Marian V Gogoana

7665723, Feb 23, 2010

Sep 21, 2006

11/533960

Marian Gogoana - Fairfax VA, US

YSHAPE Inc. - Falls Church VA

B65H 3/46
B65H 3/08

271106, 271107, 271 98, 271104

A sheet feeder () and method of operation thereof feeds sheets in a conveyance direction (). The sheet feeder () comprises a sheet hopper (); a sheet deflector (); and a sheet extractor (). The sheet deflector () is arranged for deflecting a top sheet-to-be-fed () from a sheet stack () from a sheet undeflected acquisition position to a sheet deflected position. The sheet deflector () has a major axis () oriented essentially parallel to a trailing edge the top sheet-to-be-fed from the sheet stack (). The sheet deflector () is arranged to undergo three degrees of motion including selective rotation about its major axis for moving the top sheet-to-be-fed from the sheet undeflected acquisition position to the sheet deflected position.

7843076, Nov 30, 2010

Nov 29, 2007

11/947238

Marian V. Gogoana - Merrimack NH, US
James B. Whitttaker - Arlington VA, US

Yshape Inc. - Merrimack NH

F03B 13/10
F03B 13/12
H02P 9/04
F02B 63/04

290 42, 290 1 R

Example energy storage systems (″) comprises a fluid circuit (″) and an electrical unit () configured to operate as a motor in a first phase of operation and to operate as a generator in a second phase of operation. The fluid circuit (″) comprises a first fluid container (″) situated so content of the first fluid container experiences a first pressure level; a tank (″) having its content at a second pressure level (the second pressure level being less than the first pressure level): and, a first hydraulic motor/pump unit (connected to communicate a first working fluid between the tank and the first fluid container. In the first phase of operation electricity is supplied to the first hydraulic/motor unit (″) whereby the first hydraulic/motor unit transmits the first working fluid from the tank into the first fluid container (″). In the second phase of operation pressurized first working fluid in the first fluid container (″) is transmitted from the first fluid container through the first hydraulic/motor unit ″) to the tank (″), thereby causing the electrical unit (″) to generate electricity.

20010045736, Nov 29, 2001

Mar 7, 2001

09/799520

Marian Gogoana - McLean VA, US

B42D001/00
B42D005/00
B42F013/00

281/015100

The present invention provides techniques for imparting both flexibility and lamination to leaves or sheets comprising laminate films, including but not limited to leaves or sheets which at least partially enclose or encase printed matter to or between laminate film(s). The first laminate film and the second laminate film may or may not have part of all of a segment of printed matter, e.g., a display content sheet, positioned or sandwiched therebetween. All embodiments have a flex or flexible zone which provides flexibility to the leaf or sheet, the thickness of the flex zone being thinner than the thickness of portions of the leaf or sheet having two laminate films. The flex zone of each sheet or leaf provides flexibility for the leaf at strategic locations, the remainder of the sheet or leaf having durability and stiffness as afforded by the two films of lamination and the adhesive utilized in conjunction with one or both of the two lamination films.

20110041490, Feb 24, 2011

Oct 27, 2010

12/912991

Marian V. GOGOANA - Merrimack NH, US
James B. Whitttaker - Arlington VA, US

YSHAPE, Inc. - Merrimack NH

F16D 31/02

60484

Example energy storage systems (″) comprises a fluid circuit (″) and an electrical unit (″) configured to operate as a motor in a first phase of operation and to operate as a generator in a second phase of operation. The fluid circuit (″) comprises a first fluid container (″) situated so content of the first fluid container experiences a first pressure level; a tank (″) having its content at a second pressure level (the second pressure level being less than the first pressure level): and, a first hydraulic motor/pump unit (″) connected to communicate a first working fluid between the tank and the first fluid container. In the first phase of operation electricity is supplied to the first hydraulic/motor unit (″) whereby the first hydraulic/motor unit transmits the first working fluid from the tank into the first fluid container (″). In the second phase of operation pressurized first working fluid in the first fluid container (″) is transmitted from the first fluid container through the first hydraulic/motor unit ″) to the tank (″), thereby causing the electrical unit (″) to generate electricity.

20140032137, Jan 30, 2014

Jul 26, 2013

13/952046

Marian Gogoana - Merrimack NH, US

G01F 23/00

702 54

A non-invasive sensing system for determining the operating state of a heating, ventilation or air conditioning (HVAC) system. The sensing system, which includes at least one acoustic or mechanical vibration sensor, may be positioned on the HVAC system's housing to detect acoustic and/or mechanical vibration emissions in one or more specific ranges of frequencies that are characteristic of emissions resulting from the operation of the HVAC system. The sensing system can also incorporate a thermal sensor, which may be placed on the HVAC system's exhaust gas pipe. A sensing unit may communicate through a network with a server for computing system statuses and fuel consumption. The server may provide usage and efficiency information to subscriber devices and send out-of-range alerts to subscribers.