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Online since: May 2019
Authors: Bin Huan Sun, Yu Lin Li
[10] Hou G H, Luo J H and Chen J W: Journal of Materials Science and Engineering.
[16] Yuan S, Liu Z and Ma S.: Materials Review.
[22] S Chah, J H Fendler and J Yi: Journal of Colloid and Interface Science.
[48] Zhao Q P, Yang C, Li X R, Song G J and Cong L L: Journal of Bohai University (Natural Science Edition).
[52] Zhu C L, Song X Y and et al.: Journal of Materials Chemistry.
[16] Yuan S, Liu Z and Ma S.: Materials Review.
[22] S Chah, J H Fendler and J Yi: Journal of Colloid and Interface Science.
[48] Zhao Q P, Yang C, Li X R, Song G J and Cong L L: Journal of Bohai University (Natural Science Edition).
[52] Zhu C L, Song X Y and et al.: Journal of Materials Chemistry.
Online since: April 2012
Authors: De Yuan Xu, Guo An Tang, Chun Yan Zhu, Lin Zhu
Influence of Material Properties on Modal Characteristics for Fluid-structure Coupled Vibration System
Lin Zhu1, a, Chunyan Zhu1, b, Deyuan Xu1, Guo-an Tang1, c
1Department of Mechanics & Engineering Science, Fudan University, Shanghai, 200433, China
a071029007@fudan.edu.cn, b081029005@fudan.edu.cn, ctangguoan@fudan.edu.cn
Keywords: fluid-structure coupled vibration; flume; material properties; modal frequency
Abstract: The analysis processing for the linear coupled vibration of a flume and its inner fluid often uses FEM method.
According to the frequency comparison of different fluid-structure coupled vibration system with different materials, this paper draws some conclusions on the influence of material properties on modal characteristics for fluid-structure coupled vibration system.
This paper proposes three solving methods of the fluid-structure coupled vibration system, such as unsymmetrical high-order ordinary form, reduction form, symmetrization form, and compare two groups of coupled system vibration frequencies which determined by two materials of structure. 2.
ASCE, Journal of the Engineering Mechanics Division. (1987) 113(5): 653-670
Journal of Fluids and Structures. (2004) 19: 985-1003
According to the frequency comparison of different fluid-structure coupled vibration system with different materials, this paper draws some conclusions on the influence of material properties on modal characteristics for fluid-structure coupled vibration system.
This paper proposes three solving methods of the fluid-structure coupled vibration system, such as unsymmetrical high-order ordinary form, reduction form, symmetrization form, and compare two groups of coupled system vibration frequencies which determined by two materials of structure. 2.
ASCE, Journal of the Engineering Mechanics Division. (1987) 113(5): 653-670
Journal of Fluids and Structures. (2004) 19: 985-1003
Online since: October 2010
Authors: Guo Quan Liu, Hong Bai Bai, Jian Chun Yang, Dong Wei Li
Study on Weaving Technique Based on Wheel-Rib Mechanism and
Its Influences on Mechanics Property of Metal Rubber Material
Jianchun YANG 1, 2, a, Guoquan LIU 1, b, Hongbai BAI 2, c, Dongwei Li2,d
1School of Material Science and Engineering, University of Science and Technology, Beijing 100083, China
2 First Department of Ordnances Engineering College, Shijiazhuang 050003, China
ayjc675266@163.com, bg.liu@ustb.edu.cn, cbhbk12@sina.com, d12ldw163.com
Key words: Metal rubber material; Roughcast; Weaving Technique; Mechanics Property
Abstract.
Introduction The metal rubber material (abbr.
Beijing.2000), In Chinese [2] Jianchun YANG, Guoquan LIU, Hongbai BAI, Youyan WANG: Advanced Materials Research.
Vol. 97-101(2010), p.1709 [3] Xieqing TieshanZHANG, JunhuaZHANG: Mechanicl Science and Technology.
Vol. 19-6(2000), p.977, In Chinese [4] YuyanLI, Xieqingn HUNG: Journal of Aeronautical Materials Vol.28 -2(2008), p.70, In Chinese [5] JianminWANG, TingguoPEI: Journal of Astronautic.
