Surface mount thick-film non-inductive high-voltage resistors are manufactured using a high-purity ceramic substrate and precious metal thick-film technology, exhibiting excellent withstand voltage and long-term electrical stability.
The products are encapsulated in silicone or glass, allowing reliable operation in various environments including air, high-pressure oil, and epoxy resin.
The non-inductive design provides excellent pulse tolerance and stability, making them particularly suitable for high-voltage power supplies and high-energy pulse circuits.
Tin-plated copper leads offer good conductivity and solderability, making them suitable for applications requiring high precision and reliability.

| Item | Parameter Description |
|---|---|
| Product Name | Chip Thick Film Non-Inductive High Voltage Resistor |
| Power Range | 0.25W ~ 12W |
| Structure Type | Non-Inductive Design |
| Package Type | Silicone Encapsulation / Glass Dielectric Encapsulation |
| Substrate Material | High-quality alumina ceramic (Al₂O₃) with ≥95% content |
| Resistor Film Material | Thick film material of precious metals such as silver, ruthenium, and palladium |
| Sintering Temperature | High-temperature sintering at approximately 850℃ |
| Lead Material | Tinned Copper Lead |
| Moisture Resistance | Excellent moisture and corrosion resistance |
Excellent High Voltage Withstand Performance: Stable long-term operation in high-voltage and pulse impact environments.
Non-inductive Structure Design: Effectively suppresses parasitic inductance, ensuring stable signal transmission.
High Thermal Conductivity and High Reliability: The alumina ceramic substrate provides excellent heat dissipation, extending resistor lifespan.
Precision Resistive Film Technology: Precious metal thick-film sintering technology ensures stable resistance and low temperature drift.
High Packaging Flexibility: Silicone and glass packaging are suitable for various electrical and mechanical environments.

This series of thick-film non-inductive high-voltage resistors is widely used in: