Product Description
Product Description
Basic Information:
Double-acting Hydraulic Telescopic Hydraulic Cylinder In Good Price
| Model | Max storke | Rated Pressure | L | M1 |
|
4TG-E130*3800EE |
3800 | 16 | 1325 | M27*2 |
| 4TG-E150*3800EE | 3800 | 16 | 1325 | M27*2 |
| 3TG-E240*6600EE | 6600 | 16 | 2058 | G1 |
|
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 two parallel shafts when installed.
5.The installation should be greater than the center distance between the closed hydraulic cylinder center distance 20mm-30mm. |
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Six advantages for hydraulic
More secure
Faster unloding speed.
The lifting frequency higher
A stronger ability to adapt to the environment
Lighter
Lift more |
Our Services
We have more than 1 decade experience in supplying custom hydraulic cylinders with provided drawings or samples, or if you could provide following specification:
|
• diameter of bore & rod • stroke |
Company Information
Packaging & Shipping
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| Structure: | Series Cylinder |
|---|---|
| Material: | Stainless Steel |
| Weight (Kg): | 100 |
| Condition: | New |
| Standard or Nonstandard: | Standard |
| Warranty: | 6 Months |
| Customization: |
Available
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Can single-acting hydraulic cylinders be used in aerospace applications?
Yes, single-acting hydraulic cylinders can be used in aerospace applications. Here’s a detailed explanation:
Aerospace engineering involves designing and manufacturing aircraft and spacecraft, which require precise control and reliable actuation systems. Single-acting hydraulic cylinders are utilized in certain aerospace applications due to their ability to provide controlled linear motion and force.
Here are some examples of how single-acting hydraulic cylinders are used in aerospace:
1. Landing Gear Systems: Landing gear systems in aircraft play a crucial role in takeoff, landing, and taxiing. Single-acting hydraulic cylinders are commonly employed in these systems to extend and retract the landing gear. The cylinders provide the necessary force to support the aircraft’s weight and ensure smooth landing gear operation.
2. Cargo Doors and Access Panels: Aircraft cargo doors and access panels require controlled opening and closing mechanisms. Single-acting hydraulic cylinders are used to actuate these doors and panels, providing the force needed to move them and secure them in place during flight.
3. Flight Control Surfaces: Single-acting hydraulic cylinders are also applied in aircraft flight control systems. These systems control the movement of flight control surfaces such as ailerons, elevators, and rudders, which are essential for maneuvering the aircraft. Hydraulic cylinders provide the necessary force to actuate these surfaces, enabling precise control and maneuverability.
4. Thrust Reverser Systems: In some aircraft, thrust reverser systems are used to assist with deceleration during landing. Single-acting hydraulic cylinders are involved in these systems, helping to deploy and stow the thrust reverser mechanisms, which redirect engine thrust forward to assist in braking.
5. Spacecraft Applications: Single-acting hydraulic cylinders find applications in spacecraft systems as well. They can be used for functions such as deploying scientific instruments, extending solar panels, or controlling antenna movement. The cylinders provide reliable and controlled linear motion in the harsh conditions of space.
It is important to note that aerospace applications have stringent requirements for reliability, weight reduction, and safety. Single-acting hydraulic cylinders used in aerospace must meet rigorous standards and undergo extensive testing and certification processes to ensure their performance and reliability in extreme operating conditions.
In summary, single-acting hydraulic cylinders are employed in various aerospace applications, including landing gear systems, cargo doors and access panels, flight control surfaces, thrust reverser systems, and spacecraft applications. Their ability to provide controlled linear motion and force makes them valuable components in achieving precise actuation and control in aerospace engineering.
How does a single-acting hydraulic cylinder handle variations in cylinder stroke and extension?
A single-acting hydraulic cylinder is designed to handle variations in cylinder stroke and extension efficiently. Here’s a detailed explanation:
Single-acting hydraulic cylinders operate by applying force in one direction, typically through the extension of the piston. They utilize hydraulic fluid pressure to generate and control the force exerted by the cylinder. Here are some key points on how single-acting hydraulic cylinders handle variations in cylinder stroke and extension:
1. Adjustable Stroke Length: Single-acting hydraulic cylinders can be designed with an adjustable stroke length feature. This allows users to modify the distance the piston can extend, accommodating different requirements and variations in stroke length. By adjusting the cylinder’s stroke, it becomes possible to control the range of motion and extension of the piston, ensuring compatibility with specific applications.
2. Customizable Mounting Options: Single-acting hydraulic cylinders offer various mounting options to facilitate flexible integration into different systems. The mounting configuration can be customized to suit the specific requirements of the application. Different mounting styles, such as flange mounts, foot mounts, or clevis mounts, provide versatility in accommodating variations in cylinder stroke and extension while maintaining stability and proper alignment.
