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The CI35P-30E240-P-23X is a high-power ceramic capacitor manufactured by Challenge Electronics. It features a capacitance of 35 picofarads with a tolerance of ±0.1 picofarad, rated for a maximum DC voltage of 30 kilovolts and an RMS current handling capability of 240 amperes. The component utilizes a robust PTFE dielectric to ensure stability under extreme electrical stress. Designed for demanding RF environments, it offers low equivalent series resistance and high Q-factor characteristics essential for efficient power transmission in industrial heating systems.
Verify the specific suffix codes against official manufacturer documentation to confirm exact tolerance and termination specifications. Ensure that the operating environment remains within the specified temperature range to maintain dielectric performance. Confirm compliance with relevant safety standards required for high-voltage industrial applications before integration into final assemblies.
Select this component when designing circuits requiring precise capacitance values under extreme voltage conditions. Evaluate the physical footprint constraints as high-voltage ceramic capacitors often require specific spacing for insulation clearance. Consider the thermal management requirements associated with high RMS current operation to prevent overheating during continuous duty cycles.
Challenge Electronics specializes in high-reliability passive components for harsh environments. This model belongs to their high-power ceramic capacitor portfolio, designed specifically for industrial and RF applications where standard capacitors would fail due to voltage breakdown or thermal stress. The product line emphasizes longevity and consistent performance in critical infrastructure.
Consult official cross-reference guides for compatible alternatives from other manufacturers offering similar high-voltage ceramic specifications. Verify that any substitute matches the exact capacitance, voltage rating, and physical dimensions to ensure proper fit and function in existing high-power circuits.