|Width between inner plates
|Pin length||Inner plate depth
|Weight per meter
|12ASS-2||19.050||11.91||12.57||5.94||48.80||50.50||18.-0-0. p. 211. Retrieved 17 May 2-0-0. p. 86. Retrieved 30 January 2015.|
Green 1996, pp. 2337-2361
“ANSI G7 Standard Roller Chain – Tsubaki Europe”. Tsubaki Europe. Tsubakimoto Europe B.V. Retrieved 18 June 2.
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Categories: Chain drivesMechanical power transmissionMechanical power control
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Can engineering chains be used for power transmission in automotive applications?
Yes, engineering chains can be used for power transmission in automotive applications. They are commonly employed in various automotive systems that require reliable and efficient power transfer. Here are some automotive applications where engineering chains are used:
- Timing Chains: In internal combustion engines, timing chains are critical for synchronizing the camshaft and crankshaft’s rotation. They ensure that the engine’s valves open and close at the precise time, optimizing engine performance and fuel efficiency.
- Drive Chains: Engineering chains are used in automotive drive systems, especially in older vehicles or specific applications where a chain drive is preferred over a belt or gear drive. Drive chains can be found in various components, such as transfer cases, rear-wheel-drive systems, and motorcycle drives.
- Steering System: In some automotive steering systems, engineering chains are used to transmit the rotational force from the steering wheel to the steering rack or gearbox, enabling vehicle control.
- Transfer Cases: In four-wheel-drive and all-wheel-drive systems, engineering chains are utilized in transfer cases to distribute power between the front and rear axles, allowing for better traction and handling on various terrains.
- Suspension Systems: Some automotive suspension systems incorporate engineering chains to support components like torsion bars or assist in adjusting suspension height in certain vehicles.
- Exhaust System: In exhaust gas recirculation (EGR) systems, engineering chains may be employed to control the flow of exhaust gases, helping to reduce emissions.
It is important to note that while engineering chains are suitable for certain automotive applications, modern vehicles often utilize other methods of power transmission, such as timing belts and gears, due to their quieter operation and reduced maintenance needs. The choice of power transmission method in automotive applications depends on factors like design requirements, space limitations, cost considerations, and desired performance characteristics.
What are the benefits of using an engineering chain over other power transmission methods?
Engineering chains offer several advantages over other power transmission methods, making them a preferred choice in various industrial applications:
- High Strength: Engineering chains are designed to handle heavy loads and high torque, making them suitable for demanding applications that require robust and reliable power transmission.
- Wide Range of Sizes: These chains are available in a wide range of sizes and configurations, allowing for flexibility in design and accommodating various application requirements.
- Durable and Long-Lasting: When properly maintained, engineering chains have a long service life, reducing the need for frequent replacements and minimizing downtime in industrial operations.
- Adaptable to Harsh Environments: Engineering chains are capable of operating in harsh conditions, including dusty, dirty, or corrosive environments, without compromising their performance.
- Shock Load Resistance: The design of engineering chains allows them to handle sudden impact forces and shock loads, which can occur in certain industrial processes.
- Cost-Effective: Engineering chains often provide a cost-effective solution for power transmission compared to other methods, especially in high-load applications.
- Simple Installation: With proper alignment and tensioning, engineering chains are relatively easy to install, reducing installation time and labor costs.
- Bi-Directional Power Transmission: Engineering chains can transmit power in both forward and reverse directions, making them suitable for applications requiring bidirectional motion.
- Low Maintenance: Regular maintenance, such as lubrication and inspection, can keep engineering chains in good working condition, reducing overall maintenance costs.
- Reduction of Noise and Vibration: When adequately lubricated and aligned, engineering chains can operate quietly and with minimal vibration, contributing to a more comfortable and safer working environment.
Despite their many advantages, it’s essential to consider the specific requirements of each application before selecting an engineering chain. Factors such as load capacity, speed, environmental conditions, and space constraints should be taken into account to ensure the chain’s optimal performance and longevity.
In summary, engineering chains are a versatile and reliable power transmission method, offering a range of benefits that make them well-suited for use in various industrial settings.
What are the maintenance requirements for engineering chains?
Maintaining engineering chains is essential to ensure their longevity, reliable performance, and safe operation in industrial applications. The following are key maintenance requirements for engineering chains:
1. Regular Inspection: Conduct routine visual inspections of the chain to check for signs of wear, corrosion, or damage. Look for elongation, bent or broken links, and worn sprocket engagement areas.
2. Lubrication: Proper and timely lubrication is crucial for reducing friction and wear between chain components. Lubricate the chain using a suitable lubricant as recommended by the manufacturer.
3. Tension Adjustment: Check and adjust the chain’s tension regularly to maintain the correct amount of slack. Proper tension ensures efficient power transmission and minimizes stress on the chain and sprockets.
4. Cleaning: Keep the chain clean and free from debris, dirt, and contaminants that may accelerate wear and corrosion. Use appropriate cleaning methods and solutions that do not damage the chain’s surface.
5. Replace Worn Components: Replace any worn or damaged components, such as chain links or sprockets, promptly to prevent further damage and potential chain failure.
6. Avoid Overloading: Do not subject the engineering chain to loads exceeding its capacity. Overloading can lead to premature wear and failure.
7. Environmental Considerations: Consider the environment in which the chain operates. In corrosive or harsh environments, choose chains with appropriate coatings or materials to resist corrosion.
8. Follow Manufacturer’s Recommendations: Adhere to the manufacturer’s maintenance guidelines and recommended service intervals specific to the engineering chain model and application.
9. Training and Safety: Ensure that personnel handling the chain are properly trained in maintenance procedures and safety protocols.
10. Record Keeping: Maintain detailed records of maintenance activities, inspections, and replacements to track the chain’s condition and performance over time.
By following these maintenance requirements, industrial operators can extend the life of engineering chains, prevent unplanned downtime, and ensure safe and efficient operation in their respective applications.
editor by CX 2023-09-07