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Inverse triangle

A corresponding inverse triangle inequality can be applied to each triplet to raise values in the lower bound matrix L. Now, a distance matrix D, usually referred to as the trial distance matrix, can be constructed by simply choosing elements dt/ randomly between w/ and lif and used to construct a metric matrix G. A matrix so constructed might be some approximation to the distances in the real molecule, but probably not a very good one. Clearly, every time an element d is selected, it puts limits on subsequent selected distances. This problem of correlated distances is discussed further in the section Systematic Errors and Bias. [Pg.148]

The results on the four rate constants for both two biotypes are shown in Fig.3. In the susceptible biotype, k g ( shown in circle) and kyA (inverse triangle) are pH independent and the values are 3x10 s ( two times smaller than that in Rh. sphaeroides [5] ) and 450 s", respectively, kg (square) depends strongly on pH roughly reflecting a strong pH dependence of (triangle) decreases from 260 s" to... [Pg.549]

Figure 3. Immersion time dependence of contact angle for water on the alumina gel films immersed in hot water with NaCl and MnCl2, and without additive. Solid circles, triangles and inverse triangles, respectively, denote no additives, NaCl and MnCl2, all at 60°C. Open circles, triangles and inverse triangles, respectively, stand for no additives, NaCl and MnCl2, all at lOO C. Figure 3. Immersion time dependence of contact angle for water on the alumina gel films immersed in hot water with NaCl and MnCl2, and without additive. Solid circles, triangles and inverse triangles, respectively, denote no additives, NaCl and MnCl2, all at 60°C. Open circles, triangles and inverse triangles, respectively, stand for no additives, NaCl and MnCl2, all at lOO C.
Fig. 9.20 (Color online) Vickers hardness (Hv) as a function of the crystallite size. Triangles correspond to the data for ABNNC inversed triangles, c-BN [7]. With kind permission of AIP... Fig. 9.20 (Color online) Vickers hardness (Hv) as a function of the crystallite size. Triangles correspond to the data for ABNNC inversed triangles, c-BN [7]. With kind permission of AIP...
Lowest moduli are measured for emulsion SE47-01-00-17 (inverse triangles) with acrylate content of 0.1 wt. %... [Pg.93]

Fig. 7 Experimental interfacial tension as a function of temperature for PP/PS pairs. Filled squares PP/PS 380,000 open inverse triangles PP/PS 86,438 filled circles PP/PS 19,417 open circles PP/PS 4755 [21, 22]... Fig. 7 Experimental interfacial tension as a function of temperature for PP/PS pairs. Filled squares PP/PS 380,000 open inverse triangles PP/PS 86,438 filled circles PP/PS 19,417 open circles PP/PS 4755 [21, 22]...
Fig. 26 Interfacial tension for the PS/PS-i>-PI/PI systems as a flmction of the number of segments (AO of the copolymers at a constant temperature of 140 1°C and constant 2 wt% copolymer added to the PS phase (open inverse triangles). For the A1 = 1127 diblock, data are also shown when 2 wt% copolymer is added to PI (filled triangle), and when 1 wt% is added to PS and 1 wt% is added to PI (open diamond). The PS-PI interfacial tension in the absence of the diblock is denoted by a filled square [54]... Fig. 26 Interfacial tension for the PS/PS-i>-PI/PI systems as a flmction of the number of segments (AO of the copolymers at a constant temperature of 140 1°C and constant 2 wt% copolymer added to the PS phase (open inverse triangles). For the A1 = 1127 diblock, data are also shown when 2 wt% copolymer is added to PI (filled triangle), and when 1 wt% is added to PS and 1 wt% is added to PI (open diamond). The PS-PI interfacial tension in the absence of the diblock is denoted by a filled square [54]...
Fig. 7. Plot of log(6 I g (t) 1 ) vs. delay time for a LPS812 ternary solution (denoted by inverse triangles) as compared with that of a LPS80 binary solution (denoted by squares). Most of the LPS812 curve overlaps with that of LPS80. Fig. 7. Plot of log(6 I g (t) 1 ) vs. delay time for a LPS812 ternary solution (denoted by inverse triangles) as compared with that of a LPS80 binary solution (denoted by squares). Most of the LPS812 curve overlaps with that of LPS80.
Figure B2.4.2. Eyring plot of log(rate/7) versus (1/7), where Jis absolute temperature, for the cis-trans isomerism of the aldehyde group in fiirfiiral. Rates were obtained from tln-ee different experiments measurements (squares), bandshapes (triangles) and selective inversions (circles). The line is a linear regression to the data. The slope of the line is A H IR, and the intercept at 1/J = 0 is A S IR, where R is the gas constant. A and A are the enthalpy and entropy of activation, according to equation (B2.4.1)... Figure B2.4.2. Eyring plot of log(rate/7) versus (1/7), where Jis absolute temperature, for the cis-trans isomerism of the aldehyde group in fiirfiiral. Rates were obtained from tln-ee different experiments measurements (squares), bandshapes (triangles) and selective inversions (circles). The line is a linear regression to the data. The slope of the line is A H IR, and the intercept at 1/J = 0 is A S IR, where R is the gas constant. A and A are the enthalpy and entropy of activation, according to equation (B2.4.1)...
As far as a non-self-adjoint operator B is concerned, the workable procedure g reduces to inversion of a lower triangle matrix. ... [Pg.678]

