Product Description
Product details:
Packing and shipping:
FC series is a front-end mounted telescopic cylinder, with top eye mounting and bottom double pin mounting. It is specially designed for those vehicles with a front sloping tipping body.
Suitable to fulfill all tipping requirements for any market, including heavy duty applications, even at the close-to-the-limit climate conditions, offering the most practical and robust front-end tipping cylinder that has ever been made.
Flexible choice load capacity: Minimum 24ton, Maximum 280ton;
Installment Introduction
1.The specifications for all the install screw and self- locking is M16(DIN931.Q8.8)
2.The specifications for grommet is M1730MM.
3.The biggest gap between support and cylinder is 2mm.
4.Make sure the hydraulic cylinder vertically ,up and down 2 parallel shafts when installed.
5.The installation should be greater than the center
distance between the closed hydraulic cylinder
center distance 20mm-30mm.
Six advantages for hydraulic
More secure
Faster unloding speed.
The lifting frequency higher
A stronger ability to adapt to the environment
Lighter
Lift more
Hot Sale 4 Stage Hydraulic Telescopic Ram Cylinder For Piston Scissor Lift
| Type | Telescopic Hydraulic Cylinder |
| Seal Kits | Hallite |
| Material of Cylinder | 27SiMn |
| Coating | All tubes are chrome plated |
| Bore Dia | 240/221/214/196/172/150/137 |
| Stroke | 3830mm-9030mm |
| Max Pressure | 3190PSI |
| Color | Black or According to your needs |
| Mounting Type | Pin eye-Truunion, Cross tube-Pin eye etc |
| Certification | ISO9001 ,TS16949,SGS |
| Package | Iron pallet or wooden pallet |
| Warranty | One year after shipping arrival |
| Main export market | South America, North America |
| Payment terms | T/T, L/C |
| Delivery time | 35 to 45 days after receiving of your deposit |
| Certification: | GS, RoHS, CE, ISO9001 |
|---|---|
| Pressure: | High Pressure |
| Work Temperature: | High Temperature |
| Acting Way: | Double Acting |
| Working Method: | Straight Trip |
| Structure: | Piston Type |
| Samples: |
US$ 200/Piece
1 Piece(Min.Order) | |
|---|
| Customization: |
Available
|
|
|---|
How does a forklift hydraulic cylinder handle variations in cylinder size?
A forklift hydraulic cylinder is designed to handle variations in cylinder size and accommodate different lifting capacities. Here's an explanation of how it achieves this:
The hydraulic cylinder's ability to handle variations in cylinder size is primarily dependent on its design and the following factors:
1. Piston Diameter:
The piston diameter of the hydraulic cylinder determines the lifting force it can generate. Forklift hydraulic cylinders are designed with different piston diameters to accommodate various load capacities. Larger piston diameters provide higher lifting capacities, while smaller diameters are suitable for lighter loads. The cylinder is designed and manufactured to match the required lifting capacity based on the forklift's specifications.
2. Cylinder Construction:
The hydraulic cylinder is constructed to withstand the forces exerted during lifting operations. The materials used in its construction, such as high-strength steel, are selected based on the anticipated load capacities. The cylinder's structural integrity ensures that it can handle the stress and pressure exerted during lifting, regardless of the cylinder size.
3. Hydraulic System Pressure:
The hydraulic system pressure plays a crucial role in determining the lifting capacity of the cylinder. By increasing or decreasing the pressure of the hydraulic fluid, the lifting force generated by the cylinder can be adjusted. The forklift's hydraulic system is designed to provide sufficient pressure to match the lifting requirements of different cylinder sizes.
4. Control Valves and Flow:
The forklift's hydraulic system incorporates control valves that regulate the flow of hydraulic fluid to the cylinder. These valves allow the operator to control the speed and force of the cylinder's extension and retraction. By adjusting the flow rate, the lifting capacity can be tailored to suit the specific cylinder size and the load being lifted.
5. Sealing Mechanisms:
The hydraulic cylinder incorporates seals to prevent fluid leakage and maintain pressure. These seals, designed to accommodate different cylinder sizes, ensure a proper seal between the piston and cylinder barrel. They are selected based on the specific requirements of the cylinder size to maintain optimal performance and prevent leakage.
In summary, a forklift hydraulic cylinder handles variations in cylinder size by incorporating design elements such as piston diameter, appropriate construction materials, hydraulic system pressure, control valves, and sealing mechanisms. These factors work together to ensure that the cylinder can generate the required lifting force and withstand the forces exerted during lifting operations, regardless of the cylinder size.
