LNX2J102MSEGBB

The LNX2J102MSEGBB is a screw-terminal aluminum electrolytic capacitor in Nichicon’s LNX series, offering 1000 µF capacitance at a 630 V rating. It is a polarized, radial can style capacitor designed for high-voltage, high-ripple industrial applications.

Engineered for industrial power supplies and inverter circuitry, this part delivers high ripple-current capability and long-term reliability across an operating range of −25 °C to +85 °C, with flame-retardant electrolyte types available and RoHS compliance.

Key Features

• Capacitance & Tolerance — 1000 µF (1 mF) nominal with ±20% tolerance at 120 Hz, 20 °C.
• High Voltage Rating — Rated voltage: 630 V, suitable for extra-high-voltage industrial power applications.
• Screw Terminal Mounting — Radial can with screw terminals for robust, secure electrical and mechanical connections in heavy-current assemblies.
• High Ripple Current — Rated ripple current of 5.9 A at 120 Hz and 8.26 A at 100 kHz, supporting demanding AC ripple and switching environments.
• Operating Temperature — Specified range from −25 °C to +85 °C to cover typical industrial environments.
• Endurance & Lifetime — LNX series endurance characteristics include long-life operation under rated ripple conditions; this part lists a specified lifetime of 2000 hours at +85 °C.
• Leakage Current Specification — After 5 minutes at rated voltage, leakage current is limited to 3√(C·V) µA or 5 mA, whichever is smaller (per series datasheet formula).
• Compliance & Safety — RoHS compliant; flame-retardant electrolyte available for qualifying types in the series.
• Physical Size — Body dimensions: length 13.0 cm × diameter 6.35 cm; maximum seated height specified as 5.118 inches.

Typical Applications

• Industrial Power Supplies — Bulk energy storage and smoothing in high-voltage industrial power supply designs.
• Inverter Circuitry — DC-link and filtering for inverter stages where high ripple current and elevated voltage are required.
• High-Voltage Power Conversion — Capacitor banks and converters in extra-high-voltage industrial equipment leveraging the 630 V rating and screw-terminal robustness.

Unique Advantages

• Extra-High Voltage Capability: 630 V rating enables use in higher-voltage industrial power systems where standard electrolytics may not suffice.
• High Ripple Handling: Rated ripple currents at both low and high frequencies (5.9 A at 120 Hz, 8.26 A at 100 kHz) reduce thermal stress and support switching electronics.
• Secure Screw-Terminal Interface: Radial can with screw terminals provides reliable mechanical and electrical connections for heavy-current and vibration-prone installations.
• Series-Level Long-Life Design: The LNX series specifies long endurance (series reference up to 20,000 hours at +85 °C under rated ripple in series documentation), and this specific part is specified for 2000 hours at +85 °C, offering options for extended-life system designs.
• Regulatory and Safety Considerations: RoHS compliance and availability of flame-retardant electrolyte types help meet environmental and safety requirements in industrial projects.
• Clear Leakage Limits: Defined leakage current formula (3√CV µA or 5 mA after 5 minutes) supports predictable design margins for power assemblies.

Why Choose LNX2J102MSEGBB?

The LNX2J102MSEGBB combines a high 630 V rating, substantial capacitance, and robust screw-terminal construction to address demanding industrial power and inverter applications. Its high ripple-current specifications and defined endurance characteristics allow engineers to design reliable DC-link and bulk-storage stages with predictable thermal and lifetime behavior.

This part is well-suited for design teams and procurement professionals specifying components for high-voltage power conversion, inverter systems, and industrial power supplies that require secure mounting, clear performance specifications, and environmental compliance.

Request a quote or submit an inquiry for pricing, availability and lead-time details to evaluate the LNX2J102MSEGBB for your next high-voltage power design.