Donald H Weiss, 909012 Rouen Ln, Rockville, MD 20854

7005593, Feb 28, 2006

Apr 1, 2004

10/816569

Arman Gasparyan - New Providence NJ, US
Timofei Nikita Kroupenkine - Warren NJ, US
Joseph Ashley Taylor - Springfield NJ, US
Donald Weiss - Cresskill NJ, US

Lucent Technologies Inc. - Murray Hill NJ

H01H 29/00

200182, 200199, 200214, 200233, 335 78, 335 57

A liquid electrical switch is disclosed that uses a plurality of droplets of conducting liquid to form an electrical path. In a first embodiment, at least a first voltage differential is used to create a separation distance between two droplets. The droplets are illustratively contained within a housing and surrounded by an immiscible, insulating liquid. In this embodiment, the at least a first voltage differential draws at least a portion of at least one of the droplets away from a second droplet, thus preventing electrical current from flowing from the at least one droplet to the second droplet. In another embodiment, the at least a first voltage differential is changed in a way such that at least one liquid droplet is made to come into contact with a second droplet, thus creating an electrical path between the two droplets.

7156032, Jan 2, 2007

Aug 27, 2003

10/649285

Avinoam Kornblit - Highland Park NJ, US
Timofei Nikita Kroupenkine - Warren NJ, US
Mary Louise Mandich - Martinsville NJ, US
Tobias Manuel Schneider - Marburg, DE
Joseph Ashley Taylor - Springfield NJ, US
Donald Weiss - Cresskill NJ, US
Shu Yang - Philadelphia PA, US

Lucent Technologies Inc. - Murray Hill NJ

B63B 1/34
B64C 21/00

114 67R

A method and apparatus is disclosed wherein nanostructures or microstructures are disposed on a surface of a body (such as a submersible vehicle) that is adapted to move through a fluid, such as water. The nanostructures or microstructures are disposed on the surface in a way such that the contact between the surface and the fluid is reduced and, correspondingly, the friction between the surface and the fluid is reduced. In an illustrative embodiment, the surface is a surface on a submarine or other submersible vehicle (such as a torpedo). Illustratively, electrowetting principles are used to cause the fluid to at least partially penetrate the nanostructures or microstructures on the surface of the body in order to selectively create greater friction in a desired location of the surface. Such penetration may be used, for example, to create drag that alters the direction or speed of travel of the body.

7204298, Apr 17, 2007

Nov 24, 2004

10/997795

Marc Scott Hodes - New Providence NJ, US
Paul Robert Kolodner - Hoboken NJ, US
Thomas Nikita Krupenkin - Warren NJ, US
Wonsuck Lee - Basking Ridge NJ, US
Alan Michael Lyons - New Providence NJ, US
Todd Richard Salamon - Chatham NJ, US
Joseph Ashley Taylor - Springfield NJ, US
Donald P. Weiss - Cresskill NJ, US

Lucent Technologies Inc. - Murray Hill NJ

F28F 13/00

165 804, 361699

Techniques for heat transfer are provided. In one aspect of the invention, a heat-transfer device is provided. The heat-transfer device comprises one or more microchannels suitable for containing a heat-transfer fluid, one or more of the microchannels having protruding structures on at least one inner surface thereof configured to affect flow of the heat-transfer fluid through the one or more microchannels. The structures may comprise posts coated with a hydrophobic coating.

7216589, May 15, 2007

Jan 27, 2004

10/766449

David John Bishop - Summit NJ, US
Herbert R. Shea - Cormondrèche, CH
Donald P. Weiss - Cresskill NJ, US

Lucent Technologies Inc. - Murray Hill NJ

F42C 19/00

102201

An ordnance fuse apparatus is described that uses electrical and mechanical, and optical devices. The ordnance fuse apparatus includes a controller to control an optical switch and a laser to detonate an explosive charge of the ordnance. Other embodiments include an accelerometer and/or spin detector for detecting that the ordnance has been fired and an optical detector for detecting the proper operation of the laser and a position sensor for detecting correct positioning of the optical switch. Another embodiment includes a microlens to focus the laser optical signal onto the ignitor. In yet other embodiments, the explosive charge is detonated either by ignition of an ignitor or by a shock wave from the ignitor. The resulting ordnance fuse apparatus has significantly reduced size and improved performance and safety.

7455021, Nov 25, 2008

Sep 11, 2006

11/518694

Avinoam Kornblit - Highland Park NJ, US
Timofei Nikita Kroupenkine - Warren NJ, US
Mary Louise Mandich - Martinsville NJ, US
Tobias Manuel Schneider - Marburg, DE
Joseph Ashley Taylor - Springfield NJ, US
Donald Weiss - Cresskill NJ, US
Shu Yang - Philadelphia PA, US

Lucent Technologies Inc. - Murray Hill NJ

B63B 1/34
B63B 21/00

114 67R

A method and apparatus is disclosed wherein nanostructures or microstructures are disposed on a surface of a body (such as a submersible vehicle) that is adapted to move through a fluid, such as water. The nanostructures or microstructures are disposed on the surface in a way such that the contact between the surface and the fluid is reduced and, correspondingly, the friction between the surface and the fluid is reduced. In an illustrative embodiment, the surface is a surface on a submarine or other submersible vehicle (such as a torpedo). Illustratively, electrowetting principles are used to cause the fluid to at least partially penetrate the nanostructures or microstructures on the surface of the body in order to selectively create greater friction in a desired location of the surface. Such penetration may be used, for example, to create drag that alters the direction or speed of travel of the body.

7749646, Jul 6, 2010

Mar 18, 2004

10/803641

Marc Scott Hodes - New Providence NJ, US
Paul Robert Kolodner - Hoboken NJ, US
Timofei Nikita Kroupenkine - Warren NJ, US
Alan Michael Lyons - New Providence NJ, US
Mary Louise Mandich - Martinsville NJ, US
Joseph Ashley Taylor - Springfield NJ, US
Donald Weiss - Cresskill NJ, US

Alcatel-Lucent USA Inc. - Murray Hill NJ

H01M 10/50

429112, 429 62, 429118, 977948

A battery having a nanostructured battery electrode is disclosed wherein it is possible to reverse the contact of the electrolyte with the battery electrode and, thus, to return a battery to a reserve state after it has been used to generate current. In order to achieve this reversibility, the nanostructures on the battery electrode comprise a plurality of closed cells and the pressure within the enclosed cells is varied. In a first embodiment, the pressure is varied by varying the temperature of a fluid within the cells by, for example, applying a voltage to electrodes disposed within said cells. In a second illustrative embodiment, once the battery has been fully discharged, the battery is recharged and then the electrolyte fluid is expelled from the cells in a way such that it is no longer in contact with the battery electrode.

7935437, May 3, 2011

May 6, 2010

12/775177

Marc Scott Hodes - New Providence NJ, US
Paul Robert Kolodner - Hoboken NJ, US
Timofei Nikita Kroupenkine - Warren NJ, US
Alan Michael Lyons - New Providence NJ, US
Mary Louise Mandich - Martinsville NJ, US
Joseph Ashley Taylor - Springfield NJ, US
Donald Weiss - Cresskill NJ, US

Alcatel-Lucent USA Inc. - Murray Hill NJ

H01M 10/50

429112, 429 62, 429118, 429122, 977948

A battery includes a plurality of closed cells disposed in a predetermined feature pattern on at least a first surface of an electrode. Each of the closed cells has an inner surface. The battery also includes a plurality of cell electrodes. Each of the cell electrodes is disposed along a portion of the inner surface of a respective one of the closed cells in the plurality of closed cells.

2005020, Sep 15, 2005

Mar 11, 2004

10/798064

Susanne Arney - Highland Park NJ, US
Timofei Kroupenkine - Warren NJ, US
Donald Weiss - Cresskill NJ, US

A61F002/06

623001420

An implantable stent comprises a tubular member having an interior surface and an exterior surface, with a region of at least one of the surfaces being hydrophobic. The region is provided with an array of microstructures or nanostructures that covers first portions of the surface but leaves second portions exposed in the interstices of the array. These structures cause the region to have a dynamically controllable hydrophobicity. In one embodiment, a control device, which is affixed to the tubular member, varies the hydrophobicity of the region. In another embodiment, which is particularly applicable to the delivery of a medicinal substance to fluids in body vessels, the stent also includes such a medicinal substance that adheres to the exposed portions until the control device alters the hydrophobicity of the region and causes the substance to be released into a body fluid in contact with the stent. Various ways to load the stent are described. In yet another embodiment, the tubular member is provided with a mechanism that enables the shape of the stent (e.g., its diameter) in vivo to be controlled dynamically, again by means of external wireless communication. In one more embodiment, sensors are affixed to the tubular member to enable fluid parameters (e.g., pressure, flow rate) to be monitored remotely.