaction of people with technology.
ST’s MEMS expertise enabled the development of the small, slim projection engine, which fits into the screen of a laptop or tablet computer and offers an ultra-wide field of view—nearly 90°. Moreover, manufactured using ST’s smart-power technology, the micro-mirror packs exceptional electro-static actuation, extremely low power consumption, and hardware safety mechanisms that provide protection from hacking and malfunctions, onto the silicon.
“The natural user-interface revolution with perceptual computing is upon us, and the mirror technology that ST has developed is an important contribution,” said Sagi Ben Moshe, director depth camera engineering, Intel. “Intel and its partners are redefining how people interact with their devices for gaming, entertainment, and content creation through a best-in-class depth sensor that delivers PCs and tablets 3D vision for new, immersive experiences.”
“Through its far-reaching MEMS technologies, ST has for years contributed to significant advances in user interfaces via motion, touch, and sound, and the inevitable adoption of perceptual computing is an exciting leap that adds 3D vision,” said Benedetto Vigna, executive vice president and general manager, Analog, MEMS, and Sensors Group, STMicroelectronics. “Only a company with the full range of expertise that ST owns could overcome the significant power, actuation, inertial, and jitter issues to build the right micro-mirror and integrate the analog front end and digital logic onto a single low-power die to achieve the form-factors necessary for mainstream device integration.”