Minisymposia
MS01: Mechanical properties of smart materials: theory, modeling, and optimization
Organizers: Liu Xia, Beijing University of Technology; Goh Kek Boon, Monash University Malaysia;
Ye Hongling, Beijing University of Technology;
Zhang Xingyu, Beijing University of Technology; He Lewei, South China Normal University;
Li Hua, Nanyang Technological University; Yang Qingsheng, Beijing University of Technology
You are invited for participation to this mini-symposium focusing on deeply understanding of the mechanical properties of smart materials subject to
various environmental conditions. The mini-symposium interest extends to understanding of mass, heat, and momentum transport mechanisms during mechanical
performance of the smart materials, encompassing various aspects such as instabilities, growth, damage, fracture, and associated transport phenomena at different
length and time scales. You are also welcome to join us for discussion about the applications of the smart materials and smart-material-based composites that contribute
to the multi-functional properties of materials. The experimental, numerical and optimization approaches for revealing the mechanism and improvement of the mechanical
properties are also engaged in the discussion. In summary, this mini-symposium aims to become a platform for researchers with theoretical, modeling, and optimization
backgrounds to discuss about recent progress in the field of mechanical properties to various smart materials.
MS02: Structural dynamic modeling, analysis and control
Organizers: Song Zhiguang, Harbin Engineering University; Lu Shufeng, Inner Mongolia University of Technology; Lei Zuxiang, East China Jiaotong University
Dynamic behaviors of structures are very important. To fully understand the dynamic properties of complex structures under complex environment,
firstly it is necessary to conduct the dynamic modeling of the structures. After that, the dynamic or vibration analysis, and passive and active
control should be carried out. This mini-symposium aims to provide a platform for experts and scholars to share their latest academic developments
and new insights in dynamic modeling, dynamic analysis method, as well as the dynamic control of structures. The research contents include but
are not limited to:
- Mode theory and its application in dynamic modeling
- Model condensation of structures in dynamic analysis
- Dynamic behaviors of structures under fluid-structure interaction
- Dynamic behaviors of plates and shells
- Passive or active vibration control of structures
- Finite element analysis of structures
MS03: Theme area: structural acoustics and vibration
Organizers: Wang Gang, Soochow University, China
This theme area covers all the aspects of experimental and computational methods for the characterization, analysis, design, and
optimization of structural acoustics and vibration systems. These topics include, but are not limited to, emerging methods in
mechanical system design, vibration control, vibro-acoustics, rotordynamics, recent developments in numerical methods
(finite volumes, boundary element methods, spectro-geometric method, isogeometric analysis). The topics include but not limit to:
- Structural acoustics and vibration
- Numerical methods in vibro-acoustics
- Application of vibro-acoustics methods to noise control
- Rotordynamics
- Microperforated materials
- Room acoustics modeling and simulation
MS04: Advanced theories and models for engineering materials and structures
Organizers: Sun Yuzhou, Zhongyuan University of Technology; Wang Hui, Hainan University; Yan Jianwei, East China Jiaotong University
New theories such as higher-order continuum theory and microstructure-guided models have been widely used for mechanical analysis in advanced
engineering materials and structures, including micro/nano materials, mechanical metamaterials, porous composites etc. This symposium focuses
on the development of new theories and methods in theoretical and numerical scopes and models for the related mechanical problems in advanced
engineering materials and structures. Topics of interests include but are not limited to:
- The new developments of higher-order continuum theory
- The new applications of theoretical and computational models in micro/nano mechanics
- The new applications of theoretical and computational models in metamaterials
- The new applications of theoretical and computational models in cellular/porous materials
- The new applications of theoretical and computational models in structures with cutouts
- The new theoretical and computational models in lightweight nanomaterials reinforced composites
- Machine-learning-based inverse design of mechanical metamaterials
- Other new developed numerical methods
MS05: Vibration and control of micro/nano-scaled materials and structures
Organizers: Li Cheng, Changzhou Institute of Technology; Zhang Bo, Southwest Jiaotong University; Li Shuang, Soochow University
The dynamic behaviors of micro/nano-scaled materials and structures have attracted increasing research interest during past several decades,
of which the vibration and control are currently hot topics in the dynamics of intelligent materials structures with small size.
