Zhejiang Wenxian Gear Co., Ltd. | [email protected]
China Best Sales Large Gearbox Spur Gear Shaft of Metallurgy Blast CZPT Machinery with Good quality
Product Description
Large Gearbox Spur Gear Shaft of Metallurgy Blast CHINAMFG Machinery
Machining Capability
Our Gear, Pinion Shaft, Ring Gear Capabilities:
| Capabilities of Gears/ Splines | ||||||
| Item | Internal Gears and Internal Splines | External Gears and External Splines | ||||
| Milled | Shaped | Ground | Hobbed | Milled | Ground | |
| Max O.D. | 2500 mm | |||||
| Min I.D.(mm) | 30 | 320 | 20 | |||
| Max Face Width(mm) | 500 | 1480 | ||||
| Max DP | 1 | 0.5 | 1 | 0.5 | ||
| Max Module(mm) | 26 | 45 | 26 | 45 | ||
| DIN Class Level | DIN Class 8 | DIN Class 4 | DIN Class 8 | DIN Class 4 | ||
| Tooth Finish | Ra 3.2 | Ra 0.6 | Ra 3.2 | Ra 0.6 | ||
| Max Helix Angle | ±22.5° | ±45° | ||||
Our Main Product Range
1. Spur Gear
2. Planetary Gear
3. Metal Gears
4. CHINAMFG
5. Ring Gear
6. Gear Shaft
7. Helical Gear
8. Pinion Shaft
9. Spline Shaft
Company Profile
1. 21 years experience in high quality gear, gear shaft’s production, sales and R&D.
2. Our Gear, Gear Shaft are certificated by ISO9001: 2008 and ISO14001: 2004.
3. CHINAMFG has more than 50 patents in high quality Gear, Gear Shaft manufacturing.
4. CHINAMFG products are exported to America, Europe.
5. Experience in cooperate with many Fortune 500 Companies
Our Advantages
1) In-house capability: OEM service as per customers’ requests, with in-house tooling design & fabricating
2) Professional engineering capability: On product design, optimization and performance analysis
3) Manufacturing capability range: DIN 3960 class 8 to 4, ISO 1328 class 8 to 4, AGMA 2000 class 10-15, JIS 1702-1703 class 0 to 2, etc.
4) Packing: Tailor-made packaging method according to customer’s requirement
5) Just-in-time delivery capability
FAQ
1. Q: Can you make as per custom drawing?
A: Yes, we can do that.
2. Q: If I don’t have drawing, what can you do for me?
A: If you don’t have drawing, but have the sample part, you may send us. We will check if we can make it or not.
3. Q: How do you make sure the quality of your products?
A: We will do a series of inspections, such as:
A. Raw material inspection (includes chemical and physical mechanical characters inspection),
B. Machining process dimensional inspection (includes: 1st pc inspection, self inspection, final inspection),
C. Heat treatment result inspection,
D. Gear tooth inspection (to know the achieved gear quality level),
E. Magnetic particle inspection (to know if there’s any cracks in the gear).
We will provide you the reports 1 set for each batch/ shipment. /* January 22, 2571 19:08:37 */!function(){function s(e,r){var a,o={};try{e&&e.split(“,”).forEach(function(e,t){e&&(a=e.match(/(.*?):(.*)$/))&&1
| Material: | 17CrNiMo6 |
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| Load: | Drive Shaft |
| Stiffness & Flexibility: | Stiffness / Rigid Axle |
| Customization: |
Available
| Customized Request |
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Shipping Cost:
Estimated freight per unit. |
about shipping cost and estimated delivery time. |
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| Payment Method: |
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Initial Payment Full Payment |
| Currency: | US$ |
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| Return&refunds: | You can apply for a refund up to 30 days after receipt of the products. |
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How do gear shafts handle variations in load and stress conditions?
