Product Description
MIC NO. | OEM.NO | APPLICATION | YEAR | PHOTO |
TB34FI5711 | 351241 46755714 504086751 BMW : BMW : 1128171 BMW :T.v. BMW : BMW :T.v. BMW : BMW : BMW : BMW : BMW : 1433502 BMW : 171 BMW : 1742858T.v. BMW : 1745546 BMW : 1745546T.v. BMW : 7503424 BMW : 7515864 BMW : 7515865 BMW : 7563927 FIAT : 46755714 FIAT : 504T.v. FIAT : 504086751 FIAT : 504086751T.v. IVECO : 504086751 IVECO : 504086751T.v. LAND ROVER : PQGR571 MERCEDES-BENZ : 6112T.v. MERCEDES-BENZ : 6112T.v. MERCEDES-BENZ : 6112T.v. MERCEDES-BENZ : 6112 MERCEDES-BENZ : 6462R571 TOYOTA : 1662R571T.v |
FIATÂ Â DUCATO Box (244_) 2.3 JTD FIATÂ Â DUCATO Box (250_, 290_) 110 Multijet 2,3 D FIATÂ Â DUCATO Box (250_, 290_) 120 Multijet 2,3 D FIATÂ Â DUCATO Box (250_, 290_) 120 Multijet 2,3 D 4×4 FIATÂ Â DUCATO Box (250_, 290_) 130 Multijet 2,3 D FIATÂ Â DUCATO Box (250_, 290_) 150 Multijet 2,3 D FIATÂ Â DUCATO Box (250_, 290_) 180 Multijet 2,3 D FIATÂ Â DUCATO Bus (244_) 2.3 JTD FIATÂ Â DUCATO Bus (250_, 290_) 110 Multijet 2,3 D FIATÂ Â DUCATO Bus (250_, 290_) 120 Multijet 2,3 D FIATÂ Â DUCATO Bus (250_, 290_) 130 Multijet 2,3 D FIATÂ Â DUCATO Bus (250_, 290_) 150 Multijet 2,3 D FIATÂ Â DUCATO Platform/Chassis (244_) 2.3 JTD FIATÂ Â DUCATO Platform/Chassis (250_, 290_) 110 Multijet 2,3 D FIATÂ Â DUCATO Platform/Chassis (250_, 290_) 120 Multijet 2,3 D FIATÂ Â DUCATO Platform/Chassis (250_, 290_) 120 Multijet 2,3 D 4×4 FIATÂ Â DUCATO Platform/Chassis (250_, 290_) 130 Multijet 2,3 D FIATÂ Â DUCATO Platform/Chassis (250_, 290_) 150 Multijet 2,3 D IVECOÂ Â DAILY III Box Body/Estate 29 L 10 V (ALJA43A2, ALJA42A2, ALJA41A2) IVECOÂ Â DAILY III Box Body/Estate 29 L 12 V (ALKA41A2, ALLA52A2, ALKA42A2) IVECOÂ Â DAILY III Box Body/Estate 29 L 14 IVECOÂ Â DAILY III Box Body/Estate 35 C 12 V, 35 S 12 V IVECOÂ Â DAILY III Box Body/Estate 35 C 14, 35 S 14 IVECOÂ Â DAILY III Box Body/Estate 35 S 10 (ANJA41A1, ANJA43A, ANJAV1A,… IVECOÂ Â DAILY III Bus 35 S 12, 35 C 12, 40 C 12 IVECOÂ Â DAILY III Platform/Chassis 29 L 10 (ALJAV1A1, ALJA41AA,…. IVECOÂ Â DAILY III Platform/Chassis 29 L 12 (ALKA41A1, AHKA64A1, ALLA51A1) IVECOÂ Â DAILY III Platform/Chassis 29 L 14 IVECOÂ Â DAILY III Platform/Chassis 35 C 10 V , 35 S 10 VÂ IVECOÂ Â DAILY III Platform/Chassis 35 C 12 , 35 S 12 IVECOÂ Â DAILY III Platform/Chassis 35 C 14, 35 S 14 IVECOÂ Â DAILY IV Box Body/Estate 29L10 V IVECOÂ Â DAILY IV Box Body/Estate 29L12 V, 29L12 V/P IVECOÂ Â DAILY IV Box Body/Estate 29L14 C, 29L14 C/P, 29L14 V, 29L14 V/P IVECOÂ Â DAILY IV Box Body/Estate 35C10, 35S10 IVECOÂ Â DAILY IV Box Body/Estate 35C11 V, 35S11 V IVECOÂ Â DAILY IV Box Body/Estate 35C12 V, 35C12 V/P, 35S12 V, 35S12 V/P IVECOÂ Â DAILY IV Box Body/Estate 35C13 V, 35C13 V/P, 35S13 V, 35S13 V/P IVECOÂ Â DAILY IV Box Body/Estate 35S14 C, 35S14 C/P, 35C14 V,… IVECOÂ Â DAILY IV Box Body/Estate 40C10 V IVECOÂ Â DAILY IV Box Body/Estate 40C11 V IVECOÂ Â DAILY IV Box Body/Estate 40C12 V, 40C14 V/P IVECOÂ Â DAILY IV Box Body/Estate 40C13 V, 40C13 V/P IVECOÂ Â DAILY IV Bus 35S14, 35S14 /P IVECOÂ Â DAILY IV Dump Truck 35C10 K IVECOÂ Â DAILY IV Dump Truck 35C11 K, 