Product Description
Cummins Genuine Engine Part Pulley, Idler 5372097/3017670 for CHINAMFG GTA38/K38QSK38 Engine with Competitive Price
CCEC engine part:
More CHINAMFG engine parts in sock:
PNs | Parts Description_English | |||||||||||||||
C2830346 | CONNECTION,WATER INLET | |||||||||||||||
C2830405 | BREATHER,CRANKCASE | |||||||||||||||
C2830409 | SEAL,O RING | |||||||||||||||
C283571 | SCREW,HEX FLANGE HEAD CA | |||||||||||||||
C283571 | SCREW,HEX FLANGE HEAD CA | |||||||||||||||
C283 0571 | SEAL,O RING | |||||||||||||||
C2831066 | COLLAR,SHAFT | |||||||||||||||
C2831103 | SCREW,ROUND HEAD CAP | |||||||||||||||
C2831341 | PAN,OIL | |||||||||||||||
C2831342 | PAN,OIL | |||||||||||||||
C2831370 | HOUSING,FLYWHEEL | |||||||||||||||
C2834174 | TURBOCHARGER | |||||||||||||||
C2834176 | TURBOCHARGER | |||||||||||||||
C2834302 | TURBOCHARGER | |||||||||||||||
C2834338 | TURBOCHARGER | |||||||||||||||
C2834535 | TURBOCHARGER | |||||||||||||||
C2834797 | TURBOCHARGER | |||||||||||||||
C2834799 | TURBOCHARGER | |||||||||||||||
C2834823 | TURBOCHARGER | |||||||||||||||
C2835419 | TURBOCHARGER | |||||||||||||||
C2835420 | TURBOCHARGER | |||||||||||||||
C2836276 | TURBOCHARGER | |||||||||||||||
C2836441 | TURBOCHARGER | |||||||||||||||
C2836739 | TURBOCHARGER | |||||||||||||||
C2837154 | TURBOCHARGER | |||||||||||||||
C2837412 | TURBOCHARGER | |||||||||||||||
C2838287 | TURBOCHARGER | |||||||||||||||
C2839128 | TURBOCHARGER | |||||||||||||||
C2839315 | TURBOCHARGER | |||||||||||||||
C2839317 | TURBOCHARGER | |||||||||||||||
C2839319 | TURBOCHARGER | |||||||||||||||
C2839354 | TURBOCHARGER | |||||||||||||||
C2839387 | TURBOCHARGER | |||||||||||||||
C2839487 | TURBOCHARGER | |||||||||||||||
C2839489 | TURBOCHARGER | |||||||||||||||
C2839878 | TURBOCHARGER | |||||||||||||||
C2840195 | TURBOCHARGER | |||||||||||||||
C2840947 | TURBOCHARGER | |||||||||||||||
C2841270 | TURBOCHARGER | |||||||||||||||
C2841384 | TURBOCHARGER | |||||||||||||||
C2841698 | TURBOCHARGER | |||||||||||||||
C2842807 | TURBOCHARGER | |||||||||||||||
C2842849 | TURBOCHARGER | |||||||||||||||
C2864829 | SEAL,GEAR HOUSING | |||||||||||||||
C2864882 | HOUSING,GEAR | |||||||||||||||
C2864884 | SHAFT,IDLER | |||||||||||||||
C2864886 | GASKET,COVER PLATE | |||||||||||||||
C2864887 | PLATE,COVER | |||||||||||||||
C2864899 | SCREW,CONNECTING ROD CAP | |||||||||||||||
C2866616 | BOSS | |||||||||||||||
C2869891 | GASKET,VALVE COVER | |||||||||||||||
C2869892 | GEAR,IDLER | |||||||||||||||
C2869962 | NOZZLE,PISTON COOLING | |||||||||||||||
C2870121 | SEAL,FRONT COVER | |||||||||||||||
C2871979 | SENSOR,NITROGEN OXIHU (WEST LAKE) DIS. | |||||||||||||||
C2872277 | SENSOR,POSITION | |||||||||||||||
C2872279 | SENSOR,POSITION | |||||||||||||||
C2872792 | SENSOR,TEMPERATURE | |||||||||||||||
C2873953 | BRACKET,LIFTING | |||||||||||||||
C2873961 | SEAL,O RING | |||||||||||||||
C2873968 | HOSE,ELBOW | |||||||||||||||
C2873969 | PULLEY,FAN | |||||||||||||||
C2873971 | HUB,FAN | |||||||||||||||
C2873972 | SUPPORT,BELT TENSIONER | |||||||||||||||
C2873974 | BELT,V RIBBED | |||||||||||||||
