During transmission, signals radiate electromagnetic waves into space. The longer the distance, the greater the energy loss due to radiation.
By adjusting the substituent groups on silicon atoms, the temperature range adaptability and tensile strength of silicone rubber can be optimized.
The density and angle of the shielding layer also affect the shielding effect and need to be adjusted according to the sensor type and transmission distance.
In practical applications, the low-temperature flexibility of silicone rubber cables has been further enhanced through process optimization.
In-depth analysis of the mechanism of how connector sealing affects signal integrity requires consideration from multiple dimensions, including physical protection, electromagnetic compatibility, and environmental adaptability.
Thanks to its unique material properties, silicone rubber cable exhibits exceptional self-extinguishing and non-drip properties under flame conditions.