Product Description
hydraulic cylinder
Dozer cylinder:
Blade lift cylinder, blade tile cylinder, ripper lift cylinder, ripper tilt cylinder, recoild cylinder
Excavator cylinder:
Boom cylinder, arm cylinder, bucket cylinder, adjuster cylinder
fit machine
KOM SU SHXIHU (WEST LAKE) DIS.I CHINAMFG CHINAMFG PENGPU, CAT HYUNDAI HITACHI CHINAMFG liugong lishide CHINAMFG hyundai
175-63-42700
175-63-42800
175-63-43700
175-63-43800
175-63-52700
| 175-63-42700 | 1146-57180 | 31N4-50110 | 2440-9230 |
| 175-63-42800 | 14557151 | 31N4-50120 | 2440-9309 |
| 175-63-43700 | 1146- 0571 1 | 31N4-50130 | 440-05710 |
| 175-63-43800 | 14557154 | 31N4-50131 | 2440-9231 |
| 175-63-52700 | 14557150 | 31N4-50132 | 2440-9310 |
| 175-63-13400 | 14557155 | 31N4-50133 | 440-05712 |
| 175-63-13300 | 1146-57190 | 31N4-60110 | 2440-9242 |
| 155-15-0571 | 14557152 | 31N4-50110 | 2440-9232 |
| 23Y-89-10400 | 1146-57100 | 31N4-50120 | 2440-9233 |
| 23Y-89-10300 | 14557153 | 31N4-50132 | 2440-9230 |
| 23Y-89-15710 | 14518003 | 31N4-50133 | 2440-9231 |
| 23Y-89-15710 | 14564001 | 31N4-60110 | 2440-9249 |
| 23Y-64B-57100 | 14517998 | 31Q4-50110 | 2440-9232 |
| 23Y-64B-57100 | 14564007 | 31Q4-50120 | 2440-9242 |
| 154-63-X2070 | 14518289 | 31Q4-50130 | 2440-9233 |
| 154-63-X2571 | 14564571 | 31Q4-60111 | 440-05711 |
| 154-63-X2571 | 14517999 | 31N6-50121 | 440-05712 |
| 16Y-84-62000 | 14564016 | 31N6-50125 | 440-05714 |
| 16Y-63-13000 | 14518290 | 31N6-50111 | 2440-9233 |
| 16Y-62-50000 | 14523674 | 31N6-50115 | 440-00408 |
| 16L-62C-10000 | 14564571 | 31N6-50130 | 440-00409 |
| 16Y-63-13000 | 14518000 | 31N6-50135 | 440-0571 |
| 16L-62C-20000 | 14523675 | 31N6-50137 | 440-00425 |
| 14564030 | 31N6-50138 | 440-571 | |
| 23Y-62B-57100 | 14547543 | 31N6-60110 | K1026249 |
| 23Y-62B-57100 | 14547545 | 31N6-60115 | K1026250 |
| 23Y-63B-01100 | 14547546 | 31N6-50125 | K1571800 |
| 23Y-89B-01500 | 14538693 | 31N6-50115 | K1571712 |
| 23Y-89B-01600 | 14617784 | 31N6-50137 | 440-571 |
| 23Y-89B-01300 | 14538695 | 31N6-50138 | 2440-9344 |
| 23Y-89B-01400 | 14375081 | 31N6-60115 | 2440-9345 |
| 16Y-62-50000 | 14376231 | 31Q6-50110 | 440-0571 |
| 16Y-62-60000 | 14522770 | 31Q6-50120 | 440-00571 |
| 16Y-63-13000 | 14375085 | 31Q6-50131 | 2440-9344 |
| 14547230 | 31Q6-60110 | 2440-9345 | |
| 707-01-XY800 | 14547232 | 31N7-50110 | 440-0571 |
| 707-01-XY810 | 14547233 | 31N7-50120 | 440-00571 |
| 14563968 | 31N7-50131 | K1014798 | |
| 707-01-XY820 | 14563974 | 31N7-50132 | K1014799 |
| 707-01-XZ901 | 14512429 | 31N7-60110 | K1014805 |
| 707-01-XY442 | 14522908 | 31N7-50110 | K1014824 |
| 707-01-XY452 | 14534547 | 31N7-50120 | 2440-9234 |
| 707-01-0H091 | 14563977 | 31N7-50132 | 2440-9235 |
| 707-01-0A430 | 14512423 | 31N7-60110 | 2440-9236 |
