The Center for Chip Design focuses on advancing research and innovation in semiconductor and integrated circuit (IC) design. The mission of the center is to develop cutting-edge chip design technologies, support academic research, and train students in modern VLSI and semiconductor system design to meet the growing demand of the electronics industry.
The center promotes research in areas such as VLSI design, FPGA systems, embedded processors, low-power circuit design, and semiconductor technologies. It facilitates collaboration between academia, industry, and research organizations. The center supports faculty and students in securing funded research projects, developing innovative chip prototypes, and publishing research in reputed journals and conferences. It also organizes workshops, training programs, and technical seminars related to chip design and semiconductor technologies.
The Center for Chip Design provides students with hands-on experience in chip architecture, digital and analog circuit design, hardware description languages (HDL), and electronic design automation (EDA) tools. Students participate in design projects, internships, and industry collaborations to gain practical knowledge. The center encourages students to develop innovative hardware solutions and prepares them for careers in semiconductor industries and advanced research.
The center aims to develop innovative chip prototypes, publish high-quality research papers, secure patents in semiconductor technologies, and produce skilled engineers capable of contributing to the global semiconductor ecosystem.
The Centre for AI and Sustainable Technologies is committed to integrating artificial intelligence with sustainable innovation to address global environmental challenges. The centre promotes research that accelerates clean technologies, enhances resource efficiency, and supports climate-resilient development.
The Centre will develop AI-driven models for energy optimization, sustainable agriculture, waste management, and environmental monitoring. It will collaborate with industries, government bodies, and international organizations to deploy intelligent sustainability solutions. Faculty, researchers, and students will work together to create scalable frameworks for carbon reduction, circular economy processes, and green manufacturing. The centre will secure funding from national agencies such as DST, SERB, AICTE, and global sustainability programs to expand its research facilities and project capabilities.
The centre aims to publish impactful research in journals related to sustainability, AI applications, and green technologies. Projects will lead to the development of intelligent sustainability platforms, optimization tools, climate prediction models, and patented green-tech solutions. The centre will contribute to national missions on renewable energy, smart cities, and environmental protection.
Students will receive hands-on training in AI tools applied to sustainability, environmental modelling, and energy systems. Workshops, seminars, and internships with industry partners working in renewable energy, waste processing, and environmental analytics will provide real-world exposure. Students will engage in interdisciplinary projects, develop research publications, and participate in national and international conferences on sustainable technologies.
The Centre for Smart and Sustainable Mobility aims to revolutionize transportation by fostering innovation in intelligent mobility systems, electric vehicles, transportation analytics, and environmentally responsible mobility frameworks.
The centre will design and develop smart mobility solutions, including intelligent transport systems (ITS), EV propulsion technologies, traffic optimization algorithms, and autonomous navigation frameworks. Partnerships will be established with transport authorities, automotive industries, and research laboratories to deploy smart city mobility solutions. The centre will work to acquire government and industrial grants for building EV testing labs, transportation analytics platforms, and mobility simulators.
Outcomes will include advanced models for traffic prediction, EV battery optimization, emission reduction, and transportation safety systems. Research will be published in reputed transportation and sustainable mobility journals. The centre expects to generate patents, collaborate with automotive manufacturers, and contribute to India’s vision for smart, low-carbon mobility.
Students will gain exposure to simulation tools, EV systems, intelligent mobility algorithms, and real-time transportation datasets. Training programs will include certification courses, expert talks from automotive professionals, and project-based learning using industry case studies. Students will participate in internships with mobility companies and work on government-funded smart transportation initiatives.
The Digital Construction Studio focuses on transforming the construction industry through digital technologies such as Building Information Modelling (BIM), digital twins, automation, and sustainable construction practices.
