Explore our X665 series film capacitor, offering a capacitance of 1µF with a ±10% tolerance and a voltage rating of 400VDC; it is constructed with non-inductive wound metallized polyester film for high performance and longevity, boasting a lifecycle of 30,000 hrs.  

The X665 Series Film Capacitor is a high-temperature-rated, non-inductive polyester film capacitor, engineered to provide exceptional reliability, low-cost efficiency, and compact performance. Ideal for general-purpose electronics, signal processing, power supplies, noise suppression, and audio applications, it delivers stable capacitance and superior electrical performance. The self-healing property extends the lifespan, making it a cost-effective solution for various applications, including coupling, decoupling, filtering, bypassing, timing, and oscillation circuits.  

Key Features:

• High-Temperature Rated – Ensures consistent and reliable performance in extreme conditions.
• Non-Inductive Polyester Film Design – Reduces losses and enhances efficiency.
• Compact & Lightweight Build – Optimized for space-sensitive applications.
• Low Cost & High Reliability – Offers superior performance at an affordable price.
• Self-Healing Property – Prevents failures and extends operational longevity.  

Applications:

• General-Purpose Electronics – Suitable for various consumer and industrial devices.
• Signal Processing Circuits – Ensures precision and stability.
• Power Supplies & Noise Suppression – Improves system performance and interference reduction.
• Audio Equipment & Motor Control – Enhances sound quality and system stability.
• Stable Capacitance Circuits – Ideal for applications requiring long-term capacitance stability.
• Coupling, Decoupling, Filtering & Bypassing – Provides effective signal transmission and noise filtering.  

The X665 Series Film Capacitor is an excellent choice for engineers and designers seeking a durable, cost-effective, and high-performance capacitor for signal processing, power supplies, audio applications, and noise suppression.