Abstract: A system for issuing a dynamic temporary credential to a portable communication device for use in a transaction with an electronic control point. The system receives the current geo-location of the portable communication device and transmits a dynamic temporary credential to the portable communication device from the centralized computer. The system further scores the risk in authorizing a transaction associated with an electronic control point using the dynamic temporary credential it issued. The system may prevent the transmission of the dynamic temporary credential until the end user has been authenticated, which may include verifying one or more of a manually input passcode, the unique digital signature of the portable communication device, and know your customer queries.

Abstract: A near field communication (NFC)-enabled client device includes one or more computer-readable storage media and an NFC interface component operational in a card emulation mode of an NFC protocol. The client device also includes an application for performing a transaction using the NFC protocol. The application is stored on the one or more computer-readable storage media. Programming logic is configured to receive and store a state object (e.g., a cookie) provided by a security authority using the NFC protocol when performing a transaction using the application. The state object includes an identifier, data payload and a public key associated with the security authority. The programming logic is also configured to transmit the state object to the security authority upon receiving an HTTP operation identifying the state object.

Abstract: A PIFA (Planar Inverted-F Antenna) array antenna has multiple PIFAs. The PIFA array is used to provide different radiation patterns for communication. A signal being emitted by the PIFA array is manipulated. According to the manipulation, the PIFA array may emit the signal with an omni-directional radiation pattern or a directional radiation pattern; the same PIFA array (antenna) is used for both directional communication and omni-directional communication. The PIFA array may be used in mobile computing devices, smart phones, or the like, allowing such devices to transmit directionally and omni-directionally. The signal manipulation may involve splitting the signal into components that feed PIFAs, and before the components reach the PIFAs, changing properties of the components (e.g., phase) relative to each other.

Abstract: The claimed subject matter provides for systems and/or methods for a dynamic range wireless access point to initiate deliberate and/or selective communications with one or more wireless devices over a short range radio path. One embodiment of an access point system comprises a processor that transfers one or more wireless devices to a long range radio path once a transition condition has been met. In another embodiment, an access point system may affect transactions between user/customer's smart devices and a commercial place of business where the access point system and the smart devices initiate communications when the smart devices are deliberately placed within the proximity of the access point antenna and/or the smart devices are brought within the vicinity of the access point antenna such as by passing through the entrance or exit to the place of business.

Abstract: The claimed subject matter provides for systems and/or methods for a dynamic range wireless access point to initiate deliberate and/or selective communications with one or more wireless devices over a short range radio path. One embodiment of an access point system comprises a processor that transfers one or more wireless devices to a long range radio path once a transition condition has been met. In another embodiment, an access point system may affect transactions between user/customer's smart devices and a commercial place of business where the access point system and the smart devices initiate communications when the smart devices are deliberately placed within the proximity of the access point antenna and/or the smart devices are brought within the vicinity of the access point antenna such as by passing through the entrance or exit to the place of business.

Abstract: A near field communication (NFC)-enabled client device includes one or more computer-readable storage media and an NFC interface component operational in a card emulation mode of an NFC protocol. The client device also includes an application for performing a transaction using the NFC protocol. The application is stored on the one or more computer-readable storage media. Programming logic is configured to receive and store a state object (e.g., a cookie) provided by a security authority using the NFC protocol when performing a transaction using the application. The state object includes an identifier, data payload and a public key associated with the security authority. The programming logic is also configured to transmit the state object to the security authority upon receiving an HTTP operation identifying the state object.

Abstract: A system for issuing a dynamic temporary credential to a portable communication device for use in a transaction with an electronic control point. The system receives the current geo-location of the portable communication device and transmits a dynamic temporary credential to the portable communication device from the centralized computer. The system further scores the risk in authorizing a transaction associated with an electronic control point using the dynamic temporary credential it issued. The system may prevent the transmission of the dynamic temporary credential until the end user has been authenticated, which may include verifying one or more of a manually input passcode, the unique digital signature of the portable communication device, and know your customer queries.

