China OEM Transportation System Parts Gearbox OEM Worm Gear Spur Gear for Industrial Equipment

Product Description

Transportation System Parts Gearbox OEM Worm Gear Spur Gear For Industrial Equipments
Product Description
CHINAMFG provides one-stop solution service for your metallurgical equipment spare parts, currently we produce rolling mill rolls, guide, blades, gears, sprocket wheels, worm, worm gears, flange processing parts, welding processing parts and etc. Gear rack is a rotating machine part with cut teeth, or cogs, which mesh with another toothed part in order to transmit torque. It includes spur gear, helical gear, skew gear, bevel gear, spiral bevel gear and so on. It is widely used for all kinds of machinery equipment.

Product Name worm gear
Material C45, 40Cr, 20CrMnTi, 42CrMo, Copper, Stainless steel
Tolerance 0.001mm – 0.01mm – 0.1mm
Tooth Hardness 50-60 HRC
Length Customized
Processing Forging, Machining, Hobbing, Milling, Shaving, Grinding, Heat treatment
Inspection Material Report, Dimensions Checking Report, Hardness Report
Payment L/C, Western Union, D/P, D/A, T/T, MoneyGram
Lead Time 4 weeks

Company Profile
HangZhou CHINAMFG Heavy Industry Technology Development Co., Ltd. is a leading enterprise in the wear-resistant casting of large engineering machinery and the forging of large equipment parts located in the New Material Industrial Park, Xihu (West Lake) Dis. High-Tech Zone, HangZhou City, the company covers an area of 90 Square kilometer and currently has more than 300 employees. The company is equipped with lost molding production line and lost casting production line imported from FATA Company in Italy, Inductotherm Vacuum Degassing Furnace(USA), Foseco Casting Technology(U.K), SPECTRO Spectrometer (Germany), the currently most advanced ZZ418A vertical parting flaskless shoot squeeze molding machine Disa production line, horizontal molding line and self-control lost casting production line in China, the most advanced sand treatment system in China. With 3 gas trolley heat treatment CHINAMFG and pusher-type CHINAMFG full-automatic heat treatment production lines, the company can annually produce 30,000 tons of various wear-resisting castings and metallurgical equipment forging parts.

Manufacturing Technique

Packing and Shipping
To better ensure the safety of your goods, professional, environmentally friendly, convenient and efficient packaging services will be provided. After goods well packaged, we need only 1 day ship goods to ZheJiang port, which means that most of the spare parts you bought from Hyton, it will get your port within 45 days all around the world if shipment by sea.

Our Advantages
1)Your inquiry related to our product & price will be rapidly.
2) Well trained & experienced staff are to answer all your inquiries in English of course.
3) Your business relationship with us will be confidential to any third party.
4) One stop purchase service: extensive rang of products for qualified offering.
5) We response to client’s inquiry within 12 hours.

FAQ
1.Q: What kind of products do you make?
A: We specialize in metallurgical equipment casting and forging parts, such as forging rolls, guide, blades, gears, sprocket wheels, worm, worm gears, flange processing parts, welding processing parts and etc.

2.Q: What kind of material do you offer?
A: High manganese steel, high chrome iron, alloy steel, low carbon steel, medium carbon steel, Stainless Steel and etc.

3.Q: What is your time of delivery?
A: Our lead time is generally 2-4 weeks for casting parts and shipping time is about 2-4 weeks.
 

4.Q: How to test your quality?

A: We will show you material inspection and measurement inspection after fininsh the goods, at the same time, we will give you the life time guarantee letter after shipping the goods. The best suggestion to all the customer who may interest our product-Test 2 set first, all the good business relationship all from test and trust.

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Application: Machinery
Hardness: Hardened Tooth Surface
Gear Position: External Gear
Manufacturing Method: Cut Gear
Toothed Portion Shape: Spur Gear
Material: Stainless Steel
Customization:
Available

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Can you explain the role of a worm wheel in conjunction with a worm gear?

In mechanical systems, a worm wheel and a worm gear work together to achieve the transmission of motion and power between two perpendicular shafts. The worm gear is a screw-like gear, while the worm wheel is a circular gear with teeth cut in a helical pattern. Here’s a detailed explanation of the role of a worm wheel in conjunction with a worm gear:

The primary function of a worm wheel and worm gear combination is to provide a compact and efficient means of transmitting rotational motion and power at a right angle. The interaction between the worm gear and the worm allows for high gear reduction ratios, making it suitable for applications that require large speed reductions and high torque output.

