At&t Mobility II LLC

AT&T Intellectual Property I, LP

Robert Steven Klein

Arthur Richard Brisebois

Mark D Austin

Ralph Knag

Slawomir Mikolaj Stawiarski

Iftekhar Alam

William D Turczyn

Senthil Raj Dhandapani

Mohammed Yousuffi

Nathan Stowell

Daniel Powell

Ngwane Maina

A system enables a home operator to establish an automated monitoring process which identifies outage events on competitor wireless networks (e.g., peer operators) operating in the same geographies as home operator. The home operator then is able to selectively offer, in near real-time, to open roaming to the peer operator, or implement roaming automatically based on predefined and mutually agreed upon rule sets. The monitoring process may observe non-customer attach request volumes in order to identify outage events on competitor wireless networks.

Dynamic roaming

A mobile device includes a processor and memory storing instructions that cause the processor to effectuate operations. The operations include determining that the mobile device does not meet a camping threshold for a cell of a network, determining that the mobile device is synchronized with the cell, and permitting a limited network communication between the mobile device and the network via the cell. The limited network communication may be limited to text-only communications, emergency communications, or the like.

Minimum camping level bypass for limited network communications

Aspects relate to automatically establishing neighbor relations for adjacent sectors based on one or more network events. The neighbor relations can be established between sectors that can be identified as inter-frequency neighbors or intra-frequency neighbors. In an aspect, the network events can be active call data events received from one or more mobile devices. The active call data events can be radio access bearer establishments and internal system releases. In another aspect, the network events can be idle call data events received from one or more mobile devices. If a first event ended on a first sector and a second event started on a second sector before expiration of an interval that started when the first event ended, the first sector and second sector can be defined as neighbors.

Handover relation identification utilizing network events

Methods and apparatus that facilitate predictive hard and soft handover are presented herein. A measurement component can measure signal strength data associated with a source cell and one or more target cells. One or more linear regression lines can be computed based on the signal strength data. Rates of at least one of an increase or a decrease in the signal strength data per unit of time can be determined based on a slope of the one or more linear regression lines&#x2014;the slope can comprise a change in signal strength data per unit of time. A time to trigger at least one of a hard or soft handover can be triggered based on the rates.

Predictive hard and soft handover

Adaptive link diversity is employed for enhanced coverage and capacity during user data communication in a UMTS (Universal Mobile Telecommunications System). Specifically, current radio conditions associated with the user data are monitored and analyzed. Moreover, a switching and/or concurrent transport mechanism is implemented for communication between a NodeB and UE (User Equipment), when the current radio conditions change beyond a predefined level. In particular, a CS (Circuit Switched) over HSPA (High Speed Packet Access) connection is reconfigured to an R99 (Release 99) CS connection, or a concurrent R99 CS connection is provided along with the CS over HSPA connection, when detected that radio conditions have degraded beyond a predefined threshold. In one aspect, the selection between switching to a new transport mechanism and, adding a concurrent transport mechanism is based on an analysis and/or operator defined conditions.

Adaptive R99 and HS PS (high speed packet-switched) link diversity for coverage and capacity enhancement of circuit-switched calls

A system and methodology that facilitates adaptive link diversity for enhanced coverage and capacity during user data communication in a UMTS (Universal Mobile Telecommunications System) is provided. Specifically, current radio conditions associated with the user data are monitored and analyzed. Moreover, a switching and/or concurrent transport mechanism is implemented for communication between a NodeB and UE (User Equipment), when the current radio conditions change beyond a predefined level. In particular, a CS (Circuit Switched) over HSPA (High Speed Packet Access) connection is reconfigured to an R99 (Release 99) CS connection, or a concurrent R99 CS connection is provided along with the CS over HSPA connection, when detected that radio conditions have degraded beyond a predefined threshold. In one aspect, the selection between switching to a new transport mechanism and, adding a concurrent transport mechanism is based on an analysis and/or operator defined conditions.

