Engeniusmicro
Owner and Ceo, Engeniusmicro
Cgi Jun 1998 - Jun 2011
Director of R and D
Education:
Georgia Institute of Technology 2004 - 2011
Doctorates, Doctor of Philosophy, Computer Engineering, Philosophy
Carnegie Mellon University 1996 - 1998
Masters, Electrical Engineering
Cornell University 1992 - 1996
Bachelors, Engineering, Applied Physics, Physics
Clymer Central School
Carnegie Mellon University
Master of Science, Masters
Skills:
Systems Engineering Project Management Program Management Testing Agile Methodologies Change Management Electronics Embedded Software Embedded Systems Engineering Engineering Management Integration Java Manufacturing Product Development R&D Software Project Management Software Engineering Software Development Software Design Requirements Analysis Simulations System Architecture Unix Management Leadership Electrical Engineering Cross Functional Team Leadership
Interests:
Football Exercise Home Improvement Scuba Diving Reading Sports Watching Basketball Home Decoration Watching Sports Cooking Electronics Outdoors Fitness Music Camping Movies Collecting Joggin Automobiles Travel Investing Traveling International Traavel Basketball Tennis Watching Football
Program Management SDLC Business Analysis Vendor Management SharePoint
Awards:
Patriot Award United States Army National Guard and Reserve Received the Patriot Award for Employer Support of the Guard and Reserve, for direct support of Starbucks' employees deployed to Iraq between 2003 and 2005. Gathered weekly coffee mark-outs and brewing supplies, packaged and shipped them overseas to Reservists who were Starbucks employees, for distribution directly to the troops in Iraq and Kuwait.
Sherrie Burgett Holt - Grant AL, US Michael S. Kranz - Madison AL, US
Assignee:
United States of America as represented by the Secretary of the Army - Washington DC
International Classification:
G01C 19/00
US Classification:
7350402, 7350412
Abstract:
A gyroscope and temperature sensor are formed on a single chip using SOI-MEMS technology. The temperature sensor has an array of resistors to accurately detect the temperature of the gyroscope in temperatures and conditions that can range from extreme heat to extreme cold. The positioning of the gyroscope and temperature sensor on the same chip allow for extremely accurate real-time feedback of the gyroscope's temperature for utilization by a control system.
Michael Scott Kranz - Madison AL, US Larry Christopher Heaton - Huntsville AL, US Calvin Wayne Long - Tullahoma TN, US
Assignee:
Morgan Research Corporation - Huntsville AL
International Classification:
G01B 9/02
US Classification:
356452
Abstract:
The Miniature Fourier Transform Spectrophotometer provides the capability, in a miniaturized device, of determining the light absorption/transmission spectra of a collected sample of gas or liquid though Fourier Transform spectroscopy techniques. The device takes an optical input from an optical fiber, manipulates that light through miniature optical components, and launches it into a miniaturized Michelson interferometer with a scanning mirror that acquires the interferogram of the optical input. The interferogram can be processed to retrieve the spectrum of the input light. A novel multi-stepped micro-mirror operates as the optical path length modulator in the miniaturized interferometer. A unique monolithic beamsplitter/mirror combination provides for accurate alignment of the components and greatly simplifies product integration. The device is designed to cover various optical spectra of interest.
Michael Scott Kranz - Madison AL, US Robert Faye Elliott - Madison AL, US Michael Ray Whitley - Madison AL, US Marty Ray Williams - Huntsville AL, US Philip John Reiner - Huntsville AL, US
Assignee:
Morgan Research Corporation - Huntsville AL
International Classification:
H01L 21/00
US Classification:
438 48, 438 50, 257414
Abstract:
The MEMS Sensor Suite on a Chip provides the capability, monolithically integrated onto one MEMS chip, to sense temperature, humidity, and two axes of acceleration. The device incorporates a MEMS accelerometer, a MEMS humidity sensor, and a MEMS temperature sensor on one chip. These individual devices incorporate proof masses, suspensions, humidity sensitive capacitors, and temperature sensitive resistors (thermistors) all fabricated in a common fabrication process that allows them to be integrated onto one micromachined chip. The device can be fabricated in a simple micromachining process that allows its size to be miniaturized for embedded and portable applications. During operation, the sensor suite chip monitors temperature levels, humidity levels, and acceleration levels in two axes. External circuitry allows sensor readout, range selection, and signal processing.
Michael Scott Kranz - Madison AL, US Larry Christopher Heaton - Huntsville AL, US Calvin Wayne Long - Tullahoma TN, US
Assignee:
Morgan Research Corporation - Huntsville AL
International Classification:
G01B 9/02
US Classification:
356450, 356452
Abstract:
The Miniature Fourier Transform Spectrophotometer provides the capability, in a miniaturized device, of determining the light absorption/transmission spectra of a collected sample of gas or liquid though Fourier Transform spectroscopy techniques. The device takes an optical input from an optical fiber, manipulates that light through miniature optical components, and launches it into a miniaturized Michelson interferometer with a scanning mirror that acquires the interferogram of the optical input. The interferogram can be processed to retrieve the spectrum of the input light. A novel multi-stepped micro-mirror operates as the optical path length modulator in the miniaturized interferometer. A unique monolithic beamsplitter/mirror combination provides for accurate alignment of the components and greatly simplifies product integration. The device is designed to cover various optical spectra of interest.
