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Reference: INDUSTRIAL AIR PURIFICATION WITH HEAT RECOVERY – MACHINERY AND PLANT MANUFACTURERS

Up to 35% energy savings through intelligent air technology in production

Emulsion mist and fine dust in the production air directly affect occupational safety, air quality, and operating costs. A machine and plant manufacturer wanted to improve air quality in its production while simultaneously reducing energy consumption. An integrated solution combining air purification, heat recovery, and intelligent air volume control was implemented, creating clean workplaces, making heat energy usable, and significantly reducing the energy demand of the system.

Key figures


Project results at a glance:
  • Up to 35% energy savings compared to conventional systems.
  • Heat recovery up to 140 °C.
  • Residual dust content < 0.1 mg/m³.
  • Significant CO₂ reduction through integrated energy technology.
  • Intelligent and load-dependent air volume control.


The challenge

In production, oil and emulsion mist as well as fine dust particles are generated, which impair air quality and simultaneously place high demands on air technology. Additionally, occupational safety, energy efficiency, and sustainability needed to be improved.

A solution was sought that combines industrial air purification, heat recovery, and fresh air supply in one system. At the same time, the concept should be flexible for future requirements and integrate into existing production processes.


The solution

A central air technology solution was installed to capture emissions, filter them highly effectively, and recover the contained thermal energy.

The combination of Kappa Mykron® filter technology, Kappa MTA heat recovery, and Kappa Airdynamic control ensures that even the finest particles are reliably separated while simultaneously reducing energy costs. The air performance automatically adjusts to the current production load, making it particularly efficient.


Advantages of the solution

  • Highly effective air purification for industrial applications.
  • Heat recovery from process air.
  • Reduced energy consumption.
  • Lower CO₂ emissions.
  • Intelligent performance control.
  • High future-proofing and scalability.


The result

The implementation met the requirements for air quality and energy efficiency equally. The integrated heat recovery reduces energy demand by up to 35% compared to conventional systems. At the same time, the highly effective filter technology sustainably improves air quality in manufacturing.

Automatic air flow control ensures that the system operates in line with demand at all times. This reduces operating costs and makes optimum use of available energy potential.


The benefits for industrial companies

  • permanently lower energy consumption
  • improved air quality in the workplace
  • reduced CO₂ emissions
  • lower operating costs
  • efficient use of existing thermal energy
  • higher energy efficiency
  • compliance with increasing environmental and occupational safety requirements
  • future-proof production technology.

The project implementation shows that modern air purification can achieve much more than mere filtration. By combining it with heat recovery and intelligent control, additional savings potentials arise that offer both economic and ecological benefits.


Project Conclusion

The project demonstrates how air quality, energy efficiency, and sustainability can be integrated into a single solution. By combining highly effective filtration, heat recovery, and intelligent control, emissions were reduced, energy was saved, and optimal conditions for production were created.

For manufacturing companies, this concept offers the opportunity to improve working conditions, reduce energy costs, and simultaneously contribute to the reduction of CO₂ emissions.