Abstract: Various techniques for the management and control of service operations using near-field communication (NFC) technologies are disclosed. In an example, a master computing system operates to identify a device configuration that enables a service operation upon a remote client device, identify an authentication value to authenticate permission to enable the service operation with the remote client device, and generate an NFC data payload including the authentication value and device configuration. This data payload is then provided to a client computing device that operates an NFC reader. In response, the client computing device processes and authenticates the payload, and enables the indicated service operation(s) within the client computing device. Further examples to conduct the NFC data transaction and perform the service operation(s) using active and passive NFC tags are also disclosed.

Abstract: Embodiments of the disclosure implement techniques to create secure Original Equipment Manufacturer (OEM) identifiers. In one embodiment, a processing system is disclosed. The processing system includes a memory to store an Original Equipment Manufacturer (OEM) key and a processing device, operatively coupled to the memory. The processing device is to receive the OEM key for an OEM system as input to a cryptographic hash function. A device key is produced by applying the cryptographic hash function to the OEM key and a global key associated with a vendor of the OEM system. The device key is provided to a security firmware device to authenticate the OEM system.

Abstract: Various techniques for the management and control of service operations using near-field communication (NFC) technologies are disclosed. In an example, a master computing system operates to identify a device configuration that enables a service operation upon a remote client device, identify an authentication value to authenticate permission to enable the service operation with the remote client device, and generate an NFC data payload including the authentication value and device configuration. This data payload is then provided to a client computing device that operates an NFC reader. In response, the client computing device processes and authenticates the payload, and enables the indicated service operation(s) within the client computing device. Further examples to conduct the NFC data transaction and perform the service operation(s) using active and passive NFC tags are also disclosed.

Abstract: Embodiments of the disclosure implement techniques to create secure Original Equipment Manufacturer (OEM) identifiers. In one embodiment, a processing system is disclosed. The processing system includes a memory to store an Original Equipment Manufacturer (OEM) key and a processing device, operatively coupled to the memory. The processing device is to receive the OEM key for an OEM system as input to a cryptographic hash function. A device key is produced by applying the cryptographic hash function to the OEM key and a global key associated with a vendor of the OEM system. The device key is provided to a security firmware device to authenticate the OEM system.

Abstract: A processing device implementing creation of secure Original Equipment Manufacturer (OEM) identifiers (IDs) in a processing device is disclosed. A processing device of the disclosure includes a one-time programmable storage device and an execution unit. The execution unit can implement a one-way cryptographic hash function that is to receive a secret OEM key from an OEM system, generate an OEM public ID from the secret OEM key, and send the OEM public ID to the one-time programmable storage device for storage.

Abstract: Systems and methods are provided for enchancing pseudo random number generation to thwart various security attacks to a system that relies on digital signature security measures. For example, a random number may be bound to a message that is to be signed using a digital signature. Alternatively, a random number may be bound to a secret seed value, which may be updated subsequent to each signing. Alternatively still, a random number may be bound to both the message to be signed using a digital signature and a secret seed value.

Abstract: A processing device implementing creation of secure Original Equipment Manufacturer (OEM) identifiers (IDs) in a processing device is disclosed. A processing device of the disclosure includes a one-time programmable storage device and an execution unit. The execution unit can implement a one-way cryptographic hash function that is to receive a secret OEM key from an OEM system, generate an OEM public ID from the secret OEM key, and send the OEM public ID to the one-time programmable storage device for storage.

Abstract: Systems and methods are provided for enchancing pseudo random number generation to thwart various security attacks to a system that relies on digital signature security measures. For example, a random number may be bound to a message that is to be signed using a digital signature. Alternatively, a random number may be bound to a secret seed value, which may be updated subsequent to each signing. Alternatively still, a random number may be bound to both the message to be signed using a digital signature and a secret seed value.

Abstract: A method and system for determining rights to access digital content at a mobile communication device is described. A mobile communication device is manufactured with a credential store that maintains credentials associated with the mobile communication device. After manufacturing of the mobile communication device, a player component is installed onto the mobile communication device. With a request for digital content to be used or distributed by the player component, one or more credentials of the mobile communication device are confirmed for accuracy. If accurate, the mobile communication device receives the requested digital content for use and distribution.