The Boeing Company

Theboeing Company

Other

University of Washington

Gary E Georgeson

James J Troy

Scott Wesley Lea

Morteza Safai

Joseph Lawrence Hafenrichter

Kenneth Harlan Griess

Daniel James Wright

William Paul Motzer

Michael D Fogarty

Richard Henry Bossi

Jeffrey Reyner Kollgaard

Karl Edward Nelson

Barry Allen Fetzer

Xiaoxi Wang

Tyler M Holmes

William Joseph Tapia

Gregory James Sweers

Jeffrey G Thompson

Jill Paisley Bingham

Jeong-Beom Ihn

Alan Frank Stewart

Steven Kenneth Brady

James C Kennedy

Jonathan A Santiago

William Talion Edwards

Hong Hue Tat

Paul Stanley Rutherford

Marc Joel Piehl

Russell Lee Keller

Clarence Lavere Gordon, Iii

Martin L Freet

Robert James Miller

Jeffrey M Hansen

Nathan Rylan Smith

James E Engel

Matthew N O'Donnell

Everett A Westerman

Yuan-Jye Wu

Charles Michael Richards

James H Lee

Ivan Pelivanov

John Ralph Hull

Gregory Louis Clark

Daniel James Kovach

Raymond Doak Rempt

Donald Duane Palmer, Jr

Lawrence Stimson Lindgren

Matthew Todd Grimshaw

Michael Walter Evens

Rodney Stephen Wright

Jeffry J Garvey

Wesley L Holman

Taisia Tsukruk Lou

Marc Rollo Matsen

Branko Sarh

Michael Robert Chapman

Dennis P Sarr

Jeffrey Lynn Duce

Andrew Michael Robb

Kimberly Dawn Meredith

Bobby Joe Marsh

Joseph A Marshall

David L Banks

Scott R Johnston

Karl Einar Nelson

Gregory John Clark

Arun Ayyagari

Brian Dale Laughlin

Brice Aaron Johnson

Diane C Rawlings

Daniel G Sanders

John Dempsey Morris

Jason Philip Bommer

Kevin Yong Ung

Sayata Ghose

James A Grossnickle

Daniel Shedlock

John F Spalding, Jr

Samuel Francis Pedigo

Megan Nicole Watson

John F Spalding

Alireza Shapoury

Mark L Younie

Tyler Emerson Berkey

Dennis Michael Lewis

Lyle Ray Deobald

Steven Donald Blanchard

Jill Elisabeth Seebergh

Craig Farris Battles

Blake Anthony Bertrand

Nancy L Wood

John Z Lin

Jack J Esposito

Randy Jay Grove

Kinson D VanScotter

Michael P Kuntz

David A Lilienthal

Barry Ross Fox

David B Blackwell

Jeffrey Denys Morgan

Methods of recovering and/or recycling expanded polymer tooling, the methods including collecting expanded polymer tooling, reducing the collected expanded polymer tooling into smaller particles, treating the reduced expanded polymer tooling in order to yield an at least partially purified recovered polymer composition, and then collecting the at least partially purified recovered polymer composition. The at least partially purified recovered polymer composition can then be used to form new expandable polymer tooling.

Methods for recovering expanded polymer tooling

An aerial vehicle includes a wing body, a first wingtip, a second wingtip, a first edge, and a second edge. The aerial vehicle includes a pair of coaxial rotors configured to rotate in opposite rotational directions about a vehicle axis and a drive assembly configured to rotate the coaxial rotors. A controller is configured to selectively control thrust produced by the coaxial rotors. Selective control of the thrust produced by the coaxial rotors induces a pitch motion of the aerial vehicle to transition between a horizontal flight state and a vertical flight state. In the horizontal flight state, a collective thrust from the coaxial rotors is directed forward. In the vertical flight state, the collective thrust from the coaxial rotors is directed upward.

