Daniel Y Kim

7086510, Aug 8, 2006

Sep 25, 2003

10/670760

Robert Smith - Louisville CO, US
Doug Golenz - Louisville CO, US
Andy Burgess - St. Louis MO, US
Aaron Gorga - St. Louis MO, US
Jeff Mullins - St. Louis MO, US
Daniel Kim - Appleton WI, US

TRG Group, L.L.C. - St. Louis MO

A45C 7/00

190103, 190 14, 190 21, 220 8, 383 2

An expansion mechanism for use with a piece of luggage, the expansion mechanism being designed to resiliently support, but not rigidly lock, a piece of expandable luggage in an extended position. The expansion mechanism allows for float at intermediate positions between a collapsed and extended position further preventing damage to the mechanism by allowing it to internally shift to compensate for shocks, and to allow the mechanism to continue to function even if it is bent or damaged. The expansion mechanism also allows for moveable parts of the mechanism and pinch points to be protected from interaction with the contents of the luggage.

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.

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:

20120271147, Oct 25, 2012

Apr 23, 2012

13/453365

Daniel Kim - Park City UT, US
Riccardo Lattanzi - New York NY, US
Christian Glaser - Muenchen, DE
Michael Recht - Scarsdale NY, US

New York University - New York NY

A61B 5/055

600410

Exemplary systems, methods and computer-accessible mediums can be provided for imaging at least one anatomical structure. For example, it is possible to direct a saturation-recovery (SR) pulse sequence having fast spin echo (FSE) to or at the anatomical structure(s). At least one Timage of the at least one anatomical structure can be generated based on the SR pulse sequence. In one example, the anatomical structure(s) can include a hip. According to another example, Timage(s) can include a plurality of Timages generated or provided in a plurality of rotating radial planes.

20120296199, Nov 22, 2012

Mar 21, 2012

13/426171

Daniel KIM - Park City UT, US
Vivan LEE - Salt Lake City UT, US
Iliyana ATANASOVA - New York NY, US

New York University - New York NY

A61B 5/055

600419

Exemplary method and apparatus can be provided for generating information regarding at least one tissue. Using such exemplary method and apparatus, it is possible to generate a plurality of inversion recovery (IR) radio frequency (RF) pulses that are configured to establish an identifier of an element associated with at least one portion of the tissue(s). It is also possible to determine an inversion time associated with at least one of the RF pulses. Further, it is possible to generate, e.g., with a computing arrangement, the information regarding the tissue(s) based on the inversion time.

20180021743, Jan 25, 2018

Oct 4, 2017

15/724460

- South Jordan UT, US
Daniel Kim - Cottonwood Heights UT, US

B01F 7/00
C22B 3/00
B01F 3/08
B01F 15/00
B01F 7/16
B01D 11/04
C22B 11/06
C22B 3/26

An apparatus for the recovery of gold from a gold-bearing aqueous filtrate, the process comprising the steps of:Each stage of the solvent extraction circuit and the aqueous acid scrub circuit is equipped with a mixing assembly and a phase separation tank in a head-tail arrangement such that the mixing assembly of one stage is adjacent to the phase separation tank of the adjacent stage.

20170000389, Jan 5, 2017

Jun 30, 2016

15/199087

- Denver CO, US
Michael Decker - Parker CO, US
Craig Simons - Boulder CO, US
Kevin Shelburne - Golden CO, US
Daniel Jung Kim - Aurora CO, US

A61B 5/11
A61B 5/00

Systems and methods of the present disclosure may include initializing a first plurality of inertial measurement units (IMUs) and a second plurality of IMUs, and attaching the first plurality of IMUs to a first segment of a subject and the second plurality of IMUs to a second segment of the subject. Such a method may also include obtaining data from the first plurality of IMUs and the second plurality of IMUs as the subject performs a motion, and determining an absolute position of the first segment and the second segment based on the data.