CP30H, arcTEC Series, Thermoelectric, Peltier Modules

Results:
6
Manufacturer
Series
Resistance
Voltage - Max
Qmax @ Th
Size / Dimension
Height
Operating Temperature
Delta Tmax @ Th
Features
Current - Max
Number of Stages
Results remaining6
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CP30H, arcTEC
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ImageProduct DetailPriceAvailabilityECAD ModelOperating TemperatureResistanceHeightSeriesSize / DimensionQmax @ ThDelta Tmax @ ThNumber of StagesCurrent - MaxVoltage - MaxFeatures
CP30444
PELTIER, 40 X 40 X 4.4, 3 A, WIR
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Quantity
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PCB Symbol, Footprint & 3D Model
-
4.8 Ohms
4.40mm
CP30H, arcTEC
Square - 40.00mm L x 40.00mm W
34.0W @ 27°C
70°C @ 27°C
1
3 A
19.5 V
Lead Wires, Sealed - Silicone RTV
CP30238H
PELTIER, 20 X 20 X 3.8 MM, 3 A,
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Quantity
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PCB Symbol, Footprint & 3D Model
80°C
2.2 Ohms
3.80mm
CP30H, arcTEC
Square - 20.00mm L x 20.00mm W
16.6W @ 27°C
70°C @ 27°C
1
3 A
8.8 V
Lead Wires, Sealed - Silicone RTV
CP303385H
PELTIER, 30 X 30 X 3.85 MM, 3 A,
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Quantity
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PCB Symbol, Footprint & 3D Model
80°C
4 Ohms
3.85mm
CP30H, arcTEC
Square - 30.00mm L x 30.00mm W
29.8W @ 27°C
70°C @ 27°C
1
3 A
15.7 V
Lead Wires, Sealed - Silicone RTV
CP30138H
PELTIER, 15 X 15 X 3.8 MM, 3 A,
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Quantity
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PCB Symbol, Footprint & 3D Model
80°C
1 Ohms
3.80mm
CP30H, arcTEC
Square - 15.00mm L x 15.00mm W
7.3W @ 27°C
70°C @ 27°C
1
3 A
3.8 V
Lead Wires, Sealed - Silicone RTV
CP30239H
PELTIER, 20 X 20 X 3.9 MM, 3.0 A
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Quantity
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PCB Symbol, Footprint & 3D Model
80°C
1.5 Ohms
3.90mm
CP30H, arcTEC
Square - 20.00mm L x 20.00mm W
10.3W @ 27°C
70°C @ 27°C
1
3 A
6 V
Lead Wires, Sealed - Silicone RTV
CP30301538H
PELTIER, 30 X 15 X 3.8 MM, 3.0 A
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Quantity
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PCB Symbol, Footprint & 3D Model
80°C
1.95 Ohms
3.80mm
CP30H, arcTEC
Rectangular - 30.00mm L x 15.00mm W
14.7W @ 27°C
70°C @ 27°C
1
3 A
7.6 V
Lead Wires, Sealed - Silicone RTV

Thermoelectric, Peltier Modules

Thermoelectric modules, also known as Peltier modules, are specialized devices that utilize the Peltier effect to facilitate thermal transfer. These modules consist of two ceramic substrates with a junction in between. When an electric current is passed through the junction, heat is generated on one side while being absorbed on the other side. To effectively manage the heat generated, it is recommended to use a heatsink on the hot side of the module. The heatsink helps dissipate the excess heat and maintain optimal operating temperatures. The characteristics of thermoelectric modules include: Qmax @ Th: This refers to the maximum amount of heat that can be transferred by the module when the temperature at the hot side (Th) is maintained within specified limits. Delta Tmax @ Th: It represents the maximum temperature difference that can be achieved between the hot side and the cold side of the module when the temperature at the hot side (Th) is maintained within specified limits. Current max: This indicates the maximum current that the module can handle without experiencing any adverse effects or performance degradation. Voltage max: It denotes the maximum voltage that can be applied to the module without causing any damage or compromising its functionality. Resistance: This parameter relates to the electrical resistance exhibited by the module, which affects the efficiency and performance of the device. Operating temperature: It specifies the temperature range within which the module can function reliably and maintain its desired performance characteristics. By considering these characteristics, engineers and designers can select the appropriate thermoelectric modules for their specific thermal management requirements. These modules find applications in various industries, including electronics, telecommunications, automotive, aerospace, and medical, where precise temperature control and thermal regulation are crucial.