Aerial vehicles, cooperative flying systems, and methods of operating the same

Various techniques are provided to utilize nanostructures for process monitoring and feedback control. In one example, a method includes forming a layer of material including nanostructures distributed therein. Each nanostructure includes a quantum dot and a shell encompassing the quantum dot. The shells and quantum dots are configured to emit a first and second wavelength, respectively, in response to an excitation signal. The method further includes applying the excitation signal to at least a portion of the layer of material. The method further includes detecting an emitted signal from the portion of the layer of material, where the emitted signal is provided by at least a subset of the nanostructures in response to the excitation signal. The method further includes determining whether a manufacturing characteristic has been satisfied based at least on a wavelength of the emitted signal. Related systems and products are also provided.

Nanostructures for process monitoring and feedback control

Systems and methods for tracking the location of a non-destructive inspection (NDI) scanner using scan data converted into images of a target object. Scan images are formed by aggregating successive scan strips acquired using one or two one-dimensional sensor arrays. An image processor computes a change in location of the NDI scanner relative to a previous location based on the respective positions of common features in partially overlapping scan images. The performance of the NDI scanner tracking system is enhanced by: (1) using depth and intensity filtering of the scan image data to differentiate features for improved landmark identification during real-time motion control; and (2) applying a loop-closure technique using scan image data to correct for drift in computed location. The enhancements are used to improve localization, which enables better motion control and coordinate accuracy for NDI scan data.

Enhanced vehicle navigation using non-destructive inspection one-dimensional sensor arrays

Methods and apparatus for UAV-enabled marking of surfaces during manufacture, inspection, or repair of limited-access structures and objects. A UAV is equipped with a marking module that is configured to apply marking patterns (e.g., alignment features) of known dimensions to surfaces. The marking module may include a 2-D plotter that enables free-form drawing capability. The marking process may involve depositing material on the surface. The marking material may be either permanent or removable. A 'clean-up' module may be attached to the UAV platform instead of the marking module, and may include solvents and oscillating or vibrating pads to remove the marks via scrubbing. The clean-up module can also be used for initial surface preparation.

Methods for marking surfaces using unmanned aerial vehicles

Wearable ergonomics improvement systems and related methods are disclosed. An example ergonomics improvement system includes a membrane including a first frame having a plurality of first cutouts defining a first pattern. The system includes a sensor coupled to the membrane and includes a second frame having a plurality of second cutouts defining a second pattern. The first pattern is complementary to the second pattern.

Ergonomics improvement systems having wearable sensors and related methods

Rotation hoists are disclosed. A disclosed example rotation hoist to support a component includes a platform having a first end and a second end opposite the first end, a body supported by the platform, a rotator supported by the body, the rotator couplable to the component at a first position of the component, and an arm extending from the rotator, the arm couplable to the component at a second position of the component different from the first position, the rotator to rotate the arm to rotate the component.

Rotation hoists

A metamaterial-based substrate (meta-substrate) for piezoelectric energy harvesters. The design of the meta-substrate combines kirigami and auxetic topologies to create a high-performance platform including preferable mechanical properties of both metamaterial morphable structures. The creative design of the meta-substrate can improve strain-induced vibration applications in structural health monitoring, internet-of-things systems, micro-electromechanical systems, wireless sensor networks, vibration energy harvesters, and other applications whose efficiency is dependent on their deformation performance. The meta-substrate energy harvesting device includes a meta-material substrate comprising an auxetic frame having two kirigami cuts and a piezoelectric element adhered to the auxetic frame by means of a thin layer of elastic glue.

Metamaterial-based substrate for piezoelectric energy harvesters

Certain aspects of the present disclosure provide techniques for a method, including: receiving multi-dimensional event data associated with a vehicle event; determining, based on the multi-dimensional event data, an inspection classification for the vehicle event; receiving multi-dimensional analysis data associated with the inspection classification for the vehicle event; determining, based on the multi-dimensional analysis data, a repair classification for the vehicle event; receiving multi-dimensional action data associated with the repair classification for the vehicle event; and determining, based on the multi-dimensional action data, a monitoring classification for the vehicle event.

