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Online since: December 2013
Authors: Z. Firuz, Syed Nuzul Fadzli Adam, S. Roslinda
Firuz2,c
1 Material Science, School of Applied Physics, Faculty of Science and Technology, Universiti Kebangsaan Malaysia
2 School of Materials Engineering, Universiti Malaysia Perlis
asyed.nuzul@unimap.edu.my, blinda@ukm.my, cfiruz@unimap.edu.my
Keywords: sol-gel synthesis, hybrid material, silica xerogels, mesoporous, composite
Abstract.
Because of that, sol-gel method permits the combination of the inorganic with organic materials to form a new class of material, which known as hybrid material.
Park: Journal of Applied Polymer Science Vol. 83 (2002), p. 1817
Bae: Journal Sol–Gel Science and Technology Vol. 16 (1999), p. 235
Ohgawara: Journal of Material Science Vol. 254 (1990), p. 4880–4885.
Because of that, sol-gel method permits the combination of the inorganic with organic materials to form a new class of material, which known as hybrid material.
Park: Journal of Applied Polymer Science Vol. 83 (2002), p. 1817
Bae: Journal Sol–Gel Science and Technology Vol. 16 (1999), p. 235
Ohgawara: Journal of Material Science Vol. 254 (1990), p. 4880–4885.
Online since: November 2011
Authors: Yu Chai Sun, Rou Xi Chen
Abstract: The desired phase-transition temperature and enthalpy of phase change materials are different in different application fields.
Introduction Phase change materials (PCM) take advantage of latent heat that can be stored or released from a material over a narrow temperature range.
References [1] Hua Li, Xiaoguang Ma,& Journal of Textile Research. 2007,28(1):68-80.
New Technique and New Technology·Research on Heat Processing Technology and Materials. 2010(6): 85~88. in chinese [6] B.
ZhenZhou: science and technology press of Henan. 1981 :171-172,431
Introduction Phase change materials (PCM) take advantage of latent heat that can be stored or released from a material over a narrow temperature range.
References [1] Hua Li, Xiaoguang Ma,& Journal of Textile Research. 2007,28(1):68-80.
New Technique and New Technology·Research on Heat Processing Technology and Materials. 2010(6): 85~88. in chinese [6] B.
ZhenZhou: science and technology press of Henan. 1981 :171-172,431
Online since: March 2023
Authors: Bruno Figueiredo, Paulo Mendonca, Mohamad Fouad Hanifa
Mat Journals, 1-7. (2017)
[2] J.S.N.
Fundamentals of Building Deconstruction as a Circular Economy Strategy for the Reuse of Construction Materials. applied sciences, 939. (2021) [4] L.C.
Journal of Cleaner Production, 785-794. (2019)
Journal of Cleaner Production, 241
Journal of Building Engineering, 2022.
Fundamentals of Building Deconstruction as a Circular Economy Strategy for the Reuse of Construction Materials. applied sciences, 939. (2021) [4] L.C.
Journal of Cleaner Production, 785-794. (2019)
Journal of Cleaner Production, 241
Journal of Building Engineering, 2022.
Online since: April 2014
Authors: Nik Mizamzul Mehat, Noor Syuhada Zakarria, Shahrul Kamaruddin
In Malaysia, especially, no viable recycling process appears to exist for these materials.
Journal of Applied Polymer Science.
Materials and Design.
Journal of Material Processing Technology, Vol.211(2011), p. 1989– 1994
Journal of Applied Polymer Science, Vol.83 (2002), p.1280-1287 [11] H.B.
Journal of Applied Polymer Science.
Materials and Design.
Journal of Material Processing Technology, Vol.211(2011), p. 1989– 1994
Journal of Applied Polymer Science, Vol.83 (2002), p.1280-1287 [11] H.B.
Online since: January 2015
Authors: Jun Liu, Hong Tao Mu, Xiang Mei Meng
Study on the Physical and Mechanical Performance of Graphite Foamed Cement-based Material
Jun LIU 1, a, Xiangmei MENG 1, b, Hongtao MU 1, c
1School of Materials Science and Engineering, Shenyang ligong University, Shenyang, China
a13940195514@163.com, b13478309492@163.com, c821386315@qq.com
Keywords: Graphite; Cement foaming; Physical and mechanical performance
Abstract.
