100-Ton Solar-Hybrid Shrimp Farm
A neutral reference architecture for a 100 t/year semi-intensive whiteleg shrimp farm powered by a solar-hybrid (PV + LFP battery + diesel backup) plant. Covers pond layout, aeration, water treatment, PV sizing, battery autonomy, project stages, main cost drivers and bankability. No brand names, no fixed profitability promises.
Project assumptions
FishMatch Group handles serious commercial procurement briefs with an expected project value of at least US$250,000. Figures on this page are concept-stage assumptions, not guarantees; validate biology, design, permits, costs and financing with qualified independent parties.
Score your project in 60 seconds
Set your current status on seven factors. We calculate a 0–100 readiness score, flag gaps EPCs and lenders will raise, and pre-fill an RFQ your concierge can act on immediately.
Planning — foundational work still open, but structured RFQs feasible
- Energy plan: Grid connection secured
- CAPEX clarity: USD 2M–10M — mid commercial
- Sign a site option or lease for at least 20 years
- Commission water lab tests (salinity, TAN, iron, TDS) and file abstraction permit
- Engage local permitting consultant and file EIA scoping
- Secure at least one signed LOI from a processor or importer
Indicative execution readiness. Not a credit decision or engineering warranty.
System stack
Ponds & water infrastructure
- • 12–16 lined earthen ponds (HDPE liner recommended for biosecurity)
- • Central drain harvest sumps + independent inlet/outlet channels
- • Reservoir + sedimentation pond for intake water
- • Effluent settling + treatment pond before discharge
Aeration & oxygenation
- • 8–14 paddlewheels per hectare depending on stocking density
- • Central aspirators or nano-bubble diffusers in intensive ponds
- • Continuous DO monitoring with SCADA-linked alarms
- • Aeration is the #1 electrical load — sized as critical
Water treatment & biosecurity
- • Drum or disc filters + UV on incoming water
- • SPF post-larvae only; two qualified hatchery sources
- • Foot baths, vehicle wash, all-in/all-out per pond block
- • Biofloc or probiotic dosing (optional, semi-intensive)
Solar PV plant
- • 250–400 kWp ground-mount PV array (bifacial modules)
- • Grid-tied or off-grid hybrid inverters, 3-phase
- • PV sized to cover 60–85% of daytime aeration load
- • Anti-corrosion mounting for coastal salt air
Battery & backup power
- • 300–600 kWh LFP battery for evening aeration + night ride-through
- • Diesel genset (150–250 kVA) sized for full critical load, N+1
- • ATS + synchronising switchgear; SCADA-integrated fuel management
- • UPS on sensors, alarms and SCADA controllers
Monitoring & feeding
- • Continuous DO, temperature, pH, salinity per pond
- • Acoustic feeders or automatic belt feeders
- • Remote monitoring dashboard + mobile alerts
- • Growth sampling + feed adjustment protocol
Key terms used on this page
Plain definitions of the terms that decide the equipment list and the comparability of quotations.
Model this project on the page
Adjust the inputs to match your site and load profile. Outputs update live and can be sent as a pre-filled, confidential RFQ to project-matched suppliers.
Solar ROI & Payback (Load + Diesel + Tariff)
Purpose-built for solar-hybrid aquaculture: enter your daily load profile, required battery autonomy, grid tariff and diesel assumptions. The tool sizes PV + battery, computes annual grid + diesel savings and returns simple payback and 10-year ROI.
24h average energy demand across pumps, aeration, RAS, hatchery.
Fraction of annual kWh covered by PV (after losses).
Of the non-solar kWh: how much comes from grid vs. diesel.
Example — take it from your generator's fuel-consumption sheet at your load
Default: Guayaquil, Ecuador (NREL PVWatts, panel tilted to latitude). Real sun on the panel, kWh/m²/day — PVWatts / Global Solar Atlas flat ground: Guayaquil 4.71 / 4.52 · Ho Chi Minh City 5.28 / 4.86 · Chennai 5.49 / 5.34 · Kafr El Sheikh (Egypt) 6.27 / 5.55 · Lagos 4.64 / 4.54 · Recife (Brazil) 6.13 / 5.71. Use the panel figure here.
