Aluminum extrusion is a common processing technology that produces aluminum profiles of various shapes and sizes by pressing aluminum alloy into a mol...
Read MoreMechanical balancing parts play a vital role in mechanical equipment, providing the required balance and stability. They are widely used in multiple industries, including industrial manufacturing, aerospace, automotive, and energy.
The main function of mechanical balancing parts is to eliminate imbalances in rotating or vibrating equipment to ensure the normal operation of the equipment. Imbalance may cause vibration, noise, and even damage or accidents to the equipment. Mechanical balancing accessories maintain the balance of the equipment during operation by adding or adjusting weights. These accessories are usually made of metal materials such as iron, steel, and aluminum to ensure that they have sufficient strength and durability.
When selecting and installing mechanical balancing accessories, you need to be very careful. Different types of equipment require different types of balancing accessories to ensure the best balancing effect. When selecting accessories, you need to consider factors such as the rotation speed, load, and vibration frequency of the equipment. In addition, correct installation is also a key factor to ensure that the balancing accessories play an effective role. Improper installation may cause the accessories to become loose or unstable, which in turn affects the balancing effect of the equipment.
1. Drawings or Samples | We get the drawings or samples from customers. |
2. Drawings Confirmation | We will draw the 3D drawings according to the customers' 2D drawings or samples, and send the 3D drawings to customers for confirmation. |
3. Quotation | We will quote after getting the customers' confirmation, or quote directly according to customers' 3D drawings. |
4. Making Moulds/Patterns | We will make molds or pattens after getting the mold orders from the customers. |
5. Making Samples | We will make real samples using the molds and send them to customers for confirmation. |
6. Mass Producing | We will produce the products after getting the customers' confirmation and orders. |
7. Inspection | We will inspect the products by our inspectors or ask the customers to inspect together with us when finished. |
8. Shipment | We will ship the goods to the customers after getting the inspection result and the customers' confirmation. |
Process: | 1) Die Casting / Profile Extrusion |
2) Machining: CNC turning, Milling, Drilling, Grinding, Reaming and Threading | |
3) Surface Treating | |
4) Inspection and Packaging | |
Material Available: | 1) Aluminum Alloys Die Casting: ADDC10, ADC12, A360, A380, ZL110, ZL101, etc. |
2) Aluminum Alloys Profile Extrusion: 6061, 6063 | |
3) Zine Alloys Die Casting: ZDC1, ZD2, ZAMAK 3, ZAMAK 5, ZA8, ZL4-1, etc. | |
Surface Treatment: | Polishing |
Shot Blasting | |
Sandblasting | |
Powder Coating | |
Anodizing | |
Chrome Plating | |
Passivation | |
E-coating | |
T-coating | |
etc. | |
Tolerance: | +/-0.01mm |
Weight Per Unit: | 0.01-5KG |
Order Lead Time: | 20-45 Days (According to the Quantity and Complexity of the Product 1 |
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Read MoreIn the manufacturing process of Mechanical Balancing Die Casting Parts, accurately controlling the wall thickness of the casting is one of the key steps to ensure the dynamic balancing effect. The unevenness of the wall thickness will directly lead to the displacement of the center of mass, which will affect the balancing performance during rotation or movement. In order to achieve the best dynamic balancing effect, manufacturers need to take a series of precise measures.
In the design stage, advanced CAD/CAE software should be used for 3D modeling and simulation analysis. By simulating the stress distribution, deformation and center of mass position under different wall thicknesses, the optimal wall thickness design scheme can be determined. This process requires designers to have deep mechanical knowledge and rich practical experience, and be able to accurately predict and optimize the structural performance of castings.
In the mold design stage, the mold needs to be carefully made according to the wall thickness design results. The accuracy of the mold directly affects the uniformity of the wall thickness of the casting. Therefore, high-precision processing equipment and advanced detection technology are required in the mold manufacturing process to ensure that the parameters such as the mold cavity size and surface roughness meet the design requirements.
During the die casting production process, the die casting process parameters, such as pouring temperature, pressure, speed and cooling time, must also be strictly controlled. These parameters have a significant impact on the solidification process, organizational structure and wall thickness uniformity of the casting. Through repeated trials and optimization, the best combination of process parameters is found to achieve precise control of the wall thickness of the casting.
When dealing with high-speed rotation application scenarios, Mechanical Balancing Die Casting Parts face extremely high workloads and harsh working environments. In order to ensure its durability and stability, manufacturers need to adopt a series of special designs or materials to enhance the performance of castings.
In terms of design, the structural strength and stiffness of the casting must be fully considered. By optimizing the structural design, such as using reinforcing ribs and changing the cross-sectional shape, the deformation resistance and load-bearing capacity of the casting can be improved. At the same time, the center of mass position of the casting must be accurately calculated and adjusted to ensure that it can maintain dynamic balance during high-speed rotation.
In terms of material selection, materials with high strength, high wear resistance and high fatigue resistance should be selected. For example, some special alloy steels, stainless steels or high-temperature alloys, etc., can maintain stable performance under harsh environments such as high temperature, high pressure and high speed. In addition, composite materials or coating technology can be considered to further enhance the surface hardness and wear resistance of castings.
In addition to design and material selection, the optimization of manufacturing processes is also an important means to improve the durability and stability of castings. By adopting advanced die-casting technology, heat treatment processes and surface treatment technologies (such as shot peening, carburizing and quenching, etc.), the organizational structure of castings, the mechanical properties and surface quality of materials can be significantly improved. These measures help reduce the vibration, noise and wear of castings during high-speed rotation, thereby extending their service life and stability.
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