How much does it cost to start a shrimp farm?

There is no universal shrimp farm cost. The budget depends on intensity (extensive, semi-intensive, intensive, biofloc or RAS), land and pond construction, lining, pumping and water exchange, aeration sized from oxygen demand, biosecurity infrastructure, feeding and monitoring equipment, backup power, post-larvae supply, feed and energy. Compare complete project scopes and cost per kilogram produced, not headline equipment prices.

Is shrimp farming profitable?

Shrimp farming profitability is determined by survival rate, feed conversion ratio, growth, harvest size, energy cost (aeration is usually the largest single load), post-larvae quality, disease performance and market price. No system or supplier can guarantee profit — model conservative cases with lower survival and weaker prices and confirm the project still works before committing capital.

What is the biggest operating cost in shrimp farming?

Feed is typically the largest operating cost in intensive shrimp farming, followed by energy for aeration and pumping, post-larvae and labour. This is why aeration offers should be compared on oxygen delivered per kilowatt-hour and feed on conversion ratio and cost per unit of growth, not on purchase price alone.

How much does an aquafeed mill cost?

Aquafeed mill cost varies widely with capacity (tonnes per hour), whether extrusion or pelleting is used, drying and coating stages, raw-material intake and storage, automation level, building and civil works, and energy infrastructure. A meaningful budget requires a defined product mix and throughput target; without those, quoted figures are not comparable between suppliers.

When does it make sense to build an aquafeed mill instead of buying feed?

A dedicated aquafeed mill is justified when captive demand — your own farms plus committed local buyers — is large and stable enough to keep the mill at utilisation, and the landed cost saving per tonne exceeds the debt service, energy, labour and maintenance of running the plant. Calculate the annual feed volume first; if utilisation is uncertain, toll milling or supply contracts are usually the safer path.

What is the first step when planning a fish farm?

Define the species, life stage and production model first. Species requirements determine water temperature, salinity, oxygen demand, density and feeding, which in turn determine tank design, hydraulics, filtration and energy demand. Equipment selection comes after the biological basis is fixed.

How much does a fish farm cost?

There is no universal price. Fish farm cost depends on species, target output, production model, water source and treatment, civil works, energy infrastructure, automation level, country and the scope of installation and commissioning. Compare complete project scopes and lifecycle economics rather than headline equipment prices.

How much does a RAS system cost?

RAS cost varies widely with species, capacity, degree of recirculation, temperature control, water treatment intensity, building and civil works, and country. A meaningful budget requires a defined production basis and a standardised scope; without those, quoted numbers are not comparable.

What is a RAS system?

A Recirculating Aquaculture System reuses and treats water through controlled filtration and water-quality management. It combines tanks, pumping, mechanical filtration, biofiltration, degassing, oxygenation, disinfection, monitoring and waste handling in one controlled recirculating process.

Is RAS better than ponds or cages?

Not universally. RAS offers water efficiency, biosecurity and environmental control at higher capital and energy intensity. Ponds and cages can be more economical where water, climate, site and permits are favourable. The right model follows from the species, the site, the regulations and the business case.

What equipment is needed for a fish farm?

Typically tanks or ponds, intake and pumping, mechanical filtration, biofiltration where water is reused, degassing, oxygenation and aeration, disinfection, temperature control where required, feeding systems, water-quality monitoring and alarms, backup power, and waste and effluent handling.

What equipment is needed for a shrimp farm?

Depending on intensity: ponds, raceways or tanks, liners where used, pumping and water exchange or recirculation, aeration and oxygenation, mechanical and biological filtration in intensive systems, feeding systems, water-quality monitoring, biosecurity infrastructure, backup power, and sludge and effluent management.

How do I choose aquaculture equipment?

Start from the water-quality and production basis for your species, specify the complete process loop rather than individual machines, then compare offers on technical compliance, energy consumption, redundancy, serviceability, support and total cost of ownership — not on purchase price alone.

How do I compare RAS suppliers?

