Hrl Laboratories, LLC

The Boeing Company

University of California

Robert W Cumberland

Adam Franklin Gross

Alan Jon Jacobsen

William B Carter

William B Barvosa-Carter

Randall Jay Moss

Ping Liu

Christopher Stephen Roper

John J Vajo

Kevin W Kirby

David Kisailus

Sky L Skeith

Ronald M Finnila

Richard Barry Kaner

Jacob Michael Hundley

John Hunter Martin

Eric C Clough

Sarah H Tolbert

Wen Li

Tina T Salguero

Robert Mone

Jenn-Ming Yang

John J Gilman

Michelle B Weinberger

Hsiu-Ying Chung

Jonathan B Levine

William B Barvose Carter

Brennon D Yahata

William B Barvose-Carter

Abby Kavner

Randall J Moss

According to an embodiment of the present invention, a three-dimensional architected armor structure includes a core structure and a matrix. The core structure includes: a plurality of impact members; a plurality of joint members below the impact members; and a plurality of connection members respectively extending between one of the impact members and one of the joint members. The matrix fills at least a portion of a space between the impact members, the joint members, and the connection members.

Architected armor

Substantially aligned boron nitride nano-element arrays prepared by contacting a carbon nano-element array with a source of boron and nitrogen; methods for preparing such arrays and methods for their use including use as a heat sink or as a thermally conductivity interface in microelectronic devices.

Substantially aligned boron nitride nano-element arrays

Adhesive compositions that contain thermally conductive carbon-based materials that are also electrically insulated; methods for using such adhesive compositions and methods for their preparation.

Thermally conductive adhesive compositions comprising carbon-based particles and methods for their use and preparation

A method of forming a three-dimensional (3D) composite structure includes: securing a mask between a collimated light source and a volume of a photo-monomer; directing a collimated light beam from the collimated light source to the mask for a period of exposure time such that a portion of the collimated light beam passes through the mask and is guided by a plurality of apertures into the photo-monomer to form a plurality of waveguides through a portion of the volume of the photo-monomer; removing any uncured photo-monomer to leave behind a three-dimensional ordered open-cellular microstructure to define an open volume and a structure of a first continuous material of the three-dimensional composite material; and placing a second continuous material in the open volume, wherein the second continuous material and the first continuous material share an interface between each other, and wherein the interface is everywhere continuous.

Composite structures with ordered three-dimensional (3D) continuous interpenetrating phases

A planar heat pipe for transferring heat between a higher temperature region and a lower temperature region includes a bottom facesheet, a top facesheet, a vapor-venting arterial wick between the bottom facesheet and the top facesheet and including a high permeability layer and a high capillary pressure layer each having pores such that an average pore hydraulic diameter in the high permeability layer is greater than an average pore diameter in the high capillary pressure layer. The pipe also includes an architected mechanical core structure between the arterial wick and the top facesheet, and a working fluid between the bottom facesheet and the top facesheet. The architected mechanical core structure may have a vapor region, and the vapor-venting arterial wick may have a liquid region.

Planar heat pipe with architected core and vapor tolerant arterial wick

Adhesive compositions comprising electrically insulating-coated carbon-based particles and methods for their use and preparation

A micro-truss based blast protection apparatus. In one embodiment, the blast protection apparatus includes a three-dimensional (3D) ordered truss core between a first face plate and a second face plate. The 3D ordered truss core includes first truss elements defined by first self-propagating polymer waveguides and extending along a first direction, second truss elements defined by second self-propagating polymer waveguides and extending along a second direction, and third truss elements defined by third self-propagating polymer waveguides and extending along a third direction. The first, second, and third truss elements interpenetrate each other at a plurality of nodes to form a continuous material. The first, second, and third truss elements define an open space for providing a densification in response to a force applied to the first face plate and/or the second face plate, and the 3D ordered truss core is self-supporting.

Micro-truss based energy absorption apparatus

The present invention is related to heat transfer materials including nano-scale boron nitride platelets having an aspect ratio ranging from about 10:1 to about 1000:1. The present invention also provides a method of removing heat from an object by directly or indirectly contacting the object with the heat transfer materials.