Introduction The metal rubber material (abbr.
Beijing.2000), In Chinese [2] Jianchun YANG, Guoquan LIU, Hongbai BAI, Youyan WANG: Advanced Materials Research.
Vol. 97-101(2010), p.1709 [3] Xieqing TieshanZHANG, JunhuaZHANG: Mechanicl Science and Technology.
Vol. 19-6(2000), p.977, In Chinese [4] YuyanLI, Xieqingn HUNG: Journal of Aeronautical Materials Vol.28 -2(2008), p.70, In Chinese [5] JianminWANG, TingguoPEI: Journal of Astronautic.
Online since: February 2022
Authors: Sergei Koryagin, Nikolay Velikanov, Oleg Sharkov
Investigation of the Effect of Vibration on the Bearing Capacity of Composite Materials
Sergei Koryagin1,a, Oleg Sharkov1*,b and Nikolay Velikanov1,c
1Immanuel Kant Baltic Federal University, Kaliningrad, 236016, Russia
askoryagin@kantiana.ru, bosharkov@kantiana.ru, cnvelikanov@kantiana.ru
Keywords: polymer coatings, composite structures, vibration, strength, deformation.
One of the effective methods for reducing the effect of shock and vibration loads on the bearing capacity of mechanical structures is the use of structural elements made of composite materials [11, 14–18].
Materials and Methods Test bench.
References [1] Gvozdkova S I and Shvartsburg L E 2017 Procedia Engineering 206 958–964 [2] Dong R G, Welcome D E, Xu X S and McDowell T W 2020 International Journal of Industrial Ergonomics 77 102946 [3] Vieler H, Karim A and Lechler A 2017 Robotics and Computer-Integrated Manufacturing 47 117–122 [4] Dubrovskiy A, Aliukov S, Dubrovskiy S and Alyukov A 2017 Lecture Notes in Engineering and Computer Science 2 679–684 [5] Moheimani S O R, Halim D and Fleming A J 2003 Spatial Control of Vibration: Theory and Experiments (Singapore World Scientific Publishing) p 236 [6] Munoa J, Beudaert X, Erkorkmaz K, Iglesias A, Barrios A and Zatarain M 2015 CIRP Annals 64(1) 385–388 [7] Hosseinabadi A H H and Altintas Y 2014 CIRP Journal of Manufacturing Science and Technology 7(3) 246–257 [8] Guoa Z, Cao Y, Feng K, Guan H and Zhang T 2019 Mechanical Systems and Signal Processing 133 106271 [9] Duan P and Ding X 2015 Journal of University of Shanghai for Science and Technology 37(6) 583–588 [
10] Chen Y, Wu H, Zhai J, Chen H, Zhu Q and Han Q 2019 Aerospace Science and Technology 84 1049–1058 [11] Koryagin S I, Sharkov O V and Velikanov N L 2018 Materials Science Forum 938 46–53 [12] Limarga A M, Duong T L, Gregori G and Clarke D R 2007 Surface and Coatings Technology 202(4–7) 693–697 [13] Kirpichnikov V Y, Koshcheev A P and Syatkovskii A I 2020 Journal of Applied Mechanics and Technical Physics 61(6) 968–971 [14] Kulíšek V, Růžička M, Vrba P, Smolík J and Janota M 2019 Materials Today: Proceedings 12(2) 288–297 [15] Fantuzzi N, Bacciocchi M, Benedetti D and Agnelli J 2021 Composites Part C: Open Access 4 100096 [16] Bigdeli M and Monfared V 2021 International Journal of Engineering, Transactions B: Applications 34(2) 556–563 [17] Cao Y, Zuo D, Zhao Y, Cao Z, Zhi J, Zheng G and Tay T E 2021 Composite Structures 261 13565 [18] Yang M, Gui L, Hu Y, Ding G and Song C 2018 Results in Physics 8 1110–1118 [19] Thomson W T 1996 Theory of vibration with applications (Boca Raton
One of the effective methods for reducing the effect of shock and vibration loads on the bearing capacity of mechanical structures is the use of structural elements made of composite materials [11, 14–18].
