Aims and scope

The journal Multibody System Dynamics treats theoretical and computational methods in rigid and flexible multibody systems, their application, and the experimental procedures used to validate the theoretical foundations.

The research reported addresses computational and experimental aspects of multibody dynamics and their application to classical and emerging fields in science and technology. Both development and application aspects of multibody dynamics are relevant, in particular in the fields of control, optimization, real-time simulation, parallel computation, workspace and path planning, reliability, and durability. The journal also publishes articles covering application fields such as vehicle dynamics, aerospace technology, digital twins, robotics and mechatronics, soil models, machine dynamics, crashworthiness, biomechanics, data based methods, games, virtual reality, artificial intelligence, system identification and sport engineering if they involve or contribute to the field of Multibody System Dynamics.

The journal Multibody System Dynamics promotes UN sustainability development goals 8, 9, 12, 13, and 17. It fosters societal progress by applying cutting-edge academic research in engineering to address practical industrial and sustainability challenges. Particularly, it focuses on the evolving relationships between the environment, industry, and labor, as well as between humans and machines. The journal Multibody System Dynamics holds critical importance for forward-looking research teams and ecosystems that utilize simulation tools to model their processes or leverage digital twins to develop sustainable business models and processes. Moreover, the journal serves as a vital resource in educating the highly skilled workforce required to participate in the fifth industrial revolution.

Honorary Editor:
Werner Schiehlen, University of Stuttgart, Germany

Special Issue on Multibody Biomechanics
提出日: 2024-12-31

Over the past decade, there has been a rapid increase in applications of multibody system dynamics to the study of the biomechanics of movement. For example, using predictive “what-if” human dynamic simulations that do not rely on experimental testing or prototypes, new medical interventions and devices can be developed more quickly, cheaply, and safely. This collection invites theoretical and experimental studies dealing with biomechanical applications of multibody system dynamics in clinical practice, medical and assistive device design, sports, and industrial ergonomics.

Topics of interest include, but are not limited to:

Neuromusculoskeletal modelling and dynamic simulation; human movement analysis; predictive simulation of movement; analysis of neural control adaptation to rehabilitation technologies; optimal design of assistive technologies; analysis of sports movements and/or equipment to maximize performance; ergonomics and human factors; human-robot interaction; animal locomotion.