AD-A2610-01
Aidear
Perforated Fin/Serrated Fin/ Wavy Fin/Louvered Fin
Aluminium
18 months
Wind Energy, Solar Energy Industry, Smart Grid, Semiconductors, SVG, SVC, DC-DC Converter, Cabine
| Availability: | |
|---|---|
| Quantity: | |
Product Description
AIDEAR provides custom aluminum plate fin heat exchanger solutions for industrial equipment and thermal management systems. The compact layered design uses extended fin surfaces to facilitate heat transfer between separate fluid streams.
Our team works with customers to evaluate heat duty, operating temperatures, flow rates, pressure drop requirements, installation space, and connection specifications.
Compact Core Construction
Extended Heat Transfer Surface
Application-Specific Design
Aluminum construction and high surface-area density help reduce the space and weight required for heat transfer equipment, depending on the application and design.
Closely arranged fins increase the available heat transfer surface within a compact core, supporting efficient heat exchange.
Fin geometry and flow channel arrangements can be selected to balance thermal performance, pressure drop, and fluid distribution.
Core dimensions, fin arrangements, and connection requirements can be evaluated according to specific equipment and operating conditions.
Different industrial systems require different combinations of heat transfer capacity, pressure drop, mechanical strength, and installation dimensions.
Compact heat exchanger configurations can be designed for cooling compatible lubricating or hydraulic oils in industrial equipment.
Plate fin structures can support air-to-air or gas cooling applications where compact heat exchange equipment is required.
Custom heat exchanger cores may be incorporated into machinery and equipment cooling systems to help manage operating temperatures.
Suitable plate fin designs can recover useful heat between compatible process streams, subject to operating conditions and engineering evaluation.
Application requirements vary. Please share your working medium, operating temperatures, flow rates, and available installation space for technical review.
A typical brazed aluminum plate fin heat exchanger consists of alternating fluid passages formed by fins, parting sheets, and side bars.
Heat is transferred through the separating metal surfaces between adjacent fluid passages while the fluids remain physically separated under normal operating conditions.
Heat Transfer Fins: Increase surface area and influence fluid flow characteristics.
Parting Sheets: Separate adjacent fluid passages and provide heat transfer surfaces.
Side Bars: Seal the edges of individual flow passages.
Flow Channels: Guide fluids through the heat exchanger core.
Headers & Connections: Distribute and collect fluids entering and leaving the heat exchanger.
Fin geometry, flow direction, and passage arrangement influence the balance between heat transfer performance and pressure drop.
Parameter | Description |
|---|---|
Product Name | Aluminum Plate Fin Heat Exchanger |
Brand | AIDEAR |
Material | Aluminum; specific alloy subject to design |
Heat Transfer Capacity | Determined by project requirements |
Core Dimensions | Subject to drawing and design review |
Fin Geometry | Selected according to operating conditions |
Working Media | Subject to compatibility assessment |
Working Pressure | Model-specific; to be confirmed |
Operating Temperature | Model-specific; to be confirmed |
Flow Arrangement | Project-specific configuration |
Connection Type | Based on equipment requirements |
Testing Requirements | According to agreed specifications |
Important: Final specifications depend on product design, material selection, working conditions, and engineering verification.
Different fin geometries influence fluid flow, heat transfer performance, pressure drop, and manufacturing requirements.
Provide relatively straightforward flow passages and can be useful in designs where low flow resistance is a priority.
Use a curved flow path to influence fluid mixing and heat transfer. Pressure drop must also be evaluated.
Interrupt boundary-layer development and can enhance convective heat transfer, often with an associated increase in pressure drop.
Fin selection should take into account the working fluid, heat duty, flow rate, allowable pressure loss, and available core dimensions.
The most suitable fin configuration is the one that meets your system requirements—not simply the one with the highest heat transfer coefficient.
AIDEAR supports the evaluation of application-specific heat exchanger requirements to help customers identify suitable product configurations.
Core Length, Width & Height
Fin Geometry & Passage Arrangement
Heat Transfer Duty
Flow Rate & Temperature Requirements
Working Pressure & Allowable Pressure Drop
Connection Dimensions & Locations
Mounting & Installation Requirements
Customer Drawings & Samples
From initial inquiry to specification review, our team can communicate with customers about their thermal and mechanical requirements.
Share Your Drawing or Operating Data
The following sequence illustrates a typical production workflow for brazed aluminum plate fin heat exchangers.
Review heat duty, flow rates, temperature conditions, pressure requirements, and mechanical design parameters.
Prepare aluminum sheets, fin stock, side bars, and other components according to approved drawings.
Form the specified fin geometry for the required flow channels.
Clean and prepare core components according to the selected joining process.
Arrange parting sheets, fins, and side bars in the specified sequence to form the layered core.
Join the assembled core using a qualified brazing procedure suitable for the selected materials and design.
Install or join the required headers, nozzles, and other connection components.
Carry out applicable visual, dimensional, pressure, and leakage inspections according to the agreed inspection plan.
Verify the completed product against applicable requirements and prepare it for safe handling and shipment.
Heat exchanger performance and reliability depend on appropriate material selection, manufacturing control, joint integrity, and product inspection.
Check applicable material specifications and identification against approved requirements.
Check critical dimensions and connection locations against the approved drawing.
Conduct pressure tests, where specified, using an appropriate approved procedure.
Verify tightness against the applicable acceptance criteria and inspection requirements.
Review product condition, identification, appearance, and applicable documentation before shipment.
Inspection scope, methods, acceptance criteria, and reports should be agreed upon for each project.
Established in 2016 and based in Changzhou, Jiangsu Province, China, AIDEAR specializes in refrigeration equipment and heat transfer solutions.
Our product portfolio covers multiple types of industrial heat exchangers and refrigeration equipment.
We work with customers on product dimensions, materials, connection requirements, and other application-specific specifications.
Our manufacturing facility is equipped with machinery including laser cutting machines, CNC turret punching presses, and hydraulic plate bending machines.
Our QA/QC team supports product inspections and quality control activities.
We work to understand operating requirements and provide suitable product information for each project.
AIDEAR — Be Your Idea!
Yes. Core dimensions, fin geometry, fluid passages, and connection requirements can be reviewed according to the application. Final customization options depend on manufacturing feasibility and engineering assessment.
Typical applications may involve air, industrial gases, oils, or other compatible fluids. Fluid compatibility, corrosion risk, working pressure, and operating temperature must be evaluated before selection.
Fin selection depends on heat transfer requirements, fluid properties, flow rate, acceptable pressure drop, and core dimensions. Different fin geometries offer different thermal and hydraulic characteristics.
Please provide the working media, flow rates, inlet and target outlet temperatures, operating and design pressures, allowable pressure drop, available dimensions, and connection requirements. Drawings are helpful when available.
Customer drawings and samples can be submitted for technical and manufacturing feasibility review. Any proposed changes should be confirmed before production.
The applicable inspection plan, test conditions, acceptance criteria, and documentation requirements should be agreed upon during technical confirmation and order processing.
Whether you need a compact cooling core or an application-specific heat exchanger configuration, share your requirements with AIDEAR for technical review.
Working Media
Inlet & Required Outlet Temperatures
Fluid Flow Rates
Operating & Design Pressures
Maximum Allowable Pressure Drop
Installation Dimensions
Connection Requirements
Drawings or Reference Samples, if Available
Contact AIDEAR to Discuss Your Application
Changzhou Aidear Refrigeration Technology Co., Ltd.
AIDEAR — Be Your Idea!