| 707-01-0A450 | 14563986 | 31Q7-50110 | 2440-9237 |
| 707-01-0A460 | 14514851 | 31Q7-50120 | 440-00059 |
| 707-01-XZ993 | 14523664 | 31Q7-50130 | 2440-9234 |
| 707-01-XU760/770 | 14563993 | 31Q7-60110 | 2440-9235 |
| 707-01-XU780 | 14534531 | 31N8-50121 | 2440-9236 |
| 707-01-XU790 | 14554977 | 31N8-50111 | 2440-9237 |
| 208-63-57130 | 14534532 | 31N8-50130 | 440-00059 |
| 208-63-57120 | 14554978 | 31N8-60110 | K1008084 |
| 707-01-0H081 | 14534533 | 31N8-60111 | K1008085 |
| 707-01-0H061 | 14554979 | 31N8-50121 | K1008086 |
| 707-01-0H091 | 14615571 | 31N8-50125 | K1008094 |
| 207-63-57130 | 14534532 | 31N8-50111 | K100 0571 |
| 707-01-0F702 | 14534533 | 31N8-50115 | K10571 |
| 707-01-ZX880 | 14563995 | 31N8-50130 | K10 0571 7 |
| 707-01-ZX890 | 14547225 | 31N8-50135 | K1000884 |
| 4415714 | 1459571 | 31N8-50136 | 440-00042 |
| 4385638 | 14534532 | 31N8-50137 | 440-00043 |
| 4385637 | 14534533 | 31N8-50138 | 440-00044 |
| 9169806 | 14563900 | 31N8-60110 | 440-00045 |
| 9186600 | 14563941 | 31N8-60115 | K1011571 |
| 9186602 | 14514829 | 31N8-50125 | K1011571 |
| 9186603 | 14563947 | 31N8-50115 | K1011571 |
| 9255452 | 1455571 | 31N8-50138 | K1011044 |
| 4315711 | 1455717 | 31N8-50139 | 2440-9238 |
| 4315713 | 14541237 | 31N8-60115 | 2440-9239 |
| 4390571 | 14563959 | 31Q8-50110 | 2440-9240 |
| 4628637 | 14514833 | 31Q8-50120 | 2440-9241 |
| 4628635 | 14541267 | 31Q8-50131 | 2440-9238 |
| 3154442 | 14563965 | 31Q8-60110 | 2440-9239 |
| 3154402 | 14551710 | 31Q8-60111 | 440-05717 |
| 3119517 | 14551715 | 31N9-50121 | 2440-9241 |
| 177-2465 | 14551711 | 31N9-50122 | 2440-9282 |
| 225-4523 | 14551712 | 31N9-50111 | 2440-9233 |
| 706-7K-57140 | 14551717 | 31N9-50112 | 440-00430 |
| 708-8F-00171 | 14572350 | 31N9-50130 | 440-571 |
| 706-88-00151 | 14572351 | 31N9-50131 | 440-0571 |
| 225-4523 | 14594986 | 31N9-60110 | 440-0571 |
| 225-4526 | 14572353 | 31N9-60111 | 440-571 |
| 225-4532 | 14594988 | 31N9-50121 | 440-0571 |
| 2440-9280G | 14572352 | 31N9-50122 | 2440-9280 |
| 2440-9278E | 14594987 | 31N9-50111 | 2440-9281 |
| 2440-9279E | 14530664 | 31N9-50112 | K10 0571 9 |
| 2440-9281E | 14540644 | 31N9-50130 | K10 0571 0 |
| 2440-9281H | 14514556 | 31N9-50131 | K1006192 |
| 175-71-31293 | 14539227 | 31N9-60110 | K1006202 |
| WB115110 | 14510443 | 31N9-60111 | 2440-9296 |
| 171-63-57100 | 14521658 | 31Q9-50110 | 2440-9295 |
| 171-62-57100 | 14522902 | 31Q9-50120 | 2440-9293 |
| 4248320 | 14535421 | 31Q9-50130 | 2440-9294 |
| 4248319 | 14514557 | 31Q9-60110 | K1003432 |
| 4248322 | 14521664 | 31NA-50122 | K1003433 |
| 171-64-57100 | 14522903 | 31NA-50123 | K1003434 |
| 16Y-80-30000 | 14536161 | 31NA-50112 | K1003483 |
| 16Y-80-40000 | 14563858 | 31NA-50113 | 440-5717 |
| 9234731 | 14563880 | 31NA-50132 | 440-5716 |
