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MSP10A01470KGEJ

MSP10A01470KGEJ Description

The MSP10A01470KGEJ from Vishay Dale is a high-performance 9-resistor bussed network designed for precision applications. Housed in a 10-pin SIP (Single Inline Package), it features a compact footprint of 0.990" x 0.090" (25.15mm x 2.29mm) with a seated height of 4.95mm, making it suitable for space-constrained designs. Each resistor offers a 470kΩ resistance with a tight ±2% tolerance and a low ±100ppm/°C temperature coefficient, ensuring stable performance across varying environmental conditions. The bussed circuit configuration simplifies PCB layout by connecting resistors in a common node, reducing component count and assembly complexity.

MSP10A01470KGEJ Features

• High Precision: ±2% tolerance and ±100ppm/°C TCR for reliable signal conditioning.
• Robust Construction: Through-hole mounting ensures mechanical stability in harsh environments.
• Power Handling: 200mW power rating per element for moderate power applications.
• Low Drift: Resistor-ratio drift of ±50ppm/°C enhances long-term stability.
• Compliance: ROHS3 and EAR99 certified, with MSL1 (unlimited shelf life).
• Efficient Packaging: Supplied in tubes for automated assembly compatibility.

MSP10A01470KGEJ Applications

Ideal for analog signal processing, voltage division, and impedance matching in:

• Industrial Control Systems: PLCs, sensor interfaces.
• Test & Measurement Equipment: Precision dividers, calibration circuits.
• Consumer Electronics: Audio amplifiers, display drivers.
• Automotive Electronics: ECU signal conditioning (non-safety-critical).
  The bussed design is particularly advantageous in multi-channel systems where consistent resistance values are critical.

Conclusion of MSP10A01470KGEJ

The MSP10A01470KGEJ combines Vishay Dale’s reliability with a compact, high-precision design, offering superior performance in space-efficient, noise-sensitive applications. Its low drift, high tolerance, and robust packaging make it a standout choice for engineers seeking durability and accuracy in resistor networks.