Abstract: A system for an autonomous vehicle by providing lane markers on the road for which a vehicle will read and navigate the road. The vehicle transmits a discovery signal and is returned from the marker to indicate the position on the road and how to proceed on the road. The system uses either an autonomous control system or 3D map navigation database to determine the direction of the vehicle in real time.

Abstract: The present invention relates to the guidance of autonomous vehicles and in particular, relates to guiding an autonomous vehicle along a roadway by means of active devices with a system which works during normal and inclement, weather as well as under any luminous conditions, These active devices are embedded in the passive and/or active road details such as traffic signs, traffic lights, warning lights etc. These active devices provide data relating to road conditions, speed, road layout etc. as well as other information such as availability of parking spaces. Accordingly, through networks of sensors and devices the autonomous vehicle can obtain road details in real-time in any weather, illumination, visibility etc.

Abstract: The invention relates to the guidance of autonomous vehicles and in particular, relates to guiding an autonomous vehicle along a roadway with active devices with a system which works during normal and inclement weather as well as under any luminous conditions. These active devices are embedded in the passive and/or active road details such as traffic signs, traffic lights, warning lights etc. These active devices provide data relating to road conditions, speed, road layout etc. as well as other information such as availability of parking spaces. Accordingly, through networks of sensors and devices the autonomous vehicle can obtain road details in real-time in severe weather conditions such as heavy snowstorm, ice, fog or other inclement weather.

Abstract: A system for an autonomous vehicle by providing lane markers on the road for which a vehicle will read and navigate the road. The vehicle transmits a discovery signal and is returned from the marker to indicate the position on the road and how to proceed on the road. The system uses either an autonomous control system or 3D map navigation database to determine the direction of the vehicle in real time.

Abstract: A system for an autonomous vehicle by providing lane markers on the road for which a vehicle will read and navigate the road. The vehicle transmits a discovery signal and is returned from the marker to indicate the position on the road and how to proceed on the road. The system uses either an autonomous control system or 3D map navigation database to determine the direction of the vehicle in real time.

Abstract: The present invention relates to the guidance of autonomous vehicles and in particular, relates to guiding an autonomous vehicle along a roadway by means of active devices with a system which works during normal and inclement weather as well as under any luminous conditions. These active devices are embedded in the passive and/or active road details such as traffic signs, traffic lights, warning lights etc. These active devices provide data relating to road conditions, speed, road layout etc. as well as other information such as availability of parking spaces. Accordingly, through networks of sensors and devices the autonomous vehicle can obtain road details in real-time in any weather, illumination, visibility etc.

Abstract: The present invention relates to the guidance of autonomous vehicles and in particular, relates to guiding an autonomous vehicle along a roadway by means of active devices with a system which works during normal and inclement weather as well as under any luminous conditions. These active devices are embedded in the passive and/or active road details such as traffic signs traffic lights, warning lights etc. These active devices provide data relating to road conditions, speed, road layout etc. as well as other information such as availability of parking spaces. Accordingly, through networks of sensors and devices the autonomous vehicle can obtain road details in real-time in any weather, illumination, visibility etc.

Abstract: A system for an autonomous vehicle by providing lane markers on the road for which a vehicle will read and navigate the road. The vehicle transmits a discovery signal and is returned from the marker to indicate the position on the road and how to proceed on the road. The system uses either an autonomous control system or 3D map navigation database to determine the direction of the vehicle in real time.

Abstract: A system for an autonomous vehicle by providing road details to the autonomous vehicle. The present invention relates to the guidance of autonomous vehicles and in particular, relates to guiding an autonomous vehicle along a roadway by means of active devices [d1] during normal and inclement weather that will work under any luminous conditions. These active devices [d1] are embedded in the passive/active road details. These details can be signs like stop, speed, no turning, traffic lights, warning lights and etc. These embedded active devices [d1] are not limited to signs as it could be curves, lanes and etc. All current road signs and signals used to inform drivers on the roads can be replaced or coexist with these predefined devices. These devices [d1] will provide the necessary information regarding the road conditions, speed and how the road is layed out and even could provide information on whether there are parking spaces available on the route of autonomous vehicle travels.

Abstract: A system for an autonomous vehicle by providing lane markers on the road for which a vehicle will read and navigate the road. The vehicle transmits a discovery signal and is returned from the marker to indicate the position on the road and how to proceed on the road. The system uses either an autonomous control system or 3D map navigation database to determine the direction of the vehicle in real time.

Abstract: Embodiments of a system and method allowing a host system to select among a plurality of Remote Client Computers (RCC) the one RCC that is wirelessly coupled to and closest to a specific Wireless Mobile Communication Device (WMCD) to communicate with are described. The coupling between the RCC and the WMCD is for the purpose of determining which RCC in the network the server should send the data to and receive from. The process is executed on a host server computer coupled to a plurality of RCC over either a wireless or wired network. The server computer detects the presence and precise location of a WMCD using a system of wireless sensors. Once the precise location of the WMCD is determined, the server system selects among a plurality of RCC the one RCC that is wirelessly coupled to and closest to a specific WMCD to communicate with.

