China Hot selling SWC440CH Tubular Design with Standard Length Compensation for Steel Rolling Mill High Speed/High Torque Universaljoint Shaft/Cardan Shaft/Drive Shaft Drive Line

Product Description

Professional Cardan Shaft with ISO Certificate for Rolling mill

SWC-CH Welded shaft design, with long length compensation
TYPE Gyration Diameter D/mm Nominal torque   Tn
/kN·m
   Fatigue torque  Tf
/kN·m
Bearing life ratio     KL Axis angel
β/(.)
Length compensation
LS/mm
Dimension/mm Moment of inertia I/kg·m2 Weight/kg
Lmin D1
(js11)
D2
(H7)
D3 Lm n×Φd k t b
(h9)
g Lmin Each additional 100m Lmin Each additional 100mm
SWC180CH1 180 22.4 11.2 0.245 ≤15 200 925 155 105 114 110 8×Φ17 17 5.0 24 7.0 0.181 0.007 74 2.8
SWC180CH2 700 1425 0.216 104
SWC200CH1 200 36 18 1.115 ≤15 200 975 170 120 133 115 8×Φ17 17 5.0 28 8.0 0.328 0.013 99 3.7
SWC200CH2 700 1465 0.402 139
SWC225CH1 225 56 28 7.812 ≤15 220 1571 196 135 152 120 8×Φ17 20 5.0 32 9.0 0.561 0.571 132 4.9
SWC225CH2 700 1500 0.674 182
SWC250CH1 250 80 40 2.82×101 ≤15 300 1215 218 150 168 140 8×Φ19 25 6.0 40 12.5 1.016 0.571 190 5.3
SWC250CH2 700 1615 1.127 235
SWC285CH1 285 120 58 8.28×101 ≤15 400 1475 245 170 194 160 8×Φ21 27 7.0 40 15.0 2.156 0.051 300 6.3
SWC285CH2 800 1875 2.360 358
SWC315CH1 315 160 80 2.79×102 ≤15 400 1600 280 185 219 180 10×Φ23 32 8.0 40 15.0 3.812 0.08 434 8.0
SWC315CH2 800 2000 4.150 514
SWC350CH1 350 225 110 7.44×102 ≤15 400 1715 310 210 245 194 10×Φ23 35 8.0 50 16.0 5.926 0.146 622 11.5
SWC350CH2 800 2115 6.814 773
SWC390CH1 390 320 160 1.86×103 ≤15 400 1845 345 235 267 215 10×Φ25 40 8.0 70 18.0 12.73 0.222 817 15.0
SWC390CH2 800 2245 13.62 964
SWC440CH1 440 500 250 8.25×103 ≤15 400 2110 390 255 325 260 16×Φ28 42 10.0 80 20.0 22.54 0.474 131 21.7
SWC440CH2 800 2510 24.43 153
SWC490CH1 490 700 350 2.154×104 ≤15 400 2220 435 275 351 270 16×Φ31 47 12.0 90 22.5 35.21 0.690 164 27.3
SW490CH2 800 2620 37.11 186
SWC550CH1 550 1000 500 6.335×104 ≤15 400 2585 492 320 426 305 16×Φ31 50 12.0 100 22.5 72.79 1.357 258 34
SWC550CH2 1000 3085 79.57 304

Dynamic Balance Testing:

Three Coordinate Detection

Code Each Part:

CNC processing center:

 

structure universal Flexible or Rigid Rigid Standard or Nonstandard Nonstandard
Material Alloy steel Brand name QSCD Place or origin HangZhou,China
Model SWC medium Raw material heat treatment Lenghth depend on specification
Flange Dia 160mm-620mm Normal torque depend on specification Coating heavy duty industrial paint
Paint color Customization Application Rolling mill machinery OEM/ODM Available
Certificate ISO,SGS Price depend on specification Custom service Available

Frequently Asked Questions

 

 

Q5: Let’s talk about our inquiry?

 

 

 

 

Q4:Do you test all your goods before delivery?

 

A: Certainly, we do dynamic balance testing for all goods,We can provide testing vedios.

 

 

Q3: What is your sample policy?

 

A: You can order 1 piece sample to test before quantity order.

 

 

Q2: What is your terms of delivery?

 

A: FOB, CIF, CFR,EXW,DDU

 

 

 

Q1: What is your payment terms?

 

A: T/T 30% as deposit, and 70% before delivery, we will show you the photos of product and package CZPT finished.

Standard Or Nonstandard: Nonstandard
Shaft Hole: 440
Torque: 250kn.M
Bore Diameter: 220
Speed: 1500
Structure: Rigid
Samples:
US$ 1000/Piece
1 Piece(Min.Order)

|
Request Sample

Customization:
Available

|

Customized Request

pto shaft

How do drivelines ensure optimal power transfer while minimizing energy losses?

Drivelines play a crucial role in ensuring optimal power transfer from the engine to the wheels while minimizing energy losses. The design and components of the driveline system are carefully engineered to maximize efficiency and minimize power wastage. Here are some key factors that contribute to achieving optimal power transfer and minimizing energy losses within a driveline:

1. Efficient Power Transmission:

Drivelines utilize various components, such as transmissions, clutches, and torque converters, to transmit power from the engine to the wheels. These components are designed to minimize energy losses by reducing friction, improving gear mesh efficiency, and optimizing torque transfer. For example, using low-friction materials, such as roller bearings, and employing advanced gear designs, like helical or hypoid gears, can help reduce power losses due to friction and gear meshing.

2. Gear Ratio Optimization:

The selection of appropriate gear ratios is essential for achieving optimal power transfer. By choosing gear ratios that match the engine’s power characteristics and the vehicle’s driving conditions, the driveline can efficiently convert and transmit power to the wheels. Optimized gear ratios ensure that the engine operates within its optimal RPM range, reducing unnecessary power losses and improving overall efficiency.

3. Limited Slip Differentials:

In driveline systems with multiple driven wheels (such as all-wheel drive or four-wheel drive), limited slip differentials (LSDs) are often employed to distribute power between the wheels. LSDs allow for better traction by transferring torque to the wheels with more grip while minimizing energy losses. By allowing some degree of differential wheel speed, LSDs ensure power is efficiently transmitted to the wheels that can utilize it most effectively.

4. Hybrid and Electric Drivetrains:

In hybrid and electric drivetrains, driveline systems are designed to optimize power transfer and minimize energy losses specific to the characteristics of electric motors and energy storage systems. These drivetrains often utilize sophisticated power electronics, regenerative braking systems, and advanced control algorithms to efficiently manage power flow and energy regeneration, resulting in improved overall system efficiency.

5. Aerodynamic Considerations:

Drivelines can also contribute to optimal power transfer by considering aerodynamic factors. By minimizing air resistance through streamlined vehicle designs, efficient cooling systems, and appropriate underbody airflow management, drivelines help reduce the power required to overcome aerodynamic drag. This, in turn, improves overall driveline efficiency and minimizes energy losses.

6. Advanced Control Systems:

The integration of advanced control systems within drivelines allows for optimized power transfer and efficient operation. Electronic control units (ECUs) monitor various parameters such as throttle position, vehicle speed, and driving conditions to adjust power distribution, manage gear shifts, and optimize torque delivery. By continuously adapting to real-time conditions, these control systems help maximize power transfer efficiency and minimize energy losses.

7. Material Selection and Weight Reduction:

The choice of materials and weight reduction strategies in driveline components contribute to minimizing energy losses. Lightweight materials, such as aluminum or composites, reduce the overall weight of the driveline system, resulting in reduced inertia and lower power requirements. Additionally, reducing the weight of rotating components, such as driveshafts or flywheels, helps improve driveline efficiency by minimizing energy losses associated with rotational inertia.

8. Regular Maintenance and Lubrication:

Proper maintenance and lubrication of driveline components are essential for minimizing energy losses. Regular maintenance ensures that driveline components, such as bearings and gears, are in optimal condition, minimizing frictional losses. Additionally, using high-quality lubricants and maintaining appropriate lubrication levels reduces friction and wear, improving driveline efficiency.