The Studio will develop digital workflows for architecture, structural engineering, and construction management. It will promote BIM adoption, automated quantity estimation, construction robotics, and smart infrastructure monitoring. Collaborations will be initiated with builders, civil engineering firms, and government bodies to integrate digital engineering solutions. Funding will be sought for creating digital labs, VR/AR-based visualization facilities, and automation tools.
The Studio will publish research on BIM frameworks, digital twin solutions, construction automation, and sustainable building technologies. Project outcomes include digital construction platforms, automated design validation tools, and smart site monitoring systems. Collaborative projects will strengthen digital infrastructure initiatives at the national level.
Students will be trained in BIM software, digital twin modelling, construction analytics, and 3D visualization platforms. Hands-on workshops will be conducted with industry experts, along with internships and field training at construction sites using digital tools. Students will participate in real-time digital construction projects and publish applied research in construction technology.
The Centre for Intelligent Battery Management System (iBMS) aims to innovate in battery technologies, focusing on safety, efficiency, predictive diagnostics, and next-generation energy storage systems.
The Centre will design AI-powered BMS architectures, develop battery health monitoring algorithms, and implement predictive maintenance models for EVs and renewable energy storage systems. Collaboration with EV manufacturers, renewable energy companies, and research laboratories will support advanced battery testing and characterization. Funding from MNRE, DST, and industry partners will help establish high-end battery testing facilities and research equipment.
Research will focus on battery ageing models, thermal management, fault prediction, and advanced control strategies. Results will be published in esteemed journals related to electrochemistry, energy storage, and automotive technologies. Project outcomes will include patented BMS solutions, real-time monitoring systems, and industrial collaboration outcomes for EV and grid applications.
Students will gain hands-on experience with battery modelling tools, data acquisition systems, and laboratory testing setups. Training will include workshops on EV batteries, seminars by energy storage experts, and project collaborations with industry. Students will develop research papers, work on industrial consultancy projects, and contribute to prototype development.
The Centre for System Design is dedicated to enabling multidisciplinary design, modelling, and optimization of complex engineering systems. It promotes innovation in system architecture, simulation, embedded systems, and automation.
The Centre will work on developing system-level design frameworks, simulation models, and intelligent control architectures. Research areas include embedded systems development, mechatronics, hardware-software co-design, and system-level optimization. The Centre will engage with industries in automotive, aerospace, manufacturing, and robotics to support design and prototyping needs. Funding will be sought from DRDO, ISRO, DST, and related agencies to enhance design facilities and labs.
Outcomes include simulation tools, optimized system designs, hardware prototypes, and design automation frameworks. Research will be published in renowned journals in systems engineering, robotics, and embedded systems. The centre will generate patents, design tools, and collaborative industrial projects that strengthen the institute’s system engineering capabilities.
Students will be trained in system modelling tools, embedded systems programming, and simulation platforms such as MATLAB/Simulink, LabVIEW, and ROS. Workshops, design challenges, and hackathons will enhance practical skills. Students will participate in interdisciplinary design projects, present research findings, and gain mentorship for innovation and product development.
The Center for Artificial Intelligence is dedicated to advancing the field of artificial intelligence by developing innovative technologies and applications. Our mission is to explore the potential of AI to transform industries, improve quality of life, and contribute to scientific understanding.
The Center for Artificial Intelligence is responsible for securing funding, managing resources for AI projects, mentoring faculty, researchers, and students, and representing the Center in national and international AI forums and conferences. Additionally, it facilitates collaboration between researchers, industry partners, and academic institutions. Funding will be acquired from various sources, including the Department of Science and Technology (DST), All India Council for Technical Education (AICTE), Defence Research and Development Organization (DRDO), and industry partners, to create financial support for the Center’s initiatives. Cutting-edge research in a variety of AI domains, including machine learning, natural language processing, computer vision, and robotics, will be conducted by researchers and faculty members along with students. They will publish high-quality research papers in prestigious journals and conferences, collaborate with industry partners to translate research into practical applications, and supervise and mentor graduate, undergraduate, and research scholars. It will develop and deliver AI-related courses and workshops. Students will participate in internships and collaborative projects with industry partners, contribute to the Center’s publications and outcomes.
