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Structures and Properties of the Coating for SPEEK/WPU CHEN Jianbing1, 2, a, GUO Qiang1*, b (1.
Department of Chemistry and Food Science, Chizhou College, Chizhou 247000, China) aE-mail:chjb8008@163.com, *bE-mail: qguo2shu@gmail.com, Keywords: SPEEK (sulfonated poly (ether ether ketone)); WPU (waterborne polyurethane); coating; structure and properties; Abstract: SPEEK can be dispersed in water as well as WPU, so the coating for SPEEK/WPU can be obtained in the water, and its films were investigated on the structures and properties by SEM, TGA, Shore Durometer and so forth, the results show that SPEEK as a micro-phase can disperse in WPU phase, and there is a good thermal stability when the temperature is below 290℃, and there is good improvement on the hardness of the films of coating that is about 60HA-65HA.
Polymer Science: Part A Polymer Chemistry, Vol.34, (1996) , p.1096

Study of an Inorganic Ion Exchanger AlFe(PO4)2 Jinhe Jiang MicroScale Science Institute , Department of Chemistry and Chemical Engineering ,Weifang University, Weifang, 261061,China Corresponding author.
Chemical composition, structure and some related properties and complex mechanism of this ion exchanger are investigated by electron microscopic, X-ray diffraction and chemical methods.
In this paper, the discussion is about the synthesis, structure and ion exchange of the Li-Ti composite oxide inorganic ion exchanger of AlFe(PO4)2.
The structure of compound metal oxide AlFe(PO4)2 crystallized at 720℃ was much perfect.
References [1] Z.S.Peng, Y.S.Yan, C.Y.Jiang, C.R.Wan, H.C.Gao: Advance on extraction lithium from salt lake, J.Chemistry Online. 1997, (12), 11 [2] Y.F.Liu, Q.Feng, Kenta Ool: Li extraction/insertion reaction with LiAlMnO4 and LiFeMnO4 spinels in the aqueous phase, J.Journal of Colloid and Interface Science . 1994, 163(1), 130 [3] D.Q.Dong, J.Zhong, D.L.Liu, Y.F.Liu: LiCu0.5Mn1.5O4 synthesis and Li+ extraction/reaction with it in the aqueous phase, J.China Journal of Applied Chemistry . 1998, 15(3), 11 [4] D.Q.Dong, F.B.Zhang, G.L.Zhang, Y.F.Liu: LiMg0.5Mn1.5O4 synthesis and its selectivity to Li+ exchange, J.Chinese Journal of Inorganic Chemistry. 2004, 9(9), 20

Ozone chemistry for BEOL resist stripping - A systematic analytical attempt to understand the interaction of O3 with modern DUV-resists Mathias Guder1a, Maren Pellowska, Maximilian Pohland, Michael Dalmer2c Bernd Kolbesen1b 1 Goethe University Frankfurt/Main, Institute of Inorganic and Analytical Chemistry, Max-von-Laue-Str. 7, D-60438 Frankfurt, Germany 2 SEZ AG, SEZ-Straße 1, A-9500 Villach, Austria a m.guder@chemie.uni-frankfurt.de, bkolbesen@chemie.uni-frankfurt.de, cM.Dalmer@at.sez.com Keywords: ozone, radicals, decomposition, radical trapping, resist characterization Introduction This work deals with the application of ozonated water for the BEOL stripping of DUV-resists.
The aim is to be able to determine the concentrations of O3, its decomposition, under the influence of various parameters, and to correlate these data with the polymer structure of the resist on the wafer and the efficiency of resist removal.
Knowledge of the resist composition enables the assignment of peaks to functional groups of the components of the resist and allows the determination of chemical structures and the changes they undergo.