By incorporating these design considerations and engineering techniques, drivelines can achieve optimal power transfer while minimizing energy losses. This leads to improved overall efficiency, enhanced fuel economy, and reduced environmental impact.

pto shaft

Are there any limitations or disadvantages associated with driveline systems?

While driveline systems offer numerous advantages in terms of power transmission and vehicle performance, there are also some limitations and disadvantages associated with their use. It’s important to consider these factors when designing, operating, and maintaining driveline systems. Let’s explore some of the limitations and disadvantages:

1. Complex Design and Integration:

Driveline systems can be complex in design, especially in modern vehicles with advanced technologies. They often consist of multiple components, such as transmissions, differentials, transfer cases, and drive shafts, which need to be properly integrated and synchronized. The complexity of the driveline system can increase manufacturing and assembly challenges, as well as the potential for compatibility issues or failures if not designed and integrated correctly.

2. Energy Losses:

Driveline systems can experience energy losses during power transmission. These losses occur due to factors such as friction, heat generation, mechanical inefficiencies, and fluid drag in components like gearboxes, differentials, and torque converters. The energy losses can negatively impact overall efficiency and result in reduced fuel economy or power output, especially in systems with multiple driveline components.

3. Limited Service Life and Maintenance Requirements:

Driveline components, like any mechanical system, have a limited service life and require regular maintenance. Components such as clutches, bearings, gears, and drive shafts are subject to wear and tear, and may need to be replaced or repaired over time. Regular maintenance, including lubrication, adjustments, and inspections, is necessary to ensure optimal performance and prevent premature failures. Failure to perform proper maintenance can lead to driveline malfunctions, increased downtime, and costly repairs.

4. Weight and Space Constraints:

Driveline systems add weight and occupy space within a vehicle. The additional weight affects fuel efficiency and overall vehicle performance. Moreover, the space occupied by driveline components can limit design flexibility, particularly in compact or electric vehicles where space optimization is crucial. Manufacturers must strike a balance between driveline performance, vehicle weight, and available space to meet the requirements of each specific vehicle type.

5. Noise, Vibration, and Harshness (NVH):

Driveline systems can generate noise, vibration, and harshness (NVH) during operation. Factors such as gear meshing, unbalanced rotating components, or improper driveline alignment can contribute to unwanted vibrations or noise. NVH issues can affect driving comfort, passenger experience, and vehicle refinement. Manufacturers employ various techniques, including vibration dampening materials, isolators, and precision engineering, to minimize NVH levels, but achieving complete elimination can be challenging.

6. Limited Torque Handling Capability:

Driveline systems have limitations in terms of torque handling capability. Excessive torque beyond the rated capacity of driveline components can lead to failures, such as shearing of gears, clutch slippage, or drive shaft breakage. High-performance vehicles or heavy-duty applications may require specialized driveline components capable of handling higher torque loads, which can increase costs and complexity.

7. Traction Limitations:

Driveline systems, particularly in vehicles with two-wheel drive configurations, may experience traction limitations, especially in slippery or off-road conditions. Power is typically transmitted to only one or two wheels, which can result in reduced traction and potential wheel slippage. This limitation can be mitigated by utilizing technologies such as limited-slip differentials, electronic traction control, or implementing all-wheel drive systems.

While driveline systems provide crucial power transmission and vehicle control, they do have limitations and disadvantages that need to be considered. Manufacturers, designers, and operators should carefully assess these factors and implement appropriate design, maintenance, and operational practices to optimize driveline performance, reliability, and overall vehicle functionality.

pto shaft

What is a driveline and how does it function in vehicles and machinery?

