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Beko DRYPOINT M intelligence - Operating Principle

Beko DRYPOINT M intelligence
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US-EN Installation and operation instructions
DRYPOINT
®
M intelligence 11
2.3.1. Operating principle
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12
5
Humid compressed air (2) enters the unit through the
housing head (1) and ows downwards through the core tube 
of the membrane element (5). A nanolter is located at the 
outlet of the core pipe
(6) xated, which removes residual aerosols and particles 
from the compressed air. The resulting condensate is drained
o at the base and is discharged by the oat drain (7). 
At the nanolter element, the compressed air is directed in 
the opposite direction and the humid compressed air ows 
through the membranes of the internal membrane element.
A partial ow (9) of the compressed air
will be branched after the membrane element and bypasses
the sensor continuously in the purge air control. Based on the
sensor signals, the purge air control opens the purge air inlet
to the membrane dryer, if purging is required. As a result, the
purge air pressure drops to the atmospheric pressure and
is much dryer than the compressed air, as the moisture is
distributed to a much larger volume.
The very dry purge air (10) will be routed through the purge
air channel in the head and purge air nozzle (3) to the outside
of the membranes (11) and will be evenly distributed due to
the orderly position of the membranes. This means that there
are two air ows through the membrane element (5) with 
dierent humidity content in the counter ow.
Humid compressed air at the inside and dry purge air at the
outside.
Due to the humidity gradient, water diuses from the 
compressed air to the purge air. The humid purge air (12) is
then released to the ambient air. The dried compressed air (8)
leaves the membrane dryer.

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