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 analog vlsi chip


An Analog VLSI Chip for Thin-Plate Surface Interpolation

Neural Information Processing Systems

Reconstructing a surface from sparse sensory data is a well-known problem iIi computer vision. This paper describes an experimental analog VLSI chip for smooth surface interpolation from sparse depth data. An eight-node ID network was designed in 3J.lm CMOS and successfully tested. The circuit directly implements the cou(cid:173) pled depth/slope model of surface reconstruction (Harris, 1987). In addition, this chip can provide Gaussian-like smoothing of images.


An Analog VLSI Chip for Radial Basis Functions

Neural Information Processing Systems

We have designed, fabricated, and tested an analog VLSI chip which computes radial basis functions in parallel. We have de(cid:173) veloped a synapse circuit that approximates a quadratic function. We aggregate these circuits to form radial basis functions. These radial basis functions are then averaged together using a follower aggregator.


An Analog VLSI Chip for Radial Basis Functions

Neural Information Processing Systems

We have designed, fabricated, and tested an analog VLSI chip which computes radial basis functions in parallel. We have developed a synapse circuit that approximates a quadratic function. We aggregate these circuits to form radial basis functions. These radial basis functions are then averaged together using a follower aggregator.


An Analog VLSI Chip for Radial Basis Functions

Neural Information Processing Systems

We have designed, fabricated, and tested an analog VLSI chip which computes radial basis functions in parallel. We have developed a synapse circuit that approximates a quadratic function. We aggregate these circuits to form radial basis functions. These radial basis functions are then averaged together using a follower aggregator.


An Analog VLSI Chip for Radial Basis Functions

Neural Information Processing Systems

We have designed, fabricated, and tested an analog VLSI chip which computes radial basis functions in parallel. We have developed asynapse circuit that approximates a quadratic function. We aggregate these circuits to form radial basis functions. These radial basis functions are then averaged together using a follower aggregator. 1 INTRODUCTION Radial basis functions (RBFs) are a mel hod for approximating a function from scattered training points [Powell, H)87]. RBFs have been used to solve recognition and prediction problems with a fair amonnt of success [Lee, 1991] [Moody, 1989] [Platt, 1991]. The first layer of an RBF network computes t.he distance of the input to the network to a set of stored memories. Each basis function is a nonlinear function of a corresponding distance. Tht basis functions are then added together with second-layer weights to produce the output of the network.


An Analog VLSI Chip for Thin-Plate Surface Interpolation

Neural Information Processing Systems

Reconstructing a surface from sparse sensory data is a well-known problem iIi computer vision. This paper describes an experimental analog VLSI chip for smooth surface interpolation from sparse depth data. An eight-node ID network was designed in 3J.lm CMOS and successfully tested.


An Analog VLSI Chip for Thin-Plate Surface Interpolation

Neural Information Processing Systems

Reconstructing a surface from sparse sensory data is a well-known problem iIi computer vision. This paper describes an experimental analog VLSI chip for smooth surface interpolation from sparse depth data. An eight-node ID network was designed in 3J.lm CMOS and successfully tested.


An Analog VLSI Chip for Thin-Plate Surface Interpolation

Neural Information Processing Systems

Reconstructing a surface from sparse sensory data is a well-known problem iIi computer vision. This paper describes an experimental analog VLSI chip for smooth surface interpolation from sparse depth data. An eight-node ID network was designed in 3J.lm CMOS and successfully tested.