1750 Darby St, Yorktown Heights, NY 10598 • 9149627540 • 9149629311
Baiting Hollow, NY
87 Broadway, White Plains, NY 10603
Chappaqua, NY
Westchester, NY
Yorktown Hts, NY
Work
Company:
United states soccer federation
Mar 2010
Position:
Us soccer and futsal referee, instructor, assessor
Education
Degree:
Master of Science, Masters
School / High School:
Syracuse University
1982 to 1984
Specialities:
Computer Engineering
Skills
Cmos • Ic • Eda • Semiconductors • Asic • Physical Design • Cadence Skill • Simulations • Mixed Signal Ic Design • Microprocessors • Signal Processing • Vlsi • Ic Design Automation • Pdk Development • Microcontrollers • Analog Circuit Design • Algorithms • Verilog • Circuit Design • System on A Chip • 3D Packaging • Robotic Design • Design Migration/Reuse • Graph Theory • Control Theory • Educational Workshops • Analog
United States Soccer Federation
Us Soccer and Futsal Referee, Instructor, Assessor
Ibm
Senior Engineer and Scientist
Ibm Tj Watson Research Lab
Senior Engineer and Scientist
Education:
Syracuse University 1982 - 1984
Master of Science, Masters, Computer Engineering
Clarkson University 1977 - 1980
Bachelors, Bachelor of Science, Electrical Engineering
State University of New York College at Potsdam 1975 - 1980
Bachelors, Bachelor of Arts, Physics
Skills:
Cmos Ic Eda Semiconductors Asic Physical Design Cadence Skill Simulations Mixed Signal Ic Design Microprocessors Signal Processing Vlsi Ic Design Automation Pdk Development Microcontrollers Analog Circuit Design Algorithms Verilog Circuit Design System on A Chip 3D Packaging Robotic Design Design Migration/Reuse Graph Theory Control Theory Educational Workshops Analog
Michael P. Beakes - Yorktown Heights NY, US Shih-Hsien Lo - Mount Kisco NY, US Michael R. Scheuermann - Katonah NY, US Matthew R. Wordeman - Kula HI, US
Assignee:
International Business Machines Corporation - Armonk NY
International Classification:
G06F 17/50
US Classification:
716110
Abstract:
There is provided a method for verifying inter-stratum connectivity for two or more strata to be combined into a 3D chip stack. Each of the two or more strata has 3D elements including active 3D elements, mechanical 3D elements, and dummy 3D elements. The method includes performing a respective 2D layout versus schematic verification on each of the two or more strata with respect to at least the 3D elements to pre-ensure an absence of shorts between the 3D elements when the two or more strata are subsequently stacked into the 3D chip stack. The method further includes checking inter-stratum interconnectivity between each adjacent pair of strata in the 3D chip stack.
Emrah Acar - Montvale NJ, US Michael P. Beakes - Yorktown Heights NY, US William M. Green - Astoria NY, US Jonathan E. Proesel - Yorktown Heights NY, US Alexander V. Rylyakov - Mount Kisco NY, US Yurii A. Vlasov - Katonah NY, US
Assignee:
International Business Machines Corporation - Armonk NY
Methods for integrated electronic and photonic design include laying out electronic and photonic design components in a design environment; adjusting photonic components according to photonic design requirements using a processor; checking design rules for electronic and photonic components according to manufacturing requirements; and adjusting component positioning and size to reconcile conflicts between electronic and photonic components.
Emrah Acar - Montvale NJ, US Michael P. Beakes - Yorktown Heights NY, US William M. Green - Astoria NY, US Jonathan E. Proesel - Yorktown Heights NY, US Alexander V. Rylyakov - Mount Kisco NY, US Yurii A. Vlasov - Katonah NY, US
Assignee:
INTERNATIONAL BUSINESS MACHINES CORPORATION - ARMONK NY
International Classification:
G06F 17/50
US Classification:
716112
Abstract:
Systems for integrated electronic and photonic design include a graphical user interface (GUI) configured to lay out electronic and photonic design components in a design environment; a design rule checking (DRC) module configured to check design rules for electronic and photonic components according to manufacturing requirements; and a processor configured to adjust photonic components according to photonic design requirements and to reconcile conflicts between electronic and photonic components.
Methodology To Test Pulsed Logic Circuits In Pseudo-Static Mode
Michael Patrick Beakes - Yorktown Heights NY Barbara Alane Chappell - Portland OR Terry Ivan Chappell - Portland OR Bruce Martin Fleischer - Mt. Kisco NY Rudolf Adriaan Haring - Cortlandt Manor NY Talal Kamel Jaber - Autin TX Edward Seewann - Austin TX
Assignee:
International Business Machines Corporation - Armonk NY
International Classification:
H03K 19003
US Classification:
326 93
Abstract:
A pulsed logic circuit test methodology and circuitry therefor are disclosed. The methodology and circuitry allow the inhibiting of reset pulses, the ability to force resets and the ability to test the circuit in a pseudo-static mode of operation.
