Asian Surveying & Mapping
Breaking News
First European satellite with AI set for launch
CubeSats are getting clever. These shoe-boxed sized craft are...
India’s Drone-Powered Digital Maps Project Begins In Maharashtra, Karnataka, Haryana
The Survey of India, with support from Department of...
China Launches Earth-Observing Satellites, Solar Sail Experiment
Two Earth-imaging satellites and an experimental solar sail payload...
Geospatial Policy Safeguarding Abu Dhabi’s Environment
Providing a single source of accurate, reliable environmental information...
India initiates drone-powered digital maps project
The government-owned organisation, Survey of India (SOI), with support...
Drone flying in Marunouchi, Tokyo
Tokyo – Japan-headquartered Terra Drone Corporation, one of the...
Terra Drone demos safe use of UAVs with Mitsubishi Estate for urban area logistics and security in Tokyo
Tokyo – Japan-headquartered Terra Drone Corporation, one of the...
China hands over Zimbabwe’s arable land distribution data in scientific research cooperation
HARARE - The Chinese Academy of Sciences (CAS) handed...
India Just Found Its Lost Vikram Lander on the Moon, Still No Signal
India's Chandrayaan-2 orbiter circling the moon has spotted the...
Chandrayaan 2 orbiter is healthy and safe in the Lunar orbit, says ISRO
The Chandrayaan-2 orbiter is healthy and safe in the...

July 11th, 2019
Orbit Logic Awarded Phase II Navy Autonomy Contract

GREENBELT, Md. — Orbit Logic has been awarded a Phase II Small Business Technology Transfer (STTR) contract sponsored by the Office of Naval Research (ONR) to develop the MinAu System, an advanced multivehicle mission planning, scheduling and response system for the maritime environment, the company announced July 9.

MinAu addresses current and future mission needs by employing teams of autonomous, cooperative, agent-based vehicles of differing types. Through collaboration strategies, these teams can be highly effective in maximizing mission effectiveness in dynamic environments (where conditions may not be known until the team is deployed). MinAu accomplishes this flexibility through a combination of upfront mission planning and onboard autonomous response capabilities. The solution has been adapted from Orbit Logic’s high-heritage COTS space mission planning software.

The STTR team includes the University of Colorado, Boulder’s Research and Engineering Center for Unmanned Vehicles (RECUV) and the University of California San Diego’s MUlti-Agent RObotics (MURO) lab.

Phase I efforts resulted in an initial prototype of the MinAu solution that demonstrated its effectiveness through several relevant multivehicle collaborative mission scenarios played out in simulation.

During Phase II of the STTR, the team will collaborate with the Naval Information Warfare Center (NIWC) Pacific Command to integrate MinAu with vehicles in NIWC’s Heterogeneous Autonomous Mobile Maritime Expeditionary Robots (HAMMER) system and validate its capabilities in a maritime test environment.

HAMMER system is made up of NIWC’s SeaRover UUVs (an autonomy enhanced and untethered BlueROV) for collaborative ocean floor bottom mapping, a USV surface craft to act as a mothership for UUV deployment and recovery, and a rotorcraft UAV used as a data ferry to transport mission data from the UUVs and mothership to a shore station for processing and visualization.

For the HAMMER mission, MinAu will optimize an initial plan for all assets that maximizes the satisfaction of mission objectives (for example, getting the bottom mapping data collected by each asset to the shore station as quickly as possible) while minimizing the use of expendable resources, notably the energy stored in an asset’s batteries. Once the HAMMER vehicles are programmed and deployed, the autonomous software onboard each asset will adapt its actions when unanticipated events or conditions are encountered. The University of Colorado’s Event-Triggered Decentralized Data Fusion algorithm facilitates the exchange of state and situational information between assets with minimal use of acoustic communications equipment, which allows all collaborating assets to work together to best meet the original mission needs by responding appropriately to the unexpected. One example is UCSD’s Conflict Avoidance algorithm, which enables each asset to meet its mission objectives as efficiently and effectively as possible while preventing collisions with other assets or obstacles in its operating environment.