| 4185719 | 145157193 | 31NA-60111 | 440-00015 |
| 4185718 | 14533937 | 31NA-50123 | 440-00016 |
| 4223826 | 14563892 | 31NA-50124 | 440-5717 |
| 4223825 | 14514558 | 31NA-50113 | 440-5716 |
| 9164997 | 14541245 | 31NA-50114 | 440-00015 |
| 9164990 | 14563898 | 31NA-50132 | 440-00016 |
| 31N8-60111 | 1455571 | 31NA-50134 | K1001341 |
| 23Y-64B-57100 | 1455 0571 | 31NA-60111 | K1001340 |
| 23Y-89B-15710 | 1455571 | 31NA-60112 | K1001344 |
| 23Y-89B-15710 | 1455571 | 31QA-50110 | K1014381 |
| 23Y-89B-10300 | 1455571 | 31QA-50120 | K1001821 |
| 23Y-89B-10400 | 1455571 | 31QA-50130 | K1001341 |
| 23Y-64B-57100 | 1455 0571 | 31QA-60110 | K1001340 |
| 154-63-X2571 | 1455571 | 31NB-55712 | K1001344 |
| 154-63-X2571 | 14567071 | 31NB-55712 | K1014381 |
| 440-00015 | 14588514 | 31NB-55713 | K1001821 |
| 9101317 | 14567072 | 31NB-60133 | 400309-5714 |
| 9101318 | 14588519 | 31NB-55712 | 400309-5714 |
| 9186599 | 14567067 | 31NB-55713 | 400305-00071 |
| 175-63-42205 | 14588513 | 31NB-55712 | 40571-00072 |
| 175-63-42304 | 14567071 | 31NB-55713 | 14572518 |
| 175-63-13103 | 14588514 | 31NB-55713 | 14642746 |
| 175-63-13203 | 14567072 | 31NB-55714 | 14508475 |
| 175-63-13140 | 14588519 | 31NB-60133 | 14556580 |
| 175-63-42205 | 14503654 | 31NB-60134 | 1146-07290 |
| 175-63-42304 | 14563836 | 31QB-50110 | 14523672 |
| 175-63-42243 | 14535416 | 31QB-50120 | 14535510 |
| 175-63-42343 | 14563816 | 31QB-50130 | 14595214 |
| 14528492 | 14523667 | 31QB-60110 | 1146-5710 |
| 2440-9295B | 14572517 | 31QB-60111 | 14523673 |
| 2440-9296B | 14549596 | 33NB-55710 | 14572137 |
| 440-5712 | 14549597 | 33NB-55710 | 14548954 |
| 2440-9294C | 14572518 | 33NB-55710 | 14550096 |
| 9186598 | 14508896 | 33NB-60130 | 14550055 |
| 14549597 | 14563810 | 33NB-55710 | 14548954 |
| 14572520 | 14535416 | 33NB-55710 | 14639077 |
| 14549596 | 14563816 | 33NB-55710 | 14606236 |
| 14642744 | 14523667 | 33NB-60130 | 14639078 |
| 14549597 | 14572517 | 31QB-50110 | 1457571 |
| 14642745 | 14549596 | 31QB-50120 | 14641439 |
| 31QE-50111 | 14549597 | 31QB-50130 | 14511286 |
| 31QE-50131 | 14549598 | 31QB-63110 | 14564681 |
| 31QE-61110 | 14549596 | 31ND-5571 | 14546548 |
| 14564683 | 14564681 | 31ND-5571 | 14564682 |
| 31ND-6571 | 14544682 | 31ND-50030 | 14587748 |
/* March 10, 2571 17:59:20 */!function(){function s(e,r){var a,o={};try{e&&e.split(“,”).forEach(function(e,t){e&&(a=e.match(/(.*?):(.*)$/))&&1
| Certification: | GS, RoHS, CE, ISO9001 |
|---|---|
| Pressure: | High Pressure |
| Work Temperature: | Normal Temperature |
| Acting Way: | Double Acting |
| Working Method: | Straight Trip |
| Adjusted Form: | Regulated Type |
| Customization: |
Available
|
|
|---|

How does a lift cylinder handle variations in fluid pressure and flow rate?
