A special purpose parallel processing ASIC for the first-level calorimeter trigger for the ATLAS detector

Mark D Engstrom,Christian Bohm, Sten Hellman, K Prytz,Samuel Silverstein,N Yamdagni, Xiu Zhao,R Sundblad, A Craciunescu, Stefan Gustafsson,A Odmark, P Bodo

Shanghai(1996)

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摘要
Modern high energy physics experiments require massively parallel special purpose computers (triggers) to reduce the extremely large primary data flow to manageable amounts. We present a prototype processing ASIC intended as the basic computational unit in a first-level calorimeter trigger for the ATLAS collider detector to be built at CERN, Switzerland. The proposed trigger is a compact highly parallel pipelined system with 4096 systolic processors partitioned into 256 weakly-interacting custom-designed ASICs. Local results from these ASICs are then merged by a second, less complex type of ASIC. Data is received at 800 Mbit/s by bipolar input circuits, while the processing is performed in CMOS at 320 MHz, using the true single phase clocking scheme (TSPC). This method promotes fast and compact implementations well suited for pipelined bit-serial applications. A 0.5 μm BiCMOS process with 4 metal layers was chosen for the implementation
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关键词
application specific integrated circuits,calorimeters,detector circuits,high energy physics instrumentation computing,nuclear electronics,parallel processing,position sensitive particle detectors,special purpose computers,trigger circuits,0.5 micron,320 mhz,800 mbit/s,asic,atlas detector,bicmos circuit,tsp,bit-serial applications,computational unit,data flow,first-level calorimeter trigger,high energy physics,massively parallel special purpose computer,pipelined system,single phase clocking,systolic processor,concurrent computing,prototypes,detectors,energy management
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