Materials and Methods Test bench.
References [1] Gvozdkova S I and Shvartsburg L E 2017 Procedia Engineering 206 958–964 [2] Dong R G, Welcome D E, Xu X S and McDowell T W 2020 International Journal of Industrial Ergonomics 77 102946 [3] Vieler H, Karim A and Lechler A 2017 Robotics and Computer-Integrated Manufacturing 47 117–122 [4] Dubrovskiy A, Aliukov S, Dubrovskiy S and Alyukov A 2017 Lecture Notes in Engineering and Computer Science 2 679–684 [5] Moheimani S O R, Halim D and Fleming A J 2003 Spatial Control of Vibration: Theory and Experiments (Singapore World Scientific Publishing) p 236 [6] Munoa J, Beudaert X, Erkorkmaz K, Iglesias A, Barrios A and Zatarain M 2015 CIRP Annals 64(1) 385–388 [7] Hosseinabadi A H H and Altintas Y 2014 CIRP Journal of Manufacturing Science and Technology 7(3) 246–257 [8] Guoa Z, Cao Y, Feng K, Guan H and Zhang T 2019 Mechanical Systems and Signal Processing 133 106271 [9] Duan P and Ding X 2015 Journal of University of Shanghai for Science and Technology 37(6) 583–588 [
10] Chen Y, Wu H, Zhai J, Chen H, Zhu Q and Han Q 2019 Aerospace Science and Technology 84 1049–1058 [11] Koryagin S I, Sharkov O V and Velikanov N L 2018 Materials Science Forum 938 46–53 [12] Limarga A M, Duong T L, Gregori G and Clarke D R 2007 Surface and Coatings Technology 202(4–7) 693–697 [13] Kirpichnikov V Y, Koshcheev A P and Syatkovskii A I 2020 Journal of Applied Mechanics and Technical Physics 61(6) 968–971 [14] Kulíšek V, Růžička M, Vrba P, Smolík J and Janota M 2019 Materials Today: Proceedings 12(2) 288–297 [15] Fantuzzi N, Bacciocchi M, Benedetti D and Agnelli J 2021 Composites Part C: Open Access 4 100096 [16] Bigdeli M and Monfared V 2021 International Journal of Engineering, Transactions B: Applications 34(2) 556–563 [17] Cao Y, Zuo D, Zhao Y, Cao Z, Zhi J, Zheng G and Tay T E 2021 Composite Structures 261 13565 [18] Yang M, Gui L, Hu Y, Ding G and Song C 2018 Results in Physics 8 1110–1118 [19] Thomson W T 1996 Theory of vibration with applications (Boca Raton
Online since: May 2011
Authors: Hamed Nabizadeh Rafsanjani, Mehdi Kadivar
Introduction
Nanotechnology is the use of very small particles of material to create new large scale materials.
Obviously, Concrete is one of the major construction materials.
Addition of nanoscale materials into cement could improve its performance.
These are in the development of improved materials and the use of characterization methods to improve the understanding of materials.
Indeed, in the field of pavement, nanoscale materials can be applied to the surface of existing materials to improve aspects such as their hardness, durability, skid resistance and water resistance constitutes potential applications.
Obviously, Concrete is one of the major construction materials.
Addition of nanoscale materials into cement could improve its performance.
These are in the development of improved materials and the use of characterization methods to improve the understanding of materials.
Indeed, in the field of pavement, nanoscale materials can be applied to the surface of existing materials to improve aspects such as their hardness, durability, skid resistance and water resistance constitutes potential applications.
Online since: December 2010
Authors: Jin Sheng Liang, Li Juan Wang, Wen Bo Xu, Dao Yang Han
Effect of Nanometer Far-infrared Materials on the Cleanability
of Ceramic Glazes
Lijuan Wanga, Jinsheng Liangb*, Wenbo Xuc and Daoyang Hand
Institute of Power Source and Ecomaterials Science, Hebei University of Technology, Tianjin, 300130, China
awljhh@yahoo.com.cn, bliangjinsheng@hebut.edu.cn*, cxuwenbo2009@gmail.com, dhandaoyang@163.com
Keywords: nanometer far-infrared materials, ceramic, cleanability, hydrophilic property
Abstract.
