Product Description
Product Description
YE3-180S-2 170V,220V,380V IP55 Copper Wire High Efficiency AC Induction Motor
General Introductions:
YE3 series super efficiency motor is our company newest design efficiency products, which in line with the second efficiency standard in the provisions of GB 186~8-2-12″the energy efficiency limit and the energy efficiency rating of small and medium-sized 3 phase asynchronous motors and IEC60034-30-2008 efficiency standard level IE4.
Advantages of this series motor: Improved structure, attractive appearance, high starting torque, high efficiency, low noise, high international protection class and insulation class, improved cooling capabilities.
YE3 series motors is suitable for almost all applications, and could be used to drive all kinds of general purpose machines such as: compressors, ventilators, pumps, etc. And can also be used in the hazardous areas with oil and chemical, steel plants. Mining industry.
Structure Declaration:
Parallel vertical radiation CHINAMFG are adopted in frame design, and the ventilating structure contains 2 separate cooling wind paths. Air external to the motor would be driven by an external fan to blow over the radiation ribs. Meanwhile, there are 4 ventilating ducts within the frame, and the inner wind path is formed by an internal fan and axiel vents on rotor sheets. In this way, the heat dissipation efficiency is improved effectively. The external fan of 2-pole motors is an one-way tube-axiel fan, whose direction of rotation is fixed, while motors with 4~8poles are provided with a two-way radial centrifugal fan, whose direction of rotation can be arbitrarily selected.
Squirrel-cage copper-bar structure or cast aluminum structure is adopted in rotor design, and the vibration is very low after high-precision dynamic balance and motor running balance tests.
The primary terminal box is mounted at the top of the frame, can be required on left or right. It also can be mounting at a 45-degree angle according to users’ needs.
Product details
Parameter
Package
Export fumigation wooden case
Color template
FAQ
Q1: What about the shipping methods?
1): For urgent order and light weight, you can choose the following express: UPS, FedEx, TNT, DHL, EMS.
For heavy weight, you can choose to deliver the goods by air or by sea to save cost.
Q2: What about the payment methods?
A2: We accept T/T, L/C for big amount, and for small amount, you can pay us by PayPal, Western Union etc.
Q3: How much does it cost to ship to my country?
A3: It depends on seasons. Fee is different in different seasons. You can consult us at all times.
Q4: What’s your delivery time?
A4: Usually we produce within 25-30days after the payment came.
Q5: Can I print our logo/code/series number on your motor?
A5: Yes, of course.
Q6: Can I order some sample for our testing?
A6: Yes, but it needs some expenses.
Q7: Can you customize my product in special requirement?
A7: Yes, we can offer OEM.
Q8: What is your max temperature of motor ?
A8: 150 -250 degree can customized with special wire
| Application: | Industrial |
|---|---|
| Speed: | Constant Speed |
| Number of Stator: | Three-Phase |
| Function: | Driving |
| Casing Protection: | Closed Type |
| Number of Poles: | 2 |
| Customization: |
Available
| Customized Request |
|---|
How do gear shafts handle changes in rotational direction and torque distribution?
Gear shafts play a crucial role in handling changes in rotational direction and torque distribution in machinery and mechanical systems. Let’s explore how gear shafts accomplish these tasks:
- Rotational Direction Changes:
Gear shafts are designed with gears that have different tooth profiles, sizes, and configurations. By meshing gears with varying characteristics, gear shafts can transmit rotational motion and change the direction of rotation. For example, when a gear with clockwise rotation meshes with a gear with counterclockwise rotation, the gear shaft can transfer the rotational motion and change the direction of output rotation accordingly.
- Torque Distribution:
Gear shafts are also responsible for distributing torque within a mechanical system. Torque is the rotational force applied to the gear shaft, and it needs to be transmitted and distributed to other components or gears in the system. Gear shafts achieve torque distribution through the engagement of multiple gears along the shaft. As torque is applied to the input gear, it transfers through the gear teeth and along the gear shaft, evenly distributing the torque to the output gears. The size, number of teeth, and gear ratios of the gears on the shaft determine the torque distribution characteristics.
- Gear Ratios:
Gear shafts can handle changes in torque distribution by utilizing different gear ratios. The gear ratio is the ratio of the number of teeth between two meshing gears. By using gears with different numbers of teeth, gear shafts can alter the torque distribution between the input and output gears. For example, gearing systems with larger input gears and smaller output gears can amplify torque, while systems with smaller input gears and larger output gears can reduce torque while increasing speed.
- Compound Gear Systems:
In more complex systems, gear shafts may incorporate compound gear arrangements to handle changes in both rotational direction and torque distribution. Compound gears consist of multiple gears mounted on the same shaft, allowing for a combination of gear ratios and rotational direction changes. These arrangements enable gear shafts to accommodate intricate mechanical systems with varying torque and rotational requirements.
Overall, gear shafts handle changes in rotational direction and torque distribution by utilizing different gear configurations, gear ratios, and compound gear systems. Their ability to transmit and distribute rotational motion and torque makes them essential components in machinery and mechanical systems.
What is the significance of gear shaft alignment in mechanical systems?