Default: Guayaquil. NREL PVWatts at its 14% default losses gives: Guayaquil 0.74 · Ho Chi Minh City 0.74 · Chennai 0.74 · Lagos 0.74 · Kafr El Sheikh 0.76 · Recife 0.76
Example — use your installer's quote; compare with IRENA, Renewable Power Generation Costs in 2023
Aeration, biofilter, alarms — the loads batteries must ride through.
Example — use your installer's quote; compare with NREL's battery storage cost projections
How ROI changes when tariff, diesel and autonomy shift
Grid values recompute live. Lower payback = better; higher ROI = better. Anchored on your current inputs.
| Tariff ↓ / Diesel → | $0.66/L | $0.88/L | $1.10/L | $1.32/L | $1.54/L |
|---|---|---|---|---|---|
| $0.11/kWh | 7.3 years | 6.2 years | 5.4 years | 4.7 years | 4.2 years |
| $0.14/kWh | 6.4 years | 5.5 years | 4.8 years | 4.3 years | 3.9 years |
| $0.18/kWh | 5.6 years | 4.9 years | 4.4 years | 4 years | 3.6 years |
| $0.22/kWh | 5 years | 4.5 years | 4 years | 3.7 years | 3.4 years |
| $0.25/kWh | 4.6 years | 4.1 years | 3.7 years | 3.4 years | 3.1 years |
Planning estimate only: Final species assumptions, stocking density, water quality, biosecurity, system design, equipment sizing, production performance and financial outcomes must be confirmed by qualified independent professionals and the selected provider.
Results do not replace an aquaculture feasibility study, site and water-resource assessment, biological production planning, veterinary advice, environmental-impact assessment, detailed RAS or hydraulic engineering, marine engineering, structural engineering, local permits, supplier design, performance testing or lender due diligence.
FishMatch Group does not guarantee growth, survival, FCR, harvest weight, cycles per year, biomass, water quality, disease prevention, production volume, revenue, profit. Outputs are not legal, financial, engineering, tax or veterinary advice. Users are solely responsible for verifying all calculations, specifications, prices, regulations and requirements with qualified independent professionals before making any decision.
Supplier and manufacturer listings are provided for research, transparency and discovery only. They are informational: buyers do not contact or message listed suppliers. Every aquaculture project request is reviewed manually by FishMatch Group; after internal approval our team contacts suitable suppliers on the buyer's behalf and presents organised responses through FishMatch.
Solar Aquaculture ROI Calculator
Solar PV can offset part of a farm's pumping, aeration and RAS electricity. This tool estimates annual generation, energy savings, payback years and 10-year ROI from CAPEX, irradiance and grid tariff.
Default: Guayaquil, Ecuador (NREL PVWatts, panel tilted to latitude). Real sun on the panel, kWh/m²/day — PVWatts / Global Solar Atlas flat ground: Guayaquil 4.71 / 4.52 · Ho Chi Minh City 5.28 / 4.86 · Chennai 5.49 / 5.34 · Kafr El Sheikh (Egypt) 6.27 / 5.55 · Lagos 4.64 / 4.54 · Recife (Brazil) 6.13 / 5.71. Use the panel figure here.
Example — use your installer's quote; compare with IRENA, Renewable Power Generation Costs in 2023
Default: Guayaquil. NREL PVWatts at its 14% default losses gives: Guayaquil 0.74 · Ho Chi Minh City 0.74 · Chennai 0.74 · Lagos 0.74 · Kafr El Sheikh 0.76 · Recife 0.76
Planning estimate only: Final species assumptions, stocking density, water quality, biosecurity, system design, equipment sizing, production performance and financial outcomes must be confirmed by qualified independent professionals and the selected provider.
