The CP08-127-06-MM-EP W4.5 is a high-performance and highly reliable standard Thermoelectric Cooler. Assembled with Bismuth Telluride semiconductor material and thermally conductive Aluminum Oxide ceramics. It has a maximum Qc of 17.5 Watts when ΔT = 0 and a maximum ΔT of 70.5 °C at Qc = 0.
The CP08-127-06-L1-EP-W4.5 is a high-performance and highly reliable standard Thermoelectric Cooler. Assembled with Bismuth Telluride semiconductor material and thermally conductive Aluminum Oxide ceramics. It has a maximum Qc of 17.5 Watts when ΔT = 0 and a maximum ΔT of 70.5 °C at Qc = 0
The SH14-125-045-L1-EP-W4.5 is an annular-style thermoelectric cooler. The hot and cold side ceramics have a circular hole in the center to accommodate light protrusion for optics, mechanical fastening or temperature probe. It has a maximum Qc of 70.3 Watts when ΔT = 0 and a maximum ΔT of 70.5 °C at Qc = 0.
The SH14-125-045-L1-RT-W4.5 is an annular-style thermoelectric cooler. The hot and cold side ceramics have a circular hole in the center to accommodate light protrusion for optics, mechanical fastening or temperature probe. It has a maximum Qc of 70.3 Watts when ΔT = 0 and a maximum ΔT of 70.5 °C at Qc = 0.
The SH14-125-06-L-RT-W4.5 is an annular-style thermoelectric cooler. The hot and cold side ceramics have a circular hole in the center to accommodate light protrusion for optics, mechanical fastening or temperature probe. It has a maximum Qc of 48.5 Watts when ΔT = 0 and a maximum ΔT of 70.5 °C at Qc = 0.
The SH10-95-06-L-RT-W12 is an annular-style thermoelectric cooler. The hot and cold side ceramics have a circular hole in the center to accommodate light protrusion for optics, mechanical fastening or temperature probe. It has a maximum Qc of 19.1 Watts when ΔT = 0 and a maximum ΔT of 70.5 °C at Qc = 0.
The SH10-95-06-L-EP-W4.5 is an annular-style thermoelectric cooler. The hot and cold side ceramics have a circular hole in the center to accommodate light protrusion for optics, mechanical fastening or temperature probe. It has a maximum Qc of 19.1 Watts when ΔT = 0 and a maximum ΔT of 70.5 °C at Qc = 0.
Thermoelectric coolers are typically used to achieve the rapid temperature changes. The advantages of thermoelectric coolers over other types of thermal cycling devices are precise temperature control, compactness, faster temperature ramp rates and efficiency.
Tier 1 OEM’s in the telecom infrastructure market are designing the next standard for 5G telecommunications. Faster data communications will present thermal challenges for critical components such as optical transceivers.
Accurate and precise temperature control is important for cell growth in sample storage compartments. Using compact thermoelectric cooler assemblies instead of compressor-based thermal management solutions provide a more efficient and cost-effective option. In addition, new government restrictions of traditional and natural refrigerants central to compressor-based systems make thermoelectrics a more advantageous solution for temperature stabilization in incubators.