3. Control Valve Regulation: Control valves play a critical role in regulating the flow of hydraulic fluid into and out of the cylinder. By controlling the rate of fluid flow, the valves enable precise control over the extension and retraction of the piston. Adjusting the valve settings allows for fine-tuning of the cylinder’s stroke and extension, ensuring accurate and controlled movement.
4. Position Sensing Devices: Single-acting hydraulic cylinders can be equipped with position sensing devices, such as linear transducers or proximity sensors. These devices provide feedback on the cylinder’s position and extension, allowing for real-time monitoring and control. By detecting and measuring variations in stroke length and extension, position sensing devices enable precise positioning and ensure consistent performance.
5. Cylinder Cushioning: To handle variations in cylinder stroke and extension, single-acting hydraulic cylinders may incorporate cushioning mechanisms. Cushioning helps to dampen the impact during the piston’s approach to the end of its stroke, reducing shock and minimizing the risk of damage. The cushioning feature allows for controlled deceleration and smooth operation, regardless of variations in stroke length.
It is important to consider the specific application requirements and consult the manufacturer’s guidelines to ensure proper handling of variations in cylinder stroke and extension. Manufacturers often provide recommendations and technical specifications to ensure optimal performance and safe operation.
In summary, single-acting hydraulic cylinders handle variations in cylinder stroke and extension through adjustable stroke length, customizable mounting options, control valve regulation, position sensing devices, and cushioning mechanisms. These features allow for precise control, flexibility, and reliable performance in a wide range of applications.
What are the essential components and design features of a single-acting hydraulic cylinder?
A single-acting hydraulic cylinder consists of several essential components and design features that enable its operation. Here’s a detailed explanation:
1. Cylinder Barrel: The cylinder barrel is a cylindrical tube that serves as the main body of the hydraulic cylinder. It houses the other components and provides a sealed chamber for fluid containment.
2. Piston: The piston is a cylindrical component that separates the cylinder barrel into two chambers: the pressure chamber and the return chamber. It is typically made of a durable material such as steel and has sealing elements to prevent fluid leakage between the chambers.
3. Piston Rod: The piston rod is connected to one end of the piston and extends outside the cylinder barrel. It transmits the force generated by the hydraulic fluid to the external load or mechanism. The piston rod is typically made of hardened steel to withstand high forces and minimize deflection.
4. Seals: Seals are crucial components in a single-acting hydraulic cylinder as they prevent fluid leakage and maintain the separation between the pressure chamber and the return chamber. Common types of seals used in hydraulic cylinders include O-rings, rod seals, and wiper seals.
5. Hydraulic Port: A single-acting hydraulic cylinder typically has a single hydraulic port located at the base of the cylinder barrel. The hydraulic port is used to supply hydraulic fluid to the pressure chamber, creating the force necessary for the extending stroke.
6. Mounting Options: Single-acting hydraulic cylinders are designed with various mounting options to facilitate their installation and integration into different systems. Common mounting options include flange mounts, clevis mounts, trunnion mounts, and foot mounts. These mounting options provide flexibility in positioning and securing the cylinder.
7. External Forces for Return Stroke: Unlike double-acting hydraulic cylinders that can generate force in both directions, single-acting cylinders rely on external forces or mechanisms for the return stroke. Once the hydraulic pressure is released or redirected, external forces such as gravity, springs, or other mechanical means push the piston back to its original position.
8. Cylinder Size and Stroke Length: Single-acting hydraulic cylinders are available in various sizes and stroke lengths to accommodate different load requirements and application needs. The cylinder size and stroke length should be selected based on the desired force output, load capacity, and available installation space.
9. Materials and Construction: Single-acting hydraulic cylinders are typically constructed from robust materials such as steel or aluminum alloy to withstand high pressures and loads. The construction should be durable and capable of withstanding the operating conditions, including temperature, pressure, and environmental factors.
10. Optional Features: Single-acting hydraulic cylinders may incorporate optional features depending on the specific application requirements. These features can include integrated cushions to dampen the impact at the end of the stroke, position sensors for feedback, and external protective coatings for corrosion resistance.
In summary, the essential components and design features of a single-acting hydraulic cylinder include the cylinder barrel, piston, piston rod, seals, hydraulic port, mounting options, external forces for the return stroke, cylinder size and stroke length, materials and construction, and optional features. These components and features work together to enable the single-direction force generation and reliable operation of the hydraulic cylinder.
editor by CX 2024-04-15
