Vishay / Dale Tariff Inquiry

MDP16013K30GE04

MDP16013K30GE04 Description

The MDP16013K30GE04 from Vishay Dale is a high-performance 15-resistor bussed network in a compact 16-pin DIP package. Designed for precision applications, it features a 3.3kΩ resistance per element with a tight ±2% tolerance and a low ±100ppm/°C temperature coefficient, ensuring stable performance across varying environmental conditions. The device operates at 125mW power per element and is housed in a 0.850" x 0.250" (21.59mm x 6.35mm) through-hole package, making it suitable for robust PCB designs. Its ROHS3 compliance and EAR99/ECCN classification ensure global usability, while the MSL 1 (Unlimited) rating guarantees reliability in storage and handling.

MDP16013K30GE04 Features

• 15-resistor bussed array for simplified circuit design.
• 3.3kΩ resistance with ±2% tolerance for precision applications.
• Low ±100ppm/°C TCR for minimal resistance drift.
• 125mW power rating per element for reliable operation.
• 16-pin DIP package with 0.155" (3.94mm) height for space-efficient mounting.
• Through-hole construction for durable PCB integration.
• ROHS3 compliant and EAR99 certified for global compliance.
• Tube packaging for secure shipping and handling.

MDP16013K30GE04 Applications

This resistor network is ideal for:

• Voltage division and current limiting in analog circuits.
• Pull-up/pull-down resistor networks in digital systems.
• Signal conditioning in industrial control systems.
• Precision instrumentation requiring stable resistance values.
• Automotive electronics where reliability and temperature stability are critical.

Conclusion of MDP16013K30GE04

The MDP16013K30GE04 stands out for its precision, durability, and compact design, making it a top choice for engineers requiring reliable resistor networks. Its low TCR, tight tolerance, and robust construction make it suitable for demanding applications in industrial, automotive, and consumer electronics. With Vishay Dale's proven quality, this component ensures long-term performance in critical circuits.