The worm gear, or worm, is a threaded shaft resembling a screw. It is the driving component of the system and is typically turned by a motor or other power source. The threads on the worm engage with the teeth of the worm wheel, causing the wheel to rotate.

The helical shape of the worm gear teeth and the orientation of the threads on the worm are designed to ensure smooth and efficient power transmission. As the worm rotates, the sliding action between the threads of the worm and the helical teeth of the worm wheel enables the transfer of motion.

The gear ratio between the worm and worm wheel determines the speed reduction and torque multiplication achieved. The number of teeth on the worm wheel compared to the number of threads on the worm determines the gear ratio. For example, a worm wheel with 40 teeth and a worm with one thread would result in a gear ratio of 40:1, meaning the output shaft of the worm wheel rotates once for every 40 rotations of the worm.

The key role of the worm wheel is to receive the rotational motion from the worm and transmit it to the output shaft. It converts the rotary motion of the worm into rotary motion in a different direction, typically at a right angle.

The worm wheel also provides mechanical advantage by multiplying the torque output. Due to the helical shape of the teeth, the sliding action between the worm and the worm wheel allows for a larger contact area and load distribution, resulting in increased torque output at the output shaft.

The combination of the worm gear and worm wheel offers several advantages in mechanical systems:

  • High Gear Reduction: The worm gear and worm wheel enable significant speed reduction while increasing torque output, making them suitable for applications requiring high torque and low speed.
  • Self-Locking: The friction between the worm gear and the worm prevents backdriving, allowing the worm wheel to maintain its position even when the driving force is removed.
  • Compact Design: The perpendicular arrangement of the worm gear and worm wheel allows for a compact and space-saving design, making it advantageous in applications with limited space.
  • Quiet Operation: The sliding action between the worm gear and worm wheel helps distribute the load over multiple teeth, resulting in smoother and quieter operation.
  • Directional Control: The worm gear and worm wheel combination can provide unidirectional motion, preventing motion from the output side back to the input side due to their self-locking property.

Worm gear and worm wheel systems are commonly used in various applications, including automotive, industrial machinery, elevators, conveyor systems, and robotics. Their unique characteristics make them suitable for tasks that require precise control, high torque, and compact design.

It is important to note that proper lubrication, maintenance, and design considerations are crucial for ensuring the reliable and efficient operation of worm gear and worm wheel systems. Regular inspections and adherence to manufacturer guidelines are essential for maximizing the lifespan and performance of these components.

How does the design of a worm wheel contribute to the efficiency of power transmission?

The design of a worm wheel plays a significant role in ensuring efficient power transmission in mechanical systems. The specific characteristics and features of the worm wheel design contribute to its efficiency. Here’s a detailed explanation of how the design of a worm wheel contributes to the efficiency of power transmission:

1. Helical Tooth Profile: The teeth of a worm wheel are cut in a helical pattern around its circumference. This helical tooth profile allows for a larger contact area between the worm gear and the worm wheel, distributing the load over multiple teeth. As a result, it reduces the stress on individual teeth and minimizes wear, leading to improved efficiency and longevity of the gear system.

2. Sliding Action: The interaction between the worm gear and the worm involves a sliding action. As the worm rotates, its threads engage with the helical teeth of the worm wheel, causing a sliding motion between the two components. This sliding action helps distribute the load and reduces the concentration of forces on specific points, minimizing friction and wear. Consequently, the sliding action contributes to smoother power transmission and improved overall efficiency.

3. Lubrication: Proper lubrication is essential for the efficient operation of a worm wheel. Lubricants reduce friction between the mating surfaces, minimizing energy losses due to heat and wear. The helical tooth profile and sliding action of the worm wheel allow for effective lubrication distribution along the gear teeth and the worm’s threads, ensuring smooth movement and reducing power losses due to friction.

4. Material Selection: The choice of materials for constructing the worm wheel can impact its efficiency. Materials with low friction coefficients and high wear resistance, such as hardened steel or bronze alloys, are often used to minimize friction losses and ensure long-lasting performance. Additionally, selecting materials with appropriate strength and hardness characteristics helps maintain the dimensional stability and integrity of the gear teeth, further enhancing the efficiency of power transmission.

5. Gear Geometry and Tooth Profile: The precise design of the teeth on the worm wheel contributes to efficient power transmission. Factors such as the tooth profile, pressure angle, tooth width, and backlash control impact the meshing and engagement between the worm gear and the worm wheel. Optimized gear geometry ensures proper load distribution, reduces tooth deflection, and minimizes power losses due to inefficient contact and meshing of the teeth.

