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Capacitor

In this author s view, capacitors signify the one singular commercial success of CP technology. The specialty polymer aluminum capacitor or SP cap , marketed by Matsushita Electrical Industrial Co. of Japan (holders of the Panasonic trademark) has been said to have been incorporated by Matsushita into such everyday items as video cameras and has since its first commercialization in 1990-91 said to have been sold in the millions. Since fixed (as against variable) capacitors constitute by far the vast majority (over 90%) of worldwide sales of capacitors, and since among these aluminum (as against ceramic, tantalum and film) capacitors constitute 30% - 45% of sales, aluminum capacitors represent a very major market indeed. And in the view of Matsushita Electrical Industrial Co. of Japan, their P(Py) based SP cap capacitor is vastly superior to available alternative aluminum capacitor technology. [Pg.612]

P(Py) based electrolyte. After Reference [996], reproduced with permission. [Pg.613]

Comparison of impedance-frequency characteristics for various types of capacitors tested by the Matsushita Electrical Industrial Co. of Japan group. [Pg.614]

SP Specialty polymer capacitor (13 V 4.7 uF), P(Py) based Ah Aluminum electrolytic capacitor (25 V 4.7 uF), P(Py) based Ta Tantalum solid electrolytic capacitor (10 V 4.7 uF) [Pg.614]

Temperature characteristics of Matsushita SP P(Py) based capacitor, compared with others as listed in legend of Fig. 23-19. After Reference [996], reproduced with permission. [Pg.614]

Polyester film may or may not be metallised. Metallised polyester designs, which are suitable for both high and low impedance circuits, tend to be the smallest and most economical of the metallised polymer types. This design family combines the reliability of self-healing action with high dielectric strength and insulation resistance of polyester film. Designs are available which comply with thermal shock, vibration and moisture resistance specifications. [Pg.29]

Mylar polyester film is a product of the 50%/50% DuPont Teijin Films joint venture, dating from 1999, between DuPont and Teijin Limited. DuPont Teijin claims to be the world s leading supplier of PET and PEN polyester films and also supplies Melinex polyester film. Toray s joint venture in China is designed to produce PETP film for ultrathin capacitors. [Pg.29]

Applications are primarily for use in DC circuits such as blocking, coupling, decoupling, bypass and DC line filtering where the radio frequency (RE) and audio components are small in comparison with the DC rating. They have also been used successfully in such AC power applications as power factor correction and AC line filtering. They may be operated at all temperatures from -40 °C to +85 °C with derating to 50% at 125 °C. They are intended for use in sealed encapsulated assemblies. [Pg.29]

Panasonic offers both polyester and metallised polyester film capacitors. The non-inductive, high stability, epoxy coated polyester types are also claimed to offer high volumetric efficiency and low losses. Additionally the metallised polyester film types are claimed to be self-healing. Their structure is composed of a number of discrete units to confine and isolate any dielectric breakdown. Panasonic also supplies miniaturised versions whose height and length dimensions are less than 8 mm with a corresponding thickness less than 5 mm. [Pg.29]

Panasonic has responded to the demand for capacitors with higher operating temperatnres by introducing a range of surface mounted electrolytic types. The polymer aluminium capacitors are rated between 2 V and 8 V and extend from 33 pF to 560 pF whereas the aluminium electrolytic types have a range of 1 pF to 1500 pF in the voltage band 6.3 to 35 V. [Pg.30]

The capacitance C is defined as the charge stored divided by the voltage applied, or C = Q/V. The unit of capacitance is the farad (from Michael Faraday) which, by definition, is 1 Coulomb/V. The stored charge is equal to the product of the area A, the electric field, and the dielectric constant of the material between the plates, or Q = sEA. From this relationship, we see that the permittivity s must have the units of Coulombs/Volt-m or Coulombs /Nt-m. Since the electric displacement D = sE, we see that D is the charge displaced per area, or the surface charge on the capacitor. The electric field is the potential V divided by the distance d between the plates or E = V/d. Therefore, C = sAId. [Pg.439]

Now if there were nothing in the space between the two capacitor plates, the permittivity s would just be the permittivity of free space o- But if we place a dielectric material [Pg.439]