Method And Apparatus For Synthesizing And Optimizing Control Logic Based On Srcmos Logic Array Macros
Michael Patrick Beakes - Yorktown Heights NY Barbara Alana Chappell - Portland OR Terry Ivan Chappell - Portland OR Gary S. Ditlow - Garrison NY Barry Lee Dorfman - Austin TX Bruce Martin Fleischer - Mount Kisco NY Vinod Narayanan - Fishkill NY Robert Alan Philhower - Carmel NY George Anthony Sai Halasz - Mount Kisco NY Ghavam Ghavami Shahidi - Emsford NY David James Widiger - Pflugerville TX
Assignee:
International Business Machines Corporation - Armonk NY
International Classification:
G06F 1750
US Classification:
716 8
Abstract:
A computer-based method automatically synthesizes, optimizes and compiles high performance control logic using SRCMOS LOGIC ARRAY MACROS, abbreviated as SLAMs. The method includes a series of steps that transform a high level design description into a set of SLAMs, and includes the steps of partitioning the logic description of a unit into blocks that are suitable for mapping to a target SLAM structure; mapping each logic partition to the target SLAM structure; creating a configuration and relative layout for the internal structure for each SLAM; creating an external description for each SLAM, each description being of sufficient detail to carry out physical design and integration of the unit which contains the SLAM; assembling the partitions implemented as SLAMs with other macros in the unit; resolving interface conflicts between the different macros by selecting appropriate signal interfaces for various SLAMs; repeatedly changing the external specifications of the various SLAMs; analyzing the performance of the unit; automatically compiling the schematic and layout of each SLAM within the unit based on the configuration and relative layout; and assembling the macros and analyzing the design for design rule violations.
Self-Resetting Cmos Parallel Adder With A Bubble Pipelined Architecture, Tri-Rail Merging Logic, And Enhanced Testability
Michael P. Beakes - Yorktown Heights NY Barbara A. Chappell - Portland OR Terry I. Chappell - Portland OR Bruce M. Fleischer - Mount Kisco NY Thao N. Nguyen - Katonah NY
Assignee:
International Business Machines Corporation - Armonk NY
International Classification:
G06F 750
US Classification:
364787
Abstract:
A parallel self-resetting parallel binary adder provides high speed addition and subtraction. The adder combines the advantages of a fully custom design methodology with the higher performance potential of self-resetting complementary metal oxide semiconductor (CMOS) circuits. The adder logic architecture is carry look-ahead with two bit groups and requires six rows of merge logic to calculate the carry out of the Most Significant Bit (MSB). Loading on the critical path of the adder is reduced by moving as many merge blocks as possible to later rows. This allows the fan-out per stage in the critical path to be reduced from around three to two or less. The adder utilizes a bubble pipelined circuit architecture. For the adder, a bubble pipe segment consists of a row of self-resetting circuit blocks. A fast cycle time and minimum delay for each block is achieved by using fast forward amplification of the leading edge of the pulsed input signals followed by quick self-resetting of all nodes back to their standby state.
Michael Patrick Beakes - Yorktown Heights NY Barbara Alana Chappell - Portland OR Terry Ivan Chappell - Portland OR Gary S. Ditlow - Garrison NY Barry Lee Dorfman - Austin TX Bruce Martin Fleischer - Mount Kisco NY Vinod Narayanan - Fishkill NY David James Widiger - Pflugerville TX
Assignee:
International Business Machines Corporation - Armonk NY
International Classification:
H03K 19096
US Classification:
326 96
Abstract:
A logic circuit family implements self-resetting CMOS logic array macros (SLAMs) which include a plurality of inputs to which a plurality of data input signals can be applied; a plurality of input buffers coupled to receive the input signals from the inputs; a NOR circuit coupled to receive the outputs of the input buffers and a pulsed logic timing signal synchronized within a predefined window with the arrival of the data input signals; an output buffer coupled to receive the output of the NOR circuit; and an output at which a data output signal is produced, with the output signal being a logical NOR of the data input signals; and with each of the NOR circuit, the plurality of input buffers, and the output buffer optionally having a separate reset input to reset it to a standby state. The SLAMs address the very high pressure on the performance of both control logic and control logic design systems. The distinguishing features of SLAMs are uniquely combined to allow the automated design, from a logic description and interface specifications, of a complete macro satisfying predetermined design guidelines.