# Aquaculture Operations Model Project aquaculture revenues and costs with realistic stocking, feed conversion, mortality, and harvest cycles tied to species-specific biology, biomass licence constraints, and market price volatility. - Canonical: https://finamodel.com/templates/aquaculture-operations-model - Excel download: https://finamodel.com/templates/aquaculture.xlsx - Category: Agriculture - Model type: Operating model - Difficulty: Intermediate - Audiences: Developers & sponsors, CFOs & FP&A, Aquaculture operators, Agribusiness investors, Commodity traders, Sustainability funds - Tags: aquaculture, agriculture, commodity, operations, sustainability ## Overview An aquaculture financial model projects salmon farm profitability by tracking stocking density, feed conversion ratio (FCR), mortality, harvest cycles, and fish prices to determine revenue per kilogram, working capital requirements driven by the long grow-out cycle, and break-even price sensitivity. The model answers whether an Atlantic salmon farm can achieve efficient cost per kilogram (EBIT/kg target $1.00–$2.00) given biological constraints and commodity price volatility, and what borrowing capacity the farm can support against its biomass. The production schedule tracks smolt intake (1M smolts, 150g average), growth to harvest weight (4.5kg), cumulative mortality (15%), and economic FCR (1.25), producing annual harvest volume in tonnes. Revenue is driven by harvest price (premium fish $7.50/kg, downgraded 40% discount), with 10% downgrade rate and annual price growth of 2%. Feed cost (the single largest input) is modelled as cost per kilogram consumed and escalates at 3% annually, reflecting inflation and potential supply tightness. Working capital is substantial: accounts receivable (20 DSO), accounts payable (45 DPO), and a biological asset inventory (standing biomass valued at cost of production) that ties to the maximum allowed biomass (MAB) license constraint. Lenders, seafood processors, and strategic investors use aquaculture models to confirm that unit economics ($/kg and EBIT/kg) support debt service, verify that the farm stays within licensed biomass limits, and stress revenue around fish price (which trades like a commodity), feed cost inflation, and disease scenarios that impact mortality and FCR. ## What's included - Stocking density and biomass tracking by species and site - Feed conversion ratio (FCR) and feed cost inflation by source - Mortality assumptions and health management costs - Harvest timing and yield per production cycle - Revenue by species and channel (commodity, premium, processed) - Stocking density and biomass tracking by species and farm site - Revenue by species and market channel (commodity, premium, processed) - Labor, equipment maintenance, and regulatory compliance costs ## Aquaculture Financial Model: How a Salmon Farming Template Projects Biology, Cash and Debt This aquaculture financial model template sets out how an Atlantic salmon grow-out operation can be projected over five years in USD. It links smolt stocking, mortality and feed conversion to harvest volumes, revenue, operating costs, capital spending, working capital and debt, so a reader can see how biological assumptions translate into earnings and cash flow before forming a view on investment, lending or acquisition. ### Biological and Operational Drivers The template's starting point is a set of biological assumptions that govern what the farm can produce. Each year begins with a smolt stocking count, an intake weight and a target harvest weight. - Cumulative mortality reduces the number that reach harvest, while the economic feed conversion ratio determines how much feed is needed for each kilogram of growth. A Maximum Allowed Biomass cap limits standing biomass, growing with cumulative growth capex, so expansion is constrained by licence rather than by space alone. - A mortality stress switch allows one year to carry an elevated mortality rate, illustrating how a disease or algal event could disrupt the cycle. These drivers are the operating levers a user would change first when evaluating a production plan. ### Calculation Flow from Stocking to Harvest Harvest volume is calculated from smolts stocked, adjusted for mortality, multiplied by harvest weight. Net growth in tonnes takes account of harvest, mortality and the change in standing biomass, so feed consumption captures growth held in inventory rather than only fish removed. - Feed consumed is then net growth multiplied by the economic feed conversion ratio. Revenue combines a premium price for the majority of fish with a discounted price for downgraded fish, and both prices grow annually. - Feed, smolt, processing and related costs sit beneath revenue, with health