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These studies aimed on improvement of mechanical and microstructural properties of the material [6,7].
It is directly affected by the factors that control hardness, namely composition and structural properties [9].
Results and Discussion Mechanical properties of the WC-Co system had been affected in presence of boron carbide.
Mechanical properties achieved B4C Content (w%) Density (%T.D.)
The fine particle sizes of starting materials are a precondition for high mechanical properties of the end dense product.

However, the yield strength of production by CSP process is on the high side going against deformation lead to energy consumption increase in succedent cold roll procedure, and affecting the formability of punching plate.
In this paper, low carbon steel cold base plate was studied produced by CSP process, discussing the effect of different deformation on mechanical properties and microstructure and analyzing the deformation characteristic of cold low carbon steel, it offer the theory ground for developing high additional cold production.
Results and Discussion Deformation Effect on Mechanical Properties.
Fig.1 The effect of different deformation on mechanical properties of low-carbon cold rolling(a) 变形量对、的影响；(b) 变形量对屈强比、显微硬度的影响 图1 变形量对低碳钢冷轧板室温力学性能的影响 Fig.1 The effect of different deformation on mechanical properties of low-carbon cold rolling (a) 变形量对、的影响；(b) 变形量对屈强比、显微硬度的影响 图1 变形量对低碳钢冷轧板室温力学性能的影响 Fig.1 The effect of different deformation on mechanical properties of low-carbon cold rolling (a) 变形量对、的影响；(b) 变形量对屈强比、显微硬度的影响 图1 变形量对低碳钢冷轧板室温力学性能的影响 Fig.1 The effect of different deformation on mechanical properties of low-carbon cold rolling (a) 变形量对、的影响；(b) 变形量对屈强比、显微硬度的影响 图1 变形量对低碳钢冷轧板室温力学性能的影响 Fig.1 The effect of different deformation on mechanical properties of low-carbon cold rolling Form the curve of relationship between yield and tensile strength(, )and deformation, the work-hardening of test steel is very serious early stage in its deformation, the trend of work-hardening was becoming slower after reaching 45%for deformation, but work-hardening rate had increscent phenomenon
The both factors reciprocity leaded to the strength increase and plastic decrease.

Figure 3 Components of the structural stresses Then the corresponding stress intensity factors can be obtained based on fracture mechanics as shown in Eq. (5) [4]
The mechanical properties parameters of the two materials are shown in Table 1.
Table1 Mechanical properties parameters of HSLA340GI and DP600GI Material Yield strengh/MPa Tensile strengh/MPa Tensile rate/% HSLA340GI 370 448 32 DP600GI 432 671 22 Figure 4 Sample size 2.3.2 The test methods As spot weld joints mainly withstand shear loads, only the shear fatigue life of each sample is concerned in this experiment.
Material properties are all linear elastic, elastic modulus is 210GPa, Poisson's ratio is 0.3, density is 7.85×103 kg/.
The engineering prediction of spot-weld fatigue life[J].China Mechanical Engineering,1998,9(11):35-37

Domestic and Foreign Research Status and Existing Problems High Temperature Mechanical Properties of Concrete.
High Temperature Mechanical Properties of Lining Structure.
Mechanical Property.
Review of Mechanical Properties of HSC at Elevated Temperature.
Experimental study on mechanical properties of high temperature steel fiber reinforced concrete.

Effect distribution of residual stresses on three different materials physical properties of hardness are analyzed by using the finite element model during the process of high speed cutting.
The results show that metal material hardness is the key factors to residual stress.
Tensile residual stresses on the surface of components dangerously affect the life of them in operating conditions [4-6].
Consequently the plastic deformation will be affected.
In this paper, a finite element model was built to analyzed effect of material physical properties on magnitude and distribution of residual stresses.

Fiber-reinforced composites can be modified with particles to improve mechanical properties.
Mechanical properties can be modified by the addition of copper particles.
The powder grain size factor affects the adhesion of the powder and epoxy as the reinforcement and also affects the value produced, the smaller the powder size, the stronger the glue will be.
Epoxy resin reinforced copper and silicon particles to investigate the response of particles with respect to mechanical properties such as hardness and impact strength and physical properties such as thermal and electrical conductivity for epoxy resins.
These properties are estimated and compared.

This condition is measured by mechanical properties such as yield strength, tensile strength, fatigue strength and hardness.
In this study fatigue properties are particularly investigated in detail.
Table 1 lists the mechanical properties of the test materials.
The annealing process followed by the tempering process performed on Material Q did not effectively reduce the brittleness in the microstructures, affecting the tensile and fatigue performance.
Conclusions (1) Not one of the tested materials is ideal as they do not comprise the highest values of the three mechanical properties combination which are tensile strength, fatigue limit and hardness

In this paper, we put the emphasis on the synthesis and properties characterization of this new type material, and try to provide a new method to fabricate a viscoelastic damping material(VDM）with tunable Tg and excellent dynamic mechanical properties usable for applications in the field of vibration reduction industry.
However, the optimized temperature regions are not largely broadened, and in addition, the phase separation behaviour which affects the mechanical and other properties of the materials will occur in the above materials system.
The temperature sweep curves of the SSBR samples Dynamical Mechanical Properties.
The Dynamical mechanical properties of the SSBR samples and the current commercialized SBR1500 were all characterized by the same instrument under the same experiment conditions.
References [1] J D Ferry 1970 Viscoelastic Properties of Polymers, second ed.

The investigated factors are shown on Fig. 1. include joint geometry, material properties, environmental conditions, loading conditions.
The fatigue performance of adhesive joints is determined by an interplay of geometry, material properties, loading conditions, and environmental factors.
Discussion The fatigue performance of adhesive joints is a multifaceted problem influenced by joint geometry, material properties, loading conditions, and environmental factors.
Geometrical factors such as overlap length, adhesive thickness, and adherend thickness directly affect the stress distribution within the joint.
This review has highlighted the key factors influencing fatigue behaviour, including joint geometry, material properties, loading conditions, and environmental factors, as well as advanced techniques for improving fatigue life and methods for life prediction [20].

Introduction The existence of joint dramatically affects physical and mechanical properties of rock mass.
Shuangjian Niu [3] studies rock mass strength by numerical method and thinks that peak strength is controlled by joint geometric parameters, but that residual strength is controlled by mechanical properties of joint face.
So, it can be regarded that the sensitivity of the factors affecting the jointed sample’s strength falls in the order: joint dip angle, joint strength and rock block strength
Numerical investigation on the sensitivity of jointed rock mass to various factors [J].
Uniaxial compression experimental research on deformation and failure properties of brittle marble specimen with pre-existing fissures [J].