Application issues of a programmable optical CNN implementation
Proceedings of the 2002 7th IEEE International Workshop on Cellular Neural Networks and Their Applications - Trang 156-163
Tóm tắt
A programmable opto-electronic analogic CNN computer (POAC) provides an efficient frame for diverse image processing applications, as it combines the enormous inherent computational capabilities of our new, massively parallel, but flexibly programmable optical CNN implementation with the capabilities of a visual CNN-UM chip. Our optical CNN implementation is based on an original, semi-incoherent optical correlator architecture, which is superior to other optical implementations in several respects. It makes real time reprogramming of a new type of joint Fourier transform correlator (t/sub 2/-JTC) possible while preserving the inherent speed of VanderLugt type of systems. Furthermore the POAC architecture overcomes the main limitations of both the microelectronic (VLSI) and other optical implementations. In this paper it will be shown that this device is particularly useful in image-processing algorithms, which cannot be fulfilled real time by any other existing optical or digital system due to the high number of pattern matching tasks required.
Từ khóa
#Cellular neural networks #Application software #Concurrent computing #Optical computing #Correlators #Real time systems #Image processing #Computer architecture #Fourier transforms #MicroelectronicsTài liệu tham khảo
10.1109/81.747197
slot, 1992, Optically Realized Feedforward Only Cellular Neural Networks, International Journal of Electronics and Communications, 46, 158
tanida, 2000, Digital Optical Computing
kés, 2001, Design Aspects of an Optical Correlator Based CNN Implementation, Proc IEEE International Symposium on Circuits and Systems, 353
kés, 2000, An optical CNN implementation with stored programmability, Proc IEEE International Symposium on Circuits and Systems, 136
kés, 2001, An advanced joint Fourier transform correlator (JTC), Proceedings of DO'01 Topical Meeting on DIFFRACTIVE OPTICS 2001
kés, 2001, Bioelectronic Applications of Photochromic Pigments, Programmable Analogic Cellular Optical Computer using Bacteriorhodopsine as Analog Rewritable Image Memory NATO Book, 54
vanderlugt, 1992, Optical Signal Processing
yu, 1998, Optical Pattern Recognition
espejo, 1998, A $64 \times 64$ CNN Universal Chip with Analog and Digital I/O, Proceedings of the 5 IEEE International Conference on Electronics Circuits and Systems (ICECS'98)
10.1109/31.7600
jankowski, 1999, Digital CNN with Optical and Electronic Processing, Proc Euro Conf Circuit Theory and Design (ECCTD 99), 2, 1183
10.1109/82.222814
10.1016/S1011-1344(98)00220-6
javidi, 1994, Real-Time Optical Information Processing
10.1109/81.222795
alam, 1999, Selected Papers on Optical Pattern Recognition Using Joint Transform Correlation
10.1109/82.222815
