How much does a commercial shrimp farm cost per hectare?

Aerated semi-intensive ponds typically fall between USD 25,000 and 60,000 per hectare, intensive HDPE-lined ponds between USD 80,000 and 180,000, and indoor super-intensive systems above USD 400,000 per hectare. Site conditions, permitting and power infrastructure move these ranges significantly.

What production system is most profitable?

There is no universally most profitable system. Semi-intensive ponds usually deliver the lowest cost per kilogram where land is affordable, while intensive and indoor systems justify their capital only where land is constrained, energy is reliable and market prices support premium positioning.

How long does it take to build a commercial shrimp farm?

From feasibility to first harvest, a typical commercial project runs 18 to 30 months. Permitting and grid connection are the most common sources of delay.

What is the biggest risk in shrimp farming projects?

Disease combined with weak biosecurity design. Layout decisions made during engineering — traffic separation, reservoir capacity, exclusion measures — determine most of the long-term health outcome.

Should the project include its own hatchery?

Most commercial projects begin by purchasing SPF post-larvae and add a nursery phase first. An integrated hatchery generally becomes justified above roughly 2,000–3,000 tonnes of annual production or where reliable PL supply is unavailable locally.

Shrimp Farming · 14 min read

How to Plan a Commercial Shrimp Farm

A structured planning framework for semi-intensive, intensive-lined, biofloc and indoor RAS shrimp projects — from site qualification to commissioning.

Executive summary

Commercial shrimp farming viability is decided by site water quality, biosecurity and market access — not by equipment brand selection.
System intensity (semi-intensive ponds, lined intensive ponds, biofloc, indoor RAS) should be selected against land cost, energy tariff and target market price, in that order.
Typical CAPEX ranges from USD 25,000/ha for aerated semi-intensive ponds to over USD 400,000/ha for indoor super-intensive systems.
Two-phase nursery systems normally raise annual cycles from two to three and materially improve survival — one of the highest-return planning decisions.
Feed and post-larvae quality together represent 55–75% of operating cost; procurement planning should begin before equipment specification.

Project objectives

Define target annual production in tonnes, harvest size and market channel (domestic fresh, export frozen, value-added) before selecting a production system.
Establish a defensible cost of production per kilogram and compare it to realistic farm-gate prices in the target market.
Secure a biosecure, permitted site with reliable water source, salinity and discharge capacity.
Build a phased development plan that allows expansion without redesigning core infrastructure.

Planning considerations

Site qualification and water resources

Site quality determines the ceiling of every shrimp project. Assess water source reliability, salinity range across seasons, soil permeability and acid-sulphate risk, elevation for gravity drainage, and legal discharge routes before committing capital.

For inland and indoor projects, verify groundwater salinity and mineral profile (calcium, magnesium, potassium ratios) — remineralisation cost is often underestimated and can shift operating economics by USD 0.20–0.50 per kilogram.

Twelve months of salinity, temperature and turbidity data where available
Soil survey: permeability, pH, acid-sulphate potential
Intake and effluent permitting pathway confirmed in writing
Distance to processing, ice supply and export gateway

Selecting production intensity

Production intensity should be chosen against three constraints: land availability and cost, electricity tariff and reliability, and achievable market price. High-intensity systems only outperform when land is expensive and power is stable and affordable.

Semi-intensive aerated ponds deliver 4–10 t/ha/yr at moderate capital intensity. Intensive HDPE-lined ponds reach 15–30 t/ha/yr. Biofloc and covered raceways reach 25–60 t/ha/yr with significantly higher operational discipline. Indoor RAS shrimp can exceed 50 t/ha/yr but requires the highest technical capability and energy input.

Biosecurity design

Disease is the dominant cause of commercial failure in shrimp farming. Biosecurity must be designed into the layout — reservoir and settling ponds, separated clean and dirty traffic routes, disinfection points, bird and crab exclusion, and dedicated equipment per production unit.

Specify specific-pathogen-free (SPF) post-larvae sourcing, PCR screening protocols and a written health management plan. Lenders and insurers increasingly require both.

Technical requirements

Aeration sized on standing biomass: approximately 1 HP per 400–600 kg for intensive systems
Water exchange or treatment strategy defined per phase (nursery, grow-out, pre-harvest)
Alkalinity, mineral and pH buffering programme appropriate to source water
Two-phase nursery raceways with independent heating where seasonal temperature drops apply
Sludge and effluent treatment sized for permitted discharge limits
Monitoring: dissolved oxygen, temperature, pH, salinity with alarm and backup logging

Infrastructure requirements

Primary and standby power with automatic transfer; aeration failure tolerance under 15 minutes
Pumping station with redundancy, screened intake and reservoir buffer volume
Feed storage protected from humidity, sized for at least four weeks of consumption
Harvest, chilling and ice capacity matched to peak single-pond harvest volume
Access roads rated for refrigerated truck loading in all weather
Laboratory space for water chemistry and basic health diagnostics

Budget considerations

Indicative shares of total project cost. Ranges are supplier-neutral planning references, not quotations.

Indicative budget allocation by cost block
Cost block	Indicative share	Planning note
Land, earthworks and pond construction	25–40% of CAPEX	Dominant in pond systems; HDPE lining typically USD 3–7/m² installed.
Aeration and circulation	10–18%	Sized on biomass, not pond area.
Pumping, intake and effluent	6–12%	Includes permitting-driven treatment.
Nursery and hatchery stage	5–12%	Improves cycles per year and survival.
Power, buildings and cold chain	10–20%	Generators, transformers, harvest chilling.
Engineering, commissioning and contingency	10–15%	Never below 10% in a bankable plan.

Model this project in the budget planner

Implementation stages

1
Feasibility and site qualification
2–4 months
Water and soil data, market pricing, permitting pathway, indicative production model.
2
Concept design and business plan
1–3 months
System selection, mass balance, CAPEX/OPEX model, financing structure.
3
Detailed engineering and procurement
3–5 months
Layout, specifications, RFQ packages, supplier qualification, contracting.
4
Construction and installation
6–14 months
Earthworks, lining, pumping, aeration, buildings, power.
5
Commissioning and first cycle
3–6 months
Water conditioning, trial stocking, SOP development, staff training.
6
Ramp-up to design capacity
12–24 months
Cycle optimisation, FCR control, expansion of phased modules.

Common mistakes

Selecting production intensity before validating energy tariff and reliability
Sizing aeration on pond surface area instead of standing biomass
Omitting a nursery phase and losing a full production cycle each year
Underestimating remineralisation cost for low-salinity or inland water
Building full design capacity in one phase instead of proving the first module
No contingency line, which weakens the project in lender review

Project preparation checklist

Twelve-month water quality dataset or nearest credible proxy
Written permitting pathway for intake and discharge
Production model with FCR, survival and cycles per year clearly stated
CAPEX and OPEX model with sensitivity on feed price and energy tariff
Biosecurity plan and PL sourcing strategy
Harvest, chilling and route-to-market plan
Technical specification package ready for supplier-neutral RFQ

Frequently asked questions

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