Patents by Inventor Rodney Sorrell

Rodney Sorrell has filed for patents to protect the following inventions. This listing includes patent applications that are pending as well as patents that have already been granted by the United States Patent and Trademark Office (USPTO).

  • Patent number: 11239568
    Abstract: A reflector antenna, preferably a fixed mesh reflector antenna, and a process for manufacturing the reflector antenna, is disclosed that includes forming a support structure, placing a reflector surface on a mold, attaching the support structure to the reflector surface, measuring the geometry of the reflector surface, adjusting the surface geometry of the reflector if appropriate to obtain improved accuracy for the reflector surface, and fixedly connecting the support structure and the reflector surface. In an embodiment, the antenna reflector system includes a mesh reflector surface, a plurality of spline support elements, a plurality of splines connected to the reflector surface, and a plurality of adjustable spline supports attachable to the spline support elements and the splines, wherein the adjustable spline supports are adjustably repositionable with respect to the spline support elements, and also fixedly connectable to the spline support elements.
    Type: Grant
    Filed: June 17, 2020
    Date of Patent: February 1, 2022
    Assignee: EAGLE TECHNOLOGY, LLC
    Inventor: Rodney Sorrell
  • Patent number: 11056797
    Abstract: An antenna reflector comprising a mesh material formed of a Carbon Nano-Tube (“CNT”) yarn that is reflective of radio waves and has a low solar absorptivity to hemispherical emissivity ratio (?solar/?H ratio) and a low Coefficient of Thermal Expansion (“CTE”).
    Type: Grant
    Filed: July 29, 2019
    Date of Patent: July 6, 2021
    Assignee: EAGLE TECHNOLOGY, LLC
    Inventors: Monica Rommel, Rodney Sorrell, David Norton, Maria R. Parkhurst
  • Publication number: 20210036429
    Abstract: An antenna reflector comprising a mesh material formed of a Carbon Nano-Tube (“CNT”) yarn that is reflective of radio waves and has a low solar absorptivity to hemispherical emissivity ratio (?solar/?H ratio) and a low Coefficient of Thermal Expansion (“CTE”).
    Type: Application
    Filed: July 29, 2019
    Publication date: February 4, 2021
    Applicants: Eagle Technology, LLC, Eagle Technology, LLC
    Inventors: Monica Rommel, Rodney Sorrell, David Norton, Maria R. Parkhurst
  • Publication number: 20200321704
    Abstract: A reflector antenna, preferably a fixed mesh reflector antenna, and a process for manufacturing the reflector antenna, is disclosed that includes forming a support structure, placing a reflector surface on a mold, attaching the support structure to the reflector surface, measuring the geometry of the reflector surface, adjusting the surface geometry of the reflector if appropriate to obtain improved accuracy for the reflector surface, and fixedly connecting the support structure and the reflector surface. In an embodiment, the antenna reflector system includes a mesh reflector surface, a plurality of spline support elements, a plurality of splines connected to the reflector surface, and a plurality of adjustable spline supports attachable to the spline support elements and the splines, wherein the adjustable spline supports are adjustably repositionable with respect to the spline support elements, and also fixedly connectable to the spline support elements.
    Type: Application
    Filed: June 17, 2020
    Publication date: October 8, 2020
    Inventor: Rodney Sorrell
  • Patent number: 10727605
    Abstract: A reflector antenna, preferably a fixed mesh reflector antenna, and a process for manufacturing the reflector antenna, is disclosed that includes forming a support structure, placing a reflector surface on a mold, attaching the support structure to the reflector surface, measuring the geometry of the reflector surface, adjusting the surface geometry of the reflector if appropriate to obtain improved accuracy for the reflector surface, and fixedly connecting the support structure and the reflector surface. In an embodiment, the antenna reflector system includes a mesh reflector surface, a plurality of spline support elements, a plurality of splines connected to the reflector surface, and a plurality of adjustable spline supports attachable to the spline support elements and the splines, wherein the adjustable spline supports are adjustably repositionable with respect to the spline support elements, and also fixedly connectable to the spline support elements.
    Type: Grant
    Filed: September 5, 2018
    Date of Patent: July 28, 2020
    Assignee: EAGLE TECHNOLOGY, LLC
    Inventor: Rodney Sorrell
  • Publication number: 20200076089
    Abstract: A reflector antenna, preferably a fixed mesh reflector antenna, and a process for manufacturing the reflector antenna, is disclosed that includes forming a support structure, placing a reflector surface on a mold, attaching the support structure to the reflector surface, measuring the geometry of the reflector surface, adjusting the surface geometry of the reflector if appropriate to obtain improved accuracy for the reflector surface, and fixedly connecting the support structure and the reflector surface. In an embodiment, the antenna reflector system includes a mesh reflector surface, a plurality of spline support elements, a plurality of splines connected to the reflector surface, and a plurality of adjustable spline supports attachable to the spline support elements and the splines, wherein the adjustable spline supports are adjustably repositionable with respect to the spline support elements, and also fixedly connectable to the spline support elements.
    Type: Application
    Filed: September 5, 2018
    Publication date: March 5, 2020
    Inventor: Rodney Sorrell
  • Patent number: 8654033
    Abstract: The invention concerns a reflector (8) of radio frequency (RF) energy. The reflector includes a first web layer (9a) formed from a knit of at least a first conductive filament (11a), and a second web layer (9b) formed of a knit of at least a second conductive filament (11b). The first and second web layers can be formed as an open mesh 10. The second web layer is positioned on the first web layer to form a stack. Fastening members (14, 16) are disposed at intervals across a surface of each of the first and second web layers. The fastening members are advantageously configured to secure the first web layer to the second web layer. The invention also concerns a reflector antenna formed using the reflector of radio frequency energy. The reflector antenna includes antenna support elements (18), and the first and second web layers are secured to the antenna support structure to define a curved three dimensional surface.
    Type: Grant
    Filed: September 14, 2011
    Date of Patent: February 18, 2014
    Assignee: Harris Corporation
    Inventors: Rodney Sorrell, Frederick P. Turba, Mark Vanstrum
  • Publication number: 20130063322
    Abstract: The invention concerns a reflector (8) of radio frequency (RF) energy. The reflector includes a first web layer (9a) formed from a knit of at least a first conductive filament (11a), and a second web layer (9b) formed of a knit of at least a second conductive filament (11b). The first and second web layers can be formed as an open mesh 10. The second web layer is positioned on the first web layer to form a stack. Fastening members (14, 16) are disposed at intervals across a surface of each of the first and second web layers. The fastening members are advantageously configured to secure the first web layer to the second web layer. The invention also concerns a reflector antenna formed using the reflector of radio frequency energy. The reflector antenna includes antenna support elements (18), and the first and second web layers are secured to the antenna support structure to define a curved three dimensional surface.
    Type: Application
    Filed: September 14, 2011
    Publication date: March 14, 2013
    Applicant: HARRIS CORPORATION
    Inventors: Rodney Sorrell, Frederick P. Turba, Mark Vanstrum