Tag Archives: oxygen cylinder portable

China wholesaler 5L High Pressure Portable Medical Oxygen Gas Cylinder with Good quality

Product Description

Model NO.:ISO140-5-150 gas cylinder
 
Material:Steel
Usage:Automation and Control
 
Structure:Gas – Liquid Damping Cylinder
Double-Acting Cylinder Type:Common Cylinder
 
Standard:Standard
Pressure Direction:Double-acting Cylinder
 
Power:Hydraulic
Special Cylinder Type:Tandem Cylinder

 
Export Markets:South America, Eastern Europe, Southeast Asia, Mid East

Type   (mm)
Outside
Diameter		 (L)
Water
Capacity		 (mm)

Height
(Withoutvalve)

 (Kg)

Weight(Without
valve,cap)

 (Mpa)
Working
Pressure		 (mm)
Design Wall
Thickness		 Material
Grades
ISO102-1.8-150 102 1.8 325 3.5 150 3 37Mn
ISO102-3-150 3 498 5.2
ISO102-3.4-150 3.4 555 5.7
ISO102-4.4-150 4.4 700 7.2
ISO108-1.4-150 108 1.4 240 2.9 150 3.2 37Mn
ISO108-1.8-150 1.8 285 3.3
ISO108-2-150 2 310 3.6
ISO108-3-150 3 437 4.9
ISO108-3.6-150 3.6 515 5.7
ISO108-4-150 4 565 6.2
ISO108-5-150 5 692 7.5
ISO140-3.4-150 140 3.4 321 5.8 150 4.1 37Mn
ISO140-4-150 4 365 6.4
ISO140-5-150 5 440 7.6
ISO140-6-150 6 515 8.8
ISO140-6.3-150 6.3 545 9.2
ISO140-6.7-150 6.7 567 9.5
ISO140-7-150 7 595 9.9
ISO140-7.5-150 7.5 632 10.5
ISO140-8-150 8 665 11
ISO140-9-150 9 745 12.2
ISO140-10-150 10 830 13.5
ISO140-11-150 11 885 14.3
ISO140-13.4-150 13.4 1070 17.1
ISO140-14-150 14 1115 17.7
ISO159-7-150 159 7 495 9.8 150 4.7 37Mn
ISO159-8-150 8 554 10.8
ISO159-9-150 9 610 11.7
ISO159-10-150 10 665 12.7
ISO159-11-150 11 722 13.7
ISO159-12-150 12 790 14.8
ISO159-12.5-150 12.5 802 15
ISO159-13-150 13 833 15.6
ISO159-13.4-150 13.4 855 16
ISO159-13.7-150 13.7 878 16.3
ISO159-14-150 14 890 16.5
ISO159-15-150 15 945 17.5
ISO159-16-150 16 1000 18.4
ISO180-8-150 180 8 480 13.8 150 5.3 37Mn
ISO180-10-150 10 570 16.1
ISO180-12-150 12 660 18.3
ISO180-15-150 15 790 21.6
ISO180-20-150 20 1015 27.2
ISO180-21-150 21 1061 28.3
ISO180-21.6-150 21.6 1087 29
ISO180-22.3-150 22.3 1100 29.4
ISO219-20-150 219 20 705 27.8 150 6.1 37Mn
ISO219-25-150 25 855 32.8
ISO219-27-150 27 915 34.8
ISO219-36-150 36 1185 43.9
ISO219-38-150 38 1245 45.9
ISO219-40-150 40 1305 47.8
ISO219-45-150 45 1455 52.9
ISO219-46.7-150 46.7 1505 54.6
ISO219-50-150 50 1605 57.9

 