Issue one standardised RFQ with identical assumptions to every bidder and score responses in a matrix covering technical compliance, water-treatment and oxygenation performance, hydraulics, energy per kilogram produced, redundancy, automation, spare parts, local support, installation, commissioning, training, warranty, lead time, exclusions, total cost of ownership and expandability.

What water quality is needed for aquaculture?

Requirements are species- and life-stage specific. The parameters that must be defined for any project are temperature, salinity, dissolved oxygen, pH, alkalinity, carbon dioxide, total ammonia nitrogen, nitrite, nitrate and suspended solids. Target windows should be set with a qualified aquaculture specialist for your species.

Why is oxygen important in aquaculture?

Oxygen has the shortest failure window of any parameter in intensive production. Dissolved oxygen governs feeding, growth and survival, and demand rises with biomass, temperature and feeding. Oxygen supply, distribution and monitoring should be treated as a safety-critical system with independent backup.

Why is backup power important in RAS?

In a recirculating system, pumping, oxygenation and monitoring depend on continuous power. A power interruption without automatic backup stops water movement and oxygen supply, so backup power, automatic changeover and independent alarms are core design requirements rather than optional extras.

What is total cost of ownership in aquaculture?

Total cost of ownership is the full cost of owning and operating the system across its intended life: capital cost, installation and commissioning, energy, feed-related system costs, oxygen, labour, maintenance, consumables, spare parts, expected downtime and replacement of wear components.

How important is energy consumption in RAS?

Energy is typically one of the largest recurring costs in intensive RAS alongside feed and labour, because pumping, oxygenation, filtration, degassing and temperature control run continuously. Energy consumption per kilogram produced should be requested from every bidder and modelled at local tariffs.

Can aquaculture projects be expanded later?

Yes, when expansion is designed in from the start. Modular tank groups, spare hydraulic and biofilter capacity, electrical headroom, space for additional water treatment and a site layout that permits a second phase make later expansion far cheaper than retrofitting an unplanned one.

Is FishMatch Group an aquaculture equipment manufacturer?

No. FishMatch Group is an independent aquaculture procurement intermediary. It does not manufacture equipment; it helps buyers define and structure fish, shrimp and RAS project requirements before suitable manufacturers and project solutions are evaluated.

How does FishMatch Group select manufacturers?

Manufacturers are evaluated against the reviewed project requirement: species and production basis, technical fit, water-treatment and oxygenation capability, energy performance, project scale, delivery capability, support in the buyer's region, and scope alignment. Selection follows a human review of the requirement, not an automatic match score.

Can buyers contact manufacturers directly through FishMatch Group?

FishMatch Group manages manufacturer introductions as part of its structured aquaculture procurement process. Buyers first define and submit the project requirement, after which suitable manufacturers and project options can be evaluated.

What is the fastest way to get quotes for Aquaculture RAS Shrimp Farm Planning Mistakes?

Submit one structured request for Aquaculture RAS Shrimp Farm Planning Mistakes. FishMatch Group translates it into a technical RFQ, runs a confidential sourcing round with project-matched international suppliers, and returns comparable quotations. No fee is charged to the buyer, and your identity and project details stay private until you choose to proceed.

How does FishMatch Group source suppliers for this requirement?

You submit one structured request. We translate it into a technical RFQ, run it against qualified manufacturers and integrators in the relevant categories, and return normalised quotations you can compare side by side on scope, lead time and total cost of ownership.

Do buyers see supplier names during the sourcing process?

No. Supplier identities stay confidential during discovery and evaluation. You receive anonymised, comparable technical and commercial packages, and introductions happen only after both sides are qualified and agree to proceed.

Blog

14 min read

10 Common Mistakes When Planning an Aquaculture, RAS or Shrimp Farm Project — and What to Do Instead

A successful aquaculture project does not begin with buying tanks, pumps or filters. It begins with defining the species, production model, water source, target output, energy demand, biosecurity, redundancy and operating economics.

Most failed or under-performing fish farm, shrimp farm and RAS projects were not defeated by a bad pump or a weak biofilter. They were defeated months earlier, on paper, when equipment decisions were made before the biological production model existed. This guide sets out the ten mistakes that appear most often in commercial aquaculture project planning, what to do instead, and the exact information a buyer needs before requesting aquaculture equipment quotations.

