M39003/01-7255

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Tantalum capacitors are widely used in the electronics industry since its invention in 1873. They are used to store electrical charge, which can then be used to supply quick bursts of power. The M39003/01-7255 is one of the many types of tantalum capacitors available.

The M39003/01-7255 belongs to the non-polarized electrolytic capacitor type. It is a bipolar structure with a metal-oxide layer chemically formed over the anode electrode, the metal layer being commonly composed of tantalum or niobium. Owing to the high dielectric strength of the metal-oxide layer, the device has a relatively high capacitance-to-volume ratio.

The M39003/01-7255 is a relatively large capacitor with dimensions typically of 9.7 mm in length, 5.6 mm in diameter and with a height of 2.3 mm. It has an operating temperature of up to 125°C, so is suitable for use in most types of environment. It also has good stability over wide temperature and voltage variations.

The M39003/01-7255 is commonly used in applications such as cache memory decoupling, high frequency amplification and inter-stage coupling. Its dielectric is well suited to this due to its low capacitance compared to other materials. It also has the advantage of a higher breakdown voltage than some other materials, such as aluminum electrolytic capacitors.

The working principle of the M39003/01-7255 is based on the dielectric of the metal-oxide layer. When a voltage is applied to the capacitor\'s electrodes, a potential is created across the dielectric layer. This allows electrical energy to be stored between the two electrodes in the form of a charge, which can then be released quickly when required.

The M39003/01-7255 is a reliable and efficient form of capacitor that is used in many electronic devices. Its relatively large size and high breakdown voltage makes it well-suited to numerous applications, such as cache memory decoupling, high frequency amplification and inter-stage coupling. Its working principle is based on the dielectric layer allowing electrical energy to be stored between the two electrodes, which can then be released quickly as required.

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