CDS10CD070CO3

Series:	CDS10
Packaging:	Bulk
Lead Free Status / RoHS Status:	--
Part Status:	Active
Moisture Sensitivity Level (MSL):	--
Capacitance:	7pF
Tolerance:	±1pF
Voltage - Rated:	500V
Dielectric Material:	Mica
Operating Temperature:	-55°C ~ 125°C
Mounting Type:	Through Hole
Package / Case:	Radial
Lead Spacing:	0.142" (3.60mm)
Features:	General Purpose
Size / Dimension:	0.311" L x 0.118" W (7.90mm x 3.00mm)
Height - Seated (Max):	0.260" (6.60mm)

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Mica and PTFE Capacitors Mica and PTFE capacitors are specialized components engineered for use in electrical applications. While similar in appearance and designed to work together, mica and PTFE capacitors function differently and provide different functions and features depending upon the application. The CDS10CD070CO3 is a mica/PTFE capacitor that is characterized by a high-dielectric constant and low equivalent series resistance. This product is suited for use in automated test equipment, active filters, pulse shapers, and pulse-width modulated applications. In order to understand the working principle of the CDS10CD070CO3, it is helpful to have a working knowledge of the properties of mica and PTFE capacitors and the principles of how capacitors store and release energy. Mica capacitors use a dielectric of mica sheets located between positive and negative metallic layers. These layers are designed to permit an electron current to pass through them, where it is then stored energy as a result of electrostatic forces.PTFE (or polytetrafluoroethylene) capacitors also use a dielectric sandwiched between metal surfaces. Unlike mica capacitors, PTFE capacitors use a polymer dielectric that is resistant to impurities, temperature, and humidity changes. This results in improved stability and repeatability over a wide temperature range. Additionally, due to the flexibility in designing this type of capacitor, it is well-suited for use in applications where high-frequency performance is desired. The CDS10CD070CO3 mica/PTFE capacitor combines the properties of both mica and PTFE capacitors. Its mica dielectric provides the highest possible source impedance while its PTFE dielectric allows the capacitor to handle higher frequencies, up to 10GHz. Thus, it is an ideal choice for high-performance applications that require repeatable stability, high source impedance, and high-frequency performance. The CDS10CD070CO3 mica/PTFE capacitor is used in automated test equipment, active filters, pulse shapers, and pulse-width modulated applications. Automated test equipment uses mica/PTFE capacitors to isolate and measure electrical signals in circuits. Because of their high source impedance, mica/PTFE capacitors are used in active filters to filter out high-frequency signals. In addition, these capacitors are used to form pulse shapers, which are used to create smooth, symmetrical pulses, and are used in pulse-width modulation circuits to modulate signals that are sent over a wire or transmitted between multiple systems. The working principle of the CDS10CD070CO3 mica/PTFE capacitor is based on the principles of capacitors and how they store and release energy. When a current is applied to the capacitor, it stores the electrical energy in electrostatic force, which works like a battery. The capacitor can then release the energy at a later time, or can be used to power an electronic circuit. The amount of energy that can be stored is determined by the capacitance, with higher capacitance allowing for more energy to be stored. Additionally, the dielectric material of the capacitor will determine its source impedance, which helps to control the rate of current, and its frequency response, which affects its performance in high-frequency applications. The CDS10CD070CO3 mica/PTFE capacitor is a specialized component designed for specialized applications. Its combination of mica and PTFE dielectrics allows it to provide a high source impedance and excellent frequency response, making it an ideal choice for use in automated test equipment, active filters, pulse shaper, and pulse-width modulated applications. By understanding its working principle, engineers can select the most suitable capacitor to meet their application requirements.

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