Extract Air & Process Air

SB nozzle plate (type DPL)

  • Design as flat plate surface with suction nozzle(s)
  • Efficient replacement of conventional capture bonnets (funnel / box-shaped)
  • Stabilised capture of emissions from point sources, even with cross-flows
  • Simple, versatile modifiable and adaptable design
  • Smallest possible mounting distance to the emission source
  • Particularly large depth effect with a high degree of quality
  • Minimised capture air flow due to high pollutant capture efficiency
  • Smaller separation systems, thus reduction of operating costs
  • Less susceptibility to contamination
SB-Badrandabsaugung (Typ BRA)

SB bath rim suction unit (type BRA)

  • Design as vacuum element with suction nozzles in linear arrangement
  • Efficient replacement of conventional slot capture systems
  • Stabilised capture of emissions from area sources
  • Optimum free access to the process plant from above
  • Particularly large depth effect with a high degree of quality
  • Minimised capture air flow due to high pollutant capture efficiency
  • Smaller separation systems, thus reduction of operating costs
  • Less susceptibility to contamination

SB vortex extraction (type WAS)

  • Design as a contour element with superimposed negative pressure fields
  • Versatile use, especially for impulsive and thermally superimposed emissions with longitudinally expanded source
  • Stagnation point-free capture of emissions from linear emission sources with a high degree of quality
  • Generation of an artificial “whirlwind / typhoon“
  • Peripheral velocities in the rotating field up to 70 m/s
  • Negative pressure in the centre above 1,000 Pa
  • Minimised capture air flow due to high pollutant capture efficiendy
  • Smaller separation systems, thus reducing operating costs
  • Optimal access to the emission sources from above (with hinged design)

SB-Jetline (Type JET)

  • Design as a combination of nozzle and vortex capture devices
  • Versatile use, especially for pulsed and thermally superimposed emissions with longitudinally expanded source
  • Stagnation point-free capture of emission from linear sources with a high degree of quality
  • Minimised capture air flow due to high pollutant capture efficiency
  • Smaller separation systems, thus reducing operating/energy costs
  • Optimal access to the emission sources from above (with hinged design)

Example applications from practice

Optimised emission capturing using a self-service vortex extractor (type WAS)

Optimised emission capturing using a SB nozzle plate (type DPL)

Videos of example applications

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