LXS-15000uF-63V

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LXS series snap-in aluminum electrolytic capacitor with 15000uF capacitance and 63V rating for high-power applications.

Product Overview

Description

The LXS-15000uF-63V is a high-performance snap-in aluminum electrolytic capacitor from Chemi-Con's LXS series, designed for demanding high-power applications.

With 15000uF capacitance and 63V rating, this capacitor provides excellent energy storage and filtering capability for industrial power supplies, inverters, and motor drives.

Features include high ripple current capability (8.5A at 105°C), long lifetime (5000 hours at 105°C), and low ESR. The snap-in terminals ensure secure mounting and reliable electrical connections.

Product Series

LXS

Primary Application

Industrial power supplies

Key Features

  • High capacitance 15000uF
  • High ripple current 8.5A
  • Long lifetime 5000 hours
  • Low ESR 0.015 Ohm
  • Snap-in mounting
  • RoHS compliant

Specifications

Capacitance 15000uF ±20%
Voltage Rating 63V DC
Ripple Current 8.5A @ 105°C, 120Hz
Temperature Range -40°C to +105°C
Lifetime 5000 hours @ 105°C
ESR 0.015 Ohm @ 100Hz
Package Snap-in 35mm diameter

Applications

Industrial power supplies

Industrial automation and control

Motor drives

Motor drive and control systems

Inverters

Electronic system design

Welding equipment

Electronic system design

Renewable energy systems

Renewable energy systems

Documents & Resources

FAE Expert Insights

M

"The LXS-15000uF-63V is an excellent choice for high-power DC bus applications. The 15000uF capacitance provides substantial energy storage, while the 8.5A ripple current rating handles demanding load conditions. In my experience with industrial drive applications, the LXS series consistently delivers reliable performance. The snap-in terminals provide secure mounting that withstands vibration in industrial environments. I recommend this capacitor for any high-power application requiring reliable filtering and energy storage."

Excellent for high-power DC bus applications

— Michael Chen, BeiLuo

Frequently Asked Questions

What is the maximum ripple current for LXS-15000uF-63V?

The maximum ripple current is 8.5A at 105°C, 120Hz. At lower temperatures, higher ripple current is allowed. For example, at 85°C, the ripple current can be increased to approximately 10.6A using the temperature derating factor. Always verify temperature rise under actual operating conditions.

Use 8.5A as baseline, apply temperature derating for lower temperatures.

ripple current temperature derating maximum current
What mounting orientation is recommended?

Vertical mounting with terminals down is recommended for optimal heat dissipation. If horizontal mounting is required, ensure adequate clearance for air circulation. Use the provided mounting clamp for secure installation. Maintain minimum 10mm clearance from other heat-generating components.

Mount vertically with terminals down for best thermal performance.

mounting orientation installation
How do I calculate expected lifetime?

Use the Arrhenius equation: Lx = Lr × 2^((Tr-Tx)/10). For LXS-15000uF-63V: Lr = 5000 hours at Tr = 105°C. If operating at Tx = 85°C: Lx = 5000 × 2^((105-85)/10) = 5000 × 2^2 = 20,000 hours. Include voltage derating for additional lifetime extension.

Calculate using Arrhenius equation with your operating temperature.

lifetime calculation Arrhenius
What is the ESR at different frequencies?

ESR varies with frequency: At 100Hz: 0.015 Ohm (typical), At 1kHz: 0.012 Ohm, At 10kHz: 0.010 Ohm, At 100kHz: 0.009 Ohm. The ESR decreases with increasing frequency due to dielectric properties. Use frequency-corrected ESR for ripple current and self-heating calculations.

Use ESR value at your operating frequency for accurate calculations.

ESR frequency impedance
Can this capacitor be used in parallel?

Yes, LXS capacitors can be paralleled to increase capacitance and ripple current capability. When paralleling: Use identical part numbers, ensure equal current sharing with symmetrical layout, consider 10-20% ripple current derating for current imbalance, and monitor temperature of all capacitors. Parallel configuration is common for very high current applications.

Parallel identical capacitors with symmetrical layout for high current.

parallel current sharing high current