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Online since: March 2014
Authors: Wen Bin Zhang, Jie Min, Hai Sheng Wang, De Wei Guo
Numerical simulation of the loosening defect
When the procedure of plastic processing is simulated, it is always assumed that the material cannot be compacted.
The forging process of DEFORM finite element software provided with the properties of porous material to provide the possibility of loose defect.But the material with such attributes is always used for simulating the procedure of powder metallurgy.
Ingot material is 30Cr2Ni4MoV.
International Journal of Mechanical science, 1984,102-118 [5] Xianghua Liu, Guangruan Bai.
Metal science and technology,1986,30-32
The forging process of DEFORM finite element software provided with the properties of porous material to provide the possibility of loose defect.But the material with such attributes is always used for simulating the procedure of powder metallurgy.
Ingot material is 30Cr2Ni4MoV.
International Journal of Mechanical science, 1984,102-118 [5] Xianghua Liu, Guangruan Bai.
Metal science and technology,1986,30-32
Online since: June 2013
Authors: Jian Liu, Xiao Guang Yu, Fu Zeng Hou
The choice of material is 20CrMo, its chemical composition (mass fraction %): C 0.20, Si 0.25, Mn 0.70, P 0.014, S 0.017, Cr 0.90, Ni 0.018, Cu 0.02.
Beijing: Science press,1996
Science and technology Journal of Wuhan University, 2009,32(1):32-35
On the Material Process Simulation COSMAP-Simulated examples and its experimental verification for heat treatment verification.
Key Engineering Materials Vols. (2007):345-346
Beijing: Science press,1996
Science and technology Journal of Wuhan University, 2009,32(1):32-35
On the Material Process Simulation COSMAP-Simulated examples and its experimental verification for heat treatment verification.
Key Engineering Materials Vols. (2007):345-346
Online since: March 2025
Authors: Nadimul Haque Faisal, Ayyaz Ali Janjua, Achukwu Emmanuel Okechukwu, Muhammad Younas, Mohd Shahneel Saharudin
The ease in modifying and integrating cellulose position as remarkable material for fabricating functional materials with tunable microstructure and properties [24].
Composites Science and Technology, 31(3), pp.179-223
Journal of composites science, 8(9), p.340
Advanced functional materials based on nanocellulose/Mxene: A review.
Materials Today: Proceedings.
Composites Science and Technology, 31(3), pp.179-223
Journal of composites science, 8(9), p.340
Advanced functional materials based on nanocellulose/Mxene: A review.
Materials Today: Proceedings.
Online since: April 2019
Authors: Abdelkader Iddou, Hakim Aguedal, Amine Khelifa, Djilali Redha Merouani, Nour El Houda Larbi
Several materials have been used to adsorb metals, including, active carbon [9], hydroxyapatite [10], clay [11] and biomass [12].
Materials and Methods Sludge Humification.
These results give more motivation to go for all what is natural rather than using chemical materials for water pollution treatment.
Ezzeddine et al, Divalent heavy metals adsorption onto different types of EDTA-modified mesoporous materials: effectiveness and complexation rate, Microporous and Mesoporous Materials. 212 (2015) 125-136
Sharma, Chemically activated carbon fromlignocellulosic wastes for heavy metal wastewater remediation: effect of activation conditions, Journal of Colloid and Interface Science. (2017) [10] S.
Materials and Methods Sludge Humification.
These results give more motivation to go for all what is natural rather than using chemical materials for water pollution treatment.
Ezzeddine et al, Divalent heavy metals adsorption onto different types of EDTA-modified mesoporous materials: effectiveness and complexation rate, Microporous and Mesoporous Materials. 212 (2015) 125-136
Sharma, Chemically activated carbon fromlignocellulosic wastes for heavy metal wastewater remediation: effect of activation conditions, Journal of Colloid and Interface Science. (2017) [10] S.
Online since: January 2015
Authors: Yuri Barabanshchikov, Kirill Semenov
The numerical simulation of the temperature operation mode for a gravity dam made from the compacted concrete (2006) Construction materials, the equipment, technologies of the XXI century, 10, pp. 30-32
Creep, shrinkage, and cracking of restrained concrete at early age (2001) ACI Materials Journal, 98(4), pp. 323-331
Handbook of Thermal Analysis of Construction Materials (2002) USA, William Andrew Inc., 467 p
Advanced Assessment of Cracking due to Heat of Hydration and Internal Restraint (2008) ACI Materials Journal, 105, July-August, pp. 325-333
Merge Concreting and Crack Control Analysis of Mass-concrete Base Slab of Nuclear Power Plant (2011) Applied Mechanics and Materials, 94-96, pp. 2107-2110
Creep, shrinkage, and cracking of restrained concrete at early age (2001) ACI Materials Journal, 98(4), pp. 323-331
Handbook of Thermal Analysis of Construction Materials (2002) USA, William Andrew Inc., 467 p
Advanced Assessment of Cracking due to Heat of Hydration and Internal Restraint (2008) ACI Materials Journal, 105, July-August, pp. 325-333
Merge Concreting and Crack Control Analysis of Mass-concrete Base Slab of Nuclear Power Plant (2011) Applied Mechanics and Materials, 94-96, pp. 2107-2110
Online since: August 2013
Authors: Zhi De Huang
Introduction
With science and technology development, great concrete structure using in a variety of harsh environments is increasing such as cross-sea Bridge, tunnel, offshore oil platform, toxic and hazardous waste disposal and treatment engineering [1].
Raw materials and test methods Raw materials P·Ⅰ52.5 Cement, Shandong Shanshui card, specific surface area is 370m2/kg, 3d compressive strength is 38.4 MPa, 28d compressive strength is 54.9MPa.I grade fly ash, produced by Shandong Weifang power plant, density is 2.2 g/cm3, fineness is 2.2 g/cm3, water demand ratio is 96%.S95 ground slag, density is 2.8 g/cm3, specific surface area is 368 m2/kg.Medium sand, produced by Jimo, fineness modulus is 2.9, mud content is 10%.Polycarboxylates high-performance water-reducing agent, water reducing rate is 32%.5-10mm gravel, limestone, particle size distribution is good, water absorption is 0.65%,mud content is 0.3%.10-20mm gravel, limestone, particle size distribution is good, crushing value is 11.8%, apparent density is 2700 kg/ m3 , packing density is 1470kg/ m3, water absorption is 0.49%.
Analysis shows that unburned material in carbon go up surface when the concrete workability is poor.
Adopting cementitious system compatibility material and good quality admixture, mixture ratio optimization can achieve good job of high performance concrete.
Journal of Qingdao Institute of architecture and Engineering, 1996(1):25-31.
Raw materials and test methods Raw materials P·Ⅰ52.5 Cement, Shandong Shanshui card, specific surface area is 370m2/kg, 3d compressive strength is 38.4 MPa, 28d compressive strength is 54.9MPa.I grade fly ash, produced by Shandong Weifang power plant, density is 2.2 g/cm3, fineness is 2.2 g/cm3, water demand ratio is 96%.S95 ground slag, density is 2.8 g/cm3, specific surface area is 368 m2/kg.Medium sand, produced by Jimo, fineness modulus is 2.9, mud content is 10%.Polycarboxylates high-performance water-reducing agent, water reducing rate is 32%.5-10mm gravel, limestone, particle size distribution is good, water absorption is 0.65%,mud content is 0.3%.10-20mm gravel, limestone, particle size distribution is good, crushing value is 11.8%, apparent density is 2700 kg/ m3 , packing density is 1470kg/ m3, water absorption is 0.49%.
Analysis shows that unburned material in carbon go up surface when the concrete workability is poor.
Adopting cementitious system compatibility material and good quality admixture, mixture ratio optimization can achieve good job of high performance concrete.
Journal of Qingdao Institute of architecture and Engineering, 1996(1):25-31.
Online since: May 2011
Authors: Jie Ji, Xiao Hui Luo, Da Li Liu
Properties of Raw Materials
In this study, some properties of Sasobit and the base asphalt are shown in Table 1and Table 2.
Acknowledgements The paper was supported by the National Natural Science Foundation in China (Grant No. 50708003).
Journal of Highway, Vol.7(2005), p.195. 13.
Journal of Shanghai Journal of Highway,Vol.3(2008), p.1. 14.
The Evaluation Research on Materials and Performance of Warm Mixture Asphalt.
Acknowledgements The paper was supported by the National Natural Science Foundation in China (Grant No. 50708003).
Journal of Highway, Vol.7(2005), p.195. 13.
Journal of Shanghai Journal of Highway,Vol.3(2008), p.1. 14.
The Evaluation Research on Materials and Performance of Warm Mixture Asphalt.
Online since: March 2022
Authors: John Ryan C. Dizon, Ulysses B. Ante, Arvin Oliver S. Ng, Joseph Alfred V. Garcia, Fred P. Liza, Michael B. De Leon, Madelene Velasco Villablanca, Rigoberto Advincula
First, important issues about the common materials for CubeSat and potentially 3D printing materials for CubeSats are addressed.
Therefore, suitable materials must be selected properly to meet these requirements.
Published material property data for selected materials [14, 38].
In 3D printing, there is at least 20% of waste materials due to the raft and support materials.
Series: Materials Science and Engineering 608 (2019)
Therefore, suitable materials must be selected properly to meet these requirements.
Published material property data for selected materials [14, 38].
In 3D printing, there is at least 20% of waste materials due to the raft and support materials.
Series: Materials Science and Engineering 608 (2019)
Online since: June 2017
Authors: Ren Bo Song, Ran Wei, Long Jiang, Heng Jun Cai
Deformation Behaviors and Constitutive Model of DP1000
under Different Strain Rates
Ran Weia, Renbo Songb, Long Jiangc, Hengjun Caid
School of Materials Science and Engineering, University of Science and Technology Beijing, China
awr1565078@163.com, bsongrb@mater.ustb.edu.cn, cjiang.long88@qq.com, dcaihj@ansteel.com.
Materials Charaterization, 2007, (58): 390~400
Materials Sci Eng A, 2015, (627): 230~240
Materials Sci Eng A, 2015, (636): 124~132
Materials Science. and Engineering: A, 2013, 15(580): 385~390.
Materials Charaterization, 2007, (58): 390~400
Materials Sci Eng A, 2015, (627): 230~240
Materials Sci Eng A, 2015, (636): 124~132
Materials Science. and Engineering: A, 2013, 15(580): 385~390.
Online since: August 2008
Authors: Erika Coaglia Trindade Ramos, Gilbert Silva, Alfeu Saraiva Ramos, N.S. da Silva
Baptista: Materials Science and
Engineering A Vol. 363 (2003), p. 297
Valiev: Nature Materials Vol 3 (2004), p. 511
Zhang: Progress in Materials Science Vol. 49 (2004), p. 537
Suryanarayana, Progress in Materials Science Vol. 46 (2001), p. 1
Nunes: Journal of Metastable and Nanocrystalline Materials Vol. 20-21 (2004), p. 145
Valiev: Nature Materials Vol 3 (2004), p. 511
Zhang: Progress in Materials Science Vol. 49 (2004), p. 537
Suryanarayana, Progress in Materials Science Vol. 46 (2001), p. 1
Nunes: Journal of Metastable and Nanocrystalline Materials Vol. 20-21 (2004), p. 145