No.  Serial No.  The weight without valve&cap (kg) Volumetric Capacity (L) inflow(ml) Total expansion (ml) Permanent    expansion    (ml)  Percent of Permanent to totalexpansion (%) Test Pressure          (MPa)  Lot and Batch         No. Product
Ref.  		 Weight
(Water)
(kg)		 Holding
Time
(s)  		 Temperature(ºC)  
1 20R213001 8.5 5.3 155 63.5  1 1.6  25 R11 Φ140 13.8 30 17
2 20R213002 8.4 5.3 157 65.4  0.9 1.4  25 R11 Φ140 13.7 30 17
3 20R213003 7.5 5.3 155 63.5  0.7 1.1  25 R11 Φ140 12.8 30 17
4 20R213004 7.6 5.3 156 64.4  1 1.6  25 R11 Φ140 12.9 30 17
5 20R213005 8.7 5.2 155 64.6  0.7 1.1  25 R11 Φ140 13.9 30 17
6 20R213006 8.5 5.3 158 66.4  0.7 1.1  25 R11 Φ140 13.8 30 17
7 20R213007 7.6 5.2 156 65.6  0.9 1.4  25 R11 Φ140 12.8 30 17
8 20R213008 7.5 5.3 158 66.4  0.7 1.1  25 R11 Φ140 12.8 30 17
9 20R213009 8.4 5.2 157 66.6  0.8 1.2  25 R11 Φ140 13.6 30 17
10 20R213571 7.5 5.3 155 63.5  1 1.6  25 R11 Φ140 12.8 30 17
11 20R213011 7.6 5.2 157 66.6  0.7 1.1  25 R11 Φ140 12.8 30 17
12 20R213012 7.6 5.3 156 64.4  0.9 1.4  25 R11 Φ140 12.9 30 17
13 20R213013 8.4 5.3 154 62.5  0.8 1.3  25 R11 Φ140 13.7 30 17
14 20R213014 7.6 5.2 157 66.6  0.8 1.2  25 R11 Φ140 12.8 30 17
15 20R213015 7.6 5.2 157 66.6  1 1.5  25 R11 Φ140 12.8 30 17
16 20R213016 8.4 5.4 155 62.3  0.7 1.1  25 R11 Φ140 13.8 30 17
17 20R213017 7.6 5.3 158 66.4  0.8 1.2  25 R11 Φ140 12.9 30 17
18 20R213018 7.5 5.4 157 64.3  0.9 1.4  25 R11 Φ140 12.9 30 17
19 20R213019 7.6 5.3 155 63.5  0.7 1.1  25 R11 Φ140 12.9 30 17
20 20R213571 7.6 5.2 153 62.6  0.9 1.4  25 R11 Φ140 12.8 30 17
21 20R213571 7.6 5.2 157 66.6  0.7 1.1  25 R11 Φ140 12.8 30 17
22 20R213571 8.5 5.4 155 62.3  1.1 1.8  25 R11 Φ140 13.9 30 17
23 20R213571 7.7 5.3 156 64.4  0.9 1.4  25 R11 Φ140 13 30 17
24 20R213571 7.6 5.3 157 65.4  0.8 1.2  25 R11 Φ140 12.9 30 17
25 20R213571 8.4 5.4 156 63.3  0.9 1.4  25 R11 Φ140 13.8 30 17
1 20R213026 7.6 5.3 155 63.5  1 1.6  25 R11 Φ140 12.9 30 17
2 20R213571 7.6 5.2 157 66.6  0.9 1.4  25 R11 Φ140 12.8 30 17
3 20R213571 8.4 5.2 155 64.6  0.9 1.4  25 R11 Φ140 13.6 30 17
4 20R213571 9 5.4 155 62.3  1 1.6  25 R11 Φ140 14.4 30 17
5 20R213030 7.6 5.3 157 65.4  0.8 1.2  25 R11 Φ140 12.9 30 17
6 20R213031 7.5 5.4 156 63.3  1 1.6  25 R11 Φ140 12.9 30 17
7 20R213032 7.5 5.3 154 62.5  0.9 1.4  25 R11 Φ140 12.8 30 17
8 20R213033 8.4 5.4 155 62.3  0.8 1.3  25 R11 Φ140 13.8 30 17
9 20R213034 7.4 5.4 158 65.3  1 1.5  25 R11 Φ140 12.8 30 17
10 20R213035 8.8 5.1 155 65.7  0.8 1.2  25 R11 Φ140 13.9 30 17
11 20R213036 7.6 5.2 158 67.6  1 1.5  25 R11 Φ140 12.8 30 17
12 20R213037 8.5 5.4 156 63.3  0.9 1.4  25 R11 Φ140 13.9 30 17
13 20R213038 7.5 5.2 155 64.6  0.8 1.2  25 R11 Φ140 12.7 30 17
14 20R213039 8.4 5.2 157 66.6  1 1.5  25 R11 Φ140 13.6 30 17
15 20R213040 7.5 5.3 156 64.4  0.9 1.4  25 R11 Φ140 12.8 30 17
16 20R213041 7.5 5.3 154 62.5  0.7 1.1  25 R11 Φ140 12.8 30 17
17 20R213042 7.5 5.3 157 65.4  0.7 1.1  25 R11 Φ140 12.8 30 17
18 20R213043 8.6 5.3 157 65.4  0.9 1.4  25 R11 Φ140 13.9 30 17
19 20R213044 7.4 5.4 155 62.3  1 1.6  25 R11 Φ140 12.8 30 17
20 20R213045 7.6 5.3 158 66.4  0.9 1.4  25 R11 Φ140 12.9 30 17
21 20R213046 7.5 5.3 157 65.4  1 1.5  25 R11 Φ140 12.8 30 17
22 20R213047 7.4 5.3 155 63.5  0.7 1.1  25 R11 Φ140 12.7 30 17
23 20R213048 7.5 5.2 153 62.6  1 1.6  25 R11 Φ140 12.8 30 17
24 20R213049 7.5 5.2 157 66.6  0.7 1.1  25 R11 Φ140 12.7 30 17
25 20R213050 8.4 5.4 155 62.3  0.9 1.4  25 R11 Φ140 13.8 30 17
1 20R213051 7.5 5.4 155 62.3  1 1.6  25 R11 Φ140 12.9 30 17
2 20R213052 8.4 5.2 157 66.6  0.9 1.4  25 R11 Φ140 13.6 30 17
3 20R213053 7.4 5.2 155 64.6  0.7 1.1  25 R11 Φ140 12.6 30 17

        /* 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

Material: Steel
Usage: Print
Structure: Piston Cylinder
Power: Hydraulic
Standard: Standard
Pressure Direction: Double-acting Cylinder
Customization:
Available

|

hydraulic cylinder

Are there any emerging trends in hydraulic cylinder technology, such as smart features?