If a capacitor is discharged into a resistive load, the time to discharge 1 je of the charge is the product of the resistance and capacitance RC. This RC time constant can be set by choice of resistance and capacitance and is used in many timing circuits. [Pg.440]


M.p. 296 C. Accepts an electron from suitable donors forming a radical anion. Used for colorimetric determination of free radical precursors, replacement of Mn02 in aluminium solid electrolytic capacitors, construction of heat-sensitive resistors and ion-specific electrodes and for inducing radical polymerizations. The charge transfer complexes it forms with certain donors behave electrically like metals with anisotropic conductivity. Like tetracyanoethylene it belongs to a class of compounds called rr-acids. tetracyclines An important group of antibiotics isolated from Streptomyces spp., having structures based on a naphthacene skeleton. Tetracycline, the parent compound, has the structure ... [Pg.389]

The EU contains capacitor battery (CB), current source (CS), accumulator (Ac), controlled by CS, impulse former (IF),power supply (PS), two comparators (Cpl,Cp2),... [Pg.649]

Evidence for two-dimensional condensation at the water-Hg interface is reviewed by de Levie [135]. Adsorption may also be studied via differential capacity data where the interface is modeled as parallel capacitors, one for the Hg-solvent interface and another for the Hg-adsorbate interface [136, 137]. [Pg.202]

An electron prisin , known as an analyser or monochromator, is created by tlie field between the plates of a capacitor. The plates may be planar, simple curved, spherical, or toroidal as shown in Figure Bl.6.2. The trajectory of an electron entering the gap between the plates is curved as the electron is attracted to the positively biased (iimer) plate and... [Pg.1310]

Figure Bl.6.2 Electron analysers consisting of a pair of capacitor plates of various configurations (a) the parallel-plate analyser, (b) the 127° cylindrical analyser and (c) the 180° spherical analyser. Trajectories for electrons of different energies are shown. Figure Bl.6.2 Electron analysers consisting of a pair of capacitor plates of various configurations (a) the parallel-plate analyser, (b) the 127° cylindrical analyser and (c) the 180° spherical analyser. Trajectories for electrons of different energies are shown.
Wlien an electrical coimection is made between two metal surfaces, a contact potential difference arises from the transfer of electrons from the metal of lower work function to the second metal until their Femii levels line up. The difference in contact potential between the two metals is just equal to the difference in their respective work fiinctions. In the absence of an applied emf, there is electric field between two parallel metal plates arranged as a capacitor. If a potential is applied, the field can be eliminated and at this point tire potential equals the contact potential difference of tlie two metal plates. If one plate of known work fiinction is used as a reference electrode, the work function of the second plate can be detennined by measuring tliis applied potential between the plates [ ]. One can detemiine the zero-electric-field condition between the two parallel plates by measuring directly the tendency for charge to flow through the external circuit. This is called the static capacitor method [59]. [Pg.1894]

Historically, the first and most important capacitance method is the vibrating capacitor approach implemented by Lord Kelvin in 1897. In this technique (now called the Kelvin probe), the reference plate moves relative to the sample surface at some constant frequency and tlie capacitance changes as tlie interelectrode separation changes. An AC current thus flows in the external circuit. Upon reduction of the electric field to zero, the AC current is also reduced to zero. Originally, Kelvin detected the zero point manually using his quadrant electrometer. Nowadays, there are many elegant and sensitive versions of this technique. A piezoceramic foil can be used to vibrate the reference plate. To minimize noise and maximize sensitivity, a phase-locked... [Pg.1894]

Delchar T. Eberhagen A and Tompkins F C 1963 A static capacitor method for the measurement of the surface potential of gases on evaporated metal films J. Sci. Instrum. 40 105-7... [Pg.1898]

Two difierent components contribute to impedance the resistive or real component due to resistors and the reactive or imaginary component from AC circuitry elements, such as capacitors, inductors, etc. Unlike the resistive component, the reactive impedance affects not only the magnitude of the AC wave but also its time-... [Pg.1943]

In another type of measurement, the parallel between mechanical and electrical networks can be exploited by using variable capacitors and resistors to balance the impedance of the transducer circuit. These electrical measurements readily lend themselves to computer interfacing for data acquisition and analysis. [Pg.179]

