Community Supports, Inc Intermediate Care Facility
Kenneth Schultz Treasurer
Orthofix Medical Devices · Hospital & Health Care · Sells, Distributes And Manufactures Medical Equipment · Manufacturing · Miscellaneous Manufacturing · Medical Equipment and Supplies Manufacturing · Mfg Surgical Appliances/Supplies · Mfg Surgical/Medical Instruments Mfg Electromedical Equipment
3451 Plano Pkwy, Lewisville, TX 75056 3451 Plano Pkwy, The Colony, TX 75056 5400 Big Tyler Rd, Charleston, WV 25313 455 W Maurice St, Hot Springs, AR 71901 8005270404, 2149372000, 7049482600, 6179122911
Kenneth A Schultz
STUDIO BUILDING REALTY, L.L.P
Us Patents
Methods And Apparatus For In-Pixel Filtering In Focal Plane Arrays
Kenneth I. Schultz - Lexington MA, US Brian Tyrrell - Brookline NH, US Michael W. Kelly - North Reading MA, US Curtis Colonero - Shrewsbury MA, US Lawrence M. Candell - Arlington MA, US Daniel Mooney - Dracut MA, US
Assignee:
Massachusetts Institute of Technology - Cambridge MA
International Classification:
H03K 23/00
US Classification:
377118, 377124
Abstract:
Digital focal plane arrays (DFPAs) with multiple counters per unit cell can be used to convert analog signals to digital data and to filter the digital data. Exemplary DFPAs include two-dimensional arrays of unit cells, where each unit cell is coupled to a corresponding photodetector in a photodetector array. Each unit cell converts photocurrent from its photodetector to a digital pulse train that is coupled to multiple counters in the unit cell. Each counter in each unit cell can be independently controlled to filter the pulse train by counting up or down and/or by transferring data as desired. For example, a unit cell may perform in-phase/quadrature filtering of homodyne- or heterodyne-detected photocurrent with two counters: a first counter toggled between increment and decrement modes with an in-phase signal and a second counter toggled between increment and decrement modes with a quadrature signal.
Michael Kelly - North Reading MA, US Brian Tyrrell - Brookline NH, US Curtis Colonero - Shrewsbury MA, US Robert Berger - Lexington MA, US Kenneth Schultz - Lexington MA, US James Wey - Arlington MA, US Daniel Mooney - Dracut MA, US Lawrence Candell - Arlington MA, US
International Classification:
H04L 9/30 H04L 9/28
US Classification:
380 30, 380 28
Abstract:
A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.
Michael Kelly - North Reading MA, US Brian Tyrrell - Brookline NH, US Curtis Colonero - Shrewsbury MA, US Robert Berger - Lexington MA, US Kenneth Schultz - Lexington MA, US James Wey - Arlington MA, US Daniel Mooney - Dracut MA, US Lawrence Candell - Arlington MA, US
International Classification:
H01L 27/146
US Classification:
2502081
Abstract:
A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.
Optical Imaging For Specimens Having Dispersive Properties
Massachusetts Institute of Technology - Cambridge MA
International Classification:
A61B 600
US Classification:
128665
Abstract:
A system for optically imaging a specimen is provided, which system amplitude modulates an optical signal with a longer wavelength signal, and in particular a signal having a wavelength which is much longer than any dispersive phase shift in the sample. The modulated optical signal is passed through the specimen. Scattered radiation in the optical output from the sample is filtered out and the resulting optical signal is detected and processed to obtain amplitude/absorption and phase/dispersion information, which information may be used in imaging. Optical signals at different frequencies may be passed through the same sample of the specimen to obtain additional information.
- Cambridge MA, US Brian TYRRELL - Brookline NH, US Curtis COLONERO - Shrewsbury MA, US Robert BERGER - Lexington MA, US Kenneth SCHULTZ - Lexington MA, US James WEY - Arlington MA, US Daniel MOONEY - Dracut MA, US Lawrence M. CANDELL - Arlington MA, US
A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.
MICHAEL KELLY - NORTH READING MA, US BRIAN TYRRELL - BROOKLINE NH, US CURTIS COLONERO - SHREWSBURY MA, US ROBERT BERGER - LEXINGTON MA, US KENNETH SCHULTZ - LEXINGTON MA, US JAMES WEY - ARLINGTON MA, US DANIEL MOONEY - DRACUT MA, US LAWRENCE CANDELL - ARLINGTON MA, US
A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.
Methods And Apparatus For In-Pixel Filtering In Focal Plane Arrays
Kenneth I. SCHULTZ - Lexington MA, US Brian M. TYRRELL - Brookline NH, US Michael W. KELLY - North Reading MA, US Curtis B. COLONERO - SHREWSBURY MA, US Lawrence M. CANDELL - Arlington MA, US Daniel MOONEY - Dracut MA, US
International Classification:
H03K 21/02
Abstract:
Digital focal plane arrays (DFPAs) with multiple counters per unit cell can be used to convert analog signals to digital data and to filter the digital data. Exemplary DFPAs include two-dimensional arrays of unit cells, where each unit cell is coupled to a corresponding photodetector in a photodetector array. Each unit cell converts photocurrent from its photodetector to a digital pulse train that is coupled to multiple counters in the unit cell. Each counter in each unit cell can be independently controlled to filter the pulse train by counting up or down and/or by transferring data as desired. For example, a unit cell may perform in-phase/quadrature filtering of homodyne- or heterodyne-detected photocurrent with two counters: a first counter toggled between increment and decrement modes with an in-phase signal and a second counter toggled between increment and decrement modes with a quadrature signal.
Methods And Apparatus For In-Pixel Filtering In Focal Plane Arrays
KENNETH I. SCHULTZ - LEXINGTON MA, US BRIAN TYRRELL - BROOKLINE NH, US MICHAEL W. KELLY - NORTH READING MA, US CURTIS COLONERO - SHREWSBURY MA, US LAWRENCE M. CANDELL - ARLINGTON MA, US DANIEL MOONEY - DRACUT MA, US
Assignee:
MASSACHUSETTS INSTITUTE OF TECHNOLOGY - Cambridge MA
Digital focal plane arrays (DFPAs) with multiple counters per unit cell can be used to convert analog signals to digital data and to filter the digital data. Exemplary DFPAs include two-dimensional arrays of unit cells, where each unit cell is coupled to a corresponding photodetector in a photodetector array. Each unit cell converts photocurrent from its photodetector to a digital pulse train that is coupled to multiple counters in the unit cell. Each counter in each unit cell can be independently controlled to filter the pulse train by counting up or down and/or by transferring data as desired. For example, a unit cell may perform in-phase/quadrature filtering of homodyne- or heterodyne-detected photocurrent with two counters: a first counter toggled between increment and decrement modes with an in-phase signal and a second counter toggled between increment and decrement modes with a quadrature signal.
University of Pennsylvania 1982 - 1987
Doctorates, Doctor of Philosophy, Philosophy
Massachusetts Institute of Technology 1976 - 1980
Bachelors
Skills:
Systems Engineering U.s. Department of Defense Leadership Program Management Defense Engineering System Architecture Ir Sensor Concept Design and Development