C2873975 | SUPPORT,ALTERNATOR | |||||||||||||||
C2873982 | GASKET,EXHAUST MANIFOLD | |||||||||||||||
C2873983 | HOSE,FLEXIBLE | |||||||||||||||
C2873984 | CONNECTION,TUR OIL DRAIN | |||||||||||||||
C2873989 | SCREW,FRACTURE RESISTANT | |||||||||||||||
C2874016 | HEAD,FUEL FILTER | |||||||||||||||
C2874571 | TENSIONER,BELT | |||||||||||||||
C2874571 | BELT,V RIBBED | |||||||||||||||
C2874033 | BRACE,TUBE | |||||||||||||||
C2874037 | TUBE,WATER BYPASS | |||||||||||||||
C2874042 | PUMP,WATER | |||||||||||||||
C2874044 | CARRIER,SEAL | |||||||||||||||
C2874047 | COUPLING,PLAIN HOSE | |||||||||||||||
C2874051 | HARNESS,ETR CNT MDL WRG | |||||||||||||||
C2874066 | BLOCK,CYLINDER | |||||||||||||||
C2874071 | PULLEY,IDLER | |||||||||||||||
C2874076 | PLATE,OIL SEAL | |||||||||||||||
C2874077 | SCREW,HEX FLANGE HEAD CAP | |||||||||||||||
C2874078 | WASHER,PLAIN | |||||||||||||||
C2874079 | COVER,GEAR | |||||||||||||||
C2874091 | SCREW,HEX FLANGE HEAD | |||||||||||||||
C2874093 | HOUSING,OIL COOLER | |||||||||||||||
C2874120 | CONNECTION,AIR INTAKE | |||||||||||||||
C2874205 | CONNECTION,AIR TRANSFER | |||||||||||||||
C2874278 | PUMP,WATER | |||||||||||||||
C2874279 | ALTERNATOR | |||||||||||||||
C2874377 | TENSIONER,BELT | |||||||||||||||
C2874451 | CONNECTOR,BANJO | |||||||||||||||
C2874467 | UNION,MALE | |||||||||||||||
C2874490 | FILTER,LUBRICATING OIL | |||||||||||||||
C2874557 | CONNECTION,EXHAUST OUTLET | |||||||||||||||
C2874563 | CONNECTION,AIR TRANSFER | |||||||||||||||
C2874587 | VALVE,COUPLING | |||||||||||||||
C2874592 | PUMP,HYDRAULIC | |||||||||||||||
C2894940 | SENSOR,NITROGEN OXIHU (WEST LAKE) DIS. | |||||||||||||||
C2897331 | SENSOR,PRESSURE | |||||||||||||||
C2897333 | SENSOR,PRS TEMPERATURE | |||||||||||||||
C2897342 | SENSOR,POSITION | |||||||||||||||
C2897414 | INJECTOR | |||||||||||||||
C3 | BRACE,TUBE | |||||||||||||||
C3286494 | PIPE,AIR TRANSFER | |||||||||||||||
C3286499 | HOSE,PLAIN | |||||||||||||||
C3286550 | HOSE,PLAIN | |||||||||||||||
C3286575 | CONNECTION,EXHAUST OUTLET | |||||||||||||||
C3286613 | SPACER,MOUNTING | |||||||||||||||
C3286653 | BRACKET,ALTERNATOR | |||||||||||||||
C3286907 | BRACKET,BELT TENSIONER | |||||||||||||||
C3286908 | BRACKET,BELT TENSIONER | |||||||||||||||
C3287571 | SUPPORT,ALTERNATOR | |||||||||||||||
C3287099 | DIPSTICK | |||||||||||||||
C3287126 | CONNECTION,EXHAUST OUTLET | |||||||||||||||
C3287130 | MANIFOLD,EXHAUST | |||||||||||||||
C3287185 | COUPLING,PLAIN HOSE | |||||||||||||||
C3287186 | HOSE,MOLDED | |||||||||||||||
C3287193 | ADAPTER,CRANKSHAFT | |||||||||||||||
C3287202 | TUBE,CPR WATER INLET | |||||||||||||||
C3287204 | TUBE,CPR WATER OUTLET | |||||||||||||||
C3287206 | TUBE,CPR WATER OUTLET | |||||||||||||||
C3287208 | TUBE,CPR WATER OUTLET | |||||||||||||||
C3287210 | TUBE,CPR WATER INLET | |||||||||||||||
C3287272 | CLAMP,HOSE | |||||||||||||||
C3287273 | CONNECTOR,QCK DISCONNECT | |||||||||||||||
C3287274 | CONNECTOR,QCK DISCONNECT | |||||||||||||||
C32873). If you don’t have part no in hand, you can also tell us the engine number (8 Arab numbers, like25262227). CHINAMFG Quickserve on line could help.