The Center aims to publish high-impact research in top-tier journals and conferences such as IEEE Transactions on Neural Networks and Learning Systems, NeurIPS, and IJCAI. The focus will be on research that addresses significant AI challenges, offers innovative solutions, and has practical applications. The project will result in the development of AI solutions that address real-world issues in various sectors, such as finance, healthcare, and education. By developing open-source AI platforms and tools, we intend to encourage greater collaboration and adoption. Furthermore, we will illustrate the influence of AI technologies through case studies and pilot projects, securing recognition through patents, grants, and awards for innovative AI applications.
The Center for Artificial Intelligence offers a variety of comprehensive programs for student training and development that are designed to cultivate the next generation of AI leaders. Providing hands-on experience through lab work, internships, and project-based learning, training initiatives cover AI fundamentals, advanced topics, and emerging trends. The knowledge and skills of students are enhanced through workshops, seminars, and guest lectures by AI experts and industry leaders. Mentorship is offered by seasoned faculty and researchers who provide students with guidance in their academic and research endeavors, ensuring that they are continuously improved through regular progress evaluations and feedback sessions. Career development support encompasses the provision of career counseling to students who are interested in pursuing advanced degrees and research opportunities, as well as assistance in securing internships and job placements at prominent AI companies and research institutions. Students are encouraged to develop and commercialize AI innovations for societal impact and technological advancement by the Center, which promotes an entrepreneurial mindset.
The Center for Computational Biology aims to advance research in biological systems using computational techniques. The center develops computational models, integrates diverse data sets, promotes machine learning and artificial intelligence in biological research, and trains computational biologists.
The Center for Computational Biology (CCB) utilizes a multifaceted methodology to advance life sciences research. CCB conducts fundamental research by creating and refining computational tools and algorithms in computational biology. Utilizing bioinformatics, biophysics, structural biology, and systems biology, CCB will train students and researchers to develop and apply computational models, analyze complex biological data, and contribute to cutting-edge research in the life sciences.
CCB will develop mathematical models for diseases such as dementia, Alzheimer’s, Parkinson’s, and epileptic seizures. To conduct exhaustive research on neuropsychological disorders, the center will collaborate with healthcare organizations to acquire real-time patient data. It will implement sophisticated computational and mathematical methodologies, including artificial intelligence and machine learning, to forecast neurological disorders.
Additionally, the center will collaborate with epidemiologists worldwide to understand and control epidemics. To develop its computational facilities, CCB will secure funding from various government agencies, international research funds, and industry partners. The center’s research will lead innovative initiatives and publish findings in high-impact journals.
CCB will conduct specialized research, facilitate student mentoring, contribute to grant writing and publications, provide computational support, maintain research infrastructure, and assist with data analysis.
One of the important outcomes from the centre is high quality research publications. CCB will publish their findings in reputed journals. The forecasting techniques, computational tools, and algorithms developed by the centre will bring patents and research grants, as well as computational and infrastructure facilities, to the institute. Research will bring international collaboration and recognition to the centre.
The center offers a comprehensive student training and development program designed to prepare individuals for careers in computational biology and related fields. This includes workshops and seminars covering computational techniques, programming, and data analysis, given by centre members and prominent scientists. Graduate students benefit from personalized mentorship and opportunities for collaborative projects with institutions and industry partners, including data collection from hospitals, healthcare providers, and public data repositories. The program emphasizes career development through presentation opportunities at national and international conferences, support for research papers and grant proposal writing, and access to a robust network of alumni and professionals for guidance. Hands-on experience is integral, with students engaging in research using advanced computational tools and technologies and participating in interdisciplinary projects to enhance their skills.
