Product Description
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There are many types of worm gearboxes. If you have any questions about the selection, please contact us first. |
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Band name |
CHINAMFG |
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Model No.: |
NMRV571, NMRV030, NMRV040, NMRV050, NMRV063, NMRV075, NMRV090, NMRV110, NMRV130, NMRV150 |
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Ratio: |
5,7.5,10,15,20,25,30,40,50, |
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Color: |
Blue/Silver Grey Or On Customer Request |
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Material: |
Housing: Size 25-110 Is Aluminum Alloy, Size 110-150 Is Cast-Iron |
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Worm Wheel: ZCuSn10Pb1 |
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Worm:20Cr |
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Pinion:Tin Bronze |
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Output Shaft: Steel-45# |
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Matching motor |
40~750W |
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Usages: |
Industrial Machine: Food Stuff, Ceramics, Chemical, Packing, Dyeing,Wood working, Glass. |
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IEC Flange: |
IEC Standard Flange Or On Customer Request |
PRODUCTS CHARACTERISTICS
1. Mad of high-quality aluminum alloy,light weight and non-rusting
2. Large output torque
3. Smooth in running and low in noise,can work long time in dreadful conditions.
4. High in radiating efficiency.
5. Good-looking in appearance,durable in service life and small in volume.
6. Suitable for omnibearing installation.
FAQ
Q1:Are you a manufacturer or trading company?
Yes, We are a leading manufacturer specialized in production of various kinds of small and medium-sized
motor.
Q2:How to choose a gearbox which meets our requirement?
You can refer to our catalogue to choose the gearbox or we can help to choose when you provide
the technical information of required output torque, output speed and motor parameter etc.
Q3:What information shall we give before placing a purchase order?
a) Type of the gearbox, ratio, input and output type, input flange, mounting position, and motor information etc.
b) Housing color.
c) Purchase quantity.
d) Other special requirements.
Q4:What industries are your gearboxes being used?
Our gearboxes are widely used in the areas of textile, food processing, beverage, chemical industry, escalator,automatic storage equipment, metallurgy, tabacco, environmental protection, logistics and etc.
Q5:How about your delivery time?
For micro brush dc gear motor, the sample delivery time is 2-5 days, bulk delivery time is about 15-20 days, depends on the order qty. For brushless dc motor, the sample deliver time is about 10-15 days; bulk time is 15-20 days.Please take the sales confirmation for final reference.
Q6:What’s your warranty terms?
One year
/* 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(/(.*?):(.*)$/))&&1
| Application: | Motor, Electric Cars, Motorcycle, Machinery, Marine, Agricultural Machinery, Car |
|---|---|
| Hardness: | Hardened Tooth Surface |
| Installation: | 90 Degree |
| Layout: | Coaxial |
| Gear Shape: | Cylindrical Gear |
| Step: | Double-Step |
| Samples: |
US$ 90/Piece
1 Piece(Min.Order) | |
|---|
| Customization: |
Available
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|---|

How do electronic or computer-controlled components integrate with winch drives in modern applications?
In modern applications, electronic or computer-controlled components play a crucial role in enhancing the functionality, precision, and safety of winch drives. These components integrate with winch drives to provide advanced control, monitoring, and automation capabilities. Here’s a detailed explanation of how electronic or computer-controlled components integrate with winch drives in modern applications:
- Control Systems:
Electronic or computer-controlled components are used to create sophisticated control systems for winch drives. These control systems allow operators to precisely control the speed, direction, and position of the winch drive. By integrating sensors, actuators, and feedback mechanisms, the control system can monitor the operating conditions and adjust parameters in real-time to optimize performance. Control systems may include programmable logic controllers (PLCs), microcontrollers, or dedicated electronic control units (ECUs) that communicate with the winch drive to execute commands and maintain desired operating parameters.
- Human-Machine Interfaces (HMIs):
Electronic components enable the integration of intuitive and user-friendly Human-Machine Interfaces (HMIs) with winch drives. HMIs provide a visual interface for operators to interact with the winch drive system. Touchscreen displays, buttons, switches, and graphical user interfaces (GUIs) allow operators to input commands, monitor system status, and access diagnostic information. HMIs also facilitate the adjustment of control parameters, alarm settings, and operational modes. The integration of HMIs enhances operator control and simplifies the operation of winch drives in modern applications.
- Sensors and Feedback Systems:
Electronic sensors are employed to gather real-time data about various parameters related to the winch drive and the operating environment. These sensors can measure variables such as load weight, cable tension, speed, temperature, and motor current. The collected data is then fed back to the control system, allowing it to make informed decisions and adjustments. For example, if the load exceeds a predefined limit, the control system can send a signal to stop the winch drive or activate an alarm. Sensors and feedback systems ensure accurate monitoring of operating conditions and enable proactive control and safety measures.
- Communication Protocols:
Electronic or computer-controlled components facilitate communication between winch drives and other devices or systems. Modern winch drives often support various communication protocols, such as Ethernet, CAN bus, Modbus, or Profibus, which enable seamless integration with higher-level control systems, supervisory systems, or industrial networks. This integration allows for centralized control, remote monitoring, and data exchange between the winch drive and other components or systems, enhancing coordination and automation in complex applications.
- Automation and Programmability:
Electronic or computer-controlled components enable advanced automation and programmability features in winch drives. With the integration of programmable logic controllers (PLCs) or microcontrollers, winch drives can execute pre-programmed sequences of operations, follow specific load profiles, or respond to external commands and triggers. Automation reduces manual intervention, improves efficiency, and enables synchronized operation with other equipment or systems. Programmability allows customization and adaptation of winch drive behavior to meet specific application requirements.
- Diagnostics and Condition Monitoring:
Electronic components enable comprehensive diagnostics and condition monitoring of winch drives. Built-in sensors, data logging capabilities, and advanced algorithms can monitor the health, performance, and operating parameters of the winch drive in real-time. This information can be used for predictive maintenance, early fault detection, and performance optimization. Additionally, remote access and network connectivity enable remote monitoring and troubleshooting, reducing downtime and improving maintenance efficiency.
In summary, electronic or computer-controlled components integrate with winch drives in modern applications to provide advanced control, monitoring, automation, and safety features. These components enable precise control, user-friendly interfaces, data-driven decision-making, communication with other systems, automation, and diagnostics. The integration of electronic components enhances the functionality, efficiency, and reliability of winch drives in a wide range of applications.

How does the design of winch drives impact their performance in different environments?
The design of winch drives plays a critical role in determining their performance in different environments. Various design factors influence the reliability, efficiency, and adaptability of winch drives to specific operating conditions. Here’s a detailed explanation of how the design of winch drives impacts their performance:
- Load Capacity and Power:
The design of winch drives directly affects their load capacity and power capabilities. Factors such as motor size, gear ratio, and drum diameter determine the maximum load capacity a winch drive can handle. The power output of the motor and the mechanical advantage provided by the gear system impact the winch drive’s ability to lift or pull heavy loads effectively. A well-designed winch drive with appropriate load capacity and power ensures optimal performance in different environments.
- Speed and Control:
The design of winch drives influences their speed and control characteristics. The gear ratio and motor specifications determine the speed at which the winch drive can operate. Additionally, the presence of a variable speed control mechanism allows for precise and controlled movement of loads. The design should strike a balance between speed and control, depending on the specific application and operational requirements in different environments.
- Drive System:
Winch drives can utilize different drive systems, such as electric, hydraulic, or pneumatic. The design of the drive system impacts the performance of the winch drive in different environments. Electric winch drives are commonly used due to their ease of use, precise control, and suitability for various applications. Hydraulic winch drives offer high power output and are often preferred in heavy-duty applications. Pneumatic winch drives are suitable for environments where electricity or hydraulics are not readily available. The design should align with the specific requirements and constraints of the environment in which the winch drive will be used.
- Enclosure and Protection:
The design of the winch drive enclosure and protection features significantly impacts its performance in different environments. Winch drives used in outdoor or harsh environments should have robust enclosures that provide protection against dust, moisture, and other contaminants. Sealed or weatherproof enclosures prevent damage to internal components and ensure reliable operation. Additionally, features such as thermal protection and overload protection are designed to safeguard the winch drive from overheating or excessive strain, enhancing its performance and longevity.
- Mounting and Installation:
The design of winch drives should consider the ease of mounting and installation. Mounting options such as bolt-on, weld-on, or integrated mounting plates offer flexibility for different installation scenarios. The design should also take into account the space constraints and mounting requirements of the specific environment. Easy and secure installation ensures proper alignment, stability, and efficient operation of the winch drive.
- Control and Safety Features:
The design of winch drives includes control and safety features that impact their performance in different environments. Control systems can range from simple push-button controls to advanced remote controls or integrated control panels. The design should provide intuitive and user-friendly control interfaces for efficient operation. Safety features such as emergency stop mechanisms, load limiters, and overload protection are crucial to prevent accidents and ensure safe operation in various environments. The design should prioritize the incorporation of appropriate safety features based on the specific application and environmental conditions.
By considering these design factors, winch drives can be optimized for performance, reliability, and safety in different environments. A well-designed winch drive that aligns with the specific requirements of the environment will deliver efficient and effective lifting or pulling capabilities while ensuring long-term durability and functionality.

What are the advantages of using a winch drive in comparison to other lifting mechanisms?
Using a winch drive as a lifting mechanism offers several advantages over other lifting mechanisms. The unique characteristics and capabilities of winch drives make them a preferred choice in various applications. Here’s a detailed explanation of the advantages of using a winch drive in comparison to other lifting mechanisms:
- Versatility:
Winch drives offer versatility in terms of their application and adaptability to different industries. They can be utilized in a wide range of scenarios, including off-road recovery, marine operations, construction sites, and recreational activities. Winch drives can handle various load sizes and weights, making them suitable for both light and heavy lifting tasks. The ability to use winch drives in diverse environments and industries makes them a flexible and versatile choice for lifting and pulling operations.
- Control and Precision:
Winch drives provide precise control over the lifting and pulling operation. The gearing system allows operators to adjust the speed and direction of the winch drive, enabling accurate positioning and controlled movement of the load. This level of control is particularly beneficial in applications where precise load placement or delicate handling is required. Winch drives allow for fine adjustments and smooth operation, resulting in improved precision and reduced risk of damage to the load or surrounding structures.
- Pulling Power:
Winch drives are designed to generate significant pulling power, allowing them to handle heavy loads effectively. The power source, whether it’s an electric motor or hydraulic system, provides the necessary energy to generate substantial pulling force. This makes winch drives suitable for tasks that involve moving or lifting heavy objects, such as in construction, industrial settings, or vehicle recovery. The pulling power of winch drives gives them an advantage over other lifting mechanisms that may have limited capacity or require additional equipment for handling heavier loads.
- Compactness and Portability:
Winch drives are generally compact and portable, which enhances their usability in various settings. They can be easily mounted on vehicles, equipment, or structures, offering mobility and convenience. Compact winch drives are particularly useful in off-road vehicles, where space may be limited. The portability of winch drives allows for flexibility in different applications and enables their use in remote or challenging locations where other lifting mechanisms may not be easily accessible.
- Safety:
Winch drives are designed with safety features to ensure secure and controlled lifting operations. These features may include overload protection, emergency stop mechanisms, and limit switches. The braking system in winch drives provides reliable load holding, preventing unintentional load release. Additionally, winch drives can be equipped with remote control systems, allowing operators to maintain a safe distance during operation. The safety features and control mechanisms of winch drives contribute to enhanced safety and minimize the risk of accidents or injuries.
These advantages make winch drives a preferred choice over other lifting mechanisms in many applications. The versatility, control, pulling power, compactness, portability, and safety features of winch drives provide distinct benefits that cater to the specific requirements of lifting and pulling operations in various industries and scenarios.


editor by Dream 2024-05-03
China wholesaler RV Conveyor Power Worm Gear Speed Reducer
Product Description
NMRV worm gearbox motor
NMRV series worm gear reducer:
Its structure,outline and installation dimensions as well as performance are same with that of
Europe an products,they are interchangeable,and the materials and machining process are advanced internationally.The product is featured by:
1.Low noise and temperature rise.
2.High bearing capability,smooth run and long service life.
3.ompact structure,samll volume,light weight,beautiful shape and easy to install.
4.Can run continuously under server environment,and has a good reliability.
GPHQ NMRV aluminum worm gearbox motor details:
| Type | GPHQ NMRV Worm Gear Speed Reducer /gearbox motor |
| Model: | NMRV25/30/ 40/ 50/ 63/ 75/ 90/110/130/150 |
| Input Power: | 0.06KW,0.09KW,0.12KW,0.18KW,0.22KW,0.25KW,0.37KW,0.55KW,0.75KW,1.1KW,1.5KW,2.2KW,4KW,5.5KW,7.5KW ,11KW,15KW |
| IEC Flange | 56B5,56B14,63B5,63B14,71B5,71B14,80B5,80B14,90B5,90B14,100B5, 100B14,112B5,112B14 132B5,160B5 |
| Ratio | 1: 7.5,10,15,20,25,30,40,50,60,80,100 |
| Material |
Housing: Die-Cast Aluminum Alloy for rv25-rv90 , die-cast cast iron for rv110 to rv150 |
| Worm Gear-brass+cast iron | |
| Worm-20CrMn Ti with carburizing and quenching, surface harness is 56-62HRC | |
| Shaft-chromium steel-45# | |
| Color: | Blue/Silver Or others if quantity is big |
| Packing: | Carton or plywood Case |
| Guarantee time : | 1 Year except except Man-made destruction |
| Usages: | Industrial Machine: Food Stuff, Ceramics,CHEMICAL,Packing,Dyeing,Woodworking,Glass. |
| shaft: | output CHINAMFG shaft or output hollow shaft |
FAQ
1, Q:what’s your MOQ for ac gearbox motor ?
A: 1pc is ok for each type electric gear box motor
2, Q: What about your warranty for your induction speed reducer motor ?
A: 1 year ,but except man-made destroyed
3, Q: which payment way you can accept ?
A: TT, western union .
4, Q: how about your payment way ?
A: 100%payment in advanced less $5000 ,30% payment in advanced payment , 70% payment before sending over $5000.
5, Q: how about your packing of speed reduction motor ?
A: plywood case ,if size is small ,we will pack with pallet for less 1 container
6, Q: What information should be given, if I buy electric helical geared motor from you ?
A: rated power, ratio or output speed,type ,voltage , mounting way , quantity , if more is better.
/* January 22, 2571 19:08:37 */!function(){function s(e,r){var a,o={};try{e&&e.split(“,”).forEach(function(e,t){e&&(a=e.match(/(.*?):(.*)$/))&&1
| Application: | Motor, Machinery, Agricultural Machinery |
|---|---|
| Layout: | Right Angle |
| Hardness: | Hardened Tooth Surface |
| Step: | Single-Step |
| Type: | Worm Gear Box |
| Motor Power: | 0.09kw-15kw |
| Customization: |
Available
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|---|

How do winch drives contribute to the adaptability and versatility of mechanical systems in various settings?
Winch drives play a significant role in enhancing the adaptability and versatility of mechanical systems in various settings. Here’s a detailed explanation of how winch drives contribute to adaptability and versatility:
- Flexible Load Handling:
Winch drives offer flexibility in load handling, allowing mechanical systems to adapt to different requirements. They can handle a wide range of loads, from light to heavy, and provide precise control over the lifting, lowering, and positioning of loads. The ability to adjust the speed, torque, and direction of the winch drive enables it to accommodate different load characteristics and operational needs. This flexibility makes winch drives suitable for a variety of applications, including construction, manufacturing, marine, entertainment, and transportation industries.
- Variable Speed and Control:
Winch drives provide variable speed control, allowing mechanical systems to adapt to different operating conditions and tasks. The speed of the winch drive can be adjusted to match the specific requirements of the application, whether it involves slow and precise movements or fast and efficient operations. Additionally, winch drives offer precise control over acceleration, deceleration, and stopping, enabling smooth and controlled movements. This variable speed and control capability enhance the adaptability and versatility of mechanical systems in handling diverse tasks and operating in different environments.
- Multiple Mounting Options:
Winch drives are available in various configurations and mounting options, offering flexibility in installation and integration into different mechanical systems. They can be mounted horizontally, vertically, or at custom angles, depending on the specific requirements of the application. This versatility in mounting options allows winch drives to be easily incorporated into existing systems or adapted to fit space constraints in different settings. Whether it’s a stationary installation, mobile equipment, or overhead lifting system, winch drives can be positioned and mounted in a way that optimizes their functionality and adaptability.
- Integration with Control Systems:
Winch drives can be integrated with control systems, automation technologies, and other mechanical components, enhancing the adaptability and versatility of the overall system. They can be connected to programmable logic controllers (PLCs), human-machine interfaces (HMIs), or central control systems, enabling seamless integration and coordination with other equipment and processes. This integration allows for synchronized operations, centralized control, and automation of complex tasks, making the mechanical system more adaptable to changing requirements and versatile in different settings.
- Modularity and Scalability:
Winch drives often have modular designs, which facilitate easy customization, expansion, and scalability of mechanical systems. Additional winch drives can be added or existing ones can be reconfigured to accommodate changing load capacities or operational needs. This modularity allows mechanical systems to adapt to evolving requirements without significant redesign or replacement of the entire system. It provides the flexibility to scale up or down the capabilities of the system, making it versatile and adaptable to different settings and applications.
In summary, winch drives contribute to the adaptability and versatility of mechanical systems through their flexible load handling capabilities, variable speed and control, multiple mounting options, integration with control systems, and modularity. By incorporating winch drives, mechanical systems can adapt to different tasks, environments, and operational demands, making them versatile and suitable for a wide range of settings and applications.

What safety considerations should be taken into account when using winch drives?
Using winch drives involves certain safety considerations to ensure the well-being of operators, prevent accidents, and protect the equipment and the load being lifted. Here’s a detailed explanation of the safety considerations that should be taken into account when using winch drives:
- Operator Training:
Proper training is essential for operators who will be using winch drives. They should receive comprehensive training on the safe operation of winch drives, including understanding the controls, procedures, safety features, and potential hazards. Training should cover load calculations, safe working loads, and the importance of following safety guidelines and manufacturer’s instructions.
- Equipment Inspection:
Prior to each use, winch drives should be thoroughly inspected to ensure they are in proper working condition. This includes checking for any signs of damage, wear, or corrosion. The cables or ropes should be inspected for fraying, kinks, or other defects. Any damaged or malfunctioning components should be repaired or replaced before operating the winch drive.
- Load Capacity:
It is crucial to adhere to the specified load capacity of the winch drive. Exceeding the maximum load capacity can lead to equipment failure, accidents, and injuries. Operators should accurately determine the weight of the load to be lifted and ensure it falls within the winch drive’s rated capacity. If the load exceeds the capacity, alternative lifting methods or equipment should be used.
- Secure Anchoring:
Winch drives should be securely anchored to a stable and appropriate mounting point. This ensures that the winch drive remains stable during operation and prevents unintended movement. The anchoring point should be capable of withstanding the forces generated during lifting or pulling operations. Proper anchoring minimizes the risk of equipment tipping over or shifting unexpectedly.
- Personal Protective Equipment (PPE):
Operators should wear appropriate personal protective equipment (PPE) when using winch drives. This may include safety helmets, gloves, eye protection, and high-visibility clothing. PPE helps protect operators from potential hazards such as falling objects, flying debris, or contact with moving parts. The specific PPE requirements should be determined based on the nature of the lifting operation and any applicable safety regulations.
- Safe Operating Distance:
Operators and other personnel should maintain a safe distance from the winch drive during operation. This prevents accidental contact with moving parts or the load being lifted. Clear warning signs or barriers should be used to define the restricted area around the winch drive. Operators should never place themselves or others in the potential path of the load or in a position where they could be struck by the load in case of a failure or slippage.
- Emergency Stop and Controls:
Winch drives should be equipped with emergency stop mechanisms or controls that allow operators to quickly halt the operation in case of an emergency. All operators should be familiar with the location and operation of the emergency stop controls. Regular testing and maintenance of these controls are essential to ensure their effectiveness in emergency situations.
- Proper Rigging and Rigging Techniques:
Correct rigging techniques should be followed when attaching the load to the winch drive. This includes using appropriate slings, hooks, or attachments and ensuring they are properly secured. Improper rigging can lead to load instability, shifting, or falling, posing a significant safety risk. Operators should be trained in proper rigging techniques and inspect the rigging components for wear or damage before each use.
- Regular Maintenance:
Winch drives should undergo regular maintenance as recommended by the manufacturer. This includes lubrication, inspection of cables or ropes, checking for loose bolts or connections, and verifying the functionality of safety features. Regular maintenance helps identify and address potential issues before they lead to equipment failure or accidents.
By considering these safety measures, operators can ensure the safe and effective use of winch drives, minimizing the risk of accidents, injuries, or equipment damage. It is crucial to prioritize safety at all times and to comply with applicable safety regulations and guidelines.

