Ovaco

U-Pipe Type Heat Exchangers

U-Pipe Type Heat Exchangers

Advantages of Choosing Ovaco:


Expert Staff: Customized support by our experienced engineers for each project.

Turnkey Service: Complete solutions including design, manufacturing, delivery and field installation.

Innovative Technology: High performance and energy efficient solutions.


Ovaco's U-Pipe Type Heat Exchangers make a difference in the sector with their durable structure and design in accordance with international standards. Contact us for detailed information and project support!

  • Category

U-Tube Heat Exchangers


Ovaco offers industry-leading and innovative solutions in the production of U-Pipe Type Heat Exchangers. These heat exchangers are ideal for meeting energy transfer requirements with their versatile designs. They have a wide range of applications from industrial applications to power plants.


Highlights:


Flexible Design: Thanks to its U-tube structure, it can compensate for expansion and contraction movements.

High Efficiency: Optimized design for maximum energy transfer.

Durable Materials: Durable materials such as carbon steel, stainless steel and copper are used.

Materials Used:



Carbon Steel: A cost-effective and durable solution for general industrial applications.

Stainless Steel: Offers corrosion resistance and long life; suitable for the food, chemical and pharmaceutical industries.

Copper: Improves energy efficiency with good thermal conductivity.

Other Materials: Special materials such as titanium and nickel alloys can also be used according to project requirements.

International Production Standards:


Ovaco complies with internationally recognized standards in heat exchanger production:


ASME Sect. VIII, Div. 1: Design and manufacturing standards for pressure vessels.

TEMA (Tubular Exchanger Manufacturers Association): Global guidance for heat exchanger design and manufacturing.

ISO 9001: International standards for quality management processes.

Calculation and Design:



Heat Transfer Analysis: Energy transfer is calculated by considering the flow rate, pressure and temperature of the fluids.

Pressure and Expansion Analysis: Optimized structure for high pressure conditions and expansion movements.

Corrosion Assessment: Material selection and design to minimize potential corrosion risks.

Quality Control:



Nondestructive Testing: Structural integrity is checked by radiographic, ultrasonic and pressure tests.

Raw Material Certification: All materials used are certified in accordance with international standards.

Final Performance Tests: Maximum heat transfer performance and tightness of the heat exchangers are checked.