Smart system for rapid and accurate aircraft maintenance decision making

A nozzle for dispensing adhesive between a first part and a second part comprises a nozzle body. The nozzle body comprises a first-part engagement surface. The nozzle body also comprises a second-part engagement surface, contiguous with the first-part engagement surface and defining an engagement-surface angle, greater than 0° and less than 180°, with a virtual plane, coincident with the first-part engagement surface. The nozzle body further comprises a nozzle-body outlet port, formed in the second-part engagement surface. The nozzle body additionally comprises a nozzle-body inlet port, formed in the first-part engagement surface. The nozzle also comprises a separator plate, coupled with and extending from the nozzle body.

Nozzles and systems for adhesively attaching a first part to a second part

A method includes obtaining, at an unmanned aerial vehicle, a flight plan for the unmanned aerial vehicle. The flight plan is based on an aircraft type of an aircraft to be inspected. The method also includes coordinating, with a control device onboard the aircraft, an operation of a particular device of the aircraft based on the flight plan such that a state of the particular device changes when a particular sensor of the one or more sensors is located (i.e., positioned and oriented) to perform a sensing operation on the particular exterior light. The method further includes performing the sensing operation on the particular device using the particular sensor. The method also includes determining a functionality metric associated with the particular device based on the sensing operation.

Lighting system inspection using an unmanned aerial vehicle

Methods of manufacturing composite workpieces that include adding an expandable element to an internal volume of a constraining container proximate to a uncured composite workpiece supported on a rigid form, where the expandable element is configured to expand when a predetermined change is produced in an attribute of the expandable element; expanding the expandable element by producing the predetermined change in the attribute of the expandable element, so that an expansion of the expandable element applies pressure to the workpiece supported on the rigid form within the internal volume, and curing the composite workpiece while the resulting pressure is applied to the workpiece supported on the rigid form.

Expandable tooling systems and methods

A system and method for detecting an anomaly of an optically transparent or translucent object are disclosed. The system and method include a light source configured to emit light, a light transmission element having a textured surface, and an optical couplant configured to be disposed between the light transmission element and the object. At least a portion of the light emitted by the light source is configured to pass into the light transmission element through the textured surface and pass into the object through the optical couplant. At least a portion of the light that passes into the object internally reflects within the object and impinges on the anomaly to provide an illumination that indicates the location of the anomaly.

Systems and methods for detecting anomalies in objects

In an example, a method of sealing a bond cavity is described. The method comprises placing an adhesive around a perimeter of a first structure to be joined to a second structure. The method also comprises positioning the first structure relative to the second structure such that the adhesive is disposed between the first structure and the second structure. The method also comprises merging the first structure and the second structure until the first structure and the second structure are separated by a desired gap for bonding. The method also comprises heating the perimeter to at least partially cure the adhesive to form a leak-proof bond cavity perimeter between the first structure and the second structure.

Systems and methods for sealing a bond cavity between structural components

A method for wirelessly coupling respective transducers of an automated motion platform and a sub-surface sensor node through a skin of a limited-access structure for the purpose of wireless power and data transfer. Coordinates of an as-designed position of the transducer of the sensor node in a local coordinate system of the limited-access structure are retrieved from a non-transitory tangible computer-readable storage medium. Then coordinates of a target position on an external surface of the skin of the limited-access structure are estimated. The target position is calculated to be aligned with the as-designed position of the transducer of the sensor node. The motion platform is moved under computer control so that the transducer onboard the motion platform moves toward the target position. Movement ceases when the transducer onboard the motion platform is at the target position. Then wave energy is transferred between the aligned transducers.

Methods for through-structure power and data transfer between mobile robots and sensor nodes

Growing community of inventors

Tacoma, WA, United States of America

Gary E Georgeson