Hydraulic valves define how a system performs—but controlling them effectively requires more than selecting the right component.
Aeriax works with OEMs to design mechanical control systems that integrate directly with hydraulic valves, accounting for spacing, actuation requirements, operator input, and machine constraints.
Each control system is developed to ensure consistent, reliable valve operation within real equipment environments.
Control system performance depends on how valve actuation, linkage geometry, and operator input work together within real machine constraints.
Up to four
degrees of
freedom from one
single joystick
Direct feel of
mechanical control
for operators
performing
tasks
Made in the
U.S.A. with
machining,
fabrication and
assembly done
in-house
U.S. based
customer service
and
uncompromising
integrity
Custom solutions
available to suit
your specific
application
Effective hydraulic valve control is not defined by the valve alone, but by how the control system interacts with it under real operating conditions. Several factors determine whether a control system performs consistently once integrated into equipment.
Control linkages must align precisely with valve actuation points. Even small misalignments can introduce side loading, increased wear, or inconsistent response. This becomes more complex when working with tightly spaced valve banks or non-standard mounting configurations.
The force required to actuate a valve must remain consistent across the full range of motion. Poorly designed linkage geometry can create uneven resistance, making controls feel unpredictable and increasing operator fatigue over time.
Operator interaction plays a critical role in control system performance. Handle position, travel distance, and resistance must be designed to provide clear feedback without requiring excessive effort, especially in applications with repeated or prolonged use.
Control systems must deliver the same response cycle after cycle. Variability in linkage movement, tolerance stack-up, or component deflection can lead to inconsistent valve behavior, which impacts overall system performance.
Valve control systems must function within the physical limitations of the machine. This includes routing linkages around structural elements, avoiding interference with adjacent components, and maintaining accessibility for service and adjustment.
Effective hydraulic valve control design requires coordination between valve geometry, linkage systems, and operator input.
