Rajeev Kumar

US Patent:

20050042641, Feb 24, 2005

Filed:

May 25, 2004

Appl. No.:

10/854777

Inventors:

Vivek Mittal - Syosset NY, US
Rajeev Kumar - Great Falls MT, US

Assignee:

Cold Spring Harbor Laboratory - Cold Spring Harbor NY

International Classification:

C12Q001/68

US Classification:

435006000

Abstract:

In mammalian systems, RNA interference (RNAi)-based suppression of target gene expression may be activated by delivery of RNAi probes such as double stranded small interfering RNA (siRNA) molecules or short hairpin RNAs (shRNAs), where the RNAi probe sequence is homologous to the target gene. A reliable and quantitative method is provided for the rapid and efficient identification of RNAi probes that are most effective in providing RNAi-mediated suppression of target gene expression. This method may be used for high-throughput screens to identify effective RNAi probes.

US Patent:

20080300145, Dec 4, 2008

Filed:

Oct 30, 2007

Appl. No.:

11/981269

Inventors:

Vivek Mittal - Syosset NY, US
Rajeev Kumar - Great Falls MT, US

Assignee:

Cold Spring Harbor Laboratory - Cold Spring Harbor NY

International Classification:

C40B 30/06
C12Q 1/68

US Classification:

506 10, 435 6

Abstract:

In mammalian systems, RNA interference (RNAi)-based suppression of target gene expression may be activated by delivery of RNAi probes such as double stranded small interfering RNA (siRNA) molecules or short hairpin RNAs (shRNAs), where the RNAi probe sequence is homologous to the target-gene. A reliable and quantitative method is provided for the rapid and efficient identification of RNAi probes that are most effective in providing RNAi-mediated suppression of target gene expression. This method may be used for high-throughput screens to identify effective RNAi probes.

US Patent:

20210136656, May 6, 2021

Filed:

Oct 30, 2020

Appl. No.:

17/085260

Inventors:

- New York NY, US
Rajeev Kumar - Brooklyn NY, US
Pei Liu - McLean VA, US
Shivendra S. Panwar - Freehold NJ, US

International Classification:

H04W 40/32
H04W 76/15
H04L 1/18
H04W 40/24
H04L 12/42
H04W 40/22
H04W 48/20
H04W 28/04
H04W 48/16
H04W 88/08

Abstract:

Fifth Generation (5G) Millimeter Wave (mmWave) cellular networks are expected to serve a large set of throughput intensive, ultra-reliable, and ultra-low latency applications. To meet these stringent requirements, while minimizing the network cost, the 3Generation Partnership Project has proposed a new transport architecture, where certain functional blocks can be placed closer to the network edge. In this architecture, however, blockages and shadowing in 5G mmWave cellular networks may lead to frequent handovers (HOs) causing significant performance degradation. To meet the ultra-reliable and low-latency requirements of applications and services in an environment with frequent HOs, a Fast Inter-Base Station Ring (FIBR) architecture is described, in which base stations that are in close proximity are grouped together, interconnected by a bidirectional counter-rotating buffer insertion ring network. FIBR enables high-speed control signaling and fast-switching among BSs during HOs, while allowing the user equipment to maintain a high degree of connectivity. The FIBR architecture efficiently handles frequent HO events in mm Wave and/or Terahertz cellular systems, and more effectively satisfies the QoS requirements of 5G applications.

US Patent:

20180316954, Nov 1, 2018

Filed:

Nov 16, 2017

Appl. No.:

15/814798

Inventors:

- Atlanta GA, US
Rittwik Jana - Montville NJ, US
Shivendra Singh Panwar - New York NY, US
Rajeev Kumar - New York NY, US
Yong Liu - New York NY, US

Assignee:

AT&T Intellectual Property I, L.P. - Atlanta GA
NEW YORK UNIVERSITY - New York NY

International Classification:

H04N 21/24
H04L 12/733
H04L 12/721
H04N 21/643
H04N 21/61
H04N 21/258
H04N 21/45
H04N 21/4363
H04N 21/442

Abstract:

Aspects of the subject disclosure may include, for example, a wireless framework for delivering TV services. The wireless framework can include a mix of wireless access technologies (e.g. Satellite, WiFi and/or LTE overlay links). One or more aspects of the subject disclosure include injecting TV content into the network at a few locations (e.g., residential locations) using satellite antennas (e.g., satellite dishes). The content is then further distributed to other homes using a house-to-house WiFi network and/or via an overlay LTE network. Other embodiments are disclosed.