GC6002-17

RF Diode Overview

The GC6002-17 is a hermetic microstrip Zener diode manufactured by Microchip Technology. It is designed for applications requiring low noise performance and high reliability in harsh environments. The component utilizes silicon technology and is housed in a hermetic package to protect against environmental factors. It serves as a voltage reference or regulation element in specialized circuits where standard plastic-packaged devices are unsuitable due to radiation, temperature, or moisture sensitivity requirements.

RF Diode Feature Summary

• Hermetic sealing for enhanced environmental protection
• Low noise silicon construction
• Microstrip form factor for specific mounting needs

RF Diode Applications

• Military aerospace systems
• Radiation-hardened electronics
• High-reliability industrial instrumentation

RF Diode Procurement Notes

Verify the specific revision level and lot traceability before procurement. Hermetic components often require special handling and storage conditions to maintain seal integrity. Confirm that the ordering suffix matches the exact pinout and electrical specifications required for the design. Contact the manufacturer directly for current availability as these are often made-to-order items with long lead times.

RF Diode Selection Notes

Select this component only when hermeticity and low noise are critical design constraints. Compare thermal resistance and power dissipation capabilities against system requirements. Ensure the PCB layout supports the microstrip package geometry. Verify that the operating voltage range aligns with the Zener breakdown voltage specified in the official datasheet.

RF Diode Part Context

This part belongs to Microchip's specialized hermetic diode portfolio, distinct from their commercial plastic-packaged offerings. It is typically used in conjunction with other radiation-tolerant or military-grade components. The GC6002 series is engineered for long-term stability in extreme conditions where standard semiconductor packages would fail.