Hundreds of international researchers, scientists and leaders will gather at the meeting.
Abstract Submission Deadline: September 30, 2026
Standard Registration Deadline: September 15, 2026
Dear Esteemed Participants,
It is with utmost joy and excitement that we extend a warm invitation to all participants worldwide to join the International Meet & Expo on Mechanical and Aerospace Engineering (MECHMEET2026) in Northern Institute of Technology Management (NIT), Hamburg, Germany from November 16-18, 2026.
This conference promises to bring together visionaries and experts from around the globe. Attendees will have the unique opportunity to explore ground-breaking ideas and learn about future technologies through specially curated scientific sessions on Artificial Intelligence, Machine learning, Robotics, Nano Technology, Electric Vehicles and involving applications like structural Analysis and Design and Optimization, Supply Chain Management.
The future is looking brighter than ever for this industry! Don't miss out on this phenomenal opportunity for growth and success. Mark your calendars for this momentous event that is set to revolutionize the future of Mechanical and Aerospace Engineering!
We can't wait to welcome you to Germany for an experience like no other.
Warm regards,
Sr. Program Executive
Dr. Detlef Hoyer has a PhD in theoretical electrical Engineering. He investigates Einstein-Maxwell equations derived from 5D Kaluza Relativity, where a scalar field occurs affecting both, gravity and electromagnetism. Recently he began to examine the 5D geodesic equation, which includes electomagnetic forces. Because geodesic equations are about acceleration and not about force, the term charge q over mass m has to be taken into account. Predictions of the theory are reduction of effective mass and a fifth force. Until it is not known, how to achieve those effects or even if they exist at all, his calculations aim for hints, how to arrange experiments for verification or falsification. Dr. Detlef Hoyer earned a college diploma in magnetism and low temperature physics in 1986. He completed his Ph.D. at the Hamburg University of Technology in 1992. Since then he worked as a software developer at a major German insurance company. In 2004 he started his research on Riemannian curvature of higher dimensional manifolds. Now he is an Alumnus of the Technical University of Hamburg in Germany and retired November 2024
Dr. Dou Zhang is an Assistant Researcher and M.S. Supervisor at Harbin Institute of Technology, China. Her research focuses on the mechanical behavior of shape memory polymer (SMP) composites and their application-oriented validation, with particular emphasis on constitutive behavior, thermo-mechanical coupling, and structure-function integration for deployable mechanisms. The SMP-based locking-and-release deployment mechanism developed by her team enabled the first dynamic unfurling of the national flag on China’s inaugural Mars mission, Tianwen-1. This achievement was selected as one of the “Top Ten Scientific and Technological Advances of Chinese Higher Education Institutions” in 2021.
I was born on April 9, 1942, in Matsumoto City, Nagano Prefecture. In March 1960, I graduated from Suwa Seiryo High School and entered the Department of Applied Physics, Faculty of Science and Engineering, Waseda University. In April 1966, I joined Ricoh Co., Ltd., where I researched electrophotography technology. During that time, I made two very unique inventions. One is a one-shot two-color electrophotography method, which, like silver halide film, involves stacking two photosensitive layers with different light sensitivities, charging them positively and negatively, exposing them to a red-black image, and simultaneously creating positive and negative latent images of red and black, which are then developed with red and black toner. This device was exhibited at the 1980 Hanover Messe and received great acclaim. The second is a development method. Normally, in photocopiers, the developing material rubs against the surface of the photoreceptor. As a result, the latent image is disrupted, and high-resolution development is not possible. In my development method, the toner moves by hopping without touching the photoreceptor, and where there is a latent image, it is attracted to the latent image at the peak of its hopping motion and adheres to it. As a result, a very high-resolution toner image is developed. In 2006, I left the company and established the Electrostatic Power Generation Research Institute, where I am conducting research and development on electrostatic generators.