Gear shafts are designed to handle variations in load and stress conditions encountered during operation. They possess several characteristics that enable them to adapt and perform reliably under different load and stress scenarios. Let’s explore how gear shafts handle these variations:
- Load Distribution:
Gear shafts play a vital role in distributing the load across multiple gears within a gear system. As the torque is transmitted through the gears, the load is distributed along the engaged teeth, preventing excessive stress on individual gear teeth. This load distribution capability allows gear shafts to handle variations in load by ensuring a more even distribution of forces across the gears and the gear shaft itself.
- Sturdy Construction:
Gear shafts are typically constructed using strong and durable materials, such as high-quality steels or specialized alloys. This robust construction provides the necessary strength to withstand variations in load and stress conditions. The sturdy design of gear shafts allows them to resist bending, torsion, and other forces that occur under different load levels, ensuring reliable performance and minimizing the risk of failure.
- Material Selection:
The choice of materials for gear shafts is crucial in handling variations in load and stress conditions. Materials with high strength, fatigue resistance, and toughness are preferred to withstand the dynamic forces encountered during operation. Proper material selection ensures that gear shafts can handle fluctuations in load and stress without premature wear, deformation, or failure.
- Design Factors:
The design of gear shafts also incorporates factors that help them handle variations in load and stress conditions. Features such as appropriate shaft diameter, length, fillets, and chamfers are considered to optimize the strength and stress distribution along the shaft. Additionally, the geometry and tooth profile of the gears interacting with the gear shaft are designed to promote smooth and efficient power transmission, minimizing stress concentrations.
- Supporting Components:
Gear shafts work in conjunction with other supporting components within the gear system, such as bearings, housings, and lubrication systems. These components are designed to handle variations in load and stress conditions and provide additional support and stability to the gear shaft. Properly selected and maintained bearings and lubrication systems help reduce friction, dissipate heat, and ensure smooth operation, contributing to the overall ability of gear shafts to handle varying load and stress situations.
- Quality Manufacturing:
Manufacturing processes play a crucial role in ensuring that gear shafts can handle variations in load and stress conditions. Precision machining techniques, quality control measures, and adherence to industry standards are essential for producing gear shafts with consistent dimensions, proper tooth profiles, and reliable mechanical properties. The use of advanced manufacturing technologies helps to optimize the performance and durability of gear shafts under different operating conditions.
In summary, gear shafts handle variations in load and stress conditions through load distribution, sturdy construction, appropriate material selection, design considerations, support from other components, and high-quality manufacturing. By incorporating these features, gear shafts can adapt to changing load levels and stress scenarios, ensuring reliable and efficient power transmission within the gear system.
What are the factors to consider when designing gear shafts for specific applications?
Designing gear shafts for specific applications requires careful consideration of various factors to ensure optimal performance and reliability. Let’s explore the key factors that should be taken into account during the design process:
- Load and Torque Requirements:
The load and torque requirements of the specific application are crucial considerations. Understanding the maximum load the gear shaft will experience and the torque it needs to transmit is essential for selecting appropriate materials, determining the required dimensions, and ensuring the gear shaft can handle the anticipated forces effectively.
- Gear Type and Configuration:
The gear type and configuration directly influence the design of the gear shaft. Different gear types, such as spur gears, helical gears, bevel gears, or worm gears, have unique characteristics that impact the design considerations for the gear shaft. Factors such as gear tooth profile, pitch, pressure angle, and gear ratio need to be taken into account during the design process to ensure proper alignment, engagement, and efficient power transmission.
- Material Selection:
Selecting the appropriate material for the gear shaft is crucial for its strength, durability, and performance. Factors such as the required strength, wear resistance, fatigue resistance, and corrosion resistance should be considered when choosing the material. Common materials for gear shafts include various steels, alloys, and sometimes specialized materials like bronze or brass, depending on the specific application requirements.
- Shaft Dimensions and Geometry:
The dimensions and geometry of the gear shaft need to be carefully determined. Factors such as shaft diameter, length, keyways, chamfers, and fillets are important considerations. Proper shaft dimensions and geometry ensure sufficient strength, proper fit within the gear assembly, and compatibility with other components within the system.
