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The designing process includes a comprehensive set of [1]: · Material relations (machines, equipment), · Human relations, · Time-related relations (optimization of works on the project, optimization of implementation) .
In general we can classify the designing as follows: [1]: · Set up (arrangement) of the time structure · Set up (arrangement) of the spatial structure The result of the time-line designing is a design of the production organization with proposed information and control systems.
Assessment of mechanized concrete processes Impact of Site Transportation Work Parameters macro-space conditions routes environment of the machines List of disposable alternatives within space Climatic Technological Work Environmental Occupational safety and conditions Procedures organization protection health protection List of disposable alternatives within time Economic parameters Alternative solutions of mechanized concrete processes Selection of optimal alternative of mechanized concrete processes Back-up alternatives Fig. 1.
References [1] ROCKSTROH, W.: “Technologické projekty I.II” (Technology projects I.II) Publishing by Alfa, 1972
ISBN 978-80-7399-479-2

Table 1.
Inflammation 0 – present 1 – absent 3.
Granulation tissue 0 – present 1 – absent 4.
Bone bridge 0 – absent 1 – narrow 2 – thick 17.
[20] Kaneko H, Arakawa T, Mano H, Direct stimulation ofosteoclastic bone resorption by bone morphogenetic protein(BMP)-2 and expression of BMP receptors in mature osteoclasts, Bone. 27(2000) 479-486

Table 1.
Fig. 1.
In contrast to cationic dyes, the decomposition of OG is slower and allows observing a bathochromic shift of the chromophoric peak from 479 to 492 nm.
During irradiation, the characteristic peaks at 479, 331, and 248 nm gradually decrease in intensity.
C1 (2000) 1

The processing schedule of the experiment is shown in Fig. 1.
The lowest shaping force (16.28kN) was obtained in processing 1.
Table 1 The results of hardness and erichsen test of CP-Ti Slab no Reduction Hardness values Erichsen values / mm 1 Sheet1-1 30% 261 5.91 Sheet 1-2 263 5.89 Sheet 1-3 258 5.98 2 Sheet 2-1 50% 293 4.83 Sheet 2-2 298 4.66 Sheet 2-3 295 4.73 3 Sheet 3-1 70% 385 3.76 Sheet 3-2 387 3.66 Sheet 3-3 383 3.82 (a) Processing 1; (b) Processing 2; (c) Processing 3 Fig. 5 Erichsen test curves of commercially pure titanium 3.3 Microstructural evolvement and cold forming properties Recrystallization annealing resulted in coarser microstructures [12].
References [1] Z.
A 725 (2018) 479-487.

The data are tabulated in Table 1.
2.47/502(S13) 0.090 H-2®L+1 (77%) 2.87/431(S8) 0.040 H-3®L (47%) 2.64/470(S15) 0.557 H®L+1 (69%) 2.94/421(S11) 0.090 H-3®L (36%) 3.41/364(S27) 0.360 H®L+4 (77%) 3.15/393(S14) 0.593 H®L+3 (60%) RP-Co(II) 2.87/506(S20) 0.023 H-4(A)®L(A) (69%) 2.52/491(S13) 0.622 H(A)®L(A) (43%) 2.98/479(S23) 0.063 H-1(B)®L+1(B) (68%) 3.10/400(S27) 0.072 H(B)®L+2(B) (31%) 3.07/475(S25) 0.511 H(A)®L+1(A) (34%) 3.24/383(S29) 0.421 H-5(A)®L(A) (28%) 3.95/362(S49) 0.387 H-6(A)®L+1(A) (26%) 3.29/377(S31) 0.049 H-2(A)®L+1(A) (76%) RP-Ni(II) 2.07/599(S7) 0.013 H-2®L (84%) 2.49/498(S6) 0.598 H®L+1 (79%) 2.44/508(S11) 0.067 H-2®L+1 (82%) 2.66/467(S7) 0.132 H-1®L+1 (84%) 2.59/479(S13) 0.528 H®L+1 (70%) 3.30/376(S16) 0.314 H-3®L+1 (70%) 3.39/365(S21) 0.364 H®L+3 (58%) 3.36/369(S19) 0.134 H-5®L+1 (85%) RP-Cu(II) 2.02/613(S10) 0.049 H(A)®L(A) (66%) 1.92/647(S8) 0.020 H(A)®L(A) (47%) 2.11/588(S11) 0.055 H-6(B)®L(B) (66%) 2.38/521(S13) 0.236 H(B)®L+1(B) (43%) 2.70/460(S14) 0.070 H-1(B)®L+1(B) (30%) 3.18/390(S24
) 0.164 H-5(A)®L(A) (51%) 3.10/397(S25) 0.252 H-1(B)®L+1(B) (44%) 3.22/384(S26) 0.328 H-1(B)®L+1(B) (33%) RP-Zn(II) 2.62/473(S4) 0.692 H®L (91%) 2.71/457(S1) 0.871 H®L (87%) 3.22/384(S10) 0.014 H-1®L+1 (89%) 2.82/439(S2) 0.002 H-1®L (96%) 3.28/378(S11) 0.007 H-2®L+1 (83%) 3.01/411(S4) 0.006 H®L+1 (97%) 3.45/359(S12) 0.402 H®L+3 (80%) 3.13/397(S5) 0.436 H®L+2 (85%) RP-Cd(II) 2.31/538(S2) 0.050 H-1®L (78%) 2.62/473(S1) 0.538 H®L (72%) 2.44/509(S4) 0.056 H-2®L+1 (74%) 2.88/430(S2) 0.190 H-1®L (59%) 2.69/461(6) 0.503 H®L+1 (56%) 3.11/398(S5) 0.483 H®L+2 (69%) 3.43/361(S16) 0.226 H®L+3 (82%) 3.32/373(S7) 0.017 H-1®L+2 (54%) RP-Hg(II) 2.17/570(S3) 0.093 H-1®L (71%) 2.23/557(S1) 0.373 H®L (90%) 2.51/493(S7) 0.209 H®L+1 (48%) 2.57/483(S2) 0.019 H®L+1 (95%) 3.36/369(S13) 0.246 H-3®L+1 (52%) 3.21/386(S6) 0.497 H-1®L (85%) 3.42/362(S15) 0.307 H-4®L+1 (44%) 3.45/359(S8) 0.013 H-1®L+2 (55%) Conclusion Ruhemann’s purple (RP) forms complexes having distinct absorption spectra with Cr(II), Mn
References [1] E.W.
Kobus, Zinc(II) chloride-methanol complex of 2-[(1,3-Dihydro-1,3-dioxo-2H-inden-2-ylidene)amino]-1H-indene-1,3(2H)-dionate(1-)sodium salt: a complex of Ruhemann's purple, Acta Crystallogr.

Bae 1,b, J.
Lee 1,c, D.
Kang 1,d, K.
Forum Vol. 475-479 (2005), p. 521
Forum Vol. 475-479 (2005), p. 457

In the Fig. 1(a), the peak 1764 cm-1 and 1099 cm-1 confirm the presence of the carboxylic ester (C=O) and ether (C-O-C) groups proving the block structure of PLA-PEG-PLA copolymer.
Scheme 1.
In the Fig 1(d), the peak at 1736 cm-1 was attributed to the aromatic group of cypermethrin.
And in Fig 1(c), the peak of carboxylic ester group and the peak of aromatic group of cypermethrin were stacked together at 1757 cm-1.
[9] Lobo F A, de Aguirre C L, Silva M S, Poly (hydroxybutyrate-co-hydroxyvalerate) microspheres loaded with atrazine herbicide: screening of conditions for preparation, physico-chemical characterization, and in vitro release studies, Polymer bulletin, 3 (2011) 479-495

The time ratios for two different incubations were varied, namely 1/2, 1/1, and 2/1.
Figure 1.
References [1] A.P.
Food Control 31(1):22-27
J Bacteriol 164 (1):479-483 [16] M.Chevalier, E.C.Lin, R.L.Levine (1990) Hydrogen peroxide mediates the oxidative inactivation of enzymes following the switch from anaerobic to aerobic metabolism in Klebsiella pneumoniae.

While at the 10 µm Fig.1.
Specimens at 1.4×10 -3s-1 and various temperatures Fig.4.
Specimens at 400 o C and various strain rates relatively high strain rate range 7.0×10 -3s-1�1.4×10-1s-1, the change of elongation with strain rate is rather small and the necking becomes more obvious at high strain rates.
References [1] T.
Forum, Vol. 475-479 (2005), p. 2923

Waste paper was cut in small pieces – approximately 1×1 cm.
Table 1.
Fig.1.
References [1] M.
Liu, Preparation of Nanocrystalline Cellulose Via Ultrasound and Its Reinforcement Capability for Poly(Vinyl Alcohol) Composites, Ultrasonics Sonochemistry. 19 (3) (2012) 479-485