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Thermo neutral conditions

Table 3.1 Optimum O/C ratio and maximum efficiency under thermo neutral conditions for various fuels according to Ahmed et al. [68]. Table 3.1 Optimum O/C ratio and maximum efficiency under thermo neutral conditions for various fuels according to Ahmed et al. [68].
Figure 5.50 Effect of the H/C ratio of different fuels on the net water recovery of an autothermal fuel processor working at a S/C ratio of 1.5 the water recovery is normalised by the heating value of the fuel the O/C ratio is adjusted such that thermo neutral conditions result for the overall fuel processor [435]. Figure 5.50 Effect of the H/C ratio of different fuels on the net water recovery of an autothermal fuel processor working at a S/C ratio of 1.5 the water recovery is normalised by the heating value of the fuel the O/C ratio is adjusted such that thermo neutral conditions result for the overall fuel processor [435].
Juha Oksa et al, 2002) 8 Male/mean 31 years 25°C and 5°C Forearm blood flow during systemic cooling was significantly lower. Repetitive work in the cold causes higher muscular activity and fatigue of forearm muscles than in thermo-neutral conditions. [Pg.402]

Including the minimal physical activity of animals kept in tie-stall bams in thermo neutral conditions. [Pg.535]

The transalkylation reactor is also maintained in the liquid phase but uses EBZ-100 catalyst, which is made using zeolite Y. Transalkylation reaction is nearly thermo-neutral, so it operates essentially isother-mally. The reactor temperature is generally adjusted to provide the desired level of PEB conversion. While a high temperature results in high PEB conversion that closely approaches equilibrium composition, these conditions can result in undesired side reactions. [Pg.935]

This is a more constraining requirement that is easily fulfilled only in thermo-neutral or isothermal reactions. If the operation is quasi-isothermal and condition 1 is fulfilled, the use of the integral form is greatly facilitated. However, it takes procedures described in Chapter 5 to interpret data in the case of reactions of high endo- or exothermicity where there is an axial temperature inhamogeneity along the TS-PFR. [Pg.70]

Elute the bound conjugate with 0.1 M glycine, 0.15M NaCl, pH 2.8, or another suitable elution buffer. A neutral pH alternative to this buffer is the Gentle Elution Buffer from Thermo Fisher. If acid pH conditions are used, immediately neutralize the fractions eluting from the column by the addition of 0.5 ml of 1M Tris, pH 8.0, per fraction. [Pg.814]

The chemistry of unsaturated azepines is dominated by their polyene character. The absence of ir-delocalization confers instability on the ring system as witnessed by the many and various ring transformations undergone in acid and base solution, and under thermal and photolytic conditions. Most of the major reactions of azepines involve the neutral molecule e.g. cycloadditions (Section 5.16.3.8.1), metal carbonyl complexation (Section 5.16.3.8.2), dimerizations (Section 5.16.3.2.3) and photo- and thermo-induced valence isomerizations (Section 5.16.3.2.1). [Pg.502]

Gunsalus RP, Wolfe RS (1978) Chromophoric factors F432 and F430 of Methanobacterium thermo-autotrophicum. FEMS Microbiol Lett 3 191-193 Hafenbradl D, Keller M, Dirmeier R, Rachel R, Rossnagel P, Burggraf S, Huber H, Stetter KO (1996) Ferro globus placidus gen. nov., a novel hyperthermophilic archaeum that oxidizes Fe2+ at neutral pH under anoxic conditions. Arch Microbiol 166 308-314 Hall GH (1986) Nitrification in lakes. In Prosser JI (ed) Nitrification. IRL Press, Oxford, pp 127-156... [Pg.133]

Following a related approach, Castelvetro et al. reported the formation and properties of hybrid latex films resulting from the coalescence of low 7 poly(BA-co-MMA-co-MPTMS) terpolymer latex particles coated by a silica shell [78], The latex was synthesized at neutral pH by semi-continuous emulsion polymerization under starved-feed conditions in order to protect the MPTMS monomer from premature hydrolysis and condensation reactions. A substantial amount of free silanols were therefore available for further reaction with the silica precursor. In order to avoid the formation of a densely crosslinked silica network around the latex core, which may significantly alter film formation, the pH was kept at around 2 (at this pH, hydrolysis is promoted and condensation is significantly retarded). TEM and AFM studies of the nanocomposite film indicated that the silica shell formed a continuous percolating network throughout the polymer matrix. A porous film of interconnected hollow silica spheres was next elaborated by thermo-oxidative decomposition of the organic phase. [Pg.71]

Figure 6.1 Product-ion ESI mass spectra of lithiated 16 0-18 1 phosphatidylcholine after CID at different collision energy. Product-ion ESI-MS analysis of hthiated 16 0-18 1 dPC at m/z 766.5 in the presence of lithium hydroxide in the infusion solution was performed on a Thermo Fisher TSQ Vantage mass spectrometer. Collision activation was carried out with collision energy of 10 (a), 20 (h), 30 (c), and 40 (d) eV, and gas pressure of 1 mTorr. These results demonstrate two key points. First, while product-ion mass spectra acquired at different collision energy are very different, the fragmentation pattern of dPC species is identical under different experimental conditions. The pattern includes the neutral losses of 59,183,189, sn- FA plus 59, and sn-2 FA plus 59. Second, the low mass fragment ions increase as collision energy. Figure 6.1 Product-ion ESI mass spectra of lithiated 16 0-18 1 phosphatidylcholine after CID at different collision energy. Product-ion ESI-MS analysis of hthiated 16 0-18 1 dPC at m/z 766.5 in the presence of lithium hydroxide in the infusion solution was performed on a Thermo Fisher TSQ Vantage mass spectrometer. Collision activation was carried out with collision energy of 10 (a), 20 (h), 30 (c), and 40 (d) eV, and gas pressure of 1 mTorr. These results demonstrate two key points. First, while product-ion mass spectra acquired at different collision energy are very different, the fragmentation pattern of dPC species is identical under different experimental conditions. The pattern includes the neutral losses of 59,183,189, sn- FA plus 59, and sn-2 FA plus 59. Second, the low mass fragment ions increase as collision energy.

See other pages where Thermo neutral conditions is mentioned: [Pg.195]    [Pg.30]    [Pg.350]    [Pg.195]    [Pg.30]    [Pg.350]    [Pg.109]    [Pg.570]    [Pg.299]    [Pg.532]    [Pg.144]    [Pg.43]    [Pg.145]    [Pg.2577]    [Pg.63]    [Pg.436]   
See also in sourсe #XX -- [ Pg.30 , Pg.191 ]




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Neutral conditions

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