What is the biggest mistake when planning an aquaculture project?

The biggest mistake is choosing equipment before defining the biological production model. Aquaculture systems should be engineered around species requirements, water quality, oxygen demand, temperature, stocking density, feed, hydraulics, filtration, monitoring and backup systems.

1. Choosing equipment before defining the species and production model
2. Designing capacity around theoretical maximum output
3. Underestimating water quality and treatment requirements
4. Ignoring oxygen demand and backup systems
5. Comparing suppliers only by equipment price
6. Treating pumps, filtration, oxygenation and monitoring as separate systems
7. Underestimating energy consumption
8. Forgetting sludge, waste and discharge management
9. Buying technology without considering local maintenance and spare parts
10. Starting construction before the biological and technical design is aligned

10 common mistakes when planning an aquaculture, RAS or shrimp farm project

Each mistake below is common across fish farms, shrimp farms and recirculating aquaculture systems, in greenfield projects and expansions alike. The pattern is consistent: a commercial or procurement decision is taken before the biological and hydraulic requirement is defined.

1. Choosing equipment before defining the species and production model

Salmon, trout, tilapia, seabass, seabream, barramundi, catfish and shrimp do not share operating windows. Temperature range, salinity, optimal dissolved oxygen, tolerance to CO₂ and total ammonia nitrogen, stocking density, feeding regime and harvest weight all differ — and each of those parameters drives tank geometry, hydraulic exchange rate, biofilter surface area, degassing, oxygenation method and heating or cooling load. A post-smolt salmon system and an intensive shrimp nursery can use similar-looking components and still be entirely different machines.

→ Fix the species, life stage, water temperature strategy and production model first. Only then translate those biological requirements into an equipment specification and an RFQ scope.

2. Designing capacity around theoretical maximum output

Nominal capacity is what a system can hold under perfect conditions. Realistic operational output is what it produces across real cycles, with grading, ramp-up, mortality, maintenance windows, harvest logistics and market timing. Designing civil works, pumping and filtration for the theoretical number inflates CAPEX, while designing the financial model on it inflates revenue — a double error that appears in a large share of project models.

→ Plan around a realistic annual output with explicit ramp-up years, then confirm the peak-biomass day the system must survive. Size the process for peak biomass; size the business case for realistic average output.

3. Underestimating water quality and treatment requirements

The water source defines the project. Borehole, surface, municipal and seawater intakes differ in temperature stability, hardness, alkalinity, iron and manganese, suspended solids, organic load, salinity variation and pathogen risk. Insufficient intake treatment shows up later as unstable pH, an underperforming biofilter, off-flavour, gill issues or unplanned water exchange that destroys the operating budget.

→ Test the source across seasons, define the treated-water specification the species needs, and design intake treatment, solids removal, biological filtration and buffering as a specified process — not as a line item added after the tanks are ordered.

4. Ignoring oxygen demand and backup systems

Oxygen is the parameter with the shortest failure window in intensive aquaculture. In a densely stocked tank or an intensive shrimp system, an interruption in oxygen supply or circulation becomes a biological emergency in a very short time, long before it becomes a maintenance issue. Projects still specify a single supply path, no automatic changeover and no independent alarm.

→ Treat oxygen supply, distribution and monitoring as a safety-critical system with independent backup, automatic failover and alarms that reach a human. Have the design reviewed by a qualified aquaculture engineer — this article deliberately gives no sizing formulas, because oxygen capacity must be calculated for your specific biomass, temperature, salinity and system layout.

5. Comparing suppliers only by equipment price

Two quotations with the same headline CAPEX routinely differ by a wide margin once energy consumption per kilogram produced, spare-parts pricing, installation and commissioning scope, control-system integration, training, warranty terms and scope exclusions are compared. Cheap packages frequently exclude the integration work that makes them function as a farm.