The purpose of this Minisymposia is to provide an opportunity for communication and discussion on recent advances in the field of
vibration and control of micro/nano-scaled materials and structures. The topics include but are not limited to:
- Theoretical modelling for vibration and control of micro/nano-scaled materials and structures
- Nonlinear vibration and stability of motion of micro/nano-scaled materials and structures
- Vibration and control of piezoelectric micro/nano-materials and nano-material reinforced functionally graded composite structures
- Electro-mechanical coupling behaviors of multi-layered micro/nano-scaled dielectric structures
- Numerical methods for vibration and control of micro/nano-scaled materials and structures
- Atomic simulation, multi-scale calculation, testing technique and their applications in analyses of micro/nano-scaled materials and structures
MS06: Modeling via experimental and numerical techniques
Organizers: Liew Kim Meow, City University of Hong Kong, Kowloon, Hong Kong
The understanding of materials functionality and mechanical behaviors of structures and materials are essential in product design and optimization.
This mini symposium plays the role to gather academia and professional communities to share their latest research developments in experimental and numerical modeling (especially novel numerical methods, machine/deep learning and AI),
new design concept and advanced 3D printing technology in, but not limited to:
- Aerospace engineering
- Biomedical engineering
- Civil and structural engineering
- Concrete and cement composites
- Electronic and electrical engineering
- Fire science and engineering
- Fluids and bubble mechanics
- Materials science and engineering
- Mechanical and manufacturing engineering
- Ocean and offshore engineering
- Railway engineering
- System and control engineering
Other research topics/areas in modeling through experimental, theoretical, and computational procedures are also welcome.
MS07: Numerical modeling of FRP-concrete hybrid structures
Organizers: Lin Guan, Southern University of Science and Technology; Jiang Cheng, Western Sydney University
The past few decades have witnessed significant advancements in developing hybrid structures by integrating fiber-reinforced polymer (FRP) composites
with conventional materials (e.g., concrete and steel). By strategically exploiting the individual strengths of each constituent, these hybrid
structures can achieve exceptional structural performance and enhanced durability. Numerical modeling has emerged as a crucial and potent tool
for accurately predicting and interpreting the behavior of such hybrid structures. This mini-symposium aims to bring together leading researchers
at the forefront of numerical modeling of FRP-concrete hybrid structures. In addition, it provides a platform for interested researchers to discuss
future directions and build up interdisciplinary collaborations. Topics of interest include, but are not limited to numerical modelling of:
- FRP-concrete-steel hybrid structures
- FRP-reinforced/strengthened concrete structures
- Seawater sea-sand concrete (SSC) materials and structures
- Filament wound FRP tube-confined concrete
- Concrete filled FRP tubular (CFFT) structures
- FRP-recycled concrete structures
- FRP-UHPC/ECC structures
MS08: Multiscale modeling of mechanical behaviors of advanced materials and structures
Organizers: Cao Guoxin, Tongji University
This mini-symposium will primarily focus on the mechanical behavior of advanced materials and structures based upon multiscale modeling approaches, including but not limited to the following topics:
- Numerical modeling of mechanical behavior of Low-dimensional materials
- Modeling and analysis of characterizing approach at small scales
- Nano-indentations and pressure bulge testing models and analysis
- Modeling and analysis of interface
- Solid-liquid coupling behavior at nanoscale
- Modeling and analysis of mechanical behavior of nanocomposies
- Multiscale modeling of other physical behaviors of Low-dimensional materials
MS09: Peridynamic theory and multiphysical/multiscale Methods for complex material behavior
Organizers: Lai Xin, Wuhan University of Technology; Han Fei, Dalian University of Technology; Hu Yile, Shanghai Jiaotong University; Wang Linjuan, Beihang University
The modeling of material failure and complex fracture has been a great challenge for the community of computational mechanics since the last century.
