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    International Journal of Advanced Design and Manufacturing Technology ( Scientific )
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  • About the journal

    International Journal of Advanced Design and Manufacturing Technology (ADMT), is an open access double-blind peer reviewed publication which is published by Islamic Azad University Isfahan Branch concerned with new concepts and findings in areas related to mechanical engineering, either empirical or theoretical . The ADMT is a quarterly publication, which publishes original research papers in journal scopes.  This journal is following of Committee on Publication Ethics (COPE) and complies with the highest ethical standards in accordance with ethical laws. All submitted manuscripts are checked for similarity through a trustworthy software named iThenticate to be assured about its originality and then rigorously peer-reviewed by the international expert reviewers (Read More...).


     Journal of Advanced Design and Manufacturing Technology (ADMT) is indexed in ProQuest, Ebsco, ISC, COPERNICUS, Google Scholar, J-gate, SID, Sherpa Romeo, EZB(Electronic Journal Library)  and Researchbib. 


             

    Recent Articles

    • Open Access Article

      1 - Fabrication, Testing and Analysis of Composite Lattice Panels Under Three-Point Bending Load
      Mahdi Farhadi Ali Davar Mohsen Heydari Beni Jafar Eskandari Jam
      Issue 1 , Vol. 17 , Winter 2024
      Thanks to their high strength-to-weight ratio, lightweightness, and excellent energy absorption, composite lattice panels can be used in the aerospace, marine, automotive, and other industries. These structures can be used as an alternative to string-reinforced structur More
      Thanks to their high strength-to-weight ratio, lightweightness, and excellent energy absorption, composite lattice panels can be used in the aerospace, marine, automotive, and other industries. These structures can be used as an alternative to string-reinforced structures, honeycomb (core) sandwich panels, and aluminum grid structures. In this paper, a composite lattice panel is first fabricated from glass/epoxy by hand lay-up method using a silicon rubber mold. In this method, a Kagome composite lattice panel with twelve layers of resin-impregnated fibers was fabricated during a continuous process. After fabrication, the test panel was shown under three-point bending and failure modes. Also, a numerical simulation of three-point bending was performed in ABAQUS software. Then, the simulation results were compared with those of the experimental test, indicating a good convergence between the experimental test results and the finite element ones up to the point of failure. Due to changes in directions of force, these structures have a high ability to withstand damage, and therefore, continue to withstand the load after the failure of one or more ribs. Also, there is no sudden and sharp drop in the load-bearing capacity of the structure despite the force being maximized, which can be attributed to the high energy absorption of such structures. Instead, the force decreases slowly with fluctuations, and the structure continues to absorb energy until final failure. Therefore, such lightweight structures can be used in applications where energy absorption is of great importance. Manuscript profile

    • Open Access Article

      2 - A Quasi-Analytical Method Algorithm Development in Redesigning the Geometry and Structural Analysis of An Aircraft Propeller and Comparing with the Finite Element Method
      Behrooz Shahriari Hassan Izanlo Nedasadat  Seddighi
      Issue 1 , Vol. 17 , Winter 2024
      The aircraft propeller is effective in the performance of the aircraft propulsion system and must have acceptable structural strength. The complex aerodynamic geometry of the propeller makes its analysis more difficult. In this study, dynamic and aerodynamic stresses ar More
      The aircraft propeller is effective in the performance of the aircraft propulsion system and must have acceptable structural strength. The complex aerodynamic geometry of the propeller makes its analysis more difficult. In this study, dynamic and aerodynamic stresses are calculated using the Finite Element Method (FEM). A structural analysis algorithm based on the quasi-analytical method is developed to evaluate the finite element analysis. In this regard, first, an algorithm is developed to redesign the propeller which performs in a way that by checking the dimensions, the geometry of the quasi-propeller is determined with the same mass and the coordinates of the center of mass. Then, different algorithms are developed to calculate the distribution of mass, moment of inertia, and the cross-section of the quasi-blade geometry. The calculation algorithms of rotational dynamic and aerodynamic stress distribution are developed. The results show that the FEM and the quasi-analytical method are well matched. In this study, the force equivalent to the thrust and the opposite force to the propeller rotation are placed instead of the aerodynamic pressure distribution. The comparison of the results obtained from the quasi-analytical method and the FEM indicates that the overall maximum stress of the system occurs at the root of the propeller and the maximum net stress due to aerodynamic forces occurs in the middle of the propeller geometry. According to the results, the rotational dynamic stress is much higher than the aerodynamic stress. It is also shown that the aerodynamic stress reduces the overall stress of the system. Manuscript profile

