Metric Size:

Self-lubricating flange bushings are available in metric sizes, which are expressed in millimeters (mm). The dimensions of a metric flange bushing may include the inside diameter (ID), outside diameter (OD), and length, as well as the thickness of the flange. Metric sizes can range from as small as a few millimeters to as large as several hundred millimeters.

Inch Size:

Self-lubricating flange bushings are also available in inch sizes, which are expressed in inches. The dimensions of an inch flange bushing may include the inside diameter (ID), outside diameter (OD), and length, as well as the thickness of the flange. Inch sizes can range from as small as a fraction of an inch to as large as several inches.

Both metric and inch size self-lubricating flange bushings can be made from a variety of materials, including sintered bronze, brass, steel, and plastic. The choice of material will depend on the specific application requirements, such as load capacity, temperature range, and chemical compatibility.

Plastic Bushings: The Self-Lubricating Effect

Here are some of the main advantages of self-lubricating flange bearing bushes:

Low Maintenance: One of the biggest advantages of self-lubricating flange bearing bushes is that they require very little maintenance. Since they are designed to be self-lubricating, they do not need to be regularly greased or oiled like traditional bearings, reducing the need for maintenance and extending the life of the component.

Reduced Friction: Self-lubricating flange bearing bushes are made with a low-friction material such as sintered bronze or polymer, which reduces friction and wear. This can help to reduce energy consumption and improve the efficiency of the equipment.

Increased Service Life: Because self-lubricating flange bearing bushes are made with high-quality materials and designed to reduce wear, they often have a longer service life than traditional bearings. This can reduce the need for replacement parts and help to extend the life of the equipment.

Corrosion Resistance: Some self-lubricating flange bearing bushes are made with materials that are highly resistant to corrosion and can withstand harsh environments. This can help to reduce the risk of damage or failure due to corrosion and extend the service life of the component.

Quiet Operation: Self-lubricating flange bearing bushes are often designed to operate quietly, reducing noise and vibration in the equipment. This can help to improve operator comfort and reduce the risk of damage to other components due to vibration.

Customization: Self-lubricating flange bearing bushes can be customized to meet specific application requirements. They are available in a range of sizes, materials, and configurations, allowing them to be tailored to the specific needs of the equipment.

In conclusion, self-lubricating flange bearing bushes offer a number of advantages over traditional lubricated bearings. They require less maintenance, reduce friction, have a longer service life, are corrosion-resistant, operate quietly, and can be customized to meet specific application requirements. These benefits can help to improve the performance and efficiency of equipment and reduce the need for maintenance and replacement parts.

1.Self-lubricating: bronzelube self-lubricating flange bushes cylindrical bushings with flange are designed to be self-lubricating, which eliminates the need for regular maintenance and reduces the risk of bearing failure due to lack of lubrication. This can save time and money and improve the efficiency of the equipment.

2.Low Friction: The high-performance polymers used in bronzelube self-lubricating flange bushes cylindrical bushings with flange offer a low coefficient of friction, which reduces energy consumption and improves the performance of the equipment. This can help to reduce operating costs and extend the service life of the equipment.

3. Corrosion Resistance: bronzelube self-lubricating flange bushes cylindrical bushings with flange are highly resistant to corrosion and can withstand harsh environments. This makes them ideal for use in applications where traditional metallic bearings may be prone to corrosion and wear.

4.Quiet Operation: The low-friction design of bronzelube self-lubricating flange bushes cylindrical bushings with flange helps to reduce noise and vibration in the equipment, which improves operator comfort and reduces the risk of damage to other components.

5. Customizable: bronzelube self-lubricating flange bushes offers a wide range of cylindrical bushings with flange in different sizes and configurations, which can be tailored to meet the specific needs of the equipment. This ensures that the bushings are optimized for the specific application, which improves performance and extends service life.