In the aspect of the capability to describe discontinuities and discrete, non-local theories show their advantage compared to the classical continuum
mechanics. This mini-symposium aims to gather academics and practitioners to present their ideas and potential solutions on emerging topics in theoretical
modeling of diverse material failure using non-local theories, including but not limited to Peridynamics. Topics of interest include, but not limited to:
- Peridynamic theory and models for material failure in extreme condition
- Peridynamic theory and algorithm for complex fracture
- Peridynamic theory and applications for beam, plate, and shells
- Peridyanmic theory and its numerical implementation and commercialization
- Peridynamics in relation to AI and machine learning
- Coupling Peridynamics with Finite Element Method
- Coupling Peridynamics with Smooth Particle Hydrodynamics
- Coupling Peridynamics with Molecular Dynamics
- Coupling Peridynamics with Continuum Mechanics
- Coupling Peridynamics with Phase Field
- Coupling Peridynamics with Lattice Boltzmann Method
- Mathematical analysis
- Mechanics of random media
- Material model development
- Multiphysics and chemistry
- Microstructural evolution, materials processing, and grain growth
- Modeling manufacturing processes
We seek a lively exchange of ideas about the topics/areas in modeling through experimental, theoretical, and computational procedures.
Papers on all aspects of Peridynamics are welcome.
MS10: Small-scale energy harvesters: design, modeling, and applications
Organizers: Zhou Shengxi, Northwestern Polytechnical University; Zhang Bin, Shandong University; Lai Zhihui, Shenzhen University; Yan Bo, Zhejiang Sci-Tech University
With the rapid development of Internet of Things (IoT) technology, the power supply for wireless sensor nodes requires a more extensive and reliable source
of energy. Consequently, the supplementation of electrical energy from the environment to extend the lifespan of low-powered modules, reduce the frequency
of battery replacement, lower the environmental pollution caused by chemical batteries, and even replace batteries, has garnered widespread attention and research.
This session aims to bring together researchers to present their latest findings in energy harvesting research, exchange ideas, and develop new collaborations.
The topics include (but are not limited to):
- New design and materials of energy harvesters
- Vibration/flow energy harvesting mechanism
- Modeling and optimization methods for energy harvesters
- Energy harvesting interface circuit and energy storage
- Innovations and case studies in energy harvesting applications
- Biological energy harvesting
- Applications of energy harvesters
- Modeling and analysis of nonlinear energy harvesters
- Nonlinear phenomena in energy harvesters, such as bifurcations, chaos, and resonance
MS11: Dynamics and control of advanced structures
Organizers: Wang Lifeng, Nanjing University of Aeronautics and Astronautics
The aim of this mini-symposium is to bring together experts in the field of vibration, dynamics and control in advanced structures, such as
metamaterials and micro/nano structures, to exchange their recent research results and to discuss advances in the theory, experiment and
computational methods of advanced structures. The topics include (but not limit to):
- Application of metamaterials for vibration and control
- Wave propagation in micro/nano structures
- Wave propagation and wave control of metamaterials
- Vibration of micro/nano structures
- Continuum model of micro/nano structures
- Numerical methods of micro/nano structures
- Molecular dynamics methods for nano structures
- Experiment study for dynamics of micro/nano structures
MS12: Nonlinear vibrations of composite materials and structures under multi-field
Organizers: Guo Hulun, Tianjin University; Wang Jianfei, Beijing University of Technology; Ke Liaoliang, Tianjin University
Composite materials and structures play an ever-increasing role in the design, fabrication, and functional
applications of modern smart mechanical systems, especially in the last two decades. It has been shown that
advanced composite materials and structures can be used in different environment, such as thermal environment,
wet environment, and fluid environment. These multiple physical fields bring complex loads which leads to complex
nonlinear vibration problems of composite materials and structures. It also led to much attention to study the
essentially nonlinear vibrations among different scientific communities all around the world. The purpose of this
Minisymposia is to provide an opportunity for communication and discussion on recent advances in this research
