In the electronics industry, molybdenum wire is widely used in the manufacture of leads and connectors for electronic devices. During the welding process, the selection of welding parameters is crucial. The size of the solder joint has a significant impact on the activation of the flux and the melting time of the solder. Larger solder joints require more heat to achieve the melting of the solder, so when choosing a soldering iron, higher-power devices should be given priority, and the soldering iron tip of the appropriate size should be used. At the same time, the contact time between the soldering iron and the solder joint should be precisely controlled between 2 and 4 seconds. Too short a contact time may result in cold welding, while too long a contact time may damage the integrity of the circuit board and electronic components. In addition, the pressure applied to the soldering iron should be moderate, and only the soldering iron should be kept firmly in the specified position. Excessive pressure may cause damage to the pads and lines on the printed circuit board.
In the metallurgical and chemical industries, molybdenum wire is widely used in high-temperature furnaces, reactors, catalyst carriers and other equipment. In these high-temperature environments where corrosive substances may be present, it is crucial to ensure that the molybdenum wire is firmly installed. During the installation process, the molybdenum wire should be prevented from being overstretched or bent to avoid internal stress, which will affect its service life and performance stability. At the same time, it is necessary to regularly check the connection parts of the molybdenum wire to ensure the firmness of the connection and prevent poor contact caused by loose connection, which will affect the normal operation of the equipment.
If molybdenum wire is used in the manufacture of temperature measuring elements such as high-temperature electric heating elements, thermocouples and thermal resistors, special attention should be paid to its working environment. Molybdenum wire can provide accurate and stable temperature measurement in these applications, so it is crucial to ensure the relative stability of the working environment to avoid damage to the molybdenum wire due to drastic temperature changes or vibrations. For example, during the heating process of high-temperature electric heating elements, the stability of the heating process should be ensured to avoid local overheating or excessive temperature fluctuations, so as not to affect the performance of the molybdenum wire and the accuracy of measurement.
In the scenario where molybdenum wire is used in combination with other materials, such as embedding molybdenum wire in silicon carbide-based composite materials to enhance material properties, the production process is crucial to the use effect of molybdenum wire. The process parameters need to be precisely controlled during the manufacturing process to ensure a stable interface bond between the molybdenum wire and the matrix material. For example, when manufacturing a composite material by infiltrating a porous carbon blank with molten silicon, it is necessary to ensure that the molten silicon reacts fully with the molybdenum wire embedded in the carbon blank to form an interface layer with a specific phase structure to ensure the overall performance of the composite material.