I am a professor at KTH Centre of Naval architecture, group of Maritime Robotics. I teach various courses in the master programs in Naval architecture and Maritime engineering. My involvement in research projects concerns topics ranging from route optimzation of ships using ensamble forecasts, aeroelastic models for analysis of sailboat rigs, active measures for parametric roll mitigation of PCTC vessels, development of methods and technologies for cost effective small Autonomous Underwater Vehicles, AUVs.
The wPCC project Oceanbird:
I am very proud to be one of the researchers in the wPCC project Oceanbird aiming to contribute to the disruptive change in sea transportation towards sustainability. The project aim at developing technologies needed to sail large cargo vessels over open oceans and is a collaboration between KTH, Wallenius Marine and SSPA. The KTH part of the project focuses on aerodynamics, performance predictions, weather routing, maneuver simulations and control and model scale tests. The picture below is a 7 meter (1:30 scale) sailing demonstrator.
The Autonomous Underwater Vehicle LoLo:
The general aim for the Maribot LoLo (4 meters long and 400kg heavy) is to be a demonstrator tool and experimental platform for a wide range of research activities. The AUV itself is thus to be regarded as the tool with which capabilities in all four SMaRC technology areas (Autonomy, Perception, Endurance and Communication) can be tested, improved and demonstrated. Since the "truck" is optimized for flexibility rather than for a certain mission-specific operation. Some of the key features are:
- Large enough to carry a wide variety of payload (incl. e.g. water sampling and buoy-deployment,
alternative energy systems etc.).
- Small enough to be trailered by car, handled and operated (incl. ramp-LAR) by 2 persons.
- Robust enough to be handled by students with "standard tools".
- Simple integration of science-sensors (Physical space, power & data).
- Short turnaround times in terms of both back-to back missions and when tailored for certain mission.
- Scalable in terms of e.g. energy storage & payload bay.
- Adaptable, (propeller, glider, speed, light/neutral/heavy, static trim-able).
- Standardized and easy inclusion of new sensors into the "Scientist".
- Maneuverable enough to sniff while "slow enough" to have great range.
Degree Project in Naval Architecture, Second Cycle (SD271X), examiner, course responsible | Course web
Degree Project in Naval Systems, Second Cycle (SD270X), examiner, course responsible | Course web