China high quality Tension Pulley Pulley Drive Timing Pulley pulley design

Product Description

Deep groove ball bearing

Model  d mm D mm H mm W kg
6000 10 26 8 0.019
6001 12 38 8 0.571
6002 15 32 9 0.03
6003 17 35 10 0.04
6004 20 42 12 0.069
6005 25 47 12 0.08
6006 30 55 13 0.116
6007 35 62 14 0.155
6008 40 68 15 0.185
6009 45 75 16 0.231
6571 50 80 16 0.25
6011 55 90 18 0.362
6012 60 95 18 0.385
6013 65 100 18 0.408
6014 70 110 20 0.62
6015 75 115 20 0.63
6016 80 125 22 0.86
6017 85 130 22 0.94
6018 90 140 24 1.38
6019 95 145 24 1.5
6571 100 150 24 1.63
6571 110 170 28 2.35
6571 120 180 28 2.62
6026 130 200 33 4.55
6571 140 210 33 4.21
6030 150 210 33 3.9
6032 160 240 38 5.89
6034 170 260 42 6.5
6036 180 280 46 8.51
6038 190 290 46 8.86
6040 200 310 51 11.64
6044 220 340 56 18.4
6048 240 360 56 19.6
6052 260 400 65 28.8
62216 80 140 33 1.51
62217 85 150 36 1.6
62218 90 160 40 1.7 
62219 95 170 43 1.8 
62220 100 180 46 2.0 
6200 10 30 9 0.032
6201 12 32 10 0.036
6202 15 35 11 0.044
6203 17 40 12 0.065
6204 20 47 14 0.11
6205 25 52 15 0.13
6206 30 62 16 0.21
6207 35 72 17 0.288
6208 40 80 18 0.368
6209 45 85 19 0.416
6210 50 90 20 0.463
6211 55 100 21 0.603
6212 60 110 22 0.789
6213 65 120 23 0.99
6214 70 125 24 1.084
6215 75 130 25 1.171
6216 80 140 26 1.448
6217 85 150 28 1.803
6218 90 160 30 2.71
6219 95 170 32 2.62
6220 100 180 34 3.19
6221 105 190 36 3.78
6222 110 200 38 4.42
6224 120 215 40 5.3
6226 130 230 40 6.12
6228 140 250 42 7.77
6230 150 270 45 9.78
6232 160 290 48 12.22
6234 170 310 52 15.241
6236 180 320 52 15.581
6238 190 340 55 18.691
6240 200 360 58 22.577
62312 60 130 46 2.422
62313 65 140 48 3
62314 70 150 51 3.55
62315 75 160 55 4
62316 80 170 58 4.5
62317 85 180 60 5.1
62318 90 190 64 6.1
62319 95 200 67 6.9
6300 10 35 11 0.053
6301 12 37 12 0.06
6302 15 42 13 0.082
6303 17 47 14 0.115
6304 20 52 15 0.142
6305 25 62 17 0.232
6306 30 72 19 0.346
6307 35 80 21 0.457
6308 40 90 23 0.639
6309 45 100 25 0.837
6310 50 110 27 1.082
6311 55 120 29 1.367
6312 60 130 31 1.71
6313 65 40 33 2.1
6314 70 150 35 2.55
6315 75 160 37 3.05
6316 80 170 39 3.61
6317 85 180 41 4.284
6318 90 190 43 4.97
6319 95 200 45 5.74
6320 100 215 47 7.09
6321 105 225 49 8.05
6322 105 240 50 9.53
6324 120 260 55 12.2
6326 130 280 58 14.77
6328 140 300 62 18.33
6330 150 320 65 21.87
62300 10 35 17 0.073
62301 12 37 17 0.571
62302 15 42 17 0.105
62303 17 47 19 0.146
62304 20 52 21 0.195
62305 25 62 24 0.306
62306 30 72 27 0.478
62307 35 80 31 0.647
62308 40 90 33 0.885
62309 45 100 36 1.156
62310 50 110 40 1.498
62311 55 120 43 1.918
6403 17 62 17 0.27
6404 20 72 19 0.4
6405 25 80 21 0.53
6406 30 90 23 0.735
6407 35 100 25 0.952
6408 40 110 27 1.221
6409 45 120 29 1.52
6410 50 130 31 1.855
6411 55 140 33 2.316
6412 60 150 35 2.811
6413 65 160 37 3.342
6414 70 180 42 4.896
6415 75 190 45 5.739
6416 80 200 48 6.752
6417 85 210 52 7.933
6418 90 225 54 9.56
623 3 10 4 0.002
624 4 13 5 0.003
625 5 16 5 0.005
626 6 19 6 0.008
627 7 22 7 0.014
628 8 24 8 0.016
629 9 26 8 0.019
62200 10 30 14 0.044
62201 12 32 14 0.053
62202 15 35 14 0.065
62203 17 40 16 0.096
62204 20 47 18 0.15
62205 25 52 18 0.178
62206 30 62 20 0.215
62207 35 72 23 0.31
62208 40 80 23 0.406
62209 45 85 23 0.455
62210 50 90 23 0.496
62211 55 100 25 0.81
62212 60 110 28 1.03
62213 65 120 31 1.25
62214 70 125 31 1.3 
62215 75 130 31 1.4 