Gear shaft alignment holds great significance in mechanical systems where gears are employed. Proper alignment of gear shafts is crucial for ensuring optimal performance and longevity of the system. Let’s explore the significance of gear shaft alignment:
- Efficient Power Transmission:
Accurate alignment of gear shafts facilitates efficient power transmission within the mechanical system. When gear shafts are properly aligned, the gear teeth mesh smoothly and engage without unnecessary friction or resistance. This minimizes power losses due to misalignment, reducing energy wastage and maximizing power transfer efficiency. Efficient power transmission ensures that the mechanical system operates at its intended performance level.
- Reduced Wear and Damage:
Proper gear shaft alignment helps in reducing wear and damage to the gears and other components within the mechanical system. Misalignment can cause excessive stress on the gear teeth, resulting in accelerated wear and premature failure. By aligning the gear shafts correctly, the load is evenly distributed, preventing concentrated stress points. This leads to reduced wear, improved gear life, and decreased chances of unexpected breakdowns or malfunctions.
- Noise and Vibration Reduction:
Misalignment of gear shafts can lead to increased noise and vibration levels within the mechanical system. When gears are not properly aligned, they may generate excessive vibration and noise during operation. This can be detrimental to the overall performance and user experience. Proper gear shaft alignment ensures that the gears mesh accurately, reducing vibration and noise. It contributes to a quieter and smoother operation of the mechanical system.
- Optimal Load Distribution:
Alignment of gear shafts enables optimal load distribution among the gears. When gear shafts are aligned correctly, the load is evenly shared across the gear teeth and their supporting components. This prevents overloading of specific gears, minimizing the risk of premature wear or failure. Proper load distribution enhances the overall reliability and efficiency of the mechanical system, as each gear operates within its intended design parameters.
- Improved Efficiency:
Gear shaft alignment directly impacts the overall efficiency of the mechanical system. Proper alignment reduces energy losses due to friction, misalignment, or inefficient gear engagement. It allows for smooth and efficient power transmission throughout the system, optimizing the utilization of available energy. Improved efficiency translates into reduced operating costs, increased productivity, and enhanced performance of the mechanical system.
- Longer Service Life:
Correct gear shaft alignment contributes to a longer service life for the mechanical system. By minimizing wear, reducing stress concentrations, and preventing excessive vibration, proper alignment helps to preserve the integrity of the gears and other related components. This leads to extended service intervals, reduced maintenance requirements, and increased reliability. A mechanical system with aligned gear shafts is more likely to operate smoothly and consistently over an extended period.
In summary, gear shaft alignment is of significant importance in mechanical systems. It ensures efficient power transmission, reduces wear and damage, minimizes noise and vibration, enables optimal load distribution, improves overall efficiency, and extends the service life of the system. Proper alignment of gear shafts is essential for achieving reliable and high-performance operation in gear-based mechanical systems.
How does a gear shaft contribute to torque transmission and rotation?
A gear shaft plays a significant role in torque transmission and rotational motion within mechanical systems. It serves as the intermediary component that enables the transfer of torque between gears, allowing for the generation of rotational force and motion. Here’s a detailed explanation of how a gear shaft contributes to torque transmission and rotation:
- Torque Transmission:
A gear shaft facilitates torque transmission by connecting and engaging gears within a mechanical system. Torque is the rotational force that causes an object to rotate. When torque is applied to the gear shaft, it transfers this rotational force to the connected gears. The gears mesh with each other, and the teeth on the gears transmit the torque from the driving gear to the driven gear through the gear shaft. This torque transmission allows the rotational force to be transferred and amplified or reduced as required, enabling the machinery to generate the necessary force to perform tasks.
- Rotational Motion Transfer:
In addition to torque transmission, a gear shaft contributes to the transfer of rotational motion between gears. When one gear rotates, it meshes with another gear connected to the gear shaft. The teeth on the gears engage with each other, creating a mechanical linkage. As the driving gear rotates, it imparts its rotational motion to the gear shaft, which, in turn, transfers this motion to the driven gear. The rotational motion is transmitted through the gear shaft, allowing for the synchronized movement of various components within the mechanical system.
- Mechanical Advantage:
One of the key contributions of a gear shaft to torque transmission is the ability to provide mechanical advantage. Mechanical advantage refers to the amplification or reduction of force and torque through the use of different gear sizes or gear ratios. By connecting gears with varying numbers of teeth on the gear shaft, the gear ratio can be adjusted. Gears with more teeth provide a higher gear ratio, resulting in increased torque output but reduced rotational speed. Conversely, gears with fewer teeth offer a lower gear ratio, resulting in reduced torque output but increased rotational speed. The gear shaft enables the selection of the appropriate gear ratio to match the desired torque and speed requirements of the mechanical system.
- Torque Distribution:
A gear shaft also contributes to the distribution of torque within a mechanical system. As torque is transmitted through the gear shaft, it ensures that the force is evenly distributed across the teeth of the connected gears. This torque distribution minimizes stress concentration on individual gear teeth, promoting smooth operation and preventing premature wear or failure. The gear shaft acts as a conduit, allowing torque to flow efficiently and uniformly, ensuring reliable torque transmission and rotation.
In summary, a gear shaft plays a crucial role in torque transmission and rotation within mechanical systems. It enables the transfer of torque between gears, facilitates the transfer of rotational motion, provides mechanical advantage for torque amplification or reduction, and ensures uniform torque distribution. Gear shafts are essential components that contribute to the efficient and effective operation of machinery and mechanical systems.
editor by CX 2023-09-23