The Center for Industrial Robotics is dedicated to accelerating the progress and impact of indu. We achieve this by fostering innovation in robot design, control systems, and human-robot collaboration. Through research, education, and industry partnerships, the CIR empowers businesses to leverage robotics for increased efficiency, safety, and productivity. We strive to unlock the full potential of industrial robotics to transform manufacturing, enhance competitiveness, and shape a future where robots work alongside humans for the benefit of society.
• Develop and deliver courses related to industrial robotics, covering areas like robot mechanics, control systems, sensors, and programming languages.
• Provide training in industrial robotics for both students and industrial personnel in three levels of training in basic, advanced, and expert.
• Stay up-to-date on the latest advancements in industrial robotics and integrate them into the curriculum.
• Mentor and advise students pursuing degrees or research in industrial robotics.
• Various Use cases can be handled and involve the students to resolve the problem statement for Industries.
• Conduct research on various aspects of industrial robotics, potentially including robot design, control algorithms, human-robot interaction, and safety.
• Secure funding for research projects through grants and industry partnerships.
• Publish research findings in academic journals and conferences.
• Collaborate with colleagues and students on research initiatives.
- Contribute to the overall growth and direction of the CIR.
- Participate in outreach activities to promote the centre and industrial robotics to industry, government agencies, and the public.
- Build partnerships with companies in the robotics sector for research collaboration, student internships, Workshops and technology transfer like Student Exchange Programs.
- Advise on the acquisition and maintenance of robotic equipment for the centre’s labs.
• Development of a different robot gripper and design with improved grasping capabilities.
• Creation of a new control algorithm that enhances robot dexterity or efficiency.
• Insights into the effectiveness of human-robot collaboration in manufacturing environments.
• Safety protocols for human-robot interaction in industrial settings.
To drive excellence in IoT and industrial automation through interdisciplinary research and education, fostering collaboration between academia and industry to address real-world challenges and prepare the next generation of leaders in smart technology.
Securing Funding: Actively pursue and secure financial support from diverse sources such as the Department of Science and Technology (DST), All India Council for Technical Education (AICTE), Defence Research and Development Organization (DRDO), and industry partners.
Resource Allocation: Efficiently manage and allocate resources to support IoT and industrial automation research, development projects, and educational initiatives within the institution.
Innovative Research: Conduct cutting-edge research in IoT and industrial automation, covering areas such as smart manufacturing, industrial IoT, cyber-physical systems, and intelligent automation technologies.
Practical Applications: Collaborate with industry partners to translate research outcomes into practical applications and solutions for real-world industrial challenges.
Course Development: Develop and deliver specialized IoT and industrial automation courses and workshops, integrating the latest advancements and industry practices.
Publish high-quality research papers in prestigious journals such as the IEEE Internet of Things Journal, ACM Transactions on Internet of Things (TIoT), IEEE Transactions on Automation Science and Engineering (T-ASE), Future Generation Computer Systems, etc., and present findings at leading conferences to contribute to the global body of knowledge. Encourage students and faculties to contribute to the Center’s publications, research outcomes, and technological advancements, thereby enhancing their academic and professional profiles.
The mission of CNN is to be a global leader in nonlinear dynamics and complex network research. We seek to educate young students and researchers, fostering an innovative hub where interdisciplinary collaboration drives breakthroughs. By exploring both theoretical and experimental perspectives, we address real-world challenges and propel scientific and technological advancements through innovative research, education, and outreach.
The main role of all the members of CNN is to conduct quality research in all ethical means and to publish high caliber research articles in peer-reviewed international journals. Members actively engage in preparing and submitting grant proposals to funding agencies and organizations. They identify and pursue funding opportunities from a variety of sources, including government agencies like the Department of Science and Technology (DST), Council of Scientific and Industrial Research (CSIR), private foundations, industry partnerships, and international collaborations. The center members will identify the new research opportunities that will address the real-world challenges. It is necessary to establish collaborations with other higher reputed research institutions and industrial partners. This center is also a nurturing hub for budding researchers to explore and understand the nonlinear systems and complex networks in diverse fields. This center will be a test ground for young under-graduate and graduate innovators who aspire to execute their ideas under the mentorship of faculty members of this center. All the center members will represent the center at national and international forums by launching tailored courses.