Boron nitride nano-platelete based materials

Substantially aligned boron nitride nano-element arrays and methods for their use and preparation

Tunable variable emissivity materials, methods for fabricating tunable variable emissivity materials, and methods for controlling the temperature of a spacecraft using tunable variable emissivity materials have been provided. In an exemplary embodiment, a variable emissivity material has the formula M1M2M3MnO, wherein M1 comprises lanthanum, praseodymium, scandium, yttrium, neodymium or samarium, M2 comprises an alkali earth metal, M3 comprises an alkali earth metal that is not M2, and x, y, and (x+y) are less than 1. The material has a critical temperature (T) in the range of about 270 to about 320K and a transition width is less than about 30K.

Tunable variable emissivity materials and methods for controlling the temperature of spacecraft using tunable variable emissivity materials

A micro-truss based composite friction-and-wear apparatus with a three-dimensional ordered microstructure and a method creating the same. In one embodiment, the apparatus includes a filler material and a three-dimensional ordered microstructure. The three-dimensional ordered microstructure includes a plurality of first truss elements defined by a plurality of first self-propagating polymer waveguides and extending along a first direction; a plurality of second truss elements defined by a plurality of second self-propagating polymer waveguides and extending along a second direction; and a plurality of third truss elements defined by a plurality of third self-propagating polymer waveguides and extending along a third direction. The first, second, and third truss elements interpenetrate each other at a plurality of nodes to form a continuous material, the first, second, and third truss elements define an open space, the filler material occupies at least a portion of the open space, and the three-dimensional ordered microstructure is self-supporting.

Micro-truss based composite friction-and-wear apparatus and methods of manufacturing the same

An ordered ceramic microstructure and a method of making the same. In one embodiment, the ceramic microstructure includes a base structure and one or more ceramic layers. The base structure includes a plurality of first truss elements defined by a plurality of first self-propagating polymer waveguides and extending along a first direction, a plurality of second truss elements defined by a plurality of second self-propagating polymer waveguides and extending along a second direction, and a plurality of third truss elements defined by a plurality of third self-propagating polymer waveguides and extending along a third direction. Here, the first, second, and third truss elements interpenetrate each other at a plurality of nodes to form a continuous material, and the base structure is self-supporting. In addition, the ceramic layers coat a surface of at least one truss element of the first truss elements, the second truss elements, or the third truss elements.

Ceramic microtruss

Described herein are rhenium boride compounds having desirable characteristics for a variety of applications, ranging from abrasives and cutting tools to protective coatings.

Rhenium boride compounds and uses thereof

A three-dimensional (3D) composite structure and a method of making the same. In one embodiment, the 3D composite structure includes a 3D ordered microstructure and a second continuous material. The 3D ordered microstructure includes first truss elements defined by first self-propagating polymer waveguides and extending along a first direction, second truss elements defined by second self-propagating polymer waveguides and extending along a second direction, and third truss elements defined by third self-propagating polymer waveguides and extending along a third direction. The first, second, and third truss elements interpenetrate each other at nodes to form a first continuous material with the three-dimensional ordered microstructure. In addition, the second continuous material has different physical properties than the first continuous material and shares an interface with the three-dimensional ordered microstructure, and wherein the interface is everywhere continuous.

A composite truss armor and a method of manufacturing the same. The composite truss armor includes a filler material and a three-dimensional (3D) ordered truss structure. The 3D ordered truss structure includes: a plurality of first truss elements defined by a plurality of first self-propagating polymer waveguides and extending along a first direction; a plurality of second truss elements defined by a plurality of second self-propagating polymer waveguides and extending along a second direction; and a plurality of third truss elements defined by a plurality of third self-propagating polymer waveguides and extending along a third direction. The first, second, and third ordered truss elements interpenetrate each other at a plurality of nodes to form a continuous material. The first, second, and third truss elements define an open space. The filler material occupies at least a portion of the open space, and the 3D ordered truss structure is self-supporting.

Growing community of inventors

Malibu, CA, United States of America

Robert W Cumberland