INFOBEYOND TECHNOLOGY LLC — Department of Defense STTR Phase II: A20B-T020

INFOBEYOND TECHNOLOGY LLC — STTR Phase II award from Department of Defense.

Phase II STTR prototype / development signal

  • Phase II is where Department of Defense funds deeper R&D after feasibility. Incumbents with Phase II history are serious competitors on adjacent topics.
  • Use this award as past-performance context and to map customer organizations for STRATFI/TACFI-style transition planning.
  • Obligated amount $1,149,765 is consistent with substantial Phase II-scale effort; compare to related awards from the same agency.
  • Topic code A20B-T020 links this award to a solicitation family — search the same topic stem for incumbents and recompete timing.

Informational capture context from public federal data — not legal or bid advice.

Amount
$1,149,765
Agency
Department of Defense · Army
Program / Phase
STTR · Phase II
Topic
A20B-T020
Solicitation
20.B
NAICS
Place of performance
KY
Period
2022-03-15 → 2024-04-13

Description

The U.S. Army GVSC continues utilizing Controller Area Network (CAN Bus) communication standards for embedded systems in the Army's manned, unmanned, electric, and autonomous vehicles (EVs, UGVs, UAVs). The existing CAN Bus security solutions require the hardware add-on and a centralized security measure, creating a single point of failure. InfoBeyond advocates VehChain: Blockchain Cryptography Decentralized Distributed Validating and Resiliency of Vehicle Control Systems. VehChain can be easily integrated into the CAN Bus through firmware revisions. No additional CAN hardware or data frame alternation is needed. To reduce communication overhead and latency, VehChain is designed based on the nature of CAN Bus, i.e., messages are broadcasted, nodes have no identifiers, and the frame identifier determines the specified node. Our VehChain provides a distributed and decentralized message validation scheme for intra-vehicle communication networks. Distributed message validation at each node secures the CAN bus through MAC, encryption, and key generation reminiscent of Blockchain technology. Each cryptographic key is tied to the CAN frame's identifier, hash (plain-text payload), and hash (previous key). To provide resiliency from corrupting messages, a reboot-based recovery approach utilizes CAN's built-in error handling mechanism. Hence, it mitigates the effect of attack propagation bus for ensuring operational safety, security, and continuity.