A lift cylinder is designed to handle variations in fluid pressure and flow rate in order to ensure smooth and controlled operation. Here’s an explanation of how lift cylinders handle these variations:
1. Fluid Pressure:
Lift cylinders are typically part of a hydraulic system that utilizes pressurized fluid to generate the necessary force for lifting. The lift cylinder is designed to withstand varying fluid pressure levels. When the fluid pressure is increased, the lift cylinder can handle the additional force exerted on its piston. Conversely, when the fluid pressure decreases, the lift cylinder adjusts accordingly and maintains its functionality.
2. Flow Rate:
The flow rate of hydraulic fluid determines the speed at which the lift cylinder extends or retracts. Lift cylinders are designed to accommodate variations in flow rate. By controlling the flow rate of the hydraulic fluid through the use of control valves or flow control devices, operators can adjust the speed of the lift cylinder’s movement. This allows for precise and controlled lifting operations.
3. Control Valves:
Control valves are an integral part of the hydraulic system that regulates the fluid pressure and flow rate. Lift cylinders are often equipped with control valves that enable operators to control the movement of the cylinder by adjusting the pressure and flow of the hydraulic fluid. These valves can be manually operated or automated, providing flexibility in handling variations in fluid pressure and flow rate.
4. Cylinder Design:
Lift cylinders are designed to be robust and durable, capable of withstanding variations in fluid pressure and flow rate. The cylinder’s construction and materials are selected to ensure optimal performance under different operating conditions. Seals and other components within the lift cylinder are designed to maintain their functionality and prevent leakage, even when subjected to changes in fluid pressure and flow rate.
5. Fluid Control Systems:
In more advanced lift cylinder systems, fluid control systems may be employed to handle variations in fluid pressure and flow rate. These systems can include pressure relief valves, flow control valves, or proportional valves. Pressure relief valves protect the lift cylinder and the hydraulic system from excessive pressure, while flow control valves regulate the flow rate of the hydraulic fluid. Proportional valves provide precise control over both pressure and flow, allowing for fine-tuning of the lift cylinder’s movement.
In summary, lift cylinders are designed to handle variations in fluid pressure and flow rate to ensure smooth and controlled lifting operations. With the use of control valves, robust cylinder design, and fluid control systems, lift cylinders can adapt to changes in fluid pressure and flow rate, providing reliable and efficient performance.

Can Lift Cylinders Be Used in Lifting and Lowering Platforms for Accessibility?
Yes, lift cylinders can be used in lifting and lowering platforms to provide accessibility for individuals with mobility challenges. These cylinders play a crucial role in the operation of accessibility platforms, such as wheelchair lifts, vertical platform lifts, or scissor lifts. Here’s a detailed explanation of how lift cylinders can be used in lifting and lowering platforms for accessibility:
- Lifting Mechanism:
- Smooth and Controlled Movement:
- Weight Capacity:
- Space Optimization:
- Reliability and Durability:
- Integration with Safety Features:
Lift cylinders serve as the primary lifting mechanism in accessibility platforms. These platforms are designed to raise or lower individuals, including wheelchair users, to different heights, allowing them to access elevated areas or overcome vertical barriers. Lift cylinders are typically integrated into the platform structure and connected to a hydraulic or pneumatic system. When activated, the cylinders extend or retract, lifting or lowering the platform in a controlled manner.
