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Online since: August 2018
Authors: Yeoh Cheow Keat, Pei Leng Teh, Firuz Zainuddin, Mohamad Saed Hussein, Abdul Razak Rahmat
Journal of Physical Science, 20(1), 1–12
Journal of Materials Science, 46(16), 5487– 5494 [5] Avalle, M., Belingardi, G., & Montanini, R. (2001).
Journal of Physical Science, 20(1), 13–25
European Journal of Lipid Science and Technology, 117(11), 1893–1902
International Journal of Polymer Science, 2016, 2–7.
Journal of Materials Science, 46(16), 5487– 5494 [5] Avalle, M., Belingardi, G., & Montanini, R. (2001).
Journal of Physical Science, 20(1), 13–25
European Journal of Lipid Science and Technology, 117(11), 1893–1902
International Journal of Polymer Science, 2016, 2–7.
Online since: October 2012
Authors: Jian Wei Zhou, Dong Hong Liu, Dong Dong Li
This Newtonian approximation is valid for most liquid food materials [25].
Tobback: Journal of Food Science, Vol. 59 (1994) No.4, pp. 828-832
Gopal: Journal of Food Science, Vol. 71 (2006) No.6, pp.
Pflug: Journal of Food Science, Vol. 54 (1989) No.1, pp. 209-226
Teixeira: Journal of Food Science, Vol. 53 (1988) No.1, pp. 191-195
Tobback: Journal of Food Science, Vol. 59 (1994) No.4, pp. 828-832
Gopal: Journal of Food Science, Vol. 71 (2006) No.6, pp.
Pflug: Journal of Food Science, Vol. 54 (1989) No.1, pp. 209-226
Teixeira: Journal of Food Science, Vol. 53 (1988) No.1, pp. 191-195
Online since: October 2009
Authors: Monika Willert-Porada, M. Knoll
REFERENCES
1Riley, F.L., Silicon �itride and Related Materials.
Materials Science and Engineering A, 2002. 335(1-2): p. 26-31. 7Yang, J.
Material Science and Engineering, 2003.
Materials Chemistry and Physics, 2002. 73: p. 123-128. 19 Jinhui, D., L.
Materials Chemistry and Physics, 2003. 80: p. 356-359. 20Toropov, N.A. and I.A.
Materials Science and Engineering A, 2002. 335(1-2): p. 26-31. 7Yang, J.
Material Science and Engineering, 2003.
Materials Chemistry and Physics, 2002. 73: p. 123-128. 19 Jinhui, D., L.
Materials Chemistry and Physics, 2003. 80: p. 356-359. 20Toropov, N.A. and I.A.
Online since: May 2012
Authors: Yong You, Jin Feng Liu, Xue Ping Lin
As shown in fig.1, the forces acting on the cell include the gravity (G) of debris flow materials, the friction force (F) between debris flow materials and the channel bottom, and pressures acting on the selected cell from the upstream materials (P1) and the downstream materials (P2).
Ma: Study of Debris Flow in China (Science Press, China 2004).
Cui: Journal of Mountain Science Vol. 28 (2010), p. 628-634 (In Chinese) [3] D.T.
Ma: Journal of Mountain Science Vol. 28 (2010), p. 635-640 (In Chinese) [4] Q.Xu: Journal of Engineering Geology Vol. 18 (2010), p. 596-608 (In Chinese) [5] Y.You, X.C.Chen and J.F.
Liu, X.Q.Chen and et al: Journal of Mountain Science Vol. 24 (2006), p. 222-227 (In Chinese) [8] O.Hungr: Earth Surface Process and Landforms Vol. 25 (2000), p. 1-13 [9] S.
Ma: Study of Debris Flow in China (Science Press, China 2004).
Cui: Journal of Mountain Science Vol. 28 (2010), p. 628-634 (In Chinese) [3] D.T.
Ma: Journal of Mountain Science Vol. 28 (2010), p. 635-640 (In Chinese) [4] Q.Xu: Journal of Engineering Geology Vol. 18 (2010), p. 596-608 (In Chinese) [5] Y.You, X.C.Chen and J.F.
Liu, X.Q.Chen and et al: Journal of Mountain Science Vol. 24 (2006), p. 222-227 (In Chinese) [8] O.Hungr: Earth Surface Process and Landforms Vol. 25 (2000), p. 1-13 [9] S.
Online since: September 2022
Authors: Mohd Helmi bin Sani, Sadeq M. Al-Hazmy, Rania Hussien Al-Ashwal, Yan Tung Lam
Journal of cosmetic science, 69(4), (2018)257-267
Journal of Biomedical Materials Research Part B: Applied Biomaterials, 100(5), (2012)1451-1457
Materials Today Communications, 21, (2019)100664
Alginate-poly (ethylene) glycol and poly (ethylene) oxide blend materials.
Journal of Materials Science, 56(2), (2021)1879-1896.
Journal of Biomedical Materials Research Part B: Applied Biomaterials, 100(5), (2012)1451-1457
Materials Today Communications, 21, (2019)100664
Alginate-poly (ethylene) glycol and poly (ethylene) oxide blend materials.
Journal of Materials Science, 56(2), (2021)1879-1896.
Online since: February 2014
Authors: Xing Hua Niu, Yan Qing Ma, Ling Chen, Shao Kai Wang
In this paper, using UG software, change the traditional titanium implants into a new implant by the different thickness of the titanium layer wrapped in a variety of materials, and using ansys workbench changes thickness and Young's modulus of the core material, analysis of various the case of force and deformation of the implant, looking for a good biomechanics is both compatible with good mechanical properties and implant materials.