What are the advantages of using a winch drive in comparison to other lifting mechanisms?
Using a winch drive as a lifting mechanism offers several advantages over other lifting mechanisms. The unique characteristics and capabilities of winch drives make them a preferred choice in various applications. Here’s a detailed explanation of the advantages of using a winch drive in comparison to other lifting mechanisms:
- Versatility:
Winch drives offer versatility in terms of their application and adaptability to different industries. They can be utilized in a wide range of scenarios, including off-road recovery, marine operations, construction sites, and recreational activities. Winch drives can handle various load sizes and weights, making them suitable for both light and heavy lifting tasks. The ability to use winch drives in diverse environments and industries makes them a flexible and versatile choice for lifting and pulling operations.
- Control and Precision:
Winch drives provide precise control over the lifting and pulling operation. The gearing system allows operators to adjust the speed and direction of the winch drive, enabling accurate positioning and controlled movement of the load. This level of control is particularly beneficial in applications where precise load placement or delicate handling is required. Winch drives allow for fine adjustments and smooth operation, resulting in improved precision and reduced risk of damage to the load or surrounding structures.
- Pulling Power:
Winch drives are designed to generate significant pulling power, allowing them to handle heavy loads effectively. The power source, whether it’s an electric motor or hydraulic system, provides the necessary energy to generate substantial pulling force. This makes winch drives suitable for tasks that involve moving or lifting heavy objects, such as in construction, industrial settings, or vehicle recovery. The pulling power of winch drives gives them an advantage over other lifting mechanisms that may have limited capacity or require additional equipment for handling heavier loads.
- Compactness and Portability:
Winch drives are generally compact and portable, which enhances their usability in various settings. They can be easily mounted on vehicles, equipment, or structures, offering mobility and convenience. Compact winch drives are particularly useful in off-road vehicles, where space may be limited. The portability of winch drives allows for flexibility in different applications and enables their use in remote or challenging locations where other lifting mechanisms may not be easily accessible.
- Safety:
Winch drives are designed with safety features to ensure secure and controlled lifting operations. These features may include overload protection, emergency stop mechanisms, and limit switches. The braking system in winch drives provides reliable load holding, preventing unintentional load release. Additionally, winch drives can be equipped with remote control systems, allowing operators to maintain a safe distance during operation. The safety features and control mechanisms of winch drives contribute to enhanced safety and minimize the risk of accidents or injuries.
These advantages make winch drives a preferred choice over other lifting mechanisms in many applications. The versatility, control, pulling power, compactness, portability, and safety features of winch drives provide distinct benefits that cater to the specific requirements of lifting and pulling operations in various industries and scenarios.