For this purpose we compare a parallel plate capacitor under vacuum and one containing a dielectric, as shown in Figs. 10.4a and b, respectively. The plates of the capacitor carry equal but opposite charges Q which can be described as aA, where o is the surface charge density and A is the area of the plates. In this case, the field between the plates is given by... [Pg.666]

Figure 10.4 Parallel-plate capacitor with surface charge density a. (a) The field is Eo with no dielectric present, (b) The field is reduced to E by a dielectric which acquires a surface charge of its own,... Figure 10.4 Parallel-plate capacitor with surface charge density a. (a) The field is Eo with no dielectric present, (b) The field is reduced to E by a dielectric which acquires a surface charge of its own,...
Since e > eo, we seek to explain the smaller field in the presence of the dielectric in terms of molecular properties and the way in which they are affected by the electric field. An easy way to visualize the effect is to picture an opposing surface charge-indicated as in Fig. 10.4b—accumulating on the dielectric. This partially offsets the charge on the capacitor plates to a net charge density a - so that Eq becomes E and is given by... [Pg.667]

Solid-state welding Solid tantalum capacitors Solid waste disposal Soliton... [Pg.914]

Capacitors. The outstandingly low dielectric loss of parylenes make them superior candidates for dielectrics in high quality capacitors. Furthermore, their dielectric constant and loss remain constant over a wide temperature range. In addition, they can be easily formed as thin, pinhole-free films. Kemet Flatkaps are fabricated by coating thin aluminum foil with Parylene N on both sides and winding the coated foils in pairs (62). [Pg.442]

Fig. 3. An overview of atomistic mechanisms involved in electroceramic components and the corresponding uses (a) ferroelectric domains capacitors and piezoelectrics, PTC thermistors (b) electronic conduction NTC thermistor (c) insulators and substrates (d) surface conduction humidity sensors (e) ferrimagnetic domains ferrite hard and soft magnets, magnetic tape (f) metal—semiconductor transition critical temperature NTC thermistor (g) ionic conduction gas sensors and batteries and (h) grain boundary phenomena varistors, boundary layer capacitors, PTC thermistors. Fig. 3. An overview of atomistic mechanisms involved in electroceramic components and the corresponding uses (a) ferroelectric domains capacitors and piezoelectrics, PTC thermistors (b) electronic conduction NTC thermistor (c) insulators and substrates (d) surface conduction humidity sensors (e) ferrimagnetic domains ferrite hard and soft magnets, magnetic tape (f) metal—semiconductor transition critical temperature NTC thermistor (g) ionic conduction gas sensors and batteries and (h) grain boundary phenomena varistors, boundary layer capacitors, PTC thermistors.

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AC Impedance of a Capacitor-Inductor Circuit

