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Discharge behavior

Fig. 6. Discharge behavior of a battery where is the open circuit voltage (a) current—potential or power curve showing M activation, ohmic, and M concentration polarization regions where the double headed arrow represents polarization loss and (b) voltage—time profile. Fig. 6. Discharge behavior of a battery where is the open circuit voltage (a) current—potential or power curve showing M activation, ohmic, and M concentration polarization regions where the double headed arrow represents polarization loss and (b) voltage—time profile.
Leads that enter or exit the enclosure ideally should have their associated EMI filters at the point of entry or exit from the enclosure. Any unfiltered leadlengths that run within the enclosure will inductively pick-up noise within the case and allow it to exit the case, thus making any EMI filtering less effective. Likewise, any unfiltered leads within the case will radiate any transients from outside the case into the case, which may affect the static discharge behavior of the contained circuits to external static events. [Pg.245]

Figure 5 Corona discharge behavior of polystyrene added with polystyrene-b-poly(sodium acrylate) [57]. Figure 5 Corona discharge behavior of polystyrene added with polystyrene-b-poly(sodium acrylate) [57].
Figure 11. Comparison of discharge behavior of IC No. 17 (EMD) for currently proposed method and a previously published method. Figure 11. Comparison of discharge behavior of IC No. 17 (EMD) for currently proposed method and a previously published method.
Research into behavior change suggests that clients benefit from tapering the frequency of psychotherapy sessions before termination or discharge. Behavioral research has found that new learning can benefit from spacing out sessions more... [Pg.231]

Fig. 12.11 A schematic view for constructingmultilayerfilms on substrate, (b) Photographs of multilayer films of ITO/(PDDA/PSS-GS/PDDA/Mn02)n, n = 0, 5,10, and 15 for A, B, C, and D, respectively, (c) Cyclic voltammetry curves of ITO/(PDDA/PSS-GS/PDDA/MnO2)10 electrode at different scan rates, (d) Charge-discharge behavior of an ITO/(PDDA/PSS-GS/PDDA/MnO2)10 electrode at different current densities. Fig. 12.11 A schematic view for constructingmultilayerfilms on substrate, (b) Photographs of multilayer films of ITO/(PDDA/PSS-GS/PDDA/Mn02)n, n = 0, 5,10, and 15 for A, B, C, and D, respectively, (c) Cyclic voltammetry curves of ITO/(PDDA/PSS-GS/PDDA/MnO2)10 electrode at different scan rates, (d) Charge-discharge behavior of an ITO/(PDDA/PSS-GS/PDDA/MnO2)10 electrode at different current densities.
The ease of oxygen removal from the close-packed lattice when lithium rich had been demonstrated by its ready reduction by ammonia gas at 200 °C in the case of the spinel Li[Lii/3Mn5/3]04. It was also shown that this oxygen could be removed by electrochemically charging above around 4.3 V the material then showed the 4 V discharge behavior typical of a spinel. These reduced materials can best be represented as Li[Lii/3Mn5/3]04 g. [Pg.53]

Typical dark discharge characteristics for pure Se and Sb Sei photoreceptors are shown in Fig. 7.1 for compositions noted in the figure. It is apparent that for pure a-Se, the decay of the surface potential is relatively slow. Comparison of the respective characteristics for a-Sb -Sci with the dark discharge behavior of pure a-Se shows clearly that alloying a-Se with antimony increases the dark-decay rate. The discharge rates in a-Sb -Sei were not constant but decreased with time. [Pg.107]

Qualitatively, to model the chemically reacting plasma, neutral-species chemistry and transport and the electrical or plasma physics aspects of the discharge must be considered. The chemical and physical properties included in the model of the discharge must at least reflect the current understanding of the most important processes. The conventional view of discharge behavior has been described previously, but will now be reviewed briefly to set the stage for equation formulation. [Pg.408]

Next, it will be valuable to consider the discharge behavior when the electrodes are not of equal size. A simplified analysis of this situation can be made15 if we make a number of approximations. Consider a geometry such as shown in Figure 6, where a blocking capacitor is used between the power supply and electrode 1. The function of the blocking capacitor is to allow a DC bias to exist between the DC plasma potential and the electrode adjacent to the capacitor. [Pg.50]

Lin, R., Taberna, P.L., Chmiola, J., Guay, D., Gogotsi, Y., Simon, P. Microelectrode study of pore size, ion size and solvent effects on the charge/discharge behavior of microporous carbons for electrical double layer capacitors. J. Electrochem. Soc. 156(1), 2009 A7-A12. [Pg.108]

These self-discharge behaviors have been demonstrated with different capacitor samples. BCAP0007 and BCAP0008 are Maxwell commercial products. They show only a diffusion-driven self-discharge mechanism. BCAPproto which is a prototype with a high impurity content undergoes oxidation-reduction reactions. The two different plots show the respective linear drop in their respective representation. [Pg.441]

LiC104 SPE ([EO]/[Li+] = 8 1) showed a good charge/discharge behavior over 1000 cycles between 0 and 3.0 V. [Pg.435]

If this value is used for modeling together with the smaller value for the size of the connected matrix with 0.01 m, the discharge behavior looks completely different (Fig. 76) For instance the uranium concentration has dropped to the groundwater values already after 100 days, all uranium is removed. [Pg.182]

Charge-discharge behavior of surface-fluorinated graphite... [Pg.509]

To address the short comings of continuum models and yet be able to predict the discharge behavior or capacity fade is an important task. The solution suggested is by developing a novel Monte Carlo method that takes into account design properties, for example, thickness of the cathode, and use it in conjunction with microscopic properties, for example, diffusion in solid phase to predict system level properties of interest. The Monte Carlo algorithm can be considered to follow the framework of continuum models. The next section illustrates the usefulness of the Monte Carlo strategy. [Pg.334]

Figure 9. The discharge behavior of (potential vs time) for LiCo02 (current applied in mA/cm ). Figure 9. The discharge behavior of (potential vs time) for LiCo02 (current applied in mA/cm ).
Figure 11 represent the discharge behavior of LiFeP04/EC-DEC/Li half cell at different applied current densities in time and capacity scale respectively. It can be inferred from this figure that two distinct features exist ... [Pg.343]


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See also in sourсe #XX -- [ Pg.395 ]




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