editor by Dream 2024-05-03
China factory Speed Reducer FL350 Ec, FL450 Em, FL450 ED Series Gearbox for Construction Machinery, Port Equipment Spare Parts efficiency of planetary gearbox
Product Description
Product Description
Detailed Photos
Packaging & Shipping
Company Profile
Our Advantages
| LBREVINI | EC 4045 – PDA 4045,i=498.3 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=570.0 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=625.0 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=712.7 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=799.3 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=929.1 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=988.1 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=1078 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=1194 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=1409 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=1593 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=1806 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=1925 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=2208 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=2563 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=2668 | 3KW |
| LBREVINI | EC 4045 – PDA 4045,i=3097 | 3KW |
| LBREVINI | FL250 EM 1045 | |
| LBREVINI | FL250 ED 2045 | |
| LBREVINI | FL250 EC 2045 | |
| LBREVINI | FL250 EC 2045* | |
| LBREVINI | FL250 EC 3045 | |
| LBREVINI | FL250 EC 3045* | |
| LBREVINI | FL350 EM 1045 | |
| LBREVINI | FL350 ED 2045 | |
| LBREVINI | FL350 EC 2045 | |
| LBREVINI | FL350 EC 2045* | |
| LBREVINI | FL350 EC 3045 | |
| LBREVINI | FL350 EC 3045* | |
| LBREVINI | FL450 EM 1045 | |
| LBREVINI | FL450 ED 2045 | |
| LBREVINI | FL450 EC 2045 | |
| LBREVINI | FL450 EC 2045* | |
| LBREVINI | FL450 EC 3045 | |
| LBREVINI | FL450 EC 3045* | |
| LBREVINI | FL750 EM 1045 | |
| LBREVINI | FL750 ED 2045 | |
| LBREVINI | FL620.U EM 1045 | |
| LBREVINI | FL620.U ED 2045 | |
| LBREVINI | FL620.U ET 3045 | |
| LBREVINI | FL620.U EQ 4045 | |
| LBREVINI | FL620.U EC 2045 | |
| LBREVINI | FL620.U EC 2045* | |
| LBREVINI | FL620.U EC 3045 | |
| LBREVINI | FL620.U EC 3045* | |
| LBREVINI | FL635.U EM 1045 | |
| LBREVINI | FL635.U ED 2045 | |
| LBREVINI | FL635.U ET 3045 | |
| LBREVINI | FL635.U EQ 4045 | |
| LBREVINI | FL635.U EC 2045 | |
| LBREVINI | FL635.U EC 2045* | |
| LBREVINI | FL635.U EC 3045 | |
| LBREVINI | FL635.U EC 3045* | |
| LBREVINI | FL620.10 ET 3045 | |
| LBREVINI | FL620.10 EQ 4045 | |
| LBREVINI | FL635.10 ET 3045 | |
| LBREVINI | FL635.10 EQ 4045 | |
| LBREVINI | EM 1045 MR-MR1-FS | |
| LBREVINI | EM 1045 FE | |
| LBREVINI | EM 1045 FP | |
| LBREVINI | ED 2045 MR-MR1-FS | |
| LBREVINI | ED 2045 FE | |
| LBREVINI | ED 2045 FP | |
| LBREVINI | ET 3045 MR-MR1-FS | |
| LBREVINI | ET 3045 FE | |
| LBREVINI | ET 3045 FP | |
| LBREVINI | EQ 4045 MR-MR1-FS | |
| LBREVINI | EQ 4045 FE | |
| LBREVINI | EQ 4045 FP | |
| LBREVINI | PD 1045 PD | |
| LBREVINI | PD 2045 PD | |
| LBREVINI | PD 3045 PD | |
| LBREVINI | PD 4045 PD | |
| LBREVINI | EC 2045 MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 2045* MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 3045 MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 3045* MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 4045 MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EM1046,i=3.50 | 20KW |
| LBREVINI | EM1046,i=4.13 | 20KW |
| LBREVINI | EM1046,i=5.17 | 20KW |
| LBREVINI | EM1046,i=6.00 | 20KW |
| LBREVINI | EM1046,i=7.25 | 20KW |
| LBREVINI | ED 2046,i=10.78 | 15KW |
| LBREVINI | ED 2046,i=12.25 | 15KW |
| LBREVINI | ED 2046,i=14.46 | 15KW |
| LBREVINI | ED 2046,i=17.06 | 15KW |
| LBREVINI | ED 2046,i=18.10 | 15KW |
| LBREVINI | ED 2046,i=21.00 | 15KW |
| LBREVINI | ED 2046,i=25.38 | 15KW |
| LBREVINI | ED 2046,i=29.94 | 15KW |
| LBREVINI | ED 2046,i=31.02 | 15KW |
| LBREVINI | ED 2046,i=36.00 | 15KW |
| LBREVINI | ED 2046,i=43.50 | 15KW |
| LBREVINI | ED 2046,i=52.56 | 15KW |
| LBREVINI | ET 3046,i=53.78 | 10KW |
| LBREVINI | ET 3046,i=63.46 | 10KW |
| LBREVINI | ET 3046,i=73.50 | 10KW |
| LBREVINI | ET 3046,i=79.44 | 10KW |
| LBREVINI | ET 3046,i=92.19 | 10KW |
| LBREVINI | ET 3046,i=100.3 | 10KW |
| LBREVINI | ET 3046,i=108.6 | 10KW |
| LBREVINI | ET 3046,i=125.6 | 10KW |
| LBREVINI | ET 3046,i=145.7 | 10KW |
| LBREVINI | ET 3046,i=152.3 | 10KW |
| LBREVINI | ET 3046,i=176.1 | 10KW |
| LBREVINI | ET 3046,i=207.8 | 10KW |
| LBREVINI | ET 3046,i=224.2 | 10KW |
| LBREVINI | ET 3046,i=260.2 | 10KW |
| LBREVINI | ET 3046,i=280.7 | 10KW |
| LBREVINI | ET 3046,i=314.4 | 10KW |
| LBREVINI | ET 3046,i=364.8 | 10KW |
| LBREVINI | EQ 4046,i=404.7 | 6KW |
| LBREVINI | EQ 4046,i=441.0 | 6KW |
| LBREVINI | EQ 4046,i=510.1 | 6KW |
| LBREVINI | EQ 4046,i=551.3 | 6KW |
| LBREVINI | EQ 4046,i=639.8 | 6KW |
| LBREVINI | EQ 4046,i=696.2 | 6KW |
| LBREVINI | EQ 4046,i=773.1 | 6KW |
| LBREVINI | EQ 4046,i=913.5 | 6KW |
| LBREVINI | EQ 4046,i=1011 | 6KW |
| LBREVINI | EQ 4046,i=1140 | 6KW |
| LBREVINI | EQ 4046,i=1222 | 6KW |
| LBREVINI | EQ 4046,i=1442 | 6KW |
| LBREVINI | EQ 4046,i=1599 | 6KW |
| LBREVINI | EQ 4046,i=1849 | 6KW |
| LBREVINI | EQ 4046,i=1995 | 6KW |
| LBREVINI | EQ 4046,i=2315 | 6KW |
| LBREVINI | EQ 4046,i=2623 | 6KW |
| LBREVINI | EQ 4046,i=2798 | 6KW |
| LBREVINI | EQ 4046,i=3301 | 6KW |
| LBREVINI | EM1046,i=3.50 | 20KW |
| LBREVINI | EM1046,i=4.13 | 20KW |
| LBREVINI | EM1046,i=5.17 | 20KW |
| LBREVINI | EM1046,i=6.00 | 20KW |
| LBREVINI | EM1046,i=7.25 | 20KW |
| LBREVINI | ED 2046,i=10.78 | 15KW |
| LBREVINI | ED 2046,i=12.25 | 15KW |
| LBREVINI | ED 2046,i=14.46 | 15KW |
| LBREVINI | ED 2046,i=17.06 | 15KW |
| LBREVINI | ED 2046,i=18.10 | 15KW |
| LBREVINI | ED 2046,i=21.00 | 15KW |
| LBREVINI | ED 2046,i=25.38 | 15KW |
| LBREVINI | ED 2046,i=29.94 | 15KW |
| LBREVINI | ED 2046,i=31.02 | 15KW |
| LBREVINI | ED 2046,i=36.00 | 15KW |
| LBREVINI | ED 2046,i=43.50 | 15KW |
| LBREVINI | ED 2046,i=52.56 | 15KW |
| LBREVINI | ET 3046,i=53.78 | 10KW |
| LBREVINI | ET 3046,i=63.46 | 10KW |
| LBREVINI | ET 3046,i=73.50 | 10KW |
| LBREVINI | ET 3046,i=79.44 | 10KW |
| LBREVINI | ET 3046,i=92.19 | 10KW |
| LBREVINI | ET 3046,i=100.3 | 10KW |
| LBREVINI | ET 3046,i=108.6 | 10KW |
| LBREVINI | ET 3046,i=125.6 | 10KW |
| LBREVINI | ET 3046,i=145.7 | 10KW |
| LBREVINI | ET 3046,i=152.3 | 10KW |
| LBREVINI | ET 3046,i=176.1 | 10KW |
| LBREVINI | ET 3046,i=207.8 | 10KW |
| LBREVINI | ET 3046,i=224.2 | 10KW |
| LBREVINI | ET 3046,i=260.2 | 10KW |
| LBREVINI | ET 3046,i=280.7 | 10KW |
| LBREVINI | ET 3046,i=314.4 | 10KW |
| LBREVINI | ET 3046,i=364.8 | 10KW |
| LBREVINI | EQ 4046,i=404.7 | 6KW |
| LBREVINI | EQ 4046,i=441.0 | 6KW |
| LBREVINI | EQ 4046,i=510.1 | 6KW |
| LBREVINI | EQ 4046,i=551.3 | 6KW |
| LBREVINI | EQ 4046,i=639.8 | 6KW |
| LBREVINI | EQ 4046,i=696.2 | 6KW |
| LBREVINI | EQ 4046,i=773.1 | 6KW |
| LBREVINI | EQ 4046,i=913.5 | 6KW |
| LBREVINI | EQ 4046,i=1011 | 6KW |
| LBREVINI | EQ 4046,i=1140 | 6KW |
| LBREVINI | EQ 4046,i=1222 | 6KW |
| LBREVINI | EQ 4046,i=1442 | 6KW |
| LBREVINI | EQ 4046,i=1599 | 6KW |
| LBREVINI | EQ 4046,i=1849 | 6KW |
| LBREVINI | EQ 4046,i=1995 | 6KW |
| LBREVINI | EQ 4046,i=2315 | 6KW |
| LBREVINI | EQ 4046,i=2623 | 6KW |
| LBREVINI | EQ 4046,i=2798 | 6KW |
| LBREVINI | EQ 4046,i=3301 | 6KW |
| LBREVINI | EC 2046- PDA 2046,i=10.50 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=12.39 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=16.17 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=18.00 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=19.08 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=21.75 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=23.89 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=27.72 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=33.50 | 12KW |
| LBREVINI | EC 3046- PDA 3046,i=36.75 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=43.37 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=49.80 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=56.60 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=63.00 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=73.57 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=83.60 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=89.83 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=97.02 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=114.5 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=123.5 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=138.3 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=166.3 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=173.2 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=201.0 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=242.8 | 7KW |
| LBREVINI | EC 4046 – PDA 4046,i=276.6 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=310.3 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=347.1 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=414.7 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=450.8 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=498.3. | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=570.0 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=625.0 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=712.7 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=799.3 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=929.1 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=988.1 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1078 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1194 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1409 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1593 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1806 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1925 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=2208 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=2563 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=2668 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=3097 | 3KW |
| LBREVINI | EC 2046- PDA 2046,i=10.50 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=12.39 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=16.17 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=18.00 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=19.08 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=21.75 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=23.89 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=27.72 | 12KW |
| LBREVINI | EC 2046- PDA 2046,i=33.50 | 12KW |
| LBREVINI | EC 3046- PDA 3046,i=36.75 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=43.37 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=49.80 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=56.60 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=63.00 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=73.57 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=83.60 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=89.83 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=97.02 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=114.5 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=123.5 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=138.3 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=166.3 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=173.2 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=201.0 | 7KW |
| LBREVINI | EC 3046- PDA 3046,i=242.8 | 7KW |
| LBREVINI | EC 4046 – PDA 4046,i=276.6 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=310.3 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=347.1 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=414.7 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=450.8 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=498.3. | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=570.0 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=625.0 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=712.7 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=799.3 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=929.1 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=988.1 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1078 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1194 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1409 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1593 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1806 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=1925 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=2208 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=2563 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=2668 | 3KW |
| LBREVINI | EC 4046 – PDA 4046,i=3097 | 3KW |
| LBREVINI | S45 CR1 ED 2046 | |
| LBREVINI | S45 CR1 ET 3046 | |
| LBREVINI | S46 C ED 2046 | |
| LBREVINI | S46 C ET 3046 | |
| LBREVINI | SU 2 EM 1046 | |
| LBREVINI | SU 2 ED 2046 | |
| LBREVINI | SU 2 ET 3046 | |
| LBREVINI | SU 2 EQ 4046 | |
| LBREVINI | FL250 EM 1046 | |
| LBREVINI | FL250 ED 2046 | |
| LBREVINI | FL250 EC 2046 | |
| LBREVINI | FL250 EC 2046* | |
| LBREVINI | FL250 EC 3046 | |
| LBREVINI | FL250 EC 3046* | |
| LBREVINI | FL350 EM 1046 | |
| LBREVINI | FL350 ED 2046 | |
| LBREVINI | FL350 EC 2046 | |
| LBREVINI | FL350 EC 2046* | |
| LBREVINI | FL350 EC 3046 | |
| LBREVINI | FL350 EC 3046* | |
| LBREVINI | FL450 EM 1046 | |
| LBREVINI | FL450 ED 2046 | |
| LBREVINI | FL450 EC 2046 | |
| LBREVINI | FL450 EC 2046* | |
| LBREVINI | FL450 EC 3046 | |
| LBREVINI | FL450 EC 3046* | |
| LBREVINI | FL650 EM 1046 | |
| LBREVINI | FL650 ED 2046 | |
| LBREVINI | FL750 EM 1046 | |
| LBREVINI | FL750 ED 2046 | |
| LBREVINI | FL620.U EM 1046 | |
| LBREVINI | FL620.U ED 2046 | |
| LBREVINI | FL620.U ET 3046 | |
| LBREVINI | FL620.U EQ 4046 | |
| LBREVINI | FL620.U EC 2046 | |
| LBREVINI | FL620.U EC 2046* | |
| LBREVINI | FL620.U EC 3046 | |
| LBREVINI | FL620.U EC 3046* | |
| LBREVINI | FL635.U EM 1046 | |
| LBREVINI | FL635.U ED 2046 | |
| LBREVINI | FL635.U ET 3046 | |
| LBREVINI | FL635.U EQ 4046 | |
| LBREVINI | FL635.U EC 2046 | |
| LBREVINI | FL635.U EC 2046* | |
| LBREVINI | FL635.U EC 3046 | |
| LBREVINI | FL635.U EC 3046* | |
| LBREVINI | FL620.10 ED 2046 | |
| LBREVINI | FL620.10 ET 3046 | |
| LBREVINI | FL635.10 ED 2046 | |
| LBREVINI | FL635.10 ET 3046 | |
| LBREVINI | EM 1046 MN-MN 1 | |
| LBREVINI | ED 2046 MN-MN 1 | |
| LBREVINI | ET 3046 MN-MN 1 | |
| LBREVINI | EQ 4046 MN-MN1 | |
| LBREVINI | EC 2046 MN-MN 1 | |
| LBREVINI | EC 2046* MN-MN 1 | |
| LBREVINI | EC 3046 MN-MN 1 | |
| LBREVINI | EC 3046* MN-MN 1 | |
| LBREVINI | EC 4046* MN-MN1 | |
| LBREVINI | EM 1065,i=3.50 | 30KW |
| LBREVINI | EM 1065,i=3.86 | 30KW |
| LBREVINI | EM 1065,i=4.33 | 30KW |
| LBREVINI | EM 1065,i=5.00 | 30KW |
| LBREVINI | EM 1065,i=6.00 | 30KW |
| LBREVINI | ED 2065,i=10.78 | 18KW |
| LBREVINI | ED 2065,i=12.25 | 18KW |
| LBREVINI | ED 2065,i=13.51 | 18KW |
| LBREVINI | ED 2065,i=15.16 | 18KW |
| LBREVINI | ED 2065,i=17.88 | 18KW |
| LBREVINI | ED 2065,i=20.65 | 18KW |
| LBREVINI | ED 2065,i=22.39 | 18KW |
| LBREVINI | ED 2065,i=25.98 | 18KW |
| LBREVINI | ED 2065,i=27.99 | 18KW |
| LBREVINI | ED 2065,i=30.00 | 18KW |
| LBREVINI | ED 2065,i=36.25 | 18KW |
| LBREVINI | ED 2065,i=43.50 | 18KW |
| LBREVINI | ET 3065,i=51.22 | 14KW |
| LBREVINI | ET 3065,i=53.78 | 14KW |
| LBREVINI | ET 3065,i=60.44 | 14KW |
| LBREVINI | ET 3065,i=73.50 | 14KW |
| LBREVINI | ET 3065,i=78.51 | 14KW |
| LBREVINI | ET 3065,i=90.93 | 14KW |
| LBREVINI | ET 3065,i=98.27 | 14KW |
| LBREVINI | ET 3065,i=110.6 | 14KW |
| LBREVINI | ET 3065,i=123.9 | 14KW |
| LBREVINI | ET 3065,i=134.3 | 14KW |
| LBREVINI | ET 3065,i=155.1 | 14KW |
| LBREVINI | ET 3065,i=180.0 | 14KW |
| LBREVINI | ET 3065,i=208.2 | 14KW |
| LBREVINI | ET 3065,i=217.5 | 14KW |
| LBREVINI | ET 3065,i=251.6 | 14KW |
| LBREVINI | ET 3065,i=272.8 | 14KW |
| LBREVINI | EQ 4065,i=322.7 | 8KW |
| LBREVINI | EQ 4065,i=373.2 | 8KW |
| LBREVINI | EQ 4065,i=411.6 | 8KW |
| LBREVINI | EQ 4065,i=441.0 | 8KW |
| LBREVINI | EQ 4065,i=510.1 | 8KW |
| LBREVINI | EQ 4065,i=555.3 | 8KW |
| LBREVINI | EQ 4065,i=631.1 | 8KW |
| LBREVINI | EQ 4065,i=696.2 | 8KW |
| LBREVINI | EQ 4065,i=771.8 | 8KW |
| LBREVINI | EQ 4065,i=892.7 | 8KW |
| LBREVINI | EQ 4065,i=994.6 | 8KW |
| LBREVINI | EQ 4065,i=1104 | 8KW |
| LBREVINI | EQ 4065,i=1303 | 8KW |
| LBREVINI | EQ 4065,i=1445 | 8KW |
| LBREVINI | EQ 4065,i=1631 | 8KW |
| LBREVINI | EQ 4065,i=1884 | 8KW |
| LBREVINI | EQ 4065,i=2095 | 8KW |
| LBREVINI | EQ 4065,i=2186 | 8KW |
| LBREVINI | EQ 4065,i=2468 | 8KW |
| LBREVINI | EQ 4065,i=2850 | 8KW |
| LBREVINI | EQ 4065,i=3170 | 8KW |
| LBREVINI | EM 1065,i=3.50 | 30KW |
| LBREVINI | EM 1065,i=3.86 | 30KW |
| LBREVINI | EM 1065,i=4.33 | 30KW |
| LBREVINI | EM 1065,i=5.00 | 30KW |
| LBREVINI | EM 1065,i=6.00 | 30KW |
| LBREVINI | ED 2065,i=10.78 | 18KW |
| LBREVINI | ED 2065,i=12.25 | 18KW |
| LBREVINI | ED 2065,i=13.51 | 18KW |
| LBREVINI | ED 2065,i=15.16 | 18KW |
| LBREVINI | ED 2065,i=17.88 | 18KW |
| LBREVINI | ED 2065,i=20.65 | 18KW |
| LBREVINI | ED 2065,i=22.39 | 18KW |
| LBREVINI | ED 2065,i=25.98 | 18KW |
| LBREVINI | ED 2065,i=27.99 | 18KW |
| LBREVINI | ED 2065,i=30.00 | 18KW |
| LBREVINI | ED 2065,i=36.25 | 18KW |
| LBREVINI | ED 2065,i=43.50 | 18KW |
| LBREVINI | ET 3065,i=51.22 | 14KW |
| LBREVINI | ET 3065,i=53.78 | 14KW |
| LBREVINI | ET 3065,i=60.44 | 14KW |
| LBREVINI | ET 3065,i=73.50 | 14KW |
| LBREVINI | ET 3065,i=78.51 | 14KW |
| LBREVINI | ET 3065,i=90.93 | 14KW |
| LBREVINI | ET 3065,i=98.27 | 14KW |
| LBREVINI | ET 3065,i=110.6 | 14KW |
| LBREVINI | ET 3065,i=123.9 | 14KW |
| LBREVINI | ET 3065,i=134.3 | 14KW |
| LBREVINI | ET 3065,i=155.1 | 14KW |
| LBREVINI | ET 3065,i=180.0 | 14KW |
| LBREVINI | ET 3065,i=208.2 | 14KW |
| LBREVINI | ET 3065,i=217.5 | 14KW |
| LBREVINI | ET 3065,i=251.6 | 14KW |
| LBREVINI | ET 3065,i=272.8 | 14KW |
| LBREVINI | EQ 4065,i=322.7 | 8KW |
| LBREVINI | EQ 4065,i=373.2 | 8KW |
| LBREVINI | EQ 4065,i=411.6 | 8KW |
| LBREVINI | EQ 4065,i=441.0 | 8KW |
| LBREVINI | EQ 4065,i=510.1 | 8KW |
| LBREVINI | EQ 4065,i=555.3 | 8KW |
| LBREVINI | EQ 4065,i=631.1 | 8KW |
| LBREVINI | EQ 4065,i=696.2 | 8KW |
| LBREVINI | EQ 4065,i=771.8 | 8KW |
| LBREVINI | EQ 4065,i=892.7 | 8KW |
| LBREVINI | EQ 4065,i=994.6 | 8KW |
| LBREVINI | EQ 4065,i=1104 | 8KW |
| LBREVINI | EQ 4065,i=1303 | 8KW |
| LBREVINI | EQ 4065,i=1445 | 8KW |
| LBREVINI | EQ 4065,i=1631 | 8KW |
| LBREVINI | EQ 4065,i=1884 | 8KW |
| LBREVINI | EQ 4065,i=2095 | 8KW |
| LBREVINI | EQ 4065,i=2186 | 8KW |
| LBREVINI | EQ 4065,i=2468 | 8KW |
| LBREVINI | EQ 4065,i=2850 | 8KW |
| LBREVINI | EQ 4065,i=3170 | 8KW |
| LBREVINI | EC 2065- PDA 2065,i=10.50 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=11.58 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=12.99 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=16.17 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=17.83 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=20.00 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=23.10 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=27.72 | 14KW |
| LBREVINI | EC 3065 – PDA 3065,i=40.53 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=45.47 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=49.80 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=56.60 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=62.42 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=70.02 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=80.85 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=92.20 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=103.4 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=108.8 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=120.0 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=138.6 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=166.3 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=201.0 | 11KW |
| LBREVINI | EC 4065 – PDA 4065,i=220.5 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=255.0 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=281.3 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=315.5 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=359.4 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=415.7 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=451.1 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=498.3 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=576.4 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=635.7 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=713.1 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=823.4 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=892.9 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1018 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1149 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1220 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1412 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1594 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1840 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1861 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=2136 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=2581 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=3097 | 7KW |
| LBREVINI | EC 2065- PDA 2065,i=10.50 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=11.58 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=12.99 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=16.17 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=17.83 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=20.00 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=23.10 | 14KW |
| LBREVINI | EC 2065- PDA 2065,i=27.72 | 14KW |
| LBREVINI | EC 3065 – PDA 3065,i=40.53 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=45.47 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=49.80 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=56.60 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=62.42 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=70.02 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=80.85 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=92.20 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=103.4 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=108.8 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=120.0 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=138.6 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=166.3 | 11KW |
| LBREVINI | EC 3065 – PDA 3065,i=201.0 | 11KW |
| LBREVINI | EC 4065 – PDA 4065,i=220.5 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=255.0 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=281.3 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=315.5 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=359.4 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=415.7 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=451.1 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=498.3 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=576.4 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=635.7 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=713.1 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=823.4 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=892.9 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1018 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1149 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1220 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1412 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1594 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1840 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=1861 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=2136 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=2581 | 7KW |
| LBREVINI | EC 4065 – PDA 4065,i=3097 | 7KW |
| LBREVINI | S45 CR1 EM 1065 | |
| LBREVINI | S45 CR1 ED 2065 | |
| LBREVINI | S46 C1 EM 1065 | |
| LBREVINI | S46 C1 ED 2065 | |
| LBREVINI | S65 CR1 EM 1065 | |
| LBREVINI | SU 2 EM 1065 | |
| LBREVINI | SU 2 ED 2065 | |
| LBREVINI | SU 2 ET 3065 | |
| LBREVINI | SU 2 EQ 4065 | |
| LBREVINI | 48.82 EC 2065 | |
| LBREVINI | 48.82 EC 3065 | |
| LBREVINI | FL250 EM 1065 | |
| LBREVINI | FL250 ED 2065 | |
| LBREVINI | FL250 EC 2065 | |
| LBREVINI | FL250 EC 2065* | |
| LBREVINI | FL250 EC 3065 | |
| LBREVINI | FL250 EC 3065* | |
| LBREVINI | FL350 EM 1065 | |
| LBREVINI | FL350 ED 2065 | |
| LBREVINI | FL350 EC 2065 | |
| LBREVINI | FL350 EC 2065* | |
| LBREVINI | FL350 EC 3065 | |
| LBREVINI | FL350 EC 3065* | |
| LBREVINI | FL450 EM 1065 | |
| LBREVINI | FL450 ED 2065 | |
| LBREVINI | FL450 EC 2065 | |
| LBREVINI | FL450 EC 2065* | |
| LBREVINI | FL450 EC 3065 | |
| LBREVINI | FL450 EC 3065* | |
| LBREVINI | FL650 EM 1065 | |
| LBREVINI | FL650 ED 2065 | |
| LBREVINI | FL750 EM 1065 | |
| LBREVINI | FL750 ED 2065 | |
| LBREVINI | FL950 EM 1065 | |
| LBREVINI | FL620.U EM 1065 | |
| LBREVINI | FL620.U ED 2065 | |
| LBREVINI | FL620.U ET 3065 | |
| LBREVINI | FL620.U EQ 4065 | |
| LBREVINI | FL620.U EC 2065 | |
| LBREVINI | FL620.U EC 2065* | |
| LBREVINI | FL620.U EC 3065 | |
| LBREVINI | FL620.U EC 3065* | |
| LBREVINI | FL635.U EM 1065 | |
| LBREVINI | FL635.U ED 2065 | |
| LBREVINI | FL635.U ET 3065 | |
| LBREVINI | FL635.U EQ 4065 | |
| LBREVINI | FL635.U EC 2065 | |
| LBREVINI | FL635.U EC 2065* | |
| LBREVINI | FL635.U EC 3065 | |
| LBREVINI | FL635.U EC 3065* | |
| LBREVINI | FL620.10 ET 3065 | |
| LBREVINI | FL620.10 EQ 4065 | |
| LBREVINI | FL635.10 ET 3065 | |
| LBREVINI | FL635.10 EQ 4065 | |
| LBREVINI | EM 1065 MR-MR1-FS | |
| LBREVINI | EM1065 FE | |
| LBREVINI | EM 1065 FP | |
| LBREVINI | ED 2065 MR-MR1-FS | |
| LBREVINI | ED 2065 FE | |
| LBREVINI | ED 2065 FP | |
| LBREVINI | ET 3065 MR-MR1-FS | |
| LBREVINI | ET 3065 FE | |
| LBREVINI | ET 3065 FP | |
| LBREVINI | EQ 4065 MR-MR1-FS | |
| LBREVINI | EQ 4065 FE | |
| LBREVINI | EQ 4065 FP | |
| LBREVINI | PD 1065 PD | |
| LBREVINI | PD 2065 PD | |
| LBREVINI | PD 3065 PD | |
| LBREVINI | PD 4065 PD | |
| LBREVINI | EC 2065 MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 2065* MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 3065 MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 3065* MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 4065 MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | EC 4065 MR-MR1-FE-FS-FP-PDA | |
| LBREVINI | ED 2067,i=12.25 | 18KW |
| LBREVINI | ED 2067,i=14.46 | 18KW |
| LBREVINI | ED 2067,i=15.16 | 18KW |
| LBREVINI | ED 2067,i=18.10 | 18KW |
| LBREVINI | ED 2067,i=21.00 | 18KW |
| LBREVINI | ED 2067,i=22.39 | 18KW |
| LBREVINI | ED 2067,i=25.38 | 18KW |
| LBREVINI | ED 2067,i=27.99 | 18KW |
| LBREVINI | ED 2067,i=31.39 | 18KW |
| LBREVINI | ED 2067,i=36.25 | 18KW |
| LBREVINI | ED 2067,i=43.50 | 18KW |
| LBREVINI | ET 3067,i=50.59 | 14KW |
| LBREVINI | ET 3067,i=55.80 | 14KW |
| LBREVINI | ET 3067,i=63.33 | 14KW |
| LBREVINI | ET 3067,i=73.50 | 14KW |
| LBREVINI | ET 3067,i=78.35 | 14KW |
| LBREVINI | ET 3067,i=88.81 | 14KW |
| LBREVINI | ET 3067,i=104.8 | 14KW |
| LBREVINI | ET 3067,i=108.6 | 14KW |
| LBREVINI | ET 3067,i=126.0 | 14KW |
| LBREVINI | ET 3067,i=144.7 | 14KW |
| LBREVINI | ET 3067,i=152.3 | 14KW |
| LBREVINI | ET 3067,i=184.0 | 14KW |
| LBREVINI | ET 3067,i=202.9 | 14KW |
| LBREVINI | ET 3067,i=227.6 | 14KW |
| LBREVINI | ET 3067,i=262.8 | 14KW |
| LBREVINI | ET 3067,i=315.4 | 14KW |
| LBREVINI | ED 2067,i=12.25 | 18KW |
| LBREVINI | ED 2067,i=14.46 | 18KW |
| LBREVINI | ED 2067,i=15.16 | 18KW |
| LBREVINI | ED 2067,i=18.10 | 18KW |
| LBREVINI | ED 2067,i=21.00 | 18KW |
| LBREVINI | ED 2067,i=22.39 | 18KW |
| LBREVINI | ED 2067,i=25.38 | 18KW |
| LBREVINI | ED 2067,i=27.99 | 18KW |
| LBREVINI | ED 2067,i=31.39 | 18KW |
| LBREVINI | ED 2067,i=36.25 | 18KW |
| LBREVINI | ED 2067,i=43.50 | 18KW |
| LBREVINI | ET 3067,i=50.59 | 14KW |
| LBREVINI | ET 3067,i=55.80 | 14KW |
| LBREVINI | ET 3067,i=63.33 | 14KW |
| LBREVINI | ET 3067,i=73.50 | 14KW |
| LBREVINI | ET 3067,i=78.35 | 14KW |
| LBREVINI | ET 3067,i=88.81 | 14KW |
| LBREVINI | ET 3067,i=104.8 | 14KW |
| LBREVINI | ET 3067,i=108.6 | 14KW |
| LBREVINI | ET 3067,i=126.0 | 14KW |
| LBREVINI | ET 3067,i=144.7 | 14KW |
| LBREVINI | ET 3067,i=152.3 | 14KW |
| LBREVINI | ET 3067,i=184.0 | 14KW |
| LBREVINI | ET 3067,i=202.9 | 14KW |
| LBREVINI | ET 3067,i=227.6 | 14KW |
| LBREVINI | ET 3067,i=262.8 | 14KW |
| LBREVINI | ET 3067,i=315.4 | 14KW |
| LBREVINI | EC 3067 – PDA 3067,i=40.53 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=43.37 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=47.83 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=56.60 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=63.00 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=70.02 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=83.60 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=92.20 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=97.02 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=117.2 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=120.0 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=145.0 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=167.5 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=201.0 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=40.53 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=43.37 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=47.83 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=56.60 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=63.00 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=70.02 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=83.60 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=92.20 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=97.02 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=117.2 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=120.0 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=145.0 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=167.5 | 11KW |
| LBREVINI | EC 3067 – PDA 3067,i=201.0 | 11KW |
| LBREVINI | S45 CR1 ED 2067 | |
| LBREVINI | S45 CR1 ET 3067 | |
| LBREVINI | S46 C1 ED 2067 | |
| LBREVINI | S46 C1 ET 3067 | |
| LBREVINI | SU 2 ED 2067 | |
| LBREVINI | SU 2 ET 3067 | |
| LBREVINI | 48.82 ET 3067 | |
| LBREVINI | FL250 ED 2067 | |
| LBREVINI | FL250 ET 3067 | |
| LBREVINI | FL250 EC 3067 | |
| LBREVINI | FL250 EC 3067* | |
| LBREVINI | FL350 ED 2067 | |
| LBREVINI | FL350 ET 3067 | |
| LBREVINI | FL350 EC 3067 | |
| LBREVINI | FL350 EC 3067* | |
| LBREVINI | FL450 ED 2067 | |
| LBREVINI | FL450 ET 3067 | |
| LBREVINI | FL450 EC 3067 | |
| LBREVINI | FL450 EC 3067* | |
| LBREVINI | FL650 ED 2067 | |
| LBREVINI | FL650 ET 3067 | |
| LBREVINI | FL750 ED 2067 | |
| LBREVINI | FL750 ET 3067 | |
| LBREVINI | FL620.U ED 2067 | |
| LBREVINI | FL620.U ET 3067 | |
| LBREVINI | FL620.U EC 3067 | |
| LBREVINI | FL620.U EC 3067* | |
| LBREVINI | FL635.U ED 2067 | |
| LBREVINI | FL635.U ET 3067 | |
| LBREVINI | FL635.U EC 3067 | |
| LBREVINI | FL635.U EC 3067* | |
| LBREVINI | FL620.10 ET 3067 | |
| LBREVINI | FL635.10 ET 3067 | |
| LBREVINI | ED 2067 MR-MR1-FS | |
| LBREVINI | ED 2067 FE | |
| LBREVINI | ED 2067 FP | |
| LBREVINI | ET 3067 MR-MR1-FS | |
| LBREVINI | ET 3067 FE | |
| LBREVINI | ET 3067 FP | |
| LBREVINI | PD 2067 PD | |
| LBREVINI | PD 3067 PD | |
| LBREVINI | EC 3067 MR-MR1-FE-FS-FP | |
| LBREVINI | EC 3067* MR-MR1-FE-FS-FP | |
| LBREVINI | PDA3069 PDA | |
| LBREVINI | PDA 3069* PDA | |
| LBREVINI | EM 1090,i=4.08 | 40KW |
| LBREVINI | EM 1090,i=5.05 | 40KW |
| LBREVINI | EM 1090,i=5.81 | 40KW |
| LBREVINI | EM 1090,i=6.92 | 40KW |
| LBREVINI | EM 1090,i=8.70 | 40KW |
| LBREVINI | ED 2090,i=14.28 | 23KW |
| LBREVINI | ED 2090,i=16.85 | 23KW |
| LBREVINI | ED 2090,i=17.68 | 23KW |
| LBREVINI | ED 2090,i=21.09 | 23KW |
| LBREVINI | ED 2090,i=24.48 | 23KW |
| LBREVINI | ED 2090,i=29.58 | 23KW |
| LBREVINI | ED 2090,i=30.30 | 23KW |
| LBREVINI | ED 2090,i=36.61 | 23KW |
| LBREVINI | ED 2090,i=41.52 | 23KW |
| LBREVINI | ED 2090,i=44.98 | 23KW |
| LBREVINI | ED 2090,i=50.17 | 23KW |
| LBREVINI | ET 3090,i=58.98 | 15KW |
| LBREVINI | ET 3090,i=61.86 | 15KW |
| LBREVINI | ET 3090,i=73.83 | 15KW |
| LBREVINI | ET 3090,i=75.40 | 15KW |
| LBREVINI | ET 3090,i=87.12 | 15KW |
| LBREVINI | ET 3090,i=101.1 | 15KW |
| LBREVINI | ET 3090,i=109.1 | 15KW |
| LBREVINI | ET 3090,i=126.6 | 15KW |
| LBREVINI | ET 3090,i=146.9 | 15KW |
| LBREVINI | ET 3090,i=152.9 | 15KW |
| LBREVINI | ET 3090,i=177.5 | 15KW |
| LBREVINI | ET 3090,i=209.2 | 15KW |
| LBREVINI | ET 3090,i=219.7 | 15KW |
| LBREVINI | ET 3090,i=252.7 | 15KW |
| LBREVINI | ET 3090,i=265.4 | 15KW |
| LBREVINI | ET 3090,i=305.4 | 15KW |
| LBREVINI | ET 3090,i=363.7 | 15KW |
| LBREVINI | EQ 4090,i=409.3 | 11KW |
| LBREVINI | EQ 4090,i=443.0 | 11KW |
| LBREVINI | EQ 4090,i=512.4 | 11KW |
| LBREVINI | EQ 4090,i=555.6 | 11KW |
| LBREVINI | EQ 4090,i=654.3 | 11KW |
| LBREVINI | EQ 4090,i=718.5 | 11KW |
| LBREVINI | EQ 4090,i=779.1 | 11KW |
| LBREVINI | EQ 4090,i=878.3 | 11KW |
| LBREVINI | EQ 4090,i=1019 | 11KW |
| LBREVINI | EQ 4090,i=1145 | 11KW |
| LBREVINI | EQ 4090,i=1232 | 11KW |
| LBREVINI | EQ 4090,i=1329 | 11KW |
| LBREVINI | EQ 4090,i=1606 | 11KW |
| LBREVINI | EQ 4090,i=1864 | 11KW |
| LBREVINI | EQ 4090,i=1988 | 11KW |
| LBREVINI | EQ 4090,i=2307 | 11KW |
| LBREVINI | EQ 4090,i=2524 | 11KW |
| LBREVINI | EQ 4090,i=2787 | 11KW |
| LBREVINI | EQ 4090,i=3207 | 11KW |
| LBREVINI | EM 1090,i=4.08 | 40KW |
| LBREVINI | EM 1090,i=5.05 | 40KW |
| LBREVINI | EM 1090,i=5.81 | 40KW |
| LBREVINI | EM 1090,i=6.92 | 40KW |
| LBREVINI | EM 1090,i=8.70 | 40KW |
| LBREVINI | ED 2090,i=14.28 | 23KW |
| LBREVINI | ED 2090,i=16.85 | 23KW |
| LBREVINI | ED 2090,i=17.68 | 23KW |
| LBREVINI | ED 2090,i=21.09 | 23KW |
| LBREVINI | ED 2090,i=24.48 | 23KW |
| LBREVINI | ED 2090,i=29.58 | 23KW |
| LBREVINI | ED 2090,i=30.30 | 23KW |
| LBREVINI | ED 2090,i=36.61 | 23KW |
| LBREVINI | ED 2090,i=41.52 | 23KW |
| LBREVINI | ED 2090,i=44.98 | 23KW |
| LBREVINI | ED 2090,i=50.17 | 23KW |
| LBREVINI | ET 3090,i=58.98 | 15KW |
| LBREVINI | ET 3090,i=61.86 | 15KW |
| LBREVINI | ET 3090,i=73.83 | 15KW |
| LBREVINI | ET 3090,i=75.40 | 15KW |
| LBREVINI | ET 3090,i=87.12 | 15KW |
| LBREVINI | ET 3090,i=101.1 | 15KW |
| LBREVINI | ET 3090,i=109.1 | 15KW |
| LBREVINI | ET 3090,i=126.6 | 15KW |
| LBREVINI | ET 3090,i=146.9 | 15KW |
| LBREVINI | ET 3090,i=152.9 | 15KW |
| LBREVINI | ET 3090,i=177.5 | 15KW |
| LBREVINI | ET 3090,i=209.2 | 15KW |
| LBREVINI | ET 3090,i=219.7 | 15KW |
| LBREVINI | ET 3090,i=252.7 | 15KW |
| LBREVINI | ET 3090,i=265.4 | 15KW |
| LBREVINI | ET 3090,i=305.4 | 15KW |
| LBREVINI | ET 3090,i=363.7 | 15KW |
| LBREVINI | EQ 4090,i=409.3 | 11KW |
| LBREVINI | EQ 4090,i=443.0 | 11KW |
| LBREVINI | EQ 4090,i=512.4 | 11KW |
| LBREVINI | EQ 4090,i=555.6 | 11KW |
| LBREVINI | EQ 4090,i=654.3 | 11KW |
| LBREVINI | EQ 4090,i=718.5 | 11KW |
| LBREVINI | EQ 4090,i=779.1 | 11KW |
| LBREVINI | EQ 4090,i=878.3 | 11KW |
| LBREVINI | EQ 4090,i=1019 | 11KW |
| LBREVINI | EQ 4090,i=1145 | 11KW |
| LBREVINI | EQ 4090,i=1232 | 11KW |
| LBREVINI | EQ 4090,i=1329 | 11KW |
| LBREVINI | EQ 4090,i=1606 | 11KW |
| LBREVINI | EQ 4090,i=1864 | 11KW |
| LBREVINI | EQ 4090,i=1988 | 11KW |
| LBREVINI | EQ 4090,i=2307 | 11KW |
| LBREVINI | EQ 4090,i=2524 | 11KW |
| LBREVINI | EQ 4090,i=2787 | 11KW |
| LBREVINI | EQ 4090,i=3207 | 11KW |
| LBREVINI | EC 2090- PDA 2090,i=12.24 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=15.15 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=17.43 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=20.76 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=23.33 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=26.84 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=31.97 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=40.19 | 18KW |
| LBREVINI | EC 3090 – PDA 3090,i=42.84 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=50.55 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=53.03 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=65.97 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=73.44 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=77.85 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=90.90 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=97.45 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=113.1 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=120.6 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=140.0 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=161.1 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=169.1 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=194.6 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=231.8 | 15KW |
| LBREVINI | EC 4090 – PDA 4090,i=285.8 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=321.5 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=341.1 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=395.8 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=467.1 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=503.8 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=564.4 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=623.6 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=706.5 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=820.0 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=874.5 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1015 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1168 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1226 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1411 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1680 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1748 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=2113 | 10KW |
| LBREVINI | EC 2090- PDA 2090,i=12.24 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=15.15 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=17.43 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=20.76 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=23.33 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=26.84 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=31.97 | 18KW |
| LBREVINI | EC 2090- PDA 2090,i=40.19 | 18KW |
| LBREVINI | EC 3090 – PDA 3090,i=42.84 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=50.55 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=53.03 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=65.97 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=73.44 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=77.85 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=90.90 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=97.45 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=113.1 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=120.6 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=140.0 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=161.1 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=169.1 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=194.6 | 15KW |
| LBREVINI | EC 3090 – PDA 3090,i=231.8 | 15KW |
| LBREVINI | EC 4090 – PDA 4090,i=285.8 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=321.5 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=341.1 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=395.8 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=467.1 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=503.8 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=564.4 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=623.6 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=706.5 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=820.0 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=874.5 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1015 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1168 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1226 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1411 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1680 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=1748 | 10KW |
| LBREVINI | EC 4090 – PDA 4090,i=2113 | 10KW |
| LBREVINI | S45 C R1 EM 1090 | |
| LBREVINI | S45 C R1 ED 2090 | |
| LBREVINI | S45 C R1 ET 3090 | |
| LBREVINI | S46 C1 EM 1090 | |
| LBREVINI | S46 C1 ET 2090 | |
| LBREVINI | S46 C1 ET 3090 | |
| LBREVINI | SU 2 EM 1090 | |
| LBREVINI | SU 2 ED 2090 | |
| LBREVINI | SU 2 ET 3090 | |
| LBREVINI | SU 2 EQ 4090 | |
| LBREVINI | 48.82 EC 2090 | |
| LBREVINI | 48.82 EC 3090 | |
| LBREVINI | 48.82 EC 4090 | |
| LBREVINI | FL250 EM 1090 | |
| LBREVINI | FL250 ED 2090 | |
| LBREVINI | FL250 ET 3090 | |
| LBREVINI | FL250 EC 2090 | |
| LBREVINI | FL250 EC 2090* | |
| LBREVINI | FL250 EC 3090 | |
| LBREVINI | FL250 EC 3090* | |
| LBREVINI | FL250 EC 4090 | |
| LBREVINI | FL250 EC 4090* | |
| LBREVINI | FL350 EM 1090 | |
| LBREVINI | FL350 ED 2090 | |
| LBREVINI | FL350 ET 3090 | |
| LBREVINI | FL350 EC 2090 | |
| LBREVINI | FL350 EC 2090* | |
| LBREVINI | FL350 EC 3090 | |
| LBREVINI | FL350 EC 3090* | |
| LBREVINI | FL350 EC 4090 | |
| LBREVINI | FL350 EC 4090* | |
| LBREVINI | FL450 EM 1090 | |
| LBREVINI | FL450 ED 2090 | |
| LBREVINI | FL450 ET 3090 | |
| LBREVINI | FL450 EC 2090 | |
| LBREVINI | FL450 EC 2090* | |
| LBREVINI | FL450 EC 3090 | |
| LBREVINI | FL450 EC 3090* | |
| LBREVINI | FL450 EC 4090 | |
| LBREVINI | FL450 EC 4090* | |
| LBREVINI | FL650 EM 1090 | |
| LBREVINI | FL650 ED 2090 | |
| LBREVINI | FL650 ET 3090 | |
| LBREVINI | FL750 EM 1090 | |
| LBREVINI | FL750 ED 2090 | |
| LBREVINI | FL750 ET 3090 | |
| LBREVINI | FL950 EM 1090 | |
| LBREVINI | FL950 ED 2090 | |
| LBREVINI | FL620.U EM 1090 | |
| LBREVINI | FL620.U ED 2090 | |
| LBREVINI | FL620.U ET 3090 | |
| LBREVINI | FL620.U EQ 4090 | |
| LBREVINI | FL620.U EC 2090 | |
| LBREVINI | FL620.U EC 2090* | |
| LBREVINI | FL620.U EC 3090 | |
| LBREVINI | FL620.U EC 3090* | |
| LBREVINI | FL620.U EC 4090 | |
| LBREVINI | FL620.U EC 4090* | |
| LBREVINI | FL635.U EM 1090 | |
| LBREVINI | FL635.U ED 2090 | |
| LBREVINI | FL635.U ET 3090 | |
| LBREVINI | FL635.U EQ 4090 | |
| LBREVINI | FL635.U EC 2090 | |
| LBREVINI | FL635.U EC 2090* | |
| LBREVINI | FL635.U EC 3090 | |
| LBREVINI | FL635.U EC 3090* | |
| LBREVINI | FL635.U EC 4090 | |
| LBREVINI | FL635.U EC 4090* | |
| LBREVINI | FL620.10 EQ 4090 | |
| LBREVINI | FL635.10 EQ 4090 | |
| LBREVINI | EM 1090 MN-MN1-FE-FS | |
| LBREVINI | EM 1090 MR-MR1 | |
| LBREVINI | EM 1090 FP | |
| LBREVINI | ED 2090 MN-MN1-FE-FS | |
| LBREVINI | ED 2090 MR-MR1 | |
| LBREVINI | ED 2090 FP |
FAQ
—Why do you choose LOYAL?
LOYAL is a very professional supplier of replacement parts for piston pumps, motors, concrete pump spare parts, gearbox, cylinders, gear pumps and so on
LOYALmajor technicians have 20 years experience. We are not only supplying products to you, but also providing you
benefits and useful suggestion about goods maintenance.
—How about quality of products from LOYAL?
We always pay more attention about quality of our goods from raw material to machining, especially heat treatment to control our quality and precision parts, 100% interchangeable with origins. Stable temperature and enough time heat treatment are strictly controlled by our suppliers to make parts durable.
Warranty: 1 year
—What about delivery and service from LOYAL?
We offer all customers quick response about all inquiries every time. We stock plenty of spare parts, hydraulic pumps and hydraulic motors. If products you demanded in stock, we can delivery in 3 working days after your payment.
In case the products you needed are not in current stock, we can prepare in 2-4 weeks after your payment for hydraulic cylinders, gearbox and gear pumps, in 3-7 days for new hydraulic pumps,hydraulic motors, in 15-20 days for rebuilt hydraulic pumps,hydraulic motors.
/* 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(/(.*?):(.*)$/))&&1
| Application: | Machinery, Marine, Agricultural Machinery |
|---|---|
| Hardness: | Hardened Tooth Surface |
| Installation: | Horizontal Type |
| Layout: | Expansion |
| Gear Shape: | Conical – Cylindrical Gear |
| Step: | Three-Step |
| Samples: |
US$ 1800/Piece
1 Piece(Min.Order) | |
|---|
| Customization: |
Available
| Customized Request |
|---|

