Abstract: An ion conductivity mixed chalcogenide (e.g. oxy-sulfide), mixed network former solid electrolyte is provided for use in solid state batteries.
Abstract: An ion conductivity mixed chalcogenide (e.g. oxy-sulfide), mixed network former solid electrolyte is provided for use in solid state batteries.
Type:
Grant
Filed:
September 7, 2017
Date of Patent:
October 13, 2020
Assignee:
Iowa State University Research Foundation, Inc.
Abstract: A new optical fiber and method of manufacturing the same developed for use with surgical laser systems. The fiber core utilizes an ultra-low expansion (ULE) material. The preferred ULE fiber consists of silicon dioxide core doped with titanium dioxide which is cladded and jacketed for chemical and abrasion resistance. The resulting fiber is stable against degradation due to thermal expansion.
Type:
Grant
Filed:
June 2, 1995
Date of Patent:
November 3, 1998
Assignee:
Iowa State University Research Foundation, Inc.
Abstract: A new optical fiber and method of manufacturing the same developed for use with surgical laser systems. The fiber core utilizes an ultra-low expansion (ULE) material. The preferred ULE fiber consists of silicon dioxide core doped with titanium dioxide which is cladded and jacketed for chemical and abrasion resistance. The resulting fiber is stable against degradation due to thermal expansion.
Type:
Grant
Filed:
March 10, 1994
Date of Patent:
May 26, 1998
Assignee:
Iowa State University Research Foundation
Abstract: The present invention provides a secondary battery. The battery includes an anode made of an alkali metal or alkaline earth metal, or an alloy or solid solution thereof, a cathode made of copper metal or alloy or a catholyte that comprises an aqueous solution of a soluble salt of the metallic cathode material to provide reducible cations of the metallic cathode material in the aqueous solution. An ion conducting separator functions to separate the anode and cathode. The battery can be operated over a wide temperature range from ambient temperature to about 150° C. The anode material can be pre-installed or can be produced in-situ on the anode side of the battery.
Abstract: A method for removing bubbles from molten glass is provided and involves subjecting the surface of the molten glass to at least one fining sequence wherein the fining sequence comprises subjecting the surface of the molten glass to a sub-atmospheric pressure (relative vacuum less one atmosphere of pressure) for a time followed by subjecting the surface of the molten glass to super-atmospheric gas pressure (greater than one atmosphere of pressure) for additional time. The fining sequence can be repeated as needed to produce a high quality optically clear glass that is substantially free of bubbles.
Type:
Application
Filed:
March 10, 2020
Publication date:
September 17, 2020
Inventors:
Steve w. Martin, Ryan s. Gebhardt, Steven Kmiec, Jose Ezequiel De Sousa, Seila Rojas De Sousa
Abstract: The present invention provides new compounds for use in proton exchange membranes which are able to operate in a wide variety of temperature ranges, including in the intermediate temperature range of about 100° C. to 700° C., and new and improved methods of making these compounds. The present invention also provides new and improved methods for making chalcogenide compounds, including, but not limited to, non-protonated sulfide, selenide and telluride compounds. In one embodiment, the proton conductivity of the compounds is between about 10−8 S/cm and 10−1 S/cm within a temperature range of between about −50 and 500° C.
Type:
Application
Filed:
July 25, 2003
Publication date:
May 20, 2004
Inventors:
Steven A. Poling, Steve W. Martin, Jacob T. Sutherland
Abstract: A chalcogenide glass capable of infrared transmission which is either sulfur, selenium or tellurium based and consists of compositions of the formula MX+M.sub.2 'X.sub.3 +SiX.sub.2, wherein M is one of the metals calcium, strontium, barium, zinc and lead, and M' is either aluminum or gallium and X is either sulfur, selenium or tellurium. Aluminum or gallium chalcogenide acts to increase the covalent bonding network structure of the glass with the result being that excellent high temperature 8-14 micron IR transmitting glasses with transition temperatures above 500.degree. C. are prepared.
Type:
Grant
Filed:
January 23, 1989
Date of Patent:
July 17, 1990
Assignee:
Iowa State University Research Foundation, Inc.
Abstract: The present invention provides new compounds for use in proton exchange membranes which are able to operate in a wide variety of temperature ranges, including in the intermediate temperature range of about 100° C. to 700° C., and new and improved methods of making these compounds. The present invention also provides new and improved methods for making chalcogenide compounds, including, but not limited to, non-protonated sulfide, selenide and telluride compounds. In one embodiment, the proton conductivity of the compounds is between about 10?8 S/cm and 10?1 S/cm within a temperature range of between about ?50 and 500° C.
Type:
Grant
Filed:
July 25, 2003
Date of Patent:
March 28, 2006
Assignee:
Iowa State University Research Foundation Inc
Inventors:
Steven A. Poling, Steve W. Martin, Jacob T. Sutherland
Abstract: The present invention provides new amorphous or partially crystalline mixed anion chalcogenide compounds for use in proton exchange membranes which are able to operate over a wide variety of temperature ranges, including in the intermediate temperature range of about 100 ° C. to 300° C., and new uses for crystalline mixed anion chalcogenide compounds in such proton exchange membranes. In one embodiment, the proton conductivity of the compounds is between about 10?8 S/cm and 10?1 S/cm within a temperature range of between about ?60 and 300° C. and a relative humidity of less than about 12%.
