The M9 circular connector is composed of three core components: the housing, the insulator, and the contact piece. The housing is mostly made of nickel-plated brass or stainless steel, which combines mechanical strength and corrosion resistance. The insulator is made of high-temperature-resistant engineering plastics to ensure insulation performance and structural stability. The contact piece adopts a pin-hole design and achieves low contact resistance and excellent conductivity through precise stamping and electroplating processes. Some products are equipped with snap fasteners or threaded locking structures to enhance connection firmness and effectively prevent detachment risks in vibration environments.
The M9 circular connector is composed of three core components: the housing, the insulator, and the contact piece. The housing is mostly made of nickel-plated brass or stainless steel, which combines mechanical strength and corrosion resistance. The insulator is made of high-temperature-resistant engineering plastics to ensure insulation performance and structural stability. The contact piece adopts a pin-hole design and achieves low contact resistance and excellent conductivity through precise stamping and electroplating processes. Some products are equipped with snap fasteners or threaded locking structures to enhance connection firmness and effectively prevent detachment risks in vibration environments.
The M9 circular connector consists of three core components: the shell, the insulator, and the contacts. The shell is mostly made of brass with nickel - plating or stainless - steel, combining mechanical strength and corrosion - resistance. The insulator is made of high - temperature - resistant engineering plastic, ensuring insulation performance and structural stability. The contacts adopt a pin - and - socket design. Through precision stamping and electroplating processes, they achieve low contact resistance and excellent electrical conductivity. Some products are equipped with snap - type or threaded locking structures, enhancing connection firmness and effectively preventing disconnection risks in vibrating environments.
The M9 circular connector consists of three core components: the shell, the insulator, and the contacts. The shell is mostly made of nickel - plated brass or stainless steel, which offers both mechanical strength and corrosion resistance. The insulator is crafted from high - temperature - resistant engineering plastic, ensuring insulation performance and structural stability. The contacts adopt a pin - and - socket design. Through precision stamping and electroplating processes, they achieve low contact resistance and excellent electrical conductivity. Some products are equipped with snap - type or threaded locking structures, which enhance connection firmness and effectively safeguard against disconnection in vibrating environments.
The M9 circular connector is composed of three key components: the shell, the insulator, and the contacts. The shell is often made of nickel - plated brass or stainless steel, providing both mechanical strength and corrosion resistance. The insulator is made from high - temperature - resistant engineering plastic, ensuring insulation performance and structural stability. The contacts feature a pin - and - socket design. Through precision stamping and electroplating techniques, they achieve low contact resistance and excellent electrical conductivity. Some products are equipped with snap - on or threaded locking mechanisms, which enhance connection firmness and effectively prevent disconnection in vibrating environments.
The M9 circular connector is composed of three key components: the shell, the insulator, and the contacts. The shell is commonly made of nickel - plated brass or stainless steel, providing both mechanical strength and corrosion - resistant properties. The insulator is made of high - temperature - resistant engineering plastic, ensuring insulation performance and structural stability. The contacts feature a pin - and - socket design. Through precision stamping and electroplating techniques, they achieve low contact resistance and excellent electrical conductivity. Some products are equipped with snap - on or threaded locking structures, which enhance connection firmness and effectively prevent disconnection in vibrating environments.