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Design parameters derivation

From this one will be able to ascertain the weight of the flywheel in kg. The velocity V of the flywheel is a design parameter of the basic machine and is derived from there. Based on the speed of the flywheel and weight W, the diameter and width and other parameters, as required to design a flywheel. Figure 3.20 can be easily determined with the help of any mechanical engineering handbook. [Pg.66]

The EUF and FESR are then simple to derive and typical area plots of the range of EUF and FESR against the derived Acg, for gas turbines with varying practical design parameters, are illustrated in Fig. 9.8. [Pg.177]

Parameters derived from the analysis of the design equations... [Pg.532]

Michalik (M9), 1957 Study of hydraulics of laminar film flow of Newtonian fluid in tubes and on vertical plates. Optimum design parameters for wetted-wall columns derived. [Pg.218]

In this section the basic principles that should be taken into account in the design and optimisation of hydrogen-based autonomous power systems will be described in detail. The most important design parameters, having a significant impact on the economics of autonomous hydrogen-based autonomous power systems will be analysed. The most significant conclusions derived from the analysis of all case studies presented in previous sections will also be summarised. [Pg.132]

There are two problems with this approach. First, estimating AUMC is very difficult. While one hopes that the experiment has been designed so that C(t)dt contributes 5% or less to AUC, t C(t)dt can contribute as much as 50% or more to ALIMC. Hence estimates of AUMC are subject to large errors. The second problem is that it is extremely difficult to obtain error estimates for AUC and AUMC that will translate into error estimates for the pharmacokinetic parameters derived from them. As a result, it is normal practice in individual studies to ignore error estimates for these parameters, and hence the pharmacokinetic parameters that rely upon them. One tries to circumvent the statistical nature of the problem by conducting repeated studies and basing the statistics on averages and standard errors of the mean. [Pg.96]

Cybulski et al. [39] have studied the performance of a commercial-scale monolith reactor for liquid-phase methanol synthesis by computer simulations. The authors developed a mathematical model of the monolith reactor and investigated the influence of several design parameters for the actual process. Optimal process conditions were derived for the three-phase methanol synthesis. The optimum catalyst thickness for the monolith was found to be of the same order as the particle size for negligible intraparticle diffusion (50-75 p.m). Recirculation of the solvent with decompression was shown to result in higher CO conversion. It was concluded that the performance of a monolith reactor is fully commensurable with slurry columns, autoclaves, and trickle-bed reactors. [Pg.257]

The crystal structure of an unmodified hanmierhead RNA in the absence of divalent metal ions has been solved. The X-ray crystal structure of the oligonucleotide d(GGCGAATTGG) has been described. It was designed to contain the d(G.GC)2 fragment and thus provide the basic repeat unit of a DNA triple helix. Parameters derived from this crystal structure enabled construction of models of both parallel and antiparallel triple helices. A variety of physical techniques has been used to investigate the structure of DNA containing the deoxyribosyl derivative 5-nitroindole. ... [Pg.219]

Considering a round cylindrical monolith structure with homogeneous square channels, a number of relationships can be derived for the design parameters (Fig. 32). [Pg.32]


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Design parameters

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