Sort by:
Publication Type:
Open access:
Publication Date:
Periodicals:
Search results
Online since: September 2013
Authors: Juan Wei, Wen Pu Shi
When it works, the bending side of the spring spines (clockwise) close to the ground pick up the forage objects from the ground and take them to the plate, the feeding wheel(grass feed up) will continue to feed them to the front roller through its outer teethes, the rollers( clockwise) lead the materials to the inside of the shell.
At first, because the forage object quantity is small, the material inside the shell is locating basically on the two rollers and do rotating ovement, along with the continuous input of material and the dragging in, occlusion between the material, and pile pushing role, the bundle diameter is growing, the moving material flow is continuously engaged in the forage bundle under the leadership of the rotating rollers and pressing action of gravity and rotation of the forage bundle, when the bundle diameter increases to a certain degree, the number of roller direct contacting with the forage bundle is constantly increasing, under the common driving action of these rollers , the forage bundle is constantly rotating (its movement speed could be increased), so the forage material body will form a continuous movement, until the bundle diameter is large enough, so that most of the roller contact with it, through the force sensing device, the shell cover will be opened by the bundle, and the bundle
Suppose the thickness of the feeding material flow is , feeding velocity is , the mass body density is , the length of the bundle is , at some preliminary instant , the diameter of the bundle is , the diameter of the bundle at arbitrary instant is , then the moment of inertia of the bundle can be expressed as follow:
Acknowledgements The article is supported by Shandong province science and technology research project (2012 G0030011) and Shandong Provincial Natural Science Foundation (ZR2010AM002), China.
The Deign on Binding Machine of Cornstalk, Journal of Anhui Agricultural Sciences, 39(2011), 19031-19032(In Chinese)
At first, because the forage object quantity is small, the material inside the shell is locating basically on the two rollers and do rotating ovement, along with the continuous input of material and the dragging in, occlusion between the material, and pile pushing role, the bundle diameter is growing, the moving material flow is continuously engaged in the forage bundle under the leadership of the rotating rollers and pressing action of gravity and rotation of the forage bundle, when the bundle diameter increases to a certain degree, the number of roller direct contacting with the forage bundle is constantly increasing, under the common driving action of these rollers , the forage bundle is constantly rotating (its movement speed could be increased), so the forage material body will form a continuous movement, until the bundle diameter is large enough, so that most of the roller contact with it, through the force sensing device, the shell cover will be opened by the bundle, and the bundle
Suppose the thickness of the feeding material flow is , feeding velocity is , the mass body density is , the length of the bundle is , at some preliminary instant , the diameter of the bundle is , the diameter of the bundle at arbitrary instant is , then the moment of inertia of the bundle can be expressed as follow:
Acknowledgements The article is supported by Shandong province science and technology research project (2012 G0030011) and Shandong Provincial Natural Science Foundation (ZR2010AM002), China.
The Deign on Binding Machine of Cornstalk, Journal of Anhui Agricultural Sciences, 39(2011), 19031-19032(In Chinese)
Online since: March 2008
Authors: Ya Dong Gong, Jia Shun Shi, Guang Qi Cai, Jin Sheng Wang, G. Abba
In order to acquire 3D micro products and structures on the non-silicon
materials, micro mechanical machining technologies are adopted.
Workpiece Material.
Lots of materials are compressed and recover on the flank face after the tool passing.
Some materials are accumulated in front of the tool tip to change the cutting depth.
Ehmann: Journal of Manufacturing Science and Engineering, Transaction of the ASME, Vol.126 (2004), pp.666-678
Workpiece Material.
Lots of materials are compressed and recover on the flank face after the tool passing.
Some materials are accumulated in front of the tool tip to change the cutting depth.
Ehmann: Journal of Manufacturing Science and Engineering, Transaction of the ASME, Vol.126 (2004), pp.666-678
Very Low Energy Neutron Radiography with Neutron Energy Selection System for Variable Image Contrast
Online since: August 2004
Authors: T. Oku, Y. Kawabata, T. Nakano, M. Hino, J. Susuki, U. Matsushima
It is hard
to have an enough contrast to see it because of the very low attenuation of neutrons through materials.
As polycrystal materials have the Bragg cut-off wavelength of about 0.4nm, the neutron total cross section changes drastically at this wavelength.
It is difficult to estimate the quantity of materials from a image directly when the geometry is complicated.
The results would be a basic data to presume materials in a sample from a neutron radiography images.
The results would be a basic data to identify materials in a sample from a neutron radiography images.
As polycrystal materials have the Bragg cut-off wavelength of about 0.4nm, the neutron total cross section changes drastically at this wavelength.
It is difficult to estimate the quantity of materials from a image directly when the geometry is complicated.
The results would be a basic data to presume materials in a sample from a neutron radiography images.
The results would be a basic data to identify materials in a sample from a neutron radiography images.
Online since: October 2006
Authors: Javad Mola, Hossein Aashuri, B. Shalchi Amirkhiz, Amir Hossein Kokabi, M. Abbasi Gharacheh
A little effort has been done to use semisolid processing in joining of materials.