field. The scope of this section inculudes:
- Linear and nonlinear vibrations of composite materials
- Multi-scale dynamics of composite materials
- Nonlinear dynamics of composite structures in thermal environment
- Flutter and nonlinear aeroelasticity of composite structures in fluid environment
- Experimental measurements of composite materials in dynamic environments
MS13: Advancements in transportation infrastructure: durability, sustainability, and resilience
Organizers: LU Guoyang, City University of Hong Kong, Kowloon, Hong Kong
In view of the high international interest in design and construction of advance pavement systems, this mini symposium
aims to show the latest research advancements in pavement materials and structures, and exchange ideas on various approaches
to the evaluation and prediction of pavement performances. It will promote linkages and interactions between material
characterization methods, mechanistic modeling, and empirical predictions. The topics of interest include but not limited to:
- Advances in pavement analysis and design methodologies
- Advances in smart and non-traditional roadways and runways
- AI and machine learning technologies in pavement engineering and performance prediction
- Chemo-mechanical and other tools for performance evaluation of asphalt binders
- Materials testing and performance modelling: calibration, verification, and validation
- Modeling and experimental evaluation of moisture damage in asphalt mixtures
- Multiscale modeling of pavement materials and structures
- New types of green pavement materials
- Pavements and climate change: adaptation/resilience and mitigation/embodied carbon footprint
MS15: Advances in numerical and data-driven modeling methods for computational biomedical engineering
Organizers: Ademiloye A.S., Swansea University; Abughabush Mohammad, Swansea University; Molina Jorge, University of Granada; Tam Lik-Ho, Beihang University;
Chen Kinon, Beihang University; Zhang Yang, Nanjing University of Science and Technology; Ooi Ean Hin, Monash University Malaysia; Ping Xiang, Central South University
In recent decades, there has been a significant increase in the development and application of advanced methods in computational biomedical
engineering offering an increased flexibility in tackling complex patient-specific problems. Two examples are, the meshfree methods that
have effectively addressed the limitation of mesh-based techniques when dealing with issues of large deformation and complex geometries;
and artificial intelligence (AI) algorithms providing almost instantaneous results with a considerable degree of accuracy.
The aim of this mini-symposium is to create a unified platform where engineers, mathematicians, and computational mechanicians can exchange
ideas and discuss recent advancements in numerical and data-driven modelling concerning various problems in biomedical engineering.
These problems span multiple scales in length and time, encompassing diverse physics and fields. They may include, but are not confined to,
studies involving cells (like red blood cells), soft tissues (such as lung and skin), hard tissues (e.g., bones and teeth), organs (such as the heart and brain),
arteries, microcapillaries, tissue growth, morphogenesis, patient-specific treatments, and targeted drug delivery.
Contributions in the following areas are especially encouraged:
- Development of Novel Algorithms: This involves creating new numerical, AI-based and hybrid data-driven based frameworks aimed at enhancing the simulation of biological processes. These models include molecular dynamics, meshfree, particle methods, virtual elements, finite elements, phase field methods and AI-based algorithms for solving biomedical problems at cellular, tissue, organ, and system levels.
- Innovative Applications in Computational Biomechanics: Pioneering applications of these numerical methods within computational biomechanics, specifically in biosolid and biofluid mechanics, as well as in understanding fluid-structure interactions.
- Computational Modelling of Coupled Phenomena: Exploring computational modelling of interconnected multiphysics and multifield phenomena within biomedical engineering and biomechanics.
- Advanced Numerical Methods for Multiscale Linking: Advancing numerical methods to bridge mechanics across various scales, spanning cellular, tissue, organ, and system levels.
- Experimental and Clinical Validation: Investigating experimental and clinical validation of numerical methods, along with the integration of AI techniques with conventional numerical methods.
This mini-symposium is particular suitable for researchers in the field of computational mechanics with interest in biomedical applications.
