Data di Pubblicazione:
2021
Abstract:
The IT-HR InnovaMare project, led by the Croatian Chamber of Economy, puts together policy
instruments and key players for development of innovative technologies for the sustainable
development of the Adriatic Sea (https://www.italy-croatia.eu/web/innovamare). The project aims
at enhancing the cross-border cooperation among research, public and private stakeholders
through creation of a Digital Innovation Hub (DIH). The goal is to increase effectiveness of
innovation in underwater robotics and sensors to achieve and maintain a healthy and productive
Adriatic Sea, as one of the crucial and strategic societal challenges existing at the cross-border
level. Within InnovaMare, CNR ISMAR and INM institutes and OGS, in cooperation with the
University of Zagreb and other project partners, contribute to developing a solution to access and
monitor extremely shallow water by means of portable, modular, reconfigurable and highly
maneuverable robotic vehicles. The identified vehicle is SWAMP, an innovative highly modular
catamaran ASV recently developed by CNR-INM. SWAMP is characterised by small size, low draft,
new materials, azimuth propulsion system for shallow waters and modular WiFi-based
hardware&software architecture. Two SWAMP vehicles will be enhanced with a series of kits, tools
and sensors to perform a series of strategic actions in the environmental monitoring of the Venice
Lagoon:
i) An air-cushion-system-kit will be designed and developed. The vehicle will become a side-wall aircushion-
vehicle with reduction of drag and increase in speed. This will also increase the payload
with a reduction of draft.
ii) An intelligent winch kit with a communication cable for the management of underwater sensors
and tools.
iii) A GPS-RTK kit for highly accurate positioning in the range of centimeters.
iv) An Autonomous programmable device for image acquisition and processing based on the
Guard1 camera. This camera acquires images content and, by means of a supervised machine
learning approach, recognises/classifies features such as fish, zooplankton, seabed,
infrastructures. The system is conceived for autonomous monitoring activities extended in time in
fixed or mobile platforms.
v) A Multibeam Echo-sounder (MBES) coupled with an IMU (for pitch-roll compensation). MBES
data can be used, also coupled with Cameras Imagery, through image-detection techniques for
reconstruction and comprehensive knowledge of underwater environment and infrastructures.
Possible analyses in coastal areas are: seabed mapping also for cultural heritage, offshore
structures and resources and monitoring of biodiversity, hydrocarbon, marine litter, pollution.
vi) An underwater Radiometer for multiple analysis: temporal dynamics of optical properties of
water; temporal dynamics of water turbidity from water reflectance; submerged vegetation and
water depth mapping in optically shallow water; produce reference data for validation of satellite
data.
vii) Automatic Nutrient Analyzer for real-time nutrient monitoring. This sensor measures nitrate
with high accuracy over a wide range of environmental conditions (including extremely turbid and
high CDOM conditions), from blue-ocean nitraclines to storm runoff in rivers and streams.
The final result of this pilot action is the creation of an innovative prototype platform for sea
environmental monitoring. This will be validated through the analysis of results and draw up of
guidelines for the improvement of underwater conditions.
Tipologia CRIS:
04.03 Poster in Atti di convegno
Keywords:
Marine Robotics; Marine science
Elenco autori:
Marini, Simone; Braga, Federica; Caccia, Massimo; Rovere, Marzia; Madricardo, Fantina; DE PASCALIS, Francesca; Odetti, Angelo
Link alla scheda completa: