Search results

This collection of peer-reviewed papers brings together the latest advances and applications in the fields of composites, micro-/nano-materials, steel and iron, ceramics, metal-alloy materials, polymer materials, optical/electronic/magnetic materials, materials physics and chemistry, structural materials and functional materials.

Food Chemistry, Vol.124 (2011), p.551–555
Food Chemistry, Vol.101 (2007), p.163–170 [3] Yin, S.
Food Chemistry, Vol.103 (2007), p.1385–1394
Food Chemistry, Vol.118(2010), p.559–565
S et al.Journal of Agricultural and Food Chemistry,Vol.54(2006),p. 8945–8950

Determination of Transition Stages of Structure Formation by Experimental Data KERSH VLADIMIR1,A*, KOLESNIKOV ANDREY2,B, HLYTSOV NIKOLAY1,A, FOSHCH ALJONA1,C 1DEPARTMENT OF URBAN DEVELOPMENT AND MUNICIPAL ENGINEERING, ODESSA STATE ACADEMY OF CIVIL ENGINEERING AND ARCHITECTURE, STAROPORTOFRANKOVSKAYA ST., 28, ODESSA, UKRAINA 2DEPARTMENT OF CHEMISTRY AND ECOLOGY, ODESSA STATE ACADEMY OF CIVIL ENGINEERING AND ARCHITECTURE, DIDRYCHSONA ST., 4, ODESSA, UKRAINA AVKERSH@HOTMAIL.COM, BKOLESN@STIKONET.OD.UA, CNIKITKOS@GMAIL.COM KEYWORDS: GYPSUM, COMPOSITES, PLASTIC STRENGTH, EXPERIMENTAL DATA PROCESSING, STRUCTURE FORMATION, HARDENING, INITIAL SET, FINAL SET ABSTRACT.
Introduction One of the defining stages of the life cycle of building composite mixtures is generation of their structure - structure formation.
ANALYSIS OF RECENT RESEARCHES In the process of structure formation, the set of physical properties of the binder paste, closely related to the structure changes - strength, viscosity, plastic strength [1].
Structure formation in mineral binders, Kiev: Scientific Opinion, 1984 (in Russian), 300 p
Kinetics of topochemical reactions M.: Chemistry, 1974 (in Russian), 224 p

Fourier transform infrared spectrometer (GX-1, Perkin Elmer, USA) was employed to examine the chemical structure of CSR.
The dried raw sample had some dent structure but also remained a relatively dense surface.
Compare to the original sample, the IL-treated sample was endowed with looser structure.
Claudia: Green Chemistry, Vol. 11 (2009), p.417 [5] M.
Li: Industrial & Engineering Chemistry Research, Vol. 51 (2012), p. 6270 [10] R.C.

Synthesis and cytotoxic activity of salicyloyl hydrazone derivatives Xiaoyang Qiu1, a, An-Ran Shi2, Xiaoli Zhang1 1Department of Chemistry, Shangqiu Normal College, Shangqiu 476000, China 2College of Chemistry and Chemical Engineering, Nanjing University of Science and Technology, Nanjing 210016, China aE-mail: qiuxiaoyang12@163.com Keywords: salicyloyl hydrazone derivatives, cytotoxic activity, structure–activity relationships Abstract.
Their structures were characterized by melting point, 1H-NMR, ESI-MS and elemental analyses.
However, there are few publications about their cytotoxic activity and structure-effect relationships.
On the basis of the experimental data, structure-effect relationships were discussed.
All of the products gave satisfactory analytical and spectroscopic data, which were in the full accordance with their depicted structures.

Permeability of rapid prototyped artificial bone scaffold structures Marcin Lipowiecki1, Marketa Ryvolova1,2, Akos Tottosi1, Sumsun Naher1 and Dermot Brabazon1* 1 School of Mechanical and Manufacturing Engineering, Dublin City University, Glasnevin, Dublin, 9, Ireland 2 Department of Chemistry, Faculty of Science, Masaryk University, Kotlářská 2, Brno, Czech Republic 1* Dermot.Brabazon@dcu.ie Keywords: Permeability, porosity, artificial scaffold, bone tissue, surface tension, rapid prototyping Abstract.
The newly determined corrected C factors, C = 0.06 for the cubic structures and C = 0.11 for the hexagonal structures, were used in the Kozeny-Carman model to determine the permeabilities of these structures.
In particular the cubic structure showed permeability values ranging from 1× 10-8 m2 to 2× 10-9 m2 for these structures.
The permeability depends on the surface area of the whole structure, on the material surface, the internal structure, and on the applied flow fluid.
Uretz, Clinical Chemistry 1996, 42, 1189-1195

Finally, flower-like TiO2 hierarchical structures with a diameter of 2 ~ 2.3 μm are assembled by these petal-like structures.
The electrochemical properties of the flower-like TiO2 hierarchical structures were studied by using these hierarchical structures as the anode material in a lithium-ion battery.
Journal of Physics and Chemistry of Solids. 145 (2020) 109552
Journal of Electroanalytical Chemistry. 863(2020) 114088
Pure & Applied Chemistry. 57(1985) 603-619

Water chemistry from two drainage inlets at Namsan #3 tunnel.
However, chemical additives and ion-exchange can affect water chemistry.
Chujo: Chemistry of Materials Vol. 13 (2001).
Aizenberg: Chemistry of Materials Vol. 20 (2008).
Epple: Journal of Inorganic and General Chemistry Vol. 634 (2008).

Etching chemistry was HF 0.5% at 30°C.
shows an etch profile of two ONO structures, the first one with an annealed LPCVD top oxide and the second one with thermal top oxide, obtained by in-situ steam oxidation of the nitride.
Figure 2 Figure 2: Etch profiling of thermal and CVD top oxide ONO structures 0 20 40 60 80 100 120 140 1:0.02 1:0.1 1:0.5 1:1 1:2 Bottom Oxide Nitride Selectivity with thermal oxide Depth (Å) Thermal Top Oxide CVD Top Oxide Top Oxide Abscissa represents the depth from the top of the structure (Di).
In this case two etching chemistries were used for profiling: HF 0.3% and a highly diluted BOE mixture.
Indeed, after the annealing treatment the etching rate becomes so low that it requires a different etching chemistry.

Particle size distribution in PMAG/Fe2+ The structure of the coordination unit of the obtained complexes is shown in Fig. 3.
Taov, Biocide and toxicological properties of synthesized guanidine containing polymer and their structure.
Modern Tendencies in Organic and Bioorganic Chemistry: Today and Tomorrow.
Dolbin, Study of complexes of polymethacrylateguanidine with magnesium ions, Fibre Chemistry. 50-1 (2018) 49
Khashirova, Peculiarities of radical polymerization reactions of acrylate-and methacrylate guanidines, Modern Tendencies in Organic and Bioorganic Chemistry: Today and Tomorrow.