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Calcular fish/shrimp stocking density, total seed requirement, andaily feed amount for pond and cage aquaculture.
Calcular fish and shrimp stocking density, total seed requirement, expected yield, total feed, andaily feed amount for pond and cage aquaculture. Input culture system, water surface, depth, species, target yield, harvest size, and FCR. Plan your stocking and feed budget accurately.
You stocked 10,000 tilapia fingerlings in a 0.5-hectare pond (20,000/ha) because a neighbor said "more fish = more profit." By month 3, dissolved oxygen dropped to 2 mg/L at dawn, 30% ofish died, and survivors were stunted at 150g instead of 500g. You harvested 525 kg instead of thexpected 5,000 kg. Semi-intensive tilapia should be stocked at 2-5 fish/m² (20,000-50,000/ha) — buthat requires aeration, complete feed, and water exchange. Withouthose inputs, 5,000-10,000/ha is the maximum. Stocking density must match your management level, not your ambition.
✓ Revisado por Expertos: Esta calculadora y su contenido han sido revisados por expertos agrícolas. Las fórmulas se basan en recomendaciones estándar de servicios de extensión. Para asesoramiento específico, consulta a tu agrónomo local.
Introduce los valores requeridos en los campos del formulario. Cada campo incluye valores predeterminados ajustables. Haz clic en Calcular para ver resultados instantáneos. Usa el interruptor Métrico/Imperial para cambiar de sistema. Los resultados se muestran en el panel y pueden usarse para planificación agrícola.
La Aquaculture Stocking ayuda a agricultores, agrónomos y estudiantes a realizar cálculos rápidos y precisos para la gestión de la finca. Utiliza fórmulas agrícolas estándar basadas en recomendaciones de extensión y literatura científica.
Aplicabilidad: Esta calculadora está diseñada para la ganadería de América Latina, con especial relevancia para México, Argentina, Colombia y Perú. Adaptable a sistemas mixtos.
Esta calculadora utiliza fórmulas agrícolas establecidas. La metodología sigue prácticas recomendadas por servicios de extensión e instituciones de investigación. Todas las fórmulas son transparentes y verificables. Considera factores de eficiencia y pérdidas cuando corresponde.
Un agricultor usa esta calculadora para planificar aquaculture stocking en su operación. Al introducir datos específicos, recibe cálculos instantáneos para tomar decisiones informadas. Los resultados permiten comparar escenarios, optimizar insumos y estimar resultados antes de comprometer recursos.
Errores comunes: usar unidades incorrectas, introducir datos estimados en lugar de medidos, ignorar condiciones locales, sobreinterpretar resultados. Para mejores resultados: usa entradas precisas, comprende los supuestos, verifica con experiencia, consulta expertos y usa análisis de escenarios.
Revisado por el Equipo Editorial de Agricalc — Ingenieros agrícolas y agrónomos con más de 10 años de experiencia en campo. Nuestro equipo verifica cada fórmula contra publicaciones de extensión revisadas por pares. Para asesoría específica, consulte a su agrónomo local.
Stocking density depends on species, system type, and aeration: static ponds with aeration — tilapia 3-5 fish/m³, catfish 1-2 fish/m³, trout 5-10 kg/m³; without aeration reduce by 50-70%; recirculating aquaculture systems (RAS) — 20-50 kg/m³ with excellent water quality management; cage culture — 10-30 kg/m³. Start conservative and increase as you gain experience. Overstocking causes: reduced growth, increased disease, poor water quality (low oxygen, high ammonia), higher mortality. Always base density on carrying capacity = water volume × max biomass density, and monitor water quality daily.
Calculate feed requirements: (1) Estimate biomass = number of fish × average weight, (2) Determine daily feed rate = biomass × feeding rate (1-5% body weight/day for growing fish, 0.5-1% for maintenance), (3) Account for feed conversion ratio (FCR: tilapia 1.5-2.0, catfish 1.8-2.5, trout 1.0-1.5), (4) Total feed for grow-out = total weight gain × FCR. For example: 1,000 tilapia at 50 g = 50 kg biomass, feeding at 3% = 1.5 kg/day. Feed represents 50-70% of aquaculture production costs. Use floating pellets for easy observation, feed at consistent times, and remove uneaten feed to maintain water quality.
Critical water quality parameters: dissolved oxygen (minimum 5 mg/L for most species, below 3 mg/L causes stress/death — aerate when <5), temperature (species-specific: tilapia 25-30°C, trout 10-18°C, catfish 25-30°C), pH (6.5-8.5 optimal, below 5.5 or above 9.0 causes stress), ammonia (total ammonia <1 mg/L, unionized ammonia <0.02 mg/L — toxic), nitrite (<0.5 mg/L), alkalinity (50-200 mg/L as CaCO3 for stability). Test daily during critical periods. Poor water quality is the #1 cause of fish kills in aquaculture. Invest in a good test kit and aeration backup system.
Disease prevention in Aquaculture Stocking: biosecurity (source disease-free fingerlings, disinfect equipment, limit visitor access, footbaths), water quality management (the best disease prevention — stress from poor water suppresses immune function), stocking density (avoid overcrowding), nutrition (balanced diet with vitamins/minerals supports immunity), regular health monitoring (observe behavior, appetite, external signs), quarantine new stock for 2-4 weeks, vaccination where available, and prompt treatment when disease appears. Common diseases: bacterial (columnaris, aeromonas), parasitic (ich, anchor worm), fungal (saprolegnia). Early intervention reduces mortality and treatment cost.
Aquaculture Stocking economic viability depends on: species choice (tilapia and catfish have established markets and proven technology), system type (ponds are lowest capital cost, RAS has highest production but highest capital/operating costs), scale (larger operations benefit from economies of scale — minimum 5,000-10,000 fish/year for profitability), market access (direct sales to restaurants/retail get $3-6/kg vs $1.5-2.5/kg wholesale), and production efficiency (FCR, survival rate, growth rate). Typical investment: pond system $10,000-50,000, RAS $50,000-500,000+. Payback period 3-7 years with good management. Start small, learn the biology, then scale.