Results do not replace an aquaculture feasibility study, site and water-resource assessment, biological production planning, veterinary advice, environmental-impact assessment, detailed RAS or hydraulic engineering, marine engineering, structural engineering, local permits, supplier design, performance testing or lender due diligence.
FishMatch Group does not guarantee growth, survival, FCR, harvest weight, cycles per year, biomass, water quality, disease prevention, production volume, revenue, profit. Outputs are not legal, financial, engineering, tax or veterinary advice. Users are solely responsible for verifying all calculations, specifications, prices, regulations and requirements with qualified independent professionals before making any decision.
Supplier and manufacturer listings are provided for research, transparency and discovery only. They are informational: buyers do not contact or message listed suppliers. Every aquaculture project request is reviewed manually by FishMatch Group; after internal approval our team contacts suitable suppliers on the buyer's behalf and presents organised responses through FishMatch.
Battery Storage Sizing Calculator
Aquaculture critical loads — oxygenation, biofilter pumps, alarms — cannot tolerate outages. This tool sizes an LFP battery bank in kWh from critical-load kW, autonomy hours and depth-of-discharge (DoD).
Example — use the depth of discharge in the battery datasheet and warranty
Example — use the inverter datasheet; PVWatts defaults to 96%
Example — use your installer's quote; compare with NREL's battery storage cost projections
Planning estimate only: Final species assumptions, stocking density, water quality, biosecurity, system design, equipment sizing, production performance and financial outcomes must be confirmed by qualified independent professionals and the selected provider.
Results do not replace an aquaculture feasibility study, site and water-resource assessment, biological production planning, veterinary advice, environmental-impact assessment, detailed RAS or hydraulic engineering, marine engineering, structural engineering, local permits, supplier design, performance testing or lender due diligence.
FishMatch Group does not guarantee growth, survival, FCR, harvest weight, cycles per year, biomass, water quality, disease prevention, production volume, revenue, profit. Outputs are not legal, financial, engineering, tax or veterinary advice. Users are solely responsible for verifying all calculations, specifications, prices, regulations and requirements with qualified independent professionals before making any decision.
Supplier and manufacturer listings are provided for research, transparency and discovery only. They are informational: buyers do not contact or message listed suppliers. Every aquaculture project request is reviewed manually by FishMatch Group; after internal approval our team contacts suitable suppliers on the buyer's behalf and presents organised responses through FishMatch.
Solar ROI and battery sizing for a 100-ton shrimp farm
Aeration is the single largest energy load on a shrimp farm and it never stops. That makes shrimp one of the highest-return use cases for solar + battery in aquaculture — but only if the PV array is sized against the real 24-hour aeration profile, and the battery is sized against the longest no-PV window, not the average day.
Solar ROI drivers
Every liter of diesel avoided at $1.00–$1.60/L compounds across 20 years. On tropical sites, PV + battery typically displaces 60–90% of diesel consumption, driving 3.5–5.5-year simple payback on the energy block.
5.0–6.0 kWh/m²/day sites hit 14–22% 20-year IRR in the Base scenario of the Solar ROI calculator. Below 4.2 kWh/m²/day or on subsidized-diesel grids, payback stretches beyond 7 years.
Sizing PV alone against average daytime consumption undersizes the system for shrimp. Size the array against total daily kWh × 1.15 losses, then let the battery bridge the night.
Use Pessimistic (low irradiance, high CAPEX, low fuel), Base and Optimistic in the Solar ROI calculator. Lenders want the Pessimistic case to still cover DSCR ≥ 1.30.
Battery sizing drivers
Emergency aeration for 100-ton production is typically 60–75% of peak farm load. Battery kWh = critical kW × autonomy hours ÷ depth-of-discharge (0.90 for LFP).