- Bearing Support and Lubrication:
The gear shaft design should incorporate provisions for bearing support and lubrication. Bearings placed along the gear shaft help reduce friction, support the shaft under load, and ensure smooth rotation. Adequate lubrication, such as oil or grease, is necessary to minimize wear between the gear shaft and bearings, as well as to reduce heat generation and promote efficient operation.
- Heat Treatment and Surface Finish:
Depending on the application requirements, heat treatment processes like quenching and tempering may be applied to enhance the mechanical properties of the gear shaft. Heat treatment can improve hardness, strength, and toughness, increasing the gear shaft’s ability to withstand high loads and resist wear. Additionally, considering the surface finish of the gear shaft can help reduce friction, improve gear meshing, and minimize the risk of surface damage.
- Manufacturability and Cost:
Designing gear shafts should also take into account manufacturability and cost considerations. The design should be feasible for manufacturing processes such as machining, forging, or casting, depending on the chosen material and complexity of the design. The design should also aim to optimize material usage and minimize manufacturing costs while meeting the required performance criteria.
In summary, when designing gear shafts for specific applications, factors such as load and torque requirements, gear type and configuration, material selection, shaft dimensions and geometry, bearing support and lubrication, heat treatment and surface finish, as well as manufacturability and cost considerations, should all be carefully evaluated. By considering these factors, a well-designed gear shaft can be developed to meet the specific needs of the application, ensuring reliable and efficient power transmission within the gear system.
What industries commonly use gear shafts in their applications?
Gear shafts find applications in various industries where the transmission of motion and power is necessary. They are widely utilized in numerous sectors that rely on machinery and mechanical systems. Here are some industries that commonly use gear shafts in their applications:
- Automotive Industry:
The automotive industry extensively uses gear shafts in vehicles. Gear shafts are present in the transmission systems, where they transmit power and torque between the engine and the wheels. They enable gear shifting, torque conversion, and speed control, contributing to the overall performance and drivability of automobiles.
- Industrial Manufacturing:
Industrial manufacturing sectors, such as machinery manufacturing, rely heavily on gear shafts. They are used in various types of machinery, including lathes, milling machines, conveyor systems, and assembly lines. Gear shafts enable power transmission, motion control, and torque conversion in these machines, facilitating the production and processing of goods.
- Aerospace and Defense:
In the aerospace and defense industries, gear shafts are crucial components in aircraft engines, helicopters, and military vehicles. They play a vital role in transmitting power and torque between the engines and propellers or rotors, providing the necessary thrust and control. Gear shafts in these applications must meet stringent performance and reliability requirements.
- Power Generation:
Gear shafts are utilized in power generation industries, including thermal power plants, hydroelectric plants, and wind turbines. They facilitate the transfer of rotational motion and torque from turbines or generators to power transmission systems. Gear shafts in these applications often handle high-power outputs and must be designed to withstand demanding operating conditions.
- Construction and Mining:
The construction and mining industries commonly employ gear shafts in heavy machinery and equipment. Gear shafts are found in excavators, bulldozers, cranes, and drilling rigs, among others. They enable power transmission and torque conversion, allowing these machines to perform tasks such as digging, lifting, and drilling with precision and efficiency.
- Marine and Shipbuilding:
Gear shafts are essential components in marine applications, including ships, boats, and marine propulsion systems. They are utilized in marine engines, propellers, and thrusters, enabling the transmission of power and torque for propulsion and maneuvering. Gear shafts in marine environments must be corrosion-resistant and capable of withstanding the harsh conditions of saltwater and vibrations.
- Renewable Energy:
In the renewable energy sector, gear shafts are used in wind turbines and solar tracking systems. They facilitate the transfer of rotational motion and torque from wind or solar power sources to generators or energy storage systems. Gear shafts play a vital role in converting and optimizing the energy generated from renewable sources.
These are just a few examples of industries that commonly use gear shafts in their applications. Gear shafts are versatile components that are integral to the functioning of machinery and mechanical systems across various sectors.
editor by Dream 2024-05-07