It aims to foster a comprehensive understanding of these advanced numerical tools, highlighting their pivotal role in enhancing biomedical engineering
solutions across various domains and applications.
MS16: Numerical methods theory and applications
Organizers: Cheng Yumin, Shanghai University; Peng Miaojuan, Shanghai University; Wang Jufeng, Ningbo University of Finance & Economics; Cheng Heng, Taiyuan University of Science and Technology
Numerical methods, such as finite element method, boundary element method and meshless method,
paly important role for science and engineering computation. Various numerical methods have been
presented for solving the problems in different fields of science and engineering, and the corresponding
computational efficiency, accuracy and convergence are studied as well. Now a great of topics of theory and
applications in numerical methods should be studied. This Minisymposia is devoted to discuss recent developments
of numerical methods in aspects of mathematical theory, software and applications in mechanics and other related
engineering fields. Potential topics include, but are not limited to:
- Mathematical theories of numerical methods
- New or improved numerical methods
- Numerical methods for large deformation, polymer gel and other nonlinear problems
- Software or program of numerical methods
- Applications of numerical methods for complicated engineering problems
- Other topics in numerical methods
MS17: Advanced modeling of concrete materials and structures
Organizers: Dai Jian-Guo, City University of Hong Kong; Dong Biqin, Shenzhen University; Wang Zhao, University of Tokyo; Kai Mingfeng, The Hong Kong Polytechnic University
Over the past few decades, significant progress has been made in the development of concrete materials and structures.
Concurrently, advanced modeling techniques have also been developed as a powerful tool for predicting the short and long-term
performance of such materials and structures, from the atomic, micro, meso to macro scale. Special approaches and corresponding
constitutive laws are needed to describe the behaviors at each level. This mini-symposium aims to showcase the latest research
advances in modeling of concrete materials and structures at the above-mentioned multiple scales. In addition, it facilitates a
platform for researchers to discuss future directions and build up potential collaborations. Topics of interest include, but are not limited to:
- Nano-modified cementitious composites
- Fiber-reinforced cementitious composites
- FRP-reinforced/strengthened concrete structures
- Seawater seasand concrete (SSC) materials and structures
- Recycled aggregate concrete
- Low-carbon cement and concrete systems
- Molecular dynamics simulations
- Meso-scale modeling
- Finite element modeling
- Other advanced computational modeling techniques for concrete materials/structures
MS18: Multiscale/multiphysics modeling and simulation of advanced materials and structures
Organizers: Liu Yan, Tsinghua University; Zheng Yonggang, Dalian University of Technology; Yu Wenshan, Xi'an Jiaotong University; Yong Huadong, Lanzhou University; Yang Qingcheng, Shanghai University
Advanced materials and structures draw great attention, but their analyses pose great challenges to numerical simulation and modeling.
Attractive macroscopic properties are always related to meso-, micro-, and nano-structures. Multiphysics process is also involved in the response of
advanced materials and structures. Novel multiscale and multiphysics modeling and simulation methods are greatly desired. This Minisymposia aims at
providing a platform for the researchers in the field of multiscale and multiphysics modeling and simulation to share their latest research observation
and novel ideas. The Minisymposia includes but is not limited to the following topics:
- Molecular dynamics and other molecular simulation methods for mechanics and materials
- Coarse graining of molecular simulation
- Coupling methods of molecular simulation and continuum-based simulation
- Coupling methods of fluid-structure-thermal interaction
- Coupling methods of electric field, magnetic field and deformation field
- Coupling methods of chemical reaction and deformation of material and structure
- Meshfree particle methods (SPH method, material point method, peridynamics, etc.)
