A gimbal system. The gimbal system may include space-saving features configured to accommodate one or more payload components, thus increasing the payload capacity of the gimbal ball without necessarily increasing the outer dimensions of the gimbal ball. Alternatively, or in addition, the gimbal system may include a motor configured to move at least one gimbal relative to another gimbal about a first axis, with the motor peripherally mounted distal the axis.
Gregory D. Dent - Hillsboro OR, US Kevin E. Jones - Portland OR, US William H. Taylor - South Deerfield MA, US James H. Weaver - West Linn OR, US John M. Wiltse - Lake Oswego OR, US
Assignee:
FLIR Systems, Inc. - Wilsonville OR
International Classification:
G02B 23/00
US Classification:
359421
Abstract:
Optical systems, including apparatus and methods, for obtaining images, particularly with multiple fields of view. These systems may utilize a plurality of optical components with different optical axes, where the optical axes may be selectively rotated into alignment with an imaging axis to obtain images having various discrete fields of view.
A spatially efficient kinematic mirror mount for mounting a mirror or other optical element to a housing. The kinematic mirror mount may include three spaced-apart constraint structures, positioned at or near the outer perimeter or circumference of the mirror. The constraint structures constrain the mirror to lie within a plane, typically the x-y plane defined by the orientation of the housing, substantially without overconstraining the mirror. To accomplish this, each of the three constraint structures may constrain the mirror in the x-y plane by independently providing a tangential constraint to the mirror. The constraint structures may include a tab, coupled to the mirror by a flexure, and a fastening assembly for securing the tab to the housing.
Christopher J. Aicher - Tigard OR, US Gregory D. Dent - Hillsboro OR, US Bruce Ellison - Lake Oswego OR, US James H. Weaver - West Linn OR, US John M. Wiltse - Lake Oswego OR, US
Assignee:
FLIR Systems, Inc. - Wilsonville OR
International Classification:
H02K 33/00 H02K 41/02 F16M 11/12 G03B 17/00
US Classification:
310 38, 310 1229, 396428
Abstract:
A gimbal system. The gimbal system may include space-saving features configured to accommodate one or more payload components, thus increasing the payload capacity of the gimbal ball without necessarily increasing the outer dimensions of the gimbal ball. Alternatively, or in addition, the gimbal system may include a motor configured to move at least one gimbal relative to another gimbal about a first axis, with the motor peripherally mounted distal the axis.
Apparatus And Method For Drop Size Modulated Ink Jet Printing
Ronald F. Burr - Wilsonville OR Eric C. Segerstrom - Portland OR Christine M. Greb - Lake Oswego OR John M. Wiltse - Portland OR Joseph D. Hart - Vancouver WA
Assignee:
Xerox Corporation - Stamford CT
International Classification:
B41J 2938 B41J 2045
US Classification:
347 11
Abstract:
An apparatus and method provide on-demand drop volume modulation by utilizing a single transducer driving waveform to drive an ink jet. The driving waveform includes at least a first portion and a second portion that each excites a different modal resonance of ink in an ink jet orifice to produce ink drops having different volumes. A control signal is applied to the driving waveform to actuate the selected portion of the waveform to eject the desired ink drop volume for a given pixel. The control signal also cancels the non-selected portion(s) of the waveform to avoid extraneous excitation of the transducer.
Method And Apparatus For Controlled Modification Of Fluid Flow
Ari Glezer - Tucson AZ Kris J. Nygaard - Glendale AZ John M. Wiltse - Tucson AZ
International Classification:
F15C 104
US Classification:
137 13
Abstract:
Substantial alteration of the flow conditions in a fluid stream are effected by the application of controlled disturbances to the boundary of or within the stream by one or more piezoelectric actuators. The actuators have resonance frequencies substantially in excess of the unstable frequencies of the stream. The actuators are energized by carrier signals at the resonance frequencies of the actuators, which carrier signals have been modulated at the desired unstable frequency of the stream.