Network operation data within a confined indoor wireless environment can be determined and utilized for generation of competitive intelligence and strategic network planning. Scanner component(s) survey and compare signals transported in a set of electromagnetic frequency bands, and in accordance with a set of radio technologies associated with competing networks. Collected data can be aggregated and delivered to femto gateway node(s), which can supply the data to an analysis component that generates network operations NetOp intelligence. A report component can manage received and aggregated network operation data and convey a portion thereof to planning tool(s) that can produce competitive intelligence and develop strategic network planning. Planning tool(s) can request specific network operation data or NetOp intelligence. Aggregated network operation data can be employed to identify service provider indoor coverage strengths or weaknesses relative to competitors to focus sales activities related to network services, and network improvement efforts.

Indoor competitive survey of wireless networks

A system and methodology that facilitates efficient utilization of bandwidth on a transmission link between a base station and a core mobility network, during content delivery is provided. Moreover, the system includes a data storage device, adjunct to, or integrated within, the base station for storing content locally. Typically, the data storage device is updated by downloading content from the core network at an optimal time. For example, content can be downloaded to the data storage device when the core network-to-base station link is idle, under utilized and/or has sufficient bandwidth for the download. On receiving a request for content from a user equipment (UE), the base station can directly deliver the content to the UE from the data storage device, over an air interface, when the requested content is locally available.

Site based media storage in a wireless communication network

Input/output operation of an electronic device is adapted for left-handed and/or right-handed scenarios. As described herein, sensors (e.g., capacitive, resistive, touch-sensitive, etc.) are applied to respective outer edges of a device to determine whether a device is in a user's left hand and/or right hand. Based on this determination, respective points along the sensors can be mapped to soft keys to automatically optimize input for left-handed and/or right-handed operation. As further described herein, points of contact with an input device such as a touch-screen can be corrected based on whether a user's left hand and/or right hand is holding an associated electronic device. For example, upon identifying contact between a touch-screen and a thumb of a hand being used to hold an associated device, the point of contact can be shifted to compensate for the angle of the thumb with respect to the touch-screen.

Automatic soft key adaptation with left-right hand edge sensing

System(s) and method(s) are provided to collect network operation data within a confined indoor wireless environment for generation of competitive intelligence and strategic network planning. Scanner component(s) survey and compare signals transported in a set of electromagnetic frequency bands, and in accordance with a set of radio technologies associated with competing networks. Collected data can be aggregated and delivered to femto gateway node(s), which can supply the data to an analysis component that generates network operations NetOp intelligence. A report component can manage received and aggregated network operation data and convey a portion thereof to planning tool(s) that can produce competitive intelligence and develop strategic network planning. Planning tool(s) can request specific network operation data or NetOp intelligence. Aggregated network operation data can be employed to identify service provider indoor coverage strengths or weaknesses relative to competitors to focus sales activities related to network services, and network improvement efforts.

Systems and methodologies for adapting input/output operation of an electronic device for left-handed and/or right-handed scenarios are provided herein. As described herein, sensors (e.g., capacitive, resistive, touch-sensitive, etc.) are applied to respective outer edges of a device to determine whether a device is in a user's left hand and/or right hand. Based on this determination, respective points along the sensors can be mapped to soft keys to automatically optimize input for left-handed and/or right-handed operation. As further described herein, points of contact with an input device such as a touch-screen can be corrected based on whether a user's left hand and/or right hand is holding an associated electronic device. For example, upon identifying contact between a touch-screen and a thumb of a hand being used to hold an associated device, the point of contact can be shifted to compensate for the angle of the thumb with respect to the touch-screen.

Methods and apparatus for employing femto technology in an enterprise kiosk are presented herein. A content component can receive multimedia content from a base station coupled to a core network. Further, a transfer component can wirelessly transfer the received multimedia content to a mobile device utilizing a femto based wireless protocol based on, at least in part, a sale of the received multimedia content. A database component can store the received multimedia content in a data store, and the transfer component can wirelessly transfer the stored multimedia content to the mobile device utilizing the femto based wireless protocol. The transfer component can alternatively record the received multimedia content in a removable data storage device.

Growing community of inventors

Manchester, CT, United States of America

Robert Steven Klein