Vacuum Insulation Knowledge Hub
Reference articles written by our engineering team — definitions, comparison data and selection guides you can cite in specifications. No marketing fluff; every number comes from production or published test data.
Battery Thermal Management with VIPs: Pack Insulation vs. Thermal-Runaway Barriers
How ultra-thin and metal-envelope VIPs solve two different battery problems — cold-soak heat retention and thermal-runaway propagation delay — with test data and validation checks.
50 mm VIP vs. 150 mm Rock Wool: The Industrial Energy-Saving Math
A worked heat-loss model for hot process equipment: ~85% less heat loss, ≈ $536,000/year saved on a 10,000 m² surface, typical payback 2–3 years.
Tempered Vacuum Insulating Glass: How Fully Tempered VIG Works
Why early VIG could not be tempered, how low-temperature edge sealing changed that, and what safety-glass VIG unlocks in doors, facades and freezers.
Fumed Silica vs. Fiberglass VIP Cores: Which One Should You Specify?
Initial λ, pressure tolerance, aging and cost of the two dominant VIP core materials — and which one fits appliances, cold chain and construction.
Insulation Thickness, Explained: Same R-Value at 1/10 the Thickness
The d = R × λ math behind the 90% thickness reduction — with the space payback for pipes, cold rooms, retrofits and appliances.
What Is a Vacuum Insulation Panel (VIP)?
Definition, structure, physics and limits of VIPs — the reference explainer, with typical performance data from production.
VIP vs. Traditional Insulation: The Numbers
Thermal conductivity and R-value of VIP, PU, XPS, EPS and mineral wool compared — and when each material actually wins.
Vacuum Insulating Glass vs. Triple Glazing
U-value, thickness, weight and acoustics side by side: why 8.3 mm of VIG matches 40 mm of triple glazing.
How to Choose a Cold Chain Shipping Box
EPS vs. PU vs. VIP shippers: holding time, PCM sizing and total cost per delivered unit — a practical selection guide.