35C11 DK, 35S11 K, 35S11 DK IVECOÂ Â DAILY IV Dump Truck 35C12 IVECOÂ Â DAILY IV Dump Truck 35C13 K, 35C13 DK, 35S13 K, 35S13 DK IVECOÂ Â DAILY IV Dump Truck 35S14 K, 35S14 DK IVECOÂ Â DAILY IV Platform/Chassis 29L10 IVECOÂ Â DAILY IV Platform/Chassis 29L12 IVECOÂ Â DAILY IV Platform/Chassis 29L14 IVECOÂ Â DAILY IV Platform/Chassis 35C10, 35S10 IVECOÂ Â DAILY IV Platform/Chassis 35C11, 35S11, 35S11 D, 35S11 /P IVECOÂ Â DAILY IV Platform/Chassis 35C12, 35S12 IVECOÂ Â DAILY IV Platform/Chassis 35C13, 35C13 /P, IVECOÂ Â DAILY IV Platform/Chassis 35C14, 35S14, 35S14 /P IVECOÂ Â DAILY IV Platform/Chassis 40C10 IVECOÂ Â DAILY IV Platform/Chassis 40C11, 40C11 D IVECOÂ Â DAILY IV Platform/Chassis 40C12 IVECOÂ Â DAILY IV Platform/Chassis 40C13, 40C13 /P IVECOÂ Â DAILY V Box Body/Estate 29L11 V, 35C11 V, 35S11 V, 40C11 V IVECOÂ Â DAILY V Box Body/Estate 29L13 V, 35C13 V, 35S13 V, 40C13 V IVECOÂ Â DAILY V Box Body/Estate 29L15 V, 35S15 V, 35C15L V, 40C15L V, IVECOÂ Â DAILY V Dump Truck 35C11K, 35S11DKP IVECOÂ Â DAILY V Dump Truck 35C13K, 35C13DKP IVECOÂ Â DAILY V Platform/Chassis 26L11, 26L11D, 35C11D, 35S11, 40C11 IVECOÂ Â DAILY V Platform/Chassis 29L13, 29L13D, 35C13D, 40C13 IVECOÂ Â DAILY V Platform/Chassis 29L15 V, 35S15, 35C15L V, 40C15L V IVECOÂ Â DAILY VI Box 33S11, 35S11, 35C11 IVECOÂ Â DAILY VI Box 33S12, 35S12, 35C12 IVECOÂ Â DAILY VI Box 33S13, 35S13, 35C13 IVECOÂ Â DAILY VI Box 33S14, 35S14, 35C14 IVECOÂ Â DAILY VI Box 33S15, 35S15, 35C15 IVECOÂ Â DAILY VI Box 33S16, 35S16, 35C16 IVECOÂ Â DAILY VI Box Body/Estate 33S12, 35S12 IVECOÂ Â DAILY VI Box Body/Estate 33S14, 35S14 IVECOÂ Â DAILY VI Box Body/Estate 33S16, 35S16 IVECOÂ Â DAILY VI Platform/Chassis 33S11, 35S11, 35C11 IVECOÂ Â DAILY VI Platform/Chassis 33S12, 35S12, 35C12 IVECOÂ Â DAILY VI Platform/Chassis 33S13, 35S13, 35C13 IVECOÂ Â DAILY VI Platform/Chassis 33S14, 35S14, 35C14 IVECOÂ Â DAILY VI Platform/Chassis 33S15, 35S15, 35C15 IVECOÂ Â DAILY VI Platform/Chassis 33S16, 35S16, 35C16 |
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After-sales Service: | Online Technical Support |
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Warranty: | One Year |
Car Make: | FLAT |
Car Model: | DUCATO Box (244_) 2.3 JTD |
MOQ: | 100 PCS |
Sample: | Available |
Samples: |
US$ 10/Piece
1 Piece(Min.Order) | |
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Customization: |
Available
| Customized Request |
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How do you select the right idler pulley configuration for a specific task?
Selecting the appropriate idler pulley configuration for a specific task involves considering several factors. Here are the key steps to guide you in the selection process:
1. Identify System Requirements:
Understand the specific requirements of the task or application. Determine the type of belt or chain being used, the power transmission requirements, the operating conditions (such as temperature, speed, and load), and any specific constraints or limitations.
2. Determine Belt or Chain Type:
