🍯 Energy-Efficient Honey House

About this simulation

Extraction rooms and packing facilities run heaters, uncapping tanks, decrystallising cabinets and lighting for long hours during harvest season. This cutaway model of a honey house shows four upgrades apiary businesses actually install: wall insulation, LED lighting, waste-heat recovery ducting, and rooftop solar — and how each one changes the building's energy balance in real time.

How it works

• Wall insulation — thin glowing particles drifting outward through the walls and roof represent escaping heat. Raising insulation shrinks and slows that leak.
• Lighting — switching from incandescent to LED drops the ceiling bulbs' power draw roughly sixfold while keeping the same brightness.
• Heat recovery — when on, warm exhaust air from the extraction tank is ducted straight into the wax/decrystallising cabinet (bright particles flow along the pipe). When off, that same heat simply vents out through the roof and is wasted.
• Solar panels — the rooftop array's coverage offsets a share of the facility's total electrical draw, shown as a percentage in the stats panel.
• Outdoor temperature — a colder outside temperature widens the indoor/outdoor gap and increases how much heat is driven out through the walls.

Controls

• Wall insulation — effective R-value as a percentage of the maximum modelled insulation.
• Lighting — swap the ceiling fixtures between incandescent and LED.
• ♻ Heat recovery — toggle the duct that reclaims extractor waste heat.
• Solar panel coverage — fraction of the roof fitted with panels.
• Outdoor temp — seasonal outside temperature driving the indoor heat-loss gradient.

Did you know?

Heat-recovery ducting from an extraction room's warm, humid exhaust can pre-warm the decrystallising cabinet enough to cut its dedicated heater runtime substantially — turning a byproduct of spinning honey into free process heat.