→ Compare complete, like-for-like scopes on a lifecycle basis. Price is one column in a comparison matrix that also contains technical compliance, energy use, redundancy, support response and exclusions.

6. Treating pumps, filtration, oxygenation and monitoring as separate systems

A recirculating aquaculture system is one process loop, not a shopping list. Flow rate determines drum-filter selection; solids capture determines biofilter load; biofilter performance determines CO₂ stripping and pH control; degassing determines oxygenation strategy; the control system ties all of it to alarms and to the operator. Buying each block from a different logic produces mismatched interfaces, orphaned responsibility and finger-pointing at commissioning.

→ Specify the whole process loop as one integrated system with defined interfaces, one control philosophy and clearly assigned integration responsibility.

7. Underestimating energy consumption

Pumping, oxygen generation, aeration, filtration, degassing, temperature control and controls run continuously. In intensive RAS, energy is typically one of the largest recurring cost items alongside feed and labour, and it is highly sensitive to head loss, pump selection, oxygen supply method and heating or cooling strategy in the local climate.

→ Ask every bidder for expected energy consumption per kilogram produced under stated assumptions, and model it at local tariffs across the whole cycle before comparing offers.

8. Forgetting sludge, waste and discharge management

Solids have to go somewhere. Sludge thickening, storage, dewatering, effluent treatment, nutrient limits, discharge permits and disposal routes are frequently discovered after the layout is frozen, at which point retrofitting costs far more than designing it in. In several jurisdictions the discharge permit, not the equipment, is the critical path.

→ Confirm local discharge and environmental requirements before layout freeze, and include waste handling and effluent treatment inside the project scope and budget from the start.

9. Buying technology without considering local maintenance and spare parts

Equipment that cannot be serviced locally is a standing operational risk. Long lead times on a wear part, no regional technician, documentation in a language the operating team does not read, or a proprietary controller nobody on site can access all convert a small fault into extended downtime and lost biomass.

→ Evaluate serviceability as a selection criterion: regional service presence, response times, spare-parts availability and pricing, a recommended critical-spares package, documentation language and operator training.

10. Starting construction before the biological and technical design is aligned

Civil works are the least forgiving part of an aquaculture project. Tank pit levels, pipe penetrations, floor slopes, drain positions, pump sump geometry, building height and electrical rooms are all consequences of the process design. Pouring concrete before the process is settled produces expensive rework or a farm that runs permanently below its designed hydraulics.

→ Align the biological design, process design, hydraulics, layout and utilities before civil construction starts, and keep one party accountable for interface management.

10 things you should do before building a fish farm, shrimp farm or RAS facility

This is the practical sequence used by well-structured projects. Work through it in order — each step supplies inputs the next step needs.

1. Define the species first
Biology drives engineering. Species, life stage and market form determine temperature strategy, salinity, water-quality windows, density, feeding and harvest weight — the inputs every subsequent engineering decision depends on.
2. Define realistic production targets
State annual tonnage, number of cycles, stocking and harvest weights, expected growth performance and ramp-up years separately from the theoretical maximum. Both numbers are useful; conflating them is not.
3. Test and understand the water source
Freshwater, seawater, borehole, surface or treated water each behave differently. Test across seasons for flow, temperature, salinity, alkalinity, hardness, metals, solids and contamination risk before committing to a site.
4. Define water-quality requirements
Write down the target operating window: temperature, salinity, dissolved oxygen, pH, alkalinity, CO₂, total ammonia nitrogen, nitrite, nitrate and turbidity for the chosen species and life stage. This becomes the performance basis of the RFQ.
5. Calculate realistic energy demand
Build an energy model covering pumping, oxygen, aeration, filtration, degassing, heating or cooling, lighting and controls, priced at local tariffs. Energy is an operating-cost driver, not a footnote.
6. Design redundancy and emergency backup
Cover power, pumps, oxygen supply, monitoring and controls. Define what happens automatically on failure, what alarms trigger, who is notified and how long the system can hold without human intervention.
7. Integrate the complete process
Tanks, pumping, mechanical filtration, biofiltration, degassing, oxygenation, disinfection, feeding, monitoring, water treatment and waste handling must be specified as one loop with defined interfaces and one control philosophy.
8. Compare suppliers against the same RFQ
A standardised scope is the only way to compare offers. Identical assumptions, identical deliverables list, identical exclusions format — otherwise you are comparing documents, not systems.
9. Calculate lifecycle cost
Model energy, feed, oxygen, labour, maintenance, consumables, spare parts, expected downtime and replacement intervals over the intended operating life, not just the purchase price.
10. Build the economics before construction
Model production, mortality, feed conversion, feed price, energy, labour, selling price, ramp-up and maintenance — with conservative assumptions — before any irreversible capital is committed.