Ari Glezer - Atlanta GA Mark G. Allen - Atlanta GA David J. Coe - Atlanta GA Barton L. Smith - Decatur GA Mark A. Trautman - Decatur GA John W. Wiltse - Marietta GA
Assignee:
Georgia Tech Research Corporation - Atlanta GA
International Classification:
B05B 1706
US Classification:
239 4
Abstract:
Synthetic jet actuator, which can be micromachined if desired, generates a synthetic jet stream characterized by a series of successive vortices that can be used for effectively entraining adjacent fluid. The synthetic jet actuator can be used to bend, or vector, a jet stream from another jet actuator. Further, because the synthetic jet actuator exhibits zero net mass flux, the synthetic jet actuator can be used within a bounded volume. In structure, the synthetic jet actuator comprises a housing defining an internal chamber and having an orifice. A flexible metallized diaphragm forms a wall of the housing and can change the volume of the chamber when moved. An electrode is disposed adjacent to and spaced from the diaphragm, and an electrical bias is imposed between the metallized diaphragm and the electrode by a control system to force movement of the diaphragm. As the diaphragm moves, the volume in the internal chamber changes and vortices are ejected from the chamber through the orifice.
Ari Glezer - Atlanta GA Mark G. Allen - Atlanta GA David J. Coe - Atlanta GA Barton L. Smith - Decatur GA Mark A. Trautman - Decatur GA John W. Wiltse - Marietta GA
Assignee:
Georgia Tech Research Corporation - Atlanta GA
International Classification:
B05B 1706
US Classification:
239423
Abstract:
A synthetic jet actuator, which can be micromachined if desired, generates a synthetic jet stream characterized by a series of successive vortices that can be used for effectively entraining adjacent fluid. The synthetic jet actuator can be used to bend, or vector, a jet stream from another jet actuator. Further, because the synthetic jet actuator exhibits zero net mass flux, the synthetic jet actuator can be used within a bounded volume. In structure, the synthetic jet actuator comprises a housing defining an internal chamber and having an orifice. A flexible metallized diaphragm forms a wall of the housing and can change the volume of the chamber when moved. An electrode is disposed adjacent to and spaced from the diaphragm, and an electrical bias is imposed between the metallized diaphragm and the electrode by a control system to force movement of the diaphragm. As the diaphragm moves, the volume in the internal chamber changes and vortices are ejected from the chamber through the orifice.
Resumes
Engineering Project Manager / Multidisciplinary Systems Engineer
FLIR Systems since Jan 2010
Engineering Project Manager
FLIR Systems, Inc. Jan 1999 - Jan 2010
Senior Systems Engineer
Tektronix, Inc. Jul 1995 - Dec 1998
Mechanical Engineer
Education:
Georgia Institute of Technology 1993 - 1995
Postdoc
University of Arizona 1988 - 1993
Ph.D., Mechanical Engineering
California Institute of Technology 1984 - 1988
B.S., Engineering and Applied Science
Flir Systems, Inc. Laboratory Analytical Instruments
27700 Sw Parkway Ave, Charbonneau, OR 97070
John Wiltse Operations Executive
Wyoming Tribune-Eagle Advertising Agencies
702 W Lincolnway, Cheyenne, WY 82001
John Wiltse Mechanical Designer
FLIR Systems Electrical/Electronic Manufacturing · Mfg Search/Navigation Equipment Analytical Instruments · Mfg Search/Navgatn Equip Mfg Analytical Instr · Mfg Search/Navigation Equipment Mfg Analytical Instruments · Search and Navigation Equipment, Nsk · Photographic and Photocopying Equipment Manufacturing · Industrial Process Variable Instruments · Search, Detection, Navigation, Guidance, Aeronautical, and N
27700 SW Pkwy Ave, Wilsonville, OR 97070 2390 E Camelback Rd, Phoenix, AZ 85016 160 Greentree Dr #101, Dover, DE 19904 Wilsonville, OR 97070 (503)4983547, (503)4983153, (800)3223731, (503)6843731