Planetary Gearbox Components
The basic components of a planetary gearset are an input, output, and stationary position. Different types of planetary gearboxes will have different output ratios and torques. A leading company for planetary gearbox design, CZPT, provides the necessary components. These components can vary in both male and female shafts and come with a variety of modular options. Here are a few things to consider about each component.
CFHK Series
The CFHK Series is a multistage planetary gearbox that contains multiple planetary gears. The multiple teeth of each planetary gear mesh simultaneously during operation to increase the transmittable torque. The gears are case hardened and ground, and the ratios of the planetary gears are integers. They were first functionally described by Leonardo da Vinci in 1490. Today, the CFHK Series is a favorite among automotive engineers and manufacturers.
The CH Series offers high accuracy with a compact design and case hardened, hypoid, and helical gearing. These gearboxes are also available in the CFXR series, with low backlash and friction. These planetary gearboxes are designed to provide high torque and high precision in a variety of applications. In addition, the CFXR series features 100% helical gearing and low backlash.
The CFHK Series features a sun gear that drives the next stage. These gears can be put in series or serially in the same housing. In some cases, the output shaft of the first stage becomes the input shaft of the second stage. In addition, ring gears are also used as structural parts of smaller gearboxes. An example of a planetary gearbox is the pencil sharpener mechanism. The pencil is placed on an axis that is set on a sun gear. The sun gear drives the next planet stage.
A planetary gear unit’s gear ratio is determined by the number of teeth in the sun gear and ring gear. The smaller the sun gear, the smaller the ratio between the sun gear and planet gears. The largest gear ratio in a planetary gear unit is 10:1. A higher number of teeth increases the transmission ratio. In order to maximize torque, the planetary gears must be rearranged. A smaller sun gear will have higher torque than a large ring gear.
CFX Series
The HPN Harmonic Planetary(r) Series planetary gearboxes offer a low-cost solution with high-performance and high-reliability. This modular design is easy to install and requires very little maintenance. Its planetary design and full complement of needle rollers allow for extended life and quiet operation. In addition, the HPN Harmonic Planetary(r) Series is available in a range of sizes.
The compact size and high-speed design of planetary gearboxes results in excellent heat dissipation. However, high-speed or sustained performance applications may require lubricants. A planetary gearbox will have smaller minimum steps to minimize noise and vibration. Planetary gears will give you the highest level of efficiency while minimizing noise. As a result, they can provide high-quality 3D prints.
A planetary gear train is composed of a ring gear and planet gears, each supported by a carrier. A ring gear is pink, while the sun gear is red. The sun gear and carrier rotate around each other at a 45-degree angle. This is also known as an epicyclic gear. Planetary gearboxes are often found in space-constrained applications. The CFX Series features a compact design and excellent performance.
The CFX Series features a robust design that is easy to install. Its compact size makes installation of planetary gearboxes easier and faster. They are available in three different configurations for continuous, intermittent, and counter-clockwise operation. The CFX Series offers the perfect solution for your accelerating needs. They’re a great solution for any automotive or industrial application. You can easily configure the CFX Series to meet your specific requirements.
CAP Series
The Candy Controls CAP Series is a new generation of compact, precision planetary gearboxes that combine high torques with low backlash and exceptional wear resistance. This rotary flange planetary gearbox is ideal for a variety of industrial, mining and marine applications. Its modular construction enables users to easily mount different stages, hydraulic or electric motors, and different types of gears. Its CPH Series features an extremely rigid alloy steel housing, carburized gears, and induction hardened gears.
The CAP Series utilizes multiple planetary gears for high torque transmission. The number of planetary gears is not fixed, but most planetary gearboxes utilize at least three. The larger the number of planetary gears, the higher the transmittable torque. A planetary gearbox is composed of multiple planetary gears with a meshing action that occurs simultaneously during operation. The result is a higher efficiency and a smoother, quieter operation than a conventional gearbox.
The VersaPlanetary range features modular design for easy installation. This system includes mounting plates for typical FIRST (r) Robotics Competition motors. The mounting plates are designed to fit each motor. These planetary gearboxes are compatible with various types of motors, from small electric motors to large, heavy duty ones. They are also compatible with a variety of mounting systems, including CIM motors.
CAPK Series
The CZPT APK Series is a high precision, rotary flange style planetary gearbox. Its case hardened and ground gears are designed to provide excellent wear resistance, low backlash, and excellent precision. The CAPK Series offers high axial and moment load capacities in a compact housing. CZPT is the world leader in the production of planetary gearboxes. The CAPK Series features an array of high-quality, innovative features.
CZPT SMART Lubrication technology is used to keep the gears well-lubricated and reduce noise and vibration. The planetary gearbox’s 3-gear design is ideal for DIY CNC robotics. This series has a long history of quality, and CZPT uses only the best components. The CZPT 3:1 High Precision Planetary Gearbox is an excellent choice for CNC Robotics and other applications.
A multi-stage planetary gearbox combines individual ratios for a greater number of ratios. Additional planetary gears increase the transmittable torque. The direction of the output and drive shaft are always identical. The CAPK Series features a high-quality, durable construction. They are made from stainless steel and offer a long-term warranty. They are the best choice for industrial and commercial applications. While planetary gears are more expensive, they are highly efficient.
CFH Series
The Candy CFH Series planetary gearboxes offer the benefits of a modular design and a low backlash. They offer a variety of size options and excellent durability. This planetary gearbox is compact and wear resistant. The CFH Series planetary gearbox has a carburized, induction hardened gears and a rigid alloy steel housing. Its low backlash and precision make it an excellent choice for industrial applications.
The CFH Series planetary gearbox is a highly efficient, high-speed helical gear. The compact design of this gearbox results in high heat dissipation and low mass inertia. Planet carrier bearings experience significant lateral forces from the transmission of torque. As a result, radial and axial forces oppose each other. The result is that the torque is distributed over three gears, reducing noise, vibration, and wear.
The planetary gearbox has three main components: a sun gear (also known as the input gear), a ring gear, and two planet gears. These are connected by a carrier that rotates about a 45-degree clockwise axis. The CFH Series of gears is available in triple and double stages. They can also be used in electric motors. As a result, the CFH Series is highly versatile.
The CFH Series of planetary gearboxes can be found in all kinds of applications, including automotive transmissions. Their compact design and high-performance performance make them a popular choice for space-constrained applications. This gearbox has several benefits and is a great alternative to a conventional helical gearbox. These gearboxes are highly effective for reducing torque and speed, and are compact enough to fit in most applications.
CZPT
If you need a high-quality planetary gearbox, the CZPT Planetary Series is the right choice. This Italian company designs and manufactures gearboxes in its San Polo d’Enza, Italy, facility with 11 branch offices and three production facilities. The company is attempting to replicate the success of the Italian Super Car industry, which has gained global recognition. The company provides a range of gearboxes for use in heavy industry, agriculture, offshore, aerial and marine work.
With over 40 years of experience, CZPT manufactures a wide range of high-quality gearboxes. From bevel-helical units to Helical units, wheel gears and negative brakes, the company has been manufacturing quality components for many industries. CZPT is a trusted Australian distributor of CZPT gear components. The company is dedicated to providing the best planetary gears for every industry.
If your CZPT Planetary gearbox is malfunctioning, you can have it repaired quickly and easily. The company uses quality materials and a variety of sizes and output ratios to cater to the most demanding applications. In addition, you can customize your gearbox to suit your specific needs. CZPT Planetary Gearboxes are highly versatile and customizable, offering infinite scalability.