Nanometer far-infrared materials (NFIM) were doped into ceramic glazes to prepare easy-to-clean ceramic glazes,and the effect of NFIM on the cleanability properties was investigated.
NFIM was firstly composed of natural far-infrared mineral and ceramic materials in our lab for fuel activation and combustion-supporting [5].
Conclusions The cleanability of glazed surfaces was improved by doping nanometer far-infrared materials.
Danov,et al.: Journal of Colloid and Interface Science, (2003), 257: 357
Nanometer far-infrared materials (NFIM) were doped into ceramic glazes to prepare easy-to-clean ceramic glazes,and the effect of NFIM on the cleanability properties was investigated.
NFIM was firstly composed of natural far-infrared mineral and ceramic materials in our lab for fuel activation and combustion-supporting [5].
Conclusions The cleanability of glazed surfaces was improved by doping nanometer far-infrared materials.
Danov,et al.: Journal of Colloid and Interface Science, (2003), 257: 357
Online since: August 2014
Authors: Mazlan Mohamed, A.M. Mustafa Al Bakri, Razak Wahab, A.K. Zulhisyam, M.R. Mohd Sukhairi, M.H.M. Amini, A. Mohammad Amizi
Comparison between Thermal Interface Materials Made of Nano Carbon Tube (NCT) with Gad Pad 2500 in term of Junction Temperature by using CFD Software, FluentTM
M.
MATERIALS AND METHODS Two types of thermal interface material have been used in order to simulate the temperature contour by using CFD software, FLUENTTM.
Sulaiman, “The Comparison Between Thermal Pad Made of Nano-Silver and Silicon ElastomerUsing Computational Fluid Dynamic (CFD) Software, FLUENT,” Australian Journal of Basic and Applied Sciences, vol. 7, no. 5, pp. 196–204, 2013
Sarizam, “Three Dimensional Analysis of Thermal Pad made of Nanomaterial , Nano-Silver with differences of Thickness by Using CFD Software , FLUENT,” Australian Journal of Basic and Applied Sciences, vol. 7, no. 5, pp. 220–229, 2013
Bakir Azman, “Thermal Management of Electronic Components by Using Computational Fluid Dynamic (CFD) Software, FLUENTTM in Several Material Applications (Epoxy, Composite Material & Nanosilver),” Advanced Materials Research, vol. 795, pp. 141–147, Sep. 2013.
MATERIALS AND METHODS Two types of thermal interface material have been used in order to simulate the temperature contour by using CFD software, FLUENTTM.
Sulaiman, “The Comparison Between Thermal Pad Made of Nano-Silver and Silicon ElastomerUsing Computational Fluid Dynamic (CFD) Software, FLUENT,” Australian Journal of Basic and Applied Sciences, vol. 7, no. 5, pp. 196–204, 2013
Sarizam, “Three Dimensional Analysis of Thermal Pad made of Nanomaterial , Nano-Silver with differences of Thickness by Using CFD Software , FLUENT,” Australian Journal of Basic and Applied Sciences, vol. 7, no. 5, pp. 220–229, 2013
Bakir Azman, “Thermal Management of Electronic Components by Using Computational Fluid Dynamic (CFD) Software, FLUENTTM in Several Material Applications (Epoxy, Composite Material & Nanosilver),” Advanced Materials Research, vol. 795, pp. 141–147, Sep. 2013.
Online since: March 2017
Authors: Mohammad Khairul Azhar Abdul Razab, Mohammad Khairul Azhar Abdul Razab, Siti Fatimah Abd Karim, Nor Hakimin Abdullah, Mazlan Mohamed, Nur Ezati AZHAR, Noraina ADAM, Zulhisyam ABDULLAH @ ABDUL KARI, An'amt Mohamed Noor
, dsitifatimahabdkarim93@gmail.com, enorhakimin@umk.edu.my, fanamt@umk.edu.my gmazlan.m@umk.edu.my, hzulhisyam.a@umk.edu.my and inoraina.adam@riken.jp
Keywords: Radon sentinel 1030, α particles, Building materials, Health implications
Abstract.
