Background Image
Previous Page  56 / 130 Next Page
Information
Show Menu
Previous Page 56 / 130 Next Page
Page Background

lnterdiscipllnary

research

areas

&

challenges

Research methodo/ogy

llydrodynamics and

Structural :'\1ec;hanic$

Guidance. 1\Iavigation

and Cont-rol

011 & gas In deeper ••.• and inArctic

energy

water...

are3.s

The research areas addressed in AMOS are complex and multi-disciplinary, The

methodology will have a solid foundation on

~heoretical,

numerical and model- and full-scale

experimental studies. The main knowledge fields of AMOS are

marine hydrodynamics,

structura/ mechanics, guidance, navigation/sensor systems, and control/optimization.

They

will be complemented with others addressed by the CoE and its collaborators within a

profound interdisciplinary research strategy. The core aim is achieving autonomous

operations and systems. The latter are otten referred to as

intelligent

systems due to their

ability to manage unexpected events and unstructured and uncertain environments. More

than mimicking a human operator, this means integrating mathematical models with real-time

data from sensors and instruments and allo.ving algorithms with optimized response to

be

designed and embedded in computer systems. Such strategy will be followed to enable

increased levels of autonomy:

• Mathematical modelling based on hydrodynamics, aerodynamics, structural mechanics

and electro-mechanical systems will be achieved through a systems perspective

integrating models and knowledge from the different domains. Models at different fidelity

will be used for design, simulation, real-time monitoring, decision and control.

• State and parameters will be estimated using real-time data in order to adaptively update

models in order to detect normal and abnormal changes in the systems or their

environment.

• Advanced sensor fusion for perception ofthe environment any object of interest (001) will

include integration of imaging sensors such as radar, optics, and acoustics with inertial

and navigation sensors for accurate detection and tracking of objects and environmental

parameters.

• Model-based nonlinear optimization will oe realized with coordinated control and robust

networked communication in complex environments with simultaneous operations,

robotics, and mobile sensor networks.

• lntegrated guidance and path-planning With high-level mission planning will be achieved

using numerical optimization where data, decisions, rules and models are represented as

constraints, as well as discrete search algorithms and computational intelligence.

54