Penerangan Produk
Heavy duty series roller chain – 08AH, 10AH, 12AH,16AH:
A. Our Services
1. Any of your kind inquiry roller chain would be replied within 24 hours.
2. Well-trained and experienced sales staffs will reply all your concerns in fluent English.
3. OEM services are available with us, our professional designer would make your private idea into being.
4. Protection of your sales area, ideas of design and all your private information.
5. Delivery by air mail or ship for your orders.
6. With years of manufacture and promotion experience in global market, brings you profit and great success!
B. Technique Parameter
C. Company show & Product process
D. FAQ
1. Are you manufacturer or trade Company?
We are a factory founded in 1991 with trade team for international service.
2. What terms of payment you usually use?
Deposit T/T 30% dan 70% terhadap dokumen, Western Union, L/C pada pandangan
3. what is your lead time for your goods?
Normally 45 days after confirmed order. 30 days could be available in low season for some items (during May to July), and 65 days during new year and hot season ( Jan to March).
4. Do you attend any Show?
We attend Hannover show in Germany, NMW in Austrilia, Canton fair, PTC, in China and many other special furniture shows.
5. Do you have any instant chat ?
| Penggunaan: | Transmission Chain |
|---|---|
| Bahan: | Carbon Steel |
| Rawatan Permukaan: | Oil Blooming |
| Ciri: | Tahan Haba |
| Saiz Rantai: | 1/2"*3/32" |
| Struktur: | Roller Chain |
| Penyesuaian: |
Tersedia
| Permintaan Tersuai |
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How do you calculate the required horsepower for a conveyor chain drive?
The calculation of required horsepower for a conveyor chain drive involves considering various factors related to the conveyor system and the specific application. Here is a step-by-step process:
1. Determine the Total Resistance:
– Calculate the total resistance that the conveyor chain needs to overcome during operation. This includes the resistance due to the load being conveyed, frictional losses, elevation changes, and any other resistances in the system.
2. Convert the Resistance to Equivalent Inertia:
– Convert the total resistance to an equivalent inertia by multiplying it by the square of the chain speed.
3. Calculate the Total Inertia:
– Determine the total inertia of the system by considering the inertia of all the rotating components, such as the conveyor chain, sprockets, and any other driven elements.
4. Determine the Required Torque:
– Calculate the required torque by multiplying the total inertia by the desired acceleration or deceleration rate.
5. Convert Torque to Horsepower:
– Convert the required torque to horsepower by dividing it by the motor speed (in RPM) and multiplying by a conversion factor.
6. Consider Safety Factors and Efficiency:
– Apply safety factors to the calculated horsepower to account for variations, contingencies, and future growth.
– Consider the efficiency of the drive system, including the motor, gearbox, and other transmission components, to ensure accurate power transmission.
It’s important to note that the above calculation method provides an estimate of the required horsepower. Consulting with conveyor system manufacturers, engineers, or industry-specific guidelines is recommended for precise calculations and to ensure the selected conveyor chain drive meets the application requirements.
Can a conveyor chain be used in food processing applications?
Yes, a conveyor chain can be used in food processing applications. Conveyor chains play a crucial role in the efficient and hygienic handling of food products throughout the production process. Here are some key points to consider:
1. Food-Grade Materials: Conveyor chains used in food processing applications are typically made from food-grade materials such as stainless steel or plastic. These materials are corrosion-resistant, easy to clean, and comply with food safety regulations.
2. Hygiene Considerations: Food processing environments require high standards of hygiene. Conveyor chains designed for food applications incorporate features such as smooth surfaces, open link designs, and easy disassembly for thorough cleaning. They may also have specialized coatings or treatments to prevent bacterial growth.
3. Sanitary Design: Conveyor chains for food processing applications are designed with minimal crevices or joints to prevent food particles from getting trapped. They may have self-draining capabilities to remove excess fluids or debris.
4. Product Integrity: Conveyor chains in food processing applications ensure gentle handling of delicate food products to avoid damage or contamination. They can be equipped with accessories like cleats, side guards, or modular belt systems to securely hold and transport items of various shapes and sizes.
5. High Temperature and Washdown Capabilities: Some food processing applications require conveyor chains to withstand high temperatures during cooking, baking, or sterilization processes. Specialized chains with heat-resistant materials or coatings are available. Additionally, conveyor chains used in food processing should be capable of withstanding frequent washdowns and cleaning with water or cleaning agents.
6. Compliance with Standards: Conveyor chains used in food processing applications must comply with industry-specific standards such as FDA (Food and Drug Administration) regulations, HACCP (Hazard Analysis Critical Control Point) guidelines, and other food safety certifications.
When selecting a conveyor chain for food processing applications, it is important to consider the specific requirements of the production line, including the type of food being handled, the operating conditions, and the necessary sanitary standards. Proper maintenance and regular cleaning protocols should also be implemented to ensure food safety and product integrity.
Apakah tahap hingar yang berkaitan dengan rantai penghantar?
Tahap hingar yang berkaitan dengan rantai penghantar boleh berbeza-beza bergantung kepada beberapa faktor:
1. Jenis Rantai: Pelbagai jenis rantai penghantar menghasilkan tahap hingar yang berbeza-beza. Contohnya, rantai penggelek cenderung menghasilkan lebih banyak hingar berbanding rantai senyap atau rantai modular plastik.
2. Kelajuan: Kelajuan rantai penghantar beroperasi boleh mempengaruhi tahap hingar. Kelajuan yang lebih tinggi biasanya mengakibatkan peningkatan hingar akibat hentaman dan geseran antara rantai dan komponen lain.
3. Keadaan Rantai: Keadaan rantai penghantar memainkan peranan dalam penjanaan hingar. Rantai yang haus atau tidak diselenggara dengan betul boleh menghasilkan lebih banyak hingar disebabkan oleh peningkatan geseran dan getaran.
4. Persekitaran Sekitar: Tahap hingar juga boleh dipengaruhi oleh persekitaran tempat sistem penghantar beroperasi. Faktor seperti kehadiran jentera lain, akustik kemudahan dan langkah penebat hingar boleh memberi kesan kepada tahap hingar keseluruhan.
5. Reka Bentuk dan Komponen: Reka bentuk sistem penghantar dan pilihan komponen boleh mempengaruhi tahap hingar. Faktor seperti penggunaan bahan pengurangan hingar, penjajaran komponen yang betul dan langkah peredam getaran boleh membantu mengurangkan hingar.
Adalah penting untuk ambil perhatian bahawa tahap bunyi bising yang berlebihan di tempat kerja boleh memberi kesan buruk kepada kesejahteraan pekerja dan mungkin memerlukan langkah kawalan bunyi bising untuk mematuhi peraturan kesihatan dan keselamatan pekerjaan. Melaksanakan strategi pengurangan bunyi bising seperti menggunakan bahan peredam bunyi, menggabungkan pelinciran yang betul, mengekalkan ketegangan rantai dan menggunakan teknik pengasingan getaran boleh membantu meminimumkan bunyi bising yang berkaitan dengan rantai penghantar.
editor by CX 2023-08-09