lm M. Jöge Friedhelm M. Jöge, born in 1943, worked in a scientific laboratory after studying chemistry and mathematics textbooks at a young age and after studying chemical engineering. He then worked in development departments in the chemical and pharmaceutical industries. The focus of his work was in the field of biochemistry and macromolecular chemistry. His interest are the synopsis of various physical, chemical and biological knowledge as well as questions of origin of life and ethics in the field of tension between faith and science. In particular, he dealt with the concept of information. He is married, has a daughter and three Grandchildren. He also loves music and chess. His contributions to science are five articles: 1. Quantum Gravity 2. Theory of Dark Energy 3. Information & Effect: An Introduction to the Concept of Immanence as a Physical Quantity 4. Calculation of Dark Energy and Dark Matter 5. Time is Energy and Dynamic Information (Information flow) 6. Equivalence of Information and Immanence
Professor Liang Tian, PhD Supervisor, Xi'an Jiaotong University Young Talent (Type A). 2010: B.Eng. in Materials Science and Engineering, Central South University. 2011: M.S. in Materials Science and Engineering, Iowa State University, USA.2012: M.S. in Engineering Mechanics, Iowa State University, USA.2015: Ph.D. in Materials Science and Engineering, Iowa State University / Ames National Laboratory, USA. From 2015, he conducted postdoctoral research at the University of Michigan, Ann Arbor, and Purdue University, USA. In 2020, he assumed a full-time position as a Senior Engineer in Permanent High-Performance Computing in the United States. His research has been positively featured by international authoritative media such as Advanced Science News, the U.S. Department of Energy, and phys.org. He has published papers in reputable journals (Matter, Acta Materialia, FlexMat, Small), independently developed two computational materials methodology software tools and participated in three U.S. Department of Energy research projects. He has served as the conference co-chairs for 6 times, the conference session co-chairs about 20 times, delivered 4 keynote talks and about 30 invited talks. His research focus on the conductive composite materials for cables at various length scales, conductive nanomaterials for flexible sensors, conductive electrodes for flexible batteries. He has won the prestigious international award Advanced Materials Scientist Medal from IAAM.
I was born on April 9, 1942, in Matsumoto City, Nagano Prefecture in Japan. In March 1967, I graduated from the Department of Applied Physics, Faculty of Science and Engineering of Waseda University. and joined Ricoh Co., Ltd., where I researched electrophotography technology. 40 years ago, in the world all original papers were printed by typewriters. It has black and red ribbons. And printed black and red characters at the same time However, copy machine printed both on the same paper different times. As a result, the both position deafferented over 1.0mm. At that time, I invented the one-shot two-color electrophotography method, in which, like silver halide film, involves stacking two Red sensitive and not Red sensitive photoconductive layers, and charging them positively and negatively, then exposing them to a red-black image as a result, simultaneously creating positive and negative latent images of red and black were created, then both were developed with red and black toner. This device was exhibited at the 1980 Hanover Messe and received great acclaim. In 2006, I left the company and established the Electrostatic Generator Research Laboratory, Yokohama, Japan. where I am conducting research and development on electrostatic generators. The principle of an electrostatic generator is very simple and clear. First, electric charge is placed on a charge carrier at a low potential, and then an external force such as waves or wind is used to push it up to a high potential, where the carried charge is collected. A few years into my research, I discovered a new type of electrostatic force, which I named "Asymmetric electrostatic force." This phenomenon occurs when a gutter-shaped charged body placed in an electric field experiences an electrostatic force that is weaker at its opening and stronger at the opposite, closed side. This potential difference allows the charge carrier to be transported to a high potential. By varying the charge carrier's charge amount, shape, and position, I simulated the electric potential at approximately 2,000 points within the electric field using the two-dimensional finite difference method. The electric potential at each point can generally be predicted based on physical principles. However, a potential value that differed significantly from these physical predictions appeared at one specific point. So, I replaced the simulation program for that specific point with one that had previously yielded normal potential readings, and the issue was resolved. I had already created thousands of such programs that produced normal potential readings. These results suggest that someone attempted to prevent the realization of this electrostatic power generation method. It is believed that this party was a large corporation concerned that the successful implementation of this electrostatic generator would cause their own sales to vanish. The process is straightforward: although simulation programs are typically written in English-like code, the PC does not begin calculations by reading that text directly; instead, the program is automatically converted into machine code—a format the