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Materials and Methods Site description.
Material analysis and calculation.
Acknowledgements This work was financially supported by the Natural Science Foundation of Heilongjiang province (C200910).
References [1]Yunlong Liu, Jun Lv, Renchao Wang: Journal of Soil Water Conservation Vol. 15(2001), p. 64-67, in Chinese
[2]Zhixin Zeng, Jun Luo, Lihong Yan et. al: Journal of Hunan Forestry Science and Tehnotogy Vol. 26(1999), p. 26-29, in Chinese

Material and methods Insects and rearing conditions.
Before placing them in a cryogenic refrigerator (-40 ˚C) to be determined, wrap them with insulation materials (such as cotton).
Fu: Journal of Tropical Organisms Vol. 1 (2010), p. 27 [6] G.Y.
Zheng: Journal of Environmental Entomology Vol. 32 (2010), p. 380 [9] W.J.
Bai: Chinese Journal of Tropical Crops Vol.32 (2011), p. 1537 [14] K.

The effect of the different raw-material quality used at the beginning of run A was detected after 15h.
After about 55h,the process returned to its normal state mainly because the effect of the different raw-material quality was more evident throughout the microorganism growth phase (between 15 and 55h).
Summary The work is supported by the National Natural Science Fund　Program of China－Researches on Multivariate Statistical Monitoring of Batch Process Based on Recursive Multi-model Kernel Multi-way Fisher Discriminant Analysis (61174123) and the Guangdong Province Natural Science Fund　Program- Researches on Industry Process Monitoring Based on Multivariate Statistical Approach (9151063101000043).
References [1] Nomikos P, MacGregor J F.: Monitoring batch process using multi-way principle component analysis, Journal of America Institute Chemical Engineer, Vol. 40(8) (1994), p. 1361-1375 [2] He Ning, Wang Shuqing, Xie Lei: An improved adaptive MPCA for monitoring streptomycin fermentation process, Journal of Chemical Industry and Engineering (China), Vol. 12(1) (2004), p. 96-101 [3] Jong-Min Lee, Chang Kyoo Yoo, In-Beum Lee: Enhanced process monitoring of fed-batch penicillin cultivation using time-varying and multivariate statistical analysis, Journal of Biotechnology, Vol. 110 (2004), p. 119-136 [4] M.
Romagnoli, Ahmet Palazoglu: A robust strategy for real-time process monitoring, Journal of Process Control, Vol. 11 (2001), p. 343-359 [7] Q. chen, R.

Materials and Methods Study Site.
Plant Material.
Pihlaja: Journal of Chemical Ecology 32(7) (2006), p. 1445-1458 [4] E.
Huang: Southwest China Journal of Agricultural Sciences 21(3) (2008), p. 633-635 In Chinese [6] L.D.
Ye: Chinese Agricultural Science Bulletin, 28(13) (2012), p. 24-31 In Chinese [14] L.S.

Experiment Instruments and materials.
Calculating formula for experimental results : The reactant conversion rate: (1) The product selectivity: (2) The yield of production: (3) Where, Xm: the conversion rate of the raw material m (m for CO, H2, CO2 or (CO + CO2))，%；S: the DME selectivity（the amount of reactant consumed divided by the consume of the quantities of the reactants by aimed products），%；Y: yield of production p (p for methanol, CO2 and DME) , %; Nm,0: the initial molar number of reaction material m, mol; Nm: the molar number of materials m at the end of the reaction, mol ; Np: the molar number of product p , mol. 1-six-way valve, 2-chromatographic column A, 3-chromatographic column B 4-TCD 5-soda asbestos column Fig.2 Schematic Diagram of Gas Pathway System for GC Analysis The total carbon conversion rate were as follows: (4) Where, NCO,0, NCO respectively
Journal of Wuhan University of Technology, 2002, 26(6)767-769.In Chinese [2] W.B.Wu, L.Chen, X.W.Wu: The kinetic study of catalytic synthesis of DME by C301 /P -γ- Al2O3[J].Natural Gas Chemical Industry, 2008, 37(12)1436-1439.In Chinese [3] F.E.Song: Study on preparation of dimethyl ether from biomass-deriver syngas[J].
Journal of Fuel Chemistry and Technology, 2010, 38(1)102-107.In Chinese [7] Fujimoto K,Asami K,Shikada T,etal: Selective Synthesis of Dimethyl Ether from Synthesis Gas[J]Chem Lett, 1984(12)2051-2054
Kunming University of Science and Technology, (2008).In Chinese [13] L.Chen: Study on the Technology of Synthesis Dimethyl Ether with Catalyst by Phophorus Modified[D].