6.Cost-Effective: bronzelube self-lubricating flange bushes cylindrical bushings with flange are cost-effective compared to traditional metallic bearings. They offer longer service life, require less maintenance, and have a lower total cost of ownership over the life of the equipment.

7. In conclusion, bronzelube self-lubricating flange bushes cylindrical bushings with flange are a reliable and cost-effective solution for a wide range of applications. They offer self-lubrication, low friction, corrosion resistance, quiet operation, customizability, and cost-effectiveness, which make them a popular choice for many different industries. Whether you are looking for a replacement part for an existing system or designing a new piece of equipment, bronzelube self-lubricating flange bushes cylindrical bushings with flange can help to improve performance and reduce operating costs.

Flange bearing bushes are important components used in a wide range of industrial machinery and equipment. They are designed to provide support and reduce friction between moving parts. However, if not properly installed, maintained, or operated, flange bearing bushes can become damaged, recognized to expensive repairs and downtime. Here are some important steps that can help avoid flange bearing bush damage:

Proper Installation: Proper installation is key to ensuring that a flange bearing bush operates effectively and does not become damaged. This includes making sure that the housing hole is the correct size and tolerance, that the bearing is properly aligned, and that the bearing is not subjected to excessive force during installation.

Lubrication: Proper lubrication is essential to the performance and longevity of a flange bearing bush. Without sufficient lubrication, the bearing can become damaged due to excessive friction and wear. It is important to use the correct type and amount of lubricant, and to ensure that the lubricant is applied at regular intervals.

Monitoring: Regular monitoring is key to identifying potential issues with a flange bearing bush before they become serious problems. This includes checking for unusual noise or vibration, inspecting the bearing for signs of wear or damage, and monitoring operating conditions such as temperature and load.

Avoid Excessive Loads: Excessive loads can cause a flange bearing bush to become damaged or fail. It is important to ensure that the bearing is designed and rated for the specific load and operating conditions of the application. Overloading the bearing can cause it to wear prematurely or fail catastrophically.

Avoid Contamination: Contamination from dirt, dust, or other debris can cause a flange bearing bush to become damaged or fail. It is important to ensure that the bearing and surrounding area are kept clean and free of debris, and to use appropriate protective measures such as seals or covers to prevent contamination.

Regular Maintenance: Regular maintenance is essential to ensuring the long-term performance and reliability of a flange bearing bush. This includes tasks such as cleaning and lubricating the bearing, inspecting for signs of wear or damage, and replacing the bearing when necessary.

In conclusion, by following these important steps, you can help avoid flange bearing bush damage and ensure that your industrial machinery and equipment operates effectively and reliably over the long term. Proper installation, lubrication, monitoring, load management, contamination prevention, and regular maintenance are all critical to the longevity and performance of flange bearing bushes.

The housing bore should be perpendicular to the surface of the part. Otherwise, the bushing flange will not lie flat on the surface. Then, depending on the material, the flange can deform or even fracture during assembly or under the mechanical stress of the application.

The hole should also be free of burrs and preferably have a chamfer. A relatively small chamfer is sufficient. An excessively large chamfer can affect the load capacity of the flange or bushing on the running surface.

Burrs along the edges of the bore must be avoided. Even with the correct chamfer and vertical drilling, residual burrs can cause undesired dimensional changes and even damage to the bushing

The housing hole for a flange bearing bush is a critical element in ensuring that the bearing operates effectively and has a long service life. The housing hole should be carefully designed to provide a secure and stable mount for the bearing, while also allowing for proper lubrication and clearance. Here are some important factors to consider when designing the housing hole for a flange bearing bush:

Size and Tolerance: The housing hole should be the correct size and tolerance to provide a tight fit for the bearing. The recommended tolerance for a housing hole is usually H7, which means the hole diameter is slightly larger than the bearing outer diameter to allow for proper clearance.

Surface Finish: The surface finish of the housing hole is also important, as it can affect the bearing’s performance and life. The recommended surface finish is typically between 0.8 and 1.6 microns, which is sufficient to prevent damage to the bearing and provide proper lubrication.

