LEADER 04034nam  2200925z- 450 
001 9910585938603321
005 20231214133653.0
035   $a(CKB)5600000000483096
035   $a(oapen)https://directory.doabooks.org/handle/20.500.12854/91230
035   $a(EXLCZ)995600000000483096
100   $a20202208d2022      |y             0
101 0 $aeng
135   $aurmn|---annan
181   $ctxt$2rdacontent
182   $cc$2rdamedia
183   $acr$2rdacarrier
200 10$aHybrid Systems for Marine Energy Harvesting
210   $aBasel$cMDPI - Multidisciplinary Digital Publishing Institute$d2022
215   $a1 electronic resource (182 p.)
311   $a3-0365-4627-8 
311   $a3-0365-4628-6 
330   $aTechnologies to harvest marine renewable energies (MREs) are at a pre-commercial stage, and significant R&D progress is still required in order to improve their competitiveness. Therefore, hybridization presents a significant potential, as it fosters synergies among the different harvesting technologies and resources. In the scope of this Special Issue, hybridization is understood in three different manners: (i) combination of technologies to harvest different MREs (e.g., wave energy converters combined with wind turbines); (ii) combination of different working principles to harvest the same resource (e.g., oscillating water column with an overtopping device to harvest wave energy); or (iii) integration of harvesting technologies in multifunctional platforms and structures (e.g., integration of wave energy converters in breakwaters). This Special Issue presents cutting-edge research on the development and testing of hybrid technologies for harvesting MREs and intends to inform interested readers on the most recent advances in this key topic.
606   $aTechnology: general issues$2bicssc
606   $aHistory of engineering & technology$2bicssc
610   $avertical axisymmetric floaters
610   $aarbitrary shape
610   $abreakwater
610   $adiffraction and radiation problem
610   $ahydrodynamic characteristics
610   $aadded mass
610   $adamping coefficient
610   $amarine renewable energy
610   $awind energy
610   $asolar energy
610   $aresource assessment
610   $ahybrid energy systems
610   $apower take-off damping
610   $awave power device
610   $aexperimental testing
610   $aPTO simulator
610   $auncertainty analysis
610   $awave energy testing
610   $aexperimental set-up
610   $acalibration
610   $aComputational Fluid Dynamics (CFD) modelling
610   $aphysical model testing
610   $aHybrid-Wave Energy Converter (HWEC)
610   $acomposite modelling approach
610   $aOscillating Water Column (OWC)
610   $aOvertopping Device (OTD)
610   $amulti-purpose breakwater
610   $awave power
610   $aoscillating buoy
610   $apower generation performance
610   $astanding waves
610   $aexperimental research
610   $aphysical modelling
610   $awave energy
610   $abreakwaters
610   $asafety
610   $aovertopping
610   $astability
610   $aoffshore wind energy
610   $aCECO
610   $aWindFloat Atlantic
610   $aco-located wind-wave farm
615  7$aTechnology: general issues
615  7$aHistory of engineering & technology
700   $aRosa-Santos$b Paulo Jorge$4edt$01318510
702   $aTaveira Pinto$b Francisco$4edt
702   $aLo?pez Gallego$b Mario$4edt
702   $aRodri?guez Castillo$b Claudio Alexis$4edt
702   $aRosa-Santos$b Paulo Jorge$4oth
702   $aTaveira Pinto$b Francisco$4oth
702   $aLo?pez Gallego$b Mario$4oth
702   $aRodri?guez Castillo$b Claudio Alexis$4oth
906   $aBOOK
912   $a9910585938603321
996   $aHybrid Systems for Marine Energy Harvesting$93033345
997   $aUNINA