Product Description
MIC NO | OEM.NO | APPLICATION | YEAR | PHOTO |
TB34PG9301 | 957726 082990 9642929880 |
CITROEN BERLINGO / BERLINGO FIRST Box (M_) 1.1 i (MAHDZ, MBHDZ, MBHFX) CITROEN BERLINGO / BERLINGO FIRST Box (M_) 1.4 bivalent CITROEN BERLINGO / BERLINGO FIRST Box (M_) 1.4 i (MBKFX, MBKFW) CITROEN BERLINGO / BERLINGO FIRST Box (M_) 1.4 i bivalent (MBKFW) CITROEN BERLINGO / BERLINGO FIRST MPV (MF_, GJK_, GFK_) 1.1 i (MFHDZ, MFHFX) CITROEN BERLINGO / BERLINGO FIRST MPV (MF_, GJK_, GFK_) 1.4 bivalent CITROEN BERLINGO / BERLINGO FIRST MPV (MF_, GJK_, GFK_) 1.4 i (MFKFX, MFKFW, GJKFWB, GJKFWC, GFKFWC) CITROEN BERLINGO / BERLINGO FIRST MPV (MF_, GJK_, GFK_) 1.4 i bivalent (MFKFW) CITROEN C2 (JM_) 1.1 CITROEN C2 (JM_) 1.4 CITROEN C3 I (FC_, FN_) 1.1 i CITROEN C3 I (FC_, FN_) 1.4 i CITROEN C3 I (FC_, FN_) 1.4 i Bivalent CITROEN C3 II (SC_) 1.1 i CITROEN C3 II (SC_) 1.4 CITROEN C3 Pluriel (HB_) 1.4 CITROEN NEMO Box (AA_) 1.4 CITROEN NEMO Estate 1.4 CITROEN SAXO (S0, S1) 1.1 X,SX CITROEN XSARA (N1) 1.4 i CITROEN XSARA Break (N2) 1.4 i CITROEN XSARA Coupe (N0) 1.4 i FIAT FIORINO Box Body/Estate (225_) 1.4 (225BXA1A, 225BXF1A) FIAT QUBO (225_) 1.4 (225AXA1A) PEUGEOT 1007 (KM_) 1.4 PEUGEOT 106 II (1A_, 1C_) 1.1 i PEUGEOT 206 Hatchback (2A/C) 1.1 PEUGEOT 206 Hatchback (2A/C) 1.1 i PEUGEOT 206 Hatchback (2A/C) 1.4 i PEUGEOT 206 Hatchback (2A/C) 1.4 LPG PEUGEOT 206 Saloon 1.4 PEUGEOT 206 SW (2E/K) 1.1 PEUGEOT 206 SW (2E/K) 1.4 PEUGEOT 206+ (2L_, 2M_) 1.1 PEUGEOT 206+ (2L_, 2M_) 1.4 i PEUGEOT 207 (WA_, WC_) 1.4 PEUGEOT 207 SW (WK_) 1.4 PEUGEOT 306 (7B, N3, N5) 1.1 PEUGEOT 306 (7B, N3, N5) 1.4 SL PEUGEOT 306 Break (7E, N3, N5) 1.4 PEUGEOT 306 Hatchback (7A, 7C, N3, N5) 1.1 PEUGEOT 307 (3A/C) 1.4 PEUGEOT BIPPER (AA_) 1.4 PEUGEOT BIPPER Tepee 1.4 PEUGEOT PARTNER Box (5_, G_) 1.1 PEUGEOT PARTNER Box (5_, G_) 1.4 PEUGEOT PARTNER Box (5_, G_) 1.4 BiFuel PEUGEOT PARTNER Combispace (5_, G_) 1.1 PEUGEOT PARTNER Combispace (5_, G_) 1.4 |
1996-2008 2002-2011 1996-2011 2003-2005 1996-2008 2002-2011 1996-2011 2003-2008 2003-2012 2003-2009 2002- 2002-2571 2002- 2009-2013 2009-2016 2003- 2008- 2009- 1996-2003 1997-2005 1997-2005 1998-2005 2007- 2008- 2005- 1996-2004 1998-2000 1998-2007 1998-2012 2006-2007 2007- 2002- 2002-2007 2009-2013 2009-2013 2006-2013 2007-2012 1994-2001 1994-2001 1997-2002 1993-2001 2000-2003 2008- 2008- 1996-2005 1996-2015 2003-2006 1996-2002 1996-2015 |
After-sales Service: | Online Technical Support |
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Warranty: | One year |
Car Make: | CITROEN |
Car Model: | XSARA Break (N2) 1.4 i |
Sample: | Available |
Application: | XSARA Break (N2) 1.4 i |
Samples: |
US$ 15/Piece
1 Piece(Min.Order) | |
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Customization: |
Available
| Customized Request |
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How do pulleys affect the performance of fitness equipment?