Yes, there are several emerging trends in hydraulic cylinder technology, including the integration of smart features. As industries continue to adopt advanced technologies and seek greater efficiency, hydraulic cylinders are being equipped with innovative capabilities to enhance their performance and provide additional benefits. Here are some of the emerging trends in hydraulic cylinder technology:

1. Sensor Integration:

– One of the significant trends in hydraulic cylinder technology is the integration of sensors. Sensors can be embedded within the hydraulic cylinder to monitor various parameters such as pressure, temperature, position, and load. These sensors provide real-time data, allowing for condition monitoring, predictive maintenance, and improved operational control. By collecting and analyzing data, operators can optimize the performance of hydraulic systems, detect potential issues in advance, and prevent failures, resulting in increased reliability and reduced downtime.

2. Connectivity and IoT:

– Hydraulic cylinders are being integrated into the Internet of Things (IoT) ecosystem, enabling connectivity and data exchange. By connecting hydraulic cylinders to a network, operators can remotely monitor and control their performance. IoT-enabled hydraulic cylinders facilitate features such as remote diagnostics, performance optimization, and predictive maintenance. The connectivity aspect allows for better integration with overall equipment systems and enables data-driven decision-making for improved efficiency and productivity.

3. Energy-Efficient Designs:

– With the increasing focus on sustainability and energy efficiency, hydraulic cylinder technology is evolving to incorporate energy-saving features. Manufacturers are developing hydraulic cylinders with improved sealing technologies, reduced friction, and optimized fluid flow dynamics. These advancements minimize energy losses and increase overall system efficiency. Energy-efficient hydraulic cylinders contribute to reduced power consumption, lower operating costs, and a smaller environmental footprint.

4. Advanced Materials and Coatings:

– The use of advanced materials and coatings is another emerging trend in hydraulic cylinder technology. Manufacturers are exploring lightweight materials, such as composites and alloys, to reduce the overall weight of hydraulic cylinders without compromising strength and durability. Furthermore, specialized coatings and surface treatments are being applied to improve corrosion resistance, wear resistance, and lifespan. These advancements enhance the longevity and reliability of hydraulic cylinders, particularly in demanding environments.

5. Intelligent Control Systems:

– Hydraulic cylinder technology is embracing intelligent control systems that optimize performance and enable advanced functionalities. These systems utilize algorithms, machine learning, and artificial intelligence to automate processes, adapt to changing conditions, and optimize hydraulic cylinder movements. Intelligent control systems can adjust parameters in real-time, ensuring precise and efficient operation. This trend allows for increased automation, improved productivity, and enhanced safety in hydraulic system applications.

6. Predictive Maintenance:

– Predictive maintenance is gaining prominence in hydraulic cylinder technology. By utilizing data collected from sensors and monitoring systems, predictive maintenance algorithms can analyze the condition and performance of hydraulic cylinders. This analysis helps to identify potential failures or degradation in advance, enabling proactive maintenance actions. Predictive maintenance reduces unplanned downtime, extends the lifespan of hydraulic cylinders, and optimizes maintenance schedules, resulting in cost savings and improved equipment availability.

7. Enhanced Safety Features:

– Hydraulic cylinder technology is incorporating enhanced safety features to improve operator and equipment safety. These features include integrated safety valves, load monitoring systems, and emergency stop functionalities. Safety systems in hydraulic cylinders help prevent accidents, protect against overloads, and ensure reliable operation. The integration of advanced safety features contributes to safer working environments and compliance with stringent safety regulations.

These emerging trends in hydraulic cylinder technology demonstrate the industry’s focus on innovation, performance optimization, and sustainability. The integration of smart features, connectivity, advanced materials, and predictive maintenance capabilities enables hydraulic cylinders to operate more efficiently, provide real-time insights, and enhance overall system performance. As technology continues to advance, hydraulic cylinder technology is expected to evolve further, offering increased functionality and efficiency for various industries and applications.

hydraulic cylinder

Handling Challenges of Different Fluid Viscosities in Hydraulic Cylinders

Hydraulic cylinders are designed to handle the challenges associated with different fluid viscosities. The viscosity of hydraulic fluid can vary based on temperature, type of fluid used, and other factors. Hydraulic systems need to accommodate these variations to ensure optimal performance and efficiency. Let’s explore how hydraulic cylinders handle the challenges of different fluid viscosities:

