Estimate annual yield from a vertical farm based on growing layers, area per layer, crop cycles per year, and yield per cycle. Plan indoor farm productivity.
Vertical farming multiplies usable growing area by stacking multiple layers of plants within a controlled environment. Annual output depends on four factors: number of layers, growing area per layer, crop cycles per year, and yield per cycle.
This calculator chains these factors to estimate total annual production. A facility with 8 layers, each 1,000 sq ft, running 12 cycles of lettuce per year at 4 lbs per sq ft per cycle would produce 384,000 lbs annually — from a building footprint of only 1,000 sq ft.
Use this tool for feasibility analysis, business planning, and production capacity estimation for any vertical or indoor farming operation. Whether you are a beginner or experienced professional, this free online tool provides instant, reliable results without manual computation. By automating the calculation, you save time and reduce the risk of costly errors in your planning and decision-making process. This tool handles all the complex arithmetic so you can focus on interpreting results and making informed decisions based on accurate data.
Investors and operators need clear production estimates to evaluate vertical farm economics. This calculator translates facility design parameters into concrete output numbers, which then drive revenue projections and cost-benefit analysis. Having a precise figure at your fingertips empowers better planning and more confident decisions. Manual calculations are error-prone and time-consuming; this tool delivers verified results in seconds so you can focus on strategy.
Annual Yield = Layers × Area/Layer × Cycles/Year × Yield/Cycle
Result: 384,000 lbs per year
8 layers × 1,000 sq ft × 12 cycles × 4 lbs/sq ft/cycle = 384,000 lbs annual production. At $2/lb for leafy greens, that's $768,000 gross revenue potential.
Capital costs range from $50-$200+ per square foot of growing area (all layers combined). Operating costs are dominated by energy (lighting + HVAC), labor, and consumables (seeds, nutrients, packaging). Profitable operations achieve $40-$100+ in annual revenue per square foot of growing area.
Larger facilities benefit from economies of scale in purchasing, automation, and energy efficiency. However, they require larger markets and higher capital investment. Start with a pilot scale (1,000-5,000 sq ft) to validate yields and customer demand before scaling.
Modern vertical farms use automated seeding, transplanting, and harvesting equipment to reduce labor costs. Environmental controls maintain precise temperature, humidity, CO2, and lighting schedules. Data analytics optimize crop scheduling and predict yield variability.
Typical facilities run 4-16 layers depending on ceiling height and crop height. Low-profile crops like lettuce allow more layers (10-16). Taller crops like tomatoes may only allow 2-4 layers. Standard layer spacing is 12-24 inches.
Head lettuce: 4-5 weeks from transplant to harvest. Baby leaf lettuce: 2-3 weeks. With 2-3 days for turnover, a facility can achieve 10-15 cycles per year depending on variety and growing conditions.
Lettuce: 3-6 lbs/sq ft/cycle. Microgreens: 0.5-1.5 lbs/sq ft/cycle (but very high value). Herbs: 0.5-2 lbs/sq ft/cycle. Strawberries: 1-3 lbs/sq ft/cycle. These are per-cycle yields; multiply by cycles for annual.
Profitability depends on crop choice, local pricing, energy costs, and operational efficiency. Leafy greens and herbs in high-cost markets (where conventional production is far away) offer the best economics. Capital costs are high ($50-$200+/sq ft of growing area).
Lighting is the dominant cost — typically 30-50 kWh per square foot of growing area per year. HVAC adds 10-20% on top. Energy cost is often 30-50% of total operating expense. High-efficiency LED fixtures are essential for economic viability.
Short-cycle, high-value, perishable crops: lettuce, herbs, microgreens, baby greens, and edible flowers. Strawberries are gaining traction. Staple crops like corn or wheat are not economically viable indoors due to low value-to-input ratios.