Pulleys have a significant impact on the performance of fitness equipment by enabling the smooth and efficient operation of various exercise machines. Here’s how pulleys affect the performance of fitness equipment:
1. Resistance Adjustment: Pulleys are often used in fitness equipment to provide adjustable resistance. By incorporating different-sized pulleys or using pulley systems with varying mechanical advantage, the resistance level can be adjusted to meet the user’s desired intensity. This allows individuals to customize their workouts and progress in their fitness journey.
2. Cable Systems: Many fitness machines, such as cable machines and functional trainers, utilize pulleys in their cable systems. These pulleys guide the cables and allow for multi-directional movements, providing a wide range of exercise options. The smooth movement facilitated by pulleys enhances user comfort and ensures consistent resistance throughout the exercise motion.
3. Weight Stacks: Weight stack machines commonly found in gyms employ pulleys to create resistance. The weight stack is connected to the exercise handles or levers through a cable and a series of pulleys. As the user performs the exercise, the pulleys help distribute the load and maintain proper cable tension, resulting in smooth and controlled movements.
4. Functional Training: Pulleys play a crucial role in functional training equipment, such as suspension trainers or resistance bands. These systems often feature adjustable pulleys that allow users to target specific muscle groups and perform a wide variety of functional movements. The pulleys enable smooth and controlled resistance, enhancing overall workout effectiveness.
5. Mechanical Advantage: Pulley systems can provide mechanical advantage in fitness equipment, making exercises more manageable and accessible. By utilizing pulleys with appropriate mechanical advantage, individuals can perform exercises that would otherwise require greater strength or effort. This feature is particularly beneficial for users with varying fitness levels or those recovering from injuries.
6. Smooth and Controlled Motion: Pulleys contribute to the smooth and controlled motion of fitness equipment. By reducing friction and providing proper cable alignment, pulleys ensure that the resistance is applied evenly throughout the exercise range of motion. This promotes fluid and natural movements, minimizing the risk of injury and maximizing the effectiveness of the exercise.
7. Durability and Safety: High-quality pulleys used in fitness equipment are designed to withstand the rigors of constant use and heavy loads. They are often made from durable materials and incorporate features such as sealed bearings to minimize maintenance and maximize safety. Reliable pulley systems contribute to the longevity and safety of fitness equipment.
Overall, pulleys are essential components in fitness equipment, influencing resistance adjustment, cable systems, weight stacks, functional training, mechanical advantage, motion quality, and equipment durability. They enhance the effectiveness, versatility, and user experience of fitness machines, allowing individuals to achieve their fitness goals and maintain an active and healthy lifestyle.
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.
How does a fixed pulley differ from a movable pulley?
A fixed pulley and a movable pulley are two distinct types of pulleys that differ in their design and functionality. Here’s a detailed explanation of their differences:
1. Design and Attachment: A fixed pulley is attached to a stationary structure, such as a ceiling or wall, using a mounting bracket or other means. It remains fixed in place and does not move during operation. In contrast, a movable pulley is attached to the load being moved and moves along with it. It is typically suspended by a rope or cable and can freely move up and down.
2. Mechanical Advantage: When it comes to mechanical advantage, a fixed pulley does not provide any advantage. It changes the direction of the force applied but does not reduce the effort required to lift the load. On the other hand, a movable pulley provides mechanical advantage by reducing the effort needed to lift the load. It distributes the load between the rope segments attached to the movable pulley and the fixed point, making it easier to lift heavy objects.
3. Force Distribution: In a fixed pulley, the force applied to one end of the rope or belt is redirected to change the direction of the force. The load is lifted by pulling the opposite end of the rope. In this case, the force required to lift the load is equal to the weight of the load itself. In a movable pulley, the load is attached to the movable pulley itself. The force required to lift the load is reduced because the weight of the load is distributed between the rope segments attached to the movable pulley and the fixed point.
4. Directional Change: Both fixed and movable pulleys are capable of changing the direction of the applied force. However, the primary function of a fixed pulley is to change the direction of force, while a movable pulley combines force direction change with mechanical advantage. The movable pulley allows the operator to exert force in a more convenient direction while requiring less effort to lift the load.
5. Applications: Fixed pulleys are commonly used in combination with other pulleys to create more complex systems, such as block and tackle arrangements. They are often used in scenarios where the primary objective is to change the direction of force. Movable pulleys, on the other hand, are frequently used in systems that require mechanical advantage or a reduction in the effort needed to lift heavy objects. They are often found in applications such as lifting systems, cranes, and elevators.
Overall, the key differences between a fixed pulley and a movable pulley lie in their design, mechanical advantage, force distribution, and applications. While a fixed pulley primarily changes the direction of force, a movable pulley combines force direction change with mechanical advantage, making it easier to lift heavy loads.
editor by CX
2023-09-26