What information should be defined before requesting aquaculture equipment quotations?

Before requesting quotations, a buyer should define species, production model, target annual output, harvest weight, stocking strategy, location, water source and quality, available flow, power and backup power, site conditions, tank and system type, filtration, oxygenation, feeding, monitoring, biosecurity, waste and discharge requirements, automation level, installation, commissioning, training, spare parts, timeline and budget range.

A quotation is only as good as the scope behind it. When these inputs are missing, suppliers fill the gaps with their own assumptions — and no two sets of assumptions are the same, which is why unstructured enquiries produce quotations that cannot be compared.

Biology: species, life stage, stocking strategy, target harvest weight, cycles per year, target annual output
Site: country and location, greenfield or existing facility, available area, climate, access and logistics
Water: source type, available flow, temperature, salinity, full water-quality analysis, discharge options
System: RAS, partial reuse, flow-through, pond, raceway or cage; tank type, material and layout
Process: mechanical filtration, biofiltration, degassing, oxygenation, disinfection, temperature control
Operations: feeding system, monitoring and automation level, biosecurity requirements, waste handling
Utilities: power availability and quality, backup power, gas or oxygen supply, water and heat sources
Commercial: installation, commissioning, training, spare-parts package, warranty, timeline, budget range

How should aquaculture equipment suppliers be compared?

Aquaculture equipment suppliers should be compared against one standardised RFQ using a matrix that covers technical compliance, species suitability, production assumptions, water-treatment and oxygenation performance, hydraulic design, energy consumption, redundancy, automation, maintenance and spare parts, local support, installation, commissioning, training, warranty, lead time, scope exclusions, total cost of ownership and expandability.

Supplier comparison should not be based on CAPEX alone. The lowest quoted package is often the one with the narrowest scope, and the difference typically reappears during installation, commissioning or the first operating year.

Score each criterion explicitly and record where a bidder deviates from the specified scope. Deviations are information, not disqualification — but they must be visible before a decision, not after.

Technical compliance with the specified water-quality and production basis
Species and life-stage suitability, and the production assumptions behind the offer
Water-treatment, biofiltration and oxygenation performance under stated conditions
Hydraulic design, head loss and pump selection logic
Energy consumption per kilogram produced, under stated assumptions
Redundancy, alarm philosophy, automation and monitoring capability
Maintenance requirement, critical spare parts, availability and pricing
Local support presence, response time, installation, commissioning and training
Warranty terms, lead time, clearly stated scope exclusions
Total cost of ownership and the practical path to future expansion

How much does an aquaculture or RAS project cost?

There is no meaningful universal price for an aquaculture or RAS project. Cost depends on species, target capacity, RAS intensity, tank system, water source, oxygenation, filtration, temperature control, civil works, energy infrastructure, country, automation level, installation, biosecurity, waste treatment and commissioning — which is why comparable projects can differ by a wide margin on capital cost per tonne.

Any figure quoted without that context is marketing, not budgeting. Two projects producing the same tonnage of the same species can diverge sharply because one is a heated indoor RAS in a cold climate with strict discharge limits and the other is a partial-reuse system on abundant temperate water.

The useful comparison is not price per unit of equipment but complete project scope and lifecycle economics: what is included, what performance is guaranteed under which assumptions, what it costs to run per kilogram produced, and what it costs to keep running.