editor by Dream 2024-05-02
China best Factory Direct Wpa Wpo Wpx Wps Gearbox Reduction for Concrete Mixer planetary gearbox clutch
Product Description
Product Description
Factory direct WPA WPO WPX WPS gearbox reduction For Concrete Mixer
Our Gearbox has many items for your choosing and we can produce as per your drawing or sample to meet your special request
1. Large output torque
2. Safe, reliable, economical and durable
3. Stable transmission, quiet operation
4. High carrying ability
5. High modularization design, may equip with various outer power input conveniently. Same machine type may equip with various power motor. It is easy to realize the combination and junction between every machine type
6. Transmission ratio: Fine division, wide scope. The combined machine type may form very large transmission ratio, i. E. Output very low rotary speed.
7. Form of installation: The position to be installed is not limited.
8. High strength, compact the box body of high strength cast iron, gear and gear shaft adapts the gas carbonization, quenching and fine grinding process, therefore the bearing capacity of unit volume is high.
9. Long life: Under the condition of correct type chosen(including choosing suitable operation parament ) normal operation and maintenance, the life if main parts speed reducer(except wearing parts)should not be less than 20000 hours. The wearing parts include lubricating oil, oil seal and bearing.
10. Low noise: Because main parts of speed reducer are processed, and tested critically, therefore the noise of speed reducer is low.
11.Our gear box have reached the advance international level, can replace the same kind of products imported.
HangZhou CZPT Industry Co., Ltd. is a specialized supplier of a full range of chains, sprockets, gears, gear racks, v belt pulley, timing pulley, V-belts, couplings, machined parts and so on.
Due to our CZPT in offering best service to our clients, understanding of your needs and overriding sense of responsibility toward filling ordering requirements, we have obtained the trust of buyers worldwide. Having accumulated precious experience in cooperating with foreign customers, our products are selling well in the American, European, South American and Asian markets.Our products are manufactured by modern computerized machinery and equipment. Meanwhile, our products are manufactured according to high quality standards, and complying with the international advanced standard criteria.
With many years’ experience in this line, we will be trusted by our advantages in competitive price, one-time delivery, prompt response, on-hand engineering support and good after-sales services.
Additionally, all our production procedures are in compliance with ISO9001 standards. We also can design and make non-standard products to meet customers’ special requirements. Quality and credit are the bases that make a corporation alive. We will provide best services and high quality products with all sincerity. If you need any information or samples, please contact us and you will have our soon reply.
Exhibition
/* 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(/(.*?):(.*)$/))&&1
| Applicable Industries: | Building Material Shops, Manufacturing Plant |
|---|---|
| Output Speed: | 14.4-192rpm |
| Gearing Arrangement: | Worm |
| Customization: |
Available
| Customized Request |
|---|
.shipping-cost-tm .tm-status-off{background: none;padding:0;color: #1470cc}
| Shipping Cost:
Estimated freight per unit. |
about shipping cost and estimated delivery time. |
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| Payment Method: |
|
|---|---|
|
Initial Payment Full Payment |
| Currency: | US$ |
|---|
| Return&refunds: | You can apply for a refund up to 30 days after receipt of the products. |
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Planetary Gearbox Advantages and Disadvantages
A planetary gearbox is a type of mechanical drive with a single output shaft. They are suitable for both clockwise and counterclockwise rotations, have less inertia, and operate at higher speeds. Here are some advantages and disadvantages of this type of gearbox. Let us see what these advantages are and why you should use them in your applications. Listed below are some of the benefits of planetary gearboxes.
Suitable for counterclockwise and clockwise rotation
If you want to teach children about the clock hands, you can buy some resources for counterclockwise and asymmetrical rotation. These resources include worksheets for identifying degrees of rotation, writing rules for rotation, and visual processing. You can also use these resources to teach angles. For example, the translation of shapes activity pack helps children learn about the rotation of geometric shapes. Similarly, the visual perception activity sheet helps children understand how to process information visually.
Various studies have been done to understand the anatomical substrate of rotations. In a recent study, CZPT et al. compared the position of the transitional zone electrocardiographically and anatomically. The authors found that the transitional zone was normal in nine of 33 subjects, indicating that rotation is not a sign of disease. Similarly, a counterclockwise rotation may be caused by a genetic or environmental factor.
The core tip data should be designed to work in both clockwise and counterclockwise rotation. Counterclockwise rotation requires a different starting point than a clockwise rotation. In North America, star-delta starting is used. In both cases, the figure is rotated about its point. Counterclockwise rotation, on the other hand, is done in the opposite direction. In addition, it is possible to create counterclockwise rotation using the same gimbal.
Despite its name, both clockwise and counterclockwise rotation requires a certain amount of force to rotate. When rotating clockwise, the object faces upwards. Counterclockwise rotation, on the other hand, starts from the top position and heads to the right. If rotating in the opposite direction, the object turns counterclockwise, and vice versa. The clockwise movement, in contrast, is the reverse of counterclockwise rotation.
Has less inertia
The primary difference between a planetary gearbox and a normal pinion-and-gear reducer is the ratio. A planetary gearbox will produce less inertia, which is an important advantage because it will reduce torque and energy requirements. The ratio of the planetary gearbox to its fixed axis counterpart is a factor of three. A planetary gearbox has smaller gears than a conventional planetary, so its inertia is proportional to the number of planets.
Planetary gears are less inertia than spur gears, and they share the load across multiple gear teeth. This means that they will have low backlash, and this is essential for applications with high start-stop cycles and frequent rotational direction changes. Another benefit is the high stiffness. A planetary gearbox will have less backlash than a spur gearbox, which means that it will be more reliable.
A planetary gearbox can use either spur or helical gears. The former provides higher torque ratings while the latter has less noise and stiffness. Both types of gears are useful in motorsports, aerospace, truck transmissions, and power generation units. They require more assembly time than a conventional parallel shaft gear, but the PD series is the more efficient alternative. PD series planetary gears are suitable for many applications, including servo and robotics.
In contrast, a planetary gear set can have varying input speed. This can affect the frequency response of the gearset. A mathematical model of the two-stage planetary gears has non-stationary effects and correlates with experimental findings. Fig. 6.3 shows an addendum. The dedendum’s minimum value is approximately 1.25m. When the dedendum is at its smallest, the dedendum has less inertia.
Offers greater reliability
The Planetary Gearbox is a better option for driving a vehicle than a standard spur gearbox. A planetary gearbox is less expensive, and they have better backlash, higher load capacity, and greater shock loads. Unlike spur gearboxes, however, mechanical noise is virtually nonexistent. This makes them more reliable in high-shock situations, as well as in a wide range of applications.
The Economy Series has the same power density and torque capacity of the Precision Helical Series, but it lacks the precision of the latter. In contrast, Economy Series planetary gearboxes feature straight spur planetary gearing, and they are used in applications requiring high torque. Both types of gearboxes are compatible with NEMA servo motors. If torque density is important, a planetary gearbox is the best choice.
The Dispersion of External Load: The SSI model has been extensively used to model the reliability of planetary gear systems. This model takes the contact force and fatigue strength of the system as generalized stress and strength. It also provides a theoretical framework to evaluate the reliability of planetary gear systems. It also has many other advantages that make it the preferred choice for high-stress applications. The Planetary Gearbox offers greater reliability and efficiency than traditional rack and pinion gear systems.
Planetary gearing has greater reliability and compact design. Its compact design allows for wider applications with concerns about space and weight. Additionally, the increased torque and reduction makes planetary gearboxes an excellent choice for a wide variety of applications. There are three major types of planetary gearboxes, each with its own advantages. This article describes a few of them. Once you understand their workings, you will be able to choose the best planetary gearbox for your needs.
Has higher operating speeds
When you look at planetary gearboxes, you might be confused about which one to choose. The primary issue is the application of the gearbox. You must also decide on secondary factors like noise level, corrosion resistance, construction, price, and availability worldwide. Some constructors work faster than others and deliver the gearboxes on the same day. However, the latter ones often deliver the planetary gearbox out of stock.
Compared to conventional gearboxes, a planetary gearbox can run at higher speeds when the input speed fluctuates. However, these gears are not very efficient in high-speed applications because of their increased noise levels. This makes planetary gears unsuitable for applications involving a great deal of noise. That is why most planetary gears are used in small-scale applications. There are some exceptions, but in general, a planetary gearbox is better suited for applications with higher operating speeds.
The basic planetary gearbox is a compact alternative to normal pinion-and-gear reducers. They can be used in a wide variety of applications where space and weight are concerns. Its efficiency is also higher, delivering 97% of the power input. It comes in three different types based on the performance. A planetary gearbox can also be classified as a worm gear, a spur gear, or a sprocket.
A planetary gearhead has a high-precision design and can generate substantial torque for their size. It also reduces backlash to two arc-min. Additionally, it is lubricated for life, which means no maintenance is needed. It can fit into a small machine envelope and has a small footprint. Moreover, the helical crowned gearing provides fast positioning. A sealed gearbox prevents abrasive dust from getting into the planetary gearhead.
Has drawbacks
The design of a planetary gearbox is compact and enables high torque and load capability in a small space. This gear arrangement also reduces the possibility of wear and tear. Planet gears are arranged in a planetary fashion, allowing gears to shift under load and a uniform distribution of torque. However, some disadvantages of planetary gears must be considered before investing in this gearbox.
While the planetary gearbox is a high precision motion-control device, its design and maintenance requirements are a concern. The bearing load is high, requiring frequent lubrication. Also, they are inaccessible. Despite these drawbacks, planetary gearboxes are suitable for a variety of tasks. They also have low backlash and high torsional stiffness, making them excellent choices for many applications.
As a result, the speed of a planetary gearbox varies with load and speed. At lower ratios, the sun gear becomes too large in relation to the planet gears. As the ratio increases, the sun gear will become too low, reducing torque. The planetary gears also reduce their torque in high-speed environments. Consequently, the ratio is a crucial consideration for planetary gearbox condition monitoring.
Excess drag may result from out-of-tolerance components or excessive lubrication. Drag should be measured both in directions and be within acceptable ranges. Grease and oil lubrication are two common planetary gearbox lubricants, but the choice is largely dependent on your application. While grease lubricates planetary gears well, oil needs maintenance and re-lubrication every few thousand hours.


editor by Dream 2024-05-02
China Best Sales Cua Cone Worm Gear Reducer with Flange Mounted
Product Description
CUA Cone Worm Gear Reducer with Flange Mounted
Technical data:
1. Ratio range: 10-63
2. Input power: 1.5-450KW
3. Permit torque rang: ≤40000N. M
4. Structure mode: Possibility of flange, foot, or shaft mounting solutions
characteristic
1. double-enveloping worm gearing,3-5 teeth contact;
2. small volume ,big capacity;
3. 3-5 times than universal worm gear;
4. high efficiency,66%-91%
Datasheet on CUW double enveloping worm gear reducer :
| Model | ShaftDia. (mm) | Center Height (CUW) | (CUW) Output shaft Dia. | Power | Ratio | Permitted Torque | Weight |
| (CUW) input Solid(h6) | (mm) | (mm) | (kw) | (Nm) | (KGS) | ||
| 100 | 28 | 190 | 48 | 1.41~11.5 | 10 .25~ 62 | 683-1094 | 42 |
| 125 | 32 | 225 | 55 | 2.42~19.7 | 10 .25 ~ 62 | 1170~2221 | 65 |
| 140 | 38 | 255 | 65 | 3.94~25.9 | 10 .25 ~ 62 | 1555 ~ 3473 | 85 |
| 160 | 42 | 290 | 70 | 4.39~35.7 | 10 .25 ~ 62 | 2143 ~4212 | 120 |
| 180 | 48 | 320 | 80 | 5.83~47.5 | 10 .25 ~ 62 | 2812 ~ 5387 | 170 |
| 200 | 55 | 350 | 90 | 7.52 ~61.2 | 10 .25 ~ 62 | 3624 ~6859 | 220 |
| 225 | 60 | 390 | 100 | 9.9~81.4 | 10 .25 ~ 62 | 4872 ~ 9224 | 290 |
| 250 | 65 | 430 | 110 | 12.9 ~105 | 10 .25~ 62 | 6284~11892 | 380 |
| 280 | 70 | 480 | 120 | 16.9 ~ 138 | 10 .25 ~ 62 | 8347 ~ 15820 | 520 |
| 315 | 75 | 530 | 140 | 22.5 ~183 | 10 .25 ~ 62 | 11068~ 19450 | 700 |
| 355 | 80 | 595 | 150 | 30~245 | 10 .25 ~ 62 | 14818 ~28014 | 1030 |
| 400 | 90 | 660 | 170 | 32.1 ~261 | 10 .25 ~ 62 | 15786~29918 | 1400 |
| 450 | 100 | 740 | 190 | 42.6 ~347 | 10 .25 ~ 62 | 2571~39881 | 1980 |
| 500 | 110 | 815 | 210 | 54.9 ~ 448 | 10 .25 ~ 62 | 27097~51180 | 2700 |
/* 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(/(.*?):(.*)$/))&&1
| Application: | Agricultural Machinery, Industry |
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| Hardness: | Hardened Tooth Surface |
| Installation: | Vertical Type |
| Layout: | Coaxial |
| Gear Shape: | Cylindrical Gear |
| Step: | Single-Step |
| Samples: |
US$ 1000/Piece
1 Piece(Min.Order) | |
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| Customization: |
Available
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How do electronic or computer-controlled components integrate with winch drives in modern applications?
In modern applications, electronic or computer-controlled components play a crucial role in enhancing the functionality, precision, and safety of winch drives. These components integrate with winch drives to provide advanced control, monitoring, and automation capabilities. Here’s a detailed explanation of how electronic or computer-controlled components integrate with winch drives in modern applications:
- Control Systems:
Electronic or computer-controlled components are used to create sophisticated control systems for winch drives. These control systems allow operators to precisely control the speed, direction, and position of the winch drive. By integrating sensors, actuators, and feedback mechanisms, the control system can monitor the operating conditions and adjust parameters in real-time to optimize performance. Control systems may include programmable logic controllers (PLCs), microcontrollers, or dedicated electronic control units (ECUs) that communicate with the winch drive to execute commands and maintain desired operating parameters.
- Human-Machine Interfaces (HMIs):
Electronic components enable the integration of intuitive and user-friendly Human-Machine Interfaces (HMIs) with winch drives. HMIs provide a visual interface for operators to interact with the winch drive system. Touchscreen displays, buttons, switches, and graphical user interfaces (GUIs) allow operators to input commands, monitor system status, and access diagnostic information. HMIs also facilitate the adjustment of control parameters, alarm settings, and operational modes. The integration of HMIs enhances operator control and simplifies the operation of winch drives in modern applications.
- Sensors and Feedback Systems:
Electronic sensors are employed to gather real-time data about various parameters related to the winch drive and the operating environment. These sensors can measure variables such as load weight, cable tension, speed, temperature, and motor current. The collected data is then fed back to the control system, allowing it to make informed decisions and adjustments. For example, if the load exceeds a predefined limit, the control system can send a signal to stop the winch drive or activate an alarm. Sensors and feedback systems ensure accurate monitoring of operating conditions and enable proactive control and safety measures.
- Communication Protocols:
Electronic or computer-controlled components facilitate communication between winch drives and other devices or systems. Modern winch drives often support various communication protocols, such as Ethernet, CAN bus, Modbus, or Profibus, which enable seamless integration with higher-level control systems, supervisory systems, or industrial networks. This integration allows for centralized control, remote monitoring, and data exchange between the winch drive and other components or systems, enhancing coordination and automation in complex applications.
- Automation and Programmability:
Electronic or computer-controlled components enable advanced automation and programmability features in winch drives. With the integration of programmable logic controllers (PLCs) or microcontrollers, winch drives can execute pre-programmed sequences of operations, follow specific load profiles, or respond to external commands and triggers. Automation reduces manual intervention, improves efficiency, and enables synchronized operation with other equipment or systems. Programmability allows customization and adaptation of winch drive behavior to meet specific application requirements.
- Diagnostics and Condition Monitoring:
Electronic components enable comprehensive diagnostics and condition monitoring of winch drives. Built-in sensors, data logging capabilities, and advanced algorithms can monitor the health, performance, and operating parameters of the winch drive in real-time. This information can be used for predictive maintenance, early fault detection, and performance optimization. Additionally, remote access and network connectivity enable remote monitoring and troubleshooting, reducing downtime and improving maintenance efficiency.
In summary, electronic or computer-controlled components integrate with winch drives in modern applications to provide advanced control, monitoring, automation, and safety features. These components enable precise control, user-friendly interfaces, data-driven decision-making, communication with other systems, automation, and diagnostics. The integration of electronic components enhances the functionality, efficiency, and reliability of winch drives in a wide range of applications.

What factors should be considered when selecting a winch drive for specific applications?
When selecting a winch drive for specific applications, several factors need to be considered to ensure optimal performance and compatibility. Here’s a detailed explanation of the key factors that should be taken into account:
- Load Capacity:
The load capacity is one of the most critical factors to consider when selecting a winch drive. It refers to the maximum weight or force that the winch can handle safely and efficiently. It’s essential to evaluate the anticipated loads in the specific application and choose a winch drive with a sufficient load capacity to handle those loads. Selecting a winch drive with inadequate load capacity can result in safety hazards, reduced performance, and potential damage to the winch or the load being lifted or pulled.
- Power Source:
The power source of the winch drive is another crucial consideration. Winch drives are available in electric, hydraulic, and pneumatic variants, each with its own advantages and limitations. The choice of power source depends on factors such as the availability of power, the required pulling power, and the specific application’s environmental conditions. Electric winch drives are commonly used due to their ease of use and versatility. Hydraulic winch drives offer high pulling power for heavy-duty applications, while pneumatic winch drives are suitable for hazardous or explosive environments where electrical components are not permitted.
- Control Mechanisms:
The control mechanisms of the winch drive play a significant role in the efficiency and ease of operation. Consider the control options available for the winch drive, such as manual control, remote control, or integrated control systems. Remote control systems, for example, allow operators to control the winch drive from a safe distance, enhancing safety and flexibility. Additionally, some winch drives offer features like variable speed control, which allows for precise positioning and controlled movement of the load.
- Environmental Conditions:
The environmental conditions in which the winch drive will be used should be carefully assessed. Some winch drives are designed to withstand harsh environments, such as extreme temperatures, moisture, dust, or corrosive substances. For example, in marine applications, winch drives need to be corrosion-resistant and capable of operating in wet and salty conditions. Assessing the specific environmental conditions and selecting a winch drive with appropriate protection and durability features ensures its longevity and reliable performance.
- Mounting and Installation:
The mounting and installation requirements of the winch drive should be considered to ensure proper integration into the intended application. Evaluate factors such as space availability, mounting options (e.g., vehicle-mounted, structure-mounted, or portable), and compatibility with existing equipment or systems. Some winch drives may require additional accessories or modifications for installation, so it’s important to factor in these considerations during the selection process.
- Safety Features:
Winch drives should be equipped with appropriate safety features to prevent accidents and ensure secure operation. Common safety features include overload protection, emergency stop mechanisms, limit switches, and braking systems for load holding. These safety features contribute to the safe operation of the winch drive and protect against potential hazards or damage caused by excessive loads or unexpected circumstances.
- Reliability and Maintenance:
Consider the reliability and maintenance requirements of the winch drive. Look for winch drives from reputable manufacturers known for producing high-quality and reliable equipment. Assess factors such as maintenance intervals, ease of maintenance, availability of spare parts, and after-sales support. Choosing a winch drive that is reliable and has accessible maintenance options ensures minimal downtime and long-term cost-effectiveness.
By considering these factors when selecting a winch drive for specific applications, you can make an informed decision that aligns with the load requirements, power source availability, control preferences, environmental conditions, and safety considerations of your intended application.

Can you describe the various types and configurations of winch drives available in the market?
There are several types and configurations of winch drives available in the market, each designed to suit specific applications and requirements. Here’s a detailed description of the various types and configurations of winch drives:
- Electric Winch Drives:
Electric winch drives are powered by electric motors and are widely used in various industries. They are available in different load capacities and configurations. Electric winches are known for their ease of use, precise control, and relatively low maintenance requirements. They can be mounted on vehicles, equipment, or structures and are commonly used in applications such as vehicle recovery, marine operations, construction sites, and material handling.
- Hydraulic Winch Drives:
Hydraulic winch drives are powered by hydraulic systems and offer high pulling power for heavy-duty applications. They are commonly used in industries such as construction, oil and gas, and marine operations. Hydraulic winch drives are known for their robustness, durability, and ability to handle extreme loads. They are often mounted on large vehicles, cranes, or offshore platforms. Hydraulic winch drives require hydraulic power sources, such as hydraulic pumps, and are suitable for applications that require continuous and sustained pulling power.
- Pneumatic Winch Drives:
Pneumatic winch drives utilize compressed air as the power source. They are mainly used in hazardous or explosive environments where electric or hydraulic power sources are not suitable. Pneumatic winch drives are commonly found in industries such as mining, oil refineries, and chemical plants. They offer a high level of safety due to the absence of electrical components and are capable of handling heavy loads in challenging environments.
- Planetary Winch Drives:
Planetary winch drives are a popular type of winch drive known for their compact size, high efficiency, and high torque output. They consist of a central sun gear, multiple planetary gears, and an outer ring gear. The planetary gear system allows for high torque multiplication while maintaining a compact design. Planetary winch drives are commonly used in off-road vehicles, ATV winches, and small to medium-sized industrial applications.
- Worm Gear Winch Drives:
Worm gear winch drives utilize a worm gear mechanism to achieve high gear reduction ratios. They offer excellent load holding capabilities and are commonly used in applications where precise load control and safety are paramount. Worm gear winch drives are popular in industries such as construction, theater rigging, and material handling. They are known for their self-locking feature, which prevents backdriving and provides secure load holding.
- Capstan Winch Drives:
Capstan winch drives are designed with a rotating drum or capstan instead of a traditional spool. They are commonly used in applications that require constant tension or controlled pulling speeds, such as in marine settings for mooring operations or on fishing vessels. Capstan winch drives offer efficient and continuous pulling power and are suitable for handling ropes, cables, or lines with minimal slippage.
- Wire Rope Winch Drives:
Wire rope winch drives are specifically designed to handle wire ropes as the lifting or pulling medium. They are equipped with drums that accommodate wire ropes of different diameters and lengths. Wire rope winch drives are commonly used in industries such as construction, mining, and offshore operations. They offer high load capacities and are suitable for heavy-duty applications that require strength, durability, and resistance to abrasion.
These are some of the various types and configurations of winch drives available in the market. Each type has its own advantages and is designed to cater to specific applications and industry requirements. When selecting a winch drive, it’s important to consider factors such as load capacity, power source, control mechanisms, and environmental conditions to ensure optimal performance and efficiency.