How do idler pulleys enhance the efficiency and longevity of machinery and equipment?Idler pulleys play a crucial role in enhancing the efficiency and longevity of machinery and equipment in several ways: 1. Belt Tension and Alignment: Idler pulleys help maintain proper tension and alignment of belts in belt-driven systems. By applying the right amount of tension, idler pulleys prevent belt slippage and ensure efficient power transmission. Proper alignment reduces wear on belts and other components, minimizing energy losses and extending the lifespan of the equipment. 2. Reduced Bearing Load: Idler pulleys distribute the load on the belt, reducing the load on the bearings of other rotating components. This helps prevent premature bearing failure and extends the life of bearings, reducing maintenance requirements and downtime. 3. Vibration Damping: Idler pulleys can absorb and dampen vibrations that occur during operation. By reducing vibrations, idler pulleys minimize stress on the belt and other components, improving overall system performance and reducing the risk of component failure. 4. Belt Span Length: Idler pulleys enable longer belt spans, which can reduce the number of required pulleys and overall system complexity. Longer belt spans provide smoother power transmission, minimize the number of potential failure points, and improve overall system efficiency. 5. Load Distribution: Idler pulleys help distribute the load evenly across the belt, ensuring that no single section of the belt is subjected to excessive stress. This balanced load distribution reduces the risk of belt stretching, premature wear, and failures, contributing to improved equipment longevity. 6. Belt Wrap Angle: By adjusting the position and angle of idler pulleys, the wrap angle of the belt can be optimized. A larger wrap angle increases the grip between the belt and pulleys, improving power transmission efficiency and reducing the risk of slipping. 7. Tension Control: Idler pulleys allow for convenient tension control in belt-driven systems. By adjusting the position or tension of the idler pulley, the tension on the belt can be fine-tuned to match the specific requirements of the machinery, optimizing performance and reducing wear. Overall, idler pulleys contribute to the efficiency and longevity of machinery and equipment by ensuring proper belt tension, reducing bearing load, damping vibrations, enabling longer belt spans, distributing loads evenly, optimizing belt wrap angles, and providing tension control. By incorporating idler pulleys into belt-driven systems, manufacturers can improve system reliability, reduce maintenance costs, and extend the lifespan of their equipment. How do idler pulleys impact the performance of automotive and industrial systems?Idler pulleys play a crucial role in the performance of automotive and industrial systems. Here’s a detailed explanation of how idler pulleys impact the performance of these systems: 1. Belt Tension and Stability: Idler pulleys help maintain proper belt tension in automotive and industrial systems. They guide and support the belts, ensuring they remain engaged with the pulleys and operate with the desired tension. Proper belt tension is crucial for efficient power transmission, preventing slippage, and maintaining stability in the system. Idler pulleys contribute to the overall reliability and performance of the system by ensuring consistent and reliable belt tension. 2. Belt Routing and Alignment: Idler pulleys assist in routing and aligning belts in automotive and industrial systems. They are strategically positioned to guide the belts along the desired path, ensuring they are properly aligned with other pulleys and components. Correct belt routing and alignment minimize wear, reduce noise, and optimize power transfer efficiency. Idler pulleys help maintain the desired belt alignment, which is crucial for the smooth operation and longevity of the system. 3. Load Distribution: Idler pulleys contribute to the even distribution of loads in automotive and industrial systems. By guiding the belts and supporting their movement, idler pulleys help distribute the load evenly across the system. This helps prevent excessive stress on specific components and promotes balanced wear and tear. Proper load distribution enhances the overall performance, reliability, and lifespan of the system. 4. Noise and Vibration Reduction: Idler pulleys play a role in reducing noise and vibration in automotive and industrial systems. They help dampen vibrations caused by belt operation, minimizing noise and improving the comfort and user experience. By reducing noise and vibration levels, idler pulleys contribute to a quieter and smoother operation of the system. 5. System Efficiency and Energy Conservation: Efficient idler pulley operation positively impacts the overall efficiency of automotive and industrial systems. Well-designed idler pulleys with low friction and proper bearing selection minimize power losses and maximize energy conservation. Idler pulleys that operate smoothly and efficiently contribute to improved system performance and reduced energy consumption. 6. Component Protection: Idler pulleys help protect other system components, such as belts, by ensuring proper tension, alignment, and load distribution. By maintaining optimal belt operation, idler pulleys prevent excessive wear, slippage, and premature failure of belts and other related components. This protection enhances the reliability and longevity of the entire system. 7. System Reliability and Durability: The proper functioning of idler pulleys is crucial for the overall reliability and durability of automotive and industrial systems. Idler pulleys that are correctly sized, well-maintained, and appropriately lubricated contribute to the smooth and continuous operation of the system. They help minimize downtime, reduce the risk of component failure, and ensure the system can perform its intended functions reliably over an extended period. Overall, idler pulleys have a significant impact on the performance, efficiency, reliability, and durability of automotive and industrial systems. Their role in maintaining belt tension, routing and alignment, load distribution, noise reduction, system efficiency, component protection, and overall system reliability makes them essential components in these applications. 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.
2023-11-13 |