Abstract: A PIFA (Planar Inverted-F Antenna) array antenna has multiple PIFAs. The PIFA array is used to provide different radiation patterns for communication. A signal being emitted by the PIFA array is manipulated. According to the manipulation, the PIFA array may emit the signal with an omni-directional radiation pattern or a directional radiation pattern; the same PIFA array (antenna) is used for both directional communication and omni-directional communication. The PIFA array may be used in mobile computing devices, smart phones, or the like, allowing such devices to transmit directionally and omni-directionally. The signal manipulation may involve splitting the signal into components that feed PIFAs, and before the components reach the PIFAs, changing properties of the components (e.g., phase) relative to each other.

Abstract: A device provisioning and/or configuration system and method are provided. The system employs a near field communication (NFC) channel in an active and/or passive mode as a channel for provisioning and/or managing mobile device(s) (e.g., with content and/or setting(s)) by a server. The device can be any device that can employ a near field communication channel (e.g., phone, cellular communication device, portable digital assistant (PDA), handheld game console, media player . . . ). The system provides a mechanism for pushing device configuration and/or service indicator(s), for example, through a point-of-sale and/or point-of-service. Significantly, the system utilizes NFC which facilitates selectivity to ensure that only the target device is configured. The NFC-capable device thus exposes its management interface(s) across the NFC channel. Additionally, device(s) can be in factory-configured state without general connectivity (e.g., no WLAN or mobile data service yet).

Abstract: Translators are provided that enable automated and remote device configurations in an efficient and abstract manner. In one aspect, a device configuration system is provided. A configuration component stores one or more remote configuration trees for various devices. A translator component maps the remote configuration trees to at least one device configuration tree associated with the respective devices to enable device configuration in an automated manner.

Abstract: The claimed subject matter provides a system and/or a method that facilitates connecting a wireless device to a secure network. A device can establish a near field communication link with a verified device on a network, wherein the near field communication link can be a secure and/or encrypted link to provision the device without compromising security constraints within the network. An installation component can invoke the transfer of provisioning data to the network via the near field communication link to secure a wireless connection for the device to the network.

Abstract: A dispute resolution system for requesting a service provider to provide services so that the service provider can demonstrate to a service intermediary that a service consumer requested services. A service consumer that wants to start requesting services of the service provider registers with the service intermediary an end code of a sequence of code generated using a one-way function. The service intermediary provides the end code to the service provider. The service consumer can then using codes of the sequence requests the service provider to provide services. When the service provider receives a request, it verifies that the code of the request can be used to derive the end code. If the verification is successful, then the service provider can provide the verified code to the service intermediary as non-repudiatable evidence of the services requested by the service consumer.

Abstract: A dispute resolution system for requesting a service provider to provide services so that the service provider can demonstrate to a service intermediary that a service consumer requested services. A service consumer that wants to start requesting services of the service provider registers with the service intermediary an end code of a sequence of code generated using a one-way function. The service intermediary provides the end code to the service provider. The service consumer can then using codes of the sequence requests the service provider to provide services. When the service provider receives a request, it verifies that the code of the request can be used to derive the end code. If the verification is successful, then the service provider can provide the verified code to the service intermediary as non-repudiatable evidence of the services requested by the service consumer.

Abstract: A dispute resolution system for requesting a service provider to provide services so that the service provider can demonstrate to a service intermediary that a service consumer requested services. A service consumer that wants to start requesting services of the service provider registers with the service intermediary an end code of a sequence of code generated using a one-way function. The service intermediary provides the end code to the service provider. The service consumer can then using codes of the sequence requests the service provider to provide services. When the service provider receives a request, it verifies that the code of the request can be used to derive the end code. If the verification is successful, then the service provider can provide the verified code to the service intermediary as non-repudiatable evidence of the services requested by the service consumer.