6. Preloading and Backlash Control: Proper preloading and backlash control in the worm wheel system can improve its efficiency. Preloading refers to applying a controlled amount of force to eliminate any clearance or backlash between the worm gear and the worm wheel. This reduces vibrations, improves the contact between the teeth, and minimizes power losses associated with backlash. By ensuring a precise and tight meshing between the components, the efficiency of power transmission is enhanced.

7. Manufacturing Precision: The manufacturing precision of the worm wheel is crucial for its efficiency. Accurate machining and assembly processes are necessary to achieve the desired gear geometry, tooth profile, and dimensional tolerances. High manufacturing precision ensures proper alignment and meshing of the worm gear and the worm wheel, reducing unnecessary friction and power losses caused by misalignment or poor gear quality.

By incorporating these design considerations and optimizing the various aspects of worm wheel design, such as tooth profile, lubrication, materials, and manufacturing precision, the efficiency of power transmission can be maximized. This results in reduced energy losses, improved overall system performance, and extended gear life.

How does the design of a worm wheel contribute to the efficiency of power transmission?

The design of a worm wheel plays a significant role in ensuring efficient power transmission in mechanical systems. The specific characteristics and features of the worm wheel design contribute to its efficiency. Here’s a detailed explanation of how the design of a worm wheel contributes to the efficiency of power transmission:

1. Helical Tooth Profile: The teeth of a worm wheel are cut in a helical pattern around its circumference. This helical tooth profile allows for a larger contact area between the worm gear and the worm wheel, distributing the load over multiple teeth. As a result, it reduces the stress on individual teeth and minimizes wear, leading to improved efficiency and longevity of the gear system.

2. Sliding Action: The interaction between the worm gear and the worm involves a sliding action. As the worm rotates, its threads engage with the helical teeth of the worm wheel, causing a sliding motion between the two components. This sliding action helps distribute the load and reduces the concentration of forces on specific points, minimizing friction and wear. Consequently, the sliding action contributes to smoother power transmission and improved overall efficiency.

3. Lubrication: Proper lubrication is essential for the efficient operation of a worm wheel. Lubricants reduce friction between the mating surfaces, minimizing energy losses due to heat and wear. The helical tooth profile and sliding action of the worm wheel allow for effective lubrication distribution along the gear teeth and the worm’s threads, ensuring smooth movement and reducing power losses due to friction.

4. Material Selection: The choice of materials for constructing the worm wheel can impact its efficiency. Materials with low friction coefficients and high wear resistance, such as hardened steel or bronze alloys, are often used to minimize friction losses and ensure long-lasting performance. Additionally, selecting materials with appropriate strength and hardness characteristics helps maintain the dimensional stability and integrity of the gear teeth, further enhancing the efficiency of power transmission.

5. Gear Geometry and Tooth Profile: The precise design of the teeth on the worm wheel contributes to efficient power transmission. Factors such as the tooth profile, pressure angle, tooth width, and backlash control impact the meshing and engagement between the worm gear and the worm wheel. Optimized gear geometry ensures proper load distribution, reduces tooth deflection, and minimizes power losses due to inefficient contact and meshing of the teeth.

6. Preloading and Backlash Control: Proper preloading and backlash control in the worm wheel system can improve its efficiency. Preloading refers to applying a controlled amount of force to eliminate any clearance or backlash between the worm gear and the worm wheel. This reduces vibrations, improves the contact between the teeth, and minimizes power losses associated with backlash. By ensuring a precise and tight meshing between the components, the efficiency of power transmission is enhanced.

7. Manufacturing Precision: The manufacturing precision of the worm wheel is crucial for its efficiency. Accurate machining and assembly processes are necessary to achieve the desired gear geometry, tooth profile, and dimensional tolerances. High manufacturing precision ensures proper alignment and meshing of the worm gear and the worm wheel, reducing unnecessary friction and power losses caused by misalignment or poor gear quality.

By incorporating these design considerations and optimizing the various aspects of worm wheel design, such as tooth profile, lubrication, materials, and manufacturing precision, the efficiency of power transmission can be maximized. This results in reduced energy losses, improved overall system performance, and extended gear life.

China OEM Transportation System Parts Gearbox OEM Worm Gear Spur Gear for Industrial Equipment  China OEM Transportation System Parts Gearbox OEM Worm Gear Spur Gear for Industrial Equipment
editor by CX 2024-03-05