...

Twisted Tape Turbulator

Advanced solutions for enhanced heat transfer in industrial applications

Customized for You

Product Overview

Twisted tape turbulators are innovative insert devices designed to enhance heat transfer efficiency in tubular systems. By creating controlled turbulence in the fluid flow, these devices significantly improve heat exchange rates compared to smooth tubes.

Our tapered design provides gradual turbulence generation, optimizing the balance between heat transfer enhancement and pressure drop. This results in improved thermal performance while maintaining energy efficiency.

Customizable designs for specific applications

Increases heat transfer coefficients by 50-200%

Reduces fouling and improves flow distribution

Cost-effective retrofitting solution for existing systems

Material Options

Our twisted tape turbulators are available in high-quality materials to suit various operating conditions and fluid types.

Applications

Tapered Twisted Tape Turbulator Inserts are designed for enhanced heat transfer across various industrial sectors.

01

Industrial Heat Exchangers

Improve thermal efficiency in shell-and-tube, double-pipe, and air-cooled heat exchangers used in chemical processing, oil and gas, and power generation industries.

  • Power generation systems
  • Chemical processing plants
  • Refineries and petrochemical facilities

02

Process Industries

Enhance heat transfer in reactors, distillation columns, and process pipelines where efficient thermal management is critical to production quality and energy efficiency.

  • Pulp and paper industry
  • Pharmaceutical manufacturing
  • Food and beverage processing

03

HVAC & Refrigeration

Optimize heat transfer in chillers, condensers, and evaporators, reducing energy consumption while improving system performance and reliability.

  • Heat pumps and thermal storage
  • Commercial HVAC systems
  • Industrial refrigeration units

04

Aerospace & Automotive

Provide efficient thermal management in compact heat exchangers for aircraft, spacecraft, and automotive cooling systems where space is limited.

  • Avionics cooling systems
  • Aircraft environmental control systems
  • Automotive radiators and oil coolers

How We Work

Standard Specifications Classification

MATERIALTURBULATOR SHAPECORRESPONDING TUBE DIAMETER (DN)TURBULATOR DIAMETERPITCH
Stainless Steel SeriesSingle Strip TypeDN8~DN150(DN-1)mm5×DN~12×DN
Titanium Alloy SeriesSingle Strip TypeDN8~DN150(DN-2)mm5×DN~12×DN
Aluminum Alloy SeriesSingle Strip Type, Triangular, PentagonalDN8~DN150(DN-2)mm5×DN~12×DN

Note: Triangular and pentagonal types are mostly suitable for large diameter tube bundles (DN80 and above).

How We Work

Material Selection Guide By Medium Type


Stainless Steel:
 For corrosive media

Iron-based Materials: For neutral media

Titanium Alloys: For highly corrosive media

Copper Alloys: For special media

Aluminum Alloys: For nitrate-containing media

Turbulators provide value in various applications including: tube bundles, tube arrays, coils, water wall tubes, in-tube mixers, and (steam-steam-liquid-liquid) tubular heat exchangers.

Ordering Considerations

  • Theoretically, turbulators can be made very long, but the rejection rate during manufacturing is relatively high.
  • Turbulators with a diameter of less than 20mm can be packaged in coils for convenient transportation.
  • Turbulators with a diameter of 20mm or more, as well as triangular and pentagonal turbulators, can only be transported in straight lengths.
  • Titanium alloy turbulators have relatively high hardness and are always transported in straight lengths.
  • For applications without special technical requirements, segmented turbulators can be used. They can be easily connected in use without affecting performance.

Confide in our demonstrated outcomes

Performance Benefits

Comparative data showing the advantages of twisted tape turbulators over smooth tube configurations.

Enhanced Thermal Performance

Our twisted tape turbulators consistently outperform smooth tube configurations across various flow rates and temperature differentials, providing significant improvements in heat transfer efficiency.

+120%

Heat Transfer Coefficient Increase

-28%

Energy Consumption Reduction-28%

+35%

System Efficiency Improvement

controlled

System Efficiency Improvement