01
Variable sea states
Real wave conditions change continuously, requiring a system that can adapt to low, moderate, and high-energy conditions.
Public Technical Brief · Hybrid Nearshore Wave Energy · May 2026
Turning wave motion into managed power.
WaveMax™ is a modular hybrid wave energy conversion platform designed for nearshore deployment, combining kinetic and potential wave-energy capture through a dual-floater architecture integrated with hydraulic transmission, buffering, and intelligent control.
Public, non-confidential brief. Engineering values are concept-level targets or preliminary site assumptions and remain subject to hydrodynamic, structural, hydraulic, environmental, and permitting validation.
01 — The Challenge
Wave energy needs more than a single capture mode.
Ocean waves contain coupled vertical and horizontal motion. Many WEC architectures attempt to address this complexity through one primary mechanism, often limiting response across variable sea states. WaveMax is designed around a specialized dual-pathway capture architecture.
02
PTO losses
Hydraulic viscosity, pressure ripple, and irregular loading can reduce conversion consistency if not actively managed.
03
Survivability
Nearshore systems must operate in useful waves while protecting the structure during extreme sea states and abnormal loading.
04
Grid usability
Raw wave impulses must be smoothed, buffered, and converted into a more manageable energy stream for electrical generation.
02 — Architecture
Hybrid capture, hydraulic buffering, intelligent control.
WaveMax separates kinetic and potential wave-energy capture into complementary floater systems feeding a shared hydraulic power architecture. This public rendering is conceptual and intentionally non-detailed.
Teardrop Floaters
Hydrodynamically optimized rotating floaters intended to capture horizontal kinetic wave motion through vortex-assisted rotational torque.
Kinetic pathway · rotational hydraulic pump
Potential Floaters
Vertically translating point absorbers intended to capture gravitational potential energy through hydraulic piston systems.
Potential pathway · linear hydraulic piston
Hydraulic Core
A shared hydraulic architecture stabilizes captured mechanical input before electrical generation and future infrastructure integration.
PTO · accumulators · generator interface
03 — Key Features
Designed as an integrated marine energy platform.
The public description highlights WaveMax’s fixed offshore foundation, hybrid capture functions, hydraulic stabilization, and survivability architecture while reserving proprietary geometry, dimensions, control parameters, and detailed engineering models for NDA review.
| Feature | Function | Public technical relevance |
|---|---|---|
| Fixed offshore support structure | Reinforced concrete piles anchored to the seabed at approximately 30 m depth provide a stationary reaction frame for energy extraction. | Reduces parasitic motion losses, improves hydrodynamic control, and intercepts wave energy before significant nearshore dissipation occurs. |
| Hybrid dual-floater capture | Kinetic and potential energy pathways operate simultaneously. | Separates capture functions rather than forcing both into one device. |
| Dynamic ballast and counterweights | Sensor-assisted tuning adjusts floater response under changing sea states. | Improves responsiveness, resonance tuning, and smaller-wave capture potential. |
| Hydraulic PTO architecture | Mechanical energy is transmitted hydraulically before electrical conversion. | Enables centralized flow management, buffering, and generator stability. |
| HydroTherm™ | Active hydraulic fluid conditioning targets optimal viscosity range. | Addresses thermal and viscosity losses in colder or dynamically loaded ocean conditions. |
| Accumulator system | High- and low-pressure accumulators smooth pressure fluctuations. | Decouples short-term wave variability from generator-facing output. |
| Survivability architecture | Torque limiting, fusible release, bypass, and recovery concepts protect the system. | Reduces catastrophic failure risk during extreme sea states. |
Strategic positioning
WaveMax is not only a WEC concept. It is a coastal energy layer for future marine infrastructure.
Beyond renewable electricity generation, the platform is intended as a foundational energy system for coastal applications including offshore cooling, desalination, water systems, and AI-oriented infrastructure such as WaveDataMax.
04 — Validation
Numerical modeling comes next.
The next phase is focused on validating hydrodynamic response, absorbed power, PTO behavior, survivability, and system-level integration under realistic site conditions.
Hydrodynamics
RAO and capture analysis
Model floater response, coupled behavior, capture width, damping sensitivity, and sea-state performance.
Hydraulics
PTO and accumulator modeling
Assess pressure smoothing, losses, fluid conditioning, accumulator behavior, and generator-facing stability.
Survivability
Extreme-load pathway
Evaluate structural loading, emergency disconnection logic, bypass behavior, retention, and recovery concepts.
05 — Roadmap
From public concept to validated prototype pathway.
WaveMax is being developed through a staged pathway: architecture, numerical validation, prototype design, survivability assessment, and future coastal infrastructure integration.
01
Public technical architecture
Define public-facing architecture, protect strategic IP language, and prepare partner-ready materials.
02
Numerical validation
Advance hydrodynamic and hydraulic modeling with qualified marine-energy facilities and technical collaborators.
03
Prototype engineering
Translate validated modeling outputs into site-specific prototype architecture, survivability assumptions, and build requirements.
04
Integrated coastal infrastructure
Extend WaveMax into WaveDataMax, SaltMax, and broader coastal energy-water-compute systems.
06 — Contact
Ready to explore marine energy infrastructure?
Detailed technical architecture, engineering specifications, modeling assumptions, site documentation, and validation data are available to qualified partners under NDA.
Request NDA DiscussionInventorRené Mauricio Ramón Mejía Vides
OrganizationWaveMax Energy LLC
U.S. EntityWaveMax Energy LLC — Wyoming, USA
Validation PathwayOregon / Pacific Northwest prototype first
Public Emailrene@wavemax.energy
Underlying IPPending U.S. provisional patent filings