Chamfer: A chamfer on the edge of the housing hole can help to prevent damage to the bearing as it is inserted into the housing. The recommended chamfer is usually around 0.5mm to 1mm, which is enough to prevent any burrs or sharp edges from causing damage to the bearing.

Lubrication: The housing hole should be designed to allow for proper lubrication of the bearing. This can be achieved by ensuring that there is sufficient clearance around the bearing to allow the lubricant to flow freely.

Mounting: The housing hole should be designed to allow for easy and secure mounting of the bearing. This can be achieved by ensuring that the flange on the bearing is designed to fit securely within the housing and that there are no obstructions or misalignments that could cause the bearing to become dislodged.

In conclusion, the housing hole is a critical element in ensuring that a flange bearing bush operates effectively and has a long service life. By carefully considering factors such as size and tolerance, surface finish, chamfer, lubrication, and mounting, you can ensure that the housing hole provides a secure and stable mount for the bearing, while also allowing for proper lubrication and clearance.

Edge loading due to the introduction of torsional or tilting moments can result in adverse stresses on the plain bearing. Shear forces can be generated between the collar and the cylindrical body of the bearing and cause separation of the flange, resulting in axial displacement of the plain bearing from the housing bore.

When a number of bearing points are arranged in sequence, these edge loads are often caused by self-alignment deficiencies. Tolerances and dimensional deviations lead to alignment errors, which then result in edge loads in the plain bearing.

In the corresponding application case, torques also act on the plain bearing if the load is outside the bearing’s center of gravity. Additional support can help.

The load capacity of a flange bearing bush is an important factor to consider when selecting and using this type of bearing. The load capacity refers to the maximum amount of load that the bearing can support without experiencing premature wear or failure. Here are some important considerations to keep in mind when it comes to the load capacity of a flange bearing bush:

Radial Load: A radial load is a force that acts perpendicular to the axis of the bearing. The load capacity of a flange bearing bush for radial loads will depend on several factors, including the size and material of the bearing, as well as the operating conditions.

Axial Load: An axial load is a force that acts parallel to the axis of the bearing. The load capacity of a flange bearing bush for axial loads will depend on several factors, including the size and material of the bearing, as well as the operating conditions.

Combined Load: In many applications, both radial and axial loads may be present. The load capacity of a flange bearing bush for combined loads will depend on the size and material of the bearing, as well as the operating conditions.

Operating Conditions: The load capacity of a flange bearing bush can be affected by a range of operating conditions, such as temperature, speed, and vibration. It is important to consider these factors when selecting a bearing to ensure that it is capable of handling the expected load in the specific operating environment.

Safety Factor: To ensure that the bearing has a long service life and does not experience premature wear or failure, it is important to apply a safety factor to the calculated load capacity. The safety factor is usually expressed as a multiple of the expected load and can vary depending on the application.

In conclusion, the load capacity of a flange bearing bush is an important factor to consider when selecting and using this type of bearing. By considering factors such as radial load, axial load, combined load, operating conditions, and safety factor, you can ensure that the bearing is capable of handling the expected load and will operate effectively and reliably over the long term.

If the housing bore still does not have a different design, or if torsional or tilting moments cannot be adequately absorbed, a two-component solution can be considered. A simple cylindrical bushing is used instead of a flanged bushing and an additional thrust washer is used as axial support. In this way, these components can absorb the necessary forces independently of each other. However, this solution also has disadvantages that need to be considered. Multi-component solutions require more delicate assembly and tend to be slightly more expensive.

self-lubricating metallic bearing materials, two-piece, double-flanged solid polymer bearings.

Technical Expertise: A supplier with technical expertise can provide valuable guidance and support in selecting the right flange bearing bush for a particular application. Look for a supplier that has experienced engineers and technical staff who can answer questions and provide advice.