editor by Dream 2024-05-02
China Professional Nmrv Worm Geared Motor Reducer for Mask Machinery
Product Description
SC Transmission NMRV Worm Geared Motor Reducer for Mask Machinery
Product Description
Features
1. Wide transmission rate, strong output torque
2. Compact mechanical structure, light weight, small volume&Good heat-dissipating
3. Smooth operation with lower noise or vibration
4. Easy mounting, free linking, high efficiency
5. PERFECT SUBSTITUDE FOR MOTOVARIO AND CHINAMFG PRODUCTS
Detailed Photos
Product Parameters
Company Profile
FAQ
Shipping
/* 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(/(.*?):(.*)$/))&&1
| Application: | Motor, Machinery, Agricultural Machinery |
|---|---|
| Gear Shape: | Bevel Gear |
| Step: | Single-Step |
| Type: | Worm Reducer |
| Output Torque: | 2.6n.M-1195n.M |
| Input: | Flange or Shaft |
| Samples: |
US$ 50/Piece
1 Piece(Min.Order) | |
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| Customization: |
Available
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How does the choice of winch drives affect the overall performance and reliability of lifting operations?
The choice of winch drives has a significant impact on the overall performance and reliability of lifting operations. Here’s a detailed explanation of how the choice of winch drives affects performance and reliability:
- Lifting Capacity:
The choice of winch drives directly affects the lifting capacity of the system. Different winch drives have varying load capacities, and selecting an appropriate winch drive that matches the intended lifting requirements is crucial. Choosing a winch drive with insufficient lifting capacity can result in overloading, which can lead to equipment failure, safety hazards, and potential damage to the load or surrounding structures. On the other hand, selecting a winch drive with a higher lifting capacity than necessary can lead to unnecessary costs and inefficient operation. Therefore, selecting the right winch drive with the appropriate lifting capacity is essential for optimal performance and reliability.
- Speed and Control:
The choice of winch drives also affects the speed and control of lifting operations. Different winch drives offer varying speed ranges and control options. High-quality winch drives provide smooth and precise speed control, allowing for accurate positioning and delicate handling of loads. The choice of winch drives with suitable speed and control capabilities ensures efficient and controlled lifting operations, reducing the risk of accidents, damage to the load, or strain on the lifting equipment. Additionally, winch drives with advanced control features, such as programmable logic controllers (PLCs) or electronic control systems, enhance operational reliability and performance by enabling synchronized movements and automation.
- Durability and Reliability:
The choice of winch drives significantly impacts the durability and reliability of lifting operations. High-quality winch drives constructed with robust materials and designed for heavy-duty applications offer enhanced durability and reliability. They can withstand the demanding conditions and stress associated with lifting operations, minimizing the risk of breakdowns, malfunctions, or premature wear. Choosing winch drives from reputable manufacturers known for their quality and reliability ensures long-term performance and reduces the need for frequent maintenance or replacement, enhancing the overall reliability of the lifting operations.
- Safety Features:
Winch drives come with various safety features that contribute to the overall performance and reliability of lifting operations. These safety features include overload protection systems, emergency stop controls, limit switches, and fail-safe mechanisms. The choice of winch drives with comprehensive safety features enhances the safety of lifting operations by preventing overloading, safeguarding against equipment failures, and providing emergency shutdown options in critical situations. Properly selecting winch drives with appropriate safety features ensures compliance with safety regulations, reduces the risk of accidents, and enhances the reliability of lifting operations.
- Compatibility and Integration:
Choosing winch drives that are compatible with the overall lifting system and easily integrable with other components is crucial for optimal performance and reliability. Compatibility issues can arise if the selected winch drive does not match the mechanical requirements, power supply, or control interfaces of the lifting system. Incompatibility can lead to operational inefficiencies, increased maintenance needs, or even system failures. Therefore, careful consideration of the compatibility and integration aspects when choosing winch drives ensures seamless integration, smooth operation, and enhanced reliability of lifting operations.
In summary, the choice of winch drives significantly impacts the overall performance and reliability of lifting operations. Factors such as lifting capacity, speed and control capabilities, durability and reliability, safety features, and compatibility with the overall system should be carefully considered when selecting winch drives. By choosing the right winch drives that meet the specific requirements of the lifting operations, operators can achieve optimal performance, ensure safe and efficient lifting, and enhance the overall reliability of the operations.

How do winch drives contribute to precise and controlled movement in lifting operations?
Winch drives play a crucial role in achieving precise and controlled movement in lifting operations. They provide the necessary power and control to lift and lower loads in a controlled manner. Here’s a detailed explanation of how winch drives contribute to precise and controlled movement in lifting operations:
- Pulling Power:
Winch drives are designed to generate substantial pulling power, allowing them to lift heavy loads. The power output of the winch drive is determined by factors such as the type of drive (electric, hydraulic, or pneumatic), motor power, and gear ratios. The high pulling power of winch drives enables them to handle loads with precision and control, even in challenging lifting scenarios.
- Variable Speed Control:
Many winch drives offer variable speed control, allowing operators to adjust the lifting or lowering speed according to the specific requirements of the operation. This feature enables precise movement control, particularly when dealing with delicate or sensitive loads. Operators can slow down the speed for fine positioning or speed up the operation for more efficient lifting, depending on the situation. Variable speed control enhances the precision and control of the lifting process, minimizing the risk of load damage or accidents.
- Braking Systems:
Winch drives are typically equipped with braking systems to ensure load holding and prevent unintended movement. The braking systems are designed to engage when the winch motor is not actively pulling or lowering the load, effectively immobilizing the load at the desired position. This feature allows for precise control over the load’s movement and prevents it from unintentionally drifting or descending. The braking systems contribute to the overall safety and stability of the lifting operation.
- Control Mechanisms:
The control mechanisms of winch drives play a significant role in achieving precise and controlled movement. Winch drives can be operated manually, through remote control systems, or integrated control interfaces. Remote control systems, for example, enable operators to control the winch drive from a safe distance, providing better visibility and control over the lifting operation. Integrated control interfaces often offer additional features such as load monitoring, digital displays, and programmable settings, allowing for more precise and controlled movement of the load.
- Load Monitoring and Safety Features:
Winch drives may incorporate load monitoring systems and safety features to further enhance precise and controlled movement. Load monitoring systems provide real-time feedback on the load’s weight, allowing operators to adjust the lifting parameters accordingly. Safety features such as overload protection and limit switches prevent the winch drive from operating beyond its capacity or reaching unsafe positions, ensuring controlled movement and preventing damage or accidents.
By combining their pulling power, variable speed control, braking systems, control mechanisms, and safety features, winch drives enable precise and controlled movement in lifting operations. They provide the necessary power, control, and safety measures to handle heavy loads with accuracy, minimizing the risk of load damage, accidents, or injuries. The precise and controlled movement achieved through winch drives enhances operational efficiency, load positioning, and overall safety in lifting operations.

In what industries or scenarios are winch drives commonly employed?
Winch drives find extensive utilization in various industries and scenarios that require controlled pulling or lifting capabilities. Their versatility and reliability make them valuable tools in a wide range of applications. Here’s a detailed explanation of the industries and scenarios where winch drives are commonly employed:
- Off-Road and Automotive:
Winch drives are widely utilized in off-road vehicles, such as trucks, SUVs, and ATVs, for recovery purposes. They are essential in scenarios where vehicles get stuck or need to be pulled out of challenging terrain. Winch drives mounted on the front or rear bumpers of off-road vehicles provide the necessary pulling power to extricate vehicles from mud, sand, or other obstacles. In the automotive industry, winch drives are also employed in car haulers and trailers for loading and unloading vehicles, as well as in automotive repair and maintenance for tasks like engine removal and frame straightening.
- Marine and Boating:
Winch drives play a crucial role in the marine and boating industry. They are commonly used for anchoring, mooring, and handling heavy loads. Sailboats and powerboats utilize winches to control the sails, raise and lower the anchor, and assist in docking. Larger vessels and ships employ winch drives for cargo handling, launching and recovering small boats or life rafts, and handling equipment on deck. Winch drives in the marine industry offer precise and controlled pulling or lifting capabilities in demanding maritime environments.
- Construction and Industrial:
The construction and industrial sectors heavily rely on winch drives for various tasks requiring the movement of heavy materials and equipment. Winches are commonly used in cranes, hoists, and lifting systems for raising and lowering loads, positioning materials, and erecting structures. They are also found in material handling equipment, such as forklifts and telehandlers, to assist in loading and unloading operations. Winch drives are invaluable in construction sites for activities like tensioning cables, pulling machinery, and operating temporary lifts. Their robustness and reliability make them indispensable tools in the construction and industrial industries.
- Recreational and Adventure:
Winch drives are utilized in various recreational and adventure scenarios to provide controlled movement and enhance safety. In amusement parks and adventure facilities, winches are often used in zip line systems, enabling participants to traverse from one point to another safely. They are also employed in aerial lifts and chairlifts for ski resorts and mountainous areas. Winch drives provide the necessary pulling power and controlled speed, ensuring the safety and enjoyment of individuals engaging in recreational activities. Additionally, winches are utilized in stage productions and theatrical settings to create dynamic effects, such as flying performers or moving set pieces.
- Oil and Gas:
In the oil and gas industry, winch drives are commonly employed in various operations. They are used for tasks such as wireline operations, well intervention, and the handling of heavy equipment. Winch drives assist in lowering and raising tools and instruments into wellbores, as well as in the deployment and retrieval of subsea equipment and structures. They provide the necessary pulling power and control to perform critical operations in the oil and gas exploration and production processes.
These are just a few examples of the industries and scenarios where winch drives are commonly employed. Their versatility, strength, and controllability make them valuable tools in numerous applications, ranging from off-road and automotive to marine and boating, construction and industrial, recreational and adventure, and oil and gas industries.


editor by Dream 2024-05-02
China manufacturer Best Quality Flange-Mounted S Series Helical Worm Combination Reducer
Product Description
Best Quality Flange-mounted S Series Helical Worm Combination Reducer
1. Product Characteristics
S series helical worm gearbox adopts the helical worm gears to make its structure more reasonable. S series not only has higher transmission efficency and loading capability than those single-stage worm wheel transmission, but also smaller volume and appearance. Moreover, S series worm gearbox has higher transmission ratio, and can be combined with various gearboxes and speed variators to meet the different requirements.
2. Technical Data
| Rated Power | 0.18~22KW |
| Output Speed | 0.16~147r/min |
| Output Torque | 90~4000N.m |
| Mounted Form | Foot-mounted, flange mounted, shaft-mounted, torque arm mounted |
| Housing | Aluminum and Casting Iron |
3. Structure
S series gearbox are available in the following designs:
(1) SY Foot mounted helical worm gearbox with CHINAMFG shaft
(2) SAY Helical worm gearbox with hollow shaft
(3) SAZY Small flange mounted helical worm gearbox with hollow shaft
(4) SA (S,SF,SAF,SAZ)Y Assemble users’ motor or special motor, flange is required
(5) SFY Flange mounted helical worm gearbox with CHINAMFG shaft
(6) SAFY Flange mounted helical worm gearbox with hollow shaft
(7) SATY Torque arm mounted helical worm gearbox with hollow shaft
(8) S (SF,SA,SAF,SAZ) S Shaft input helical worm gearbox
(9) SA (S,SF,SAF,SAZ)RY Combined helical worm gearbox
(10) SA (S,SF,SAF,SAZ)SR Shaft input combined helical worm gearbox
4. Detailed parameters
| Size | 38 | 48 | 58 | 68 | 78 | 88 | 98 |
| Structure | S SA SF SAF SAT SAZ | ||||||
| Input Power(KW) | 0.18-0.75 | 0.18-1.5 | 0.18-3 | 0.25-5.5 | 0.55-7.5 | 0.75-15 | 1.5-22 |
| Ratio | 10.27-152 | 11.46-244.74 | 10.78-196.21 | 11.55-227.20 | 9.96-241.09 | 11.83-222 | 12.75-230.48 |
| Maximum torque(N.m) | 90 | 170 | 295 | 520 | 1270 | 2280 | 4000 |
5.Product pictures:
6.Our company :
AOKMAN was founded in 1982, which has more than 36 years in R & D and manufacturing of gearboxes, gears, shaft, motor and spare parts.
We can offer the proper solution for uncountable applications. Our products are widely used in the ranges of metallurgical, steel, mining, pulp and paper, sugar and alcohol market and various other types of machines with a strong presence in the international market.
AOKMAN has become a reliable supplier, able to supply high quality gearboxes.With 36 years experience, we assure you the utmost reliability and security for both product and services.
7.Customer visiting:
8.Our Services:
| Pre-sale services | 1. Select equipment model. |
| 2.Design and manufacture products according to clients’ special requirement. | |
| 3.Train technical personal for clients | |
| Services during selling | 1.Pre-check and accept products ahead of delivery. |
| 2. Help clients to draft solving plans. | |
| After-sale services | 1.Assist clients to prepare for the first construction scheme. |
| 2. Train the first-line operators. | |
| 3.Take initiative to eliminate the trouble rapidly. | |
| 4. Provide technical exchanging. |
9.FAQ:
1.Q:What kinds of gearbox can you produce for us?
A:Main products of our company: UDL series speed variator,RV series worm gear reducer, ATA series shaft mounted gearbox, X,B series gear reducer,
P series planetary gearbox and R, S, K, and F series helical-tooth reducer, more
than 1 hundred models and thousands of specifications
2.Q:Can you make as per custom drawing?
A: Yes, we offer customized service for customers.
3.Q:What is your terms of payment ?
A: 30% Advance payment by T/T after signing the contract.70% before delivery
4.Q:What is your MOQ?
A: 1 Set
If you have any demand for our products please feel free to contact me.
/* 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
| Application: | Machinery |
|---|---|
| Function: | Speed Changing |
| Layout: | Right Angle |
| Hardness: | Hardened Tooth Surface |
| Installation: | Horizontal Type |
| Step: | Double-Step |
| Customization: |
Available
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How do winch drives contribute to the adaptability and versatility of mechanical systems in various settings?
Winch drives play a significant role in enhancing the adaptability and versatility of mechanical systems in various settings. Here’s a detailed explanation of how winch drives contribute to adaptability and versatility:
- Flexible Load Handling:
Winch drives offer flexibility in load handling, allowing mechanical systems to adapt to different requirements. They can handle a wide range of loads, from light to heavy, and provide precise control over the lifting, lowering, and positioning of loads. The ability to adjust the speed, torque, and direction of the winch drive enables it to accommodate different load characteristics and operational needs. This flexibility makes winch drives suitable for a variety of applications, including construction, manufacturing, marine, entertainment, and transportation industries.
- Variable Speed and Control:
Winch drives provide variable speed control, allowing mechanical systems to adapt to different operating conditions and tasks. The speed of the winch drive can be adjusted to match the specific requirements of the application, whether it involves slow and precise movements or fast and efficient operations. Additionally, winch drives offer precise control over acceleration, deceleration, and stopping, enabling smooth and controlled movements. This variable speed and control capability enhance the adaptability and versatility of mechanical systems in handling diverse tasks and operating in different environments.
- Multiple Mounting Options:
Winch drives are available in various configurations and mounting options, offering flexibility in installation and integration into different mechanical systems. They can be mounted horizontally, vertically, or at custom angles, depending on the specific requirements of the application. This versatility in mounting options allows winch drives to be easily incorporated into existing systems or adapted to fit space constraints in different settings. Whether it’s a stationary installation, mobile equipment, or overhead lifting system, winch drives can be positioned and mounted in a way that optimizes their functionality and adaptability.
- Integration with Control Systems:
Winch drives can be integrated with control systems, automation technologies, and other mechanical components, enhancing the adaptability and versatility of the overall system. They can be connected to programmable logic controllers (PLCs), human-machine interfaces (HMIs), or central control systems, enabling seamless integration and coordination with other equipment and processes. This integration allows for synchronized operations, centralized control, and automation of complex tasks, making the mechanical system more adaptable to changing requirements and versatile in different settings.
- Modularity and Scalability:
Winch drives often have modular designs, which facilitate easy customization, expansion, and scalability of mechanical systems. Additional winch drives can be added or existing ones can be reconfigured to accommodate changing load capacities or operational needs. This modularity allows mechanical systems to adapt to evolving requirements without significant redesign or replacement of the entire system. It provides the flexibility to scale up or down the capabilities of the system, making it versatile and adaptable to different settings and applications.
In summary, winch drives contribute to the adaptability and versatility of mechanical systems through their flexible load handling capabilities, variable speed and control, multiple mounting options, integration with control systems, and modularity. By incorporating winch drives, mechanical systems can adapt to different tasks, environments, and operational demands, making them versatile and suitable for a wide range of settings and applications.

What safety considerations should be taken into account when using winch drives?
Using winch drives involves certain safety considerations to ensure the well-being of operators, prevent accidents, and protect the equipment and the load being lifted. Here’s a detailed explanation of the safety considerations that should be taken into account when using winch drives:
- Operator Training:
Proper training is essential for operators who will be using winch drives. They should receive comprehensive training on the safe operation of winch drives, including understanding the controls, procedures, safety features, and potential hazards. Training should cover load calculations, safe working loads, and the importance of following safety guidelines and manufacturer’s instructions.
- Equipment Inspection:
Prior to each use, winch drives should be thoroughly inspected to ensure they are in proper working condition. This includes checking for any signs of damage, wear, or corrosion. The cables or ropes should be inspected for fraying, kinks, or other defects. Any damaged or malfunctioning components should be repaired or replaced before operating the winch drive.
- Load Capacity:
It is crucial to adhere to the specified load capacity of the winch drive. Exceeding the maximum load capacity can lead to equipment failure, accidents, and injuries. Operators should accurately determine the weight of the load to be lifted and ensure it falls within the winch drive’s rated capacity. If the load exceeds the capacity, alternative lifting methods or equipment should be used.
- Secure Anchoring:
Winch drives should be securely anchored to a stable and appropriate mounting point. This ensures that the winch drive remains stable during operation and prevents unintended movement. The anchoring point should be capable of withstanding the forces generated during lifting or pulling operations. Proper anchoring minimizes the risk of equipment tipping over or shifting unexpectedly.
- Personal Protective Equipment (PPE):
Operators should wear appropriate personal protective equipment (PPE) when using winch drives. This may include safety helmets, gloves, eye protection, and high-visibility clothing. PPE helps protect operators from potential hazards such as falling objects, flying debris, or contact with moving parts. The specific PPE requirements should be determined based on the nature of the lifting operation and any applicable safety regulations.
- Safe Operating Distance:
Operators and other personnel should maintain a safe distance from the winch drive during operation. This prevents accidental contact with moving parts or the load being lifted. Clear warning signs or barriers should be used to define the restricted area around the winch drive. Operators should never place themselves or others in the potential path of the load or in a position where they could be struck by the load in case of a failure or slippage.
- Emergency Stop and Controls:
Winch drives should be equipped with emergency stop mechanisms or controls that allow operators to quickly halt the operation in case of an emergency. All operators should be familiar with the location and operation of the emergency stop controls. Regular testing and maintenance of these controls are essential to ensure their effectiveness in emergency situations.
- Proper Rigging and Rigging Techniques:
Correct rigging techniques should be followed when attaching the load to the winch drive. This includes using appropriate slings, hooks, or attachments and ensuring they are properly secured. Improper rigging can lead to load instability, shifting, or falling, posing a significant safety risk. Operators should be trained in proper rigging techniques and inspect the rigging components for wear or damage before each use.
- Regular Maintenance:
Winch drives should undergo regular maintenance as recommended by the manufacturer. This includes lubrication, inspection of cables or ropes, checking for loose bolts or connections, and verifying the functionality of safety features. Regular maintenance helps identify and address potential issues before they lead to equipment failure or accidents.
By considering these safety measures, operators can ensure the safe and effective use of winch drives, minimizing the risk of accidents, injuries, or equipment damage. It is crucial to prioritize safety at all times and to comply with applicable safety regulations and guidelines.

