E37X451HPN182MCB7M

Aluminum Electrolytic Capacitors have been around for many years and have proved to be a reliable and efficient component in many applications. The E37X451HPN182MCB7M aluminum electrolytic capacitor is one of the most widely used types of capacitor in the industry. The main purpose of this type of capacitor is to store electrical energy. It is made up of two electrodes, a positive one and a negative one, which are separated by an electrolyte solution. The electrolyte solution contains ions which can move from the positive to the negative electrode and generate an electric current. This allows it to store and release energy when needed.The E37X451HPN182MCB7M is a high-efficiency aluminum electrolytic capacitor with a high maximum DC voltage. Its dielectric is aluminum oxide and its polarity is negative. Its construction type is radial and its capacitance range is from 0.1µF to 1.25µF. It has a leakage current of 0.3µA and a tolerance of ±20%. The capacitance changes as the voltage across the plates of the capacitor changes.The E37X451HPN182MCB7M is used in many different applications. It can be used in signal conditioning, low-frequency filter networks, motor driver and power supply circuits. It is particularly advantageous in situations where space is limited, due to its small size. It is also suitable for high-voltage applications such as photovoltaic power supplies, high-voltage testing and measuring instruments. In addition to its high capacitance and voltage ratings, the E37X451HPN182MCB7M also has a long lifetime. This makes it ideal for applications that require long term stability and dependability. The E37X451HPN182MCB7M is a cost-effective solution for most applications.In conclusion, the E37X451HPN182MCB7M aluminum electrolytic capacitor is a reliable and efficient component that is widely used in many different applications. Its features of high maximum DC voltage, good capacitance range, small size, long lifetime and reasonable price make it an ideal choice for high-voltage applications and signal conditioning.