Why we put our infrared lamps through hell before they reach you
Look, you can’t just toss a standard infrared lamp into a steamy bathroom or a chicken coop and hope for the best. It just won’t work. Moisture is basically poison for electrical heating elements. That’s why we put every single batch of our lamps through some pretty brutal damp-heat aging tests. We’d much rather a lamp burn out in our lab than have it die the second it hits a humid environment at your place. The problem with steam Here is how it happens: in a wet environment, water vapor finds the tiniest way inside the lamp’s seals. Once it’s in, it starts eating away at the tungsten filament and rusting the contact pins. It doesn’t take much. A little moisture hits the internal circuitry, and suddenly you’ve got leakage currents or a total short circuit. To stop this, we cycle our lamps through wild swings of temperature and humidity. If a seal is weak, it fails here. Not on your watch. It’s all in the seal We use high-purity quartz glass and some very specific sealing compounds to keep the dampness out. The real battle happens where the lead wires meet the glass. Metal and glass don’t expand at the same rate when they get hot. If that bond isn’t perfect, the seal cracks. We’re talking about a crack so small you can’t even see it, but that’s all the steam needs to get inside and kill the lamp. A quick heads-up on heat There is a trade-off here. To make a lamp truly waterproof, the housing has to be more enclosed. The downside? That traps more heat around the base. You’ll want to make sure your fixture has enough airflow so you don’t accidentally melt the socket. We’ve handled the moisture side of things with the seal, but the heat dissipation is something you’ll need to manage based on how you’re installing them. We’ll give you all the data you need; you just wire it up to fit your space.