The center’s members will publish their research findings in reputed journals. The presentation of research results at major conferences ensures global dissemination and exchange of ideas, fostering collaboration and recognition within the scientific community. The intensive research activities of the center will deliver the outcomes as quality research publications in all standards, running the funded projects that address fundamental and industrial problems. Initiating the startups based on the research outcomes of the center. Collaborations with industry and academic partners translate theoretical insights into practical solutions. These outcomes address real-world challenges in diverse domains, particularly in artificial intelligence and machine learning techniques. The CNN aims to push the boundaries of knowledge, drive innovation, and make significant contributions to both theoretical understanding and practical applications in complex systems research.
At CNN, we are dedicated to cultivating the next generation of scientists through comprehensive training and development programs. Our initiatives are designed to provide students with hands-on experience and advanced knowledge in the dynamic field of nonlinear dynamics and complex networks. Students engage in practical experiments and simulations to explore the intricacies of nonlinear systems and complex networks. Opportunities for real-world experience allow students to apply theoretical knowledge in practical settings, fostering invaluable skills. Interactive sessions led by experts enhance understanding and encourage critical thinking in complex network dynamics. Renowned researchers and industry leaders share insights, providing inspiration and practical insights into real-world applications. Our commitment to student training and development ensures that graduates are well-prepared to tackle complex challenges, innovate within the field, and make significant contributions to science and society.
The research centers’ ventures and establishment will reach the scientists and professionals around the globe by proper outreach activities. CNN will propel its outreach by conducting workshops, national and international conferences on nonlinear and complex networks. Inviting distinguished research professors and industrial professionals to the center and engage with them in all research activities. Members of the center visit abroad higher education research institutes / industries and connect with the researchers for the research, and project activities.
To drive technological advancements through pioneering research, development, and real-world applications in electronics, VLSI hardware, and embedded system design, fostering innovation and empowering global industries.
To be a world-class hub of excellence in electronics, VLSI Hardware and embedded system design, leading the way in cutting-edge research, education, and industry collaboration.
The Center for Electronics System Design plays a pivotal role in advancing research, education, and industry collaboration in the field of electronics, VLSI Hardware and embedded system design. It is responsible for:
• Conducting Cutting-Edge Research: Focused on areas such as integrated circuit design, VLSI Hardware, Embedded systems, hardware/software co-design, signal processing, and system optimization, the center aims to push the boundaries of technological innovation.
• Providing High-Quality Education and Training: Offering programs at undergraduate and graduate levels, equipping students with the skills and knowledge necessary to excel in electronics, VLSI Hardware and embedded system design careers.
• Facilitating Industry Collaboration: Through strong partnerships with industry leaders, the center drives technology transfer, collaborative projects, and internship opportunities, promoting practical applications of research findings and fostering innovation.
• Engaging in Community Outreach: Promoting awareness and understanding of electronics, VLSI Hardware and embedded system design solutions that address societal challenges while maintaining high ethical and professional standards.
The Project Outcomes from the Center for Electronics System Design exemplify its commitment to advancing the field through innovative research and practical applications.
• Collaborative Technological Developments: Development and implementation of cutting-edge technologies such as novel integrated circuits, advanced VLSI hardware, embedded systems, hardware/software co-design solutions, and optimized system architectures.
• Industry and Societal Impact: Enhancing industry competitiveness and addressing societal challenges in healthcare, environmental monitoring, and smart cities.
• Dissemination of Research Findings: Through high-impact publications in prestigious journals and presentations at international conferences, enriching the academic knowledge base and influencing future developments in electronics, VLSI Hardware and embedded system design.
