Panasonic ERJ 0 mΩ, 0603 Thick Film Surface Mount Resistor ± 5 % 0.05 W - ERJ1GN0R00C

This SMD resistor is a precise component designed for use in various electronic applications. Featuring a resistance Value of 0 Ω, it is classified as a low power device with a power rating of 0.05 W. The device employs thick film technology and is packaged in a Compact 0201 format, making it suitable for space-constrained environments. This resistor is engineered to offer reliable performance across a wide temperature range of -55°C to +125°C, with a tolerable variance of ± 5%.

• Designed for automotive applications, ensuring AEC-Q200 compliance
• Operates effectively within a temperature coefficient of -100 to +600ppm/°C
• Compact size allows integration into small electronic devices
• Facilitates precise circuit design with ± 5% tolerance
• Ideal for low power applications, enhancing circuit efficiency
• Utilises thick film technology for improved durability

• Utilised in automotive electronic control units
• Implemented in Advanced telecommunications equipment
• Ideal for consumer electronics with space constraints
• Suitable for sensor technologies in automation systems
• Used in Compact medical devices for accurate data transmission

The temperature coefficient determines the resistor's stability across varying temperatures. With a range of -100 to +600ppm/°C, it maintains consistent performance, ensuring reliable operation in extreme conditions.

This SMD resistor meets AEC-Q200 standards, which guarantees high reliability and performance in automotive environments, making it suitable for critical applications where safety and durability are paramount.

Yes, its small package size of 0201 enables seamless integration into printed circuit board designs, accommodating the trend towards miniaturisation in modern electronics.

The 0 Ω resistance Value allows for seamless connections and can be used for jumpers in circuit designs, facilitating design flexibility without adding resistance to the circuit.

A tolerance of ± 5% provides a reliable measurement margin, allowing for precise control in circuitry design while reducing the risk of failures due to component variability.