furniture gas struts is delivered by AOSITE Hardware Precision Manufacturing Co.LTD with the customer focus - 'Quality First'. Our commitment to its quality is evident from our Total Quality Management program. We have set global standards to qualify for International Standard ISO 9001 certification. And high quality materials are selected to ensure its the quality from the source.
With our reliable, stable, and durable products selling hot day by day, the reputation of AOSITE also has been wide-spreading at home and abroad. Today, a larger number of customers give us positive comments and keep repurchasing from us. Those compliments which go like 'Your products help boost our business.' are viewed as the strongest supports to us. We will keep developing products and updating ourselves to achieve the goal of 100% customer satisfaction and bring them 200% added values.
At AOSITE, customers can many considerate services - all products, including furniture gas struts can be made to measure. Professional OEM/ODM service is available. Samples for testing is provided as well.
Hydraulic hinge is a kind of hinge. Many people don't know how to adjust the cushion of hydraulic hinge. Today I will tell you how to adjust the cushion of hydraulic hinge.
1. How to adjust the buffer of hydraulic collar
1. First, you need to observe the position of the two ends of the hydraulic hinge, because most of the jacks on the upper and lower ends of the hydraulic hinge can be adjusted with 6 or 8 hexagon socket screws, so make sure first. Its size, and then use the appropriate screw for insertion.
2. Next, rotate by the size of the buffer you want to adjust. Generally, turning to the left is tightening, so that the hydraulic effect is more state and the buffering effect is more obvious, while turning to the right is loosening, then you can make The cushioning effect in hydraulic hinges is slow-some cushioning time is longer.
2. What is the principle of hydraulic hinge
1. Power: When the hinge is opened, the torsion spring built in the central shaft of the closing jaw is twisted and deformed to produce a counteracting closing force;
2. Hydraulic pressure: A small oil cylinder is built in the bottom of the joint jaw, and the piston with the oil return hole slides back and forth along the wall of the oil cylinder to cause blockage, that is, hydraulic pressure;
3.Cushioning: When the hinge is closed, the pressure generated by the twisting of the torsion spring forces the hydraulic oil in the cylinder to flow through the small hole of the piston. Because of the small diameter of the oil hole, the oil flow rate is slow, which prevents the torsion spring from closing quickly, that is, cushioning.
Choosing the Right Gas Spring: A Comprehensive Guide
Selecting the appropriate gas spring can be a daunting task, considering the multitude of options available. These mechanical springs, which use compressed gas to store energy, find application in diverse industries like aerospace, automotive, marine, and industrial machinery. They are also found in everyday objects such as chairs, cabinets, and doors. To help you make an informed decision, we present a comprehensive guide to choosing the correct gas spring.
Understanding Gas Springs
Gas springs, also known as gas struts, gas lift springs, or gas shocks, are ideal for lifting or holding objects in a controlled manner. They work by utilizing compressed gas to store energy, enabling them to reduce the weight of an object and facilitate movement. Whether it's adjusting seat height in chairs, lifting the hatch on a car, or controlling the movement of machinery, gas springs provide reliable support.
Types of Gas Springs
When selecting a gas spring, the first consideration is the specific application. There are three primary types of gas springs:
1. Lift Gas Springs: These springs either extend or retract to provide a linear force in a single direction. They are commonly used in industries such as furniture, automotive, aerospace, and marine for holding objects in position or providing lifting assistance.
2. Lockable Gas Springs: Offering the additional feature of locking at any position within the stroke, lockable gas springs are crucial for maintaining specific positions. They are widely utilized in furniture, automotive, and medical equipment.
3. Dampers: Dampers are instrumental in controlling the movement of an object in both compression and extension directions. By restricting the flow of gas or oil within the cylinder, they ensure a controlled movement. Dampers are frequently employed in automotive, machinery, and aircraft applications.
Load Capacity
The second factor to consider is the load capacity of the gas spring. It is essential to select a spring that can handle the intended load safely and efficiently. Load capacity refers to the maximum weight that a gas spring can support while extended or compressed. It is generally recommended to choose a gas spring with a slightly higher load capacity than the weight of the object it will support.
Stroke Length
The stroke length of a gas spring is the distance it can travel from fully extended to fully compressed. Selecting the correct stroke length is crucial to ensure the gas spring fits the application properly. An insufficient stroke length can limit the object's movement, while an excessively long stroke length is not only inefficient but also fails to provide adequate support.
Mounting Orientation
Considering the mounting orientation is the fourth crucial factor. The gas spring's performance can be influenced by its orientation, be it horizontal or vertical. It is vital to select the appropriate orientation to ensure safe and efficient operation. Variables such as temperature, orientation, and speed of movement can impact a gas spring's performance.
End Fittings
The choice of end fittings is another key consideration. End fittings are the connectors that attach the gas spring to the supported object. Selecting the correct end fittings guarantees a secure fit for the gas spring in the application. Several types of end fittings are available, including ball joints, clevises, and threaded end fittings.
