Yes these are flexible however
they are not a one-size-fits-all proposition. Rather the flexible
couplings are far from it, in fact.
It is needless to mention that few drive train components are as
deceptively simple as a coupling. Two rotating shafts, a coupling to connect
the two, and all systems are go – or seemingly so.
That’s the basic thing
indeed however operations can sputter sometimes to a halt. In fact unless the couplings
can readily contend with the performance requirements of the application and
this is exactly where the speed and torque transmission, misalignment among
connecting shafts etc should be considered, among other conditions. And all
these and much more make Vulkan coupling ez spares a staggering hit.
It is thus pertinent to
be mentioned here that while their rigid counterparts are specified when
precise alignment is required, however it is only the flexible couplings, which
are employed when axes are at a slight angle or slightly displaced.
Displacement might occur due to the result of tolerance build up or the rigors
of operations, including bearing wear or structural deflection.
So, here’s a brief description
of the various types of misalignments – For instance the angular misalignment occurs
when shaft centerlines intersect to form an obtuse angle. On the other hand the
Lateral misalignment, results from lateral displacement among parallel
centerlines. The Skewed misalignment refers to combinations of angular and
lateral misalignment and the axial misalignment on the other hand relates to
the movement of shaft members toward or away from one another.
Of course the flexible-shaft
and Vulkan coupling ez spares accommodate
misalignment while transmitting torque between shafts. Depending on the
configurations, the couplings also impart exceptional torsional rigidity,
torsional strength and vibrational damping.
While the import of
these attributes varies among operations, growing demand for high-speed,
high-efficiency processing is driving greater demand for high-torque,
high-misalignment, and low-inertia couplings with minimal compromise to
torsional stiffness.