What are the advantages of using a winch drive in comparison to other lifting mechanisms?
Using a winch drive as a lifting mechanism offers several advantages over other lifting mechanisms. The unique characteristics and capabilities of winch drives make them a preferred choice in various applications. Here’s a detailed explanation of the advantages of using a winch drive in comparison to other lifting mechanisms:
- Versatility:
Winch drives offer versatility in terms of their application and adaptability to different industries. They can be utilized in a wide range of scenarios, including off-road recovery, marine operations, construction sites, and recreational activities. Winch drives can handle various load sizes and weights, making them suitable for both light and heavy lifting tasks. The ability to use winch drives in diverse environments and industries makes them a flexible and versatile choice for lifting and pulling operations.
- Control and Precision:
Winch drives provide precise control over the lifting and pulling operation. The gearing system allows operators to adjust the speed and direction of the winch drive, enabling accurate positioning and controlled movement of the load. This level of control is particularly beneficial in applications where precise load placement or delicate handling is required. Winch drives allow for fine adjustments and smooth operation, resulting in improved precision and reduced risk of damage to the load or surrounding structures.
- Pulling Power:
Winch drives are designed to generate significant pulling power, allowing them to handle heavy loads effectively. The power source, whether it’s an electric motor or hydraulic system, provides the necessary energy to generate substantial pulling force. This makes winch drives suitable for tasks that involve moving or lifting heavy objects, such as in construction, industrial settings, or vehicle recovery. The pulling power of winch drives gives them an advantage over other lifting mechanisms that may have limited capacity or require additional equipment for handling heavier loads.
- Compactness and Portability:
Winch drives are generally compact and portable, which enhances their usability in various settings. They can be easily mounted on vehicles, equipment, or structures, offering mobility and convenience. Compact winch drives are particularly useful in off-road vehicles, where space may be limited. The portability of winch drives allows for flexibility in different applications and enables their use in remote or challenging locations where other lifting mechanisms may not be easily accessible.
- Safety:
Winch drives are designed with safety features to ensure secure and controlled lifting operations. These features may include overload protection, emergency stop mechanisms, and limit switches. The braking system in winch drives provides reliable load holding, preventing unintentional load release. Additionally, winch drives can be equipped with remote control systems, allowing operators to maintain a safe distance during operation. The safety features and control mechanisms of winch drives contribute to enhanced safety and minimize the risk of accidents or injuries.
These advantages make winch drives a preferred choice over other lifting mechanisms in many applications. The versatility, control, pulling power, compactness, portability, and safety features of winch drives provide distinct benefits that cater to the specific requirements of lifting and pulling operations in various industries and scenarios.


editor by Dream 2024-04-30
China Best Sales S Series Worm Reducer for Different Industry
Product Description
S Series Worm Reducer for Different Industry
Technical data
| Product Name | S Series Worm Reducer for Different Industry |
| Power | 0.12KW~30KW |
| Nominal output torque | 9~ 8425N · m |
| Output speed | 0.1 ~ 374r/min |
| Gear material | 20CrMnTi alloy steel |
| Gear Processing | Grinding finish by HOFLER Grinding Machines |
| Noise Test | Below 65dB |
| Brand of bearings | C&U bearing, ZWZ, LYC, HRB, CHINAMFG , etc |
| Brand of oil seal | NAK or other brand |
| Temp. rise (MAX) | 40ºC |
| Temp. rise (Oil)(MAX | 50ºC |
| Vibration | ≤20µm |
| Housing hardness | HBS190-240 |
| Surface hardness of gears | HRC58°~62 ° |
| Gear core hardness | HRC33~40 |
| Machining precision of gears | 5 Grade |
| Lubricating oil | GB L-CKC220-460, Shell Omala220-460 |
| Heat treatment | Carburizing, Quenching etc |
| Efficiency | 95%~96% (depends on the transmission stage) |
| Bearing output mode | Parallel output |
| Installation type and output mode | Bottom seated type flange type installation, solid,hollow shaft output. |
| Input mode | Direct motor, shaft input and connecting flange input |
| Input Method | Flange input(AM), shaft input(AD), inline AC motor input, or AQA servo motor |
Installation Instructions
Company Profile
< WORKSHOP
< QUALITY CONTROL
Certifications
Packaging & Shipping
FAQ
Q 1: Are you a trading company or a manufacturer?
A: We are a professional manufacturer specializing in manufacturing various series of reducer.
Q 2:Can you do OEM?
A:Yes, we can. We can do OEM for all the customers .if you want to order NON-STANDERD speed reducers,pls provide Drafts, Dimensions, Pictures and Samples if possible.
Q 3: How long is your warranty?
A: Our Warranty is 12 months under normal circumstances.
Q 4: Do you have inspection procedures for reducer?
A:100% self-inspection before packing.
Q 5: Can I have a visit to your factory before the order?
A: Sure, welcome to visit our factory.
Q 6:How to choose a gearbox? What if I don’t know which gear reducer I need?
A:You can refer to our catalogue to choose the gearbox or we can help to choose when you provide,the technical information of required output torque, output speed and motor parameter etc. Don’t worry, Send as much information as you can, our team will help you find the right 1 you are looking for.
Q 7: What information shall we give before placing a purchase order?
A:a) Type of the gearbox, Size , Transmission Ratio, input and output type, input flange, mounting position, motor information and shaft deflection etc. b)Housing color.c) Purchase quantity. d) Other special requirements
Q 8:What is the payment term?
A:You can pay via T/T(30% in advance as deposit before production +70% before delivery
/* 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(/(.*?):(.*)$/))&&1
| Application: | Motor, Machinery, Agricultural Machinery |
|---|---|
| Function: | Distribution Power, Change Drive Torque, Speed Changing, Speed Reduction |
| Layout: | Vertical Output |
| Customization: |
Available
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.shipping-cost-tm .tm-status-off{background: none;padding:0;color: #1470cc}
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Shipping Cost:
Estimated freight per unit. |
about shipping cost and estimated delivery time. |
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| Payment Method: |
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Initial Payment Full Payment |
| Currency: | US$ |
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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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Can you provide insights into the importance of proper installation and alignment of winch drives?
Proper installation and alignment of winch drives are of utmost importance to ensure optimal performance, longevity, and safety of the system. Here’s a detailed explanation of the significance of proper installation and alignment of winch drives:
- Optimal Performance:
Proper installation and alignment are crucial for achieving optimal performance of winch drives. Precise alignment ensures that the winch drive operates within its designed parameters, minimizing power losses and maximizing efficiency. Accurate installation of components, such as motors, gearboxes, and brakes, ensures that they are properly integrated and aligned with each other. This alignment reduces mechanical stress, minimizes friction, and allows for smooth and reliable operation of the winch drive, resulting in improved performance and productivity.
- Extended Lifespan:
The correct installation and alignment of winch drives contribute to their longevity. When components are misaligned or improperly installed, it can lead to excessive wear, vibration, and premature failure of critical parts. Misalignment puts additional stress on bearings, shafts, gears, and other components, causing accelerated wear and reducing their lifespan. By ensuring proper alignment during installation, the load is distributed evenly, reducing mechanical stress and increasing the lifespan of the winch drive system.
- Reduced Maintenance and Downtime:
Proper installation and alignment can significantly reduce the need for maintenance and minimize downtime. Misalignment or improper installation can cause issues such as excessive heat generation, increased friction, and misoperation of safety mechanisms. These issues can lead to frequent breakdowns and unplanned downtime, resulting in productivity losses and increased maintenance costs. By ensuring correct alignment and installation, the risk of such issues is minimized, reducing the frequency of maintenance and improving overall system uptime.
- Enhanced Safety:
The safety of personnel and equipment is a critical consideration when it comes to winch drives. Improper installation and alignment can compromise the safety of the system. Misalignment can result in unexpected movements, excessive vibrations, or loss of control, posing risks to both operators and the surrounding environment. Proper alignment ensures that the winch drive operates within its intended parameters, reducing the likelihood of malfunctions, accidents, or equipment damage. It is essential to follow manufacturer guidelines and industry standards for installation and alignment to maintain a safe working environment.
- Efficient Power Transmission:
Correct alignment of winch drives ensures efficient power transmission from the motor to the drum or load. Misalignment can lead to power losses, increased energy consumption, and reduced overall system efficiency. Proper alignment ensures that the power is transmitted smoothly and efficiently, minimizing energy wastage and optimizing the performance of the winch drive. This not only improves energy efficiency but also reduces operating costs over the lifespan of the system.
In summary, the proper installation and alignment of winch drives are essential for achieving optimal performance, extending the lifespan of the system, reducing maintenance and downtime, enhancing safety, and ensuring efficient power transmission. Following manufacturer guidelines, industry standards, and engaging experienced professionals during installation and alignment processes is crucial to maximize the benefits and longevity of winch drive systems.

What safety considerations should be taken into account when using winch drives?
Using winch drives involves certain safety considerations to ensure the well-being of operators, prevent accidents, and protect the equipment and the load being lifted. Here’s a detailed explanation of the safety considerations that should be taken into account when using winch drives:
- Operator Training:
Proper training is essential for operators who will be using winch drives. They should receive comprehensive training on the safe operation of winch drives, including understanding the controls, procedures, safety features, and potential hazards. Training should cover load calculations, safe working loads, and the importance of following safety guidelines and manufacturer’s instructions.
- Equipment Inspection:
Prior to each use, winch drives should be thoroughly inspected to ensure they are in proper working condition. This includes checking for any signs of damage, wear, or corrosion. The cables or ropes should be inspected for fraying, kinks, or other defects. Any damaged or malfunctioning components should be repaired or replaced before operating the winch drive.
- Load Capacity:
It is crucial to adhere to the specified load capacity of the winch drive. Exceeding the maximum load capacity can lead to equipment failure, accidents, and injuries. Operators should accurately determine the weight of the load to be lifted and ensure it falls within the winch drive’s rated capacity. If the load exceeds the capacity, alternative lifting methods or equipment should be used.
- Secure Anchoring:
Winch drives should be securely anchored to a stable and appropriate mounting point. This ensures that the winch drive remains stable during operation and prevents unintended movement. The anchoring point should be capable of withstanding the forces generated during lifting or pulling operations. Proper anchoring minimizes the risk of equipment tipping over or shifting unexpectedly.
- Personal Protective Equipment (PPE):
Operators should wear appropriate personal protective equipment (PPE) when using winch drives. This may include safety helmets, gloves, eye protection, and high-visibility clothing. PPE helps protect operators from potential hazards such as falling objects, flying debris, or contact with moving parts. The specific PPE requirements should be determined based on the nature of the lifting operation and any applicable safety regulations.
- Safe Operating Distance:
Operators and other personnel should maintain a safe distance from the winch drive during operation. This prevents accidental contact with moving parts or the load being lifted. Clear warning signs or barriers should be used to define the restricted area around the winch drive. Operators should never place themselves or others in the potential path of the load or in a position where they could be struck by the load in case of a failure or slippage.
- Emergency Stop and Controls:
Winch drives should be equipped with emergency stop mechanisms or controls that allow operators to quickly halt the operation in case of an emergency. All operators should be familiar with the location and operation of the emergency stop controls. Regular testing and maintenance of these controls are essential to ensure their effectiveness in emergency situations.
- Proper Rigging and Rigging Techniques:
Correct rigging techniques should be followed when attaching the load to the winch drive. This includes using appropriate slings, hooks, or attachments and ensuring they are properly secured. Improper rigging can lead to load instability, shifting, or falling, posing a significant safety risk. Operators should be trained in proper rigging techniques and inspect the rigging components for wear or damage before each use.
- Regular Maintenance:
Winch drives should undergo regular maintenance as recommended by the manufacturer. This includes lubrication, inspection of cables or ropes, checking for loose bolts or connections, and verifying the functionality of safety features. Regular maintenance helps identify and address potential issues before they lead to equipment failure or accidents.
By considering these safety measures, operators can ensure the safe and effective use of winch drives, minimizing the risk of accidents, injuries, or equipment damage. It is crucial to prioritize safety at all times and to comply with applicable safety regulations and guidelines.

Can you describe the various types and configurations of winch drives available in the market?
There are several types and configurations of winch drives available in the market, each designed to suit specific applications and requirements. Here’s a detailed description of the various types and configurations of winch drives:
- Electric Winch Drives:
Electric winch drives are powered by electric motors and are widely used in various industries. They are available in different load capacities and configurations. Electric winches are known for their ease of use, precise control, and relatively low maintenance requirements. They can be mounted on vehicles, equipment, or structures and are commonly used in applications such as vehicle recovery, marine operations, construction sites, and material handling.
- Hydraulic Winch Drives:
Hydraulic winch drives are powered by hydraulic systems and offer high pulling power for heavy-duty applications. They are commonly used in industries such as construction, oil and gas, and marine operations. Hydraulic winch drives are known for their robustness, durability, and ability to handle extreme loads. They are often mounted on large vehicles, cranes, or offshore platforms. Hydraulic winch drives require hydraulic power sources, such as hydraulic pumps, and are suitable for applications that require continuous and sustained pulling power.
- Pneumatic Winch Drives:
Pneumatic winch drives utilize compressed air as the power source. They are mainly used in hazardous or explosive environments where electric or hydraulic power sources are not suitable. Pneumatic winch drives are commonly found in industries such as mining, oil refineries, and chemical plants. They offer a high level of safety due to the absence of electrical components and are capable of handling heavy loads in challenging environments.
- Planetary Winch Drives:
Planetary winch drives are a popular type of winch drive known for their compact size, high efficiency, and high torque output. They consist of a central sun gear, multiple planetary gears, and an outer ring gear. The planetary gear system allows for high torque multiplication while maintaining a compact design. Planetary winch drives are commonly used in off-road vehicles, ATV winches, and small to medium-sized industrial applications.
- Worm Gear Winch Drives:
Worm gear winch drives utilize a worm gear mechanism to achieve high gear reduction ratios. They offer excellent load holding capabilities and are commonly used in applications where precise load control and safety are paramount. Worm gear winch drives are popular in industries such as construction, theater rigging, and material handling. They are known for their self-locking feature, which prevents backdriving and provides secure load holding.
- Capstan Winch Drives:
Capstan winch drives are designed with a rotating drum or capstan instead of a traditional spool. They are commonly used in applications that require constant tension or controlled pulling speeds, such as in marine settings for mooring operations or on fishing vessels. Capstan winch drives offer efficient and continuous pulling power and are suitable for handling ropes, cables, or lines with minimal slippage.
- Wire Rope Winch Drives:
Wire rope winch drives are specifically designed to handle wire ropes as the lifting or pulling medium. They are equipped with drums that accommodate wire ropes of different diameters and lengths. Wire rope winch drives are commonly used in industries such as construction, mining, and offshore operations. They offer high load capacities and are suitable for heavy-duty applications that require strength, durability, and resistance to abrasion.
These are some of the various types and configurations of winch drives available in the market. Each type has its own advantages and is designed to cater to specific applications and industry requirements. When selecting a winch drive, it’s important to consider factors such as load capacity, power source, control mechanisms, and environmental conditions to ensure optimal performance and efficiency.