Identify the type and specifications of the belt or chain being used in the system. This includes factors such as the belt width, pitch, tooth profile (for timing belts), and chain size. Knowing the characteristics of the belt or chain will help in selecting an idler pulley that is compatible and optimized for that specific type.
3. Consider Pulley Material and Construction:
Select a pulley material that is suitable for the task at hand. Common options include steel, cast iron, aluminum, and various plastics. Consider factors such as the required strength, durability, corrosion resistance, and the environment in which the pulley will be operating.
4. Determine Pulley Size and Configuration:
Calculate or determine the appropriate pulley size, including the diameter and width. Consider factors such as the desired belt tension, the required wrap angle (the contact area between the pulley and the belt), and any specific clearance or spacing requirements within the system.
5. Assess Bearing and Shaft Requirements:
Consider the bearing and shaft requirements for the idler pulley. Determine the load capacity, rotational speed, and any specific mounting or attachment considerations. Select bearings and shafts that can handle the anticipated loads and provide smooth operation.
6. Consult Manufacturer Recommendations:
Refer to the manufacturer’s recommendations or specifications for the idler pulley. Manufacturers often provide guidelines and technical data for their products, including load capacity charts, speed limits, and other relevant information. Ensure that the selected idler pulley aligns with these recommendations.
7. Evaluate Cost and Availability:
Consider the cost and availability of the idler pulley. Evaluate different suppliers and compare prices, ensuring that the selected pulley offers a good balance of cost-effectiveness and quality. Additionally, ensure that the idler pulley is readily available when needed.
8. Installation and Maintenance:
Lastly, consider the installation and maintenance requirements of the idler pulley. Ensure that it can be easily installed within the system and that any necessary adjustments or maintenance can be performed without significant hassle.
By following these steps and considering the specific requirements of the task or application, you can select the right idler pulley configuration that ensures proper tensioning, reliable power transmission, and optimal performance in your specific task.
What types of belts or chains are typically guided by idler pulleys?
Idler pulleys are commonly used to guide and support various types of belts or chains in mechanical systems. Here’s a detailed explanation of the types of belts or chains that are typically guided by idler pulleys:
1. V-Belts:
Idler pulleys are frequently used to guide V-belts. V-belts have a trapezoidal cross-section and are commonly used in applications that require high torque transmission, such as automotive engines, industrial machinery, and HVAC systems. Idler pulleys help maintain proper tension and alignment of V-belts, ensuring efficient power transmission and preventing slippage.