In addition, materials and ventilation of the building also contributes to the migration of 222Rn into indoor air (Pavia et al. 2003) [3].
Materials and Method Experimental set-up.
Zulkepli, A Study of radon-222 levels in foamed light concrete, Australian Journal of Basic and Applied Sciences, 7 (2013) 315-318
Hussin, Potential of fabricated light foamed concrete in reducing radon from building material, Materials Science Forum. 840 (2016) 427-431
In addition, materials and ventilation of the building also contributes to the migration of 222Rn into indoor air (Pavia et al. 2003) [3].
Materials and Method Experimental set-up.
Zulkepli, A Study of radon-222 levels in foamed light concrete, Australian Journal of Basic and Applied Sciences, 7 (2013) 315-318
Hussin, Potential of fabricated light foamed concrete in reducing radon from building material, Materials Science Forum. 840 (2016) 427-431
Online since: September 2020
Authors: Shi Rong Li, Da Fu Cao, Peng Xiong
Acknowledgements
This work was supported by the Natural Science Foundation of China (No. 11672260).
Zhang, Thermoelastic damping in asymmetric three-layered microbeam resonators, Journal of Applied Mechanics. 83(2016): 061002-1
Mechanical Science, 106(2016): 128-137
Mechanics and Materials in Design,11(2015): 357–369
Xiong, Thermoelastic damping in functionally graded material circular micro plates, Journal of Thermal Stresses 41(2018): 1396-1412.
Zhang, Thermoelastic damping in asymmetric three-layered microbeam resonators, Journal of Applied Mechanics. 83(2016): 061002-1
Mechanical Science, 106(2016): 128-137
Mechanics and Materials in Design,11(2015): 357–369
Xiong, Thermoelastic damping in functionally graded material circular micro plates, Journal of Thermal Stresses 41(2018): 1396-1412.
Online since: February 2019
Authors: S. Chupin, Victor I. Bolobov
View of rock-destroying tool of tunneling machines (rotary cutters) with intensive abrasion wear of the case
Heat treatment remains the key method for enhancing mechanical features of materials.
Influence of thermomechanical treatment on wear resistance of materials is studied insufficiently [13-18] and there is almost no data about its effects on abrasion wear resistance.
Experimental Technique and Materials Samples (Figure 2) made of 35KhGSA steel (1,11,4% Si; 0,8 1,1% Mn; 1,1 1,4% Cr), as a material of rock-destroying cutter cases, were subject to high-temperature thermomechanical treatment (HTMT).
Soltanalizadeh, Microstructural evolution and wear resistance of friction stir-processed AISI 52100 steel, Metallurgical and materials transactions A, 47 (2016) 3564-3572
[20] A.A.Naumov, Y.A.Bezobrazov, N.G.Kolbasnikov, E.V.Chernikov, Novel Physical Simulation Technique Development for Multistage Metal Plastic Deformation Processing, Materials Science Forum, 762 (2013) 62-69.
Influence of thermomechanical treatment on wear resistance of materials is studied insufficiently [13-18] and there is almost no data about its effects on abrasion wear resistance.
Experimental Technique and Materials Samples (Figure 2) made of 35KhGSA steel (1,11,4% Si; 0,8 1,1% Mn; 1,1 1,4% Cr), as a material of rock-destroying cutter cases, were subject to high-temperature thermomechanical treatment (HTMT).
Soltanalizadeh, Microstructural evolution and wear resistance of friction stir-processed AISI 52100 steel, Metallurgical and materials transactions A, 47 (2016) 3564-3572
[20] A.A.Naumov, Y.A.Bezobrazov, N.G.Kolbasnikov, E.V.Chernikov, Novel Physical Simulation Technique Development for Multistage Metal Plastic Deformation Processing, Materials Science Forum, 762 (2013) 62-69.