Introduction In order to reduce the electromagnetic radiation of communication, computer and other electronic equipment as well as harm to human health, the research of absorbing material has become one of the hot research topics in materials science [1].
The current study of absorbing materials are mostly focused on military and absorbing materials for civil architecture research is relatively few, and multi-function and low cost are the key to building absorbing material application[2].
Experiments Raw Material 42.5R Portland cement, class I fly ash are the cementitious materials.
Reference [1] Limin Liang, Hongfa Yu, QingLing Wu, et al, Journal of Building Materials Vol.2 (2010), p.165 (in Chinese) [2] Danruo Dou, China Non-Metallic Mining Industry Herald Vol.5 (2004), p. 21 (in Chinese) [3] Xingwen Jia, Yajie Zhang, Jueshi Qian, et al, Journal of Functional Materials Vol.17 (2012), p. 2397 (in Chinese) [4] Xin Liu, Xiangxin Xue, Peining Duan, Journal of Materials and Metallurgy Vol.4 (2007,) p. 306 (in Chinese) [5] Bo Li, Yanqing Zhang, Fly Ash Comprehensive Utilization Vol. 2 (2014), p. 17 (in Chinese) [6] Jun Liu, Yunpeng Cui, Yuanquan Yang, et al, Materials Review Vol.4 (2014), p. 139 (in Chinese) [7] Zhu Bin, Mei Bingchu, Shen Chunhui, Journal of Wuhan University of Technology Vol.12 (2006), p. 11 (in Chinese) [8] Shi Yan, Shi Enqiang, Xin Desheng, et al, New Building Materials Vol.5 (2012), p. 66 (in Chinese)
Introduction In order to reduce the electromagnetic radiation of communication, computer and other electronic equipment as well as harm to human health, the research of absorbing material has become one of the hot research topics in materials science [1].
The current study of absorbing materials are mostly focused on military and absorbing materials for civil architecture research is relatively few, and multi-function and low cost are the key to building absorbing material application[2].
Experiments Raw Material 42.5R Portland cement, class I fly ash are the cementitious materials.
Reference [1] Limin Liang, Hongfa Yu, QingLing Wu, et al, Journal of Building Materials Vol.2 (2010), p.165 (in Chinese) [2] Danruo Dou, China Non-Metallic Mining Industry Herald Vol.5 (2004), p. 21 (in Chinese) [3] Xingwen Jia, Yajie Zhang, Jueshi Qian, et al, Journal of Functional Materials Vol.17 (2012), p. 2397 (in Chinese) [4] Xin Liu, Xiangxin Xue, Peining Duan, Journal of Materials and Metallurgy Vol.4 (2007,) p. 306 (in Chinese) [5] Bo Li, Yanqing Zhang, Fly Ash Comprehensive Utilization Vol. 2 (2014), p. 17 (in Chinese) [6] Jun Liu, Yunpeng Cui, Yuanquan Yang, et al, Materials Review Vol.4 (2014), p. 139 (in Chinese) [7] Zhu Bin, Mei Bingchu, Shen Chunhui, Journal of Wuhan University of Technology Vol.12 (2006), p. 11 (in Chinese) [8] Shi Yan, Shi Enqiang, Xin Desheng, et al, New Building Materials Vol.5 (2012), p. 66 (in Chinese)
Online since: July 2013
Authors: Jun Xiao Wang
Study on Sculpture based on New Materials
Junxiao Wang
Nanyang Institute of Technology, Nanyang, Henan, China 473000
Keywords: New Materials; Sculpture; Application; Research
Abstract.
New Materials Metallic Material.
Stainless steel material is the product of the development of science and technology, silver gray, very bright metal luster and albedo function.
The organic polymer materials are the last century has produced a new type of material.
The use of a wide range of contemporary sculpture materials, In addition to the above new materials, there are a lot of special materials, such as: language, text, photos, charts, sound, light, electricity, and even "people" as sculptural material.
New Materials Metallic Material.
Stainless steel material is the product of the development of science and technology, silver gray, very bright metal luster and albedo function.
The organic polymer materials are the last century has produced a new type of material.
The use of a wide range of contemporary sculpture materials, In addition to the above new materials, there are a lot of special materials, such as: language, text, photos, charts, sound, light, electricity, and even "people" as sculptural material.
