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The Bourns 4606H-701-101/101L is a six-pin Single Inline Package (SIP) RC terminator network designed for low noise termination in CMOS applications. It integrates five resistor-capacitor pairs within a compact form factor to reduce insertion time and save space. The device features a standard resistance of 100 ohms with ±5% tolerance and a capacitance of 100 pF (0.0001 µF). Rated for a maximum operating voltage of 50 volts, the capacitors utilize C0G dielectric characteristics with a temperature coefficient of 30 ppm/°C. The component supports through-hole mounting and complies with RoHS standards.
Verify the specific suffix configuration against the manufacturer's current datasheet to ensure compatibility with required pin counts and termination values. Confirm that the 50V rating and C0G capacitor characteristics align with the target application's electrical stress conditions. Check for RoHS compliance documentation if environmental regulations apply to the final assembly process.
Select this component when a multi-channel RC termination solution is required for CMOS systems. The 100-ohm resistance value suits standard impedance matching needs, while the integrated capacitor aids in high-frequency noise suppression. Consider the six-pin SIP footprint for through-hole PCB layouts where space efficiency and reduced assembly steps are prioritized over discrete component placement.
This part belongs to the Bourns 700 Series of RC Terminator Networks. The series offers various pin counts ranging from four to sixteen, allowing designers to scale channel density according to system requirements. These networks are distinct from standard resistor arrays by including integrated capacitive elements for active filtering and termination functions.
Direct substitutes must match the 100-ohm resistance, 100-pF capacitance, and six-pin SIP configuration. Verify that alternative components maintain the same 50V operating voltage limit and C0G dielectric stability to ensure equivalent performance in low-noise CMOS termination environments.