CONF-MPCS 2026

The School of Physics, Dalian University of Technology

Symposium Chairs: Dr. Shuxia Zhao, Associate Professor in Dalian University of Technology

Since the gaseous discharging plasma is complex, it is systematically studied by means of the methods of numerical simulation, experimental diagnostic, and analytical theory. With respect to the numerical calculation, we can develop the simulation code, such as fluid model and particle model by ourselves, through the fortran or C++ computer language, or rely directly on the commercial softwares, such as Analysis, Comsol, Pegsus, or Quantemol, etc. Whether using the self-written code or the commercial software, the discharge profiles are always the preliminary data that people are confronted with. At interpreting these profiles of different parameters of plasma, such as density, temperature, charge density, potential, electromagnetic field, flux of mass and energy, and velocity of species etc., the concept of discharge structure is constructed. Usually, the discharge structure of electropositive discharging plasma such as the argon inductively coupled plasma (ICP) is characterized by the parabola and Bessel functions, respectively in axial and radial directions, at the assumption of azimuthal symmetry. While the discharge structure of electropositive plasma is understandable and moreover it is validated by means of simulation, theory and experiment, the discharge structure of electronegative plasma is quite unknown and less cared about yet. Regarding the fact that the industrial plasmas are almost the electronegative plasma type, a systematic study of discharge structure of such plasmas is important since it helps people better recognize the plasma source and hence optimize present plasma techniques and excite new frontier of application in future, probably.

Department of Computer and Information Sciences, University of Strathclyde

Symposium Chair: Dr. Anil Fernando, Professor at University of Strathclyde

Computational simulation and applied mathematics are essential for the development and evaluation of emerging communication paradigms, including quantum communication systems. As multimedia data volumes continue to grow, reliable transmission of images and videos over noisy and bandwidth-limited channels remains a significant challenge. Classical communication techniques rely on mathematical models, numerical optimization, and signal processing algorithms to improve reliability and efficiency. Similarly, quantum communication systems depend heavily on computational simulation to model quantum states, noise processes, and decoding strategies, as practical large-scale quantum hardware is still under development. Applied mathematical tools, such as linear algebra, probability theory, optimization, and numerical analysis, form the foundation for modeling quantum states, designing encoding schemes, and evaluating system performance. The integration of quantum communication concepts with computational simulation enables the study of complex quantum–classical hybrid systems and supports the development of robust, high-fidelity image transmission frameworks.

Hangzhou Innovation Institute of Beihang University

Symposium Chair: Dr. Jixi Lu, Associate professor in Hangzhou Innovation Institute of Beihang University

On April 12, 2026, the Workshop International Conference on Optical Magnetometry and Computational Simulation of the 4th International Conference on Mathematical Physics and Computational Simulation (CONF-MPCS 2026), jointly hosted by Hangzhou Innovation Institute of Beihang University and EWA Publishing, successfully concluded at the institute.

Focusing on cutting-edge technologies and applications of atomic magnetometers, this workshop shared the latest research achievements in core directions including optically pumped magnetometers, medical translation of SERF atomic magnetometers, spin exchange between alkali metals and noble gases, and quantum weak measurement detection.

The conference built a high-level academic exchange platform, deepened technical discussions and industry-university-research cooperation in the field of quantum precision measurement, laid a solid foundation for the practical application of relevant technologies in scenarios such as magnetic detection, and was highly praised by the participants.