    • Open Access Article

      3 - Investigating the effect of nanosilica on the compressive strength of hard concrete by considering Atomic Force Microscopy (AFM) examinations
      seyed mohammad mahdi shafiei mahboobeh pirizadeh Ebrahim Zolgharnein
      Issue 1 , Vol. 17 , Winter 2024
      This study investigated the compressive strength of hardened concrete and the formation of Calcium Silicate Hydrate (C-S-H) with the addition of nanosilica (SiO2). Compressive strength testing was performed using ASTM C496 to determine stress-strain curves and compressi More
      This study investigated the compressive strength of hardened concrete and the formation of Calcium Silicate Hydrate (C-S-H) with the addition of nanosilica (SiO2). Compressive strength testing was performed using ASTM C496 to determine stress-strain curves and compressive strength of the materials. The hydration process and formation of C-S-H and Calcium Hydroxide (CH) was examined using Atomic Force Microscopy (AFM) and Fourier Transform Infrared Spectroscopy (FTIR). Results indicate an increase in compressive strength using 1, 3 and 5% of nanosilica to concrete replacement by volume in comparison to the control mix (without nanosilica). The optimum concrete replacement to yield maximum strength was of the 5% nanosilica content. Comparing the 56 day results for the 3 and 5% of nanosilica replacement samples, notice the same percentage of C-S-H formation of 83 and 85%, respectively Manuscript profile

    • Open Access Article

      4 - Numerical and Experimental Investigation of Natural Frequency and Damping Coefficient of Flexible Cellular Lattice Structures
      M. R. Karamooz-Ravari Amir Hosein Samimi Reza Dehghani
      Issue 1 , Vol. 17 , Winter 2024
      Cellular lattice structures encompass a class of metamaterials characterized by the arrangement of interconnected struts and/or plates, offering an adaptable microstructure that enables a broad range of property control. These structures have garnered significant attent More
      Cellular lattice structures encompass a class of metamaterials characterized by the arrangement of interconnected struts and/or plates, offering an adaptable microstructure that enables a broad range of property control. These structures have garnered significant attention for their distinctive properties and have found widespread application across industries such as aerospace, medical, pharmaceutical, automotive, defense and safety. This study seeks to explore the impact of geometric parameters on the natural frequency and damping coefficient of cellular lattice structures. Samples featuring BCC and OCTET architectures with varying porosities were initially produced using fused deposition modeling (FDM). Subsequently, both experimental and numerical analyses were conducted to assess the first natural frequency and damping coefficient of these materials. Comparison of the numerically obtained results with experimental data revealed a strong agreement. The findings indicate that, for both BCC and OCTET lattices, an increase in porosity is associated with a decrease in both natural frequency and damping coefficient. Manuscript profile

    • Open Access Article

      5 - Nd:YAG laser processing of thick NiTi wires to locally alter ‎transformation properties towards achieving multiple memory ‎shape memory alloys
      Mahmoud Kadkhodaei Amin  Alipour Ehsan  Foroozmehr
      Issue 1 , Vol. 17 , Winter 2024
      Every commercial NiTi (Nitinol) Shape Memory Alloy (SMA) has its own transformation temperatures, which may cause limitations in ever-growing demands for the application of these alloys in novel engineering design. Among various methods proposed to achieve multiple func More
      Every commercial NiTi (Nitinol) Shape Memory Alloy (SMA) has its own transformation temperatures, which may cause limitations in ever-growing demands for the application of these alloys in novel engineering design. Among various methods proposed to achieve multiple functional characteristics, laser processing offers effective solutions in locally controlling the transformation properties of NiTi parts. The current work describes the application of laser technique followed by post processing to locally alter transformation temperatures and impose phase transition for thick NiTi wires. To this end, various laser parameters are applied, and the influences of peak power and pulse width on the functional, microstructural and mechanical properties of laser processed samples are studied. A four-sided laser processing protocol is proposed to process almost the whole cross section of thick Nitinol wires. It is also shown that post-processing heat treatment is required to recover the shape memory properties of as-processed Nitinol specimen. The transformation temperatures of final processed Nitinol wire increase by about 50 °C compared to those of the unprocessed base material. Manuscript profile

    • Open Access Article

      6 - Numerical Motion Analyzing Based on Recorded Empirical Data by Smartphone Features
      Bahador Abolpour Yaser Taghipour
      Issue 1 , Vol. 17 , Winter 2024
      Abstract: This study presents a new method to analyse the motion of moving objects. The novelty of this study is that the presented work obtains your location based on the coupled measured data using the GPS and other motion sensors of a smart phone. This method can be More
      Abstract: This study presents a new method to analyse the motion of moving objects. The novelty of this study is that the presented work obtains your location based on the coupled measured data using the GPS and other motion sensors of a smart phone. This method can be used for GPS free navigations in future studies. The smartphone sensors measure the desired values and a developed Android application records this data. A developed MATLAB code analyses these values for car road travel using multiple coordinate transformations and removes the effects of Earth's gravity from the measured acceleration. It is recognized that the presented method can be used to analyse the movement and performance of the studied material. The obtained results show that the integration of data recorded by the accelerometer sensor integrates the effects of noise and this sensor is not a convenient feature to obtain the instantaneous location. Calculating the acceleration using GPS data may also not be accurate in this case. Getting the location and acceleration using a GPS sensor and accelerometer is more accurate. Manuscript profile
    Most Viewed Articles

    • Open Access Article

      1 - Investigation of Compressive Stresses of Stainless Steel 316L Diamond Lattice Structures Under the Effect of Spherical Connections Produced by SLM Additive Manufacturing
      Behnam Ahmadi Roozbahani AliAkbar Lotfi Neyestanak
      Issue 4 , Vol. 16 , Winter 2023
      In this study, the compressive stresses of dodecahedron diamond lattice structures have been investigated. The finite element method has been used for Stress analysis. After the simulation, it was found that more stresses are applied at the junction of the struts of thi More
      In this study, the compressive stresses of dodecahedron diamond lattice structures have been investigated. The finite element method has been used for Stress analysis. After the simulation, it was found that more stresses are applied at the junction of the struts of this structure due to the application of compressive force. For this purpose, the connection point of the structure’s struts was strengthened by spherical connections, and a new type of dodecahedron structure was created. The validation and effect of spherical connections in compressive stresses have been evaluated experimentally. Two types of diamond lattice structures are made of stainless steel 316L by the SLM method. The results show that in the same condition, the use of spherical connections with twice the diameter of the structure’s struts helps to strengthen the structure and increase its compressive strength by 18% compared to the simple structure. Manuscript profile

    • Open Access Article

      2 - Forecasting Operational Parameters of a Solar Space Heating System using a Novel Multistage Artificial Neural Network
      Farnaz Jamadi Behnam Jamali
      Issue 2 , Vol. 11 , Spring 2024
      In this study, several operational parameters of a solar energy system are predicted through using a multistage ANN model. To achieve the best design of this model, three different back-propagation learning algorithms, i.e. Levenberg-Marquardt (LM), Pola-Riber Conjugate More
      In this study, several operational parameters of a solar energy system are predicted through using a multistage ANN model. To achieve the best design of this model, three different back-propagation learning algorithms, i.e. Levenberg-Marquardt (LM), Pola-Riber Conjugate Gradient (CGP) and the Scaled Conjugate Gradient (SCG) are utilized. Further, to validate the ANN results, some experimental tests have been done in winter 2016 on a solar space heating system (SSHS) equipped with a parabolic trough collector (PTC). In the proposed model, ANN comprises three consecutive stages, while the outputs of each one are considered to be the inputs of the next. Results show that the maximum error rate in Stages 1, 2, and 3 has occurred in the LM algorithm with respectively 10, 6, and 10 neurons. Moreover, the best obtained determination coefficient of all stages belongs to the total system efficiency and has the value 0.999934 for LM-10. As a result, the multistage ANN model can simply forecast operational parameters of the solar energy systems with high accuracy. Manuscript profile

    • Open Access Article

      3 - Dynamic Response of FGM Plates Under Blast Load
      reza azarafza puya pirali Ali Davar majid ghadimi
      Issue 4 , Vol. 16 , Winter 2023
      The present study investigates the deformation of FGM plates under blast load. Hamilton's principle is used to obtain the dynamic Equations. The two constituent phases, ceramic and metal, vary across the wall thickness according to a prescribed power law. Boundary condi More
      The present study investigates the deformation of FGM plates under blast load. Hamilton's principle is used to obtain the dynamic Equations. The two constituent phases, ceramic and metal, vary across the wall thickness according to a prescribed power law. Boundary conditions are assumed to be Simply Supported (SS). The type of explosive loading considered is a free in-air spherical air burst and creates a spherical shock wave that travels radially outward in all directions. For the pressure time of the explosion loading, Friedlander’s exponential relation has been used. In order to determine the response analytically, the stress potential field function is considered. Using the Galerkin method, the final Equations are obtained as nonlinear and nonhomogeneous second-order differential Equations. The effect of temperature including thermal stress resultants and different parameters on the dynamic response have been investigated. Results have been compared with references and validated. Results showed that the amplitude of the center point deflection of the FGM plate is less than the pure metal plates when exposed to blast load, by increasing the volumetric index percentage of FGM, center point deflection is increased and in the FGM plates, deformation of symmetrical plates is smaller than the asymmetric plates. Also by applying the damping coefficient of the FGM plates, the amplitude of center point deflection is reduced, and by increasing the aspect ratio of the FGM plate, its center point deflection against explosion waves is reduced and by considering the effects of thermal resultant forces and moments, center point deflection is increased. Manuscript profile

