Intel Corporation

Li Zhao

Manoj R Sastry

Ravishankar Iyer

Donald K Newell

Santosh Ghosh

Srihari Makineni

Rafael Misoczki

Sujoy Sen

Marcio Rogerio Juliato

Shabbir Ahmed

Rameshkumar G Illikkal

Dave B Minturn

Ramesh Kumar Illikkal

Ravi Iyer

Liuyang L Yang

Vuk Lesi

Zhen Fang

Jaideep Moses

Kyong-Tak Cho

Simon C Steely, Jr

Martin Guy Dixon

Jesse R Walker

Hari Kannan

Quinn Able Jacobson

Mingqiu Sun

Robert S Chappell

Xiruo Liu

William C Hasenplaugh

Steffen Schulz

Aamer Jaleel

Leena K Puthiyedath

David B Minturn

Suresh Srinivas

Arnab Raha

Tong Li

Sadagopan Srinivasan

Ryan Carlson

Erik Hallnor

Bin Li

Xiaowei Jiang

Don Newell

Ramesh G Illikkal

Srihari Makikeni

Meenakshisundara R Chinthamani

Milind B Kamble

Seung Eun Lee

Carl Lebsack

Ramesh Milekal

Huaxin Li

Ahmed Shabbir

Ravishankar Iver

Methods and apparatus relating to a physics-based approach for attack detection and/or localization in closed-loop controls for autonomous vehicles are described. In an embodiment, multiple state estimators are used to compute a set of residuals to detect, classify, and/or localize attacks. This allows for determination of an attacker's location and the kind of attack being perpetrated. Other embodiments are also disclosed and claimed.

Physics-based approach for attack detection and localization in closed-loop controls for autonomous vehicles

One embodiment provides an apparatus. The apparatus includes a lightweight cryptographic engine (LCE), the LCE is optimized and has an associated throughput greater than or equal to a target throughput.

Lightweight cryptographic engine

One embodiment provides an electronic control unit (ECU) for a vehicle. The ECU includes transceiver circuitry, voltage measurement circuitry and feature set circuitry. The transceiver circuitry is to at least one of send and/or receive a message. The voltage measurement circuitry is to determine at least one of a high bus line voltage (VCANH) value and/or a low bus line voltage (VCANL) value, for each zero bit of at least one zero bit of a received message. The received the message includes a plurality of bits. The feature set circuitry is to determine a value of at least one feature of a feature set based, at least in part, on at least one of a high acknowledge (ACK) threshold voltage (VthH) and/or a low ACK threshold voltage (VthL). The feature set includes at least one of an operating most frequently measured VCANH value (VfreqH2) of a number of VCANH values and/or an operating most frequently measured VCANL value (VfreqL2) of a number of VCANL values.

Security system for electronic equipment

There is disclosed in one example a computing apparatus, including: a hardware platform; a network interface to communicatively couple to a bus lacking native support for authentication; and an anomaly detection engine to operate on the hardware platform and configured to: receive a first data stream across a first time; symbolize and approximate the first data stream, including computing a first window sum; receive a second data stream across a second time substantially equal in length to the first time, the second data stream including data across the plurality of dimensions from the first data stream; symbolize and approximate the second data stream, including computing a second window sum; compute a difference between the first window sum and the second window sum; determine that difference exceeds a threshold and that the correlation across the plurality of dimensions is broken; and flag a potential anomaly.

Anomaly detection in a controller area network

Lightweight trusted execution technologies for internet-of-things devices are described. In response to a memory request at a page unit from an application executing in a current domain, the page unit is to map a current virtual address (VA) to a current physical address (PA). The policy enforcement logic (PEL) reads, from a secure domain cache (SDC), a domain value (DID) and a VA value that correspond to the current PA. The PEL grants access when the current domain and the DID correspond to the unprotected region or the current domain and the DID correspond to the secure domain region, the current domain is equal to the DID, and the current VA is equal to the VA value. The PEL grants data access and denies code access when the current domain corresponds to the secure domain region and the DID corresponds to the unprotected region.

Lightweight trusted execution for internet-of-things devices

In general, in one aspect, the disclosures describes a method that includes receiving multiple ingress Internet Protocol packets, each of the multiple ingress Internet Protocol packets having an Internet Protocol header and a Transmission Control Protocol segment having a Transmission Control Protocol header and a Transmission Control Protocol payload, where the multiple packets belonging to a same Transmission Control Protocol/Internet Protocol flow. The method also includes preparing an Internet Protocol packet having a single Internet Protocol header and a single Transmission Control Protocol segment having a single Transmission Control Protocol header and a single payload formed by a combination of the Transmission Control Protocol segment payloads of the multiple Internet Protocol packets. The method further includes generating a signal that causes receive processing of the Internet Protocol packet.

