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Experimental apparatus schematic

Fig. 3. Experimental apparatus schematic view of (a) the dual frequency MW-RF plasma system (after ref. 9), (b) the corona treatment system. (After ref. 67). Fig. 3. Experimental apparatus schematic view of (a) the dual frequency MW-RF plasma system (after ref. 9), (b) the corona treatment system. (After ref. 67).
Schematic diagrams of modem experimental apparatus used for IR pump-probe by Payer and co-workers [50] and for IR-Raman experiments by Dlott and co-workers [39] are shown in figure C3.5.3. Ultrafast mid-IR pulse generation by optical parametric amplification (OPA) [71] will not discussed here. Single-colour IR pump-probe or vibrational echo experiments have been perfonned with OP As or free-electron lasers. Free-electron lasers use... Schematic diagrams of modem experimental apparatus used for IR pump-probe by Payer and co-workers [50] and for IR-Raman experiments by Dlott and co-workers [39] are shown in figure C3.5.3. Ultrafast mid-IR pulse generation by optical parametric amplification (OPA) [71] will not discussed here. Single-colour IR pump-probe or vibrational echo experiments have been perfonned with OP As or free-electron lasers. Free-electron lasers use...
A typical apparatus for electrochemical promotion experiments consists of three parts (a) The gas feed and mixing system (b) the reactor and (c) the analysis and electrochemical measurements system. A detailed schematic of the experimental apparatus is shown in Figure B.l, where the three parts are clearly shown. [Pg.550]

Fig. 1. Schematic diagram of experimental apparatus 3. Results and discussion... Fig. 1. Schematic diagram of experimental apparatus 3. Results and discussion...
A thermal plasma system has been developed for the decomposition of methane. A schematic diagram of the experimental apparatus is shown in Fig. 1. The system consists primarily of D.C. plasma torch, plasma reactor and filter assembly. Plasma was discharged between a tungsten cathode and a copper anode using N2 gas. All the experiments were carried out at atmospheric pressure at 6 kW input electric power and N2 flow rate of 10 to 12 1/min. The feed gas (CH4) flow rates were varied from 3 to 15 1/min depending on the operating conditions, shown in Table. 1. [Pg.421]

Fig. 1 Schematic diagram of experimental apparatus Co.) and carbon particle size analyzer(LS230, COULTER Co.). Fig. 1 Schematic diagram of experimental apparatus Co.) and carbon particle size analyzer(LS230, COULTER Co.).
A schematic diagram of the experimental apparatus is shown in Fig. 1. A rotating fluidized bed composes of a plenum chamber and a porous cylindrical air distributor (ID400xD100mm) made of stainless sintered mesh with 20(xm openings [2-3]. The horizontal cylinder (air distributor) rotates around its axis of symmetry inside the plenum chamber. There is a stationary cylindrical filter (ID140xD100mm, 20(o.m openings) inside the air distributor to retain elutriated fine particle. A binary spray nozzle moimted on the metal filter sprays binder mist into the particle bed. A pulse air-jet nozzle is also placed inside the filter, which cleans up the filter surface in order to prevent clogging. [Pg.486]

The experimental apparatus is illustrated schematically in Figure 1.8. Monochromatic light emitted from the point source S is focused by a lens L onto a detection or observation screen D. Between L and D is an opaque screen with two closely spaced slits A and B, each of which may be independently opened or closed. [Pg.23]