  1. Fluid Selection: Hydraulic cylinders are designed to work with a range of hydraulic fluids, each with its specific viscosity characteristics. The selection of an appropriate fluid with the desired viscosity is crucial to ensure optimal performance. Manufacturers provide guidelines regarding the recommended viscosity range for specific hydraulic systems and cylinders. By choosing the right fluid, hydraulic cylinders can effectively handle the challenges posed by different fluid viscosities.
  2. Viscosity Compensation: Hydraulic systems often incorporate features to compensate for variations in fluid viscosity. For example, some hydraulic systems utilize pressure compensating valves that adjust the flow rate based on the viscosity of the fluid. This compensation ensures consistent performance across different operating conditions and fluid viscosities. Hydraulic cylinders work in conjunction with these compensation mechanisms to maintain precision and control, regardless of the fluid viscosity.
  3. Temperature Control: Fluid viscosity is highly dependent on temperature. Hydraulic cylinders employ various temperature control mechanisms to address the challenges posed by temperature-induced viscosity changes. Heat exchangers, coolers, and thermostatic valves are commonly used to regulate the temperature of the hydraulic fluid within the system. By controlling the fluid temperature, hydraulic cylinders can maintain the desired viscosity range, ensuring reliable and efficient operation.
  4. Efficient Filtration: Contaminants in hydraulic fluid can affect its viscosity and overall performance. Hydraulic systems incorporate efficient filtration systems to remove particles and impurities from the fluid. Clean fluid with the appropriate viscosity ensures optimal functioning of hydraulic cylinders. Regular maintenance and filter replacements are essential to uphold the desired fluid viscosity and prevent issues related to fluid contamination.
  5. Proper Lubrication: Different fluid viscosities can impact the lubrication properties within hydraulic cylinders. Lubrication is essential for minimizing friction and wear between moving parts. Hydraulic systems employ lubricants specifically formulated for the anticipated fluid viscosity range. Adequate lubrication ensures smooth operation and extends the lifespan of hydraulic cylinders, even in the presence of varying fluid viscosities.

In summary, hydraulic cylinders employ various strategies to handle the challenges associated with different fluid viscosities. By selecting appropriate fluids, incorporating viscosity compensation mechanisms, controlling temperature, implementing efficient filtration, and ensuring proper lubrication, hydraulic cylinders can accommodate variations in fluid viscosity. These measures enable hydraulic systems to deliver consistent performance, precise control, and efficient operation across different fluid viscosity ranges.

hydraulic cylinder

How do hydraulic cylinders handle variations in load and pressure during operation?

Hydraulic cylinders are designed to handle variations in load and pressure during operation, making them versatile and efficient in various applications. Hydraulic systems use the principle of transmitting force through incompressible fluid to generate linear motion. Here’s a detailed explanation of how hydraulic cylinders handle variations in load and pressure:

1. Load Handling:

– Hydraulic cylinders are capable of handling different loads by utilizing the principle of Pascal’s law. According to Pascal’s law, when pressure is applied to a fluid in a confined space, the pressure is transmitted equally in all directions. In a hydraulic cylinder, the force applied to the piston results in an equal force output at the rod end of the cylinder. The size of the piston and the pressure exerted determine the force generated by the cylinder. Therefore, hydraulic cylinders can handle a wide range of loads by adjusting the pressure applied to the fluid.

2. Pressure Compensation:

– Hydraulic systems incorporate pressure compensation mechanisms to handle variations in pressure during operation. Pressure compensating valves or regulators are often used to maintain a consistent pressure in the hydraulic system, regardless of load changes. These valves automatically adjust the flow rate or pressure to ensure stable and controlled operation of the hydraulic cylinder. By compensating for pressure variations, hydraulic cylinders can maintain a consistent force output and prevent damage or instability due to excessive pressure.

3. Control Valves:

– Control valves play a crucial role in managing variations in pressure and load during hydraulic cylinder operation. Directional control valves, such as spool valves or poppet valves, control the flow of hydraulic fluid into and out of the cylinder, enabling precise control of the cylinder’s extension and retraction. By adjusting the position of the control valve, the speed and force exerted by the hydraulic cylinder can be regulated to match the load and pressure requirements of the application. Control valves allow for efficient handling of variations in load and pressure by providing fine-tuned control over the hydraulic system.

4. Accumulators:

– Hydraulic accumulators are often used to handle fluctuations in pressure and load. Accumulators store hydraulic fluid under pressure, which can be released or absorbed as needed to compensate for sudden changes in load or pressure. When the load on the hydraulic cylinder decreases, the accumulator releases stored fluid to maintain pressure and prevent pressure spikes. Conversely, when the load on the cylinder increases, the accumulator absorbs excess fluid to maintain system stability. By utilizing accumulators, hydraulic cylinders can effectively handle variations in load and pressure, ensuring smooth and controlled operation.