AC Impedance of a Resistor-Capacitor Circuit

AC Impedance of a Resistor-Capacitor-Inductor Circuit

Aerogel based capacitors

Aging of aluminum capacitor

Aging of tantalum capacitors

Aluminum electrolytic capacitor

Aluminum electrolytic capacitor non-polar

Aluminum electrolytic capacitor of 3842 controller

Angular Capacitor

Applications electrolytic capacitor manufacturing

Asymmetric capacitors

Asymmetric hybrid capacitor

Attractive Electrochemical Capacitors in Aqueous Solutions

Barium multilayer ceramic capacitors

Barium titanate capacitor dielectric

Barrier layer capacitors

Basic capacitor experiment

Belanger 2 Electrochemical capacitors

Blocking capacitor

Booster Capacitors

Bulk Capacitor

Bypass capacitor

Calcium Capacitors

Capacitance capacitor

Capacitance of Other Capacitor Geometries

Capacitor Basics

Capacitor Dielectric Constants

Capacitor and resistor in parallel

Capacitor attachments

Capacitor behavior characteristic

Capacitor characteristic curve

Capacitor characteristics

Capacitor charging

Capacitor coatings

Capacitor colour code

Capacitor current

Capacitor cylindrical

Capacitor design

Capacitor dielectric force

Capacitor dielectric response

Capacitor dielectrics polymer films

Capacitor discharge

Capacitor discharge problem

Capacitor discharging

Capacitor electrodes

Capacitor electrostatic energy

Capacitor equation

Capacitor feedforward

Capacitor frequency multiplier

Capacitor geometries

Capacitor hybrid super

Capacitor industries

Capacitor initial condition

Capacitor interdigital capacitors

Capacitor microphone

Capacitor motor

Capacitor motor starting capacitance

Capacitor plate capacitors

Capacitor rolls

Capacitor sensors

Capacitor sensors comparison

Capacitor sensors hydrogen

Capacitor sensors metal-oxide-semiconductor

Capacitor sensors operation

Capacitor sensors performance

Capacitor sensors sensitivity

Capacitor step response

Capacitor substrate

Capacitor timing

Capacitor tolerance

Capacitor voltage transformers

Capacitor, Energy Density

Capacitor, charging process

Capacitor, electrical model component

Capacitor, electrochemical Condensers

Capacitor, electrochemical leaky

Capacitor, ferroelectric

Capacitor, parallel plate

Capacitor-Type Gas Sensors

Capacitor-inductor duality

Capacitor-type structures

Capacitor-type structures performance

Capacitors - energy stored

Capacitors DRAM storage

Capacitors MLCs)

Capacitors alternating current

Capacitors and Supercapacitors

Capacitors and capacitance

Capacitors and insulators

Capacitors and ultracapacitors

Capacitors application

Capacitors banks

Capacitors base speed

Capacitors behaviour

Capacitors charging currents

Capacitors charts

Capacitors control panels

Capacitors device types

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Capacitors direct current

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Capacitors discharge devices

Capacitors element manufacture

Capacitors excessive charging currents

Capacitors formulae

Capacitors frequency variation

Capacitors fundamentals

Capacitors harmonic effects

Capacitors high frequency

Capacitors humidity-sensitive

Capacitors improvement

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Capacitors induction motors

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Capacitors metallized polypropylene

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Capacitors single-phase motors

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Capacitors system voltage regulation

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Capacitors testing

Capacitors thermal stability

Capacitors thin film

Capacitors type tests

Capacitors unit manufacture

Capacitors unit standards

Capacitors voltage regulation improvement

Capacitors voltage unbalance

Capacitors voltage variation

Capacitors, conducting polymers

Capacitors, flexible textile-based

Capacitors, generation lifetime

Capacitors, metal-oxide-silicon

Capacitors, molecular electronic materials

Capacitors, three-dimensional

Capacitors, transduction

Carbide-derived carbon electrochemical capacitors

Carbon / ionic liquid capacitor

Carbon for electrical double-layer capacitors

Carbon-based pseudo-capacitors

Ceramic capacitor

Ceramic capacitors additives

Ceramic capacitors barium titanate

Ceramic capacitors fabrication

Ceramic capacitors lead titanate

Ceramic capacitors materials

Ceramic capacitors perovskite

Charge in a capacitor

Charging and Discharging a Capacitor

Charging of Capacitor RC Time

Chip-type capacitors

Circuit elements capacitors

Circuits capacitors

Clock stability with ceramic capacitors

Clock timing capacitor

Coating capacitor coatings

Combination capacitor

Coupling capacitor

Curie point/temperature for ceramic capacitors

Current into output capacitor

Current-voltage characteristics capacitor

Cyclic capacitor devices

Cyclic voltammetry capacitors

Cylinder capacitor

DC link capacitor

Decoupling capacitor

Decoupling capacitor of driver

Deep trench capacitors

Design of Solid Electrolyte Capacitors

Detection capacitor sensors

Detector, linear capacitor

Device Types and Production of Ta Capacitors

Device capacitor

Diamond capacitors

Dielectric capacitor experiment

Dielectric losses capacitor

Dielectric multilayer capacitors

Dielectrics, thick-film capacitor materials

Discharge of Capacitor

Dissipation of ceramic capacitors

Double layer capacitors

Double layer, capacitance/capacitor

Double layer, capacitance/capacitor capacity

Double layer, capacitance/capacitor charging

Double layer, capacitance/capacitor models

Double layer, capacitance/capacitor thickness

Double-layer capacitors circuits

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Double-layer capacitors mercury capacitance

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Double-layer capacitors separator

