Space-Based Network Centric Operations Research. Secure Autonomous Integrated Controller for Distributed Sensor Webs Objective Develop architectures and.

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Presentation transcript:

Space-Based Network Centric Operations Research

Secure Autonomous Integrated Controller for Distributed Sensor Webs Objective Develop architectures and protocols to enable time- critical interaction between space and ground systems; Secure, interoperation between sensor webs owned and controlled by various entities; Development of the network mobility technology including ad hoc network technology and reachback mechanisms to allow for rapid deployment of, and communication with remote mobile sensor webs. Approach Establish ground station infrastructure Develop & demonstrate protocols for Large File Transfer over Multiple Terminals Develop Secure Integrated Sensor Web With VMOC Mission Rule Set Develop, Integrate & Testing Advanced Nemo Mobile Sensor Web Sensor PI: William Ivancic at NASA Glenn Research Center CO-I’s/Partners: Universal Space Networks, General Dynamics, Surrey Satellite Technology Limited, Cisco, Air Force Space Battle Lab, Army Space & Missile Defense Battle Lab, Japan Manned Space Missions TRL in = 2 Key Milestones Large File Transfer over Multiple Terminals Saratoga Ground Demo - 4/2007 Sensor Web Collaboration Partnership(s) Established – 8/2007 Test & Demo Integrated Integrated Sensor Web With VMOC – 7/2008 Test & Demo of Integrated Mobile Sensor Web – 6/2009 Integration & Testing Advanced Nemo Mobile Sensor Web Security & Service Discovery – 9/2009 8/2006 Secure Autonomous Integrated Space/Ground Sensor Web

Delay / Disruption Tolerant Network (DTN) Protocol Development Objective Develop, demonstrate, and validate Delay / Disruption Tolerant Network (DTN) protocols in a LEO flight environment in support of NASA specific needs for Earth Observation and Science Use ESTO Technologies in Space Validation (CLEO and VMOC) Approach Establish ground station infrastructure Develop / integrate DTN protocols (including security implementations) Test DTN software in a laboratory environment Demonstrate and validate DTN software in a LEO flight environment using the UK-DMC spacecraft PI: William Ivancic at NASA Glenn Research Center CO-I’s/Partners: DARPA, Universal Space Networks, General Dynamics, Surrey Satellite Technology Limited, JAXA, US Air Force Space Battle Lab, US Army Space and Missile Defense Battlelab TRL in = 3 Key Milestones Develop DTN Infrastructure 1/2007 Secure DTN Space Vehicle Agreements 2/2007 Develop / Integrate DTN Protocols 6/2007 Demonstrate DTN Protocols in Space 9/2007 Issue Final Report 9/2007 8/2006 DTN Software Aboard SSTL’s UK-DMC Satellite The Internet UK-DMC

Delay / Disruption Tolerant Network (DTN) Bundle-Agent Discovery Objective Enable dynamic routing in Delay/Disruption Tolerant Networks (DTNs) Develop and test DTN bundling agent discovery protocols that address NASA specific needs for both Earth Observation and Science and Exploration. Transfer technology to Aerospace and Networking community Approach Establish bundling agent discovery algorithms and protocols applicable to various link-layer technologies. Integrate with DTN bundling protocol Simulate combined DTN bundling protocol and bundling agent discovery Test bundling agent discovery in local testbed and DTNbone distributed testbed. PI: William Ivancic at NASA Glenn Research Center CO-I’s/Partners: Constellation Program, DARPA, Internet Research Task Force (IETF), DTNbone TRL in = 2 Key Milestones Develop & simulate discovery algorithms 4/2007 Integrate with DTN bundling protocol8/2007 Test and demonstrate bundling-agent discovery9/2007 Demonstrate DTN Protocols in Space 11/2007 Technology Transfer Released to DTN distribution Web Site at Ohio University 12/2007 Issue Final Report 12/2007 8/2006 In search of bundling-agents and their characteristics (e.g. emphermeris data)

Automated Service Agreements for Ground Station Scheduling Objective Develop and demonstrate autonomously scheduling or ground station assets owned and operated by third parties. Enable real-time access to space-based assets. Transfer technology to Aerospace and Networking community The techniques can be extended to space- based assets and between space-based assets.. Approach General Dynamics and SSTL have developed some machine-to-machine scheduling using GD’s VMOC and SSTL’s Mission Planning System GRC will develop a contract vehicle to have the existing Virtual Mission Operations Center developed by GD implement automated scheduling of Universal Space Networks’ ground assets in order to perform automated commanding of a space asset. PI: William Ivancic at NASA Glenn Research Center CO-I’s/Partners: General Dynamics, SSTL, Universal Space Networks, Air Force Battlelabs, DoD TRL in = 3 Key Milestones Initiate Contract Vehicle for GD12/2006 Contract signed and in place 3/2007 Implementation plan and design from GD/USN 4/2007 Deploy and test10/2007 Demonstration12/2007 Issue Final Report12/2007 8/2006 Nominal Scheduling Algorithm

VMOC NOC 6 Stored data transferred to ground Sensor 1 Seismic Sensor alerts VMOC 5 Space Sensor acquires data (e.g. image) Network Control Center Configures Spacecraft via VMOC VMOC negotiates for ground station services 2 2 VMOC negotiates for Space Assets 3 3 Network Control Center Configures Ground Assets Stored data transferred to ground (Large file transfer over multiple ground stations) 7