5. Feedback and Control Systems:

– Advanced hydraulic systems may incorporate feedback and control systems to monitor and adjust the operation of hydraulic cylinders in real-time. Position sensors or pressure sensors provide feedback on the cylinder’s position, force, and pressure, allowing the control system to make continuous adjustments to optimize performance. These systems can automatically adapt to variations in load and pressure, ensuring precise control and efficient operation of the hydraulic cylinder.

6. Design Considerations:

– Proper design considerations, such as selecting the appropriate cylinder size, piston diameter, and rod diameter, are essential for handling variations in load and pressure. The design should account for the maximum anticipated load and pressure conditions to ensure the hydraulic cylinder operates within its specified range. Additionally, the selection of suitable seals, materials, and components that can withstand the anticipated load and pressure variations is crucial for maintaining the reliability and longevity of the hydraulic cylinder.

By utilizing the principles of hydraulic systems, incorporating pressure compensation mechanisms, employing control valves and accumulators, and implementing feedback and control systems, hydraulic cylinders can effectively handle variations in load and pressure during operation. These features and design considerations allow hydraulic cylinders to adapt and perform optimally in a wide range of applications and operating conditions.

China wholesaler 5L High Pressure Portable Medical Oxygen Gas Cylinder with Good quality China wholesaler 5L High Pressure Portable Medical Oxygen Gas Cylinder with Good quality
editor by CX 2023-12-18

China Best Sales 10L Competitive Price Portable Oxygen Cylinder in Iran vacuum pump

Product Description

TPED/CE/EN/ISO/DOT/BV/SGS 2L/5L/7L/8L/10L/14L/20L small portable seamless steel gas cylinders filled with oxygen gas,co2 gas, argon gas,helium gas,mixture gas.etc.

Type   (mm)
Outside
Diameter		 (L)
Water
Capacity		 (mm)
()
Height
(Withoutvalve)		 (Kg)
(,)
Weight(Without
valve,cap)		 (Mpa)
Working
Pressure		 (mm)
Design Wall
Thickness		 Material
Grades
ISO102-1.8-150 102 1.8 325 3.5 150 3 37Mn
ISO102-3-150 3 498 5.2
ISO102-3.4-150 3.4 555 5.7
ISO102-4.4-150 4.4 700 7.2
ISO108-1.4-150 108 1.4 240 2.9 150 3.2 37Mn
ISO108-1.8-150 1.8 285 3.3
ISO108-2-150 2 310 3.6
ISO108-3-150 3 437 4.9
ISO108-3.6-150 3.6 515 5.7
ISO108-4-150 4 565 6.2
ISO108-5-150 5 692 7.5
ISO140-3.4-150 140 3.4 321 5.8 150 4.1 37Mn
ISO140-4-150 4 365 6.4
ISO140-5-150 5 440 7.6
ISO140-6-150 6 515 8.8
ISO140-6.3-150 6.3 545 9.2
ISO140-6.7-150 6.7 567 9.5
ISO140-7-150 7 595 9.9
ISO140-7.5-150 7.5 632 10.5
ISO140-8-150 8 665 11
ISO140-9-150 9 745 12.2
ISO140-10-150 10 830 13.5
ISO140-11-150 11 885 14.3
ISO140-13.4-150 13.4 1070 17.1
ISO140-14-150 14 1115 17.7
ISO159-7-150 159 7 495 9.8 150 4.7 37Mn
ISO159-8-150 8 554 10.8
ISO159-9-150 9 610 11.7
ISO159-10-150 10 665 12.7
ISO159-11-150 11 722 13.7
ISO159-12-150 12 790 14.8
ISO159-12.5-150 12.5 802 15
ISO159-13-150 13 833 15.6
ISO159-13.4-150 13.4 855 16
ISO159-13.7-150 13.7 878 16.3
ISO159-14-150 14 890 16.5
ISO159-15-150 15 945 17.5
ISO159-16-150 16 1000 18.4
ISO180-8-150 180 8 480 13.8 150 5.3 37Mn
ISO180-10-150 10 570 16.1
ISO180-12-150 12 660 18.3
ISO180-15-150 15 790 21.6
ISO180-20-150 20 1015 27.2
ISO180-21-150 21 1061 28.3
ISO180-21.6-150 21.6 1087 29
ISO180-22.3-150 22.3 1100 29.4
ISO219-20-150 219 20 705 27.8 150 6.1 37Mn
ISO219-25-150 25 855 32.8
ISO219-27-150 27 915 34.8
ISO219-36-150 36 1185 43.9
ISO219-38-150 38 1245 45.9
ISO219-40-150 40 1305 47.8
ISO219-45-150 45 1455 52.9
ISO219-46.7-150 46.7 1505 54.6
ISO219-50-150 50 1605 57.9

