SBIR-STTR Award

Dynamical Network Models for Holistic Risk Management in Next-Generation 911 Systems
Award last edited on: 2/6/2023

Sponsored Program
SBIR
Awarding Agency
DHS
Total Award Amount
$1,145,666
Award Phase
2
Solicitation Topic Code
H-SB019.1-007
Principal Investigator
Mengran Xue

Company Information

Achilles Heel Technologies LLC

280 South 400 East
Orem, UT 84097
   (801) 362-2343
   info@achillesheel.tech
   aht.ai
Location: Single
Congr. District: 03
County: Utah

Phase I

Contract Number: 70RSAT19C00000034
Start Date: 6/3/2019    Completed: 12/2/2019
Phase I year
2019
Phase I Amount
$149,708
The integration of new cyber technologies in emergency response systems can allow profound improvements in system performance, but also expose the systems to systemic security and privacy risks.Thus, there is a critical need for design-time risk-assessment tools for emergency response systems, which allow evaluation and mitigation of threat impacts across their heterogeneous cyber and physical components.Our vision is that state-space network models provide a compelling framework for risk assessment in complex networked cyber-physical systems such as next-generation emergency-response systems, because they can enable counterfactual analysis of vulnerabilities to such systems.In this Phase I effort, we will analyze the feasibility of design-time risk assessment and mitigation in emergency response systems using the state-space network modeling approach, via a full-scale case study.The project has significant potential for commercialization, with customers including regulatory offices for emergency communications at the Department of Homeland Security, 911 call centers and associated local governments, and vendors interested in deploying new technologies into 911 systems.

Phase II

Contract Number: 70RSAT20C00000047
Start Date: 7/1/2020    Completed: 6/30/2022
Phase II year
2020
Phase II Amount
$995,958
The Next-Generation 911 (NG911) initiative, which aims to update the United States' emergency communications systems to be Internet Protocol-based, should bring about profound benefits in system usability and resilience. However, there is great concern that NG911 systems will be highly vulnerable to cyber- risks, both because the increased accessibility provided by the system increases likelihood of intrusions, and because increased interconnectivity may amplify the consequence or impact of threats. The concern about cyber risks represents a significant barrier and cost in adoption of NG911, yet system stakeholders do Nt have tools available for systematically designing again risk at the planning stage, Nr for monitoring and mitigating actualized threats during operations. The purpose of this project is to develop quantitative risk assessment, monitoring, and mitigation techNlogies for the NG911 system, by developing dynamic network models and advanced analytics that enable risk management.