Acknowledgements The work was supported financially by the Ministry of education and science of Russian Federation (project 14.Y26.31.0003), the Far-Eastern Branch of the Russian Academy of Sciences (project 15-I-4-021), the Far Eastern Federal University.
Lutsenko, Numerical Comparison of Gas Flows through Plane Porous Heat-Evolutional Object with Axisymmetric One when Object's Outlet is Partially Closed, Advanced Materials Research 1040 (2014) 529-534
Sorokova, Numerical Method for Investigation of 1D Processes in Porous Media with Heterogeneous Reactions when Flow Rate of Oxidant Regulates Itself, Advanced Materials Research 880 (2014) 115-120
Sorokova, Numerical Comparison of Heterogeneous Combustion Waves in Horizontal and Vertical Porous Objects under Free Convection, Advanced Materials Research 880 (2014) 109-114
Advanced Materials Research 1040 (2014) 559-564.

Materials Science Forum Vols. *** (2004) pp.644-648 online at http://scientific.net  2004 Trans Tech Publications, Switzerland Study on Hole Making in EACVD Thick Diamond Film D.W.
In this paper, pulsed YAG laser was used to make through-holes in the EACVD thick diamond film, where the Materials Science Forum Vols. *** 645 frequency was kept constant and the pulse power was changed from 2.1J to 4.5J.
Boron concentration in source gas (ppm) Resistivity (×10-2 Ω·cm) Relative Boron cont. 30 20 10 0 Materials Science Forum Vols. *** 647 doped film, which is almost similar with un-doped one as shown in Fig.2.
No.1 No.2 0 5 10 15 20 25 30 70 250 500 I=10A I=15A Holing rate (µm/min) Pulse width (µs) 200µm Advances in Materials Manufacturing Science and Technology 648 (a) (b) Fig.9 Affected surface and its Raman spectra Conclusions Hole making experiments were carried out by means of YAG laser and EDM, where the work material used was EACVD diamond.
Materials Vols. 259-260 (2004), p. 517 [2] D.W.

Main materials:Fluid——The fluid in the experiment is from in the North area of ChangQing oilfield.
Analysis of environmental effect: The environmental effect caused by the drilling mud can be summarized as the following[12-13]: a.The mobility and dispersity characteristic of drilling operation results in big polluted areas, wide region; b.The high pH, soluble salt and oil would affect the soil structure, the soil near the well would turn to chocolate brown harden, and destroy the growth of plants there; c.Hazard heavy metals(Cr6+,Cd2+,Pb2+) , nonsecretable organic materials and polymer are ready to come into the food-chain, and accumulated in the body of animals and plants, and do harm to the human health and life.
Journal of Mineralogy and Petrology[J], 2003,23(1):109—112
Rheological behavior of drilling muds, characterization using MRI visualization .Oil and Gas Science and Technology[J].2004,59(1):23—29
Oil and Gas Science and Technology, 2004,59(6):625—647

Finite Element Analysis of the Heat Transfer Problems of PCMs Yi Zhang a, Bin Huang b and Dongxu Li c College of Material Science and Engineering, Nanjing University of Technology, Nanjing 210009, Jiangsu, China azynjut@163.com, bguaniu_hb@163.com, cdongxuli@njut.edu.cn Keywords: PCMs phase change gypsum board, Heat transfer performance, Simulation analysis.
The simulation results showed that the heat transfer rate of composite PCMs(phase change materials) is higher than the PCMs, the mixture of diatomite improved the heat transfer performance of PCMs.
Materials and sample preparation Lauric acid(LA), Chemical Pure, Sinopharm Chemical Reagent Co., Ltd.
Qarnia, Numerical analysis of the thermal behaviour of a shell-and-tube heat storage unit using phase change materials, Applied Mathematical Modelling, 33 (2009) 2132-2144
Tan, Study on preparation and thermal property of binary fatty acid and the binary fatty acids/diatomite composite phase change materials, Applied Energy 88 (2011) 1606-1612

Additionally to the substitution of natural aggregate by recycled materials, cement was substituted by the recycled materials like supplementary cementitious which were able to prepare sustainable concrete or mortar.
Materials 2.1.1.
Sohn International Symposium Advanced Processing of Metals and Materials. 5 (2006) 479–483
Samar, Improved behaviour of mortars at a high temperature by using refractory brick wastes, International Journal of Microstructure and Materials Properties. 10 (2015) 366-380
Residual properties of concrete containing recycled refractory brick aggregate at elevated temperatures, Journal of Materials in Civil Engineering. 30 (2018), 04017255