RECORD OF HYDROSTATIC TESTS ON CYLINDERS                Time≥ 60S
S.N Serial No. The weight without valve&cap(kg) Volumetric Capacity(L)  Total expansion(ml) Permanent expansion(ml)  Percent of Permanent to totalexpanison(%) Test Pressure 250Bar  Lot and Batch No.
1 20S049001 13.7 10.3 76.8  1 1.3  25 S05
2 20S049002 13.7 10.2 78.9  1.1 1.4  25 S05
3 20S049003 14.1 10.2 76.0  0.6 0.8  25 S05
4 20S049004 14.1 10.2 78.0  0.9 1.2  25 S05
5 20S049005 14 10.2 77.0  0.7 0.9  25 S05
6 20S049006 14.3 10.2 77.0  0.6 0.8  25 S05
7 20S049007 13.8 10.3 77.8  1 1.3  25 S05
8 20S049008 14 10.2 76.0  0.6 0.8  25 S05
9 20S049009 14.1 10.2 78.0  0.7 0.9  25 S05
10 20S049571 13.9 10.2 76.0  0.8 1.1  25 S05
11 20S049011 14.1 10.2 79.9  0.7 0.9  25 S05
12 20S049012 13.9 10.1 78.1  0.8 1.0  25 S05
13 20S049013 14 10.2 78.0  0.8 1.0  25 S05
14 20S049014 13.9 10.1 79.1  0.7 0.9  25 S05
15 20S049015 14 10.2 77.0  0.9 1.2  25 S05
16 20S049016 13.9 10.2 77.0  0.8 1.0  25 S05
17 20S049017 14 10.2 78.9  0.7 0.9  25 S05
18 20S049018 14.1 10.2 76.0  0.6 0.8  25 S05
19 20S049019 13.8 10.2 78.0  0.9 1.2  25 S05
20 20S049571 14 10.2 76.0  0.7 0.9  25 S05
21 20S049571 14 10.2 79.9  0.9 1.1  25 S05
22 20S049571 14 10.2 78.0  0.9 1.2  25 S05
23 20S049571 13.9 10.3 78.8  0.7 0.9  25 S05
24 20S049571 14 10.2 79.9  0.8 1.0  25 S05
25 20S049571 14.1 10.2 79.9  0.9 1.1  25 S05
26 20S049026 14.1 10.2 78.0  0.8 1.0  25 S05
27 20S049571 14 10.2 77.0  0.9 1.2  25 S05
28 20S049571 14 10.2 78.9  1 1.3  25 S05
29 20S049571 14 10.3 75.8  0.8 1.1  25 S05
30 20S049030 13.9 10.2 78.9  0.8 1.0  25 S05
31 20S049031 13.9 10.1 79.1  1 1.3  25 S05
32 20S049032 14 10.3 76.8  0.9 1.2  25 S05
33 20S049033 14 10.2 76.0  0.7 0.9  25 S05
34 20S049034 14 10.2 78.9  0.9 1.1  25 S05
35 20S049035 13.9 10.2 79.9  1 1.3  25 S05
36 20S049036 14 10.3 76.8  1.1 1.4  25 S05
37 20S049037 13.8 10.2 78.9  0.6 0.8  25 S05
38 20S049038 13.9 10.2 77.0  0.8 1.0  25 S05
39 20S049039 13.8 10.2 78.0  0.8 1.0  25 S05
40 20S049040 13.9 10.2 78.9  1 1.3  25 S05
41 20S049041 14 10.2 78.0  0.7 0.9  25 S05
42 20S049042 14.2 10.1 81.1  1.1 1.4  25 S05
43 20S049043 14.1 10.2 78.9  0.9 1.1  25 S05
44 20S049044 13.9 10.1 81.1  0.8 1.0  25 S05
45 20S049045 13.9 10.2 78.9  0.9 1.1  25 S05
46 20S049046 14.1 10.2 78.9  1 1.3  25 S05
47 20S049047 13.9 10.2 79.9  0.9 1.1  25 S05
48 20S049048 13.9 10.1 81.1  0.9 1.1  25 S05
49 20S049049 13.6 10.4 75.7  1 1.3  25 S05
50 20S049050 13.9 10.1 77.1  0.8 1.0  25 S05

 

Material: Steel
Usage: Oxygen Gas and Nitrogen Cylinder
Structure: Gas – Liquid Damping Cylinder
Power: Hydraulic
Standard: Standard
Pressure Direction: Single-acting Cylinder
Customization:
Available

|

hydraulic cylinder

Can hydraulic cylinders be integrated with modern telematics and remote monitoring?

Yes, hydraulic cylinders can indeed be integrated with modern telematics and remote monitoring systems. The integration of hydraulic cylinders with telematics and remote monitoring technology offers numerous benefits, including enhanced operational efficiency, improved maintenance practices, and increased overall productivity. Here’s a detailed explanation of how hydraulic cylinders can be integrated with modern telematics and remote monitoring:

1. Sensor Integration:

– Hydraulic cylinders can be equipped with various sensors to gather real-time data about their performance and operating conditions. Sensors such as pressure transducers, temperature sensors, position sensors, and load sensors can be integrated directly into the cylinder or its associated components. These sensors provide valuable information about parameters such as pressure, temperature, position, and load, enabling remote monitoring and analysis of the cylinder’s behavior.