• Integration into Educational Programs: Preparing students with hands-on experience and skills essential for careers in the rapidly evolving field of electronics, VLSI hardware, and embedded system design, ensuring a lasting impact on both industry innovation and societal well-being.
• Student Training and Development: The Student Training and Development Center focuses on equipping students with practical skills and knowledge essential for careers in electronics, VLSI hardware, and embedded system design. This includes:
• Hands-On Training: In areas such as integrated circuit design, VLSI hardware embedded systems, hardware/software co-design, signal processing, and system optimization.
• Experiential Learning Opportunities: Through projects, internships, and industry collaborations, ensuring students gain real-world experience and industry-relevant skills.
• Professional Development: Through workshops, seminars, and mentorship programs, preparing students to contribute effectively to the field upon graduation.
• In a Center for Embedded Systems, roles and responsibilities encompass a spectrum of crucial functions aimed at advancing research, development, and application of embedded technologies.
• Designing and developing embedded hardware systems, including selecting components, PCB design, and testing.
• Implementing algorithms and protocols specific to embedded systems.
• Conducting testing and debugging of embedded systems.
• Optimizing code and performance for embedded platforms.
• Conducting research on emerging technologies and trends in embedded systems.
• Prototyping and experimenting with new ideas and concepts.
• Contributing to the innovation and improvement of embedded system designs.
• Collaborating with academia or industry partners on R&D projects.
• Demonstrating the practical application of research findings or innovative technologies.
• Highlighting the capabilities and potential of embedded systems in real-world scenarios.
• Sharing software frameworks, libraries, or tools developed during research projects.
• Contributing to open-source communities to foster collaboration and further development.
• Enhancing the accessibility and usability of embedded system technologies.
• Collaborating with industry partners on joint research and development projects.
• Engaging in consortium projects that involve multiple stakeholders, such as academia, industry, and government agencies.
• Leveraging partnerships to enhance project outcomes and accelerate technology transfer.
• Filing patents for novel inventions or innovations in embedded systems.
• Protecting intellectual property resulting from research and development efforts.
• Facilitating commercialization opportunities and industry partnerships based on patented technologies.
1. Curriculum Integration:
• Embedded Systems Courses: Designing and offering specialized courses in embedded systems, covering topics like microcontroller programming, real-time operating systems, embedded software development, and IoT applications.
• Hands-on Labs: Providing access to well-equipped labs with hardware kits, development boards, and simulation software for practical learning and experimentation.
2. Project-Based Learning:
• Capstone Projects: Assigning students to long-term projects that involve designing, implementing, and testing embedded systems solutions.
• Cross-Disciplinary Projects: Encouraging collaboration between students from different disciplines (e.g., computer science, electrical engineering) to simulate real-world project teams.
3. Internships and Co-op Programs:
• Industry Partnerships: Establishing partnerships with industry leaders and local businesses to offer internships and co-op placements in embedded systems.
• Practical Experience: Providing students with opportunities to apply classroom knowledge in real-world settings, gaining insights into industry practices and challenges.
To advance the understanding and application of mechanical vibration through cutting-edge research, comprehensive analysis, and innovative solutions. We aim to foster collaboration between academia, industry, and research institutions, developing next-generation leaders and providing impactful solutions to global challenges in mechanical vibration.
Our vision is to be the unrivalled global authority in nonlinear vibration testing and analysis, pioneering transformative solutions, setting new standards of excellence, and shaping the future of industry practices. By pushing the boundaries of knowledge and application, we aspire to revolutionize nonlinear dynamics, empowering industries to overcome challenges and achieve unparalleled levels of reliability and efficiency.
• To establish a state-of-the-art facility equipped with the latest vibration testing and analysis equipment to ensure accurate and reliable test results.
• To provide training to students with extensive knowledge and experience in vibration testing and analysis.
• To conduct extensive research and development activities to publish papers and patents.
