Abstract:
A radio communication device is described comprising: a transceiver circuit configured to communicate wirelessly with another device; a tamper-proof circuit connected to the transceiver circuit; and a processor connected to the tamper-proof circuit and configured to exchange data with the transceiver circuit via the tamper-proof circuit.
Abstract:
Generally, this disclosure describes a method and system for authenticating to a network via a device-specific one-time password. A method in an embodiment may include generating a first one-time password (OTP) based at least in part on a plurality of client device attributes; and providing the first OTP to an authenticator associated with a private network during a first session, wherein the authenticator is configured to authenticate the client device to at least one of the private network and protected content included in the private network for a second session following the first session based on the provided first OTP.
Abstract:
Generally, this disclosure describes a method and system for authenticating to a network via a device-specific one-time password. A method in an embodiment may include generating a first one-time password (OTP) based at least in part on a plurality of client device attributes; and providing the first OTP to an authenticator associated with a private network during a first session, wherein the authenticator is configured to authenticate the client device to at least one of the private network and protected content included in the private network for a second session following the first session based on the provided first OTP.
Abstract:
A radio communication device is described comprising: a transceiver circuit configured to communicate wirelessly with another device; a tamper-proof circuit connected to the transceiver circuit; and a processor connected to the tamper-proof circuit and configured to exchange data with the transceiver circuit via the tamper-proof circuit.
Abstract:
Embodiments for implementing public and private geo-fences are generally described herein. A system comprises a geo-fence server adapted to: receive geographical coordinates of a device; determine that the device is located in a geo-fence; determine a type of the geo-fence; and transmit a notification to the device based on the type of the geo-fence. A mobile device for using person-to-person geo-fences is adapted to: receive a geo-fence object; store the geo-fence object at the mobile device; subsequent to storing the geo-fence object, obtain a geographical position of the mobile device; determine whether the mobile device is located in a geo-fence based on the geographical position; determine whether the geo-fence object is associated with the geo-fence; and present the geo-fence object when the geo-fence object is associated with the geo-fence.
Abstract:
A radio communication device is described comprising: a transceiver circuit configured to communicate wirelessly with another device; a tamper-proof circuit connected to the transceiver circuit; and a processor connected to the tamper-proof circuit and configured to exchange data with the transceiver circuit via the tamper-proof circuit.
Abstract:
Generally, this disclosure describes a method and system for authenticating to a network via a device-specific one-time password. A method in an embodiment may include generating a first one-time password (OTP) based at least in part on a plurality of client device attributes; and providing the first OTP to an authenticator associated with a private network during a first session, wherein the authenticator is configured to authenticate the client device to at least one of the private network and protected content included in the private network for a second session following the first session based on the provided first OTP.
Abstract:
Technologies for split key security include a payment device to generate a key encryption key and a first key encryption key part. The payment device generates a second key encryption key part based on the key encryption key and the first key encryption key part and deletes the key encryption key in response to generating the second key encryption key part. Further, the payment device stores the first key encryption key part to a secure memory of a security co-processor of the payment device and the second key encryption key part to a secure memory of a secondary processor of the payment device. The secondary processor is electrically coupled to a backup energy source.
Abstract:
Generally, this disclosure describes a method and system for authenticating to a network via a device-specific one-time password. A method in an embodiment may include generating a first one-time password (OTP) based at least in part on a plurality of client device attributes; and providing the first OTP to an authenticator associated with a private network during a first session, wherein the authenticator is configured to authenticate the client device to at least one of the private network and protected content included in the private network for a second session following the first session based on the provided first OTP.