Packet coalescing

Technologies for counter with CBC-MAC (CCM) mode encryption include a computing device that performs a CBC-MAC authentication operation on a message with an encryption key, using a 64-bit block cipher to generate a message authentication code. The computing device generates a first 64-bit authentication block including an 8-bit flag field and a length field of between 11 and 32 bits. The flag field indicates the length of the length field. Performing the CBC-MAC authentication operation includes formatting the message into one or more 64-bit authentication blocks. The computing device performs a counter mode encryption operation on the message with the encryption key using the 64-bit block cipher to generate a cipher text. Performing the counter mode encryption includes generating multiple 64-bit keystream blocks. The computing device generates an authentication tag based on the message authentication code and a first keystream block of keystream blocks. Other embodiments are described and claimed.

Technologies for CCM encryption with 64-bit block ciphers

Embodiments may include systems and methods for authenticating a message between a transmitter and a receiver. An apparatus for communication may include a transmitter to transmit a message to a receiver via a physical channel coupling the transmitter and the receiver. The message may be transmitted via a plurality of transmission voltage levels varied from a plurality of nominal voltage levels on the physical channel. The transmitter may include a voltage generator to generate the plurality of transmission voltage levels varied in accordance with a sequence of voltage variations from the plurality of nominal voltage levels for the message. The sequence of voltage variations may serve to authenticate the message between the transmitter and the receiver. Other embodiments may be described and/or claimed.

Authentication through voltage variations over communication channels

Apparatuses and methods associated with configurable crypto hardware engine are disclosed herein. In embodiments, an apparatus for signing or verifying a message may comprise: a hardware hashing computation block to perform hashing computations; a hardware hash chain computation block to perform successive hash chain computations; a hardware private key generator to generate private keys; and a hardware public key generator to generate public keys, including signature generations and signature verifications. The hardware hashing computation block, the hardware hash chain computation block, the hardware private key generator, and the hardware public key generator may be coupled to each other and selectively cooperate with each other to perform private key generation, public key generation, signature generation or signature verification at different points in time. Other embodiments may be disclosed or claimed.

Configurable crypto hardware engine

An attestation protocol between a prover device (P), a verifier device (V), and a trusted third-party device (TTP). P and TTP have a first trust relationship represented by a first cryptographic representation based on a one-or-few-times, hash-based, signature key. V sends an attestation request to P, with the attestation request including a second cryptographic representation of a second trust relationship between V and TTP. In response to the attestation request, P sends a validation request to TTP, with the validation request being based on a cryptographic association of the first trust relationship and the second trust relationship. TTP provides a validation response including a cryptographic representation of verification of validity of the first trust relationship and the second trust relationship. P sends an attestation response to V based on the validation response.

Remote attestation with hash-based signatures

A cryptography accelerator system includes a direct memory access (DMA) controller circuit to read and write data directly to and from memory circuits and an on-the-fly hashing circuit to hash data read from a first memory circuit on-the-fly before writing the read data to a second memory circuit. The hashing circuit performs at least one of integrity protection and firmware/software (FW/SW) verification of the data prior to writing the data to the second memory circuit. The on-the-fly hashing circuit includes a bit repositioning circuit to designate an order of bits of a binary word in a register from a most significant bit (MSB) to a least significant bit (LSB) for performing computations without rotating bits in the register, and an on-the-fly round constant generator circuit to generate a round constant from a counter.

Ultra-lightweight cryptography accelerator system

One embodiment provides a signer device. The signer device includes hash signature control logic and signer signature logic. The hash signature control logic is to retrieve a first nonce, to concatenate the first nonce and a message to be transmitted and to determine whether a first message representative satisfies a target threshold. The signer signature logic is to generate a first transmitted signature based, at least in part, on the first message representative, if the first message representative satisfies the target threshold. The hash signature control logic is to retrieve a second nonce, concatenate the second nonce and the message to be transmitted and to determine whether a second message representative satisfies the target threshold, if the first message representative does not satisfy the target threshold.

Hash-based signature balancing

Growing community of inventors

Beaverton, OR, United States of America

Li Zhao