Bong Hee Kim

US Patent:

6575175, Jun 10, 2003

Filed:

Oct 22, 2001

Appl. No.:

10/007688

Inventors:

Bong H. Kim - Fort Lee NJ
Tae W. Kim - Fort Lee NJ

Assignee:

AMG Industries, Inc. - Teterboro NJ

International Classification:

A45D 100

US Classification:

132210, 132212

Abstract:

The present invention includes a braiding machine having three or more vessels, each vessel having an outer housing and an internal telescoping mandrel, the vessels being removably mounted on a portion of two wheel drums, the drums rotating and the direction of each vessel around the drum being altered by a toggling detent. To use the device, hair is wrapped onto an extended telescoped mandrel, the mandrel is collapsed, and a housing is placed on the mandrel to provide a vessel; three or more vessels are then mounted onto the drums and, when the device is powered, the hair on the mandrels emerges from the device as a braid.

US Patent:

8630202, Jan 14, 2014

Filed:

Sep 30, 2011

Appl. No.:

13/250124

Inventors:

Bong Ho Kim - Morganville NJ, US
Calin Doru - Manalapan NJ, US

Assignee:

Alcatel Lucent - Paris

International Classification:

H04W 24/00

US Classification:

370252, 370236, 370412

Abstract:

An apparatus such as a user equipment user device, smart phone and the like includes a memory device and an associated processor configured to transmit a buffer status report message when a reported buffer size in a last transmitted buffer status report message is satisfied. The apparatus may be configured to store the reported buffer size associated with the last transmitted buffer status report message, and track one or more grants of uplink resource; wherein the reported buffer size associated with the last transmitted buffer status report message is satisfied based on the grants of uplink resource.

US Patent:

20220200781, Jun 23, 2022

Filed:

Jun 7, 2021

Appl. No.:

17/341150

Inventors:

- Santa Clara CA, US
Bong Chan Kim - Hillsboro OR, US
Yutao Liu - Hillsboro OR, US
Jihwan Kim - Portland OR, US
Kai Yu - Portland OR, US
Gurmukh Singh - Gilbert AZ, US
Stephen Kim - Beaverton OR, US
Richard Packard - Livermore CO, US
Frank O'Mahony - Portland OR, US

Assignee:

Intel Corporation - Santa Clara CA

International Classification:

H04L 7/033
H03K 5/135
H04L 7/00
H03L 7/087

Abstract:

A quadrature clock generator that takes advantage of the inherently low delay of a shunt-series inductively peaked clock buffer to generate quadrature clocks with the high jitter performance using just one additional stage in Q path compared to I path. The generator includes a delay cell that uses shunt-series peaking and uses a resistive DAC in series with the shunt inductor to provide a large delay range with good jitter characteristics. The resistive DAC can be placed near a real or a virtual ground to minimize capacitive loading on the signal path. This delay cell can provide greater than 2× delay tuning range and is suitable for clocks at high frequencies. This delay cell can also be used as a ring oscillator with large frequency tuning range. A low voltage differential signaling termination switch control that uses feed forward mechanism to control termination impedance of device in a receiver.

US Patent:

20180267652, Sep 20, 2018

Filed:

Jul 7, 2016

Appl. No.:

15/759629

Inventors:

- Chungcheongbuk-Do, KR
Ji Eun HWANG - Gangwon-Do, KR
Kyun AHN - Gyeongsangnam-do, KR
Kwang Hyun KIM - Seongnam-si, KR
Bong Ho KIM - Morganville NJ, US
Ki Hwan KIM - Seoul, KR

International Classification:

G06F 3/047
G06F 3/041

Abstract:

The touch panel comprises: a first transparent substrate divided into an active area and a non-active area located around the active area; a sensing pattern part that includes first sensing cells arranged in the active area of the transparent substrate in the longitudinal direction, a second transparent substrate provided on the first sensing cells, and second sensing cells arranged on the second transparent substrate in the lateral direction; and first sensing lines and second sensing lines provided in the non-active area of the first transparent substrate to connect the first sensing cells and the second sensing cells to an external driving circuit, respectively, wherein an extended transparent substrate extending from the second transparent substrate along the interconnection wires of the second sensing cells is formed in the non-active area of the first transparent substrate.