Double-layer capacitors thermal properties

Double-layer capacitors voltage dependence

Double-layer capacitors voltage function

Double-layer capacitors voltage requirement

Dynamic capacitor method

Dynamic capacitors

Elastic capacitor

Electric capacitor

Electric double layer capacitor

Electric field capacitor

Electric field potential capacitor

Electrical Characterisation of MFIS Capacitors (CV Measurements)

Electrical Double-Layer Capacitors Based on Carbon Electrodes

Electrical capacitor

Electrical double layer capacitor model

Electrical double layer capacitors energy storage mechanism

Electrical double-layer capacitor

Electrical double-layer capacitors EDLC)

Electrical double-layer capacitors capacitance properties

Electrical double-layer capacitors capacitance values

Electrical double-layer capacitors porous carbons

Electrical potential capacitor

Electrical/electrically capacitors

Electrochemical Capacitors Based on Carbon Electrodes in Aqueous Electrolytes

Electrochemical Capacitors and Supercapacitors

Electrochemical Double Layer Capacitors (Supercapacitors)

Electrochemical capacitors

Electrochemical capacitors (ECs

Electrochemical capacitors aqueous electrolytes

Electrochemical capacitors asymmetric systems

Electrochemical capacitors battery electrode

Electrochemical capacitors compared with batteries

Electrochemical capacitors conductivity

Electrochemical capacitors electrolytes used

Electrochemical capacitors hybrid

Electrochemical capacitors performance

Electrochemical capacitors solid electrolytes

Electrochemical capacitors types

Electrochemical double layer capacitors EDLCs)

Electrochemical double layer capacitors capacitance

Electrochemical double layer capacitors electric equivalent circuit

Electrochemical double layer capacitors impedance

Electrochemical double-layer capacitor

Electrochemical double-layer capacitor EDLC)

Electrochemical electrical double-layer capacitor (EDLC

Electrode capacitor, description

Electrodes capacitor-type

Electrolytes electrochemical capacitors

Electrolytes electrolyte capacitors

Electrolytes electrolytic capacitors

Electrolytes for Electrical Double-Layer Capacitors

Electrolytic Dielectrics and Their Capacitors

Electrolytic capacitors

Electronic devices capacitors

Electrostatic Energy Stored in a Capacitor

Embedded capacitor

Embedded components Capacitors

Embedded passives capacitors

Energy Storage in Capacitor

Energy of Charged Capacitors

Energy storage capacitors

Energy storage in electrochemical capacitors based on carbon materials

Energy storage, electrochemical capacitors

Equations for Two Resistor One Capacitor Circuits

Fabric-based capacitors

Fabrication capacitors

Ferrodielectric Capacitors

Ferroelectric film/capacitor

Field strength film capacitor

Field-effect capacitor

Film materials capacitor dielectrics

Filter capacitors

Filters switched-capacitor

Fixed Capacitors

Fundamentals of Electric Capacitors

General Properties of Ionic Liquids as Electrolytes for Carbon-Based Double Layer Capacitors

Harmonics capacitors

High-power capacitors

High-voltage bulk capacitor

High-voltage capacitor

How to Parallel Output Capacitors for Proper Sharing

Hybrid capacitors

Hybrid electric vehicles electrochemical capacitors

Ideal capacitor

Impedance capacitor

Induction motors capacitor rating

Inductor-Capacitor Circuits

Input capacitor dissipation

Installation capacitor units

Insulation capacitors

Integrating capacitor

Interdigital capacitors

Interfacial capacitor

Interference-Suppression Capacitors

Interferences capacitor sensors

Large Low Voltage Capacitors

Leakage capacitors

Li-ion capacitor

Linear and Nonlinear Capacitors

Lithium-ion capacitor

MIS capacitors

MOS capacitors

Main Properties of Electric Double-Layer Capacitors (EDLC)

Maintenance capacitor units

Materials for Rechargeable Batteries, Capacitors

Metal Oxide Semiconductor (MOS) Capacitor

Metal-insulator-semiconductor MIS capacitor

Metal-insulator-semiconductor capacitor type sensors

Metal-insulator-semiconductor capacitors

Metal-oxide-semiconductor capacitor

Microchip-embedded capacitors

Model capacitor

Molecular capacitor

Motors capacitor braking

Multilayer Ceramic Capacitor

Multilayer capacitor

Multilayer capacitors with base metal electrodes (BME)

