The center focuses on multidisciplinary and fully integrated research. This includes basic research through advanced mathematical modeling and numerical computation methods developed by the center itself. This work is academically oriented and aims to produce high-quality outputs that contribute new knowledge, which can be published in international journals with high Impact Factors and H-Index. In terms of applied research, the knowledge gained from basic research is extended to develop technologies that align with the needs of the country. The outcomes at this stage are typically in the form of experimental data and industrial research, where the acquired knowledge is further developed into processes suitable for continuous development in the form of pilot scale and commercial scale. This is the final stage of the comprehensive research process. In this stage, researchers have created prototype machines at both pilot scale and commercial scale that are patentable and can be practically used. The center also serves as a hub for researchers in the fields of microwave technology for industrial applications and medical engineering within the country. It is a research center with strong research capabilities.

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The main objective of the center is to focus on creating innovations to solve the country's major problems through creative engineering design and development (Creative Engineering Design & Development, CED2). This involves integrating knowledge from various disciplines, with a particular emphasis on developing health-related innovations for underprivileged individuals in Thailand. The goal is to develop innovations that can be practically applied, generating value both commercially and in terms of public welfare. Initially, the focus will be on designing and developing health innovations for patients, people with disabilities, and the elderly. Additionally, the center aims to create pathways to commercialize these innovations, generating revenue that can be reinvested into research, thus creating a sustainable research cycle.

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The center aims to achieve excellence in research on catalysts and adsorbents across the following areas:
1. **Activated Carbon**: With a large surface area and costeffectiveness, activated carbon can be commercially developed and utilized. The focus will be on developing it as a mercury vapor adsorbent and enhancing its efficiency through various surface modification techniques.
2. **Carbon Nanotubes**: Although carbon nanotubes have a large surface area, their high cost limits their applications. Therefore, the development will focus on their use in sensors.
3. **Catalysts**: The emphasis is on photocatalysts for the degradation of highly hazardous chemicals. This group includes materials such as TiO2, ZnO, Graphene, and CuS.
4. **Strong Reducing Agents**: These will be developed to react with or reduce the harmful effects of arsenic. This group includes NZVI (Nanoscale Zero-Valent Iron) and Modified NZVI.
5. **Specialized Supercapacitors**: The focus here is on energy storage, synthesized from agricultural materials such as biochar and green plants.

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**Mission of the Center:**
The center is committed to advancing knowledge in advanced computational mechanics and medical engineering, aiming to produce visible results, practical and high-quality innovations that meet international standards and can compete globally.
**Objective of the Center:**
To develop knowledge in mechanics and medical engineering through computational methods, striving for excellence in both academic and innovative aspects on a global and sustainable level.

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The Research Unit in Industrial Statistics and Operational Research at the Faculty of Engineering specializes in advanced statistical methods and operational strategies to enhance industrial efficiency and decisionmaking. It focuses on data analytics, statistical modeling, and optimization to address complex issues in manufacturing, logistics, and supply chain management. This integration of research and practical application aims to drive innovation and improve sector-wide performance, promoting sustainable industrial practices.

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The Research Unit in Polymer Rheology and Processing at the Faculty of Engineering is dedicated to exploring the flow behavior and processing dynamics of polymers. This unit focuses on advancing knowledge in polymer science, specifically how materials behave under various conditions during manufacturing processes. The purpose of this unit is to enhance the efficiency and quality of polymer processing techniques, leading to more reliable and innovative products. By studying the properties of polymers at a molecular level, the research aims to optimize formulations and processing conditions, contributing to advancements in industries such as automotive, aerospace, and consumer goods, where polymer materials play a critical role.

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This unit delves into advanced analysis, design, and innovation in structural integrity and foundation stability. By applying the latest research and technology, it aims to enhance the safety, durability, and costeffectiveness of construction projects. The unit's work is essential in ensuring that buildings and infrastructure are capable of withstanding environmental forces and load demands, crucial for long-term sustainability and resilience.

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Dedicated to enhancing the longevity and safety of existing infrastructures, this unit specializes in developing advanced techniques for inspecting and monitoring infrastructure health, alongside innovative methods for repair and reinforcement. By integrating state-of-the-art technologies such as sensors, drones, and AI analytics, the unit aims to proactively address structural vulnerabilities, ensure compliance with safety standards, and extend the service life of critical infrastructure components across various sectors.

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This unit develops novel materials and smart construction methods to enhance the durability and efficiency of structures. Its work aims to create resilient infrastructures that withstand environmental stresses and meet societal needs, promoting safety and sustainability in urban development

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Focusing on leveraging big data analytics and digital technologies to drive innovation and efficiency across industries. This unit specializes in developing advanced algorithms, machine learning models, and data-driven strategies to facilitate digital transformation and improve decision-making processes. Its research aims to enhance data integration, optimize operations, and create scalable solutions that foster growth and innovation in today's digitally driven world.

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The Research Unit in Climate Change and Sustainability at the Faculty of Engineering is dedicated to addressing the pressing global challenge of climate change through sustainable engineering solutions. This unit focuses on developing strategies and technologies that mitigate environmental impact and promote resilience in infrastructure and systems. It integrates multidisciplinary research to understand and respond to climate dynamics, aiming to support sustainable development and reduce carbon footprints across various sectors, from urban planning to renewable energy deployment.

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This unit delves into the complexities of stress, strain, and deformation in materials, aiming to enhance designs for structural integrity and vibration control in engineering applications. The research conducted here is pivotal for developing safer, more durable structures and machinery across industries like construction, automotive, and aerospace, where understanding material dynamics under mechanical loads is crucial.

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