Controlled Swine Housing Test Module
Provides an insulated environmental room (8.0 m × 12.0 m) with fully slatted flooring and variable stocking pens.
Quantify sensible heat production and determine minimum winter ventilation airflow in a confinement livestock housing facility across varying animal biomass loads. Explore interactive farm machinery simulation, irrigation hydraulics, and agricultural engineering telemetry.
Ready to sample with Biomass M_a = 6000 kg.
Adjust Biomass M_a, then execute agricultural trial.
Agricultural engineering telemetry and biosystems states are evaluated rigorously using 64-bit IEEE 754 precision. Residuals reflect ordinary least-squares regression across successive observations. Continuous data structures support high-fidelity agricultural and environmental modeling.
The linear sensible heat scaling applies within the thermoneutral zone (indoor temperature 20 °C to 24 °C). Evaluated in a controlled swine nursery room at standard thermoneutral indoor temperature (22.0 °C) with growing feeder pigs. Sensible heat output reflects steady-state thermal power generation after accounting for structural building envelope transmission losses.
Provides an insulated environmental room (8.0 m × 12.0 m) with fully slatted flooring and variable stocking pens.
Delivers calibrated continuous airflow rates from 200 to 3000 m³/h with airflow nozzle meter.
Measures intake, spatial room, and exhaust air dry-bulb temperatures with 0.1 °C precision.
Determines indoor and exhaust moisture humidity ratio to isolate sensible from latent heat flux.
Weighs individual and group animal batches to establish exact live biomass stocking totals.
Monitors conductive heat transmission through walls, ceiling, and foundation to close energy balance.
Quantify sensible heat production and determine minimum winter ventilation airflow in a confinement livestock housing facility across varying animal biomass loads. Standardized parameter settings: 2000, 4000, 6000, 8000, 10000, 12000 kg.
Weigh and group nursery feeder pigs into uniform pens to establish the initial test biomass level of 2000 kg.
Set exhaust ventilation to a constant continuous airflow rate verified via calibrated intake orifice plate.
Allow animals to acclimate for 4 hours until spatial room temperatures and floor temperatures achieve steady thermal balance.
Measure ventilation airflow rate, temperature rise (T_exhaust - T_inlet), and wall transmission losses over a 2-hour monitoring window.
Systematically increase pen stocking biomass to 4000, 6000, 8000, 10000, and 12000 kg, repeating thermal balance measurements.
Calculate sensible heat output Q_s = V_dot · ρ · C_p · (T_exhaust - T_inlet) + Q_structural and plot Q_s versus biomass M_a to determine q_a.
Points are your recorded observations. The solid regression line validates Livestock Heat Balance mathematical scaling.
| # | Total Animal Biomass M_a (kg) | Sensible Heat Output Q_s (kW) | Animal biomass M_a (kg) | Sensible heat output Q_s (kW) | Remove |
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