Fretting fatigue crack initiation and propagation in Ti6Al4V sheets under tribocorrosive conditions of artificial seawater and physiological solutions

Anjum, Zeeshan; Shah, Masood; Elahi, Hassan; Khan, Mushtaq; Mujahid, Mohammad; Khushnood, Shahab; Qayyum, Faisal

doi:10.1177/1464420720946431

Cited by 8 publications

(5 citation statements)

References 43 publications

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“…In multi-phase steels, it is known from the literature [24,25,28,65,66] that the steel matrix endures most deformation, whereas due to the very high strength of ceramic particles, they undergo elastic deformation. Considering the complexity and detail associated with the steel matrix, the material model of the streel matrix is calibrated, and the ceramic particles are assigned elastic attributes.…”

Section: Discussionmentioning

confidence: 99%

On Attempting to Create a Virtual Laboratory for Application-Oriented Microstructural Optimization of Multi-Phase Materials

et al. 2021

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Physics-based and phenomenological crystal plasticity numerical simulations provide an opportunity to develop microstructurally informed models for multi-phase material. The Düsseldorf Advanced Material Simulation Kit (DAMASK) has been developed as a flexible tool for modeling and studying the several deformation mechanisms of such materials at the microscopic and macroscopic scales. In the recent past, several methodologies and techniques were developed for obtaining or constructing microstructural details and calibrating the physics-based model parameters for single-phase and multi-phase materials. Combining and standardizing the devised methods with an appropriate database can help establish a virtual laboratory to analyze the effect of microstructural attributes on the mechanical behavior of multi-phase materials. This article deals with the comprehensive background of the developed techniques and methods for the multi-phase materials class by the current research group. The combinations of different experimental and numerical techniques to validate results are explained along with the advantages and limitations. The ideas of combining the different available tools and the associated challenges are discussed. The article presents some recent work related to the phase parameters identification of the multi-phase materials and detailed insight into the obtained results.

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Section: Discussionmentioning

confidence: 99%

On Attempting to Create a Virtual Laboratory for Application-Oriented Microstructural Optimization of Multi-Phase Materials

et al. 2021

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“…The obtained test results agree with the given assumption and at the same time it is visible that the 1.4034 steel alloy has the highest level of fatigue limit. Also, an interesting research was presented in Anjum et al 24 The considered problem refers to the analysis of the mechanism of crack initiation and its propagation in dovetail slots of Ti6Al4V samples under fretting corrosion conditions. This state may be represented at mechanical components experiencing cyclic loads in tribocorrosion conditions.…”

Section: High Cyclic Fatigue Testingmentioning

confidence: 99%

Comparison of responses of different types of steel alloys under the same loading and environmental conditions

Brnić

Kršćanski

Brčić

2021

Proceedings of the Institution of Mechanical Engineers, Part L:

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Modern construction must meet the function for which it has been made and must be safe and economical to operate. In order to achieve the foregoing, the design of the structure should strive for an optimal solution. Such a design is usually based on the optimal choice of material and the optimal dimensions of structural elements. In order to select the optimal material for the manufacture of structural elements, it is necessary to have data on the behavior of the material in the intended operating conditions. In this sense, this paper deals with experimental research and analysis of the behavior of several types of materials subjected to approximately the same operating conditions. Under considerations were low-alloy structural steel (1.7225), special structural steel (1.7147), alloy carbon steel (1.5920), and alloy stainless steel (1.4034). The mechanical behavior of the tested materials, in terms of monitoring changes and mutual comparisons of mechanical properties, is shown on the basis of engineering stress–strain diagrams, while their creep resistances are monitored and compared with each other based on creep curves. As for the fracture toughness, it can be estimated based on the results of the fracture impact energy test, applying the known calculation method. In accordance with the tests performed at room temperature, the following results related to the maximum ultimate tensile strength ([Formula: see text]/MPa), Charpy V-notch impact energy ( CVN/J), and fatigue limit ([Formula: see text] at stress ratio [Formula: see text], are shown as follows: [Mat. Nr.[Formula: see text]; [Formula: see text]; [Formula: see text]; [Formula: see text].

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“…For example, techniques such as scanning electron microscopy (SEM) and transmission electron microscopy (TEM) allow the characterization of inclusions in terms of size, shape, and chemical composition [14,18]. Coupling these microscopy techniques with energy-dispersive X-ray spectroscopy (EDS) provides detailed information on the elemental distribution within inclusions [19][20][21]. Furthermore, electron backscatter diffraction (EBSD) can be used to investigate the relationship between inclusions and the surrounding microstructure, including grain orientation and misorientation [22].…”

Section: Introductionmentioning

confidence: 99%

Examining the Effect of MnS Particles on the Local Deformation Behavior of 8MnCrS4-4-13 Steel by In Situ Tensile Testing and Digital Image Correlation

et al. 2023

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In this study, the behavior of MnS particles in a steel matrix is investigated through in situ tensile testing and digital image correlation (DIC) analysis. The goal of this research is to understand the mechanical behavior of MnS inclusions based on their position in the steel matrix. To accomplish this, micro-dog bone-shaped samples are prepared, tensile tested, and analyzed. Macro-mechanical results reveal that the material yields at a stress of 350 MPa and has an ultimate tensile strength of 640 MPa, with a total elongation of 17%. For micro-mechanical analysis, scanning electron microscopy (SEM) images are taken at incremental strains and processed using DIC software to visualize the local strain evolution. The DIC analysis quantifiably demonstrates that the local strain is highest in the ferrite matrix, and while lowest in the pearlite matrix, the MnS particles and the interfaces between different materials experienced intermediate strains. The research provides new insights into the micro-mechanical deformation behavior of MnS particles in a steel matrix and has the potential to inform the optimization of the microstructure and properties of materials containing MnS inclusions.

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Fretting fatigue crack initiation and propagation in Ti6Al4V sheets under tribocorrosive conditions of artificial seawater and physiological solutions

Cited by 8 publications

References 43 publications

On Attempting to Create a Virtual Laboratory for Application-Oriented Microstructural Optimization of Multi-Phase Materials

On Attempting to Create a Virtual Laboratory for Application-Oriented Microstructural Optimization of Multi-Phase Materials

Comparison of responses of different types of steel alloys under the same loading and environmental conditions

Examining the Effect of MnS Particles on the Local Deformation Behavior of 8MnCrS4-4-13 Steel by In Situ Tensile Testing and Digital Image Correlation

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