Empire Technology Development LLC

Nathan Beckmann

Miodrag Potkonjak

Examples include autonomously authenticating a financial transaction, on behalf of the user, without interacting with the user, via wireless communication link. In various embodiments, the user's cellular phone may be configured to process a message that provides at least partial service context and autonomously authenticate the financial transaction.

Autonomous, non-interactive, context-based services for cellular phone

Technology for semantic compression is disclosed. In various embodiments, the technology receives data that represents one or more physical attributes sensed by one or more sensors; employs at least one pattern or statistical feature to identify a first region and a second region in the received data; computes a first utility and a first relevant feature for the first region, and a second utility and a second relevant feature for the second region; and identifies based on at least the first utility and the second utility a first compression method to apply to the first region and a second compression method to apply to the second region wherein the first and the second compression methods have different compression rates, different feature preservation characteristics, or both.

Semantic compression

Technologies are described herein related to multi-core processors that are adapted to share processor resources. An example multi-core processor can include a plurality of processor cores. The multi-core processor further can include a shared register file selectively coupled to two or more of the plurality of processor cores, where the shared register file is adapted to serve as a shared resource among the selected processor cores.

Shared memories for energy efficient multi-core processors

Authentication of financial transactions via wireless communication link

Differential uncloneable variability-based cryptography techniques are provided. The differential cryptography includes a hardware based public physically uncloneable function (PPUF) to perform the cryptography. The PPUF includes a first physically uncloneable function (PUF) and a second physically uncloneable function. An arbiter determines the output of the circuit using the outputs of the first and second PUFs. Cryptography can be performed by simulating the PPUF with selected input. The output of the simulation, along with timing information about a set of inputs from where the corresponding input is randomly selected for simulation, is used by the communicating party that has the integrated circuit with the PPUF to search for an input that produces the output. The input can be configured to be the secret key or a part of the secret key.

Differential uncloneable variability-based cryptography

Embodiments include but are not limited to cellular phones, methods practice thereon, for autonomously servicing a call or a message, on behalf of the user, without interacting with the user, are disclosed herein. In various embodiments, data about a user of the cellular phone, internal conditions of the cellular phone, or external environment of the cellular phone are locally collected and from a wireless communication network. In various embodiments, multiple agents are provided to the cellular phone, wherein each agent is configured to determine, on receipt of a received call or message, a current service context based at least in part on some of the data stored, and autonomously servicing the received call or message based on the results of the determination. Other embodiments may be described and claimed.

Growing community of inventors

Cambridge, MA, United States of America

Nathan Beckmann