🌡️ Chill or Heat at Your Command!
The TEC1-12710 is a high-performance thermoelectric cooler designed for versatile applications, featuring a compact 40mm x 40mm size and a powerful 92W output. With no moving parts, it ensures durability and reliability, making it ideal for both cooling and heating needs.
Manufacturer | DORHEA |
Part number | DA11907-1 |
Item Weight | 30 g |
Package Dimensions | 5 x 2 x 0.3 cm; 30 g |
Manufacturer reference | DA11907-1 |
Batteries Required? | No |
O**L
Efficient Cooling for Semiconductor Applications
The TEC1-12710 Heatsink has proven to be a reliable and efficient cooling solution for semiconductor applications. With a 12V power supply and a 92W capacity, this Thermoelectric Cooler provides effective cooling for various projects. The 40mmX40mm size and compact design make it suitable for integration into small-scale electronic setups. The Peltier Plate Module operates seamlessly, offering consistent and precise temperature control for semiconductor devices. The heatsink effectively dissipates heat generated during operation, maintaining optimal conditions for semiconductor components. While the unit performs admirably, it's essential to note that proper thermal management considerations are crucial for maximizing its efficiency. In summary, the TEC1-12710 Heatsink is a valuable component for those engaged in semiconductor thermoelectric applications, offering reliable cooling performance in a compact form factor.
M**D
Cool (and hot) gadget for science demonstration
If you want to play around with Peltier coolers or experiment with Peltier or Seebeck effects, this is cheap enough. I clamped it between two CPU heatsinks, with a fan on the hot side (the side without the writing on it). As you can see in the photos, even without heatsink compound the effect is noticeable. The power draw was quite a bit less than expected, presumably this is because the plate itself was getting quite hot. At some point I'll pull them apart, put heatsink compound on and have another go.As a CPU cooler it's not the most efficient way to go about things as it's going to be drawing almost 100 watts by itself, so that's another 100 watts that needs to be shifted on top of the heat from the CPU, but if you absolutely have to drive that core temperature down more than can be done with a heatsink alone, well, it's an option.Definitely a cool little science experiment and something that could attract interest if showed off in a school Physics class.
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