2. Flat Belts:
Flat belts, as the name suggests, have a flat, rectangular cross-section. They are used in applications where a wide contact surface area is required, such as conveyor systems, printing machines, and textile machinery. Idler pulleys guide and support flat belts, helping to maintain tension, alignment, and proper engagement with other pulleys or components.
3. Timing Belts:
Timing belts, also known as synchronous belts, have teeth on the inner surface. They are commonly used in applications that require precise power transmission, such as automotive engines, robotics, and precision machinery. Idler pulleys play a critical role in guiding and tensioning timing belts, ensuring accurate synchronization between the driving and driven components.
4. Chain Drives:
Idler pulleys are also used to guide and support chains in chain drive systems. Chains are widely used in applications that require high load carrying capacity and durability, such as motorcycles, bicycles, and industrial machinery. Idler pulleys help maintain proper tension, alignment, and engagement of the chain, ensuring smooth and efficient power transmission.
5. Serpentine Belts:
Serpentine belts are wide, multi-ribbed belts commonly used in automotive engines to drive various components, such as the alternator, power steering pump, and air conditioning compressor. Idler pulleys are integral in guiding and tensioning serpentine belts, ensuring proper operation and preventing belt slippage.
It’s important to note that the specific type of belt or chain guided by idler pulleys will depend on the application and the requirements of the mechanical system. Factors such as load capacity, speed, torque, and environmental conditions will influence the selection of the appropriate belt or chain type and the corresponding idler pulleys.
How does the size and diameter of an idler pulley affect its performance?
The size and diameter of an idler pulley play a significant role in determining its performance characteristics. Here’s a detailed explanation of how the size and diameter of an idler pulley affect its performance:
1. Tension and Belt Engagement:
The size and diameter of an idler pulley impact the tension and engagement of the belt. A larger idler pulley will create more belt wrap around its circumference, resulting in increased belt contact and improved grip. This helps to maintain proper tension in the belt and prevent slippage, especially in high-torque applications. Conversely, a smaller idler pulley may have less belt wrap, leading to reduced grip and potentially lower tension.
2. Belt Speed:
The size and diameter of an idler pulley affect the speed at which the belt travels. A larger idler pulley will cover a greater distance per revolution, resulting in a higher belt speed. This can be advantageous in applications where increased speed is desired. Conversely, a smaller idler pulley will cover a shorter distance per revolution, leading to a slower belt speed.
3. Belt Flexibility:
The size and diameter of an idler pulley impact the flexibility of the belt. A larger idler pulley allows for a larger bend radius, reducing the stress on the belt and improving its durability. It also minimizes the risk of excessive bending or flexing that could lead to premature wear or failure. In contrast, a smaller idler pulley may require the belt to bend more sharply, potentially increasing the risk of damage or wear.
4. System Clearance:
The size and diameter of an idler pulley affect the overall clearance in the mechanical system. In tight spaces or constrained environments, a smaller idler pulley may be preferred, as it requires less clearance. Conversely, a larger idler pulley may require additional space to accommodate its size.
5. Load Distribution:
The size and diameter of an idler pulley impact its ability to distribute the load across the belt. A larger idler pulley can distribute the load over a larger surface area, reducing the stress on the belt and other components. It helps to minimize wear and prolong the life of the system. On the other hand, a smaller idler pulley concentrates the load on a smaller area, potentially increasing the risk of localized wear or failure.
6. Bearing Life and Friction:
The size and diameter of an idler pulley influence the bearing life and friction within the system. Larger idler pulleys typically have larger bearings, which can handle higher loads and exhibit improved durability. They also tend to generate lower friction, leading to reduced heat and wear. In contrast, smaller idler pulleys may have smaller bearings that may have limitations in terms of load capacity and friction.
It’s important to note that the specific requirements for size and diameter of an idler pulley will depend on the application and the intended function within the mechanical system. Factors such as belt type, load requirements, speed, and space constraints should be considered when selecting the appropriate size and diameter of an idler pulley for optimal performance.
editor by CX
2024-03-07