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Online since: April 2012
Authors: Wen Jie Peng, Bao Wen Qiu, Rong Feng Li, Huan Xue
Experimental tests and discussions
The mechanical properties of the high strength welding structural steel are: 520MPa for yielding strength and 608MPa for tensile strength.
There are many factors affecting heating.
Fatigue properties of S06 steel in long life regime under ultrasonic frequency.
High-cycle fatigue properties of high strength steel.
There are many factors affecting heating.
Fatigue properties of S06 steel in long life regime under ultrasonic frequency.
High-cycle fatigue properties of high strength steel.
Online since: June 2010
Authors: Robert Starosta
The Influence of Plastic Strain on the Corrosive Properties of Plasma
Sprayed Intermetallic NiAl and Ni3Al Coatings
Robert Starosta
Gdynia Maritime University,
Faculty of Marine Engineering, Department of Marine Maintenance,
ul.
The alloys on systematic intermetallic phase matrix with aluminium fraction possess unique physicochemical and mechanical properties (e.g.
All these properties have been applied to the production of machine parts running in hard conditions (e.g. internal combustion turbine blades, engine exhaust valves, turbo blowers rotors) [2, 3].
Corrosion resistance of the object undergoing plastic treatment depends mainly on two factors: draft value and surface roughness.
Liu: Processing, properties, and applications of nickel and iron aluminides.
The alloys on systematic intermetallic phase matrix with aluminium fraction possess unique physicochemical and mechanical properties (e.g.
All these properties have been applied to the production of machine parts running in hard conditions (e.g. internal combustion turbine blades, engine exhaust valves, turbo blowers rotors) [2, 3].
Corrosion resistance of the object undergoing plastic treatment depends mainly on two factors: draft value and surface roughness.
Liu: Processing, properties, and applications of nickel and iron aluminides.
Online since: February 2022
Authors: Lyudmila Makarova, Marina Eremina, Sergey G. Shuklin
During the test, the following factors were taken into account: the rate of combustion of the sample, the decay time of the sample, the formation of droplets during combustion.
The study of the thermophysical properties of materials was carried out using standard IT-S-400 calorimeters [1].
To measure the thermophysical properties in the meter, the method of a dynamic calorimeter is used.
Tyukaev Thermophysical properties of decomposing materials at high temperatures, Science and Technology, Minsk, 1975
Koltsov Analysis of thermal properties of crystalline antiperenes, Bulletin of Kazan Technol. un-that. 16 (18) (2013) 162-164
The study of the thermophysical properties of materials was carried out using standard IT-S-400 calorimeters [1].
To measure the thermophysical properties in the meter, the method of a dynamic calorimeter is used.
Tyukaev Thermophysical properties of decomposing materials at high temperatures, Science and Technology, Minsk, 1975
Koltsov Analysis of thermal properties of crystalline antiperenes, Bulletin of Kazan Technol. un-that. 16 (18) (2013) 162-164
Online since: February 2014
Authors: Ravikant Gupta, J. Prasanna, T. Monisha, V. Ranjithabala, E. Vijayakumar, D. Sangeetha
This enhanced property combined with its biodegradable nature, makes it a fascinating polymer to produce nanofibers.
Taguchi method is one of the best methods to arrive at an optimum solution to a particular problem, given the influence of various factors at different levels [3].
Since voltage, flow rate, distance and concentration are the major process parameters that affect the diameter of the fiber, they were chosen for the study [4-6].
Voltage proves to be the second most significant parameter in affecting the diameter of the polymer fiber.
Concentration appears to be the most significant parameter in affecting the diameter of the polymer fiber.
Taguchi method is one of the best methods to arrive at an optimum solution to a particular problem, given the influence of various factors at different levels [3].
Since voltage, flow rate, distance and concentration are the major process parameters that affect the diameter of the fiber, they were chosen for the study [4-6].
Voltage proves to be the second most significant parameter in affecting the diameter of the polymer fiber.
Concentration appears to be the most significant parameter in affecting the diameter of the polymer fiber.
Online since: March 2017
Authors: Manish Kumar, Franz Renz, Daniel Unruh, Ralf Sindelar
And to gain the magnetic properties MagSilica® is incorporated.
The processing tools to produce magnetic fibers are described and their magnetic properties are investigated.
It is considered that other factors such as solution electrical conductivity and viscosity should be changed with the addition of MNPs, which affected the fiber diameter significantly.
Delgado, Tegafur loading and release properties of magnetite/poly(alkylcyanoacrylate) (core/shell) nanoparticles, J.
Kim, Potential of magnetic nanofiber scaffolds with mechanical and biological properties applicable for bone regeneration, PLoS One. 9 (2014) e91584
The processing tools to produce magnetic fibers are described and their magnetic properties are investigated.
It is considered that other factors such as solution electrical conductivity and viscosity should be changed with the addition of MNPs, which affected the fiber diameter significantly.
Delgado, Tegafur loading and release properties of magnetite/poly(alkylcyanoacrylate) (core/shell) nanoparticles, J.
Kim, Potential of magnetic nanofiber scaffolds with mechanical and biological properties applicable for bone regeneration, PLoS One. 9 (2014) e91584
Online since: December 2016
Authors: Sergey Usherenko, Yulia Usherenko, Javad Yazdani
It may explain specific mechanical and chemical properties of the structure of this new composite material.
It often requires that in one material combines a whole range of necessary physical and chemical properties.
These properties can have composite materials.
Fiber composites show high level of mechanical properties.
Depending on the composition of powders and matrix material it is possible to vary properties of the resulting composite in a wide range.
It often requires that in one material combines a whole range of necessary physical and chemical properties.
These properties can have composite materials.
Fiber composites show high level of mechanical properties.