Seidl: Forming And Joining of Commercial Steel Grades in the Semisolid State, Journal of Material Processing Technology Vol. 130-131 (2002), pp. 562-568 [5] M.
Kiuchi, Yangagimoto, Sugiyama: Application of Mushy/Semisolid Joining - part 3, Journal of Materials processing Technology Vol. 140 (2003), pp. 163-166 [6] H.W.
Shao: Interfacial Strength and Structure of Stainless Steel-Semi-solid Aluminum Alloy Clad Metal, Materials Letters Vol. 60 (2006), pp. 180-184 [7] K.P.
Murty: Evaluation of mechanical properties using shear-punch testing, Materials Science and Engineering A Vol. 395 (2005), pp. 307-314 [10] M.
Seidl: Forming And Joining of Commercial Steel Grades in the Semisolid State, Journal of Material Processing Technology Vol. 130-131 (2002), pp. 562-568 [5] M.
Kiuchi, Yangagimoto, Sugiyama: Application of Mushy/Semisolid Joining - part 3, Journal of Materials processing Technology Vol. 140 (2003), pp. 163-166 [6] H.W.
Shao: Interfacial Strength and Structure of Stainless Steel-Semi-solid Aluminum Alloy Clad Metal, Materials Letters Vol. 60 (2006), pp. 180-184 [7] K.P.
Murty: Evaluation of mechanical properties using shear-punch testing, Materials Science and Engineering A Vol. 395 (2005), pp. 307-314 [10] M.
Online since: February 2024
Authors: Blessie A. Basilia, Julius N. Concepcion, John Jerald Prila
This approach represents an innovative area of research in the field of 3D printing and sustainable materials.
Materials and Methodology Raw Materials.
Construction and Building Materials, 352, 129026. https://doi.org/10.1016/ j.conbuildmat.2022.129026
Materials Today: Proceedings, 18, 85–97. https://doi.org/10.1016/j.matpr.2019.06.280
Journal of Manufacturing and Materials Processing, 6(1), 26. https://doi.org/10.3390/jmmp6010026.
Materials and Methodology Raw Materials.
Construction and Building Materials, 352, 129026. https://doi.org/10.1016/ j.conbuildmat.2022.129026
Materials Today: Proceedings, 18, 85–97. https://doi.org/10.1016/j.matpr.2019.06.280
Journal of Manufacturing and Materials Processing, 6(1), 26. https://doi.org/10.3390/jmmp6010026.
Online since: July 2015
Authors: David Valis, Aneta Krzyzak
Our tests of composite materials were set up to simulate accelerated life usage.
In both instances significant influence of the climatic condition on the mechanical properties of the materials are expected.
Conclusion The “green” composites are very important new engineering materials.
Abu Bakar, Mechanical performance of oil palm empty fruit bunches/jute fibres reinforced epoxy hybrid composites, Materials Science and Engineering, vol. 527, pp. 7944–7949, 2010
Gülgeç, An experimental investigation on the impact response of composite materials, International Journal of Impact Engineering, vol. 43, pp. 40-51, 2012
In both instances significant influence of the climatic condition on the mechanical properties of the materials are expected.
Conclusion The “green” composites are very important new engineering materials.
Abu Bakar, Mechanical performance of oil palm empty fruit bunches/jute fibres reinforced epoxy hybrid composites, Materials Science and Engineering, vol. 527, pp. 7944–7949, 2010
Gülgeç, An experimental investigation on the impact response of composite materials, International Journal of Impact Engineering, vol. 43, pp. 40-51, 2012
Online since: March 2012
Authors: Ning Yao, Lan Zhang, Hui Zhong Ma, Bing Lin Zhang, Hong Ye Chen, Gang Chen, Qiue Xia
Mg(NO3)2·6H2O as traditional charger salt were added into each beaker, to charge the CNTs aggregates positively and to form adhesive material.
References [1] Yahachi Saito, Sashiro Uemura: Carbon 38(2000), p.169 [2] Rinzler A G, Hafner J H, Lou L, et.al,: Science 269(1995), p.1550 [3] De Heer WA, ChatelainA, Ugarte D: Science 270(1995), p.1179 [4] N.
Kim: Diamond and Related Materials 10(2001), p.265 [5] W.
Kim: Applied Physics Letters 78(2001), p.1547 [6] Chunsheng Du, D.Heldebrant, Ning Pan: Journal of Materials Science Letters 21(2002).
P.565 [7] Huizhong Ma, Lan Zhang, Junjie Zhang, Liwei Zhang, Ning Yao, Binglin Zhang: Applied Surface Science 251(2005), p.258
References [1] Yahachi Saito, Sashiro Uemura: Carbon 38(2000), p.169 [2] Rinzler A G, Hafner J H, Lou L, et.al,: Science 269(1995), p.1550 [3] De Heer WA, ChatelainA, Ugarte D: Science 270(1995), p.1179 [4] N.
Kim: Diamond and Related Materials 10(2001), p.265 [5] W.
Kim: Applied Physics Letters 78(2001), p.1547 [6] Chunsheng Du, D.Heldebrant, Ning Pan: Journal of Materials Science Letters 21(2002).