A hybrid farm with a small backup genset only needs to cover the nightly gap. Zero-diesel targets need to survive back-to-back cloudy days, which typically doubles the kWh.
6,000–10,000 cycles at 90–95% DoD means one LFP bank outlives 3–4 lead-acid replacements. TCO over 10 years is 30–50% lower despite higher CAPEX.
A 92% round-trip LFP system delivers ~8% more useful energy per PV kWh than an 85% lead-acid system — which directly shrinks the PV array required for the same aeration hours.
Key inputs to get right
Solar ROI and battery sizing outputs are only as good as four core inputs. Small changes here move CAPEX, payback and diesel offset by 20–40%.
Hour-by-hour demand of aerators, pumps, RAS loops, chillers, lighting and hatchery equipment. Peak vs. average and day/night split decide PV size, inverter rating and how much battery you actually need.
How long critical loads (aeration, oxygenation, biofilter circulation) must run with no sun and no grid. Typical: 4–8h for grid-tied hybrid, 12–24h for remote off-grid. Every extra hour multiplies battery CAPEX.
LFP (LiFePO₄) for most aquaculture sites — 6,000+ cycles, safer thermal profile, 80–90% usable depth of discharge. NMC only where energy density matters. Lead-acid rarely justified except for very short backup windows.
Grid tariff (USD/kWh), diesel price (USD/L), genset efficiency (kWh/L), any time-of-use or demand charges, and expected annual escalation. These drive the avoided-cost side of the ROI model and separate a 4-year payback from a 9-year one.
From load profile to a bankable battery spec — in 5 steps
Use this walkthrough to translate your 24-hour load curve into a defensible chemistry, usable-kWh and autonomy spec you can drop straight into an RFQ. All five steps map to inputs in the embedded Solar ROI + Payback and Battery Storage calculators above.
- 1Isolate the critical load, not the total load
Split your 24 h kW curve into critical (aeration, oxygenation, biofilter circulation, incubators, alarms) and comfort (lighting, office, non-essential pumps). Battery sizing works off the critical curve only — usually 60–75% of peak farm load. Comfort loads get shed automatically when the battery falls below the reserve threshold.
- 2Choose autonomy hours from the biology, not a round number
Grid-tied hybrid with genset backup: 4–8 h. Off-grid or unreliable grid: 12–24 h. Hatcheries and broodstock: 16–48 h. Anchor the number to two hard limits — the biofilter's safe no-flow window (nitrification integrity, typically 30–60 min) and the dissolved-oxygen ride-through of your densest pond or tank. Every extra hour multiplies battery CAPEX almost linearly.
- 3Pick chemistry — default to LFP
LFP (LiFePO₄) is the default for aquaculture: 6,000–10,000 cycles, 90–95% usable depth-of-discharge, safe thermal profile near live animals, and 30–50% lower 10-year TCO than lead-acid despite higher CAPEX. NMC only where energy density matters (rare on a fixed site). Lead-acid is only defensible for very small (<50 kWh) UPS blocks on SCADA and alarms.
- 4Convert to usable kWh with the sizing formula
Usable kWh = Critical kW × Autonomy hours ÷ Depth-of-Discharge ÷ Round-trip efficiency. For LFP use DoD = 0.90 and round-trip = 0.92. Example: 120 kW critical × 10 h ÷ 0.90 ÷ 0.92 ≈ 1,450 kWh usable. Nameplate kWh is that number ÷ DoD again if the vendor quotes gross capacity — always confirm which one the datasheet lists.
- 5Stress-test against Pessimistic / Base / Optimistic
Rerun the Solar ROI + Payback calculator with lower irradiance (−15%), higher CAPEX (+15%) and lower fuel/tariff (−20%). The Pessimistic case must still deliver DSCR ≥ 1.30 for senior debt and keep autonomy above the biological minimum. If it doesn't, either shrink comfort loads, add PV, or reduce autonomy hours — not the critical-load battery.
