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Distribution of power

Micro-scale variables are involved when the particles, droplets, baffles, or fluid chimps are on the order of 100 [Lm or less. In this case, the critical parameters usually are power per unit volume, distribution of power per unit volume between the impeller and the rest of the tanh, rms velocity fluctuation, energy spectra, dissipation length, the smallest micro-scale eddy size for the particular power level, and viscosity of the fluid. [Pg.1625]

To control, regulate and protect the conversion, when necessary, from one voltage to another, in a generating station or a switchyard for the purpose of further transmission or distribution of power. [Pg.335]

Power plants for bulk transfer of energy for transmission and distribution of power... [Pg.533]

Figure 23.31 Receiving and distribution of power in an industrial unit... Figure 23.31 Receiving and distribution of power in an industrial unit...
Installations of railways for generation, transformation, transmission, or distribution of power used exclusively for operation of rolling stock or installation used exclusively for signaling and communications purposes. [Pg.635]

With the aid of the power density spectrum, we can now give a complete description of how a linear, time-invariant filter affects the frequency distribution of power of the input time function X(t). To accomplish this, we must find the relationship between the power... [Pg.187]

Fig. 9. Distribution of power density along the four solenoids of the magnet. Fig. 9. Distribution of power density along the four solenoids of the magnet.
Cockburn, Henderson, and Stern (1999) emphasize the importance of organizational factors and the distribution of power relationships within the firm for the speed at which new research methods are employed. Some firms are more suited to the new technology than others. The authors note that all their informants emphasized that differences in the historical experience of the firm, in their knowledge capital, were critically important in shaping the adoption decision (p. 19). [Pg.56]

As one might expect, the setting up and operation of the committees presented the problem of distribution of power between the committees and the Academy. The committees, each with its five members, were anxious to keep as much power as possible regarding prize decisions on the other hand, the physics and chemistry classes of the Academy were required by statutory rules to examine and write a statement about the suggestions from the respective committees. Finally, it was the Academy in plenum who made the actual decision of which person or persons should be awarded the Nobel prize. [Pg.70]

For some, changing how decisions about technology are made (or perhaps become made) involves challenging and changing the social forces and interests at work. The problem is identified as the distribution of power between those interests and... [Pg.1]

According to the British North America Act of 1867, the Canadian legislative base for drinking water derives from the constitutional distribution of powers between the federal and provincial governments. Although this act does not deal specifically with water resources and therefore drinking water supply, judicial interpretation over the years has resulted in a situation in which drinking water is a shared federal-provincial jurisdiction. [Pg.712]

Figure 3 Percentage distribution of power within a Heraeus Suntest CPS Cabinet (xenon arc lamp). (A) Low power-power level 1-maximum power=22.3mWcm-2 (approximately 48kLux), (B) high power-power level 7-maximum power =52mWcm- (approximately 113 kLux). Figure 3 Percentage distribution of power within a Heraeus Suntest CPS Cabinet (xenon arc lamp). (A) Low power-power level 1-maximum power=22.3mWcm-2 (approximately 48kLux), (B) high power-power level 7-maximum power =52mWcm- (approximately 113 kLux).
True, this does not hold if we consider unequal distribution of power as a source of injustice. The lack of control over work or over the investment process is not. however, at the heart of the ctasskil Marxian notion of exploitation that 1 have tried to explica te in 4.1. [Pg.340]

Figure 274(c) shows a drive train that is applied for contemporary medium and large scale roller presses. It employs a double output-shaft gear reducer (2/4) powered by a motor (5) by way of a torque-limiting clutch. The completely enclosed, dust-tight gearbox provides the necessary reduction in speed and the distribution of power to the two roll drive shafts (3). Precision gear-tooth... [Pg.315]

A capacitively coupled reactor designed to permit continuous coating of a moving substrate with plasma polymer has been described [ 1 ]. In this paper the results of a study of the plasma polymerization of tetrafluoroethylene in such a reactor presented. Plasma polymer has been deposited on aluminum electrodes as well as on an aluminum foil substrate placed midway between electrodes. The study particularly explores conditions in which deposition is minimized on the electrode. For this reason the chemical nature of the polymer formed in a low flow rate (F = 2 cm (S.T.P.)/min) and low pressure (p = 60 mlllltorr) plasma has been analyzed by the use of ESCA (electron spectroscopy for chemical analysis) and deposition rate determinations. This method combined with the unusual characteristics of TFE plasma polymerization (described below) has yielded Information concerning the distribution of power in the inter-electrode gap. The effects of frequency (13.56 MHz, 10 KHz and 60 Hz), power and magnetic field have been elucidated. The properties of the TFE plasma polymer prepared in this apparatus are compared to those of the plasma polymer deposited in an inductively coupled apparatus [2,3]. [Pg.163]

By equating high O/C and AJl/C elemental ratios with high power density, one arrives at the same conclusions regarding the distribution of power density in the interelectrode gap as in the discussion of peak height ratios. [Pg.172]

This has led to the common practice today of using the distribution of power in a three-impeller system, for example, 40% to the lower impeller and 30% to each of the two upper impellers. Fig. 35. [Pg.214]


See other pages where Distribution of power is mentioned: [Pg.71]    [Pg.335]    [Pg.614]    [Pg.916]    [Pg.311]    [Pg.4]    [Pg.187]    [Pg.100]    [Pg.75]    [Pg.67]    [Pg.458]    [Pg.471]    [Pg.341]    [Pg.269]    [Pg.328]    [Pg.286]    [Pg.172]    [Pg.153]    [Pg.2341]    [Pg.170]    [Pg.233]    [Pg.34]    [Pg.34]    [Pg.6]   
See also in sourсe #XX -- [ Pg.110 , Pg.115 , Pg.146 , Pg.154 ]




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