Type:
Grant
Filed:
May 19, 2004
Date of Patent:
September 5, 2006
Assignee:
Iowa State University Research Foundation, Inc.
Inventors:
Steven Andrew Poling, Carly R. Nelson, Steve W. Martin
Abstract: Description tables can be linked to a kernel to form a device driver. The description tables can be device description tables and adapter description tables. The kernel is operating system dependent. The description tables are operating system independent and can be linked to other kernels for other operating systems. A library of kernels for different operating systems can share a common set of kernel requests.
Type:
Grant
Filed:
September 21, 1995
Date of Patent:
July 7, 1998
Assignee:
Iomega Corporation
Inventors:
Phillip M. Adams, Larry W. Holmstrom, Steve A. Jacob, Steven H. Powell, Robert F. Condie, Martin L. Culley
Abstract: A xerographic marking device includes an intermediate transfer unit, a media transport path and at least one two-color image-on-image (IOI) drum module. Each two-color IOI drum module includes in a process order around a photoreceptor; a) a first charging unit; b) a first exposure unit; c) a first development unit; d) a second charging unit; e) a second exposure unit; and f) a second development unit, wherein the intermediate transfer unit receives a first toned image and a second toned image from the photoreceptor in a single transfer and transfers those toner images to print media to produce a toned image on print media. In various embodiments, specific color pairings are provided.
Type:
Application
Filed:
June 4, 2009
Publication date:
December 9, 2010
Applicant:
XEROX CORPORATION
Inventors:
Dale R. MASHTARE, Martin E. BANTON, Edul N. DALAL, John S. FACCI, Steve P. HOOVER, John F. KNAPP, Robert P. LOCE, Michael J. MARTIN, Karen Ann MOFFAT, Paul W. MOREHOUSE, William J. NOWAK, Richard Philip Nelson VEREGIN, Thomas C. HOLLAR
Abstract: A xerographic marking device includes an intermediate transfer unit, a media transport path and at least one two-color image-on-image (IOI) drum module. Each two-color IOI drum module includes in a process order around a photoreceptor: a) a first charging unit; b) a first exposure unit; c) a first development unit; d) a second charging unit; e) a second exposure unit; and f) a second development unit, wherein the intermediate transfer unit receives a first toned image and a second toned image from the photoreceptor in a single transfer and transfers those toner images to print media to produce a toned image on print media. In various embodiments, specific color pairings are provided.
Type:
Grant
Filed:
June 4, 2009
Date of Patent:
January 11, 2011
Assignee:
Xerox Corporation
Inventors:
Dale R. Mashtare, Martin E. Banton, Edul N. Dalal, John S. Facci, Steve P. Hoover, John F. Knapp, Robert P. Loce, Michael J. Martin, Karen Ann Moffat, Paul W. Morehouse, William J. Nowak, Richard Philip Nelson Veregin, Thomas C. Hollar
Abstract: The invention relates to a solid electrolyte, to a process for its manufacture and also to devices comprising it. The electrolyte of the invention is an amorphous solid of formula SivOwCxHyLiz, in which v, w, x, y and z are atomic percentages with 0?v?40, 5?w?50, x>12, 10?y?40, 1?z?70, and 95%?v+w+x+y+z?100%. The electrolyte of the invention finds application in the field of electronics and microbatteries in particular.
Type:
Application
Filed:
May 7, 2008
Publication date:
December 11, 2008
Inventors:
Steve Martin, Raphael Salot, Pascal Faucherand, Sami Oukassi, Lucie Jodin
Abstract: Various embodiments of devices, systems, and methods for surgical procedures, including spring-fit guides for improved guidance of surgical instruments, are disclosed.
Type:
Grant
Filed:
March 20, 2023
Date of Patent:
August 6, 2024
Assignee:
ConforMIS, Inc.
Inventors:
Steve Fraone, Scott Doody, Paul Dietz, Martin J. Polinski, Raymond A. Bojarski
Abstract: The invention relates to a solid electrolyte, to a process for its manufacture and also to devices comprising it. The electrolyte of the invention is an amorphous solid of formula SivOwCxHyLiz, in which v, w, x, y and z are atomic percentages with 0?v?40, 5?w?50, x>12, 10?y?40, 1?z?70, and 95%?v+w+x+y+z?100%. The electrolyte of the invention finds application in the field of electronics and microbatteries in particular.
Type:
Grant
Filed:
May 7, 2008
Date of Patent:
April 10, 2012
Assignees:
Commissariat a l'Energie Atomique, St Microelectronics SA
Inventors:
Steve Martin, Raphaël Salot, Pascal Faucherand, Sami Oukassi, Lucie Jodin