Depending on the composition of powders and matrix material it is possible to vary properties of the resulting composite in a wide range.
Online since: December 2009
Authors: Matthias Kammler
Especially in these processes the mechanical properties and in particular the
strength and deformability of the extrudates are of great interest.
These properties are mostly related to the microstructure development of the alloy during the whole production cycle from billet casting to profile aging [8].
The microstructure evolution and thus the properties of extruded aluminum products are significantly influenced by the way the metal flows during extrusion.
Many investigations were carried out for the numerical simulation of extrusion processes in order to predict the microstructure evolution and the related mechanical properties of the extrudates.
A friction factor m = 0.5 was chosen.
These properties are mostly related to the microstructure development of the alloy during the whole production cycle from billet casting to profile aging [8].
The microstructure evolution and thus the properties of extruded aluminum products are significantly influenced by the way the metal flows during extrusion.
Many investigations were carried out for the numerical simulation of extrusion processes in order to predict the microstructure evolution and the related mechanical properties of the extrudates.
A friction factor m = 0.5 was chosen.
Online since: May 2011
Authors: Wen Jun Chen, Wen Zheng, Rong Jian Li, Xi An Li, Gao Feng Che
A Simple and Practicable Approach on Implementing for the Reduced Triaxial Extension by the Conventional Triaxial Apparatus
RongJian Li1,a, XiAn Li2,b, GaoFeng Che1,c, Wen Zheng1,d, WenJun Chen2,e
1Institute of Geotechnical Engineering, Xi’an University of Technology, Xi’an, 710048, China
2College of Geology Engineering and Geomatics, Chang’an University, Xi’an, 710054, China
alirjian2008@gmail.com, bdclixa@chd.edu.cn, c414261490@qq.com, dzw0822@126.com, djick1230@126.com
Key words: Sand; Strength; Stress path; Conventional triaxial apparatus; Ameliorating approach
Abstract: Stress path is one of the very important factors of soil strength.
On one hand, stress-strain property of soil is characterized by being nonlinear; on the other hand, the soil’s stress-strain and strength properties are much influenced by the stress level, stress path and stress history.
Many scholars have conducted researches in terms of soil’s properties under different stress paths and achieved some results[1,2,3,4].
Therefore, in order to study the actual strength and deformation properties of soil bodies under some complex stress paths, it is of important practical significance to find a simple, feasible and low-cost method for the stress path tests.
Research on Influence of Stress Path on Mechanical Properties of Saturated Sand.
On one hand, stress-strain property of soil is characterized by being nonlinear; on the other hand, the soil’s stress-strain and strength properties are much influenced by the stress level, stress path and stress history.
Many scholars have conducted researches in terms of soil’s properties under different stress paths and achieved some results[1,2,3,4].
Therefore, in order to study the actual strength and deformation properties of soil bodies under some complex stress paths, it is of important practical significance to find a simple, feasible and low-cost method for the stress path tests.
Research on Influence of Stress Path on Mechanical Properties of Saturated Sand.
Online since: March 2012
Authors: Yin Bang Liu, Li Chun Jiang, Ming Yu Liu
The major factors affecting wood density are growth rate, tree age and heredity [2-4].
The density of wood has an important effect on the physical, mechanical and chemical properties.
Generally, with increases of wood density, the wood tensile strength and wood hardness increases accordingly, while the capacity of water retention, flexibility and chemical reactivity decrease [5].The relationship between wood density and fibre properties is important for the conversion of wood anatomy into wood quality.
Fu, Variation of microfibril angle and its correlation to wood properties in poplars, J For Res. 15(4) (2004) 261-267
Molteberg, Methods for the determination of wood properties, Kraft pulp yield and wood fibre dimensions on small wood samples, Wood Sci Technol. 37 (2004) 395-410
The density of wood has an important effect on the physical, mechanical and chemical properties.
Generally, with increases of wood density, the wood tensile strength and wood hardness increases accordingly, while the capacity of water retention, flexibility and chemical reactivity decrease [5].The relationship between wood density and fibre properties is important for the conversion of wood anatomy into wood quality.
Fu, Variation of microfibril angle and its correlation to wood properties in poplars, J For Res. 15(4) (2004) 261-267
Molteberg, Methods for the determination of wood properties, Kraft pulp yield and wood fibre dimensions on small wood samples, Wood Sci Technol. 37 (2004) 395-410
Online since: February 2012
Authors: Ben Dong Liu, De Sheng Li, Xiao Liang Zhu, Jiang Zhe
Introduction
Since the successful development of micro-electro-mechanical systems (MEMS), a myriad of conversion approaches are, in principal, open to consideration at the MEMS level, such as the micro-sensors and the micro-actuators.
Simulations In order to get the optimal design, a three-dimensional (3D) finite element simulator (ANSYS) is used to model self-consistently thermal and electrical properties of a complete device structure.
The performance of the μ-TEG is largely affected by the thickness, material and thermal conductivity of the substrate, which is shown in Fig. 3.
Numerous works have demonstrated that the structure strongly influences the fabrication cost, a factor that can be crucial for potential commercial success [3].
Results of the simulations reveal that the thickness and the thermal conductivity of the supporting substrate affect the performance of the thermoelectric generator largely.
Simulations In order to get the optimal design, a three-dimensional (3D) finite element simulator (ANSYS) is used to model self-consistently thermal and electrical properties of a complete device structure.
The performance of the μ-TEG is largely affected by the thickness, material and thermal conductivity of the substrate, which is shown in Fig. 3.
Numerous works have demonstrated that the structure strongly influences the fabrication cost, a factor that can be crucial for potential commercial success [3].
Results of the simulations reveal that the thickness and the thermal conductivity of the supporting substrate affect the performance of the thermoelectric generator largely.