| Material |
Plunger/barrel: Brass Spring: Stainless steel |
|---|---|
| Electroplating |
Plunger: 3 micro-inch minimum Au over 50-120 micro-inch nickel Barrel: 1 micro-inch minimum Au over 50-120 micro-inch nickel Spring: 1 micro-inch minimum Au over 50-120 micro-inch nickel |
| Electrical Specification |
Contact electrical resistor: 50 mOhm Max. Rated voltage: 12V DC Max Rated current: 4.0A |
| Mechanical Performance |
Life: 10,000 cycle min. |
Intelligent Wearable Devices: Smart watches, smart wristbands, locator devices, Bluetooth headphones, smart shoes, smart glasses, smart backpacks, etc.
Smart Home: Smart appliances, air purifiers, automatic controllers, etc.
Medical & Industrial Equipment: Medical equipment, wireless charging equipment, data communication equipment, telecommunications equipment, automation and industrial equipment, etc.
3C Consumer Electronics: Laptops, tablets, PDAs, handheld data terminals, etc.
Aerospace & Automotive: Aviation, aerospace, military communication, military electronics, automobiles, vehicle navigation, testing fixtures, testing equipment, etc.
The plunger and barrel are made of high-quality Brass, while the spring is made of durable Stainless steel, ensuring optimal conduction and physical resilience.
The plunger features a minimum of 3 micro-inch Au over 50-120 micro-inch nickel. Both the barrel and the spring feature a minimum of 1 micro-inch Au over 50-120 micro-inch nickel plating to prevent oxidation and ensure reliable connectivity.
The rated current is 4.0A, and the rated voltage is 12V DC Max, making them highly suitable for both low-power signals and fast-charging applications.
The connectors are rated for a mechanical life of at least 10,000 mating cycles under standard operating conditions.
Yes, they are highly compatible with wearable devices like smart watches and wristbands, as well as high-precision medical equipment and wireless charging platforms.
The maximum contact electrical resistance is rated at 50 mOhm, ensuring efficient electrical transmission with minimal loss.