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SM1X10K00BA

SM1X10K00BA Description

The SM1X10K00BA from VPG Foil Resistors is a high-precision 10kΩ resistor network designed for demanding voltage divider applications. Part of the SM series, this 2-resistor network offers exceptional ±0.1% tolerance and an ultra-low ±5ppm/°C temperature coefficient (TCR), ensuring minimal drift across operating conditions. Its ±0.05% resistor matching ratio enhances accuracy in differential circuits, making it ideal for precision analog systems. The through-hole mounting and bulk packaging provide robust mechanical stability, while its compact 7.70mm x 2.60mm footprint suits space-constrained designs.

SM1X10K00BA Features

• High Precision: ±0.1% tolerance and ±5ppm/°C TCR for stable performance.
• Matched Resistors: ±0.05% ratio matching ensures balanced voltage division.
• Robust Construction: Through-hole design with a 0.327" (8.30mm) height for durability.
• Power Handling: 300mW per element for reliable operation in high-stress environments.
• Wide Applications: Optimized for TCR-matched voltage dividers, instrumentation, and feedback networks.
• Industry-Leading Quality: Manufactured by VPG Foil, known for ultra-stable foil resistor technology.

SM1X10K00BA Applications

This resistor network excels in precision analog circuits, including:

• Voltage references and DAC/ADC dividers requiring low drift.
• Medical instrumentation where long-term stability is critical.
• Test & measurement equipment demanding matched resistance ratios.
• Aerospace and defense systems with stringent thermal performance requirements.
  Its low TCR and tight matching make it superior to standard thin-film networks in temperature-sensitive designs.

Conclusion of SM1X10K00BA

The SM1X10K00BA sets a benchmark for precision resistor networks, combining VPG Foil’s expertise with unmatched TCR stability and ratio accuracy. Its through-hole reliability, compact size, and 300mW power rating make it a top choice for engineers designing high-accuracy voltage dividers and analog signal chains. For applications where thermal drift and matching tolerances are critical, this model outperforms conventional alternatives.