Online since: June 2019
Authors: Liang Cun Qian, Xue Feng Sun, Rui Li
Materials Science and Engineering: B, 2007,139(2-3), 256-260
Journal of Materials Science: Materials in Electronics, 2015, 26(6), 3474-3478
Journal of Magnetism & Magnetic Materials, 2007, 308(1), 137-142
Journal of Materials Science Materials in Electronics, 2016, 27(12), 1-5
Journal of Magnetism & Magnetic Materials, 2002, 250, 92–97
Journal of Materials Science: Materials in Electronics, 2015, 26(6), 3474-3478
Journal of Magnetism & Magnetic Materials, 2007, 308(1), 137-142
Journal of Materials Science Materials in Electronics, 2016, 27(12), 1-5
Journal of Magnetism & Magnetic Materials, 2002, 250, 92–97
Online since: October 2011
Authors: Jian Ming Li, Jing Gui Wu
Effects of the different organic materials on the structure
and elemental composition of humus in black soil
Jianming Li1,a, Jinggui Wu1,b
1College of Resource and Environment Science, Jilin Agricultural University,
China 130118
aljmok1986@hotmail.com, bjgwu68@sohu.com(corresponding author)
Key Words: Structure, Elemental composition, Humic substance, Organic material
Abstract.
Apart from animal excrement, others organic materials significantly increased N content of HA.
Among different organic materials, only herb residues increased N of FA.
All of the organic materials significantly increased O content of HMi, and apart from herb residues, the N content of HMi in others organic materials were also significantly increased.
[10]Yanchun Xiao, Sen Dou: Chinese Journal of Analytical Chemistry(In Chinese), Vol.35(2007),p.1596-1600 [11]R.
Apart from animal excrement, others organic materials significantly increased N content of HA.
Among different organic materials, only herb residues increased N of FA.
All of the organic materials significantly increased O content of HMi, and apart from herb residues, the N content of HMi in others organic materials were also significantly increased.
[10]Yanchun Xiao, Sen Dou: Chinese Journal of Analytical Chemistry(In Chinese), Vol.35(2007),p.1596-1600 [11]R.
Online since: May 2013
Authors: Hong Pei Han
Ferromagnetic material of the nearly half-metallic alloy Co2TiGa
Hongpei Han1,a
1College of Electro-Information Engineering, Xuchang University, Xuchang, China
ahhp102@163.com, ahongpeihan@126.com
Keywords: Ferromagnetic material; Full-Heusler alloy; Material engineering; Half-metallic
Abstract.
Introduction Increased interest in the field of material engineering and spintronic material during the last decade [1] has intensified research on the so-called half-ferromagnetic materials.
This compound is somewhat peculiar in regards to its Curie temperature and magnetic moment because both values are the highest observed until now in this class of materials [12].
Chtchelkanova and D.M.Treger: Science Vol. 294 (2001), p. 1488
Ishida: Journal of Alloys and Compounds Vol. 499 (2010), p. 1
Introduction Increased interest in the field of material engineering and spintronic material during the last decade [1] has intensified research on the so-called half-ferromagnetic materials.
This compound is somewhat peculiar in regards to its Curie temperature and magnetic moment because both values are the highest observed until now in this class of materials [12].
Chtchelkanova and D.M.Treger: Science Vol. 294 (2001), p. 1488
Ishida: Journal of Alloys and Compounds Vol. 499 (2010), p. 1
Online since: July 2015
Authors: Eva Vejmelková, Pavla Rovnaníková, Dana Koňáková
The studied materials BP, BM, BM, BC, BS contained 10% of supplementary cementing materials (by mass of cement) as partial replacement of Portland cement.
Bulk densities of all materials were almost the same except for BZ.
Matrix densities were almost the same for all studied materials.
Plagge, Interlaboratory Comparison of Hygric Properties of Porous Building Materials, Journal of Thermal Envelope and Building Science 27, pp. 307- 325, 2004
Journal of Thermal Envelope and Building Science, 22, pp. 349-355, 1999
Bulk densities of all materials were almost the same except for BZ.
Matrix densities were almost the same for all studied materials.
Plagge, Interlaboratory Comparison of Hygric Properties of Porous Building Materials, Journal of Thermal Envelope and Building Science 27, pp. 307- 325, 2004
Journal of Thermal Envelope and Building Science, 22, pp. 349-355, 1999