• To establish partnerships with industry leaders and academic institutions to promote knowledge-sharing and collaboration.
• To offer a wide range of vibration testing and analysis services to clients across various industries, including aerospace, automotive, defense, electronics, and many others.
• Research Innovation and Publications: Drives research innovation and produces high-quality publications, contributing to the institution’s reputation.
• Integration with Teaching: Supports the academic mission by integrating research with teaching, offering students unique opportunities for engagement in cutting-edge projects.
• Hub for Collaboration: Serves as a collaboration hub, bringing together academia, industry, and government to address complex challenges in mechanical vibration.
• Knowledge Exchange: Facilitates knowledge exchange through seminars, conferences, and joint research projects, enriching the academic community and beyond.
• Interdisciplinary Projects: Encourages interdisciplinary projects that address pressing issues across various industries, including automotive, aerospace, and manufacturing.
• Real-World Impact: Impacts real-world applications and drives technological advancements, extending contributions beyond academia.
• Mentorship and Training: Cultivates the next generation of researchers and professionals through mentorship and training, equipping them with necessary skills and expertise.
• Commitment to Innovation and Excellence: Maintains a commitment to innovation, excellence, and societal impact, positioning the center as a cornerstone of research and development.
• Funding from Prominent Agencies: Seeks funding from prominent Indian agencies (e.g., DST, AICTE, DRDO) and international agencies (e.g., NSF, ERC, NSERC), enhancing financial support for initiatives.
• Global Collaborations: Fosters collaborations with leading academic institutions (e.g., MIT, Stanford, Cambridge) and industry giants (e.g., Siemens, GE, Honeywell), driving advancements and practical applications in mechanical vibration studies.
• Hands-on Training and Workshops: The Centre offers hands-on training sessions and workshops on the latest vibration testing and analysis techniques, allowing students to gain practical experience with state-of-the-art equipment.
• Research Opportunities: Students are encouraged to participate in cutting-edge research projects, contributing to significant advancements and learning the research process from experienced faculty.
• Mentorship and Guidance: Faculty and senior researchers provide mentorship and guidance to help students navigate their academic and research journeys, offering support and constructive feedback.
• Internships and Industry Collaborations: The Centre facilitates internships and collaborative projects with industry partners, providing real-world experience and opportunities to apply knowledge in practical settings.
• Academic Courses and Certification Programs: The Centre develops and delivers specialized courses and certification programs on mechanical vibrations, enhancing students’ theoretical knowledge and practical skills.
• Publication and Dissemination of Research: The Centre supports students in publishing their research in reputable journals and conference proceedings, enhancing their academic profiles and contributing to knowledge dissemination.
The Center for Chip Design focuses on advancing research and innovation in semiconductor and integrated circuit (IC) design. The mission of the center is to develop cutting-edge chip design technologies, support academic research, and train students in modern VLSI and semiconductor system design to meet the growing demand of the electronics industry.
The center promotes research in areas such as VLSI design, FPGA systems, embedded processors, low-power circuit design, and semiconductor technologies. It facilitates collaboration between academia, industry, and research organizations. The center supports faculty and students in securing funded research projects, developing innovative chip prototypes, and publishing research in reputed journals and conferences. It also organizes workshops, training programs, and technical seminars related to chip design and semiconductor technologies.
The Center for Chip Design provides students with hands-on experience in chip architecture, digital and analog circuit design, hardware description languages (HDL), and electronic design automation (EDA) tools. Students participate in design projects, internships, and industry collaborations to gain practical knowledge. The center encourages students to develop innovative hardware solutions and prepares them for careers in semiconductor industries and advanced research.
The center aims to develop innovative chip prototypes, publish high-quality research papers, secure patents in semiconductor technologies, and produce skilled engineers capable of contributing to the global semiconductor ecosystem.
Copyright © 2026 SRM TRP Engineering College. All rights reserved.