Embeddable Polarimetric Fiber Optic Sensor And Method For Monitoring Of Structures
Jeffery Lee Williams - Huntsville AL, US Michael Scott Kranz - Madison AL, US Larry Christopher Heaton - Huntsville AL, US
Assignee:
Morgan Research Corporation - Huntsville AL
International Classification:
G01B 9/02
US Classification:
356477
Abstract:
The present invention provides the capability of ascertaining, through a quick and simple measurement, locations on a structure that may have experienced damage that could result in reduced structure lifetime, strength, or reliability. The sensing element is a connectorized section of polarization maintaining (“PM”) optical fiber, where a length of PM fiber represents a fully distributed sensor array. Stress-induced changes to the sensor are measured through white-light Polarimetric interferometry. The output of the measurement is a data array representing the stress concentration magnitude at an array of locations along the length of the sensor. In an application, the knowledge of the optical fiber position on the structure, coupled with the measurement of stress locations along the fiber length, allows the user to determine locations on the structure with large stress concentrations. These locations may signify structural damage. This knowledge would allow the user to employ a more sophisticated system, albeit a larger and slower one, to fully characterize and evaluate that area of potential damage and take appropriate action.
Michael Scott Kranz - Madison AL, US Robert Faye Elliot - Madison AL, US Michael Ray Whitley - Madison AL, US Marty Ray Williams - Huntsville AL, US Philip John Reiner - Huntsville AL, US
Assignee:
Morgan Research Corporation - Huntsville AL
International Classification:
G01P 1/02 G01P 15/125
US Classification:
73493, 7351432
Abstract:
The MEMS Sensor Suite on a Chip provides the capability, monolithically integrated onto one MEMS chip, to sense temperature, humidity, and two axes of acceleration. The device incorporates a MEMS accelerometer, a MEMS humidity sensor, and a MEMS temperature sensor on one chip. These individual devices incorporate proof masses, suspensions, humidity sensitive capacitors, and temperature sensitive resistors (thermistors) all fabricated in a common fabrication process that allows them to be integrated onto one micromachined chip. The device can be fabricated in a simple micromachining process that allows its size to be miniaturized for embedded and portable applications. During operation, the sensor suite chip monitors temperature levels, humidity levels, and acceleration levels in two axes. External circuitry allows sensor readout, range selection, and signal processing.
Resettable Latching Mems Shock Sensor Apparatus And Method
Michael S. Kranz - Madison AL, US Arthur A. Jenkins - Madison AL, US
Assignee:
Morgan Research Corporation - Huntsville AL
International Classification:
G01M 7/00 G01N 3/30 G01N 3/32 G01P 15/00
US Classification:
73 1201
Abstract:
The Resettable Latching MEMS Shock Sensor provides the capability of recording external shock extremes without consuming electrical power. The device incorporates a shock sensitive suspended proof mass, spring-loaded contacts, latches, and actuators for device reset. The device can be designed, hardwired, or programmed to trigger at various shock levels. The device can be fabricated in a simple micromachining process that allows its size to be miniaturized for embedded and portable applications. During operation, the device consumes no quiescent power. The device can be configured to close a circuit, switch an interrupt signal, or switch some other electrical trigger signal between devices at the time of a shock extreme being reached, or it can be configured to latch and be polled at some time after the shock limit has occurred.
Michael S. Kranz - Madison AL, US Sherrie Burgett Holt - Grant AL, US
Assignee:
United States of America as represented by the Secretary of the Army - Washington DC
International Classification:
G01P 9/04
US Classification:
7350414, 7350412
Abstract:
A SOI-MEMS gyroscope has a three fold symmetrical construction such that is symmetrical in the x direction, the y direction and diagonally. The gyroscope is suspended above a silicon substrate by lateral flexures that are located at the corners of the proof mass and by central flexures that are positioned at the center regions of the proof mass. The proof mass, lateral flexures, and central flexures are formed of a silicon composition with the flexures supporting the proof mass such that the proof mass will not touch the underlying base silicon substrate even when subjected to extreme G forces. Comb finger actuators apply an electrostatic force to the proof mass in the x direction; and, when experiencing an external rotational rate around the z-axis, the Coriolis force acts along the y direction and the resulting deflection is sensed by a pair of comb-finger capacitors connected as a differential capacitive voltage divider.
We couldnt have built this game without the help of our colleagues. Michael Kranz, who leads the web development team at the Simons Foundation, provided coding support, and several members of Quantas editorial and art teams playtested early prototypes.
We hope we got it mostly right. And we couldnt have built this game without the help of our colleagues. Michael Kranz, who manages the web development team at the Simons Foundation, provided coding support, and several members of Quantas editorial and art teams play-tested early prototypes.