the future of advanced (secure) computing · the future of advanced (secure) computing - 4 pm...
TRANSCRIPT
The Future of Advanced (Secure) Computing
Dr. Paul Monticciolo
MIT Lincoln Laboratory
5 March 2018
The Future of Advanced (Secure) Computing
This material is based upon work supported by the Assistant Secretary of Defense for Research and Engineering under Air ForceContract No. FA8721-05-C-0002 and/or FA8702-15-D-0001. Any opinions, findings, conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the Assistant Secretary of Defense for Research and Engineering.
Distribution Statement A: Approved for public release: distribution unlimited.
© 2018 Massachusetts Institute of Technology.
Delivered to the U.S. Government with Unlimited Rights, as defined in DFARS Part 252.227-7013 or 7014 (Feb 2014). Notwithstanding any copyright notice, U.S. Government rights in this work are defined by DFARS 252.227-7013 or DFARS 252.227-7014 as detailed above. Use of this work other than as specifically authorized by the U.S. Government may violate any copyrights that exist in this work.
The Future of Advanced (Secure) Computing - 2PM 03/05/18
Future Commercial Computing Technology Drivers
Hardware Communications
Software
The Future of Advanced (Secure) Computing - 3PM 03/05/18
Future Commercial Computing Technology Drivers
Hardware Communications
Software Security
The Future of Advanced (Secure) Computing - 4PM 03/05/18
The Digital Triad for National Defense
† Addressed in other ARTS 18 sessions
Challenge: independent development in each Triad component limits required secure computing solutions
DoDApplications
Cyber Technology†
Artificial Intelligence†
Semiconductor Industry and Digital
Microelectronics†
1
32
The Future of Advanced (Secure) Computing - 5PM 03/05/18
Secure Computing Directions to Enable the Digital Triad for National Defense
U.S. Semiconductor and
Microelectronics Industry
Cyber Technology
Artificial Intelligence
1. Co-design across Triad to meet performance and cost goals for DoD applications
2. Exploit advances in commercially developed technologies where possible
3. Leverage trusted DoD foundries to fabricate necessary components
The Future of Advanced (Secure) Computing - 6PM 03/05/18
Expanding the Digital Triad Ecosystem for Advanced Secure Computing
Broad AdoptionApproaches
by DoD and Commercial
Users
Specialized Commercial(Early Adopter)
• Example: Power industry
Broader Commercial(Second Gen Adopter)
Specialized Military
(Developer)
2018 2023
• Crypto-bound, efficient data provenance
• Post-quantum cryptography
• Seamless crypto-key management
• “Data-centric” security
• New hardware architecture
• New software/operating system
• Trusted HW manufacturing
Advanced Data ProtectionData-Centric Secure Computing
Secure ProcessingChallenges in Building Secure Hardware PlatformsAn Inherently Secure Computer
MandateAdoption
IntegrateAdoption
IncentivizeAdoption
The Future of Advanced (Secure) Computing - 7PM 03/05/18
Expanding the Digital Triad Ecosystem for Advanced Secure Computing
Broad AdoptionApproaches
by DoD and Commercial
Users
MandateAdoption
Specialized Commercial(Early Adopter)
• Example: Power industry
Broader Commercial(Second Gen Adopter)
Specialized Military
(Developer)
IntegrateAdoption
IncentivizeAdoption
2023
• Crypto-bound, efficient data provenance
• Post-quantum cryptography
• Seamless crypto-key management
• “Data-centric” security
• New hardware architecture
• New software/operating system
• Trusted HW manufacturing
Advanced Data ProtectionData-Centric Secure Computing
Secure ProcessingChallenges in Building Secure Hardware PlatformsAn Inherently Secure Computer
The Artificial Intelligence Era Quantum Computing with Trapped Ions and Superconducting QubitsData Science and Technology Research Environment
• National-security focused AI technologies
• Coupled to secure computing and vanguard U.S. microelectronics
Digital Triad synergy addresses critical defense applications and incentivizes future broader commercial adoption
Integrated Secure AI Processor
Trusted U.S. Semiconductor Industry
2018
The Future of Advanced (Secure) Computing - 8PM 03/05/18
Session Overview
Keynote
Presentations
Posters
Protected Environment
Memory
I/O
TrustedSoftware
Protect
Identify
Challenges in Building Secure Hardware PlatformsProf. Srini Devidas
William Song/Michael Hurley Karen Gettings/Huy Nguyen Siddharth Samsi
Security Advanced AI Technologies
Hamed Okhravi Emily Shen
An Inherently Secure Computer
Data-Centric Secure Computing
Custom Processor Architectures for Probabilistic Programming
Efficient Computing for the Internet of Things (IoT) Big Data Processing for DoD IoT and AI
Eric Dauler Vitaliy Gleyzer
Quantum Computing
Data Science and TechnologyResearch Environment
Processors
Sensor Integration
Algorithms
DataSecurity
BigDAWG
SQL NoSQL NewSQL SQL NoSQL NewSQL
GraphBLASA
C
D E
B
†
Graph Algorithms
D4M
GraphBLAS
Graph Processor LLSC