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OCEAN • ENERGY • TECHNOLOGY

Wave Energy Systems & Technology

 

Advancing ocean-wave energy conversion from hydrodynamics and power take-off to intelligent, reliable, and deployable marine energy systems.

International Peer-Reviewed Journal

WEST

Journal of Wave Energy Systems and Technology

 

Journal of Wave Energy Systems and Technology (WEST) is an international peer-reviewed scholarly journal dedicated to advancing fundamental and applied research in wave energy conversion, marine renewable energy systems, hydrodynamics, power take-off technologies, control systems, offshore integration, and ocean-energy engineering.

WEST provides an interdisciplinary platform for ocean engineers, naval architects, renewable-energy researchers, hydrodynamicists, electrical engineers, control specialists, materials researchers, offshore engineers, and industry professionals to communicate scientific and technological developments supporting efficient, reliable, survivable, and economically viable wave-energy systems.

01
Capture

Understand waves and maximize hydrodynamic energy absorption.

02
Convert

Transform mechanical wave motion through efficient PTO systems.

03
Control

Optimize WEC response, power capture, and operation.

04
Deploy

Achieve reliable, survivable, and scalable systems.

RESEARCH DOMAINS

Journal Focus

Core scientific and technological areas covered by WEST

01

Wave Energy Converters

WEC concepts, device design, oscillating bodies, oscillating water columns, overtopping systems, attenuators, point absorbers, and novel conversion devices.

02

Hydrodynamics & Wave–Structure Interaction

Wave loading, radiation and diffraction, nonlinear hydrodynamics, resonance, viscous effects, fluid–structure interaction, and energy absorption.

03

Power Take-Off Systems

Hydraulic, pneumatic, mechanical, electrical, direct-drive, hybrid, and emerging PTO technologies for wave-energy conversion.

04

Control & Optimization

Reactive control, latching, model predictive control, adaptive control, control co-design, optimization, and intelligent energy capture.

05

Mooring, Structures & Survivability

Mooring dynamics, structural response, extreme waves, fatigue, reliability, station keeping, survivability, and design for harsh seas.

06

Arrays & Offshore Integration

WEC arrays, hydrodynamic interaction, farm optimization, hybrid offshore systems, offshore wind integration, and multi-use marine infrastructure.

ABOUT WEST

From Ocean Waves to Reliable Renewable Power

Ocean waves provide a substantial renewable-energy resource, but converting irregular marine motion into reliable electrical power requires successful integration of hydrodynamics, mechanical systems, electrical conversion, control engineering, offshore structures, materials, reliability, and marine operations.

WEST therefore encourages research that moves beyond isolated device concepts and examines complete wave-energy systems, coupled interactions, performance, durability, control, economics, and deployment challenges.

Particular emphasis is placed on studies capable of demonstrating measurable improvements in energy capture, conversion efficiency, structural reliability, operational robustness, survivability, or overall system viability.

Learn More About WEST →

Research Topics

Wave Energy Converters Ocean Wave Resources Point Absorbers Oscillating Water Columns Wave–Structure Interaction Hydrodynamic Modelling CFD & SPH Physical Model Testing Power Take-Off Systems Direct-Drive Generators Hydraulic PTO Pneumatic PTO WEC Control Control Co-Design WEC Arrays Farm Optimization Mooring Systems Structural Response Extreme Wave Loading Survivability Reliability & Maintenance Digital Twin AI & Machine Learning Offshore Integration
WAVE-TO-WIRE FRAMEWORK

From Wave Resource to Electrical Energy

WEST encourages research across the complete wave-energy conversion chain.

01 Wave Resource

Wave climate, spectra, resource assessment, extreme conditions, and site characterization.

02 Hydrodynamic Capture

Device motion, wave interaction, resonance, geometry, and absorbed mechanical energy.

03 Power Take-Off

Mechanical, hydraulic, pneumatic, or electrical conversion of device motion.

04 Power Electronics

Electrical conversion, generator control, rectification, and power conditioning.

05 Grid & Storage

Grid integration, energy storage, power smoothing, and hybrid-energy operation.

SCIENTIFIC APPROACH

Research We Welcome

Rigorous research from concept development to ocean deployment

Analytical Studies

Fundamental theory, mathematical modelling, system dynamics, and analytical hydrodynamics.

Numerical Modelling

Potential-flow models, CFD, SPH, FEA, coupled simulations, and high-fidelity modelling.

Physical Model Testing

Wave-basin experiments, scaled prototypes, hydrodynamic validation, and laboratory testing.

Control & Optimization

Control design, parameter optimization, MPC, adaptive control, and control co-design.

Field Demonstration

Sea trials, prototype deployment, operational data, monitoring, and validation.

Techno-Economic Assessment

LCOE, reliability, O&M, life-cycle performance, scalability, and commercialization.

ENGINEERING CHALLENGES

Building Wave Energy for Real Ocean Conditions

WEST welcomes studies addressing the multidisciplinary barriers that influence wave-energy commercialization and deployment.

Energy Capture Maximizing absorbed power across variable sea states.
Survivability Maintaining structural safety under extreme marine conditions.
Reliability Reducing failure, downtime, and offshore maintenance.
Cost Reduction Improving system economics and life-cycle performance.
Scalability Moving from single prototypes toward arrays and commercial farms.
Environmental Integration Supporting responsible, sustainable marine deployment.
APPLICATIONS

Wave Energy in the Future Ocean

Utility-Scale Wave Farms

Grid-connected arrays and commercial-scale ocean-energy systems.

Offshore Wind–Wave Systems

Hybrid renewable platforms and shared offshore infrastructure.

Island & Coastal Energy

Local renewable electricity for coastal and remote communities.

Ports & Breakwaters

WEC integration with breakwaters, seawalls, and coastal infrastructure.

Offshore Facilities

Wave-powered sensors, subsea systems, and offshore installations.

Blue Economy Systems

Energy for aquaculture, desalination, autonomous systems, and marine operations.

DIGITAL WAVE ENERGY

Intelligent and Data-Driven Ocean Energy Systems

WEST welcomes emerging research combining wave-energy technologies with artificial intelligence, machine learning, digital twins, predictive maintenance, real-time control, smart sensing, and autonomous monitoring.

Artificial Intelligence Machine Learning Digital Twin Predictive Maintenance Smart Sensors Real-Time Monitoring Optimal Control Model Predictive Control Condition Monitoring Data Analytics
WEST

Engineering the Power of Ocean Waves

The journal prioritizes work combining scientific rigor with meaningful improvements in wave-energy system performance.

Scientific Rigor Robust methods, verification, validation, and reproducible research.
System Integration Connecting hydrodynamics, PTO, control, structures, and power systems.
Engineering Relevance Research addressing real ocean-energy challenges.
Sustainable Innovation Technology advancing reliable and responsible renewable ocean energy.
CONTRIBUTE TO WEST

Advance the Future of Wave Energy Technology

WEST welcomes original research, reviews, technical studies, numerical and experimental investigations, field demonstrations, and interdisciplinary contributions advancing wave-energy systems and technology.

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