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AXIAL PISTON FLOW DIVIDER

VEO-01

INTRODUCTION
In manufacturing flow dividers within the VEO-01 series, Kinsson adopted the latest processing technology from Germany. Kinsson also incorporated piston rod slipper surface penetration with “Mo” metal at high temperatures in pursuit of generating anti-wear properties for the product line. The use of precision roller bearings helps increase radial endurance and prolong the useful lifetime.

RADIAL PISTON FLOW DIVIDER

VPC-02

INTRODUCTION
In manufacturing flow dividers within the VPC-02 series, Kinsson adopted the latest processing technology from Germany. Kinsson also incorporated piston rod slipper surface penetration with “Mo” metal at high temperatures in pursuit of generating anti-wear properties for the product line. The use of precision roller bearings helps increase radial endurance and prolong the useful lifetime of the series.

VPC-03

INTRODUCTION
In manufacturing flow dividers within the VPC-03 series, Kinsson adopted the latest processing technology from Germany. Kinsson also incorporated piston rod slipper surface penetration with “Mo” metal at high temperatures in pursuit of generating anti-wear properties for the product line. The use of precision roller bearings helps increase radial endurance and prolong the useful lifetime of the series.

VTK-02

INTRODUCTION
In manufacturing flow dividers within the VTK-02 series, Kinsson adopted the latest processing technology from Germany. Kinsson also incorporated piston rod slipper surface penetration with “Mo” metal at high temperatures in pursuit of generating anti-wear properties for the product line. The use of precision roller bearings helps increase radial endurance and prolong the useful lifetime of the series.

VTR

INTRODUCTION
In manufacturing flow dividers within the VTR series, Kinsson adopted the latest processing technology from Germany. Kinsson also incorporated piston rod slipper surface penetration with “Mo” metal at high temperatures in pursuit of generating anti-wear properties for the product line. The use of precision roller bearings helps increase radial endurance and prolong the useful lifetime of the series.

GEAR FLOW DIVIDER

VMX-01

WORKING PRINCIPLES

VMX is made of a working section without an inlet or clapboard without an inlet or end cover by progressively adding, and the inlet is on the clapboard on the end cover. The VMX flow dividers incorporate auxiliary valve blocks, which are designed to protect the section between the flow divider and the operating cylinder. All working section inlets are interlinked, which is ideal since it is generally suggested that all inlets are connected to the system circuit.

FUNCTION
An increase in pressure in multi-dividers can be very dangerous. The VMX-01 flow dividers provide the perfect solution, having the ability to prevent the suction of air between 2 non-synchronised cylinders (the non-synchronised cylinders impel the flow divider and suck oil from the synchronised cylinders). Such credible structures, reasonable pricing, and high-performing capabilities of the VMX series facilitate its comprehensive application across various industrial estates.

VMX-02

WORKING PRINCIPLES

VMX is made of a working section without an inlet or clapboard without an inlet or end cover by progressively adding, and the inlet is on the clapboard on the end cover. The VMX flow dividers incorporate auxiliary valve blocks, which are designed to protect the section between the flow divider and the operating cylinder. All working section inlets are interlinked, which is ideal since it is generally suggested that all inlets are connected to the system circuit.

FUNCTION
An increase in pressure in multi-dividers can be very dangerous. The VMX-02 flow dividers provide the perfect solution, having the ability to prevent the suction of air between 2 non-synchronised cylinders (the non-synchronised cylinders impel the flow divider and suck oil from the synchronised cylinders). Such credible structures, reasonable pricing, and high-performing capabilities of the VMX series facilitate its comprehensive application across various industrial estates.

VTX-01

WORKING PRINCIPLES
The VTX series adopts a solid-cast iron tolerance cavity compared with the aluminium alloy shell flow divider. Running gear may be in the “soft” cavity; preferably, a metal seal is generated between the gear and the aluminium containing the chamber. If JKS needs proportional division, the working chambers of the different displacements of the same size class will be used in combination.

VTX-02

WORKING PRINCIPLES
The VTX series adopts a solid-cast iron tolerance cavity compared with the aluminium alloy shell flow divider. Running gear may be in the “soft” cavity; preferably, a metal seal is generated between the gear and the aluminium containing the chamber. If JKS needs proportional division, the working chambers of the different displacements of the same size class will be used in combination.

VOLUME SYNCHRONISER

VPZ

SYNCHRONISED RUNNING

The VPZ synchronous cylinder is a concatenation structure of several same-size hydraulic cylinders. Since the size of each section’s cavity structure is the same, the outlet flow in each chamber is also the same. JZP synchronisation cylinder adopts the most advanced Germany seal, which can obtain high synchronisation accuracy in different load cases; neither the speed control valve, synchronous valve, nor flow divider can achieve this feature. JZP synchronisation cylinder’s linear motion is different from flow divider’s rotary motion.

SYNCHRONISED ACCURACY
The decisive factor of VPZ’s synchronisation accuracy is identical to the one of flow dividers. high level of synchronisation accuracy requires the reduction of unbalanced degree of load and systematic pressure rating, with the amount of leakage increasing proportionally with pressure. Under optimal condition, which pertains to having the same load in each chamber, the VPZ can obtain very high synchronisation accuracy. The synchronisation error is impacted by the machining accuracy; hence, a 100% synchronisation and 0% in error is rather unrealistic and cannot be achieved. The experiment conducted encompasses the examination of the linear relationship of VPZ synchronisation cylinder under different amounts of pressure.