Renewable Energy

If you are keen on contributing to the green transition, envisioning a planet running entirely on renewable energy, and looking for the best possible environment for fulfilling your dreams and ambitions, it is right here in front of you.  At DTU Wind and Energy Systems we are pushing the research boundaries in the domain of advanced and reliable materials for wind energy applications, with focus on advanced materials for wind turbine blades, improving wind turbine performance, and ensuring more efficient maintenance and protection of wind turbines.

The Department of Mechanical and Production Engineering (MPE) at Aarhus University is expanding its research and teaching activities in the field of “Renewable Energy Technologies” and invites applications for two Tenure-track Assistant / Associate Professor positions within the Section of “Fluids and Energy”.

Ice Mechanics Group at the Department of Mechanical Engineering of Aalto University is looking for two motivated doctoral students to work on numerical modeling and experiments on sea ice interacting with offshore wind farm. Novel numerical models for sea ice behavior and failure form a central part of the research by our group. Also we have a world unique experimental facility, Aalto Ice and Wave Tank.

Hi 

I am looking for a good PhD student in the area of materials science/polymer science/computational engineering/mechanical engineering. The position is fully funded by EPSRC and ORE Catapult for 4 years.

https://www.swansea.ac.uk/postgraduate/scholarships/research/mechanical-engineering-epsrc-ore-phd-understanding.php

Professor Michael Kelly FRS FREng, Prince Philip Professor of Technology, University of Cambridge, gave the Closing Plenary at the 2nd International Symposium on Energy Challenges and Mechanics, hosted by the North Sea Conference and Journal.

Michael wrote the speech into an article, “Future energy needs and engineering reality”. The paper was published in the Journal of Energy Challenges and Mechanics.
http://www.nscj.co.uk/JECM/JECM1-3.html

I apply force using one slider to another slider. Best part is one slider move little bit and help second slider to slide 6 times length at 70 % force.

Energy Used to move first slider=force*distance

=100N*0.05m

=5Nm

Energy Get on Other Slider= Force*Distance

=Force applied by first slider*cos(45`)*distance

=100*0.7*0.25

=17.5

We get 3 times energy on second slider than we use to move first slider.