Multilayer ceramic capacitors titanate

Multilayer chip capacitor

Multilayered Ceramic Capacitors

Nanocomposites capacitors

Nanohybrid capacitor

NiOx-Carbon Ultra Capacitors

Non-ceramic capacitors

Non-ideal capacitor

Organic MIS Capacitors

Output capacitor average current

Output capacitor dissipation

Output capacitor oscillations

Output capacitor paralleled

PEDOT as a conducting layer in capacitors

PEDOT as an Electrode Material for Solid Electrolyte Capacitors

Parallel plate capacitor, charging

Parallel-capacitor model

Parallel-plate capacitor model

Paralleling Output Capacitors

PbC capacitor battery

Performance of conducting polymer-based electrochemical capacitors

Planar capacitor

Plate capacitor

Polar Polymer Dielectric Capacitors

Polycarbonate capacitor dielectric

Polychlorinated biphenyl Capacitor

Polychlorinated biphenyls capacitors

Polyethylene terephthalate capacitor dielectric

Polyimide capacitor

Polyimides capacitor dielectric

Polymer capacitor

Polysilicon CMP for Deep Trench Capacitor Fabrication

Polystyrene capacitor dielectric

Polythiophenes as active electrode materials for electrochemical capacitors

Porous capacitor model

Power capacitors

Pseudo capacitors

Pseudocapacitors electrochemical capacitors

Pulse generators capacitors

Pulsed MOS Capacitor

Pure capacitor

Quick Check on Current through Aluminum Capacitors

RMS current capability by paralleling capacitors

RMS current of capacitors

Redox Capacitors Based on Organic Monomers

Redox capacitor

Redox electrochemical capacitors

Reference capacitor

Reliability of ceramic capacitors

Resistance-capacitor circuit

Resistor-Inductor-Capacitor Circuits

Resistor-capacitor circuit

Resistor-capacitor ladder network

Resistor/capacitor parallel

Resistor/capacitor parallel circuit

Resonant frequency table for ceramic capacitor geometries

Reverse Geometry Capacitor

SMD capacitors

Self-healing capacitors

Self-resonant frequency of combination capacitors

Series Resistor-Inductor-Capacitor Circuit

Series capacitors

Series capacitors protection

Series capacitors rating

Shunt capacitors

Silicon capacitor

Simulations for the MIS Capacitor

Single Ceramic Capacitor for Both Noise and Ripple

Single cell capacitors

Single-capacitors switching

Solid Electrolyte Capacitors

Stacking Capacitors

Star capacitor units

Static capacitor method

Storage Capacitor Constant

Storage capacitor

Stray capacitor

Super capacitor

Supercapacitor electrochemical double-layer capacitor

Supercapacitors electrical double-layer capacitor

Supercapacitors redox capacitor

Surfaces electrochemical double layer capacitors

Surges power capacitors

Switched capacitor

Symmetric capacitors

Ta capacitors

Tantalum capacitor electrodes

Tantalum capacitors

Tantalum electrolytic capacitors

Tantalum storage capacitors

Temperature compensating capacitor

Testing capacitor units

The Energy Stored in a Capacitor

Theoretical study of the vibrating capacitor method

Thick-Film Capacitor Dielectrics

Thin films multilayer capacitors

Thin-film capacitors for

Thin-film capacitors for computer chips

Thyristor-switched capacitor banks

Thyristors switched capacitor banks

Time domain response capacitor

Traditional Capacitors

Tubular capacitors

Types of electrochemical capacitors

Ultra-capacitors

Use of capacitor

Using Capacitors Wisely

Variable Capacitors

Various Capacitors

Vehicles Using Flywheels and Super Capacitors

Vertically stacked capacitors

Vibrating capacitor

Vibrating capacitor method (Kelvin)

Vibrating capacitor methods

Vibrating capacitor-techniques

Voltage Coefficient of ceramic capacitors

Voltage rating of ceramic capacitors

WHAT A CAPACITOR IS

X-capacitor

Y-capacitor

Zeolite-coated interdigital capacitors

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