Plenary Speaker |
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Professor Mahmoud Shafik
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Prof. Sara Moridpour Biography: Prof. Sara Moridpour, holds a
Bachelor’s degree in Civil Engineering and earned both her
Master’s and Ph.D. degrees in Traffic and Transportation
Engineering. With over 23 years of professional and research
experience in the field, she has been a member of the academic
staff at RMIT University since 2010 and is currently a
Professor of Transport Engineering. |
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Prof. Fabián Díaz Speech Title: Operational Demand and Loading-Bay Capacity for Urban Freight Distribution in a Medium-Sized City: Evidence from Commercial Establishments in Loja, Ecuador Abstract: Urban freight distribution is essential for urban supply, but it also intensifies curbside competition and operational conflicts, particularly in medium-sized cities with limited road space. Although previous studies have emphasized the importance of loading and unloading zones, empirical evidence for estimating the required number of bays in emerging urban contexts remains limited. This study aimed to estimate operational loading and unloading demand and determine the number of required bays for urban freight distribution in a commercial setting in Loja, Ecuador. A structured digital questionnaire was applied to 100 commercial establishments through ArcGIS Survey123, and the resulting database was cleaned, recoded, and transformed into derived variables related to daily-equivalent operations, unloading time, and schedule-specific demand. A capacity-based approach was then implemented under base, operational, and conservative scenarios. The results showed an expected daily demand of 40.333 operations, with a critical concentration between 06:00 and 07:00, when 14.490 operations were estimated. The weighted mean unloading time was 13.056 minutes, and the scenario analysis indicated requirements ranging from 3 bays under daily base conditions to 6 bays under conservative peak conditions. Overall, the study demonstrates that combining establishment-based survey data with operational capacity modelling provides a consistent basis for loading-bay planning in medium-sized cities. Biography: Fabián Patricio Díaz Muñoz is a Civil Engineer from
the Universidad Técnica Particular de Loja (UTPL), Ecuador, with
advanced academic training in infrastructure planning,
transportation, mobility, road safety, and logistics. He holds a
Master’s degree in Planning and Management of Infrastructures from
the Universidad Politécnica de Madrid, Escuela Técnica Superior de
Ingenieros de Caminos, Canales y Puertos; a Master’s degree in
Transport Management, with a specialization in Traffic, Mobility,
and Road Safety, from the Universidad Internacional del Ecuador
and EIG, Spain; and a University Master’s degree in Logistics
Management and Supply Chain Management from the Universidad
Europea, School of Sustainability. His academic background has
enabled him to develop an interdisciplinary perspective linking
civil engineering, transport systems, mobility analysis, and
logistics management. |
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Christian Wille Biography: Christian Wille holds a
bachelor’s degree in telematics (the combination of
telecommunications and computer science) and obtained his
master’s degree in information and communication technology in
2018. Christian has been working at the German Aerospace
Center (DLR) since 2012 and therefore has more than 13 years
of professional and research experience. He currently works as
a group leader in the Cooperative Road Vehicles and Systems
department. |
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Assoc. Prof. Joewono Prasetijo, Biography: Joewono Prasetijo is now serve as an academician and Principal Researcher at the Industry Centre of Excellence for Railway (ICoE-Rel) at the Universiti Tun Hussein Onn Malaysia (UTHM). He earned his Doctorate in Traffic and Transportation Engineering (Dr.-Ing.) from Ruhr-Universität Bochum, Germany, and holds a Master of Science and Diploma Postgraduate from IHE-Delft University of Technology, the Netherlands. With a career bridging road and rail transport, his expertise encompasses highway capacity analysis, traffic safety modelling, and railway track engineering and maintenance. He has led numerous research projects, including the development of hazardous location identification models and sustainable transport planning. A recognized national expert, Joewono Prasetijo serves as a member of the Committee of Expert Working Group on Public Transport – Road Congestion at Malaysia’s Ministry of Transport. He is also a member of the Technical Committee for the Malaysia Railway Industry Standard (MRIS) and an Appraisal Panel member for the Malaysian Qualifications Agency (MQA). He holds professional certifications as a Professional Technologist (Ts.) with the Malaysia Board of Technologists (MBOT) and is a registered Engineering Technologist with the Board of Engineers Malaysia (BEM). His scholarly contributions are significant, with 92 documents under Scopus and over 2,000 citations, reflecting his impactful work in transportation engineering and safety. |
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Assoc. Prof. Emre Kuşkapan Biography: Associate Professor Emre Kuşkapan holds a bachelor’s
degree in Civil Engineering and completed both his master’s and
doctoral studies in Transportation Engineering. Since 2018, he has
been a faculty member at Erzurum Technical University, where he
continues his academic and research activities. His work primarily
focuses on key areas of transportation, including traffic safety,
sustainable transportation systems, intelligent transportation
systems, and micromobility. He has authored numerous academic
publications in these fields, contributing to both theoretical
advancements and practical applications in transportation
engineering. |
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Assoc. Prof. Marko Đurasević Speech Title: Application of hyper-heuristics for the vehicle routing problem. Abstract: The Vehicle Routing Problem (VRP) is a well-known combinatorial optimisation problem that seeks to determine efficient routes for a fleet of vehicles while ensuring that all customers are served and one or more objectives are optimised. Due to the large number of VRP variants and the diverse constraints and optimisation criteria that must be considered, designing effective solution methods remains a challenging task. In dynamic and large-scale environments, where complete information is often unavailable in advance, simple constructive heuristics are frequently employed because they can rapidly adapt to changing problem conditions using the latest available information. Biography: Marko Đurasević is an Associate Professor at the Faculty of Electrical Engineering and Computing (FER), University of Zagreb. His research is centered on evolutionary computation, particularly genetic programming and hyper-heuristics for solving complex scheduling and optimization problems. He earned his Ph.D. in Computer Science from FER in 2018, with a dissertation focused on the automated design of dispatching rules in unrelated machines environments. Dr. Đurasević has published over 100 scientific papers in international journals and conferences, contributing extensively to the fields of combinatorial optimization, machine learning, and soft computing. He is the principal investigator of two nationally funded projects dealing with optimization of containers in ports and routing of electric vehicles. Furthermore, he also leads a project in collaboration with the company AVL-AST. His scientific excellence has been recognized with the Annual Award for Young Researchers by the Croatian Parliament in 2023 and several other national institutions. Dr. Đurasević is an active member of IEEE, IEEE CIS, ACM, and ACM SIGEVO, and regularly serves as a reviewer for leading journals in artificial intelligence and operations research
Assoc. Prof. Amur Salim Al Yahmedi Speech Title: Towards Human-Centred and Explainable Autonomous Vehicle navigation Abstract: Autonomous vehicles should not only move efficiently; they should move in ways that are safe, comfortable, transparent, and aligned with human expectations. This talk presents a human-centred approach to autonomous vehicle control, with particular focus on Adaptive Cruise Control as a foundational function in intelligent traffic and transportation systems. Conventional ACC design often emphasizes technical objectives such as tracking accuracy, stability, and constraint satisfaction. While these are essential, they do not fully capture how passengers and surrounding road users experience automated motion. The work presented reframes ACC design as a behaviour-synthesis problem in which safety, ride comfort, natural following behaviour, and interpretability are embedded directly into navigation of AV. The proposed framework combines a Sugeno-type fuzzy logic controller with multi-objective optimization. The controller generates longitudinal acceleration commands using spacing error, relative velocity, and speed-limit deviation. Human-relevant objectives are represented through Time-to-Collision, jerk, and time-headway tracking, allowing safety, comfort, and natural driving behaviour to be treated as explicit design goals rather than post-hoc evaluation measures. Simulation-based optimization is then used to tune the fuzzy membership functions and generate a family of controller solutions, revealing the trade-offs between conservative safety behaviour, smoother motion, and closer headway regulation. Biography: Dr. Amur Salim Al Yahmedi is an Associate Professor in the Department of Mechanical and Industrial Engineering, College of Engineering, Sultan Qaboos University, Oman. He received his B.Eng. in Mechanical Engineering from Sultan Qaboos University, his M.Sc. in Control Systems from UMIST, Manchester, UK, and his Ph.D. in Mechanical Engineering from the University of California, Davis, USA. His research and teaching are centred on modelling, simulation, dynamics, control, robotics, and autonomous systems. His earlier work includes biped robotics, biomechanics, mobile robot navigation, fuzzy-logic-based control, and motion prediction. More recently, his research has expanded toward human-centred robotics and autonomous vehicle behaviour, with emphasis on scenario-based simulation, explainable fuzzy decision-making, and the design of autonomous systems that behave safely, transparently, and appropriately in environments shared with people. Dr. Al Yahmedi has supervised and co-supervised graduate research projects in human gait prediction, biomechanical modelling, in-pipe inspection robots, mobile robotics, and autonomous systems. His scholarly work spans robotics, mechatronics, biomechanics, fuzzy logic, modelling and simulation, and engineering education. He has also contributed to curriculum development, quality assurance, accreditation, and the development of mechanical and mechatronics engineering programmes and laboratories at Sultan Qaboos University. He has held visiting or research appointments at several international institutions, including KAIST in Korea, the European Centre for Mechatronics in Aachen, the University of California, Davis, Cornell University, and the University of Portsmouth. His current work seeks to connect rigorous engineering design with the human qualities of motion: comfort, trust, interpretability, and responsible autonomy. |
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