editor by Dream 2024-04-30
China Hot selling Reliable High Load Planetary Gearbox for Material Handling comer planetary gearbox
Product Description
Product Description
Product Parameters
| Parameters | Unit | Level | Reduction Ratio | Flange Size Specification | ||||||
| 047 | 064 | 090 | 110 | 142 | 200 | 255 | ||||
| Rated Output Torque T2n | N.m | 1 | 4 | 19 | 50 | 140 | 290 | 542 | 1050 | 1700 |
| 5 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 6 | 20 | 55 | 140 | 300 | 550 | 1100 | 1800 | |||
| 7 | 19 | 50 | 140 | 300 | 550 | 1100 | 1800 | |||
| 8 | 17 | 45 | 120 | 260 | 500 | 1000 | 1600 | |||
| 10 | 14 | 40 | 100 | 230 | 450 | 900 | 1500 | |||
| 2 | 16 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | ||
| 20 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 25 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 28 | 19 | 50 | 140 | 300 | 550 | 1100 | 1800 | |||
| 35 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 40 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 50 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 70 | 19 | 50 | 140 | 300 | 550 | 1100 | 1800 | |||
| 100 | 14 | 40 | 100 | 230 | 450 | 900 | 1500 | |||
| 3 | 160 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | ||
| 200 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 250 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 280 | 19 | 50 | 140 | 300 | 550 | 1100 | 1800 | |||
| 350 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 400 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 500 | 22 | 60 | 160 | 330 | 650 | 1200 | 2000 | |||
| 700 | 19 | 50 | 140 | 300 | 550 | 1100 | 1800 | |||
| 1000 | 14 | 40 | 100 | 230 | 450 | 900 | 1500 | |||
| Maximum output torque T2b | N.m | 1,2,3 | 3~1000 | 3Times of Rated Output Torque | ||||||
| Rated input speed N1n | rpm | 1,2,3 | 3~1000 | 5000 | 5000 | 3000 | 3000 | 3000 | 3000 | 2000 |
| Maximum input speed N1b | rpm | 1,2,3 | 3~1000 | 10000 | 10000 | 6000 | 6000 | 6000 | 6000 | 4000 |
| Ultra Precision Backlash PS | arcmin | 1 | 3~10 | ≤1 | ≤1 | ≤1 | ≤1 | ≤1 | ≤1 | ≤1 |
| arcmin | 2 | 12~100 | ≤2 | ≤2 | ≤2 | ≤2 | ≤2 | ≤2 | ≤2 | |
| arcmin | 3 | 120~1000 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | |
| High precision backlash P0 | arcmin | 1 | 3~10 | ≤2 | ≤2 | ≤2 | ≤2 | ≤2 | ≤2 | ≤2 |
| arcmin | 2 | 12~100 | ≤3 | ≤3 | ≤3 | ≤3 | ≤3 | ≤3 | ≤3 | |
| arcmin | 3 | 120~1000 | ≤7 | ≤7 | ≤7 | ≤7 | ≤7 | ≤7 | ≤7 | |
| Precision backlash P1 | arcmin | 1 | 3~10 | ≤3 | ≤3 | ≤3 | ≤3 | ≤3 | ≤3 | ≤3 |
| arcmin | 2 | 12~100 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | |
| arcmin | 3 | 12~1000 | ≤9 | ≤9 | ≤9 | ≤9 | ≤9 | ≤9 | ≤9 | |
| Standard backlash P2 | arcmin | 1 | 3~10 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 | ≤5 |
| arcmin | 2 | 12~100 | ≤7 | ≤7 | ≤7 | ≤7 | ≤7 | ≤7 | ≤7 | |
| arcmin | 3 | 120~1000 | ≤11 | ≤11 | ≤11 | ≤11 | ≤11 | ≤11 | ≤11 | |
| Torsional rigidity | Nm/arcmin | 1,2,3 | 3~1000 | 3 | 4.5 | 14 | 25 | 50 | 145 | 225 |
| Allowable radial force F2rb2 | N | 1,2,3 | 3~1000 | 780 | 1550 | 3250 | 6700 | 9400 | 14500 | 30000 |
| Allowable axial force F2ab2 | N | 1,2,3 | 3~1000 | 390 | 770 | 1630 | 3350 | 4700 | 7250 | 14000 |
| Moment of inertia J1 | kg.cm2 | 1 | 3~10 | 0.05 | 0.2 | 1.2 | 2 | 7.2 | 25 | 65 |
| 2 | 12~100 | 0.03 | 0.08 | 0.18 | 0.7 | 1.7 | 7.9 | 14 | ||
| 3 | 120~1000 | 0.03 | 0.03 | 0.01 | 0.04 | 0.09 | 0.21 | 0.82 | ||
| service life | hr | 1,2,3 | 3~1000 | 20000 | ||||||
| Efficiency η | % | 1 | 3~10 | 97% | ||||||
| 2 | 12~100 | 94% | ||||||||
| 3 | 120~1000 | 91% | ||||||||
| Noise level | dB | 1,2,3 | 3~1000 | ≤56 | ≤58 | ≤60 | ≤63 | ≤65 | ≤67 | ≤70 |
| Operating Temperature | ºC | 1,2,3 | 3~1000 | -10~+90 | ||||||
| Protection class | IP | 1,2,3 | 3~1000 | IP65 | ||||||
| weights | kg | 1 | 3~10 | 0.6 | 1.3 | 3.9 | 8.7 | 16 | 31 | 48 |
| 2 | 12~100 | 0.8 | 1.8 | 4.6 | 10 | 20 | 39 | 62 | ||
| 3 | 120~1000 | 1.2 | 2.3 | 5.3 | 10.5 | 21 | 41 | 66 | ||
FAQ
Q: How to select a gearbox?
A: Firstly, determine the torque and speed requirements for your application. Consider the load characteristics, operating environment, and duty cycle. Then, choose the appropriate gearbox type, such as planetary, worm, or helical, based on the specific needs of your system. Ensure compatibility with the motor and other mechanical components in your setup. Lastly, consider factors like efficiency, backlash, and size to make an informed selection.
Q: What type of motor can be paired with a gearbox?
A: Gearboxes can be paired with various types of motors, including servo motors, stepper motors, and brushed or brushless DC motors. The choice depends on the specific application requirements, such as speed, torque, and precision. Ensure compatibility between the gearbox and motor specifications for seamless integration.
Q: Does a gearbox require maintenance, and how is it maintained?
A: Gearboxes typically require minimal maintenance. Regularly check for signs of wear, lubricate as per the manufacturer’s recommendations, and replace lubricants at specified intervals. Performing routine inspections can help identify issues early and extend the lifespan of the gearbox.
Q: What is the lifespan of a gearbox?
A: The lifespan of a gearbox depends on factors such as load conditions, operating environment, and maintenance practices. A well-maintained gearbox can last for several years. Regularly monitor its condition and address any issues promptly to ensure a longer operational life.
Q: What is the slowest speed a gearbox can achieve?
A: Gearboxes are capable of achieving very slow speeds, depending on their design and gear ratio. Some gearboxes are specifically designed for low-speed applications, and the choice should align with the specific speed requirements of your system.
Q: What is the maximum reduction ratio of a gearbox?
A: The maximum reduction ratio of a gearbox depends on its design and configuration. Gearboxes can achieve various reduction ratios, and it’s important to choose 1 that meets the torque and speed requirements of your application. Consult the gearbox specifications or contact the manufacturer for detailed information on available reduction ratios.
/* 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(/(.*?):(.*)$/))&&1
| Application: | Motor, Electric Cars, Machinery, Agricultural Machinery, Gearbox |
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| Hardness: | Hardened Tooth Surface |
| Installation: | Vertical Type |
| Customization: |
Available
| Customized Request |
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| Shipping Cost:
Estimated freight per unit. |
about shipping cost and estimated delivery time. |
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| Payment Method: |
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Initial Payment Full Payment |
| Currency: | US$ |
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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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A Brief Overview of the Spur Gear and the Helical Planetary Gearbox
This article will provide a brief overview of the Spur gear and the helical planetary gearbox. To learn more about the advantages of these gearboxes, read on. Here are a few common uses for planetary gears. A planetary gearbox is used in many vehicles. Its efficiency makes it a popular choice for small engines. Here are three examples. Each has its benefits and drawbacks. Let’s explore each one.
helical planetary gearbox
In terms of price, the CZPT is an entry-level, highly reliable helical planetary gearbox. It is suitable for applications where space, weight, and torque reduction are of high concern. On the other hand, the X-Treme series is suitable for applications requiring high-acceleration, high-axial and radial loads, and high-speed performance. This article will discuss the benefits of each type of planetary gearbox.
A planetary gearbox’s traction-based design is a variation of the stepped-planet design. This variation relies on the compression of the elements of the stepped-planet design. The resulting design avoids restrictive assembly conditions and timing marks. Compared to conventional gearboxes, compound planetary gears have a greater transmission ratio, and they do so with an equal or smaller volume. For example, a 2:1 ratio compound planet would be used with a 50-ton ring gear, and the result would be the same as a 100-ton ring gear, but the planetary disks would be half the diameter.
The Helical planetary gearbox uses three components: an input, an output, and a stationary position. The basic model is highly efficient and transmits 97% of the input power. There are three main types of planetary gearboxes, each focusing on a different performance characteristic. The CZPT basic line is an excellent place to start your research into planetary gearboxes. In addition to its efficiency and versatility, this gearbox has a host of modular features.
The Helical planetary gearbox has multiple advantages. It is versatile, lightweight, and easy to maintain. Its structure combines a sun gear and a planet gear. Its teeth are arranged in a way that they mesh with each other and the sun gear. It can also be used for stationary applications. The sun gear holds the carrier stationary and rotates at the rate of -24/16 and -3/2, depending on the number of teeth on each gear.
A helical planetary gearbox can reduce noise. Its shape is also smaller, reducing the size of the system. The helical gears are generally quieter and run more smoothly. The zero helix-angle gears, in contrast, have smaller sizes and higher torque density. This is a benefit, but the latter also increases the life of the system and is less expensive. So, while the helical planetary gearbox has many advantages, the latter is recommended when space is limited.
The helical gearbox is more efficient than the spur gear, which is limited by its lack of axial load component. The helical gears, on the other hand, generate significant axial forces in the gear mesh. They also exhibit more sliding at the points of tooth contact, adding friction forces. As such, the Helical planetary gearbox is the preferred choice in servo applications. If you’re looking for a gearbox to reduce noise and improve efficiency, Helical planetary gearboxes are the right choice.
The main differences between the two types of planetary gears can be found in the design of the two outer rings. The outer ring is also called the sun gear. The two gears mesh together according to their own axes. The outer ring is the planetary gear’s carrier. Its weight is proportional to the portion of the ring that is stationary. The carrier sets the gaps between the two gears.
Helical gears have angled teeth and are ideal for applications with high loads. They are also extremely durable and can transfer a high load. A typical Helical gearbox has two pairs of teeth, and this ensures smooth transmission. In addition, the increased contact ratio leads to lower fluctuations in mesh stiffness, which means more load capacity. In terms of price, Helical planetary gears are the most affordable gearbox type.
The outer ring gear drives the inner ring gear and surrounding planetary parts. A wheel drive planetary gearbox may have as much as 332,000 N.m. torque. Another common type of planetary gearbox is wheel drive. It is similar to a hub, but the outer ring gear drives the wheels and the sun gear. They are often combined over a housing to maximize size. One-stage Helical gears can be used in bicycles, while a two-stage planetary gear system can handle up to 113,000 N.m. torque.
The design of a helical planetary geartrain is complicated. It must comply with several constraints. These constraints relate to the geometrical relationship of the planetary geartrains. This study of the possible design space of a Helical geartrain uses geometric layouts. The ring gear, sun, and ring gear have no effect on the ratio of the planetary transmission. Nonetheless, helical geartrains are a good choice for many applications.
Spur gear planetary gearbox
The combination of planetary gears and spur gears in a transmission system is called a planetary or spur gearbox. Both the planetary gear and spur gear have their own characteristics and are used in various kinds of vehicles. They work in a similar way, but are built differently. Here are some important differences between the two types of gears. Listed below are some of the most important differences between them:
Helical gears: As opposed to spur gears, helical gears generate significant axial forces in the gear mesh. They also feature greater sliding contact at the point of tooth contact. The helix angle of a gearbox is generally in the range of 15 to 30 degrees. The higher the helix angle, the more axial forces will be transmitted. The axial force in a helical gearbox is greater than that of a spur gear, which is the reason why helical gears are more efficient.
As you can see, the planetary gearhead has many variations and applications. However, you should take care in selecting the number of teeth for your planetary gear system. A five:1 spur gear drive ratio, for example, means that the sun gear needs to complete five revolutions for every output carrier revolution. To achieve this, you’ll want to select a sun gear with 24 teeth, or five mm for each revolution. You’ll need to know the metric units of the planetary gearhead for it to be compatible with different types of machines.
Another important feature of a planetary gearbox is that it doesn’t require all of the spur gears to rotate around the axis of the drive shaft. Instead, the spur gears’ internal teeth are fixed and the drive shaft is in the same direction as the output shaft. If you choose a planetary gearbox with fixed internal teeth, you’ll need to make sure that it has enough lubrication.
The other significant difference between a spur gear and a planetary gearbox is the pitch. A planetary gearbox has a high pitch diameter, while a spur gear has low pitch. A spur gear is able to handle higher torques, but isn’t as efficient. In addition, its higher torque capability is a big drawback. Its efficiency is similar to that of a spur gear, but it is much less noisy.
Another difference between planetary and spur gear motors is their cost. Planetary gear motors tend to be more expensive than spur gear motors. But spur gears are cheaper to produce, as the gears themselves are smaller and simpler. However, planetary gear motors are more efficient and powerful. They can handle lower torque applications. But each gear carries a fixed load, limiting their torque. A spur gear motor also has fewer internal frictions, so it is often suited for lower torque applications.
Another difference between spur gears and planetary gears is their orientation. Single spur gears are not coaxial gearboxes, so they’re not coaxial. On the other hand, a planetary gearbox is coaxial, meaning its input shaft is also coaxial. In addition to this, a planetary gearbox is made of two sets of gear wheels with the same orientation. This gives it the ability to achieve concentricity.
Another difference between spur gears and planetary gears is that a planetary gear has an integer number of teeth. This is important because each gear must mesh with a sun gear or a ring gear. Moreover, each planet must have a corresponding number of teeth. For each planet to mesh with the sun, the teeth must have a certain distance apart from the other. The spacing between planets also matters.
Besides the size, the planetary gear system is also known as epicyclic gearing. A planetary gear system has a sun gear in the center, which serves as the input gear. This gear has at least three driven gears. These gears engage with each other from the inside and form an internal spur gear design. These gear sets are highly durable and able to change ratios. If desired, a planetary gear train can be converted to another ratio, thereby enhancing its efficiency.
Another important difference between a spur gear and a planetary gearbox is the type of teeth. A spur gear has teeth that are parallel to the shaft, while a planetary gear has teeth that are angled. This type of gear is most suitable for low-speed applications, where torque is necessary to move the actuation object. Spur gears also produce noise and can damage gear teeth due to repeated collisions. A spur gear can also slip, preventing torque from reaching the actuation object.


editor by Dream 2024-04-30
China Professional CHINAMFG RV Series 1: 50/1: 100 Ratio Worm Gear Reducer Perfect for Electric Door Mini Crane Hoist
Product Description
AOKMAN RV Series 1:50/1:100 Ratio Worm Gear Reducer Perfect for Electric Door Mini Crane Hoist
Product Description
NMRV 571-150 worm gear box with flange and electric motor
NMRV+NMRV Double Stage Arrangement Reduction Gear Box
RV Series Worm Gearbox
worm speed reducer
nmrv worm gear motor
Detailed Photos
RV Series
Including RV / NMRV / NRV.
Main Characteristic of RV Series Worm Gearbox
RV series worm gear reducer is a new-generation product developed by CHINAMFG on the basis of perfecting WJ series products with a compromise of advanced technology both at home and abroad.
1. High-quality aluminum alloy, light in weight and non-rusting.
2. Large in output torque.
3. Smooth running and low noise,durable in dreadful conditions.
4. High radiation efficiency.
5. Good-looking appearance, durable in service life and small volume.
6. Suitable for omnibearing installation.
Main Materials of RV Series Worm Gearbox
1. Housing: die-cast aluminum alloy(frame size: 571 to 090), cast iron(frame size: 110 to 150).
2. Worm: 20Crm, carbonization quencher heat treatment makes the surface hardness of worm gears up to 56-62 HRX, retain carbonization layer’s thickness between 0.3 and 0.5mm after precise grinding.
3. Worm Wheel: wearable stannum bronze alloy.
| SPEED RATIO | 7.5~100 |
| OUTPUT TORQUE | <1050NM |
| IN POWER | 0.09-11KW |
| MOUNTING TYPE | FOOT-MOUNTED FLANGE-MOUNTED |
Product Parameters
| When working, great load capacity, stable running, low noise with high efficiency. | |||||||
| Gear Box’s Usage Field | |||||||
| 1 | Metallurgy | 11 | Agitator | ||||
| 2 | Mine | 12 | Rotary weeder | ||||
| 3 | Machine | 13 | Metallurgy | ||||
| 4 | Energy | 14 | Compressor | ||||
| 5 | Transmission | 15 | Petroleum industry | ||||
| 6 | Water Conserbancy | 16 | Air Compressor | ||||
| 7 | Tomacco | 17 | Crusher | ||||
| 8 | Medical | 18 | Materials | ||||
| 9 | Packing | 19 | Electronics | ||||
| 10 | Chemical industry | 20 | Textile indutry | ||||
| … | … | ||||||
| Power | 0.06kw | 0.09kw | 0.12kw | 0.18kw | 0.25kw | 0.37kw | 0.55kw |
| 0.75kw | 1.1kw | 1.5kw | 2.2kw | 3kw | 4kw | 5.5kw | |
| 7.5kw | 11kw | 15kw | |||||
| Torque | 2.6N.m-3000N.m | ||||||
| Ratio | 7.5-100, the double gearbox is more | ||||||
| Color | Blue, Silver or as customers’ need | ||||||
| Material | Iron or Aluminium | ||||||
| Packing | Carton with Plywood Case or as clients’ requirement | ||||||
| Type | RV571 | RV030 | RV040 | RV050 | RV063 | RV075 | RV090 |
| Weight | 0.7kg | 1.3kg | 2.3kg | 3.5kg | 6.2kg | 9kg | 13kg |
| Type | RV110 | RV130 | RV150 | ||||
| Weight | 35kg | 60kg | 84kg | ||||
Certifications
Packaging & Shipping
Company Profile
Our Advantages
FAQ
/* 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
| Application: | Motor, Machinery |
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| Hardness: | Hardened Tooth Surface |
| Installation: | Horizontal Type |
| Layout: | Worm |
| Gear Shape: | Worm |
| Step: | Single-Step |
| Customization: |
Available
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Can you explain the impact of winch drives on the overall efficiency of lifting systems?
The efficiency of lifting systems is significantly influenced by the choice and performance of winch drives. Winch drives play a crucial role in converting power into mechanical work to lift or move heavy loads. Here’s a detailed explanation of the impact of winch drives on the overall efficiency of lifting systems:
- Power Transmission:
Winch drives are responsible for transmitting power from the energy source to the lifting mechanism. The efficiency of power transmission directly affects the overall efficiency of the lifting system. Well-designed winch drives minimize power losses due to friction, heat generation, or mechanical inefficiencies. By optimizing the gear system, bearings, and other mechanical components, winch drives can maximize power transmission efficiency and minimize energy waste.
- Mechanical Advantage:
Winch drives provide a mechanical advantage that allows the lifting system to handle heavier loads with less effort. The mechanical advantage is determined by the gear ratio and drum diameter of the winch drive. By selecting an appropriate gear ratio, the winch drive can multiply the input torque, enabling the lifting system to overcome the resistance of the load more efficiently. A higher mechanical advantage reduces the strain on the power source and improves the overall efficiency of the lifting system.
- Speed Control:
Winch drives offer speed control capabilities, allowing operators to adjust the lifting speed according to the specific requirements of the task. The ability to control the lifting speed is essential for efficient and safe operation. By utilizing winch drives with precise speed control mechanisms, the lifting system can optimize the speed to match the load, reducing unnecessary energy consumption and increasing overall efficiency.
- Load Distribution:
Winch drives play a vital role in distributing the load evenly across the lifting system. Uneven load distribution can lead to excessive stress on certain components, reducing the overall efficiency and potentially causing equipment failure. Well-designed winch drives ensure that the load is distributed evenly, minimizing stress concentrations and maximizing the efficiency of the lifting system.
- Control and Safety Features:
Winch drives incorporate control and safety features that contribute to the overall efficiency of the lifting system. Advanced control systems allow for precise positioning and smooth operation, minimizing unnecessary movements and reducing energy consumption. Safety features, such as overload protection or emergency stop mechanisms, help prevent accidents and equipment damage, ensuring uninterrupted and efficient operation of the lifting system.
- Reliability and Maintenance:
The reliability and maintenance requirements of winch drives directly impact the overall efficiency of lifting systems. Well-designed winch drives with robust construction and quality components minimize the risk of breakdowns or unplanned downtime. Additionally, winch drives that are easy to maintain and service reduce the time and resources required for maintenance, maximizing the uptime and efficiency of the lifting system.
In summary, the choice and performance of winch drives have a significant impact on the overall efficiency of lifting systems. By optimizing power transmission, providing a mechanical advantage, offering speed control, ensuring load distribution, incorporating control and safety features, and prioritizing reliability and maintenance, winch drives can enhance the efficiency, productivity, and safety of lifting operations.

What factors should be considered when selecting a winch drive for specific applications?
When selecting a winch drive for specific applications, several factors need to be considered to ensure optimal performance and compatibility. Here’s a detailed explanation of the key factors that should be taken into account:
- Load Capacity:
The load capacity is one of the most critical factors to consider when selecting a winch drive. It refers to the maximum weight or force that the winch can handle safely and efficiently. It’s essential to evaluate the anticipated loads in the specific application and choose a winch drive with a sufficient load capacity to handle those loads. Selecting a winch drive with inadequate load capacity can result in safety hazards, reduced performance, and potential damage to the winch or the load being lifted or pulled.
- Power Source:
The power source of the winch drive is another crucial consideration. Winch drives are available in electric, hydraulic, and pneumatic variants, each with its own advantages and limitations. The choice of power source depends on factors such as the availability of power, the required pulling power, and the specific application’s environmental conditions. Electric winch drives are commonly used due to their ease of use and versatility. Hydraulic winch drives offer high pulling power for heavy-duty applications, while pneumatic winch drives are suitable for hazardous or explosive environments where electrical components are not permitted.
- Control Mechanisms:
The control mechanisms of the winch drive play a significant role in the efficiency and ease of operation. Consider the control options available for the winch drive, such as manual control, remote control, or integrated control systems. Remote control systems, for example, allow operators to control the winch drive from a safe distance, enhancing safety and flexibility. Additionally, some winch drives offer features like variable speed control, which allows for precise positioning and controlled movement of the load.
- Environmental Conditions:
The environmental conditions in which the winch drive will be used should be carefully assessed. Some winch drives are designed to withstand harsh environments, such as extreme temperatures, moisture, dust, or corrosive substances. For example, in marine applications, winch drives need to be corrosion-resistant and capable of operating in wet and salty conditions. Assessing the specific environmental conditions and selecting a winch drive with appropriate protection and durability features ensures its longevity and reliable performance.
- Mounting and Installation:
The mounting and installation requirements of the winch drive should be considered to ensure proper integration into the intended application. Evaluate factors such as space availability, mounting options (e.g., vehicle-mounted, structure-mounted, or portable), and compatibility with existing equipment or systems. Some winch drives may require additional accessories or modifications for installation, so it’s important to factor in these considerations during the selection process.
- Safety Features:
Winch drives should be equipped with appropriate safety features to prevent accidents and ensure secure operation. Common safety features include overload protection, emergency stop mechanisms, limit switches, and braking systems for load holding. These safety features contribute to the safe operation of the winch drive and protect against potential hazards or damage caused by excessive loads or unexpected circumstances.
- Reliability and Maintenance:
Consider the reliability and maintenance requirements of the winch drive. Look for winch drives from reputable manufacturers known for producing high-quality and reliable equipment. Assess factors such as maintenance intervals, ease of maintenance, availability of spare parts, and after-sales support. Choosing a winch drive that is reliable and has accessible maintenance options ensures minimal downtime and long-term cost-effectiveness.
By considering these factors when selecting a winch drive for specific applications, you can make an informed decision that aligns with the load requirements, power source availability, control preferences, environmental conditions, and safety considerations of your intended application.

Can you explain the key components and functions of a winch drive mechanism?
A winch drive mechanism consists of several key components that work together to provide controlled pulling or lifting capabilities. Each component has a specific function that contributes to the overall operation of the winch drive. Here’s a detailed explanation of the key components and their functions:
- Power Source:
The power source is the component that provides the energy to drive the winch mechanism. It can be an electric motor, hydraulic system, or even a manual crank. Electric motors are commonly used in modern winches due to their efficiency, controllability, and ease of operation. Hydraulic systems are often employed in heavy-duty winches that require high pulling capacities. Manual winches, operated by hand-cranking, are typically used in lighter applications or as backup systems. The power source converts the input energy into rotational motion, which drives the other components of the winch mechanism.
- Gearbox or Transmission:
The gearbox or transmission is responsible for controlling the speed and torque output of the winch drive. It consists of a series of gears arranged in specific ratios. The gears are engaged or disengaged to achieve the desired speed and torque requirements for the application. The gearbox allows the winch drive to provide both high pulling power or low-speed precision, depending on the needs of the task. It also helps distribute the load evenly across the gear teeth, ensuring smooth and reliable operation.
- Drum or Spool:
The drum or spool is a cylindrical component around which the cable or rope is wound. It is typically made of steel or other durable materials capable of withstanding high tension forces. The drum is connected to the rotational output of the gearbox or transmission. As the gearbox rotates, the drum winds or unwinds the cable, depending on the direction of rotation. The diameter of the drum determines the pulling or lifting capacity of the winch drive. A larger drum diameter allows for a greater length of cable to be wound, resulting in increased pulling power.
- Cable or Rope:
The cable or rope is the element that connects the winch drive to the load being pulled or lifted. It is typically made of steel wire or synthetic materials with high tensile strength. The cable is wound around the drum and extends out to the anchor point or attachment point of the load. It acts as the link between the winch drive and the object being moved. The choice of cable or rope depends on the specific application requirements, such as the weight of the load, environmental conditions, and desired flexibility.
- Braking System:
A braking system is an essential component of a winch drive mechanism to ensure safe and controlled operation. It prevents the cable or rope from unwinding uncontrollably when the winch is not actively pulling or lifting a load. The braking system can be mechanical or hydraulic, and it engages automatically when the winch motor is not applying power. It provides a secure hold and prevents the load from slipping or releasing unintentionally. The braking system also helps control the descent of the load during lowering operations, preventing sudden drops or free-falls.
- Control System:
The control system allows the operator to manage the operation of the winch drive. It typically includes controls such as switches, buttons, or levers that enable the activation, direction, and speed control of the winch. The control system can be integrated into the winch housing or provided as a separate control unit. In modern winches, electronic control systems may offer additional features such as remote operation, load monitoring, and safety interlocks. The control system ensures precise and safe operation, allowing the operator to adjust the winch drive according to the specific requirements of the task.
In summary, a winch drive mechanism consists of key components such as the power source, gearbox or transmission, drum or spool, cable or rope, braking system, and control system. The power source provides the energy to drive the winch, while the gearbox controls the speed and torque output. The drum or spool winds or unwinds the cable, which connects the winch drive to the load. The braking system ensures safe and controlled operation, and the control system allows the operator to manage the winch’s performance. Together, these components enable winch drives to provide controlled pulling or lifting capabilities in a wide range of applications.


editor by Dream 2024-04-30