Cisco Technology, Inc.

Belkin International, Inc.

Hampton Products International Corporation

Allen Huotari

Kendra S Harrington

Matthew Blake McRae

Manrique Brenes

Siddhartha Dattagupta

Jerome Henry

Vishal Satyendra Desai

Pooya Monajemi

Ahmadreza Hedayat

John Martin Blosco

Thomas J Cowling

Brian Donald Hart

Hossein Molaie Shargh

Raghuram Rangarajan

Joshua B Littlefield

Jon Fong Quan

Anton Okmianski

Mickael Graham

Sujai Hajela

Chong Liang Li

James Hartung

Tim Regan

Santosh Ghanshyam Pandey

David Stuart Kloper

Andrew Frederick Myles

Mark John Baugher

Xuechen Yang

Stephen Kelly

James Frank Florwick

Shze Chew Lee

Greg Corsetto

Tony T Wan

Dan Wang

Yutai Koh

James D Price, Iii

Jay Price

Gregory H Yamanishi

Gracia Wang

Franklyn S Nelson

Jeffrey Mitchell Goodwin

Embodiments herein describe using a dual assess point (AP) to establish two access points that both are established by two individual radios (e.g., two 5 GHz radios). Generally, APs experience highly degraded performance when two co-located radios operate within the same band. In one embodiment, AP devices can deploy same band radios using a macro-micro cell approach. Thus, the AP may intelligently hand off client devices between the micro and macro cell in a way that optimizes the system for overall throughput and low packet latency while creating minimal oscillation of clients between cells. The embodiments in this disclosure disclose techniques that direct clients in a manner that optimizes these factors.

Directing client devices between co-located macro and micro wireless cells

A wireless access point that serves one or more wireless client devices in a wireless network determines that at least one particular client device that is associated to the wireless access point should not be associated to the wireless access point. The wireless access point transmits frames so that they are received at the particular client device with reduced strength so as to provoke the particular client device to transition from the wireless access point.

Removing client devices from association with a wireless access point

A security system for use with a wireless access point that is configured to transmit a first wireless signal within a predetermined transmission range includes an outdoor lighting fixture including a master wireless transceiver configured and located to receive the first wireless signal from the wireless access point and to re-transmit the first wireless signal beyond the predetermined transmission range; and a first peripheral device located and configured to receive the first wireless signal re-transmitted from the master wireless transceiver, and to transmit a second wireless signal to at least one of (a) the wireless access point via the master wireless transceiver, and (b) a second peripheral device.

Wireless layered security system

For each one of a plurality of subsequent access points, a respective quantity of client devices that roam from a current access point to each of the respective plurality of subsequent access points may be determined. Then, for each one of the plurality of subsequent access points based on the determined quantity of client devices that roam from the current access point to each of the plurality of subsequent access points, a corresponding respective weight indicating a likelihood of its respective corresponding one of the plurality of subsequent access points being roamed to may be determined. Next, a table may be created indicating the desirability of at least a portion of the plurality of subsequent access points to be roamed to based upon the corresponding respective weight of the plurality of subsequent access points indicated in the table. The current access point may be provided with the table.

Best next access point list

In one embodiment, a wireless access point that serves at least one client device in a wireless local area network transmits frames to the at least one client device so that the frames are received by the at least one client device with a receive signal strength so as to control the transmission of probe request messages by the at least one client device.

Triggering client device probing behavior for location applications

An access point is configured to control peer-to-peer wireless transmission in an area around the access point. The access point receives a message from a service providing device advertising a service. The access point receives another message from a service using device requesting the service. The access point determines whether the service using device or the service is prohibited in the area controlled by the access point. Responsive to a determination that the service using device is prohibited, the access point blocks the service using device from receiving the service. Responsive to a determination that the service is prohibited, the access point blocks the service providing device from providing the service.

Control and enhancement of direct wireless service communications

In one embodiment, a secure communication is initiated between two devices by generating a pairing message from a pre-determined static identification on the first device, transmitting the pairing message to the second device, generating a pairing identification from the static identification, and initiating a secure communication between the first and second device if the pairing message corresponds with the pairing identification.

Secure pairing of networked devices

In one embodiment, a method of configuring a network connectivity device comprises receiving a network association request from a prospective client device requesting access to a network and sending an alert signal to a control device to cause the control device to emit an audible signal indicative of a network association request from a prospective client device. A prompt message is sent to the control device to cause the control device to provide instructions on providing feedback to the network connectivity device. The network connectivity device receives feedback from the control device and permits or denies access to the network responsive to the feedback from the control device.

Alert for adding client devices to a network

Wireless transmissions from beacon devices are received at a plurality of receiver devices. The wireless transmissions comprise packets that carry information used for location-based services for mobile wireless devices. Content of one or more fields of the beacon packets received by one or more of the plurality of receiver devices is obtained. Measurement data associated with the transmissions received at the plurality of receiver devices is generated. Locations of the respective beacon devices are computed from the measurement data obtained by the plurality of receiver devices. Information identifying detected beacon devices and their locations are stored to maintain a location history of beacon devices over time locations. Changes from information contained in the location history are detected based on the locations computed for respective beacon devices from the measurement data and content of one or more fields of detected beacon packets.

Managing wireless beacon devices

In one embodiment, a router gateway in a first Local Area Network (LAN) hosts both an Internet Protocol version 6 (IPv6) Rapid Deployment (6rd) Customer Edge (CE) as well as a 6rd Border Router (BR). In one specific example embodiment, upon registering the BR to a global computer network, the router gateway may then accept a 6rd tunnel from a device hosting a second 6rd CE of a second LAN, such that the 6rd tunnel joins the first and second LANs into a single LAN. The second CE may then communicate, via the router gateway, between the first and second LANs as a single LAN (e.g., site-to-site), accordingly.

Site-to-site 6rd tunneling using collocated border router and customer edge

Growing community of inventors

Garden Grove, CA, United States of America

Allen Huotari