Parker’s New Cartridge Valve sets Standards in Terms of Power Density and Performance

04.02.2022
Parker Hannifin, the global leader in motion and control technologies, has introduced a 2-way servo proportional valve as part of its TFP series, pioneering a new generation of cartridge valves. With the company’s patented VCD actuator technology, the innovative design of sleeve and spool allows for previously unattainable flow and pressure drop values.
Parker’s New Cartridge Valve sets Standards in Terms of Power Density and Performance

Parker's new TFP Series 2-way control valve breaks new ground in design, offering unparalleled power density. (Image source: Parker Hannifin)

The improved efficiency, compared to regular cartridge throttle valves, enables the use of smaller nominal sizes with the same output – and thus reduces the size requirements of the control manifold blocks.

The new TFP series is the result of several years of constructive development work and intensive computer simulations. The valve is characterised by a pressure-compensated sleeve with an enlarged seat diameter and oriented windows, which for the first time almost completely uses the DIN cavity. Along with a maximum pressure of 420 bar, this results in uniquely high flow values that can increase performance in demanding applications such as die cast machines and presses.

Due to the optimised flow between the sleeve and spool, the TFP valves offers pressure differential values under ideal conditions that are only slightly higher than those of the control manifold block without valve. As with the preceding TDP series, the highly dynamic DFplus control valve with VCD actuator is used as the pilot valve. It actively positions the main poppet, and therefore operates independently to the pressure conditions in the working connections.

The TFP valve achieves extremely fast step response times, for example 18 milliseconds for size NG50. The combination of precision, higher operating pressure, and speed of reaction creates the prerequisite for shorter cycle times, more stable processes, and minimised scrap rates. Above all, however, control manifold blocks can be designed to be much more compact and thus more cost effective, because, with the TFP series, normally one nominal size can be saved compared to other cartridge valves.

In addition to the increased power density of the valve, great emphasis was placed on improving reliability. With the TFP series, the position feedback system is installed in the pilot chamber in such a way that it is protected from possible pressure peaks that could occur in a hydraulic system.

Seven nominal sizes (NG25, NG32, NG40, NG50, NG63, NG80 and NG100) are available for the launch of the TFP series.

More articles on this topic

New O-Ring Handbook Offers Enhanced Design Recommendations and Seal Material Insights

17.11.2025 -

The Prädifa Technology Division of Parker Hannifin has published a comprehensively updated version of the O-Ring Handbook. The Parker O-Ring Handbook covers an extensive range of topics related to O-Rings and sealing technology and has enjoyed a longstanding reputation as a standard reference widely used by design engineers, maintenance experts, and purchasers around the world.

Read more

Parker Expands Its Bent Axis Pump Portfolio

30.09.2025 -

Parker Hannifin announces the launch of its new F1e and F12e hydraulic pumps, specially designed for variable speed drive applications. As the world increasingly turns towards electrification in the pursuit of a carbon-free future, Parker is at the forefront, leveraging its extensive experience and capabilities to facilitate this vital transition.

Read more

Parker Launches the VA130 Mobile Valve

15.09.2025 -

Parker Hannifin announced the launch of its innovative VA130 mobile valve, completing the Parker VA Series valve portfolio. Precision-engineered using high-grade materials, this valve offers unmatched flexibility and customization, enabling seamless integration into both simple and complex hydraulic systems across a broad range of applications.

Read more