Project stages
- 1. Feasibility & site assessmentIrradiance analysis, water quality, tidal / salinity data, permits, indicative CAPEX/OPEX. 4–8 weeks.
- 2. Concept & basic designPond layout, aeration & water balance, PV + battery sizing, budget class 3. 6–10 weeks.
- 3. Neutral RFQProject-matched vendors for ponds/civil, aeration, water treatment, PV + battery hybrid, genset, controls. 8–12 weeks.
- 4. Detailed engineeringP&IDs, pond civil drawings, PV single-line, control philosophy. 8–12 weeks.
- 5. Construction & installationPond excavation, liner, aeration, PV array, battery room, genset, SCADA. 6–10 months.
- 6. Commissioning & biological start-upWater fill, water conditioning, first PL stocking. 2–4 months.
- 7. Full production100 t/year reached over first 2 cycles (12–18 months).
Main CAPEX drivers
Indicative share of total installed cost. Actual split varies by region, redundancy, automation and civil scope.
| Pond civil works & liners | 22–30% |
| Solar PV plant (modules + inverters + BOS) | 18–26% |
| LFP battery storage + BMS | 10–16% |
| Aeration & water treatment equipment | 12–18% |
| Diesel genset + switchgear + ATS | 4–8% |
| Monitoring, SCADA & sensors | 3–6% |
| Engineering, permits & project management | 6–10% |
| Contingency (recommended) | 10–15% |
Bankability questions
- Is the site's annual solar irradiance (kWh/m²/year) verified with satellite + on-site data?
- Is the water source characterized (salinity, temperature, seasonality) and permitted for withdrawal and discharge?
- Is aeration load modeled hour-by-hour to correctly size PV, battery and diesel backup?
- Is SPF post-larvae supply secured with at least two qualified hatcheries?
- Is a qualified farm operator identified with prior semi-intensive shrimp experience?
- Is CAPEX supported by class-3 estimates from at least two independent RFQ respondents?
- Is 10-year fuel savings from PV + battery modeled at pessimistic, base and optimistic scenarios?
- Is the financing structure matched to project ramp-up cash flow (senior debt + green / blue-economy tranche)?
Key project risks
- Aeration under-sizing = mass mortality. Never cut PV/battery scope below full critical load.
- PL quality variability materially affects survival — dual-source and screen.
- Diesel price volatility is a positive lever here (PV hedges it), but insurance and O&M discipline matter.
- Pond biosecurity discipline is the difference between profit and loss.
Common questions
Get the bankability brief — 100-Ton Solar-Hybrid Shrimp Farm
6-page investor-grade brief: CAPEX bands, OPEX assumptions, revenue model, sensitivity, risk register and a country permit map — tailored to this archetype. Free, sent to your inbox and printable to PDF.
Turn this 100-Ton Solar-Hybrid Shrimp Farm archetype into a real RFQ
FishMatch Group prepares a neutral, confidential brief based on the assumptions, system stack and cost drivers on this page — then our team contacts suitable international suppliers or EPC partners on your behalf and presents their responses to you, organised, through FishMatch. There is no direct buyer-to-supplier messaging. Buyers never pay.
Answer a short guided form — species, capacity, site, timeline, budget range. Takes ~3 minutes. Handled confidentially.
Our team screens project-matched providers globally and prepares a comparable, budget-grade RFQ package for each.
You receive shortlisted proposals with technical, commercial and financing terms — ready for board or lender review.
Confidential · Supplier-neutral · No buyer fees · Response within 1 business day
Short answer
What is the fastest way to get quotes for Solar Shrimp Farm 100t?
Submit one structured request for Solar Shrimp Farm 100t. 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 it works:
- One structured request, human-reviewed before any supplier outreach
- Typical turnaround:
- Depends on scope and site data; no turnaround is guaranteed
- Confidentiality:
- Supplier names are never exposed during evaluation
- Cost to buyers:
- No fee charged to the buyer