Daniel Della Kim

7445696, Nov 4, 2008

Mar 17, 2005

11/082545

Eugene Yanjun You - Salt Lake City UT, US
Antonio Berges-Dreyfous - Papua, ID
David B. George - Salt Lake City UT, US
Daniel Kim - Salt Lake City UT, US
Keming Zhou - Salt Lake City UT, US

Kennecott Utah Copper Corporation - Magna UT

C25C 7/00

2042288, 2042298, 2042431, 2042475, 2042471, 205 89, 205291, 205374, 205574

For an electrolytic cell, an apparatus and method are described that use one or more sensors to measure magnetic field strength about a conductor carrying electrical current. A processor is in electrical communication with the sensors and determines a compensated magnetic field strength based on the magnetic fields of other conductors that also carry electrical current to or from the electrolytic cell. The processor uses this compensated magnetic field strength to determine the cathode electrical current carried by the conductor and to identify open and short circuits between the anodes and cathodes of the cell. The described apparatus and method account for interactions between the magnetic fields of the neighboring cathodes.

7470356, Dec 30, 2008

Jun 8, 2006

11/422944

Eugene Yanjun You - Salt Lake City UT, US
Daniel Kang Kim - Salt Lake City UT, US

Kennecott Utah Copper Corporation - Magna UT

C25C 1/12

205574, 2042785, 204242, 204267, 204269, 204270

A system, device, and method include a cell-powered first electronic device for monitoring two or more electrolytic cells is powered using electrical potential imposed across the electrolytic cells. The potential is voltage-boosted to accomplish this task. If the electrical potential imposed across the cells is insufficient, the device can also be battery-powered. In any event, this device is in communication with one or more sensors in the electrolytic cells, as well as a second electronic device, and the first and second electronic devices wirelessly communicate. More specifically, the first electronic device wireless transmits data signals to the second electronic device, which receives the same. The first and second electronic devices are physically remote from one another, and they communicate over a private or public network, preferably using spread spectrum technology. In addition, the second electronic device also preferably transmits data signals to a computer for further processing of the data signals, and these arrangements can be used, for example, when producing copper.

D607619, Jan 5, 2010

May 20, 2009

29/337356

Daniel T Kim - Washington Township NJ, US

LG Electronics Inc. - Seoul

1505

D32 6

D635380, Apr 5, 2011

May 20, 2009

29/337362

Daniel T Kim - Washington Township NJ, US

LG Electronics Inc. - Seoul

0602

D 6509

D678601, Mar 19, 2013

Jun 2, 2011

29/373878

Daniel Kim - Fort Lee NJ, US

The L.D. Kichler Co. - Cleveland OH

2699

D26144

8513945, Aug 20, 2013

Apr 5, 2010

12/754485

Daniel Kim - Hackensack NJ, US
Jens H. Jensen - Scarsdale NY, US
Gary M. Brittenham - New York NY, US

New York University - New York NY
The Trustees of Columbia University in the City of New York - New York NY

G01V 3/00

324309

Exemplary embodiments of system, method and computer-accessible medium can be provided in accordance with the present disclosure can be provided for generating a plurality of images associated with at least one anatomical structure using magnetic resonance imaging (MRI) data. For example, using such exemplary embodiments, it is possible to obtain at least one multi-echo fast spin-echo (FSE) pulse sequence based on the MRI data, which can include, e. g. , hardware specifications of the MRI system. Further, it is possible to generate each of the images based on a particular arrangement of multiple echoes produced by the multi-echo FSE pulse sequence(s).

8519709, Aug 27, 2013

Apr 5, 2010

12/754440

Daniel Kim - Hackensack NJ, US

New York University - New York NY

G01V 3/00
G01R 33/44

324309, 324307, 324318, 600410, 382131

System, method and computer-accessible medium can be provided to facilitate a hybrid adiabatic-rectangular pulse train for saturation of magnetization within an anatomical structure. -Using such exemplary embodiments, it is possible to determine information by combining a first information associated with a first nonselective rectangular radio frequency (RF) pulse, a second information associated with a second nonselective rectangular RF pulse, and a third information associated with a nonselective adiabatic half-passage pulse. Further, it is possible to rotate the longitudinal magnetization onto a particular plane (e. g. , the transverse plane) based on the information. In addition, it is possible to minimize and/or achieve the residual longitudinal magnetization to be less than a predetermined threshold value (e. g. , 2% of equilibrium magnetization) within the anatomical structure using a configuration of RF pulses.

20070284262, Dec 13, 2007

May 31, 2007

11/756222

Eugene Yanjun You - Salt Lake City UT, US
Daniel Kang Kim - Salt Lake City UT, US

G01N 27/26

205775

A method of detecting shorts and bad contacts in an electrolytic cell, the cell comprising a housing, electrolyte and at least one anode/cathode pair, the housing comprising an electrolyte in-flow side and an electrolyte out-flow side and electrical transmission means, the anode/cathode pair, electrolyte and electrical transmission means in electrical communication with one another, the method comprising: