T521Q336M016ATE040 Capacitors

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Tantalum–polymer capacitors are an advancing technology that are often used to store energy in many applications, ranging from consumer electronic devices to the aerospace industry. The T521Q336M016ATE040 is a Tantalum – polymer capacitor designed to store energy with a capacitance of 33uF and a voltage rating of 16V. This capacitor has a variety of uses in a variety of applications.

Application Field

Tantalum–polymer capacitors offer a range of features that make them beneficial for all sorts of applications. In consumer electronics, for instance, the T521Q336M016ATE040 allows for reliable, low-profile energy storage and modulation operations. The capacitor is suitable for use in popular mobile phones, tablets, computers, televisions, and other products. The robust energy storage also makes this capacitor ideal for medical devices and industrial automation.

The T521Q336M016ATE040 capacitor is also highly suitable for aerospace applications. Its low profile and robust energy storage properties make it useful for moderate-voltage, high-current applications such as voltage converters and line regulators in aircraft. The capacitor is a suitable choice for applications that require a large capacitance with tolerable losses at the desired operating temperature.

Working Principle

Tantalum–polymer capacitors are made of a composite material consisting of a crystalline tantalum anode, a polymeric electrolyte, and metal-oxide particles. The tantalum anode provides a consistent energy storage on the capacitor and causes multiple current paths for efficient energy transmission. The polymeric electrolyte acts as the dielectric material and provides a reliable source of charge storage due to its high permittivity.

The metal-oxide particles act as contact points for the charge conductors, enabling efficient energy transfer from the anode to the polymeric electrolyte. In addition, the metal-oxide particles act as a barrier between the anode and the polymeric electrolyte, helping to limit the amount of current that can flow through the capacitor, while also helping to provide a stable temperature range. This helps to reduce potential temperature-related issues in the capacitor.

When voltage is applied to the capacitor, the charge stored in the anode is transferred to the polymeric electrolyte through the metal-oxide particles. The charge then moves to the opposite conductor (known as the cathode), completing the capacitor\'s electrical circuit.

Once the capacitor is charged, the stored energy is released when the voltage is removed and current begins to flow from the anode to the cathode, through the metal-oxide particles. This helps to maintain a stable energy cycle and consistent charge on the capacitor. As the current continues to flow, the metal-oxide particles act as a barrier to restrict the amount of current that passes through the capacitor, thus limiting the amount of energy released at any given time.

Conclusion

Tantalum–polymer capacitors, such as the T521Q336M016ATE040, are widely used for storing energy in a variety of applications. This kind of capacitor is highly suitable for consumer electronic applications, medical devices, and aerospace applications due to its low-profile, robust energy storage and charge retention characteristics. The capacitor works by utilising a tantalum anode, a polymeric electrolyte, and metal-oxide particles to store and release charge in a controlled manner.

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