TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module
TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module
TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module
TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module
TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module
TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module
TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module
TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module

TH110-Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module

This product is used in conjunction with a basic heat transfer experimental bench to study convective heat transfer in heat exchangers with different surface structures, as covered in Heat Transfer courses.

 

Based on classical models of extended surfaces such as flat plates, pin fins, and fins, the module enables experimental analysis and calculation of heat transfer performance under both natural convection and forced convection conditions.

 

The system features a transparent airflow channel with adjustable wind speed, equipped with a centrifugal fan, airflow velocity sensor, thermocouples, and interchangeable test specimens (flat plate, fins, and pin fins). Experimental data is collected and recorded through the basic heat transfer experimental platform. The specimens are also expandable for further studies.

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Experimental Functions

1.Study the variation of surface temperature with heating power for flat plates, pin fins, and finned surfaces under natural convection conditions.

2.Study the variation of surface temperature with heating power for flat plates, pin fins, and finned surfaces under forced convection conditions.

3.Understand the basic principles for measuring heat transfer coefficients in natural and forced convection.

4.Compare and analyze the heat dissipation performance of pin fins in inline and staggered arrangements.

5.Investigate the effect of extended surface area on heat transfer performance.

6.Measure the temperature distribution over extended surfaces.

Product Attributes

Product Model

TH110

Product Name

Flat Plate, Pin Fin, and Finned Surface Convective Heat Transfer Experimental Module

Main Materials

6061 Aluminum Alloy, 304 Stainless Steel

Dimensions

400 × 300 × 970 mm

Product Weight

20 kg

Operating Environment

Room temperature,

Relative humidity ≤ 85%

Input Power Supply

None

Required Modules

Flat plate, pin fins (inline and staggered arrangements),

finned specimens

Optional Modules

None

Case Studies

Integrated Thermal Fluids and Energy Laboratory at Zhejiang University of Technology

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