Automatic CNC spring coiling machine,CNC spring grinding machinecontinuous tempering furnace, automatic shot blasting machine automaticelectrophoresis equipment and other professional machines make producefast and efficient.
From the confirmation of drawings to the production of molding and then tothe finished product processing requires 13 self-inspection procedures,which needed the the quality inspectors of the technological link and patrolinspectors to ensure the quality of each link.
We strictly follow the scheduled production lead time and arrangethe goods within the delivery time.After-sales guarantee serviceWe have a perfect after-sales service system, if there is any qualityproblems regarding the product, pls feel free to contact us.
Dongguan Humen Terui Hardware Technology Co., Ltd. specializes in the production of various metal springs.
Our products include die springs, compression springs, extension springs, torsion springs, disc springs, gas springs, leaf springs and some die accessories.
The factory is located in the famous Humen Town, with a complete advanced production and testing line:
1 heat treatment line, 8 automatic spring coiling machines, 4 automatic CNC end spring grinders, 1 shot blasting machine, 1 large dust-free electrophoresis equipment, multiple CNC punching machines, 1 Rockwell hardness tester, pressure and tension test 3 machines and 2 fatigue testing machines.
The production department has 8 well-known domestic senior engineers and 62 skilled workers. The materials used are SWOSC-V, 55CrSi, 50CrVa, 60Si2Mn,
Compression springs provide many advantages that make them popularly used across industries and applications. They're cost-effective, readily available, and possess a high load-bearing capacity, as well as being designed for specific industries and loads. Their flexibility provides flexibility across various applications - they can even handle varying loads at the same time! However, compression springs do have certain drawbacks: solid height loss or set when compressed for extended periods; resistance force may change over time due to material fatigue; additionally extreme temperatures can impact their performance - thus understanding their advantages and limitations is key for creating and effectively using compression springs effectively in designs or uses where these technologies exist effectively in design/usage decisions made when using compression springs effectively in various applications.
Compression springs are mechanical devices designed to store potential energy when subjected to compressive forces. Compression springs consist of tightly wound coils which push back against pressure applied, exerting a resisting force against incoming force that is used to absorb shocks, maintain tension or provide stability across different applications. Once released from compression force release, stored energy is released back into the spring which causes it to expand back into its original shape - this makes compression springs highly versatile devices widely used across industries including automotive, aerospace manufacturing etc.
Designing a compression spring requires many key considerations, including load capacity, spring rate, wire diameter and coil pitch, material selection as well as material resilience, corrosion resistance and fatigue resistance. Each of these factors plays an important part in meeting an application's requirements; load capacity determines how much weight can be supported while spring rate defines force required to compress certain amounts. Wire diameter and coil pitch impact strength and flexibility while material selection impacts resilience corrosion resistance fatigue life and resilience performance - these considerations must all come into play if performance and longevity objectives are to meet an application's application requirements.
Compression springs play an essential role in maintaining the functionality and performance of mechanical systems. They provide stability and support in suspension systems, absorb shocks in machinery, maintain tension in assemblies and facilitate linear motion among various mechanisms. Automotive suspensions rely heavily on compression springs for comfort rides with improved handling and stability; industrial machinery uses compression springs to minimize vibration and absorb impacts, ensuring smooth operations while reducing wear-and-tear wear-and-tear on other components.
A compression spring is a mechanical device made of tightly wound coils designed to store and release energy when subjected to compressive forces.
Compression springs are used in various applications, including automotive suspension systems, industrial machinery, consumer electronics, medical devices, and aerospace equipment.
The lifespan of a compression spring depends on factors like material quality, usage conditions, and maintenance. With proper care and within their design limits, compression springs can last for thousands or even millions of cycles.
Yes, compression springs can be customized to meet specific requirements. Customization options include varying wire diameter, coil count, free length, and end configurations, allowing for precise adaptation to individual applications.
Consider factors such as the required load capacity, spring rate, material type, space limitations, and environmental conditions. Consulting with a spring manufacturer or engineer can help determine the appropriate spring for your specific needs.