By: Evan Olson and Vishal Doshi. Introduction Autonomous Vehicles allow expanded capabilities over manned data collection Relatively low cost, versatile.

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Presentation transcript:

By: Evan Olson and Vishal Doshi

Introduction Autonomous Vehicles allow expanded capabilities over manned data collection Relatively low cost, versatile and robust Ocean Server’s IVER2 Autonomous Underwater Vehicle (AUV) Image Courtesy: Ocean Server

Objectives Create a versatile platform for underwater sensing Mapping Water profiling Autonomous navigation Modify existing IVER2 platform Add Cameras Add Sensor Suite Custom Motion controller

Iver2 Capabilities Vehicle Size: 5.85 inch diameter; 60” length; 40-50lbs displacement Endurance: 10 hours at speed of 2.5 kts Speed Range: 1-4 kts Control: Four independent control planes, movable internal ballast External Hook-up: Data - wireless g Ethernet (up to 1 km comm. distance) Power - 2 pin DC charge voltage in Navigation: Dead reckoning; Differential GPS (when on the surface) Tracking: Internal data log – programmable resolution Software: Windows XP Pro, GUI-based Navigation Suite Mission Planning Software Energy: 570 WHrs of rechargeable Lithium-Ion batteries (>300 cycles) Onboard Electronics: SBC with low power X86 processor, 512 MB Memory Communication: 2.4 GHz radio link when surfaced to download missions and upload collected data; Acoustic modem option

Modifications Pictured above are the two additions that were added to the IVER2 platform. To the right: Ocean Servers Sonde (Courtesy: Ocean Server). To the left: Nosecone Extension.

Modified AUV This is the IVER2 platform with the modifications attached. These modifications change the dynamics of the vehicle.

Method In order to account for the additions to IVER, a new systems identification needed to be performed. This was accomplished in a series of steps Collect data set from unmodified AUV Create a controller and compare to built in controller Collect data for modified AUV Create new controller

Results Due to time constraints and several setbacks only the initial data set was collected. System identification done in MATLAB and SIMULINK. Controller was designed and is currently in the process of being implemented on the AUV. Controller gives large improvements in response.

AUV Response

Conclusions Initial results are promising. There is still a large amount of work to do. Test controller Collect modified dataset Design new controller Implement and test

Testing Video

Questions?