Kineticure, LLC

Cornerstone Research Group, Inc.

Other

Nona Composites, LLC

Jason P Rice

Mark C Cridge

Tat Hung Tong

Patrick J Hood

Christopher Douglas Hemmelgarn

Jason Michael Hermiller

Joseph H Althaus

Matthew Brian Sunday

Kristin M Cable

Bryan Michael Pelley

Mitchell D Bauer

Kelly H Ridout

Michael J Hood

Trang T Young

Brian R Pleiman

Ben Dietsch

Mary T Parrish

Kory Evanson

Embodiments of systems and methods for positioning and bonding a nutplate to a substrate comprising at least one aperture, wherein the system includes a nutplate retention fixture formed from a threaded insert and an elastomeric tube engaged with the threaded insert; a heater assembly formed from a heating element, a temperature sensor operable to measure the temperature of the heating element, and a heater housing; a heater retention fixture operable to engage with the nutplate retention fixture and maintain the heater assembly in contact with the substrate; and a heater controller operable to control the output from the heating element. The heater retention fixture includes a spring-loaded nut clamp provided concentrically around the threaded insert and configured to secure the heater retention fixture to the nutplate retention fixture.

Bonded nutplate rapid cure system with fixtured heater

Embodiments of systems and methods for positioning and bonding a nutplate to a substrate comprising at least one aperture, wherein the system includes a nutplate retention fixture formed from a threaded insert and an elastomeric tube engaged with the threaded insert; a heater assembly formed from a heating element, a temperature sensor operable to measure the temperature of the heating element, and a heater housing; a heater retention fixture operable to engage with the nutplate retention fixture and maintain the heater assembly in contact with the substrate; and a heater controller operable to control the output from the heating element. The heater retention fixture includes a cam-lock clamp provided concentrically around the nutplate retention fixture and configured to provide a circumferential clamping force to secure the heater retention fixture to the nutplate retention fixture.

A reversible joint includes male and female components. The male component has a rigid stud with a shaft region and a head region having a greater width, than the shaft region. The female component includes a polymer-based bushing including a polymer sleeve and an embedded heating element. The polymer sleeve is formed from a shape memory polymer (SMP) or an SMP composite and includes a central channel. The polymer-based bushing is capable of being activated by heating with the embedded heating element to reversibly render the polymer sleeve elastic and allow deformation of the central channel to an expanded channel width during insertion of the head region. The polymer sleeve becomes rigid after deactivation of the polymer-based bushing for retention of the male component. Load bearing assemblies formed by connecting modular structures with the reversible joint are also provided along with installation tools for the same.

Reversible joining device and method

Systems for positioning and bonding a nutplate to a substrate having an aperture include a nutplate engagement fixture and a temperature sensor retention fixture. The nutplate engagement fixture includes a rigid tube and an elastomeric tube engaged with the rigid tube, the elastomeric tube having an elongated tube sized to provide a friction fit with the aperture and retain the elastomeric tube within the aperture. The rigid tube is operable to engage the nutplate at one end and the elastomeric tube is configured to anchor the nutplate engagement fixture at the aperture and secure the nutplate in contact with the substrate. The temperature sensor retention fixture includes a fixture body sized and configured to engage with the nutplate and at least one passageway within the fixture body sized and configured to allow a temperature sensor to be inserted or embedded therein with an end proximal a surface of the nutplate.

Bonded nutplate rapid cure system

Environment isolation structures may include a frame and flexible panels at least partially covering, and attached to, the frame. The frame may include multidirectional node connectors including multiple locations for attachment. At least some of the locations for attachment may be located on different sides of the multidirectional node connectors. Poles configured to telescope to selectively fixable lengths may include connectors affixed to longitudinal ends of the poles. Each connector may be configured to selectively attach to a respective location for attachment on a given side of a respective multidirectional node connector to form the frame.

Modular, reconfigurable environment isolation structures and related methods

Embodiments of systems and methods for adhering hardware to a substrate, wherein the method comprises coupling the hardware with a rigid tube or an elastomeric tube, applying adhesive onto a bonding surface of the hardware, inserting the rigid tube or the elastomeric tube through an aperture of the substrate until a surface of the substrate contacts the bonding surface having adhesive applied thereon, and adhering the hardware to the substrate by applying localized heat through a heating component disposed within the rigid tube or the elastomeric tube.

Bonded hardware rapid cure system

Embodiments of systems and methods for positioning and bonding a nutplate to a substrate comprising at least one aperture, wherein the system includes a nutplate engagement fixture formed from a rigid tube and an elastomeric tube, a heater operable to deliver heat to a bonding surface of the nutplate, at least one temperature sensor operable to measure the temperature of the bonding surface of the nutplate, a temperature sensor retention fixture operable to position and secure the at least one temperature sensor to the nutplate, and a heater controller operable to control the output from the heater.

Human stabilization platforms may include a support structure configured to rigidly support a person. A rail may extend longitudinally from proximate a portion of the support structure configured to receive the person's head thereon to proximate a portion of the support structure configured to receive the person's lower legs thereon on each lateral side of the support structure. Each rail may include selectable attachment structures distributed along at least a portion of the longitudinal length of the rail. The selectable attachment structures may be configured to receive modular accessories to be secured to the human stabilization platform. The selectable attachment structures may include a channel including alternating enlarged sections and constricted sections.

Human stabilization platforms and related methods

Human stabilization platforms may include a support structure configured to rigidly support a person. A rail may extend longitudinally from proximate a portion of the support structure configured to receive the person's head thereon to proximate a portion of the support structure configured to receive the person's lower legs thereon on each lateral side of the support structure. Each rail may include selectable attachment structures distributed along at least a portion of the longitudinal length of the rail. The selectable attachment structures may be configured to receive modular accessories to be secured to the human stabilization platform. A handle may be located at each end of each rail, each handle being rotatable with respect to the rail. Each handle may be configured to enable manual handling and transport of the human stabilization platform.

Growing community of inventors

Dayton, OH, United States of America

Jason P Rice