Lift cylinders ensure smooth and controlled movement of the accessibility platform during the lifting and lowering process. The cylinders are designed to provide precise and gradual motion, allowing for safe and comfortable vertical transportation. They can be equipped with features such as flow control valves or adjustable dampening to regulate the speed and prevent abrupt movements. Lift cylinders enable individuals to transition between different levels smoothly and securely.
Accessibility platforms need to support the weight of individuals using them, including wheelchair users and their mobility devices. Lift cylinders are manufactured with varying weight capacities to accommodate different load requirements. The cylinders are designed to withstand the vertical forces exerted on the platform and ensure stability and safety during operation. Lift cylinder specifications, such as bore size, rod diameter, and material strength, are carefully selected to match the intended weight capacity of the accessibility platform.
Lift cylinders contribute to space optimization in accessibility platforms. These cylinders are compact and can be integrated within the platform structure, minimizing the need for additional space or external lifting mechanisms. The compact design of lift cylinders allows for efficient utilization of the available platform area, ensuring that the platform can be installed in various settings, including tight spaces or existing structures where space is limited.
Lift cylinders are engineered for reliability and durability to meet the demanding requirements of accessibility platforms. They are designed to withstand frequent usage, heavy loads, and harsh operating conditions. Lift cylinders undergo rigorous testing and quality control measures to ensure their performance and longevity. Manufacturers often provide warranties and maintenance guidelines to support the long-term reliability and safety of lift cylinders used in lifting and lowering platforms.
Accessibility platforms incorporate various safety features to protect users during vertical transportation. Lift cylinders can be integrated with these safety features to enhance the overall system. For example, pressure relief valves can be installed in the hydraulic system to prevent excessive force in case of a malfunction or overload. Additionally, safety sensors, emergency stop buttons, and interlocks can be connected to the lift cylinder system to provide additional layers of safety and control.
Lift cylinders are essential components in lifting and lowering platforms for accessibility. Their role in providing the lifting mechanism, ensuring smooth and controlled movement, accommodating weight capacity, optimizing space, and contributing to reliability and safety makes them a valuable choice for creating inclusive environments and improving accessibility for individuals with mobility challenges.

How does a lift cylinder handle variations in load weight and pressure?
A lift cylinder is designed to handle variations in load weight and pressure to ensure efficient and safe operation. Here’s an explanation of how a lift cylinder handles these variations:
1. Design Considerations:
Lift cylinders are designed with specific load capacities and pressure ratings in mind. The components, such as the cylinder barrel, piston, and seals, are selected and sized accordingly to handle the anticipated loads and pressures. The design factors in safety margins to accommodate variations in load weight and pressure within the specified operational limits.
2. Hydraulic System:
The hydraulic system that powers the lift cylinder plays a crucial role in handling variations in load weight and pressure. The system includes components such as pumps, valves, and control systems that regulate the flow and pressure of hydraulic fluid. By adjusting the system parameters, such as the pump output or valve settings, the hydraulic system can adapt to different load weights and pressure requirements.
3. Pressure Regulation:
Lift cylinders often incorporate pressure regulation mechanisms to handle variations in load weight and pressure. Pressure relief valves or pressure control valves are commonly used to maintain the desired pressure level within the cylinder. These valves ensure that the pressure does not exceed the specified limits, protecting the cylinder and other components from potential damage.
4. Balanced Design:
Lift cylinders are designed to achieve a balanced configuration that minimizes the impact of load weight variations. The placement of the piston and rod within the cylinder barrel is carefully engineered to distribute the load evenly and maintain stability. This balanced design helps to mitigate the effects of load weight changes on the cylinder’s performance and ensures smooth operation.
5. Control and Monitoring:
Advanced lift cylinder systems may incorporate control and monitoring features to handle variations in load weight and pressure more effectively. Sensors and feedback mechanisms can provide real-time data on load weight and cylinder performance, allowing the system to make adjustments as needed. This enhances the overall control and stability of the lift cylinder in response to changing conditions.
In summary, a lift cylinder handles variations in load weight and pressure through careful design considerations, hydraulic system adjustments, pressure regulation mechanisms, balanced configurations, and control and monitoring features. These aspects work together to ensure that the lift cylinder operates safely and efficiently, accommodating different load requirements while maintaining optimal performance.


editor by CX 2024-01-17