Aerospace

Moving parts XFlow's ability to solve problems involving moving parts allows the analysis of varying conditions like the deployment of the landing gear, stowing flaps, or rotary wings.

Moving parts
XFlow’s ability to solve problems involving moving parts
allows the analysis of varying conditions like the deployment of
the landing gear, stowing flaps, or rotary wings.

 

Advanced modeling XFlow predicts with good accuracy the effect of flight manoeuvers like pitch capture or dutch roll, which is normally unreliable with traditional CFD and requires lots of wind tunnel and flight testing to resolve.

Advanced modeling
XFlow predicts with good accuracy the effect of flight
manoeuvers like pitch capture or dutch roll, which is normally
unreliable with traditional CFD and requires lots of wind tunnel
and flight testing to resolve.

 

HVAC The thermal solver can be applied to the simulation of the heating, ventilation, and air conditioning system in an aircraft cabin. Fans can be modeled either as rotating parts or using surface boundary conditions. It is possible to analyze the interior airflow, measure temperature at different locations, and even calculate the passive scalar transport of substances.

HVAC
The thermal solver can be applied to the simulation of the
heating, ventilation, and air conditioning system in an aircraft
cabin. Fans can be modeled either as rotating parts or using
surface boundary conditions. It is possible to analyze the
interior airflow, measure temperature at different locations, and
even calculate the passive scalar transport of substances.

 

Water management XFlow can effectively model free surface flows such as tank sloshing and ditching, capturing the physical phenomena accurately.

Water management
XFlow can effectively model free surface flows such
as tank sloshing and ditching, capturing the physical
phenomena accurately.

 

High lift configurations It is possible to compute the polar of an aircraft from the linear range to the stall region even for take-off or landing configurations. Detailed full aircraft geometries can be analyzed easily due to the flexible discretization approach.

High lift configurations
It is possible to compute the polar of an aircraft from
the linear range to the stall region even for take-off
or landing configurations. Detailed full aircraft
geometries can be analyzed easily due to the flexible
discretization approach.

 

Marine