Aquaculture - The Next Engineering Frontier

Applying decades of proven engineering excellence from onshore and offshore energy, to the next generation of aquaculture — from land-based RAS to exposed offshore systems.

Engineering the Next Generation of Aquaculture Infrastructure

Aquaculture is transitioning from sheltered coastal farming to industrial-scale systems in increasingly complex environments.

Development is progressing across three parallel tracks:

  • Land-based RAS facilities

  • Offshore aquaculture in exposed waters

  • Co-location with marine energy infrastructure and offshore wind

As exposure, scale and capital intensity increase, the technical requirements move closer to offshore oil & gas and renewable energy projects.

Reinertsen New Energy applies offshore-proven engineering methodologies, analysis tools and execution models to deliver robust, scalable and low-carbon aquaculture infrastructure.

Land-Based Farming (RAS)

1

Modern RAS facilities require advanced industrial process engineering and infrastructure integration.

We support:

  • Hydraulic modelling and flow optimization

  • Pump sizing and redundancy analysis

  • Heat recovery and thermal management studies

  • Oxygenation and degassing system integration

  • Sludge handling and waste management systems

  • Energy balance and lifecycle efficiency calculations

  • Mechanical and piping layout design

  • Electrical load definition and backup power strategy

Our approach emphasizes operational robustness, energy efficiency and maintainability.


Offshore Aquaculture

2

Offshore aquaculture introduces environmental loads comparable to offshore energy installations.

We perform:

  • Global and local structural analysis (ULS, ALS, FLS)

  • Hydrodynamic response modelling (wave-current interaction)

  • Mooring configuration design and optimization

  • Fatigue life assessment of critical components

  • Dynamic riser and flexible connection analysis

  • Anchor capacity and seabed interaction studies

  • Installation and hook-up methodology development

  • Accidental load case assessment

Design is executed using offshore engineering principles developed and validated on the Norwegian Continental Shelf.


Co-Location with Offshore Energy

3

Co-location projects combine aquaculture systems with offshore wind or marine energy infrastructure.

These developments require:

  • Integrated structural and power system design

  • Offshore power export and distribution studies

  • Hybrid microgrid configuration (battery + renewable integration)

  • Subsea cable routing and protection studies

  • Interface management across multiple asset owners

  • Redundancy and reliability class definition

  • Reinertsen New Energy provides multidisciplinary system integration capability across structural, mechanical, electrical and control disciplines.


Our Approach

Reinertsen New Energy bridges decades of proven engineering excellence to meet the technical demands of modern aquaculture.

Offshore & Subsea Engineering

We apply competencies developed for offshore energy projects, including:

  • Structural design in accordance with Eurocode and offshore standards

  • Metocean data assessment and environmental load definition

  • Design basis development and reliability classification

  • Mooring and station-keeping analysis

  • Subsea system design and integration

  • Installation engineering and offshore constructability reviews

Design and analysis are performed in accordance with relevant standards such as:

  • DNV offshore standards

  • ISO marine and mechanical system standards

  • NORSOK where applicable

Process & Infrastructure Engineering

We combine offshore methodologies with industrial engineering expertise:

  • Piping system design and stress assessment

  • Mechanical equipment specification

  • Water treatment and filtration system integration

  • Electrical power distribution and load analysis

  • SCADA and automation interface definition

  • Multidisciplinary 3D coordination and layout optimization

This enables us to act as a technical integrator from early concept development through detailed engineering and operational handover.

Execution Capability

We provide full lifecycle engineering support:

  • Concept studies and feasibility analysis

  • Front-End Engineering Design (FEED)

  • Detailed engineering

  • EPC support and owner’s engineering

  • Interface and contractor coordination

  • Technical documentation and verification

Our execution model includes:

  • HAZID / HAZOP facilitation

  • RAM analysis (Reliability, Availability, Maintainability)

  • Risk-based design optimization

  • Failure mode assessment

  • Operational envelope definition

We combine agility with offshore-grade execution discipline and senior engineering capacity.

Enabling Offshore & Low-Carbon Operations

Energy supply and efficiency become critical design drivers as aquaculture expands offshore.

  • Reinertsen New Energy supports:

  • Shore-to-farm power transmission studies

  • Offshore electrification strategies

  • Hybrid microgrid design

  • Battery integration and load balancing

  • Emission reduction modelling

  • Techno-economic comparison of diesel versus hybrid solutions

  • Lifecycle cost optimization

Our renewable and low-carbon background enables aquaculture operators to reduce emissions while improving operational stability and long-term competitiveness.

When conventional aquaculture engineering reaches its limits, offshore energy expertise becomes the enabler.