Cost drivers: species and life stage, target capacity, degree of recirculation, tank system and civil works
Water source and required treatment, oxygenation method, temperature control and climate
Country factors: construction cost, energy tariff, labour, permitting and import duties
Automation level, biosecurity standard, waste and effluent treatment, installation and commissioning

What determines aquaculture project profitability?

Aquaculture project profitability is determined by feed conversion ratio and feed price, survival, growth rate, stocking density, energy, oxygen, labour, maintenance, biomass utilisation, selling price, biosecurity performance, downtime, financing terms and market access. No system design guarantees profitability, and no supplier can guarantee production performance.

Feed and energy typically dominate the operating cost structure, while survival, growth and biomass utilisation determine whether the asset ever reaches the output the model assumed. A biosecurity failure or an extended downtime event can outweigh a full year of small efficiency gains — which is why redundancy, monitoring and maintenance belong in the financial model, not only in the engineering scope.

Model conservative cases as well as base cases, and confirm that the project remains serviceable if growth is slower, survival lower or the market price weaker than planned.

What is RAS and when does it make sense?

A Recirculating Aquaculture System (RAS) reuses and treats water through controlled filtration and water-quality management, combining tanks, pumping, mechanical filtration, biofiltration, degassing, oxygenation, disinfection, monitoring and waste handling in one controlled recirculating process. RAS makes sense where water is limited, biosecurity or temperature control is critical, the species is high value, production must run year-round, or discharge is tightly regulated.

RAS is not automatically the right solution for every project. It concentrates risk into a technical system that requires reliable power, competent operation and disciplined maintenance, and its capital and energy intensity are higher than extensive alternatives. Where water is abundant, the climate is favourable, discharge is permitted and the species tolerates the conditions, a flow-through, pond or cage model can be the more rational engineering and financial choice.

The right question is not 'is RAS better' but 'which production model satisfies this species, this site, this regulatory environment and this business case'.

Limited water availability or expensive water
High-value species where control justifies capital intensity
Biosecurity-driven production and pathogen exclusion
Temperature control outside the natural range of the site
Urban, inland or near-market production
Year-round, planned production for contracted off-take
Strict environmental discharge constraints

What equipment does a commercial fish farm need?

A commercial fish farm needs tanks, ponds or cages sized from the biomass target; intake, pumping and hydraulics; mechanical filtration and biofiltration where water is reused; degassing, aeration and oxygenation; disinfection and temperature control where required; feeding systems; water-quality monitoring with alarms; backup power; and waste, sludge and effluent handling — all specified as one integrated process loop, not as separate machines.

The complete fish farming equipment list follows from two numbers: the standing biomass and the maximum daily feed load. Biomass sets tank volume and oxygen demand; feed load sets biofilter capacity, solids production and waste handling. Equipment selected before those numbers are fixed is guesswork with a price tag.

Specify the process loop — intake, treatment, culture, waste — as one system with stated water-quality windows, then let suppliers quote against it. A pump, a drum filter and a biofilter from three different brochures are not a system until someone has verified they work together at your flows and loads.

Culture units: tanks, raceways, ponds or cages sized from biomass and stocking density
Hydraulics: intake, pumps, piping and valves sized for peak flow and head loss
Water treatment: mechanical filtration, biofiltration, degassing, disinfection, temperature control
Life support: aeration and oxygenation sized from oxygen demand, with independent backup
Operations: feeding systems, monitoring, alarms, automation, biosecurity infrastructure
Safety and compliance: backup power with automatic changeover, waste and effluent handling

How do you start a shrimp farm project?

Starting a shrimp farm project begins with site selection on suitable water and soil, a defined production intensity, and a budget that covers ponds or tanks, water intake and exchange, aeration sized from oxygen demand, biosecurity, feeding, monitoring, backup power and effluent management. Post-larvae supply, feed logistics and market access should be confirmed before construction starts.

Shrimp farm economics are decided by survival, feed conversion, energy and crop frequency — all of which depend on decisions made before the first pond is built. The intensity choice (extensive, semi-intensive, intensive, RAS or biofloc) sets the equipment list, the energy bill and the management skill the farm will need every day.

