Specializing in the design and manufacture of automotive motor armatures and stators.

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Fuel pump armature manufacturer: Manufacturer of electric fuel pumps in automotive fuel systems

Release Time:

2022-06-30

   Fuel pump armature The manufacturer states that the fuel pump, as a basic component in the engine fuel supply system, is responsible for drawing fuel from the fuel tank during engine operation and continuously supplying it to the engine under a certain pressure through the fuel supply pipeline. The high-pressure fuel pump then increases the pressure again, supplying a fixed amount of fuel to each cylinder according to the engine's firing order.

  The fuel pump armature manufacturer indicates that the armature is an important part of the engine's fuel pump. Theoretically, the service life of a general fuel pump can reach thousands of hours. However, due to wear and tear, the service life of the fuel pump is greatly reduced to only a few hundred hours. The main wear is the corrosion of the armature by the fuel, causing very serious damage to the armature. The current market solution is to use spraying technology to process the insulation layer of the fuel pump armature. Generally, spraying powder is attached to the armature shaft and metal sheets to form an injection-molded insulation layer. The insulation layer is an epoxy resin layer formed by electrostatic spraying. However, this type of fuel pump has significant safety hazards. During the spraying process, the uneven thickness of the spraying powder may lead to the risk of the insulation layer being punctured by high voltage. On the other hand, the spray powder may also dissolve in methanol, ethanol, or other fuels such as diesel, leading to fuel pump failure. Therefore, the insulation layer of the existing fuel pump armature using spraying technology cannot guarantee the safety of the fuel pump, and the service life of the fuel pump is still too short.

  The purpose of the new fuel pump armature is to solve the problem of the short service life of the current fuel pump and avoid the defects of the insulation layer formed by the spraying powder in the existing spraying technology, which may be punctured by high voltage or dissolved in methanol and other fuels. This utility model discloses a fuel pump armature, including an armature shaft, characterized in that: the injection-molded insulation layer is cylindrical and is located in the middle section of the armature shaft; multiple metal steel sheets are wrapped by the injection-molded insulation layer; a carbon commutator is connected to the injection-molded insulation layer at the tail end of the armature shaft; and a cylindrical shell.

  In the middle section of the fuel pump armature shaft, the wound metal sheets are attached to the enamelled wires wound around the injection-molded insulation layer and the carbon commutator. The cylindrical shell is closed at the end opposite the carbon commutator. There are conical protrusions at both ends of the injection-molded insulation layer, which fit onto the armature shaft.

  One end of the carbon commutator connected to the injection-molded insulation layer in the fuel pump is located inside the cylindrical shell, and the other end of the carbon commutator is exposed outside the cylindrical shell. In the fuel pump, the enamelled wires are filled between the conical protrusions at both ends of the injection-molded insulation layer and the cylindrical outer shell. The length of the metal sheets of the fuel pump armature is slightly shorter than the height of the injection-molded insulation layer. The fuel pump armature is injection-molded from polyoxymethylene. The injection-molded insulation layer can be made by injection molding, with a stable structure. The thickness of the insulation layer is strictly controlled according to the mold, resulting in high strength and preventing dissolution in methanol and other fuels. Compared with the existing fuel pumps, the injection-molded insulation layer of the new fuel pump armature will not be punctured by high voltage, greatly improving reliability and extending service life.

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Fuel pump armature

07-10

2023

Creating high-quality automotive motor armatures, Hanwha Electro-materials takes you to a higher level of driving experience

In recent years, with the rapid development of the automotive industry, automotive motor armatures have played an indispensable role in enhancing driving experience and performance. As a company focused on providing high-quality motor armatures to customers, Hanwha Electro-materials, with its superior technology and innovation capabilities, has become a leader in the industry. This article will take you to learn more about Hanwha Electro-materials and how they help you create high-quality automotive motor armatures to enhance the driving experience. Hanwha Electro-materials has been committed to the research and development and production of high-quality automotive motor armatures. They use the most advanced technologies and processes to ensure that each product undergoes rigorous quality control to meet customer needs and expectations. Whether it is a traditional fuel vehicle or a new energy vehicle, Hanwha Electro-materials can provide you with the most suitable motor armature solution. Hanwha Electro-materials' motor armatures have excellent performance and reliability. They use high-quality materials and advanced manufacturing processes to ensure high efficiency and long life of the motor armatures. Whether accelerating or braking, Hanwha Electro-materials' motor armatures can provide you with excellent power output and precise control. At the same time, they also focus on reducing noise and vibration to create a quiet and comfortable driving environment. Hanwha Electro-materials not only provides standard products but can also customize according to customers' specific requirements.

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Difference between brushless motor stator and rotor and traditional motors

The difference between brushless motor stator and rotor and traditional motors. Brushless motor stator and rotor is a relatively new motor technology, which has many differences compared with traditional motors. This article will focus on the differences between brushless motor stator and rotor and traditional motors, helping readers better understand the differences between these two motor technologies. First of all, the brushless motor stator and rotor are different from traditional motors in structure. Traditional motors usually use brushes and commutators to achieve current transmission and rotor positioning, while brushless motor stators and rotors use electronic commutators and magnets to achieve rotor positioning. This structural change makes the brushless motor stator and rotor have less friction, lower noise, and longer life during operation. Secondly, the brushless motor stator and rotor are more efficient than traditional motors. Because the brushless motor stator and rotor adopts advanced rotor design and electronic commutation technology, it can more effectively convert electrical energy into mechanical energy, thereby improving the efficiency of the whole system. In contrast, traditional motors have relatively low efficiency due to the friction loss of brushes and commutators. In addition, the brushless motor stator and rotor is more flexible in control. Traditional motors usually use DC power supply and cannot achieve precise speed and torque control. However, the brushless motor stator and rotor can control the position of the rotor through the electronic commutator.

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Brushless motor stators and rotors are indispensable components in fields such as power tools, robotics, and modeling. A good brushless motor stator and rotor can improve the efficiency and performance of the motor. When selecting a brushless motor stator and rotor, several key factors need to be considered to ensure it suits your application needs. This article will introduce how to select a suitable brushless motor stator and rotor. First, you need to understand the types of brushless motor stators and rotors. Currently, the most common types of brushless motor stators and rotors on the market are built-in and external types. Built-in brushless motor stators and rotors are suitable for applications with space constraints, while external brushless motor stators and rotors are suitable for applications requiring higher speeds and torques. Second, the quality and materials of the brushless motor stator and rotor need to be considered. The materials of brushless motor stators and rotors are usually steel, chromium alloys, or nickel-cobalt alloys. High-quality materials can improve motor efficiency and durability. In addition, the quality of the brushless motor stator and rotor is equally important. Choosing a high-quality brushless motor stator and rotor can make your motor more efficient and reliable. In addition, the size and shape of the brushless motor stator and rotor need to be considered. Choosing a brushless motor stator and rotor with a size and shape that suits your application needs can improve motor efficiency and stability. If you need high speed and torque, it is recommended to choose a

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