Naval Surface Warfare Center, Crane Division
Chief Scientist
The Pentagon
Aaas Science and Technology Science Policy
3M Health Care Apr 2015 - Aug 2017
Product Development Specialist
National Institute of Standards and Technology Nov 2012 - Mar 2015
Research Associate
Bae Systems Mar 2008 - Oct 2012
Senior Electrical Engineer
Education:
Uc San Diego 2004 - 2007
Doctorates, Doctor of Philosophy, Electrical Engineering
Uc San Diego 2002 - 2004
Cornell University 1998 - 2002
Bachelors, Bachelor of Science, Engineering, Physics
Skills:
Labview Semiconductors Characterization Microfabrication Matlab Comsol Optoelectronics Nanotechnology Photonics Thin Films Simulations Materials Science Physics Image Processing R&D Clean Rooms Systems Engineering Scanning Electron Microscopy Fib
Yannick C. Morel - Falls Church VA, US John E. McGeehan - Washington DC, US Clint J. Novotny - Washington DC, US Simon Y. London - Rockville MD, US
Assignee:
BAE Systems Information and Electronic Systems Integration Inc. - Nashua NH
International Classification:
H01S 4/00
US Classification:
333 20
Abstract:
A Multi-Cycle Digital High Power Microwave (MCD-HPM) source includes a microwave transmission line (MTL) to which a plurality electrically charged thin film transmission lines (TFTL's) are connected by switches. The switches are activated in sequence to generate a square wave at a microwave output frequency. The activation signal is controlled by a free space time delay, which can vary the timing and/or routing of the activation signal by modifying at least one free space element, thereby adjusting the switch activation timing and varying the output frequency. In embodiments, the switches are photo-conducting switches, the activation signal is a laser beam, and the switch timing is varied by reorienting and/or repositioning mirrors and/or other elements in the free space time delay. The elements can be manually adjusted, or mounted on motorized stages and automatically controlled. Optical amplifiers can be included to compensate for losses in the time delay elements.
A thermally conductive dielectric film includes a thermoplastic layer including polyester segments and 5 to 30% by wt polyether amide segments. The thermally conductive dielectric film has a thickness of less than 100 micrometers.
- St. Paul MN, US Jeremy M. Higgins - Roseville MN, US Clint J. Novotny - Arlington VA, US Mitchell T. Huang - Austin TX, US
International Classification:
B29C 55/12 C08K 3/22 C08K 7/18
Abstract:
An oriented film includes, an orientated polyester layer, and alumina particles dispersed within the orientated polyester layer. The alumina particles are present in an amount from 20 to 40% wt of the orientated film. The alumina particles having a D99 value of 25 micrometers or less.
Thermoplastic Polymer Composite Containing Soft, Ferromagnetic Particulate Material And Methods Of Making Thereof
- St. Paul MN, US Charles L. Bruzzone - Woodbury MN, US Michael S. Graff - Woodbury MN, US Derek J. Dehn - Maplewood MN, US Clint J. Novotny - Minneapolis MN, US
International Classification:
H01F 1/22 C08K 3/34
Abstract:
The present disclosure relates to polymer composites that include a thermoplastic polymer, network structure and a soft, ferromagnetic particulate material. The polymer composites may be used, for example, as magnetic flux field directional materials. The present invention also relates to methods of making the polymer composites, e.g. polymer composite sheets, of the present disclosure. In one embodiment, the present disclosure provides a polymer composite including a thermoplastic polymer, network structure; and a soft, ferromagnetic particulate material distributed within the thermoplastic polymer, network structure. The weight fraction of soft, ferromagnetic particulate material may be between 0.80 and 0.98, based on the total weight of the polymer composite and/or the thermoplastic polymer may have a number average molecular weight between 5×10g/mol to 5×10g/mol.
An oriented film includes an orientated semi-aromatic polyester layer and a thermally conductive filler dispersed in the orientated semi-aromatic polyester layer. The thermally conductive filler is at least 20% wt. of the oriented film.
- St. Paul MN, US Mitchell T. Huang - Austin TX, US Jeremy M. Higgins - Roseville MN, US Clint J. Novotny - Minneapolis MN, US
International Classification:
C09K 5/14 B29C 55/00
Abstract:
An oriented film includes an orientated semi-aromatic polyester layer and a thermally conductive filler dispersed in the orientated semi-aromatic polyester layer. The thermally conductive filler is at least 20% wt. of the oriented film.
High-Power Microwave Beam Steerable Array And Related Methods
- Nashua NH, US Yannick C. Morel - Falls Church VA, US Alexander B. Kozyrev - Rockville MD, US Simon Y. London - Rockville MD, US Clint J. Novotny - Washington DC, US Somnath Sengupta - Ellicott City MD, US Yeuan-Ming Sheu - Berwyn Heights MD, US Mark T. Walter - Annapolis MD, US
International Classification:
H01Q 3/26
Abstract:
A steerable high-power microwave beam array includes an optical sub-system comprising a laser and an optical time delay unit and a parallel set of RF time delay units. The optical system and/or the RF delay subsystem are utilized to precisely delay the pulses from the microwave antenna elements to provide steerable beam forming.
- NASHUA NH, US SHEILA J. KONECKE - LEESBURG VA, US SANTOS NAZARIO-CAMACHO - WOODBRIDGE VA, US CLINT J. NOVOTNY - WASHINGTON DC, US KEITH K. STURCKEN - NOKESVILLE VA, US
International Classification:
H05K 5/02 H05K 5/03 H05K 13/00 H05K 5/00
Abstract:
A microwave module is described. The microwave module includes a base bracket, a window plate and a lid. The base bracket is configured to contain a photoconductive switch, a radio-frequency transformer and dielectric oil. The window plate, which is transparent to optical light, covers a first portion of the base bracket in which the photoconductive switch is located. The window plate is sealed to the base bracket. The lid, which includes a cutout to allow the radio-frequency transformer to pass through the lid, covers a second portion of the base bracket in which the radio-frequency transformer is located. The window plate is sealed to the base bracket, and the lid is sealed to the window plate, the base bracket and the radio-frequency transformer to contain the dielectric oil within the microwave module.