Unmanned systems for offshore areas: what is available and what is needed. by William Koski

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Unmanned systems for offshore areas: what is available and what is needed by William Koski

The Need Offshore areas are sometimes hazardous to conduct aerial and water based studies because: weather can be bad study area can be far from land ice or seas can make vessel operation dangerous search and rescue operation may not be available

Types of Data Needed The distribution, movements and numbers of marine mammals, birds, and fish Ice distribution and thickness Information on ocean currents Areas of high biological productivity Information on the ocean floor characteristics Information on sounds in the ocean Presence and location of vessels Weather data

Reasons for new methods for data collection Data are relatively sparse in offshore areas compared to terrestrial areas Data collection from vessels or manned aircraft are expensive More data are needed to understand ecological processes that affect weather and important subsistence and commercial species There is a need to monitor effects of industrial activities such as shipping and oil & gas and mining activities Species distribution and abundance needs to be monitored in relation to the above activities and climate change

Available Platforms Balloons or other stationary aerial platforms Useful to monitor around stationary sites such as drill sites, mine sites, leads in sea ice Unmanned aerial vehicles (UAVs) Useful to monitor large or inaccessible study areas Flight endurance ranges from 20 min to 36 hr Payload capacity ranges from grams to 100s of kg Costs range from a few 1000s to millions

Available Platforms Autonomous underwater vehicles (AUVs) Provide access to data otherwise not obtainable Give visual and other close up views of data traditionally collected from vessels Autonomous surface vehicles (ASVs) Can be used to reduce costs instead of vessel deployments

Available Sensors Aerial Platforms HD Video DSLR Cameras Integrated Camera Systems Hyperspectral/Multispectral Camera Systems Infrared Cameras LIDAR SAR Weather data including temperature, humidity, wind speed and direction (using GPS data)

Available Sensors Surface Vessels The same sensors on the previous and next slide since they can be deployed in air or in water

Available Sensors - Underwater Vehicles HD Video (especially low-light cameras) DSLR Cameras Hyperspectral/Multispectral Camera Systems Sonars (side scan, single and multibeam) Acoustic current profilers Hydrophones (recording and locating acoustic sources animals and human activities) Water chemistry (salinity, temperature, nutrients) Pressure (to measure depth at the AUV)

Conclusions More data are needed For offshore areas to understand ecosystem processes; To meet permitting conditions associated with oil & gas, mining and shipping operations; To identify areas for offshore development (mining and oil & gas) For planning future activities; and To operate as safely as possible. Unmanned systems are affordable and safe ways to collect these data

Where We Go From Here Identify what data collection needs can be met by unmanned systems More testing on the available sensors Use combinations of sensors to create packages Reduce the size of some sensors Encourage military applications to become available to civilian users Work with Transport Canada to develop guideline for unmanned system operations Develop sense and avoid systems