2. Data Transmission:

– The data collected from the sensors in hydraulic cylinders can be transmitted wirelessly or through wired connections to a central monitoring system. Wireless communication technologies such as Bluetooth, Wi-Fi, or cellular networks can be employed to transmit data in real-time. Alternatively, wired connections such as Ethernet or CAN bus can be utilized for data transmission. The choice of communication method depends on the specific requirements of the application and the available infrastructure.

3. Remote Monitoring Systems:

– Remote monitoring systems receive and process the data transmitted from hydraulic cylinders. These systems can be cloud-based or hosted on local servers, depending on the implementation. Remote monitoring systems collect and analyze the data to provide insights into the cylinder’s performance, health, and usage patterns. Operators and maintenance personnel can access the monitoring system through web-based interfaces or dedicated software applications to view real-time data, receive alerts, and generate reports.

4. Condition Monitoring and Predictive Maintenance:

– Integration with telematics and remote monitoring enables condition monitoring and predictive maintenance of hydraulic cylinders. By analyzing the collected data, patterns and trends can be identified, allowing for the detection of potential issues or anomalies before they escalate into major problems. Predictive maintenance algorithms can be applied to the data to generate maintenance schedules, recommend component replacements, and optimize maintenance activities. This proactive approach helps prevent unexpected downtime, reduces maintenance costs, and maximizes the lifespan of hydraulic cylinders.

5. Performance Optimization:

– The data collected from hydraulic cylinders can also be utilized to optimize their performance. By analyzing parameters such as pressure, temperature, and load, operators can identify opportunities for improving operational efficiency. Insights gained from the remote monitoring system can guide adjustments in system settings, load management, or operational practices to optimize the performance of hydraulic cylinders and the overall hydraulic system. This optimization can result in energy savings, improved productivity, and reduced wear and tear.

6. Integration with Equipment Management Systems:

– Telematics and remote monitoring systems can be integrated with broader equipment management systems. This integration allows hydraulic cylinder data to be correlated with data from other components or related machinery, providing a comprehensive view of the overall system’s performance. This holistic approach enables operators to identify potential interdependencies, optimize system-wide performance, and make informed decisions regarding maintenance, repairs, or upgrades.

7. Enhanced Safety and Fault Diagnosis:

– Telematics and remote monitoring can contribute to enhanced safety and fault diagnosis in hydraulic systems. Real-time data from hydraulic cylinders can be used to detect abnormal conditions, such as excessive pressure or temperature, which may indicate potential safety risks. Fault diagnosis algorithms can analyze the data to identify specific issues or malfunctions, enabling prompt intervention and reducing the risk of catastrophic failures or accidents.

In summary, hydraulic cylinders can be effectively integrated with modern telematics and remote monitoring systems. This integration enables the collection of real-time data, remote monitoring of performance, condition monitoring, predictive maintenance, performance optimization, integration with equipment management systems, and enhanced safety. By harnessing the power of telematics and remote monitoring, hydraulic cylinder users can achieve improved efficiency, reduced downtime, optimized maintenance practices, and enhanced overall productivity in various applications and industries.

hydraulic cylinder

Adaptation of Hydraulic Cylinders for Medical Equipment and Aerospace Applications

Hydraulic cylinders have the potential to be adapted for use in medical equipment and aerospace applications, offering unique advantages in these industries. Let’s explore how hydraulic cylinders can be adapted for these specialized fields:

  1. Medical Equipment: Hydraulic cylinders can be adapted for various medical equipment applications, including hospital beds, patient lifts, surgical tables, and rehabilitation devices. Here’s how hydraulic cylinders are beneficial in medical equipment:
    • Positioning and Adjustability: Hydraulic cylinders provide precise and smooth movement, allowing for accurate positioning and adjustments of medical equipment. This is crucial for ensuring patient comfort, proper alignment, and ease of use.
    • Load Handling: Hydraulic cylinders offer high force capabilities, enabling the safe handling of heavy loads in medical equipment. They can support the weight of patients, facilitate smooth transitions, and provide stability during procedures.
    • Controlled Motion: Hydraulic cylinders provide controlled and stable motion, which is essential for delicate medical procedures. The ability to adjust speed, position, and force allows for precise and controlled movements, minimizing patient discomfort and ensuring accurate treatment.
    • Durability and Reliability: Hydraulic cylinders are designed to withstand rigorous use and demanding environments, making them suitable for medical equipment applications. Their durability and reliability contribute to the long-term performance and safety of medical devices.
  2. Aerospace Applications: Hydraulic cylinders can also be adapted for aerospace applications, where lightweight yet robust systems are essential. Here’s how hydraulic cylinders are advantageous in aerospace:
    • Flight Control Systems: Hydraulic cylinders play a critical role in aircraft flight control systems, including ailerons, elevators, rudders, and landing gear. They provide precise and reliable actuation, allowing pilots to control the aircraft’s movements with accuracy and responsiveness.
    • Weight Optimization: Hydraulic cylinders can be designed using lightweight materials, such as aluminum alloys or composite materials, to reduce overall weight. This weight optimization is crucial in aerospace applications to enhance fuel efficiency, payload capacity, and aircraft performance.
    • Shock and Vibration Resistance: Aerospace environments involve significant shock and vibration forces. Hydraulic cylinders can be engineered to withstand these dynamic loads while maintaining performance and reliability, ensuring consistent operation even under extreme conditions.
    • Space Constraints: Hydraulic cylinders can be designed to fit within the space constraints of aircraft or spacecraft. Their compact size and flexible mounting options allow for efficient integration into the limited available space.