P.565 [7] Huizhong Ma, Lan Zhang, Junjie Zhang, Liwei Zhang, Ning Yao, Binglin Zhang: Applied Surface Science 251(2005), p.258
Online since: April 2014
Authors: K.H. Jung, S. Lee, G.A. Lee, Y.H. Kim, D.S. Choi
Lee1,e,#
1Metal Forming Technology R&D Group, Korea Institute of Industrial Technology
2Department of Materials Science & Engineering, College of Engineering, Ajou University
3Department of Mechanical Engineering, College of Engineering, Korea National University of Transportation
amarkjung@kitech.re.kr, baccetropine@ajou.ac.kr, csangmokl@kitech.re.kr, ddschoi@ut.ac.kr, galee@kitech.re.kr
Keywords: Magnesium alloys, Continuous casting, Homogeneity, Chemical composition
Abstract.
In case of steel, typical defects are relatively well-defined compared to other nonferrous materials.
Acknowledgements We would like to acknowledge the financial support from the R&D Convergence Program of MSIP (Ministry of Science, ICT and Future Planning) and ISTK (Korea Research Council for Industrial Science and Technology) of Republic of Korea (Grant B551179-11-02-00).
Socalici: International Journal of Systems Applications, Engineering & Development, Vol. 6 (2012), pp. 36-43
Cui: Metallugical and Materials Transactions A, Vol. 37A (2006), pp. 3715-3724
In case of steel, typical defects are relatively well-defined compared to other nonferrous materials.
Acknowledgements We would like to acknowledge the financial support from the R&D Convergence Program of MSIP (Ministry of Science, ICT and Future Planning) and ISTK (Korea Research Council for Industrial Science and Technology) of Republic of Korea (Grant B551179-11-02-00).
Socalici: International Journal of Systems Applications, Engineering & Development, Vol. 6 (2012), pp. 36-43
Cui: Metallugical and Materials Transactions A, Vol. 37A (2006), pp. 3715-3724
Online since: June 2013
Authors: Hua Zhang, Zhi Gang Jiang, Zhi Peng He, Yan Hong Wang, Wei Yan
And material refers to the various main iron material and various auxiliary material cooperate with ironmaking and steelmaking.
Through it we can clearly figure out what the main raw materials, auxiliary materials and energy resources are involved in the manufacturing process, through the steel and iron manufacturing unit, it outputs needed products, by-products and waste.
Such as: in the blast furnace ironmaking, large-scale blast furnace, high air temperature, high pressure, and so on, these bring resources efficient operation. (6) Optimal selection manufacturing materials and material parameters optimization.
[4] Chengkang Gao, Dan Wang, etc: Journal of Cleaner Production.
[5] Fei Liu, Huajun Cao, Hua Zhang.Theory and Technology for Green Manufacturing(Science Press, Beijing 2005).
Through it we can clearly figure out what the main raw materials, auxiliary materials and energy resources are involved in the manufacturing process, through the steel and iron manufacturing unit, it outputs needed products, by-products and waste.
Such as: in the blast furnace ironmaking, large-scale blast furnace, high air temperature, high pressure, and so on, these bring resources efficient operation. (6) Optimal selection manufacturing materials and material parameters optimization.
[4] Chengkang Gao, Dan Wang, etc: Journal of Cleaner Production.
[5] Fei Liu, Huajun Cao, Hua Zhang.Theory and Technology for Green Manufacturing(Science Press, Beijing 2005).
Online since: October 2013
Authors: Jae Yeol Kim, Nam Su Kwak, Dae Gwang Park
The deviations for a real-time correction were composed of followings; surrounding temperature, thermal deviation of the machined materials, thermal dispersion in spindles, and the overall thermal deviation occurred due to the machine structures.
Fig. 4, shows the output range when the input voltage of the piezoelectric material is 1.8V, 11V, 42V respectively.
G, "Foundation of Ultra- Precision Mechanism Design," Gordon and Breach Science Publishers, pp.95-128., 1992
[8] Keith Bowen D., "Development in Nanotechnology," Gordon and Breach Science Publishers, pp. 95-129, 1992
Pa “A Nanoscale Surface Structure Removal Process Using Excimer Irradiation and a Cross-Shaped Electrode Tool” Journal of nano research,Vol.18-19, pp.1-8, (2012) [12] Aleksandra lobnik, Speal koreant “Nano-Based Optical Chemical Sensor” Journal of nano research, Vol.13, pp.99-110(2011)
Fig. 4, shows the output range when the input voltage of the piezoelectric material is 1.8V, 11V, 42V respectively.
G, "Foundation of Ultra- Precision Mechanism Design," Gordon and Breach Science Publishers, pp.95-128., 1992
[8] Keith Bowen D., "Development in Nanotechnology," Gordon and Breach Science Publishers, pp. 95-129, 1992
Pa “A Nanoscale Surface Structure Removal Process Using Excimer Irradiation and a Cross-Shaped Electrode Tool” Journal of nano research,Vol.18-19, pp.1-8, (2012) [12] Aleksandra lobnik, Speal koreant “Nano-Based Optical Chemical Sensor” Journal of nano research, Vol.13, pp.99-110(2011)