- Advanced modeling methods for complex structures
- Modeling and simulation for the interface
- Multiscale and multiphysics simulation for problems with extreme conditions
- Other topics related to multiscale and multiphysics modeling and simulation
MS19: Reliability analysis theory and optimization methods
Organizers: Hao Peng, Dalian University of Technology; Liu Jie, Hunan University; Wang Lei, Beihang University; Meng Zeng, Hefei University of Technology; Zhang Dequan, Hebei University of Technology
Reliability methods, such as probabilistic safety assessment, fuzzy set, non-probabilistic method, interval reliability analysis method and
confidence method, play important roles for engineering structures and systems. Various reliability methods have been presented for
the development and application of methods for the enhancement of the safety and reliability of complex technological systems, and
the corresponding computational efficiency, accuracy and confidence are studied as well. Now a great of topics of analysis theory and
optimization method in reliability should be studied. This Minisymposia is devoted to discuss recent developments of reliability theory
in aspects of uncertainty quantification method, structural optimization method and applications in mechanics and other related engineering
fields. Potential topics include, but are not limited to:
- Physics-based data-driven modeling and uncertainty quantification
- Uncertainty quantification and reliability analysis in engineering
- Quantifying epistemic uncertainties for computational predictions
- Validation under uncertainty: Novel methods, metrics, and applications
- Novel verification techniques for predictive computational simulations
- Uncertainty quantification in structural dynamics
- Quantifying epistemic uncertainties for simulations
MS20: Innovation and applications of deep learning in materials modeling
Organizers: Peng Lin-Xin, Guangxi University; Fu Zhuojia, Hohai University
With the rapid advancement of deep learning technology, its applications continue to expand across various fields.
In the realm of materials science and engineering, deep learning has brought new perspectives and methodologies to
materials modeling techniques. This session aims to explore the latest research developments in materials modeling
based on deep learning, providing a platform for exchange among materials scientists, engineers and researchers.
Topics include, but are not limited to:
- Applications of deep learning in crystal structure prediction
- Innovative methods using neural networks for predicting material properties
- Applications of deep learning in material design and optimization
- New approaches in materials preparation and processing with artificial intelligence
- Innovative techniques in deep learning for material characterization and testing
- Interdisciplinary integration: the combination of deep learning and traditional materials modeling methods
- Data mining and knowledge discovery in material science research using deep learning
- Sustainable development: Applications of deep learning in environmentally friendly materials and renewable energy sources
Through this session, we hope to facilitate cross-disciplinary collaboration between deep learning and materials science, propel innovation
in materials modeling technology, and pave the way for the future development of materials science. We invite researchers to enthusiastically
submit their contributions, sharing the latest research findings in the intersection of deep learning and materials modeling.
MS21: Computational modelling on mechanical characteristics of nanomaterials
Organizers: He Xiaoqiao, City University of Hong Kong; Zhu Linli, Zhejiang University; Sun Ligang, Harbin Institute of Technology (Shenzhen); Yi Shenghui, Shenzhen MSU-BIT University
Structural engineering and computational modeling constitute fundamental elements in the research and development of advanced mechanical nanomaterials. The mechanical behavior of nanomaterials, at various length scales,
is a complex and critical aspect that affects their performance across a broad spectrum of applications.
Computational modeling provides an invaluable solution to gain a comprehensive understanding of mechanical
characteristics and deformation mechanism of nanomaterials from the atomic level to macroscopic structures,
which is popularly used to guide experimentally and theoretically structural optimization on advanced nanomaterials
of high performance for various engineering applications.
This mini-symposium aims to provide a platform for researchers, scientists, and engineers to present their latest findings,
exchange ideas, and discuss challenges, cutting-edge research and foster innovation related to computational modelling on mechanical
characteristics of nanomaterials.
- Multiscale modelling of nanomaterials
- Atomistic modelling of metal materials
- Atomistic modelling of carbon materials
- Development and application of peridynamics theory
- Structural engineering nanomaterials
- Dynamic analyses of laminated composite plates with piezoelectric sensor/actuator patches
- Optimized design of functional graded plates and shells with excellent mechanical properties
MS22: Application of computational mechanics in engineering
Organizers: Wang Jinbao, Zhejiang Ocean University; Zheng Yonggang, Dalian University of Technology; Xiang Ping, Central South University; Zhu Ping, Hunan University
Computational mechanics plays a pivotal role across various engineering disciplines, including Civil Engineering,
Mechanical Engineering, Transportation Engineering, and Naval Architecture and Marine Engineering, among others.
