In daily use, wired headphones often face various pulling situations, so their anti-pulling design has a very critical impact on the durability of the product.
First of all, the material selection of the headphone wire is the basis of the anti-pulling design. Some high-performance headphones use a wire that is woven from high-strength materials such as Kevlar fiber and traditional copper wire. Kevlar fiber has extremely high tensile strength and can withstand large external forces without breaking easily, which greatly enhances the overall tensile resistance of the wire. For example, in sports scenes, users may inadvertently pull the headphone wire. This composite material wire can effectively avoid damage to the internal wire due to sudden pulling force, thereby ensuring the normal use and long service life of the headphones.
Secondly, the connection between the headphone plug and the wire is also a weak link that is prone to problems. In order to improve the anti-pulling ability of this part, many headphones use a special reinforcement design. For example, a metal shell is used to wrap the plug, and the wire and the plug are tightly wound and fixed multiple times, and high-strength glue is used for bonding, so that the plug and the wire form a solid whole. In this way, when the headphone cable is pulled by external force, it can effectively prevent the wire from detaching from the plug, ensuring the stability of signal transmission and the durability of the headphones.
Furthermore, the part where the headphone cable is connected to the headphone body also needs to be carefully designed. Some headphones use a rotatable and bendable buffer structure, which can alleviate the stress concentration caused by external force to a certain extent. When the headphone cable is pulled, the buffer structure can disperse the tension through its own deformation, reduce the damage to the internal circuit and sound unit of the headphone, and thus extend the service life of the headphone.
In addition, from the perspective of the overall wire structure design, some high-end wired headphones use a twisted wire layout. This layout allows multiple strands of wire to be entangled with each other. When subjected to tension, the strands of wire can support each other and share the external force together, reducing the tension on the single strand of wire, effectively preventing the wire from being broken, and improving the durability of the headphones during long-term use.
In daily use, the storage method is also closely related to the anti-pulling design and durability of the headphones. Equipped with a special headphone storage box or cable winder, it can standardize the storage of headphone cables, prevent the cables from being randomly entangled, knotted or squeezed by heavy objects, reduce cable damage caused by improper storage, and further ensure the durability of the headphones.
Finally, headphone manufacturers need to conduct strict tests on the anti-pulling performance of headphones during product development. Simulate the pulling conditions that may occur in various actual use scenarios, such as pulling at different angles and with different strengths, and continuously optimize the design based on the test results to ensure that the anti-pulling design of wired headphones can meet the needs of users and provide users with a durable product experience.