 

Rolling Body: Tension Pulley
Spherical: Non-Aligning Bearings
Separated: Unseparated
Origin: China
Samples:
US$ 0/Piece
1 Piece(Min.Order)

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Customization:
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pulley

Can you explain the concept of “efficiency” in pulley systems?

In pulley systems, efficiency refers to the ratio of output work or power to the input work or power, taking into account any losses or inefficiencies in the system. It represents how effectively the pulley system converts the input energy into useful output energy.

The efficiency of a pulley system can be affected by various factors, including friction, mechanical losses, and the design and condition of the pulleys and ropes. Here are some key points to understand about efficiency in pulley systems:

1. Mechanical Advantage and Efficiency: Pulley systems can provide a mechanical advantage by reducing the effort force required to lift a load. However, it’s important to note that while a higher mechanical advantage generally means less effort is needed, it may also result in lower efficiency. This is because as the mechanical advantage increases, the system may experience higher frictional losses and other inefficiencies.

2. Friction and Efficiency: Friction plays a significant role in the efficiency of pulley systems. The interaction between the pulley wheels and the ropes or belts can result in frictional losses, which reduce the overall efficiency of the system. Friction can be minimized by using pulleys with low-friction bearings or by lubricating the contact surfaces.

3. Rope or Belt Material: The choice of rope or belt material can impact the efficiency of a pulley system. Different materials have varying coefficients of friction, flexibility, and durability, which can affect the overall efficiency. For example, using a rope or belt with low friction and high strength can help reduce energy losses and improve efficiency.

4. Pulley Design and Condition: The design and condition of the pulleys also influence efficiency. Pulleys should be properly aligned, have smooth surfaces, and be free from damage or wear. Misaligned or worn pulleys can increase friction and decrease efficiency.

5. System Load: The efficiency of a pulley system can vary based on the magnitude of the load being lifted or moved. Higher loads can result in increased friction and mechanical losses, leading to lower efficiency.

Efficiency is typically expressed as a percentage, with 100% representing a perfectly efficient system where all the input energy is converted into useful output energy. In real-world pulley systems, efficiency is often less than 100% due to various factors, including friction, heat generation, and other losses.

It’s important to consider efficiency when designing or evaluating pulley systems. Higher efficiency means a more effective use of input energy, reduced energy waste, and improved overall performance.

pulley

Can pulleys be part of renewable energy systems like wind turbines?

Yes, pulleys can indeed be part of renewable energy systems like wind turbines. While wind turbines primarily rely on the force of the wind to generate electricity, pulleys are used in various components to facilitate the efficient conversion of wind energy into electrical power. Here’s how pulleys can be incorporated into wind turbines:

1. Rotor and Blade Pitch Control:

Pulleys are utilized in the rotor and blade pitch control mechanism of wind turbines. The rotor consists of multiple blades that capture the wind’s energy and convert it into rotational motion. To optimize the turbine’s performance, the pitch angle of the blades needs to be adjusted based on wind conditions. Pulleys and cables are employed to control the pitch angle, allowing the blades to be positioned at the optimal angle to maximize power output. The pulley system enables precise and synchronized blade adjustment, ensuring efficient wind capture.