In this paper, a titanium layer thickness and Young's modulus of the core material of two variables, using the analysis method to change the value of the control variable of these two parameters, with the analysis of ansys workbench, implant under various conditions of stress and deformation to find a good biomechanics is both compatible with good mechanical properties and implant materials.
Materials and methods Build three-dimensional model of implant.
The outcomes and discussions Given in this paper, the experiment scheme is more, only give two experimental scheme, the stress and deformation of the cloud see this section for the rest of the experimental results of analysis When planting in core materials elastic modulus of 130GPa, Poisson's ratio is 0.3, titanium layer thickness of 0.8 mm when the stress and deformation of the please as shown in Fig. 4. .
Chinese Journal of Oral planting, 2005,10 (1) :9-25 [3] Tada S,Steganiu R.Influnce of implant design and bone quality on stress distribution in bone around implants:a 3-dimensional finite element analysis.Int J Oral Maxxillofac Implants,2003,18:357~368 [4] Himmlova L, Dostalova T, Kacovsky A, et al.
In this paper, a titanium layer thickness and Young's modulus of the core material of two variables, using the analysis method to change the value of the control variable of these two parameters, with the analysis of ansys workbench, implant under various conditions of stress and deformation to find a good biomechanics is both compatible with good mechanical properties and implant materials.
Materials and methods Build three-dimensional model of implant.
The outcomes and discussions Given in this paper, the experiment scheme is more, only give two experimental scheme, the stress and deformation of the cloud see this section for the rest of the experimental results of analysis When planting in core materials elastic modulus of 130GPa, Poisson's ratio is 0.3, titanium layer thickness of 0.8 mm when the stress and deformation of the please as shown in Fig. 4. .
Chinese Journal of Oral planting, 2005,10 (1) :9-25 [3] Tada S,Steganiu R.Influnce of implant design and bone quality on stress distribution in bone around implants:a 3-dimensional finite element analysis.Int J Oral Maxxillofac Implants,2003,18:357~368 [4] Himmlova L, Dostalova T, Kacovsky A, et al.
Online since: November 2013
Authors: Marioara Moldovan, Laura Silaghi-Dumitrescu, Doina Prodan, Vasile Prejmerean, Cristina Prejmerean
Materials and methods
Obtaining of the experimental dental composites and giomers.
The corresponding values of the studied areas of the materials were obtained by interpolation.
Tam, D.McComb, Comparative Translucency of Esthetic Composite Resin Restorative Materials, J Can Dent Assoc 76 (2010) 84
Dadic, Radiopacity of composite dental materials using a digital X-ray system, Dent Mater J 31(1) (2012) 47–53
Review of clinical and research aspects, Journal of Dentistry 38 (2010) 2–6
The corresponding values of the studied areas of the materials were obtained by interpolation.
Tam, D.McComb, Comparative Translucency of Esthetic Composite Resin Restorative Materials, J Can Dent Assoc 76 (2010) 84
Dadic, Radiopacity of composite dental materials using a digital X-ray system, Dent Mater J 31(1) (2012) 47–53
Review of clinical and research aspects, Journal of Dentistry 38 (2010) 2–6
Online since: May 2012
Authors: Ke Ao Hu, Yi Ping Tang, Hong Lv
China
3Chemical Engineering and Materials Science, Zhejiang University of Technology, Zhejiang, Hangzhou, 310014, P.R.
Therefore, new anode materials are required to replace Ni-based anodes.
Among these materials, CeO2-based anodes have shown considerable promise for the oxidation of CH4.
Fierro, Chemistry of Materials, 2005, 17, 2329-2339 [14] Peter Blennowa, Kent K.
[18] Hong-Ki Lee, Materials Chemistry and Physics, 77 (2002) 639-646
Therefore, new anode materials are required to replace Ni-based anodes.
Among these materials, CeO2-based anodes have shown considerable promise for the oxidation of CH4.
Fierro, Chemistry of Materials, 2005, 17, 2329-2339 [14] Peter Blennowa, Kent K.
[18] Hong-Ki Lee, Materials Chemistry and Physics, 77 (2002) 639-646
Online since: March 2016
Authors: M.R. Sahar, Ezza Syuhada Sazali, Nurulhuda Mohammad Yusoff
Yusoff1,c
1Advanced Optical Material Research Group, Department of Physics, Faculty of Science,
Universiti Teknologi Malaysia, 81310, Skudai, Johor Bahru, Johor, Malaysia.
Enhanced optical properties of rare earth (RE) doped glasses for sundry applications are current challenges in materials science and technology.
Luminescence measurement renders the signature materials capability to absorb and reemit energy [16].
Conclusions Nanoglass plasmonics is newly developed very vast and expanding paradigm of nanophotonics and is a unique part of physics/chemistry/materials science because it combines a wealth of scientific challenges with a large variety of near-term applications.
Marega Jr., Optical Materials, 33 (2011) 888-892
Enhanced optical properties of rare earth (RE) doped glasses for sundry applications are current challenges in materials science and technology.
Luminescence measurement renders the signature materials capability to absorb and reemit energy [16].
Conclusions Nanoglass plasmonics is newly developed very vast and expanding paradigm of nanophotonics and is a unique part of physics/chemistry/materials science because it combines a wealth of scientific challenges with a large variety of near-term applications.
Marega Jr., Optical Materials, 33 (2011) 888-892