These fields encounter a range of critical engineering challenges that can be effectively addressed through
modeling and simulation using computational mechanics. This Minisymposia aims at providing a platform for
the researchers in the field of applied mechanics to share their latest research observation and novel ideas.
The Minisymposia includes but is not limited to the following topics:
- Basic theories and algorithms of computational mechanics
- Improved constitutive models in engineering
- Advanced modeling methods for engineering problems
- Advanced numerical simulation methods for engineering problems
- Modeling and simulation for the complex engineering problems using softwares
- Application the fractional order theory in engineering problems
MS23: Vibration characteristic of periodic-structure materials
Organizers: Yan Jianwei, East China Jiaotong University; Lim Chee Wah, City University of Hong Kong
Architected periodic-structure materials are of growing interest in engineering applications due to their extraordinary deformation manipulation
and other dynamic characteristics which are inaccessible by conventional materials. This Minisymposia focuses on the development of new modeling
and solution methodologies in the vibration characteristics of periodic-structure materials, including studies via theory, numerical simulation and experiment.
Topics of interests include but are not limited to:
- Scale effect and boundary effect of periodic-structure materials
- Bandgap of periodic-structure materials and its applications in vibration reduction
- Development of theories in periodic-structure materials
- New computational methods in periodic-structure materials
- Mechanical behavior of periodic-structure homogenous and composite materials
- Morphology manipulation and design of periodic structures
- Development of nonlinear vibration characteristics of period-structure materials
MS24: Mechanics of lightweight composite structures
Organizers: Xiong Jian, Harbin Institute of Technology; Yang Jin-Shui, Harbin Engineering University
Lightweight composite structures are widely used in aerospace, marine, automobile industries due to their high specific stiffness,
strength and multifunctional designability. Common configurations include simple laminated, braided composites, and complex cellular materials,
porous materials, metamaterials, hybrid sandwich structures, etc. This Minisymposia focuses on the mechanics of lightweight composite
structures studied by means of theory, simulation and experiment. Topics of interests include but are not limited to:
- Design and characteristics of ultra-light and high strength composite structures
- Vibration and noise control of lightweight composite structures
- Impact response and energy absorption of lightweight composite structures
- Design and microwave absorption of lightweight composite structures
- Design and thermal management of lightweight composite structures
- Damage diagnosis and structural health monitoring of lightweight composite structures
MS25: Modeling and simulation of multi-field coupling effects in advanced materials and structures
Organizers: Liu Yunya, Xiangtan University; Lei Chihou, University of Scranton; Shan Dongliang, Xiangtan University
Multi-field couplings in advanced materials and structures are the key to underpinning multifunctional behaviors and directly determining the application.
For instance, the piezoelectric and flexoelectric effects induced by the coupling between mechanical and electrical fields are critical to the designs of actuators,
sensors, and energy harvesters. Electrocaloric and pyroelectric effects due to the coupling between electrical and thermal fields have become vital to solid-state
cooling and infrared detection. The magnetoelectric and photovoltaic effects induced by multiple physical fields couplings have promoted the new application of
advanced materials and structures.
This symposium aims to bring together experts from academia and industry to exchange ideas, discuss issues, and promote collaborations in modeling and simulation
of multi-field coupling effects in advanced materials and structures. The topics of this symposium include (but are not limited to) theories and simulations in:
- Piezoelectric and flexoelectric effects (Coupling between mechanical and electrical fields)
- Electrocaloric and pyroelectric effects (Coupling between electrical and thermal fields)
- Magnetoelectric effect (Coupling between electrical and magnetic fields)
- Photovoltaic effect
- Electrochemo-mechanical coupling in batteries
- Multi-field couplings in solid electrolytes
- Other multi-field couplings in advanced materials and structures