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Lemm, Fiber-Reinforced Concrete: Principles, Properties, Developments and Applications (Building Materials Science), William Andrew; The illustrated edition Feb, 1990
Durachenko, High-Strength Fiber-Reinforced Concrete Containing Technogenic Raw Materials and Composite Binders with Use of Nano-dispersed Powder, Research Journal of Applied Sciences. 9 (2014) 1153 – 1157
Durachenko, Fine-Grain concrete reinforced by polypropylene fiber, Research Journal of Applied Sciences. 10 (10) (2015) 624 – 628
Durachenko, The Development of textile fine-grained fiber concrete using technogenic raw materials, Research Journal of Applied Sciences. 10 (10) (2015) 701 – 706
Klyuev Fiber Gypsum Concrete Composites with Using Volcanic Tuff Sawing Waste, ARPN Journal of Engineering and Applied Sciences. 13 (8) 2018 2935 – 2946.

Xu and Barrans, S., JSME International Journal: Series A: Solid Mechanic and Material Engineering, Vol. 46 (2003), P. 51-59 [3] Q.
Sun, International Journal of Mechanical Science, Vol. 76, (1999), P. 515-525 [8] T.
Hayhurst, J.Lin, and R.J.Hauhurst, International Journal of Solide and structures, Vol. 45, (2008), P. 2233-2250 [14] J.
Kostenko, Materials Science and Engineering A 510-511, (2009), P. 169-174 [19] T.
Andersson, Computational Materials Science, Vol 25(1-2), (2002), P. 34-41 [21] W.Sun, T.H.

Zhang, Journal of Functional Materials, 37 (2006) 4
Jiang, Journal of Functional Materials, 37 (2006) 5
Grunwald, Materials & Design, 28 (2007) 10
Wereley, Smart Materials and Structures, 17 (2008) 25-24
Ai, Journal of　Functional Materials, 7 (2006) 37.

Materials with complex behaviors require complex models with a higher number of parameters, resulting in expensive and time-consuming experimental campaigns [1].
Computational Materials Science, 43(4):752-758, oct 2008
Journal of Applied Mechanics, Transactions ASME, 87(8):1-8, 2020
Springer Science & Business Media, 2012
International Journal of Mechanical Sciences, 145:330 - 345, 2018.

Experiment Materials The Ordinary Portland cement, locally available sand, crushed granite rock and water with the ratio of 66.3:06.2:5.0:0.1 by weight are used for making the concrete.
The CFL is bonded to the tension face of the concrete beam, shown as Fig.1. 100 1850 1600 200 CFL steel bar concrete Fig.1 RC beam strengthened with prestressed CFL Experimental program 4 RC beams are prepared by the materials described upper.
Acknowledgments This research project is supported in part by the National Natural Science Foundation of China (10672060, 10272047), the China Postdoctoral Science Foundation (20060400757) and SCUT Postdoctoral Innovation Science Foundation.
Key Engineer Materials, 2004, 274-276: 1159-1163
Journal of Mechanical strength, 2004, 26(s): 025-027

As a result, the efficiency of granular carbons made from different materials for removing odor compounds was discussed in this article.
Material and experimental methods Instrument.
Generally, in Frenudlich equation about one kind GAC adsorption of different materials, K is a parameter that represent adsorption capacity, the value of K is larger the adsorption capacity become larger. 1/n is adsorption capacity index, it shows variation of velocity of adsorption.
Table 2 showed maximum adsorption capacity of three granular carbons made from different materials such as coal, coconut shell and jujube seed.
:Environmental pollution & control,Vol.28 (2006), p.631 [7] MA Xiao-yan,GAO Nai-yun,LI Qing-song etc.: Journal of instrumental analysis, Vol.26(2007), p.267 [8] Ye Zhenhua, Chemical Separation Engineering (China Petrochemical Press Publications, China,1992) [9] Gao Naiyun, Yan Min, Le Linsheng: Enhanced Treatment of Potable Water(Chemical Industry Press Publications, China, 2005), [10] Xu Jianhua: Special Treatment for Water(Tongji University, China,2000) [11] Anna Bembnowska, Robert Pelech, and Eugeniusz Milchert: Journal of Colloid and Interface Science, Vol.265 (2000), p.276

Internet of things (IoT) is an important part of the new generation of information technology; the name suggests that IoT is the internet of material connecting to material.
The clients exchange their information and communication between materials to any other materials.
Journal of Intelligent Manufacturing, 2003,14, (1) :59-82
Journal of Control Theory and Applications,2008,6(3): 267-272
Journal of Network and Systems Management,2000,8(4): 499-525

Elastic-plastic Deformation of Milling Thin Wall Part Aijun Tang1,2, a, Hailong Ma2,b and Zhanqiang Liu3,c 1 School of Material Science & Engineering, Shandong University, Jinan, China 2 College of Mechanical and Electronic Engineering, Shandong Jianzhu University, Jinan, China 3School of Mechanical Engineering, Shandong University, Jinan, Shandong Province, China atajsmile@sdjzu.edu.cn, bmahailong@sdjzu.edu.cn, cmelius@sdu.edu.cn Keywords: Elastic-plastic deformation; Thin wall part; Milling Abstract.
The material of the workpiece is aluminum alloy with a shear modulus (i.e. shearing stress ratio strain) of 26GPa and a Poisson’s ratio of 0.33.
Acknowledgement The authors are grateful to the National Science and Technology Major Project (No.2012ZX04003-041), National Natural Science Foundation of China (No.51105233), National Post-doctoral Foundation (No. 2011M501126), Special Fund for Shandong Provincial Post-doctoral Innovative Programs (No.201003074), University Scientific Research Development Plan of Shandong Province (No.J12LB06, No.J11LD09).
Ratchev, S.Liu, A.A.Becker: Error compensation strategy in milling flexible thin-wall parts, Journal of Materials Processing Technology, 162-163(2005): 673–681
[3] He Ning, Wang Zhigang, Jiang Chengyu, et al: Finite element method analysis and control stratagem for machining deformation of thin-walled components, Journal of Materials Processing Technology, 139(2003): 332–336

Wang: Journal of Aeronautical Materials, Vol. 26 (2006), p. 244-250 [2] S.F.
Yan: Journal of Aeronautical Materials, Vol. 23 (2003), p. 233-238 [3] W.M.
Ridgway: Journal of Materials Processing Technology, Vol. 200 (2008), p. 424-432 [5] A.
Thomas: Materials Science and Engineering A, Vol. 458 (2007), p. 195-201 [8] R.
Yang: Journal of Materials Processing Technology, Vol. 207 (2008), p. 180-186

The future trend in thermo-conversion processing of the biomass is the utilization of microwave energy into renewable bio-fuels, materials and chemicals.
The potential of uses of bio-oils and bio-chars from oil palm solid wastes for biofuels, materials and chemicals are given.
The applications of these renewable sources to produce biofuels, materials and chemicals have been applied in some countries around the world.
The oil palm shell char could be used to make activated carbon for water treatment and gas adsorbent materials, nano-materials for gas separation and storage (ANG), microwave absorbent materials.
Plasma Sources Science and Technology, 15 :S26-S34