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Heat Exchangers

Thermal exchange equipment for process integration and temperature management.

Typical Heat Exchangers product form
Heat Exchangers Typical product form
Heat Exchangers working principle and structure illustration
Heat Exchangers Working principle / structure

Heat Exchangers Selection path

  1. 1

    Define hot/cold flow, inlet/outlet temperatures, properties, and duty

  2. 2

    Choose plate, shell-and-tube, or specialty construction and materials

  3. 3

    Check approach, pressure drop, fouling, cleaning, pressure, and expansion

Heat Exchangers Application matrix

Process-water temperature control

Primary objective
Heat or cool process water
Check first
Duty, approach, control valve

Heat recovery

Primary objective
Recover heat from process or reject streams
Check first
Fouling, corrosion, economic approach

Sanitary/high-purity loops

Primary objective
Maintain loop temperature and hygiene
Check first
Materials, finish, drainability, validation

Heat Exchangers Product information checklist

Key parameters

  • Duty, heat-transfer area, and approach
  • Hot/cold flow, pressure drop, and design pressure
  • Plate/tube material, gasket, and fouling factor

System interfaces

  • Connections, flow direction, supports, and expansion
  • Bypass, control valve, temperature and pressure points
  • CIP, drainage, steam, or cooling-water connections

O&M and documents

  • Inlet/outlet temperatures, pressure drop, and effectiveness
  • Scaling, corrosion, gasket, and leakage checks
  • Thermal calculation, material certificate, and pressure test

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Wila Heat Exchangers

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Wila is a Danish hygienic process-equipment manufacturer focused on stainless tubular heat exchangers, membrane housings, tanks, and complete units for food, beverage, dairy, and process industries. Its products are relevant where heat transfer, hygienic design, cleanability, pressure rating, and custom stainless fabrication need to be assessed together. Wila Heat Exchangers's position in heat exchangers is defined by product families such as Tubular Heat Exchanger, Tubular Liquid Cooler and Tubular Steam Heater. The portfolio is best understood inside temperature control, heat recovery, cooling loops, process heating, and skid integration, where engineers compare the technology route, family boundaries, and duty fit before narrowing to individual models. Representative series on this page include THE 40, THEA 40 and THEX. First compare thermal duty, materials, pressure drop, cleaning access, and connection layout. These cues help users understand the brand's strongest fit before moving into the model index and product cards for finer comparison.

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Further reading

Heat Exchangers technical guide

Heat Exchangers for Water Treatment

Heat exchangers are fundamental components in modern water treatment systems, enabling efficient thermal management across various processes. From pre-heating feed water to cooling treated effluent or recovering energy, these devices are critical for optimizing operational efficiency, ensuring process stability, and reducing energy consumption. AquaChain provides access to a comprehensive portfolio of heat exchanger technologies engineered for the demanding conditions of water treatment applications.

Types of Heat Exchangers

The selection of a heat exchanger type depends on specific process requirements, fluid characteristics, and operational parameters.

  • Plate Heat Exchangers: Characterized by their compact design and high thermal efficiency, plate heat exchangers utilize a series of corrugated plates to facilitate heat transfer. Their modular nature allows for easy expansion or cleaning, making them suitable for applications requiring frequent maintenance or capacity adjustments. They are often chosen for liquid-to-liquid heat transfer where close approach temperatures are desired.
  • Shell-and-Tube Heat Exchangers: These robust units consist of a bundle of tubes housed within a cylindrical shell. One fluid flows through the tubes, while the other flows over the tubes within the shell. Shell-and-tube designs are highly versatile, capable of handling a wide range of pressures and temperatures, and are often preferred for applications involving fluids with suspended solids or where robust mechanical integrity is paramount.
  • Specialty Configurations: Beyond standard plate and shell-and-tube designs, various specialty configurations exist to address unique process challenges, such as highly viscous fluids, extreme temperature differentials, or specific space constraints. These include welded plate, spiral, or scraped surface designs, each offering distinct advantages for particular water treatment scenarios.

Engineering Considerations

Effective heat exchanger integration requires careful consideration of several key engineering factors:

  • Thermal Duty and Approach Temperature: The thermal duty defines the total heat transfer rate required, while the approach temperature represents the minimum temperature difference between the hot and cold fluids. These parameters are crucial for accurate sizing and efficiency calculations.
  • Materials of Construction: Given the corrosive nature of water and various treatment chemicals, material selection is critical. Common materials include stainless steel (304, 316L), titanium, and specialized alloys, chosen for their resistance to corrosion, erosion, and compatibility with process fluids. Gasket materials for plate heat exchangers are also selected based on chemical compatibility and temperature resistance.
  • Fouling: The accumulation of deposits (scale, biological growth, suspended solids) on heat transfer surfaces, known as fouling, can significantly reduce efficiency and increase maintenance requirements. Heat exchanger designs incorporate features to mitigate fouling, such as optimized flow patterns, surface finishes, and provisions for mechanical or chemical cleaning.
  • Design Verification: All heat exchanger designs must undergo rigorous verification. This process relies on the thermal and pressure data provided by the original equipment manufacturer to ensure the unit meets specified performance criteria and operates safely within its design limits.

Integration with Water Treatment Skids

Heat exchangers are seamlessly integrated into water treatment skids to perform various functions:

  • Pre-heating: Raising the temperature of incoming feed water for processes like reverse osmosis (RO) to improve membrane performance or for ion exchange to optimize resin kinetics.
  • Cooling: Reducing the temperature of treated water or process streams to meet discharge regulations or protect downstream equipment.
  • Energy Recovery: Capturing waste heat from one process stream to pre-heat another, thereby improving overall energy efficiency and reducing operational costs.

AquaChain focuses on providing heat exchanger solutions that enhance the reliability, efficiency, and sustainability of your water treatment operations.

Heat Exchangers | Brands & Models | AquaChain Guide