4.7uF 63V Radial Electrolytic Capacitor – NTE VHT4.7M63

Reliable 4.7uF 63V Electrolytic Capacitor for Everyday Electronics

Our 4.7uF 63V radial electrolytic capacitor is a versatile choice for a wide range of electronic applications. Perfect for everyday consumers, DIY hobbyists, and repair technicians, this component offers an easy solution for decoupling, coupling, signal smoothing, and small power supply filtering in your circuits.

Key Features and Benefits

• Capacitance: 4.7 microfarads (uF)
• Voltage Rating: 63 volts (VDC)
• Type: Radial lead electrolytic capacitor
• Temperature Range: Up to 105C for reliable operation even in demanding environments
• Bulk Packaged for convenience and cost-effectiveness

Ideal for Coupling, Decoupling & Signal Processing

The 4.7uF 63V capacitor is commonly used for coupling and decoupling in audio and digital electronic circuits. It helps block DC while allowing AC signals to pass, making it a go-to for audio signal paths, input/output isolation, and noise filtering in logic and microcontroller-based devices.

Applications

• Audio electronics and DIY audio projects
• Signal coupling and decoupling in analog/digital circuits
• Small power supply filtering
• General replacement or repair in a variety of consumer electronics
• DIY microcontroller, Arduino, Raspberry Pi, and breadboarding circuits

Why Choose Vetco for 4.7uF 63V Electrolytic Capacitors?

stocks a full range of electrolytic capacitors in values from 0.1F to 56,000F and voltage ratings from 6.3V to 450V. This 4.7 microfarad, 63 volt radial electrolytic capacitor stands out for its reliability, compact size, and suitability for both modern electronics and vintage gear repairs. All our capacitors feature a high temperature rating of 105C for extra peace of mind in demanding applications.

Looking for Other Capacitance or Voltage Ratings?

Browse Vetcos full electrolytic capacitor collection to find the right capacitance and voltage for your project needs. We offer everything from low-F values for precision applications to high-F models for bulk filtering and energy storage.