Figure 3.5. A simple schematic diagram of the basic components of a typical two-pulse picosecond TR experimental apparatus based on a TiiSapphire oscillator/amplifier laser system. See text for more details... Figure 3.5. A simple schematic diagram of the basic components of a typical two-pulse picosecond TR experimental apparatus based on a TiiSapphire oscillator/amplifier laser system. See text for more details...
Figure 2. Schematic representation of the experimental apparatus used for measurement of the 7t-A curves of a thin film of PhDA2-8 molecules at the air/water interface. Figure 2. Schematic representation of the experimental apparatus used for measurement of the 7t-A curves of a thin film of PhDA2-8 molecules at the air/water interface.
Fig. 33. Schematic diagram of the experimental apparatus for WBL electrolysis under batch mode operation [278]... Fig. 33. Schematic diagram of the experimental apparatus for WBL electrolysis under batch mode operation [278]...
Figure 5.7. Schematic representation of a Joule-Thomson porous-plug experiment. The entire experimental apparatus is kept well insulated from the surroundings. Figure 5.7. Schematic representation of a Joule-Thomson porous-plug experiment. The entire experimental apparatus is kept well insulated from the surroundings.
Fig. 6.17 Schematic diagram of experimental apparatus of supercritical water gasification... Fig. 6.17 Schematic diagram of experimental apparatus of supercritical water gasification...
Figure 14.1. Schematic plan of experimental apparatus. (From Ref. 4, with permission from the Electrochemical Society.)... Figure 14.1. Schematic plan of experimental apparatus. (From Ref. 4, with permission from the Electrochemical Society.)...
For crystallization by cooling, the effects of agitation, impurity concentration, and time after nucleation were examined. The experimental apparatus used was the same as shown schematically in Figure 3 except that acid was not added to the solution. [Pg.88]

Figure 1 shows a schematic diagram of the experimental apparatus. A... [Pg.220]

Experimental apparatus and procedure. Figure 1 is a schematic diagram of the experimental apparatus. The crystallizer was a 1 liter stirred tank reactor made of acrylic resin and is considered to be a continuous MSMPR reactor. The reactor was 0.1m in diameter and the liquid height 0.14m. The impeller used was of the 6-blade turbine type and operated at 450 rpm to... [Pg.345]

Experimental Procedure. A schematic diagram of experimental apparatus is shown in Figure 2. About ten of cylindrical glass bottles enclosed samples of same composition were set in a thermostatic air chamber. The samples melted perfectly by holding for about 2h at... [Pg.396]

Figure 7.38 Schematic diagram of experimental apparatus used to form SiC/BN composite particles by gas-phase synthesis on a substrate (a). From Carbide, Nitride, and Boride Materials Synthesis and Processing, A. W. Weimer, ed., p. 336. Copyright 1997 by Chapman Hall, London, with kind permission of Kluwer Academic Publishers. Figure 7.38 Schematic diagram of experimental apparatus used to form SiC/BN composite particles by gas-phase synthesis on a substrate (a). From Carbide, Nitride, and Boride Materials Synthesis and Processing, A. W. Weimer, ed., p. 336. Copyright 1997 by Chapman Hall, London, with kind permission of Kluwer Academic Publishers.
Fig. 7.1. A CSTR appropriate to gas-phase reactions (a) and (b) a schematic representation of a typical experimental apparatus. Fig. 7.1. A CSTR appropriate to gas-phase reactions (a) and (b) a schematic representation of a typical experimental apparatus.
A schematic representation of a typical RESS experimental apparatus is shown in Figure 9.8-2. [Pg.590]

Fig. 16. Schematic of the experimental apparatus to carry out catalytic reaction rate studies on single-crystal surfaces at low and high pressures in the range 10 7-104 Torr. Fig. 16. Schematic of the experimental apparatus to carry out catalytic reaction rate studies on single-crystal surfaces at low and high pressures in the range 10 7-104 Torr.
Fig. 4.1. Schematic diagram of the second harmonic generation experimental apparatus with the sample in the reflection geometry. The polarization analyzers are set to transmit p-polarized light at the frequency labeled in the figure. The (co/2co) filters transmit the (fundamental/harmonic) light while blocking the (harmonic/fundamental) light. For phase measurements, a quartz plate is mounted on a translation stage for movement towards the sample at a distance L. Fig. 4.1. Schematic diagram of the second harmonic generation experimental apparatus with the sample in the reflection geometry. The polarization analyzers are set to transmit p-polarized light at the frequency labeled in the figure. The (co/2co) filters transmit the (fundamental/harmonic) light while blocking the (harmonic/fundamental) light. For phase measurements, a quartz plate is mounted on a translation stage for movement towards the sample at a distance L.

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See also in sourсe #XX -- [ Pg.264 , Pg.265 ]




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Apparatus, schematic

Experimental apparatus

Experimental schematic

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