In summary, hydraulic cylinders can be adapted for use in medical equipment and aerospace applications, leveraging their precise positioning, load handling capabilities, controlled motion, durability, and reliability. In medical equipment, hydraulic cylinders enable comfortable patient positioning, smooth transitions, and controlled movements during procedures. In aerospace, hydraulic cylinders provide precise actuation, weight optimization, shock and vibration resistance, and space-efficient solutions. By adapting hydraulic cylinders to these specialized fields, manufacturers can meet the unique requirements and enhance the performance of medical equipment and aerospace systems.

hydraulic cylinder

How do hydraulic cylinders generate force and motion using hydraulic fluid?

Hydraulic cylinders generate force and motion by utilizing the principles of fluid mechanics, specifically Pascal’s law, in conjunction with the properties of hydraulic fluid. The process involves the conversion of hydraulic energy into mechanical force and linear motion. Here’s a detailed explanation of how hydraulic cylinders achieve this:

1. Pascal’s Law:

– Hydraulic cylinders operate based on Pascal’s law, which states that when pressure is applied to a fluid in a confined space, it is transmitted equally in all directions. In the context of hydraulic cylinders, this means that when hydraulic fluid is pressurized, the force is evenly distributed throughout the fluid and transmitted to all surfaces in contact with the fluid.

2. Hydraulic Fluid and Pressure:

– Hydraulic systems use a specialized fluid, typically hydraulic oil, as the working medium. This fluid is stored in a reservoir and circulated through the system by a hydraulic pump. The pump pressurizes the fluid, creating hydraulic pressure that can be controlled and directed to various components, including hydraulic cylinders.

3. Cylinder Design and Components:

– Hydraulic cylinders consist of several key components, including a cylindrical barrel, a piston, a piston rod, and various seals. The barrel is a hollow tube that houses the piston and allows for fluid flow. The piston divides the cylinder into two chambers: the rod side and the cap side. The piston rod extends from the piston and provides a connection point for external loads. Seals are used to prevent fluid leakage and maintain hydraulic pressure within the cylinder.

4. Fluid Input and Motion:

– To generate force and motion, hydraulic fluid is directed into one side of the cylinder, creating pressure on the corresponding surface of the piston. This pressure is transmitted through the fluid to the other side of the piston.

5. Force Generation:

– The force generated by a hydraulic cylinder is a result of the pressure applied to a specific surface area of the piston. The force exerted by the hydraulic cylinder can be calculated using the formula: Force = Pressure × Area. The area is determined by the diameter of the piston or the piston rod, depending on which side of the cylinder the fluid is acting upon.

6. Linear Motion:

– As the pressurized hydraulic fluid acts on the piston, it generates a force that moves the piston in a linear direction within the cylinder. This linear motion is transferred to the piston rod, which extends or retracts accordingly. The piston rod can be connected to external components or machinery, allowing the generated force to perform various tasks, such as lifting, pushing, pulling, or controlling mechanisms.

7. Control and Regulation:

– The force and motion generated by hydraulic cylinders can be controlled and regulated by adjusting the flow of hydraulic fluid into the cylinder. By regulating the flow rate, pressure, and direction of the fluid, the speed, force, and direction of the cylinder’s movement can be precisely controlled. This control allows for accurate positioning, smooth operation, and synchronization of multiple cylinders in complex machinery.

8. Return and Recirculation of Fluid:

– After the hydraulic cylinder completes its stroke, the hydraulic fluid on the opposite side of the piston needs to be returned to the reservoir. This is typically achieved through hydraulic valves that control the flow direction, allowing the fluid to return and be recirculated in the system for further use.

In summary, hydraulic cylinders generate force and motion by utilizing the principles of Pascal’s law. Pressurized hydraulic fluid acts on the piston, creating force that moves the piston in a linear direction. This linear motion is transferred to the piston rod, allowing the generated force to perform various tasks. By controlling the flow of hydraulic fluid, the force and motion of hydraulic cylinders can be precisely regulated, contributing to their versatility and wide range of applications in machinery.

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editor by CX 2023-12-04