Synthesis and Crystal Structure of the Cobalt (Ⅱ) Complex with Mixed-Ligand Yan YANG1,2,a*, Liu-Ting YAN2,b, Xiao LI 1,c, Rong-Huan QIN1,d, Wen-Gui DUAN2,e 1 School of Chemistry and Material, Yulin Normal University, Yulin 537000, People's Republic of China 2 School of Chemistry and Chemical Engineering, Guangxi University, Nanning 530004, People's Republic of China ayy135175@163.com, bYLT.7801084@163.com, cleex@126.com, dhuan-2000@126.com, dwgduan@gxu.edu.cn.
Keywords: Cobalt(II) Complex, Mixed-Ligand, Crystal Structure Abstract.
formed in the crystal structure of 1.
Fig. 1 - 3 illustrate the structure of 1.
SHELXL-97, Program for Crystal Structure Refinement, University of Göttingen, Göttingen (Germany 1997)

Clearly, many of these factors reside within the interfaces linking the product ferrite to the parent phase; these factors may include interface chemistry (including segregation and co-segregation tendencies) interface structure, energy and related anisotropies, and interface mobility and associated anisotropies.
A large plessite grain containing aligned structure.
Ferrite growth under conditions of controlled decarburization: Studies of ferrite growth under conditions of controlled decarburization offer the possibility to deconvolute the different effects of interface structure and chemistry [37].
Growth of Widmanstätten ferrite and bainite: In attempting to sort out the various factors governing ferrite growth, it is helpful to separate those related to the structure and mobility of the interface from those that are chemistry-dependent (to the extent that this is possible).
It is also clear that further simultaneous observations of interface structure and chemistry will be of value in defining a correlation among structure, segregation potential and kinetic response.

Moreover, the crystal structure was evaluated for SnP, TiP and ZrP, and the relationships among the structure, conductivity and n were discussed.
Kreuer, Chemistry of Materials, 8 (1996), p. 610 [2] T.
Bjerrum, Chemistry of Materials, 15 (2003), p. 4896
Smith, Inorganic Chemistry, 8 (1969), p. 431
Laitenen, Inorganic Chemistry, 6 (1967), p. 1294

Charcoal structure with high purity was formed.
Charcoal structure with high purity was formed.
Radiation Physics and Chemistry, Vol 88. (2013), p. 32-37
Journal of Physical Chemistry Letter.
Coke and Chemistry, Vol 57. (2014), p. 18-23

Study on Application Model of Internet of Things for Green Manufacturing Yabin Fan and Hua Liu Department of Computer, Shijiazhuang University, 050035 Keywords: Internet of Things, Key Technology, Application Model, Exploration Abstract Internet of things is defined as a huge network combing with the Internet through using all kinds of information sensing equipments to collect all kinds of required information such as sound, light, heat, electricity, mechanics, chemistry, biology, and position.
Analyzed from the structure of networking and the superior controllable performances of Internet of things, Internet of things will be crucial in future computer application system.
Internet of things is defined as a huge network combing with the Internet through using all kinds of information sensing equipments to collect all kinds of required information such as sound, light, heat, electricity, mechanics, chemistry, biology, and position.
Such a simple network structure has the ability to simplify the composition of equipments superficially, but actually makes the space for the play of equipment's role weakened.
Therefore, analyzed from the structure of networking and the superior controllable performances of Internet of things, Internet of things will be crucial in future computer application system.

The coating is expected to alter both a surface chemistry and topography to improve the surface adhesion.
The molecular structure of gelatin, a natural biopolymer derived from collagen, is highly similar to that of collagen [4].
The crosslinking method can be used to stabilize the gelatin structure [7].
The XRD pattern (Fig 1b) revealed high crystallinity, and all diffraction peaks were identical to those of the hexagonal structure of standard HA (COD 9002214).
Journal of Materials Chemistry, 2004. 14(14).

For all the compositions the structure turns out to be tetragonal I4/mmm.
To date, most investigations have targeted materials with the perovskite structure.
J., Chemistry of Materials 2010, 22 (3), 660-674
C.; Greaves, C., Chemistry of Materials 2013, 25 (20), 4053-4063
J.; Hadermann, J.; Van Tendeloo, G.; Greaves, C., Journal of Solid State Chemistry 2002, 167 (1), 145-151