DocumentCode
3295216
Title
Fault tolerant integrated information management support for physically constrained iterative deconvolution
Author
Spetka, S. ; Ramseyer, George ; Linderman, Richard
Author_Institution
SUNY Inst. of Technol., ITT Corp., Rome, NY
fYear
2008
fDate
15-17 Oct. 2008
Firstpage
1
Lastpage
5
Abstract
Multiple image processing algorithms are often required to process computer vision inputs. The rapid processing of complex image streams requires more computing power than is found in a typical PC based computer or workstation, and the processing power of high-performance computers (HPCs) and Linux clusters have been required to do this type of rapid massive processing. Emerging multicore processors offer the possibility of doing these types of processing at the PC level in real time. The physically constrained iterative deconvolution (PCID) algorithm is a multi-frame blind deconvolution (MFBD) parallel algorithm that allows the extraction of simple and complex information from multiple images. Massive computing power is required to use this algorithm in real time. Message passing interface (MPI) is normally used with PCID for communications between processors in multiprocessor systems. However, MPI has fault tolerant issues. A tool to replace MPI for multiprocessor communications has been developed that supports a high degree of fault-tolerance, and facilitates multiple image processing by integration with a publication/subscription infrastructure. This tool is demonstrated here for the PCID algorithm. Other attributes of MPI and this tool´s publication/subscription information management support for PCID are compared and contrasted.
Keywords
deconvolution; fault tolerance; multiprocessing systems; parallel algorithms; Linux cluster; PCID algorithm; complex image streams; computer vision; fault tolerant integrated information management; high-performance computer; image processing; multicore processor; multiframe blind deconvolution parallel algorithm; multiprocessor communication; multiprocessor system; physically constrained iterative deconvolution; Clustering algorithms; Computer vision; Deconvolution; Fault tolerance; Image processing; Information management; Iterative algorithms; Streaming media; Subscriptions; Workstations;
fLanguage
English
Publisher
ieee
Conference_Titel
Applied Imagery Pattern Recognition Workshop, 2008. AIPR '08. 37th IEEE
Conference_Location
Washington DC
ISSN
1550-5219
Print_ISBN
978-1-4244-3125-0
Electronic_ISBN
1550-5219
Type
conf
DOI
10.1109/AIPR.2008.4906467
Filename
4906467
Link To Document