Boeing
Project Engineer - Widebody Propulsion Integration
The Ohio State University Sep 2009 - Jun 2012
Phd - Mechanical and Aerospace Engineering
Concepts Nrec May 2006 - Aug 2009
Assistant Aero Engineer
Brigham Young University May 2007 - Aug 2009
Masters Student In Mechanical Engineering
Education:
The Ohio State University 2009 - 2012
Doctorates, Doctor of Philosophy, Engineering
Brigham Young University 2007 - 2009
Master of Science, Masters, Mechanical Engineering
Brigham Young University 2001 - 2007
Bachelors, Bachelor of Science, Applied Physics
Sep 2009 to 2000 PhD Candidate of Mechanical and Aerospace EngineeringBrigham Young University
May 2007 to Aug 2009 Masters Student in Mechanical EngineeringConcepts NREC
May 2006 to Aug 2009 Assistant Aero EngineerThe Church of Jesus Christ of Latter-day Saints
Sep 2002 to Sep 2004 Volunteer Representative
Education:
The Ohio State University Jan 2009 to Jan 2012 Ph.D. in Aeronautical EngineeringBrigham Young University Jan 2007 to Jan 2009 Master of Science in Mechanical EngineeringBrigham Young University Jan 2001 to Jan 2007 Bachelor of Science in Applied Physics
Skills:
Wind Tunnel Testing, Particle Image Velocimetry, Technical Writing, Data Analysis, Experimental investigation of fluid dynamics. Experienced with particle image velocimetry (time-averaged and phase-locked), hot-film anemometry for boundary layer investigation and wake-surveys (time-averaged and phase-locked), surface oil-flow visualization, and pressure transducers. Proficient with data analysis, technical writing and presentations.
- Pleasant Grove UT, US Jon Erik Knabenschuh - Orem UT, US Lyman Davies HORNE - South Jordan UT, US Tyler Drue PARK - Springville UT, US Matthew Robertson MORIN - Orem UT, US James David MACKIE - Provo UT, US Matthew Elliott ARGYLE - Lindon UT, US Bryan Alan DAVIS - Salt Lake City UT, US Chester Parker FERRY - Pleasant Grove UT, US Daniel Glen BEZZANT - Alpine UT, US Justin Craig HUNTINGTON - Provo UT, US Nathan James PACKARD - Provo UT, US
International Classification:
G01S 13/87 G01S 13/04 G01S 13/00 G01S 7/28
Abstract:
Systems, methods, and computer-readable media are described for compact radar systems. In some examples, a compact radar system can include a first set of transmit antennas, a second set of receive antennas, one or more processors, and at least one computer-readable storage medium storing computer-executable instructions which, when executed by the one or more processors, cause the radar system to coordinate digital beam steering of the first set of transmit antennas and the second set of receive antennas, and coordinate digital beam forming with one or more of the second set of receive antennas to detect one or more objects within a distance of the radar system.
System And Method For Radar Disambiguation Techniques
A system having an array of antennas with particular weights for signals associated with different groups of antennas. The array of antennas includes a first group of antennas positioned in a middle portion of the array of antennas, a second group of antennas positions at one or more edges of the array of antennas, and a third group of antennas positioned at one or more corners of the array of antennas. The system includes a control module configured to control each respective and tenant in the array of antennas. The control module can further be configured to weight the first group of antennas a first weighting amount, to weight the second group of antennas a second weighting amount and to weight the third group of antennas a third weighting amount. The weighting improves the system's ability to reduce ambiguities in an angle of arrival associated with the object.
- Chicago IL, US George Michael Granger - Redmond WA, US Melissa H. Lewis - Auburn WA, US Nathan Owen Packard - Lake Stevens WA, US Alan G. Burg - Des Moines WA, US Brian D. Osborne - Seattle WA, US
International Classification:
B26D 7/00 B26D 7/26 B26D 5/10
Abstract:
Methods and apparatus to align applique cutters are disclosed. A disclosed example alignment rail is for use with cutting an applique relative to a surface of a vehicle. The example alignment rail includes a base to contact the surface. The example alignment rail also includes a body including a cross-sectional profile extending along a longitudinal axis of the alignment rail. The example alignment rail also includes a groove of the cross-sectional profile extending along the longitudinal axis, where the groove is to align movement of a cutting tool to cut the applique.
System And Method For Radar Disambiguation Techniques
A system having an array of antennas with particular weights for signals associated with different groups of antennas. The array of antennas includes a first group of antennas positioned in a middle portion of the array of antennas, a second group of antennas positions at one or more edges of the array of antennas, and a third group of antennas positioned at one or more corners of the array of antennas. The system includes a control module configured to control each respective and tenant in the array of antennas. The control module can further be configured to weight the first group of antennas a first weighting amount, to weight the second group of antennas a second weighting amount and to weight the third group of antennas a third weighting amount. The weighting improves the system's ability to reduce ambiguities in an angle of arrival associated with the object.
Image Capture And Reconstruction Protocol Selection System
- Rochester NY, US Lawrence A. RAY - Rochester NY, US Edward B. GINDELE - Rochester NY, US Nathan J. PACKARD - Provo UT, US
International Classification:
G06T 11/00 A61B 6/00 A61B 6/03
Abstract:
A method accepts patient-specific data for imaging a patient extremity on a cone beam computed tomography apparatus and generates and displays a set of acquisition parameters and dose indication for 2-D projection image capture of the extremity. The generated set of acquisition parameters and dose indication are updated according to one or more operator entered instructions. A set of 2-D projection images of a 3-D volume is acquired according to the updated set of acquisition parameters. The volume is reconstructed according to the acquired set of 2-D projection images.
- Rochester NY, US Xiaohui WANG - Pittsford NY, US Timothy J. WOJCIK - Rochester NY, US Nathan J. PACKARD - Provo UT, US
International Classification:
A61B 6/00 H04N 5/32
Abstract:
Synchronizing operation between a digital radiographic detector's integration periods and an x-ray generator's x-ray pulse rate by transmitting a frame rate to the detector and the generator. In a first mode, the detector monitors one or more pixels to detect an x-ray pulse. The firing time of the detected x-ray pulse relative to an internal clock of the detector is used to synchronize the detector's integration periods with the pulse rate of the x-ray generator based on the transmitted frame rate and the detected firing time of the x-ray pulses. Successive pulses may also be used to determine a frame rate without prior transmission thereof.
- Rochester NY, US Nathan J. PACKARD - Provo UT, US
International Classification:
A61B 6/10 A61B 6/00 A61B 6/02 A61B 6/04
Abstract:
An apparatus having an x-ray source and an x-ray detector configured to be rotated about a standing patient to capture and store a plurality of radiographic images of the patient during the rotation. A portable enclosure surrounds the source, the detector and the patient.
Tomographic Image Acquisition Using Asymmetrical Pixel Binning
- Rochester NY, US Richard A. SIMON - Rochester NY, US Levon O. VOGELSANG - Webster NY, US Nathan J. PACKARD - Provo UT, US
International Classification:
G06T 11/00 A61B 6/00 A61B 6/02 A61B 6/03
Abstract:
A computer implemented method for reconstructing a -D volume image using a radiographic imaging system having one or more x-ray sources and a digital detector. A plurality of radiographic images of a subject at various angles are captured in the digital detector. Image data in two or more pixels of the detector that are adjacent to each other in a row direction or a column direction are combined, while pixels adjacent in the other direction are not combined.
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