How does a forklift hydraulic cylinder contribute to smooth lifting and lowering?
A forklift hydraulic cylinder plays a crucial role in achieving smooth lifting and lowering operations. Here's an explanation of how it contributes to this process:
The smooth lifting and lowering of a forklift's load is made possible by the hydraulic cylinder working in tandem with the hydraulic system. The hydraulic cylinder contributes in the following ways:
1. Controlled Fluid Power:
The hydraulic cylinder utilizes controlled fluid power to lift and lower the load. When the operator activates the hydraulic system, hydraulic fluid is pumped into the cylinder, exerting pressure on the piston inside. This pressure creates a force that raises or lowers the load smoothly and evenly.
2. Piston and Cylinder Design:
The design of the hydraulic cylinder's piston and cylinder bore contributes to smooth lifting and lowering. The piston is precisely machined to fit within the cylinder bore with minimal clearance. This tight fit, along with the use of seals and hydraulic fluid, helps minimize friction and ensure smooth movement of the piston within the cylinder.
3. Valve Control:
The hydraulic cylinder's movement is controlled by valves in the hydraulic system. These valves regulate the flow of hydraulic fluid into and out of the cylinder. By adjusting the valve settings, the operator can control the speed and rate of lifting and lowering. The valves allow for precise control, enabling smooth and gradual movements of the load.
4. Load Balancing:
The hydraulic cylinder contributes to load balancing during lifting and lowering operations. By adjusting the extension or retraction of the cylinder, the operator can maintain a proper balance between the load and the forklift. This balance helps prevent sudden shifts or jerky movements, resulting in smoother and more stable lifting and lowering.
5. Damper Mechanisms:
In some forklift hydraulic systems, dampers or shock absorbers are incorporated to further enhance smooth lifting and lowering. These mechanisms help cushion the movements of the hydraulic cylinder, reducing any sudden jolts or vibrations. The dampers absorb and dissipate energy, resulting in smoother and more controlled load handling.
In summary, a forklift hydraulic cylinder contributes to smooth lifting and lowering operations through controlled fluid power, precise piston and cylinder design, valve control, load balancing, and the potential inclusion of dampers. These factors work together to provide operators with the ability to lift and lower loads smoothly, efficiently, and with enhanced control.
What are the components of a forklift hydraulic cylinder?
A forklift hydraulic cylinder consists of several components that work together to generate the necessary force for lifting loads. Here's a breakdown of the key components:
1. Cylinder Barrel:
The cylinder barrel is a cylindrical tube that provides the housing for the other components of the hydraulic cylinder. It is typically made of high-strength steel or other durable materials to withstand the hydraulic forces.
2. Piston:
The piston is a cylindrical component that fits inside the cylinder barrel. It divides the cylinder into two chambers and is responsible for transferring the hydraulic force. The piston is sealed against the cylinder barrel to prevent fluid leakage between the chambers.
3. Piston Rod:
The piston rod extends from the piston and protrudes out of the cylinder barrel. It is connected to the load-bearing structure of the forklift, such as the mast assembly. The piston rod transmits the force generated by the hydraulic fluid to lift and lower the loads.
4. Seals:
Seals are essential components that prevent hydraulic fluid leakage and maintain the pressure within the cylinder. They are typically made of rubber or other elastomeric materials and are positioned at various points of the cylinder, such as around the piston and piston rod.
5. Inlet and Outlet Ports:
The hydraulic cylinder has inlet and outlet ports that allow the hydraulic fluid to enter and exit the cylinder. The inlet port is connected to the hydraulic system's control valves and hoses, delivering pressurized fluid into the cylinder. The outlet port allows the fluid to flow out of the cylinder when the load is being lowered.
6. Mounting and Connection Components:
To integrate the hydraulic cylinder into the forklift's hydraulic system, various mounting and connection components are used. These can include brackets, pins, clevises, and other fittings that secure and connect the cylinder to the forklift's structure.
Each of these components plays a crucial role in the operation of the forklift hydraulic cylinder. The cylinder barrel provides the housing, the piston and piston rod generate the force, seals prevent fluid leakage, and the inlet and outlet ports facilitate the flow of hydraulic fluid. The mounting and connection components ensure proper integration into the forklift.
In summary, the components of a forklift hydraulic cylinder include the cylinder barrel, piston, piston rod, seals, inlet and outlet ports, and various mounting and connection components. Together, these components enable the hydraulic cylinder to generate the force necessary for lifting and lowering loads in a forklift.
editor by CX 2023-10-13