In conclusion, choosing the correct gas spring for your project may seem overwhelming, but considering these five factors will help you make an informed decision. Understanding the type of gas spring required, load capacity, stroke length, mounting orientation, and selecting suitable end fittings ensures safe and efficient operation. Optimal performance and improved functionality of your product are achievable with the right gas spring.
Gas springs, also referred to as gas struts, play a vital role in numerous mechanical systems such as car trunks, office chairs, and industrial machinery. These springs utilize pressurized gas to provide force and support for various applications. Nonetheless, like any mechanical component, gas springs can deteriorate over time, resulting in reduced performance or even complete failure. Thankfully, repairing a gas spring is a relatively simple process that can be executed with the right tools and knowledge. This article will outline the step-by-step procedure involved in fixing a gas spring.
Step 1: Disassembling the Gas Spring
The first step in repairing a gas spring is to disassemble it. Start by removing the gas spring from its mounting position. This may require the use of a spanner wrench and a pry bar, depending on the type of fittings used. Once the spring is disconnected, you need to release the gas pressure within the spring. Be cautious during this step, as the gas can be hazardous. To release the pressure, compress the piston rod slowly, allowing the gas to escape.
Step 2: Identifying the Issue
After disassembling the gas spring, it is essential to identify the problem. Common issues with gas springs include leaking seals, damaged shafts, and worn-out valve cores. Carefully inspect the seals, shaft, and valve core for any signs of damage. If you find a damaged component, it must be replaced. If you are uncertain about the problem, it may be necessary to seek professional assistance in diagnosing the spring.
Step 3: Replacing Faulty Components
Once you have identified the problem, proceed to replace the faulty component. You can usually find replacement parts at industrial supply stores or order them online. To replace a damaged seal, remove the old seal and install the new one using a seal installation tool. A damaged shaft can be replaced by removing the old shaft and installing a new one with the aid of a shaft press. A worn-out valve core can be replaced by unscrewing the old one and threading in a new valve core.
Step 4: Reassembling the Gas Spring
With the replacement part in place, it is time to reassemble the gas spring. Start by repositioning the piston rod and installing the end fittings. Make sure everything is securely attached. Next, compress the piston rod to force the gas back into the cylinder. Once the gas spring is pressurized, release the piston rod to ensure smooth operation. Finally, reattach the gas spring to its mounting position.
Step 5: Testing
The final step in repairing a gas spring involves thorough testing. To test the gas spring, subject it to the force it is designed to support. If the gas spring is for an office chair or car trunk, sit in the chair or open and close the trunk to ensure that the gas spring provides sufficient force. If the gas spring is for industrial machinery, test the machinery to verify its proper functioning with the gas spring in place.
Repairing a gas spring is a straightforward process that can be accomplished with minimal tools and knowledge. By following the steps outlined in this article, you can save money on replacement parts and maintain the smooth operation of your mechanical systems. Always take precautions when working with compressed gas and seek professional assistance if you are uncertain about the problem or how to fix it.
In summary, gas springs are essential components in various mechanical systems, and their proper functioning is crucial for optimal performance. With the right tools and knowledge, repairing a gas spring is a relatively simple task that can be done by following a step-by-step procedure. By disassembling the gas spring, identifying the issue, replacing faulty components, reassembling the spring, and testing its functionality, you can extend the lifespan of your gas spring and ensure the smooth operation of your mechanical systems. Remember to prioritize safety and seek professional help if needed.
Gas springs are widely used in a variety of applications, including automotive, machinery, and furniture. Their primary purpose is to provide reliable support for lifting, lowering, and counterbalancing operations. Accurate measurement of gas springs is crucial to ensure proper functionality. In this article, we will explore different methods for accurately measuring gas springs, providing detailed instructions to ensure consistency and safety.
Method 1: Measuring the extended length
The extended length is a critical dimension of a gas spring, representing its fully extended position. To measure this length accurately, follow the steps outlined below:
1. Place the gas spring on a flat surface in its fully extended position, ensuring that it is stable and secure.
2. Use a measuring tape or ruler to measure the distance from the center of one end fitting to the center of the opposite end fitting. Make sure to measure from the center to ensure accuracy.
3. Record the measurement, noting the units (e.g., centimeters or inches) for future reference.
Method 2: Measuring the compressed length
The compressed length is another important dimension of a gas spring, representing its fully compressed position. To measure this length accurately, follow the steps outlined below:
1. Place the gas spring on a flat surface in its fully compressed position, ensuring it is stable and secure.
2. Use a measuring tape or ruler to measure the distance from the center of one end fitting to the center of the opposite end fitting. Again, be sure to measure from the center for accuracy.