Abstract: By using embodiments of the present invention, a targeted advertisement, or other customized content, can be published to a consumer when visiting a website. The consumer is connected to a mobile broadband network and is authenticated and authorized to this broadband network. Further, the consumer is given an Internet Protocol (IP) address of the mobile broadband network and this IP address is used to identify the consumer when the targeted advertisement is determined according to a profile of the consumer. This is achieved according to embodiments by letting the publisher request a targeted advertisement for a consumer visiting a website of the publisher. The targeted advertisement is found by using the IP address allocated to the consumer device by the mobile broadband network, i.e. the consumer is identifiable by the IP address.

Abstract: Embodiments of a system and method allowing a host system to select among a plurality of Remote Client Computers (RCC) the one RCC that is wirelessly coupled to and closest to a specific Wireless Mobile Communication Device (WMCD) to communicate with are described. The coupling between the RCC and the WMCD is for the purpose of determining which RCC in the network the server should send the data to and receive from. The process is executed on a host server computer coupled to a plurality of RCC over either a wireless or wired network. The server computer detects the presence and precise location of a WMCD using a system of wireless sensors. Once the precise location of the WMCD is determined, the server system selects among a plurality of RCC the one RCC that is wirelessly coupled to and closest to a specific WMCD to communicate with.

Abstract: A data communication emulating unit (18) in a user terminal (10) or a proxy device monitors communication between an application unit (16) in the user terminal and a proxy unit of the proxy device, which communication employs requests (REQ) and responses (RES) based on a data communication protocol. The data communication emulating unit then determines a communication pattern of the monitored communication, evaluates if the communication is efficient or not based on the communication pattern and changes communication strategy if the communication pattern is found to be inefficient. Change in strategy is performed through disrupting communication between the application unit and the proxy unit using the data communication protocol and instead ensuring that communication between the proxy unit and application unit is performed based on a signalling protocol via a signalling communication unit (20).

Abstract: A data communication emulating unit (18) in a user terminal (10) or a proxy device monitors communication between an application unit (16) in the user terminal and a proxy unit of the proxy device, which communication employs requests (REQ) and responses (RES) based on a data communication protocol. The data communication emulating unit then determines a communication pattern of the monitored communication, evaluates if the communication is efficient or not based on the communication pattern and changes communication strategy if the communication pattern is found to be inefficient. Change in strategy is performed through disrupting communication between the application unit and the proxy unit using the data communication protocol and instead ensuring that communication between the proxy unit and application unit is performed based on a signalling protocol via a signalling communication unit (20).

Abstract: By using embodiments of the present invention, a targeted advertisement, or other customized content, can be published to a consumer when visiting a website. The consumer is connected to a mobile broadband network and is authenticated and authorized to this broadband network. Further, the consumer is given an Internet Protocol (IP) address of the mobile broadband network and this IP address is used to identify the consumer when the targeted advertisement is determined according to a profile of the consumer. This is achieved according to embodiments by letting the publisher request a targeted advertisement for a consumer visiting a website of the publisher. The targeted advertisement is found by using the IP address allocated to the consumer device by the mobile broadband network, i.e. the consumer is identifiable by the IP address.

Abstract: A mobile security monitoring method and system are provided. An alarm security node communicates with an intelligent security that is activated by a breach in a security zone. This breach starts a video monitoring/recording sequence that is sent out via broadband link to an alarm center. The alarm center forwards this alarm information to a user as SMS/MMS information through a mobile network. The user can view and evaluate what is going on at the security zone and can decide what action to initiate. This minimizes false alarm generation and thus cuts down the costs of following upon false alarm(s) by an alarm security provider. For security and cost reasons, the intelligent security system may be the only client of the server-side alarm center. Existing IT infrastructure at the security zone can be used such as W-LAN, broadband, GPRS, and mobile devices. A mobile phone can be used for activation and deactivation of intelligent security system based on a manual push of a button on the user device.

Abstract: In the setting of policies for personal data, instructions originating from a primary user and defining a privacy policy for a selected piece of personal data are communicated, via an application unit (220), to a privacy-setting node (258) of a service broker (250). The instruction define possible data providers (240) for the data. The policy is stored at a database (254) in a privacy tree for the primary user comprising hierarchically arranged personal data with associated policies. Upon receiving a request for the personal data, the privacy-setting node determines whether there is a privacy policy defined from the data by checking the privacy tree of the primary user. If there is a policy for a requested data, it selects a data provider among the possible data providers and returns a response to the application unit, providing access to the requested personal data at this provider.