Aeration is usually the largest energy load in intensive shrimp farming, so offers should be compared on oxygen delivered per kilowatt-hour rather than unit price. Water treatment, sludge handling and pond-to-pond biosecurity belong in the first budget, not in a phase-two wish list.

Site: water source and quality, salinity, soil, climate, access, discharge options
Production model: extensive, semi-intensive, intensive, biofloc or RAS — each with a different equipment list
Core equipment: ponds or tanks, pumping and water exchange, aeration and oxygenation, feeding, monitoring
Biosecurity: intake water treatment, quarantine, pond-to-pond controls, sludge and effluent management
Utilities: power availability and tariff, backup power sized for aeration, oxygen supply
Supply chain: post-larvae source, feed logistics, harvest and cold-chain access, market agreements

RAS vs pond vs cage vs flow-through aquaculture

RAS, pond, cage and flow-through systems trade water use, capital intensity, energy demand and environmental control against site dependency and operational complexity. None is universally superior — the correct model follows from the species, the site, the regulatory framework and the business case.

	RAS	Pond	Cage	Flow-through
Water use	Very low (recirculated)	Moderate to high	Open water	High
CAPEX	High	Low to moderate	Moderate	Moderate
Energy use	High	Low to moderate	Low	Low to moderate
Environmental control	High	Low	Very low	Moderate
Biosecurity	High	Moderate	Low	Moderate
Site dependency	Low	High (land, water)	Very high (sheltered water)	High (flow)
Species suitability	High-value, controlled	Tilapia, shrimp, carp	Salmon, seabass, seabream	Trout, salmon smolt
Operational complexity	High	Moderate	Moderate	Moderate
Expandability	Modular, capital-intensive	Land-limited	Licence-limited	Flow-limited

How FishMatch Group works

FishMatch Group helps aquaculture-project buyers define and structure fish, shrimp and RAS requirements before suitable manufacturers are selected.

FishMatch Group is an independent procurement intermediary and does not manufacture aquaculture equipment.

FishMatch Group treats aquaculture projects as integrated biological production systems rather than collections of individual equipment.

Supplier and manufacturer information may be available on the site for research and comparison purposes, but actual buyer–manufacturer matching and introductions are managed through FishMatch Group. A buyer submits the project requirement, the requirement is reviewed by a person, the technical fit is assessed, and only then are suitable manufacturers and project options evaluated and introduced.

Serious projects generally start from approximately USD 250,000.

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Open a buyer account and track everything in one place

Create a free FishMatch buyer account to store your project details, submit structured RFQs and follow every stage of the review — all private to you.

Create your buyer account Sign in to the buyer portal What the buyer portal includes

Work through these ten mistakes as an interactive checklist and finish with a pre-filled FishMatch RFQ.

Open the planning check

Working the numbers behind these mistakes — CAPEX per tonne, survival assumptions and realistic timelines? The buyer FAQ answers them at planning level.

Read the buyer FAQ: costs, survival & timelines

See how these mistakes play out on real project scopes — sizing basis, redundancy, energy and how each RFQ was made comparable across suppliers. Every case study has its own enquiry form.

Browse all project case studies

Ready to go deeper? These long-form guides take the most-asked planning and equipment topics from first numbers to supplier-ready scope.

Browse the full blog archive — all long-form posts by date and category

Tools and pages referenced in this guide

Use these to move from a rough idea to a structured, comparable requirement.

Common questions

Buyer FAQ — RAS costs, shrimp economics and aquafeed mills

Planning a fish farm, shrimp farm or RAS project?

Submit your project requirements to FishMatch Group.

We help structure the biological and technical requirement first, then evaluate suitable manufacturers and project solutions.

Submit your project requirement

Serious projects generally from USD 250,000.

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This guide is general planning information for commercial aquaculture buyers. It does not contain engineering sizing calculations and is not a substitute for species-specific design by a qualified aquaculture engineer. FishMatch Group does not manufacture equipment and makes no production, survival or profitability guarantees.