A driveline, also known as a drivetrain, refers to the components and systems responsible for transmitting power from the engine to the wheels or tracks in vehicles and machinery. It encompasses various elements such as the engine, transmission, drive shafts, differentials, axles, and wheels or tracks. The driveline plays a crucial role in converting the engine’s power into motion and enabling the vehicle or machinery to move. Here’s a detailed explanation of how the driveline functions in vehicles and machinery:

1. Power Generation: The driveline starts with the engine, which generates power by burning fuel or utilizing alternative energy sources. The engine produces rotational force, known as torque, which is transferred to the driveline for further transmission to the wheels or tracks.

2. Transmission: The transmission is a crucial component of the driveline that controls the distribution of power and torque from the engine to the wheels or tracks. It allows the driver or operator to select different gear ratios to optimize performance and efficiency based on the vehicle’s speed and load conditions. The transmission can be manual, automatic, or a combination of both, depending on the specific vehicle or machinery.

3. Drive Shaft: The drive shaft, also called a propeller shaft, is a rotating mechanical component that transmits torque from the transmission to the wheels or tracks. In vehicles with rear-wheel drive or four-wheel drive, the drive shaft transfers power to the rear axle or all four wheels. In machinery, the drive shaft may transfer power to the tracks or other driven components. The drive shaft is typically a tubular metal shaft with universal joints at each end to accommodate the movement and misalignment between the transmission and the wheels or tracks.

4. Differential: The differential is a device located in the driveline that enables the wheels or tracks to rotate at different speeds while still receiving power. It allows the vehicle or machinery to smoothly negotiate turns without wheel slippage or binding. The differential consists of a set of gears that distribute torque between the wheels or tracks based on their rotational requirements. In vehicles with multiple axles, there may be differentials on each axle to provide power distribution and torque balancing.

5. Axles: Axles are shafts that connect the differential to the wheels or tracks. They transmit torque from the differential to the individual wheels or tracks, allowing them to rotate and propel the vehicle or machinery. Axles are designed to withstand the loads and stresses associated with power transmission and wheel movement. They may be solid or independent, depending on the vehicle or machinery’s suspension and drivetrain configuration.

6. Wheels or Tracks: The driveline’s final components are the wheels or tracks, which directly contact the ground and provide traction and propulsion. In vehicles with wheels, the driveline transfers power from the engine to the wheels, allowing them to rotate and propel the vehicle forward or backward. In machinery with tracks, the driveline transfers power to the tracks, enabling the machinery to move over various terrains and surfaces.

7. Functioning: The driveline functions by transmitting power from the engine through the transmission, drive shaft, differential, axles, and finally to the wheels or tracks. As the engine generates torque, it is transferred through the transmission, which selects the appropriate gear ratio based on the vehicle’s speed and load. The drive shaft then transfers the torque to the differential, which distributes it between the wheels or tracks according to their rotational requirements. The axles transmit the torque from the differential to the individual wheels or tracks, allowing them to rotate and propel the vehicle or machinery.

8. Four-Wheel Drive and All-Wheel Drive: Some vehicles and machinery are equipped with four-wheel drive (4WD) or all-wheel drive (AWD) systems, which provide power to all four wheels simultaneously. In these systems, the driveline includes additional components such as transfer cases and secondary differentials to distribute power to the front and rear axles. The driveline functions similarly in 4WD and AWD systems, but with enhanced traction and off-road capabilities.

In summary, the driveline is a vital component in vehicles and machinery, responsible for transmitting power from the engine to the wheels or tracks. It involves the engine, transmission, drive shafts, differentials, axles, and wheels or tracks. By efficiently transferring torque and power, the driveline enables vehicles and machinery to move, providing traction, propulsion, and control. The specific configuration and components of the driveline may vary depending on the vehicle or machinery’s design, purpose, and drive system.

China Hot selling SWC440CH Tubular Design with Standard Length Compensation for Steel Rolling Mill High Speed/High Torque Universaljoint Shaft/Cardan Shaft/Drive Shaft Drive LineChina Hot selling SWC440CH Tubular Design with Standard Length Compensation for Steel Rolling Mill High Speed/High Torque Universaljoint Shaft/Cardan Shaft/Drive Shaft Drive Line
editor by CX 2023-09-12