3. Record the measurement, including the corresponding units.
Method 3: Measuring the stroke length
The stroke length refers to the difference between the extended length and compressed length of a gas spring. It indicates the total distance the gas spring can travel. To measure the stroke length accurately, follow the steps outlined below:
1. Measure the extended length and compressed length of the gas spring using the methods described above.
2. Subtract the compressed length from the extended length to determine the stroke length. This calculation provides the total travel distance of the gas spring.
3. Record the measurement and units accordingly.
Method 4: Measuring the force
The force of a gas spring represents the pressure it can exert when compressed or extended. Measuring the force accurately is crucial for determining the spring's suitability for specific applications. To measure the force, follow the steps outlined below:
1. Attach the gas spring to a fixed object, such as a wall or bench, ensuring it is securely fastened and cannot move during measurement.
2. Attach a fish scale or a force gauge to the free end of the gas spring, making sure it is accurately aligned with the direction of force.
3. Slowly compress or extend the gas spring, applying an even force until fully compressed or extended.
4. Take note of the reading on the fish scale or force gauge at any given point of travel. This reading represents the force exerted by the gas spring at that specific position.
5. Record the measurement, including the corresponding units.
Method 5: Measuring the diameter
The diameter of a gas spring significantly influences its strength and load capacity. To measure the diameter accurately, follow the steps outlined below:
1. Measure the distance between the center of the piston rod and the outer edge of the cylinder. Ensure the gas spring's components are properly aligned and the measurement is taken at the widest point.
2. Record the measurement, noting the units used for future reference.
In conclusion, accurate measurement of gas springs is essential to ensure their proper functioning and safety. By following the methods described above, you can accurately measure the different dimensions of gas springs, including the extended and compressed lengths, stroke length, force, and diameter. These measurements will facilitate the selection of the right gas spring for your application or the replacement of a faulty one. Always remember to follow the manufacturer's guidelines and consult a professional if in doubt. Proper measurement ensures reliable performance, enhances operational efficiency, and contributes to the overall success of your project or application.
When it comes to bathroom renovations, the focus is often on the big features, such as the bathtub or the sink. However, one crucial detail that is often overlooked is the bathroom cabinet hinges. While they may seem like a minor detail, these hinges play a crucial role in the overall functionality and longevity of your bathroom cabinets.
Investing in durable bathroom cabinet hinges is essential for several reasons. Firstly, they can withstand daily wear and tear, ensuring that your cabinets last for years to come. By choosing quality hinges that are resistant to corrosion, rust, and weathering, you can keep your cabinets looking new and save money in the long run.
Moreover, opting for strong hinges ensures the safety of your family members. Faulty hinges can cause cabinet doors to sag, jut out, or even fall off, leading to potential accidents and injuries. By choosing durable hinges that securely attach and align the cabinet doors, you can prevent mishaps and ensure the safety of your loved ones.
In terms of convenience, sturdy hinges are integral to the smooth operation of bathroom cabinets. AOSITE Hardware, a leading manufacturer of cabinet hinges, offers options such as standard hinges, soft-close hinges, and self-closing hinges. These hinges make it easy to access your stored items and provide a seamless opening and closing experience, even with heavy cabinets.
When selecting bathroom cabinet hinges, it is essential to consider various factors. The size of the hinges should be chosen to ensure a perfect fit for your cabinet style and size. AOSITE Hardware provides a range of hinges in different sizes to accommodate any cabinet.
The material of the hinge is another important consideration. AOSITE Hardware offers hinges made from high-quality materials such as stainless steel, brass, and aluminum. These materials are chosen for their durability, resistance to corrosion and rust, and ability to withstand water, humidity, and sunlight.
Additionally, the function of the hinge should be considered. Standard hinges provide ample support and flexibility, while soft-close hinges offer a noise-free and gentle closing experience. For those seeking convenience, self-closing hinges automatically close the cabinet door without manual intervention.
In conclusion, while bathroom cabinet hinges may not be the first thing that comes to mind during a renovation, they play a crucial role in the functionality, safety, and longevity of your cabinets. By investing in durable hinges from a reputable brand like AOSITE Hardware, you can ensure that your cabinets remain in top condition for years to come. Consider the size, material, and function of the hinges to make an informed decision. Trust AOSITE Hardware to provide the necessary knowledge and high-quality hinges for your bathroom cabinets.
Here are a few frequently asked questions about the importance of choosing durable bathroom cabinet hinges.
1. Why are durable bathroom cabinet hinges important?
2. What are the benefits of choosing durable hinges?
3. How can I tell if a hinge is durable or not?
4. What are some common problems with non-durable hinges?
5. Where can I find high-quality, durable bathroom cabinet hinges?
Mob: +86 13929893479
Whatsapp: +86 13929893479
E-mail: aosite01@aosite.com
Address: Jinsheng Industrial Park, Jinli Town, Gaoyao District, Zhaoqing City, Guangdong, China.