    • Open Access Article

      4 - Investigating the Effect of Separation Speed and Image Cross-Section Geometry on The Separation Force in DLP Method using FEP and PP Polymer Membranes
      Siavash Moayedi Manizani Jamal Zamani Mohammad Salehi Mohammad Taghi shayesteh
      Issue 3 , Vol. 16 , Summer 2023
      One of the most challenging issues in DLP 3D printing is separation. Thus, the capability to employ a variety of polymer membranes can considerably aid in the development of the DLP technology. The primary purpose of this study is to thoroughly explore the characteristi More
      One of the most challenging issues in DLP 3D printing is separation. Thus, the capability to employ a variety of polymer membranes can considerably aid in the development of the DLP technology. The primary purpose of this study is to thoroughly explore the characteristics influencing separation force and time on the FEP industrial membrane and the proposed PP membrane. Therefore, the impact of image cross section geometry and separation speed on separation force and separation time is investigated. As a consequence, changing the percentage of surface porosity has a negligible effect on the amount of separation force. According to the findings, reducing the cross-sectional area by 1.36% reduced the separation force by 6.5 times. Moreover, the outcomes are consistent with the mathematical model given. the separation force rose by 230% in the FEP membrane with an increase of 96 times of the speed, whereas the separation time decreased by 18.8 times. For the proposed PP membrane, as the speed increases, the separation force rate increases by 175% and the separation time falls by 29.6 times. The aforementioned findings show that the PP film may be used as a practical and affordable solution with quick separation that can reduce printing time when producing three-dimensional lattice pieces at varying speeds. Manuscript profile

    • Open Access Article

      5 - Investigation of The Effect of Notch Tip Radius on Fracture Energy of Charpy in 7075 Aluminium Alloy
      Ali Hossein zadeh Mohammad Reza Maraki Mohsen Sadidi
      Issue 2 , Vol. 13 , Spring 2024
      In the present study Charpy impact tests on a 7075-T651 aluminium alloy with full size (55×10×10 mm) with different notch tip radius (range of 0.19 to 0.40 mm) were conducted and the fracture energy was measured. The experimental results showed that the rela More
      In the present study Charpy impact tests on a 7075-T651 aluminium alloy with full size (55×10×10 mm) with different notch tip radius (range of 0.19 to 0.40 mm) were conducted and the fracture energy was measured. The experimental results showed that the relationship between the fracture energy (E) and the notch tip radius of the Charpy samples (r) for the tested Aluminium is E=18.052r+1.741. Using this relationship, the Charpy energy can be determined for this Aluminium for any notch tip radius. Fracture surfaces revealed an intergranular failure for base metal in longitudinal direction, that a predominately brittle failure (cleavage) with some insights of ductile characteristics was observed. Moreover, with increasing notch tip radius, cracked particles were observed and some microvoids were nucleated, i.e., ductile fracture. Changes in the primary crack notch cause a change in the stress intensity factor adjacent to the crack tip, where the fracture energy in the Charpy Impact Test is subjected to the primary crack notch. Manuscript profile

    • Open Access Article

      6 - The Effect of Type and Location of a Phase Change Material (PCM) Layer in a Building Wall on Energy Consumption using Numerical Simulation
      Arezoo Soleimani Dashtaki Afshin Ahmadi Nadooshan Afshin Abedi
      Issue 4 , Vol. 12 , Autumn 2024
      Phase Change Materials (PCMs) have been the subject of many researches in recent years due to the storage and release of energy at low temperature ranges. PCMs store or releasing a large amount of energy at a constant temperature range leads to saving energy. In this pa More
      Phase Change Materials (PCMs) have been the subject of many researches in recent years due to the storage and release of energy at low temperature ranges. PCMs store or releasing a large amount of energy at a constant temperature range leads to saving energy. In this paper, the numerical modelling of a multilayer composite wall including PCM located on the southern side of a building is carried out using an implicit method. The data correspond the fifteenth day of each month in Tehran. The governing equations are discretized by the implicit Crank Nicolson method and solved by iteration method using MATLAB software. Finally, the location and volume fraction of PCM in the wall of the building are studied to achieve maximum efficiency. The results show that the effect of latent and sensible heat results in a reduction in the input heat flux and thermal load to the building. The optimum location for the PCM layer is the middle layer of the composite wall to reduce the heat transfer rate inside the building. In addition, it is found that the PCM volume fraction in gypsum does not have a significant effect on the thermal performance of the multi-layer composite wall. Hence, low volume fraction reduces the costs without affecting the thermal performance of the building. Manuscript profile

