The rapid change in climate conditions, and the present demand for political and commercial interest in the Arctic region will cause considerable implications on the environment, ecosystem, security, and on the social system in the region. Today, governments, scientists and researchers understand that there is a huge gap of knowledge in the Arctic region and this must be addressed prior to development of the region, or there will be devastating environmental consequences in the future. Existing studies concluded by various organizations including Lloyd’s of London, US Geological Survey and other institutes emphasize that in order to ensure sustainable development in the Arctic, it is important to close the existing gap of knowledge by obtaining accurate scientific data, and make available this data to scientists, researchers and policy makers, for them to take sound decisions on both Arctic challenges and future economic opportunities. The scientists understand that existing lack of knowledge is mainly due to insufficient information in the Arctic and the inability to obtain sufficient scientific data to understand the Arctic region in-depth. Main challenges will be, the vast area of the Arctic, inaccessibility to complex and remote areas, long cold dark winters and short summers, rapid changes of weather conditions etc. Presently, existing satellites provide extremely valuable scientific data, however scientists emphasize that this data would be further analyzed (due to inaccuracy) and collaborated with data on actual close observations, physical sea–ice samples, ice core samples, data from surface and bottom of the sea-ice, glacial ice etc. Collecting data from high altitudes using Unmanned Aerial Vehicles are not new to the Arctic region, and have been used for number of years. The AMAP, (Arctic Monitoring and Assessment Program Workshop), Oslo October, 2008, recommended that it is of great importance that scientists use unmanned aerial vehicles in the Arctic to obtain important environment measurements. Further, added to the AMAP work plan for 2011–2013, is to develop safety guidelines and cross-jurisdictional flight pilot projects, to demonstrate the use of unmanned aerial service (UAS) in the Arctic Environmental Monitoring Plan. The Canadian Government also completed the feasibility study to build a “High Arctic Research Station” in the high north to serve the entire world, for scientists to have an opportunity to share data and support the knowledge for researchers to conclude their investigations. The government is further considering purchasing, three large high-altitude Global Hawk drones for Arctic surveillance, and seeking small snowmobiles and remote control aircrafts to monitor the extreme complex landscape of the Arctic. At present, there is no method to obtain accurate surface and atmospheric data in complex and remote areas, and this requirement has become the highest priority and should be addressed urgently. In order to obtain sufficient accurate data from the Arctic surface and atmosphere, EQQUERA Inc. innovated, is designing and developing multipurpose, multifunctional SG EQQ Unmanned Aerial Vehicles that are able to access remote and complex areas in the Arctic, and operate in challengeable weather conditions such as cold long dark nights.
Skip Nav Destination
ASME 2013 32nd International Conference on Ocean, Offshore and Arctic Engineering
June 9–14, 2013
Nantes, France
Conference Sponsors:
- Ocean, Offshore and Arctic Engineering Division
ISBN:
978-0-7918-5540-9
PROCEEDINGS PAPER
Knowledge of Arctic and EQQ Unmanned Aerial Vehicles for Multiple Applications
Shelton G. De Silva
Shelton G. De Silva
Eqquera Inc., West Vancouver, BC, Canada
Search for other works by this author on:
Shelton G. De Silva
Eqquera Inc., West Vancouver, BC, Canada
Paper No:
OMAE2013-11477, V006T07A026; 9 pages
Published Online:
November 26, 2013
Citation
De Silva, SG. "Knowledge of Arctic and EQQ Unmanned Aerial Vehicles for Multiple Applications." Proceedings of the ASME 2013 32nd International Conference on Ocean, Offshore and Arctic Engineering. Volume 6: Polar and Arctic Sciences and Technology; Offshore Geotechnics; Petroleum Technology Symposium. Nantes, France. June 9–14, 2013. V006T07A026. ASME. https://doi.org/10.1115/OMAE2013-11477
Download citation file:
8
Views
Related Proceedings Papers
Autonomous Helicopter for Surveillance and Security
IDETC-CIE2007
Related Articles
Where on Earth?
Mechanical Engineering (July,2002)
Experiments on Anisotropic and Rate-Sensitive Strain Ratio and
Modulus of Columnar-Grained Ice
J. Offshore Mech. Arct. Eng (November,1989)
A Moored Arctic Floater in First-Year Sea Ice Ridges
J. Offshore Mech. Arct. Eng (February,2015)
Related Chapters
The Human Factor in Network System Survivability (PSAM-0090)
Proceedings of the Eighth International Conference on Probabilistic Safety Assessment & Management (PSAM)
Strategic Thoughts on the Development of New Energy Industry in China
International Conference on Computer Technology and Development, 3rd (ICCTD 2011)
The Impact of Plant Economics on the Design of Industrial Energy Systems
Industrial Energy Systems