Fig. 5.16. Logarithm of the viscosity of PE melts (Ci0o)> plotted vs. inverse temperature. Full dots are the predictions based on Fig. 5.15 using Eq. (5.18), while open triangles are experimental data of Pearson et al. [190]. From [32]. Fig. 5.16. Logarithm of the viscosity of PE melts (Ci0o)> plotted vs. inverse temperature. Full dots are the predictions based on Fig. 5.15 using Eq. (5.18), while open triangles are experimental data of Pearson et al. [190]. From [32].
Fig. 30. Hydrogen spin lattice relaxation time T, in a-Si H against temperature for flake samples removed from their substrate (solid line) and for a-Si H on quartz substrates two weeks after deposition (triangles). The circle data points are for the quartz substrate samples ten months after deposition. The magnitude of the 40 K minimum of T, is inversely portional to the number of H2 molecules contributing to the relaxation process (Van-derheiden et al., 1987). [Pg.454]

Figure 14. Arrhenius plots for the initial maximum rate of heat release versus the inverse absolute temperature for commercial boards. Data for hardboards of Asplund pulp with open symbols (circles 2.3 mm, squares 3.8 mm, and triangles 6.0 mm), and of Masonite pulp with semifilled symbols (circles 2.2 mm, triangles 2.7 mm, squares 3.6 mm). Also data for semi-hardboards of Asplund pulp from 500 to 750 kg/m3 density with filled symbols (squares 93 mm, circles 1Z6 mm, and triangles 13.3 mm in calipers). (Reproduced with permission from ref. 10. Copyright 1989 De Gruyter.)... Figure 14. Arrhenius plots for the initial maximum rate of heat release versus the inverse absolute temperature for commercial boards. Data for hardboards of Asplund pulp with open symbols (circles 2.3 mm, squares 3.8 mm, and triangles 6.0 mm), and of Masonite pulp with semifilled symbols (circles 2.2 mm, triangles 2.7 mm, squares 3.6 mm). Also data for semi-hardboards of Asplund pulp from 500 to 750 kg/m3 density with filled symbols (squares 93 mm, circles 1Z6 mm, and triangles 13.3 mm in calipers). (Reproduced with permission from ref. 10. Copyright 1989 De Gruyter.)...
Figure 3.23 Bond bending in umbrella inversion vibration of NH3 (circles, solid line) and PH3 (squares, dotted line), comparing the lp—A—H umbrella angle for nuclei (0nuciei) and hybrids ( nho)- An inscribed triangle marks the equilibrium geometry for each molecule, and the dashed line marks the limit of perfect orbital... Figure 3.23 Bond bending in umbrella inversion vibration of NH3 (circles, solid line) and PH3 (squares, dotted line), comparing the lp—A—H umbrella angle for nuclei (0nuciei) and hybrids ( nho)- An inscribed triangle marks the equilibrium geometry for each molecule, and the dashed line marks the limit of perfect orbital...
Figure 19. Plot of Li isotopic composition vs. inverse Li concentration for lakes and basinal/oilfield brines. Lakes open circle = major global lakes (Chan and Edmond 1988 Falkner et al. 1997) semi-open circle = western U.S. closed basin lakes (Tomascak et al. 2003). Oilfield brines inverted triangle = Williston basin, Saskatchewan (Bottomley et al. 2003) diamond = Israeli oilfields (Chan et al. 2002d). Mine waters (Canadian Shield basinal brines) square = Yellowknife, NWT (Bottomley et al. 1999) triangle = Sudbury, Ontario, area (Bottomley et al. 2003) star = Thompson, Manitoba, area (Bottomley et al. 2003). Average composition of seawater is included for reference. Figure 19. Plot of Li isotopic composition vs. inverse Li concentration for lakes and basinal/oilfield brines. Lakes open circle = major global lakes (Chan and Edmond 1988 Falkner et al. 1997) semi-open circle = western U.S. closed basin lakes (Tomascak et al. 2003). Oilfield brines inverted triangle = Williston basin, Saskatchewan (Bottomley et al. 2003) diamond = Israeli oilfields (Chan et al. 2002d). Mine waters (Canadian Shield basinal brines) square = Yellowknife, NWT (Bottomley et al. 1999) triangle = Sudbury, Ontario, area (Bottomley et al. 2003) star = Thompson, Manitoba, area (Bottomley et al. 2003). Average composition of seawater is included for reference.
An improved and direct correlation between the experimental rate constant and [obtained using Eq. (49)] is observed if v = /zd is used instead of v = 1/Tt, the solvent-dependent tunneling factor is utilized, and only AG (het) of Eq. (8) is used in Eq. (49) (see triangles in Fig. 18). Furthermore, the inverse of the longitudinal solvent relaxation time Xi is not necessarily the relevant one to use as the frequency factor v (see empty circles in Fig. 18). Similar conclusions were reached by Barbara and Jerzeba for the electron transfer reaction in homogeneous solutions. Barbara and Jerzeba measured the electron transfer time... [Pg.108]