    • Open Access Article

      7 - Experimental and Numerical Analysis of Titanium/HA FGM for Dental Implantation
      Sina Sazesh Aazam Ghassemi Reza Ebrahimi Mohammad Khodaei
      Issue 1 , Vol. 10 , Winter 2017
      FGM dental implants are a very good alternative with respect to homogenous implants. In this study by focusing on mechanical property as one of the most important factors in implant design, the static behaviour of Ti/Nanostructure HA (hydroxyapatite) FGM dental implant More
      FGM dental implants are a very good alternative with respect to homogenous implants. In this study by focusing on mechanical property as one of the most important factors in implant design, the static behaviour of Ti/Nanostructure HA (hydroxyapatite) FGM dental implant has been fabricated and investigated experimentally and numerically. At the first step, the nanostructure hydroxyapatite powders were synthesized by natural origin. At the second step, the initial powders were cold compacted in order to fabricate Ti/HA FGM samples for 4 different volume fraction exponents (N=1/3, 2/3, 1, 2). Then the compacted powders have been sintered using a vacuum furnace, in which compressive strength of each particular sample was finally assessed. A three-dimensional geometrical model of FGM dental implant system and surrounding bone was created by using the macro programming language in ANSYS software and then finite element analysis under static forces was performed. Finally the experimental results strength tests were compared with numerical solutions. According to the results, the FGM dental implants made of Ti/HA under static forces were sufficiently safe. As a result, FGM sample with volume fraction exponent of N=2/3 was chosen as the best sample. Manuscript profile

    • Open Access Article

      8 - Microstructure Investigation and Mechanical Properties of Resistance Upset Butt Welded Ti-6Al-4V Alloy
      Mahmood Sharifitabar
      Issue 3 , Vol. 13 , Summer 2024
      In the present study, resistance upset butt welding was used as a solid-state process for joining Ti-6Al-4V alloy. Results showed that melting and subsequent solidification of the alloy at the joint interface promoted the development of a cast microstructure along with More
      In the present study, resistance upset butt welding was used as a solid-state process for joining Ti-6Al-4V alloy. Results showed that melting and subsequent solidification of the alloy at the joint interface promoted the development of a cast microstructure along with some pores. However, by applying the constant upset pressure of 1.62 MPa, the pore volume fraction decreased considerably with decreasing the welding current from 110 A/mm2 to 55 A/mm2. Hardness test results showed that the weld interface and the base material had the highest (352 HV) and the lowest (318 HV) values, respectively. The microstructure of the interface consisted of ά martensite and Widmanstätten laths. The tensile strength of the joints varied between 550 and 883 MPa depending on the welding parameters used. In the optimum condition, the maximum strength of the joint was about 94% of the base metal strength. Fractography of samples confirmed that the formation of pores deteriorated the strength of the joints. Manuscript profile

    • Open Access Article

      9 - A Study on The Effects of Different Pad Materials on Brake System Performance of a High-Capacity Elevator by FEM Simulation
      Mohammad Sajjad Mahdieh Farshad Nazari Ali Riyadh Khairullah
      Issue 4 , Vol. 16 , Winter 2023
      The brake system must be reliable and display unchanging action throughout its use, as it guards the health and life of many people. Properly matched friction pair, a drum, and a brake pad have a great impact on these factors. The brake pads are far more complex compone More
      The brake system must be reliable and display unchanging action throughout its use, as it guards the health and life of many people. Properly matched friction pair, a drum, and a brake pad have a great impact on these factors. The brake pads are far more complex components. New technologies make it possible to develop materials with various compositions and different proportions and connect them permanently in fully controllable processes. This elaboration shows that all these factors have a greater or lesser impact on the coefficient of friction, resistance to friction wear and high temperature, and the brake pad’s operating life. The friction materials are required to provide a stable coefficient of friction and a low wear rate at various operating speeds, pressures, temperatures, and environmental conditions. The aim of this work is therefore to investigate the possibility of using a Finite Element Analysis (FEA) approach to evaluate the braking performance of a heavy-duty elevator with different non-conventional pad materials including Composite Carbon fiber reinforced, Composite Epoxy SMC and SiC (silicon carbide). The results show that the performance of SiC (silicon carbide) is better than two other materials. In the braking system with SiC, the required time for stoppage of the system is lower than two other materials. Manuscript profile

