Zobrazeno 1 - 10
of 37
pro vyhledávání: '"Bryan D. Ackland"'
Autor:
J. Sweet, Chris Nicol, Asawaree Kalavade, J. Williams, Christopher J. Terman, S.J. Daubert, E. Micca, Kanwar Jit Singh, Bryan D. Ackland, E. Sackinger, M. Moturi, D. Brinthaupt, Jay Henry O'neill, J. Othmer, A. Anesko, J. Knobloch
Publikováno v:
IEEE Journal of Solid-State Circuits. 35:412-424
An MIMD multiprocessor digital signal-processing (DSP) chip containing four 64-b processing elements (PE's) interconnected by a 128-b pipelined split transaction bus (STBus) is presented. Each PE contains a 32-b RISC core with DSP enhancements and a
Autor:
Bryan D. Ackland, Marc J. Loinaz
Publikováno v:
Sensor Review. 19:19-26
Compares the relative merits of CCD and CMOS based video cameras. Describes the design and fabrication of CMOS sensors which include considerable hardware computational elements on the same chip as the sensor array. These enable the device to output
Autor:
Andrew J. Blanksby, K. Azadet, Bryan D. Ackland, K.J. Singh, David Andrew Inglis, Marc J. Loinaz
Publikováno v:
IEEE Journal of Solid-State Circuits. 33:2092-2103
A digital color camera has been monolithically realized in a standard 0.8-/spl mu/m CMOS technology. The chip integrates a 353/spl times/292 photogate sensor array with a unity-gain column circuit, a hierarchical column multiplexer, a switched-capaci
Publikováno v:
AT&T Technical Journal. 74:14-33
Multimedia services are made possible by a host of underlying technologies. These include the processing of speech, audio, image and video signals, and handwritten data, as well as the high-quality transmission of audiovisual messages and data inform
Autor:
Bryan D. Ackland
Publikováno v:
IEEE Journal of Solid-State Circuits. 29:381-388
The opportunity to develop multimedia applications based on compressed video is the result of progress in three areas: standards, networking, and VLSI. Current video coding standards and their underlying algorithms use a variety of techniques to isol
Publikováno v:
IEEE Journal of Solid-State Circuits. 28:269-275
The architecture of a 32-channel, 200 MHz Batcher-Banyan fabric chip for broadband ATM packet switching is described, as well as the design methods required to develop a 380 K-transistor CMOS device that operates at these speeds under worst-case cond
Autor:
Ingvar Åberg, J. V. Beach, R. Johnson, T. S. Sriram, A. Lattes, Seth Pappas, C. Godek, Conor S. Rafferty, C. A. King, Bryan D. Ackland, Jay Henry O'neill
Publikováno v:
2010 International Electron Devices Meeting.
A low noise, high quantum efficiency (QE) Ge photo diode was integrated in a standard 0.18 µm CMOS foundry process, enabling night imaging under moonless conditions in a high resolution CMOS image sensor (10 µm pitch, VGA). The Ge diode dark curren
Autor:
Bryan D. Ackland, Vasilije Jovanovic, T. S. Sriram, Clifford Alan King, Jason Sproul, Ingvar Åberg, Conor S. Rafferty, Jay Henry O'neill, Analisa Lattes, Arnie Buck, Seth Pappas, Corbin Godek
Publikováno v:
SPIE Proceedings.
Visible-band cameras using silicon imagers provide excellent video under daylight conditions, but become blind at night. The night sky provides illumination from 1-2 μm which cannot be detected with a silicon sensor. Adding short-wave infrared detec
Autor:
Bryan D. Ackland, A. Mackay, Conor S. Rafferty, C. King, Jay Henry O'neill, R. Johnson, T. S. Sriram, Ingvar Åberg
Publikováno v:
2008 IEEE Conference on Technologies for Homeland Security.
NoblePeak Vision is developing a new night vision technology based on visible to short-wave infrared (SWIR) imaging. Imaging in this band is important because of the "night glow", light emitted by the night sky between 1 mum and 2 mum wavelength. The
Autor:
Clifford Alan King, T. S. Sriram, Jay Henry O'neill, Bryan D. Ackland, Conor S. Rafferty, Ingvar Åberg
Publikováno v:
SPIE Proceedings.
NoblePeak Vision has developed monolithic visible to short-wave infrared (SWIR) imaging arrays. An innovative growth technique is used to integrate germanium islands with the silicon transistors and metal layers of a CMOS process. Imaging arrays of 1