Figure Sample Clauses

Figure. (a) If the applicant fails to make the indication referred to in Rule 3.3(a)(iii), or if the International Searching Authority finds that a figure or figures other than that figure or those figures suggested by the applicant would, among all the figures of all the drawings, better characterize the invention, it shall, subject to paragraph (b), indicate the figure or figures which should accompany the abstract when the latter is published by the International Bureau. In such case, the abstract shall be accompanied by the figure or figures so indicated by the International Searching Authority. Otherwise, the abstract shall, subject to paragraph (b), be accompanied by the figure or figures suggested by the applicant. (b) If the International Searching Authority finds that none of the figures of the drawings is useful for the understanding of the abstract, it shall notify the International Bureau accordingly. In such case, the abstract, when published by the International Bureau, shall not be accompanied by any figure of the drawings even where the applicant has made a suggestion under Rule 3.3(a)(iii).
Figure. 3 Growth of yeast cells expressing the wild-type adenosine A2B receptor or the N43S mutant receptor. Growth was measured in the absence (control) or presence of 10 µM NECA or 10 µM ZM241385. Each experiment was repeated 3 times, of which the means SEM are shown. *** p 0.001, student’s unpaired t test. Matlab was used to mimic the activation and inhibition of receptors with a high level of constitutive activity (L 1000). The a values were set from 100 for an agonist to 0.1 and 0.01 for inverse agonists. As shown in figure 4, it is hard to detect agonism and inverse agonism of a ligand on receptors with such a big L value. In other words, this receptor is locked in an active state and can not be further activated or inhibited.
Figure. Three-dimensional mesh of the percentage of maximum theoretical window for hypothetic inverse agonists with continuous intrinsic efficacy (a) values between 0.001 to 1 on hypothetic receptors with continuous ratios of active versus inactive receptors (L values) between 0.001 to 1000. In figure 8B, concentration-response curves are shown for receptors with L values of 0.01, 1, 10 and 100 for a strong inverse agonist with an a value of 0.001 (closed circles in figure 8A). Similarly, in figure 8C, concentration-response curves are shown for a weak inverse agonist with an a value of 0.1 (open circles in figure 8A). (z-axis) and the percentage of the maximum theoretical window (y-axis) can be visualized in a 3-D mesh (see Figure 8A). A series of bell-shaped curves represent the percentage of the maximum theoretical window that can be achieved when log a and log L are varied. This mesh shows that for a ligand with an a value between 0.001 and 1 an optimal theoretical window can be achieved for receptors with a log L value close to 1. Within the framework of the two-state receptor model, the theoretical window ( q0-qœ ) is calculated as L/(L+1)- aL/(1+aL) . An optimal theoretical window will be obtained when the relationship between the level of constitutive activity (L) of a receptor and the a value of the ligand obeys the following equation L = 1 equation 5 The 3-D mesh is composed of a series of bell-shaped curve according to the different intrinsic efficacies of a ligand. The maximum is achieved when L equals the reciprocal square root of
Figure. Effect of MSCs transplantation on cognitive rigidity (time of reversal learning after the platform was moved to the other arm).
Figure. 22 Relationship between Index (sum of EQRcpue an EQRbpue) and Natural land cover in the catchment. Full dots corresponding to reference sites. Open dots corresponding to disturbed sites. The blue line is the regression line. If we apply all the boundaries derived from the linear model, the distribution of sites into ecological classes is as follow: B P M G H More than 50% of sites appear in high status and the remaining sites are equally distributed in the other classes. Find below the distribution of sites into the 5 ecological classes regarding the reference/disturbed feature. Six reference sites had been assigned to status worse than good. We did not find any parameter in the database that could explain this result. Forty five percent of disturbed sites are assigned to high status and 14.5% to good one. Others are equally distributed in the remaining degraded classes. disturbed reference • using index values distribution Automatic clustering (the k-means method for example) can be used to create G/M, M/P and P/B boundaries. For index values below H/G boundary, k-means will build groups so as to get lower within groups variance. Boundaries values are then derived from minimum and maximum index values of adjacent groups: each observation is assigned to one group and the boundary corresponds to the mean between the minimum index value in a group and the maximum index value in the group below. By applying this approach we got 0.851 for G/M, 0.684 for M/P and 0.492 for P/B (Figure.23). Figure.23 Relationship between Index (sum of EQRcpue an EQRbpue) and Natural land cover in the catchment. Full dots corresponding to reference sites. Open dots corresponding to disturbed sites. The blue line is the regression line. If we set 1.03 as H/G boundary, sites are assigned into ecological classes as follows: B P M G H The percentage in each category is decreasing with status degradation. With these boundaries, no reference is assigned to bad status and only one to poor status (see below). Near 65% of sites not recognized as reference (disturbed) are at least in good status. disturbed reference However k-means method is not stable. Indeed it is closely related to dataset used. Adding new sites will probably give other boundaries. 4 Discussion‌ The present study demonstrated how hindcasting modelling of fish-based metrics enabled to assess lakes’ current conditions, even at a broader large scale than submitted by previous authors (▇▇▇▇▇ et al. 2005; ▇▇▇▇▇▇▇ and ▇▇▇▇▇▇ 19...
Figure. 6.3 shows the part of the prevailing winds from S and SSW directions pass through the site to ventilate the downstream areas. A local wind blockage may be captured at the north and northwest portions of the site along S and SSW wind directions.
Figure. Conceptual Framework model provides a comprehensive valuable knowledge to a cooperative system nature that exists between National and County governments in provision of Early Childhood Development Education, a case study of Nairobi County, Kenya. The framework had three inter- linked unit component that support each other to achieve a common goal. The first unit is legal framework and Resources, the second is the two levels of governments which sets the process and the third unit is product.  constitution  Acts  ECDE policies  International Declarations Process Provision of ECDE in Nairobi County  Harmonized legal/policies  Optimum utilization of resources  Ownerships  Improved efficiency  Human resources  Finance  Infrastructure
Figure. The function f is the boundary of the deformed region on the null horizon. The entire deformed region is its causal envelop A. Positivity of the second derivative of the relative entropy appears unexpectedly: ▇▇▇(λ) ≥ 0 See Ceyhan and ▇▇▇▇▇▇▇▇ ‘19. H complex ▇▇▇▇▇▇▇ space and H ⊂ H a closed, real linear subspace. Hr = {ξ ∈ H : =(ξ, η) = 0 ∀η ∈ H} H is cyclic if H + iH = H and separating if H ∩ iH = {0}. A standard subspace H of H is a closed, real linear subspace of H which is both cyclic and separating. H is standard iff H is standard. H standard subspace → anti-linear operator S : D(S ) ⊂ H → H, S : ξ + iη → ξ − iη, ξ, η ∈ H SH∗ = SH′ Set S = J∆1/2, polar decomposition of S = SH . Then J is an anti-unitary involution, ∆ > 0 is non-singular and
Figure. Categorization of All Adverse Events Figure .11-2 Categorization of All Serious Adverse Events
Figure. 4-1 explains the registration phase for the scheme after improvement. SCi/Ui Select identity IDi, password pwi, and random number bi. compute idbi = h (IDi || bi) < idbi > Via a secure channel Step A Step Compute Ri = h (idbi || ds) Smart card (Ri, Ep (a, b), P, h (.)) Via a secure channel Compute pwbi = h (pwi || bi ), Ai = Ri ^ h (pwbi || IDi), Li = h (IDi ^ pwbi), DP = bi ^ h (IDi || pwi) Delete Ri from SCS.tep Store Ai, Li and DP in SCi. SCi = {Ai, Li, DP, Ep (a, b), P, h (.)}