    • Open Access Article

      10 - Analysis and Control of Chaos in Nonlinear Gear System using Predictive Sliding Mode Control
      Nima Valadbeigi Seyed Mahdi Abtahi
      Issue 2 , Vol. 15 , Spring 2024
      This paper presents a control system for elimination of chaotic behaviors in spur gear system. To this end, at first different aspects of chaos are investigated by means of numerical tools including time series response, phase plane trajectories, bifurcation diagram, Po More
      This paper presents a control system for elimination of chaotic behaviors in spur gear system. To this end, at first different aspects of chaos are investigated by means of numerical tools including time series response, phase plane trajectories, bifurcation diagram, Poincare’ section, Lyapunov exponent and power spectrum density. The nonlinear dynamic model encompasses constant mesh stiffness and damping along the line of action, static transmission error and backlash. In order to suppress the chaotic oscillations, a novel controller on the basis of the Predictive Sliding Mode Control (PSMC) is proposed in which the sliding surface is predicted by the use of model predictive control theory and the control input is obtained. Consequently, the control system takes advantage of the both approaches in developing a robust controller. The simulation results of the feedback system depict the effectiveness of the controller in elimination of the chaotic vibrations along with reduction of settling time, overshoots, and energy consumption. Furthermore, stability and robustness of the system are guaranteed. Manuscript profile
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  • Affiliated to
    Islamic Azad University Isfahan Branch
    Director-in-Charge
    Dr. Hamid montazerghaem (Faculty of Engineering Najafabad branch Islamic Azad University)
    Editor-in-Chief
    Dr. Sadegh Rahmati (Associate Professor ِDepartment of Mechanical & Aerospace Engineering IAU University, Science & Research Branch Tehran, Iran)
    Editorial Board
    Dr. Saeed Daneshmand (Associate Professor; Department of Mechanical Engineering, Islamic Azad University Majlesi Branch, Isfahan, Iran) Dr. Djordje Vukelic (Professor, University of Novi Sad, Faculty of Technical Sciences, Department of Production Engineering, SerbiaProf. Djordje Vukelic is working as Head of Doctoral Study Programme in Mechanical Engineering at the Faculty of Technical Sciences in Novi Sad. He has completed his Ph.D. from Faculty of Technical Sciences in Novi Sad. At the Faculty of Technical Sciences in Novi Sad, he teaches courses on undergraduate, masters and doctoral studies to students of Mechanical Engineering and Environmental Engineering. He has published 11 books, 94 journal papers and, 102 conference papers.His research interests are focuse on process planing, computer-integrated manufacturing, tribology, engineering analysis and simulation, design of experiments, quality control, ecodesign and cleaner production.) Dr. S. Khatiboleslam Sadrnezhaad (Professor, Department of Materials Science and Engineering Sharif University of Technology Tehran, IranSayed Khatiboleslam Sadrnezhaad is an Iranian distinguished professor of materials science and engineering, at the Sharif University of Technology. He received his Ph.D. from the Massachusetts Institute of Technology in 1979 and his B.Sc. from the Sharif University of Technology in 1974. He was entitled as 1% world's top scientists by the ESI citation database from Thomson Reuters 2015 and 2016. He is the holder of a research chair from the Iran National Science Foundation (INSF). His current interest is in the emerging bio-nano and SMA fields of the materials science and engineering discipline.) Dr. Wenguang Li (Professor, School of Engineering, University of Glasgow, UKDr. Wenguang Li is the professor of mechanical engineering in the school of engineering, University of Glasgow, UK. His research interests focus on fluid dynamics and hydro design problems in fluid machines, studying these both analytically and numerically.) Dr. Habiba Bougherara (Professor, Department of Mechanical Engineering, Ryerson University, CanadaDr. Bougherera is the professor of mechanical engineering in the Toronto Metropolitan University. Her research interests are in the area of biomaterials biomechanics, with a special focus on the interface between implants and bones. She is particularly concerned with the development and assessment of biomimetic and conventional implants.Her research is aimed at producing prosthetic implant material with the same characteristics, including rigidity, as bone. Basing it on natural fibres will also allow it to integrate better with host tissues, further strengthening the bone-implant interface. This solution recognizes that since interaction between implant material and bone is inevitable, it should be used and indeed optimized as a way of designing better implants. As well as having structural, topological, and mechanical characteristics similar to those of bone, the new