Nominated by Tsinghua University as an outstanding thesis in the field

Proposes a raft-type wave-powered desalination device that can desalinate seawater directly

Conducts multiple-parameter analysis on power absorption and averaged permeate water flux using both analytical and numerical models

Develops mathematical models to evaluate the maximum mean power that could be captured by the raft-type device under motion constraints

Presents two power extraction enhancing strategies utilizing a spring-damping mass oscillator system and water tanks

Nominated by Tsinghua University as an outstanding thesis in the field Proposes a raft-type wave-powered desalination device that can desalinate seawater directly Conducts multiple-parameter analysis on power absorption and averaged permeate water flux using both analytical and numerical models Develops mathematical models to evaluate the maximum mean power that could be captured by the raft-type device under motion constraints Presents two power extraction enhancing strategies utilizing a spring-damping mass oscillator system and water tanks Includes supplementary material: sn.pub/extras

Inhalt

Abstract.- Acknowledgments.- List of abbreviations.- About the Author.- Introduction.- Analytical Study on Hydrodynamic Characteristics.- Numerical Study on Hydrodynamic Characteristics.- Maximum Power Absorption by Two Interconnected rafts.- Maximum Power Absorption by Multiple Connected Rafts.- Hydrodynamics of Raft-type Device with Oscillator System.- Hydrodynamics of Raft-type Device with Water Tanks.- Hydrodynamics of a Wave Powered Reverse Osmosis System.- Conclusions and Future Work.- Appendix A.- Appendix B.