2. Generator System:

In wind turbines, pulleys are also utilized in the generator system. The rotational motion of the turbine’s rotor is transferred to the generator through a series of mechanical components, including pulleys and belts or gears. The pulleys help to increase or decrease the rotational speed and torque as needed to match the generator’s requirements. This mechanical advantage provided by the pulleys ensures that the generator operates at its optimal speed, enhancing the efficiency of electricity generation.

3. Lifting and Maintenance Systems:

Pulleys are often incorporated into the lifting and maintenance systems of wind turbines. Wind turbine components, such as the nacelle (housing the generator and other equipment) and the rotor blades, are large and heavy, requiring periodic inspection, repair, and replacement. Pulley systems are employed to lift and lower these components during maintenance activities. The pulleys, along with cables and hoists, allow for controlled and safe handling of the heavy parts, enabling efficient maintenance and minimizing downtime.

4. Access Systems:

In larger wind turbines, pulleys are utilized in access systems that provide safe and efficient access to various parts of the turbine, including the nacelle and the rotor blades. Climbing systems or platforms equipped with pulleys allow technicians to ascend or descend the turbine structure, providing easy access for inspection, maintenance, and repairs. Pulleys facilitate the movement of personnel and equipment, ensuring the safety and efficiency of wind turbine operations.

By incorporating pulleys into these different aspects of wind turbines, renewable energy systems can benefit from increased efficiency, improved maintenance procedures, and enhanced safety measures. Pulleys contribute to the overall performance and reliability of wind turbines, enabling the harnessing of wind energy for clean and sustainable electricity generation.

pulley

What materials are typically used to manufacture pulleys?

Pulleys are manufactured using a variety of materials, depending on the specific application and requirements. Here are some of the materials that are typically used to manufacture pulleys:

1. Metal Alloys: Metal alloys such as steel and cast iron are commonly used to manufacture pulleys. Steel pulleys offer excellent strength, durability, and resistance to wear and corrosion. Cast iron pulleys are known for their high strength and resistance to impact and shock loads. Metal alloys are preferred in heavy-duty applications where strength and durability are critical.

2. Aluminum: Aluminum is widely used in pulley manufacturing due to its lightweight nature and corrosion resistance. Aluminum pulleys are commonly used in applications that require reduced weight, such as automotive engines, aircraft components, and light-duty machinery. They offer good strength-to-weight ratio and are suitable for applications where weight reduction is a priority.

3. Plastic: Various types of plastics, including nylon, polyurethane, and high-density polyethylene (HDPE), are used to manufacture pulleys. Plastic pulleys are lightweight, corrosion-resistant, and offer good resistance to wear and abrasion. They are commonly used in applications where noise reduction, chemical resistance, or non-conductive properties are required. Plastic pulleys are frequently used in conveyor systems, packaging machinery, and small-scale equipment.

4. Composite Materials: Composite materials, such as fiberglass-reinforced plastic (FRP) and carbon fiber-reinforced polymer (CFRP), are utilized in the manufacturing of pulleys. These materials offer high strength-to-weight ratios, excellent resistance to corrosion, and good fatigue resistance. Composite pulleys are commonly used in industries such as aerospace, marine, and sports equipment, where lightweight components with exceptional strength are required.

5. Ceramics: In certain specialized applications, pulleys made of ceramics like aluminum oxide (alumina) or silicon nitride are used. Ceramic pulleys offer exceptional hardness, high temperature resistance, and excellent wear resistance. They are primarily used in industries such as semiconductor manufacturing, where extreme precision, chemical resistance, and resistance to high temperatures are crucial.

It’s important to note that the choice of material for pulley manufacturing depends on factors such as load capacity, operating conditions, environmental factors, and cost considerations. Manufacturers select materials that provide the necessary properties to meet the specific requirements of the application while considering factors such as strength, durability, weight, and cost.

China high quality Tension Pulley Pulley Drive Timing Pulley   pulley design	China high quality Tension Pulley Pulley Drive Timing Pulley   pulley design
editor by CX

2023-11-28

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