materials will also be green: that is, made entirely from renewable resources. This will reduce the use of non-renewable resources and the disposal problems of current implants. The aim of this research program funded by NSERC is to develop a thermodynamic framework to predict the response of the femoral bone after total hip arthroplasty. The outcome will benefit the medical industry, the patients as well as the clinical surgeons.Dr. Bougherara has won numerous grants from NSERC DG, NSERC CRDPJ, Ministry of Research and Innovation-ERA, Ontario Centres of Excellence (Collaborative research projects Grants), Industrials, Internal Research Tools and Instruments Grants, MITAC/Accelerate Ontario, Ryerson Fund for Interdisciplinary SRC. Dr. Bougherara has authored and/ or co-authored more than 50 refereed journal publications and conference proceedings.) Dr. Hirpa Gelgele Lemu (Professor, Department of Structural & Mechanical Engineering , University of Stavanger, NorwayDr. Hirpa G. Lemu is a professor of Mechanical Engineering at University of Stavanger, Department of Mechanical & Structural Engineering and Materials Technology. Dr. Lemu's  research areas focus on simulation driven design approach, design optimization, design for additive manufacturing, additive manufacturing technologies, composite materials and natural fibers, modeling and simulation of mechanical systems and material behavior characterization. He has served as research group leader of the Mechanical and Materials Engineering group at his department for several years, where developing study programs and the curriculum have been part of his main responsibilities. Currently, Dr. Lemu is the chairperson of national organ for mechanical and structural discipline whose responsibilities include advisory support in definition of learning outcomes for study programs in mechanical and structural engineering disciplines. Among recent achievements, he founded a 3D Printing lab at UiS and this lab is currently equipped with diverse 3D printers of thermoplastic, composite and metallic materials and 3D scanning tools. Dr. Lemu has been the main initiator and coordinator of an international conference organized at University of Stavanger entitled “Computational Methods in Offshore Technology”. The conference was organized in November 2019 for the second time and attracted publications from 20 different countries and will be organized every other year. He is also the initiator and faculty advisor of two student teams working on problem-based learning projects, ION Racing and UiS Subsea, who design and build Formula 1 like racecar and underwater robot respectively, for participation in annual competition of engineering students at international level. Dr. Lemu has served as member of several recruitment committees in Norway and member of PhD evaluation committee for over 15 PhD candidates at different institutions in Norway and other countries in Europe and Asia. He has published and co-published over 150 articles in reputed journals and conference proceedings. Currently, he is serving as an Areal Editor of Journal of Simulation Modelling Practice and Theory (ELSVIER), Guest Editor for Materials journal (MPDI) for a special issue entitled “Advances in Modeling and Analysis of Additive Manufactured Materials”, Reviewer of many International Journals and Scientific Committee member of several International Conferences.) Dr. Ahmad Reza Khoogar (Associate Professor, Department of Mechanical Engineering, Maleke Ashtar University of Technology, IranDr. Ahmadreza Khoogar is the assistant professor of mechanical engineering in  the university of Malek ashtar. His research interests focus on legged locomotion, neurocontrollers, three-term control, PD control,aerospace control,aerospace simulation,artificial satellites,assembling and backpropagation.) Dr. MohamadReza Khalili (Professor, Department of Mechanical Engineering, KhajehNasir Toosi University, IranDr. Ahmadreza Khoogar is the professor of mechanical engineering in  the university of Khajenasir university. His research interests focus on Advanced and Smart Materials and Structures) Dr. Moharam Habibnejad (Professor, Department of Mechanical Engineering, Iran University of Science and Technology, IranMoharam HabibnejadKorayem is a Professor in Mechanical Engineering at Iran University of Science and Technology. His research interests include dynamics of elastic mechanicalmanipulators, trajectory optimization, symbolic modeling, robotic multimediasoftware, mobile robots, industrial robotics standard, robot vision, soccer robot and the analysis of mechanical manipulator with maximum load carrying capacity. He has published more than 600 papers in international journal and conference in the robotic area. ) Dr. Rahmatollah Ghajar (Professor, Department of Mechanical Engineering KhajehNasir Toosi University, IranR. Ghajar is a professor of mechanical engineering in K.N Toosi University of Technology. His field of study includes fracture mechanics and fatigue.) Dr. Mohamad Reza Elhami (Associate Professor, Department of Mechanical Engineering, Emam Hossain University, IranM. Reza Elhami received his PhD in Mechanical Engineering from Liverpool University, UK, in 1997. He is currently Associate Professor at Mechanical Engineering Department of the Imam Hossein University (IHU), Tehran, Iran. He has been working on design and manufacturing of many industrial mechanisms in the field of control, dynamics and robotics. At present, his main research interest concern dynamic and vibration analysis in continuous media, advanced control strategies, intelligent mechanisms and advanced robotics.) Dr. Zouheir Fawaz (Professor, Department of Mechanical Engineering, Reyrson University, Toronto, CanadaDr. Zouheir Fawaz is the professor of mehanical engineering in Ryerson University. His research interests focus on composite materials, aircraft structure and damage.) Dr. Javad Akbari (Associate Professor, Department of Mechanical Engineering, Sharif University of Technology, IranJavad Akbari received his PhD in Mechanical Engineering from Chiba University,Japan in 1993. He is currently Associate Professor of Mechanical engineering at the Sharif University ofTechnology. His current research interest includes Machining, Grinding, Ultrasonic and AdditiveManufacturing) Dr. Cyrus Aghanajafi (Professor, Department of Mechanical Engineering, KhajehNasir Toosi UniversityCyrus Aghanajafi received his MSc in Mechanical Engineering from South Georgia State College and PhD and Postdoc in Mechanical Engineering from Tennessee State University in 1989. He is currently Professor at K.N.Toosi University. His current research focuses on thermodynamics andheat transfer.) Dr. Hamid Ahmadian (Professor, Department of Mechanical Engineering, Iran University of Science and Technology, IranH. Ahmadian is a Professor in the Department ofMechanical Engineering, Iran University of Science and Technology, Tehran, Iran. He received his PhD in University of Waterloo, Canada, in 1994) Dr. Mohammad R. Movahhedy (Professor Center of Excellence in Design, Robotics and Automation Department of Mechanical Engineering Sharif University of TechnologyDr. Mohammad R. Movahhedy is the Professor of Manufacturing Engineering in the Department of Mechanical Engineering,Sharif University of Technology. His research interest focus on Additive Manufacturing, 3D printing, Laser Cladding Fabrication and Application of Meta-Materials Hybrid Machining Processes; Ultrasonic and Laser assisted Machining    ) Dr. Mansour Talebi (Associate Professor, Reactor and Nuclear Safety Research School, Nuclear Science & Technology Research Institute, IranMansour Talebi is Assistant Professor of Mechanical Engineeringin Nuclear Science & Technology Research Institute (NSTRI), Iran. He received his PhDin Mechanical Engineering from Isfahan University of Technology, in 2003) Dr. Kamran Amini (Associate Professor; Department of Mechanical Engineering, Islamic Azad University Majlesi Branch, Isfahan, IranKamran Amini is Associate Professor of Materials Engineering at Islamic Azad University, Majlesi Branch, Iran. He received his PhD in Materials Engineering from Islamic Azad University. His current research focuses on Cryogenic Heat Treatment, Surface Engineering and Friction Stir Welding& Processing.) Dr. Mohsen Ashourian (Associate Professor, Islamic Azad University Majlesi Branch, Isfahan, IranMohsen Ashourian received his PhD in Electrical Engineering from University Technology Malaysia in 2001. He is currently Associate Professor at the Faculty of Engineering, Majlesi Branch, IAU, Isfahan, Iran. His current research interest includes intelligent signal processing and computer vision and automation.) Dr.Mohammadreza Khanzadeh (Associate Professor ,Majlesi Branch of Islamic azad UniversityDr. Mohammadreza Khanzadeh is the Associate Professor of Material Science and Metallurgy Engineering at Majlesi Branch of Islamic Azad University in Isfahan, Iran. He received his Ph.D. degree in Material Science and Engineering in Advanced Material from Tehran Science and Research Branch of Islamic Azad University. his major in Ph.D. and M.S is Advanced Welding Methods. his interests are as:Advanced Welding Methods,Surface Engineering,Hard facing Methods.) Dr. Mohammad Heydari Vini (Department of Mechanical Engineering, Mobarakeh Branch, Islamic Azad University, Mobarakeh, Isfahan, IranDr. Mohammad Heydari Vini is the assistant professor of Mechanical engineering at the Mobarakeh Branch, Islamic Azad University, Mobarakeh, Isfahan, Iran. He authored books and articles on rolling, sheet metal forming and metal matrix composites. His current research focuses on metal forming, metal matrix composites, materials heat treatments and sheet metal processing)
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    Number of Volumes 17
    Number of Issues 67
    Printed Articles 681
    Number of Authors 2153
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    Acceptance 46 %
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    Last Update 6/24/2024