and site overhead applied as percentages of direct cost and general and administrative expenses growing on their own base. The calculation flow therefore connects a biological plan directly to a profit-and-loss outcome. ### Outputs and Financial Statements The model produces a full set of primary statements. The income statement runs from revenue to net income and reports EBIT per kilogram, a useful measure of operating profitability per unit of production. - Capital expenditure and depreciation feed into the income statement and balance sheet, while working capital covers receivables, payables and biological inventory valued at cost of production. Debt includes a term loan and a biomass-backed revolver, with interest and commitment fees calculated from opening balances. - Cash flow is split into operating, investing and financing activities, and closes to the balance sheet, which has a validation check. Additional checks cover the biomass cap, feed conversion range, EBIT per kilogram, cash floor, borrowing base and debt service cover. ### Practical Use and Scenario Testing The template is annual and spans five years, making it a planning and scenario tool rather than a monthly cohort tracker. A user can adjust stocking numbers, mortality, feed conversion, prices and costs to see how harvest revenue, EBIT per kilogram and cash generation respond. - The revolver is drawn only to bring closing cash up to a minimum buffer and is capped by the borrowing base advance rate against biomass value, which shows how working capital and biological assets interact with liquidity. A stress year can be set to model a one-off mortality event and observe the effect on margins, debt and cash. - The model therefore supports a structured view of biological risk, funding needs and returns. ## Built for biological production cycles Use this model when grow-out timing, biomass limits, and FCR drive the working capital and revenue profile. ## Separates feed and fish economics A useful aquaculture model tracks FCR and feed ingredient costs separately, so you can see how fish oil or soy price swings affect EBIT per kilogram. ## Multi-species flexibility This segments by species (salmon, tilapia, shrimp) with different cycle times, stocking densities, and harvest prices. ## Built for biological production cycles Use this model when grow-out timing, biomass limits, and FCR drive the working capital and revenue profile. ## Separates feed and fish economics A useful aquaculture model tracks FCR and feed ingredient costs separately, so you can see how fish oil or soy price swings affect EBIT per kilogram. ## Multi-species flexibility This segments by species (salmon, tilapia, shrimp) with different cycle times, stocking densities, and harvest prices. ## Features - **Biological cycle accuracy:** Model growth stages and cycle timing specific to salmon, tilapia, or shrimp so capex and revenue recognize the actual production calendar. - **Feed cost sensitivity:** Track FCR and feed ingredient costs separately; see how fish oil or soy prices affect margins. - **Multi-species flexibility:** Segment by species with different cycle times, stocking densities, and price points. ## Use cases - **Farm expansion and site valuation:** Evaluate whether new site development or production expansion will yield acceptable returns given commodity prices. - **Commodity hedging strategy:** Forecast fish volumes and costs to set hedging ratios for feed, fuel, and output. - **Sustainability and certifications:** Model the cost and revenue impact of moving to higher-welfare or organic production standards. ## Frequently asked questions ### What is an aquaculture financial model? It is a model that projects fish farm profitability through stocking, feed, mortality, and harvest mechanics tied to species-specific biology. ### What is feed conversion ratio (FCR)? FCR is the weight of feed required to produce one unit of fish; lower FCR means more efficient growth and better margins. ### How long is a typical production cycle? Salmon and rainbow trout take 14–18 months, tilapia 6–9 months, and shrimp 4–6 months. The model is customisable by species. ### Should I model disease and mortality risk? Yes. Mortality should reflect historical rates for the species and region, and include treatment and vaccination costs. ### Does it handle the biomass licence constraint? Yes. Standing biomass is tracked against the maximum allowed biomass (MAB) licence so harvest timing reflects the regulatory ceiling. ## Related templates - [Farm Operations Model](https://finamodel.com/templates/farm-model) - [Livestock Operation Model](https://finamodel.com/templates/livestock-model) - [Food Manufacturing Model](https://finamodel.com/templates/food-manufacturing-model)