Fig. 1.3 Relaxation map of polyisoprene results from dielectric spectroscopy (inverse of maximum loss frequency/w// symbols), rheological shift factors (solid line) [7], and neutron scattering pair correlation ((r(Q=1.44 A )) empty square) [8] and self correlation ((t(Q=0.88 A" )) empty circle) [9],methyl group rotation (empty triangle) [10]. The shadowed area indicates the time scales corresponding to the so-called fast dynamics [11]... Fig. 1.3 Relaxation map of polyisoprene results from dielectric spectroscopy (inverse of maximum loss frequency/w// symbols), rheological shift factors (solid line) [7], and neutron scattering pair correlation ((r(Q=1.44 A )) empty square) [8] and self correlation ((t(Q=0.88 A" )) empty circle) [9],methyl group rotation (empty triangle) [10]. The shadowed area indicates the time scales corresponding to the so-called fast dynamics [11]...
Figure 8. Formation energy versus Li concentration for three structures of Mn oxide (top) and Co oxide (bottom) ( ) 5-LiJM204-labeled spinel, (0) 7-LiJMn02-labeled layered, and (+) partially inverse spinel structure with 1/4M tetrahedral (ps-(LiJM)tet(LijM3)oct08 0 < x< 1 and 0 < y < 2) labeled 1/4 Mn tet. As the Li content is increased, the Li is added to the tetrahedral site first of p5-(LiJM)ter (LijM3)octOs, and then to the octahedral sites. For Mn, there also is the energy of (a) a structure with one-sixth of the Mn in tetrahedral sites at Xu =1/3 labeled 1/6 Mn tet with a triangle data point and (x) a structure with one-eighth of the Mn in tetrahedral sites at Xu =1/4 labeled 1/8 Mn tet. Figure 8. Formation energy versus Li concentration for three structures of Mn oxide (top) and Co oxide (bottom) ( ) 5-LiJM204-labeled spinel, (0) 7-LiJMn02-labeled layered, and (+) partially inverse spinel structure with 1/4M tetrahedral (ps-(LiJM)tet(LijM3)oct08 0 < x< 1 and 0 < y < 2) labeled 1/4 Mn tet. As the Li content is increased, the Li is added to the tetrahedral site first of p5-(LiJM)ter (LijM3)octOs, and then to the octahedral sites. For Mn, there also is the energy of (a) a structure with one-sixth of the Mn in tetrahedral sites at Xu =1/3 labeled 1/6 Mn tet with a triangle data point and (x) a structure with one-eighth of the Mn in tetrahedral sites at Xu =1/4 labeled 1/8 Mn tet.
Gases, partial derivatives, triangle relation, inverse relation, total differential Properties (Heat capacity, thermal expansion coefficient, isothermal expansivity coefficient)... [Pg.297]

Figure 3. Gel permeation data for linear randomly coiled polypeptides on various agarose resins, plotted according to the method of Ackers (9). M0 555 is plotted vs. the inverse error function complement of Kd (erfc 1 Kd). Lines drawn through the data points represent best fits obtained from linear least-squares analysis of the data. Numerical designation of each curve represents the percent agarose composition for the resin used. Filled triangles on the curve for the 6% resin, and the filled squares on the curve for the 10% resin are points determined using fluorescent proteins. Data for the labeled polypeptides were not included in the least-squares analysis. Figure 3. Gel permeation data for linear randomly coiled polypeptides on various agarose resins, plotted according to the method of Ackers (9). M0 555 is plotted vs. the inverse error function complement of Kd (erfc 1 Kd). Lines drawn through the data points represent best fits obtained from linear least-squares analysis of the data. Numerical designation of each curve represents the percent agarose composition for the resin used. Filled triangles on the curve for the 6% resin, and the filled squares on the curve for the 10% resin are points determined using fluorescent proteins. Data for the labeled polypeptides were not included in the least-squares analysis.

See other pages where Inverse triangle is mentioned: [Pg.306]    [Pg.307]    [Pg.307]    [Pg.155]    [Pg.220]    [Pg.388]    [Pg.384]    [Pg.388]    [Pg.306]    [Pg.307]    [Pg.307]    [Pg.155]    [Pg.220]    [Pg.388]    [Pg.384]    [Pg.388]    [Pg.267]    [Pg.172]    [Pg.202]    [Pg.253]    [Pg.68]    [Pg.510]    [Pg.190]    [Pg.124]    [Pg.721]    [Pg.126]    [Pg.721]    [Pg.310]    [Pg.252]    [Pg.320]    [Pg.189]    [Pg.407]    [Pg.53]   


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