PC can read—and it is this machine code that the PC reads to start the calculations. So, if they leave the English-language program untouched but modify the machine-language program, the potential at that specific point—and only there—shows an abnormal value, just like this. I suspect they thought this anomalous result would cause me to give up on my research into this electrostatic generator. However, I was able to overcome this interference by replacing it with a normal program. At that time, I had a few thousand normal programs. However, on the day I signed up to attend the international conference in Hamburg, Germany, this coming November, they tried their absolute best to stop me. Up until then, their true identities were unknown, but they actually went so far as to reveal their email addresses while launching the attack. I had websites in both English and Japanese that were displayed on my own PC, but they were taken down. I believe they became inaccessible to everyone around the world. That is not all. As an alternative to the high manufacturing costs associated with gutter-shaped charge transport members, I had been evaluating flat-plate charge transport members—which offer the lowest production costs—but the simulation program and all the related results had been deleted. However, it seems that even though they were unable to access the website for the November conference in Hamburg; consequently, my presentation at the conference was not cancelled. When I connect to the Internet, my PC is completely under their control. Therefore, without connecting, I will create this resume of mine and send it as an attachment to the reply to the email from society. Furthermore, the idea of using a flat-plate charge carrier remains in my head—even though all programs and their results were erased—so I plan to fabricate many its programs without connecting to the Internet and present the optimal configuration at the academic conference in November. However, I am now 84 years old and have health issues. I plan to participate in the November conference online from Japan, but there is a possibility that I may not be able to do so. If the production cost of a gutter-type charge carrier is high and a flat-plate charge carrier becomes necessary, it would be great if I could participate and explain it, but if that is not possible, I hope that young researchers will see my patents and papers and make it a reality.
Born in 1940. I hold a PhD in Industrial Engineering from the OUTSIDE in the Polytechnic University of Madrid, and a degree in Physics from the Complutense University of Madrid. I have been engineer specialized in air conditioning installations, Consulting Engineer, public servant in the tax administration agency, Deputy Director General of the Ministry of Finance of Spain, responsible for the data processing center, professor at the Polytechnic University of Madrid and business advisor. With a group of collaborators, I have developed over the last fifty years a private research project in rotational dynamics, conducting experimental tests and proposing a scientific theory about the behavior of bodies subjected to acceleration, called the Theory of Dynamic Interactions. I have published more than thirty books on physics, engineering, and history, and numerous articles on these topics. Currently retired, but I continue working on research projects and writing books and articles.
Graduated in Physics at Roma University “La Sapienza” in 1977, with a thesis on X-Ray spectroscopy applied to Apollo Lunar Samples. Researcher at CNR then ESA Research Fellow at University of Sussex (UK). In 1985 employed at Agenzia Spaziale Italiana first as PA Manager, then as PM for ASI on Rosetta, Mars Express, MRO and the Cassini-Huygens Missions, Co-I of the Cassini Radar and of H-ASI; Chair 2006-10 of Philae Steering Committee; 2008-10: ASI Director of the Observation of the Universe department, Mission Science Director for LARES on VEGA 2012; ASI Chief Scientist from 2010 till retirement; Hemeritus PI of the SIMBIO-SYS instrument on BepiColombo; Vice-Chair and Chair of ESA SPC and Italian Delegate; Delegate to ESA PB-EO; from 2006 Professor of “Solar System Exploration “ at G. D’Annunzio” University-Chieti, Italy. Member of: IMEWG, MEPAG, MPSET, JMART, iMARS1, COPUOS ATEIn. Awarded as Officier de l’Ordre National du Mérite de France and as Exceptional Public Service Gold Medal by NASA; IAU named 18099-Flamini asteroid. More than 100 papers published and 3 books.
Ts. Dr. J Emerson Raja (Ph.D.) is currently an Assistant Professor in the Faculty of Engineering and Technology at Multimedia University (MMU), Malaysia. His technical expertise centres around applying soft computing techniques to monitor the health of machines. He was honoured with the notable commendation award by his alma mater, SRM University, India in conjunction with its Alumni Day on 12 March 2017. He was also honoured with the best executive award and group CEO merit award for the year 2014 from TM, the leading integrated telecommunication company in Malaysia. He has co-authored 3 books, Modeling Intelligence: Computational Techniques in Cognitive Systems published by Amazon in August 2025, A Textbook of Practical Neural Networks a kindle Edition by Amazon in July 2025 and C Programming for beginners, published by Pearson (Malaysia) in 2009. He has been a recipient of the excellent teaching award four times, for the year 2012, 2013, 2016 and 2024 from the president of Multimedia University, Malaysia. He was also the recipient of the best research poster award in the MMU-Infineon technical symposium 2011. Dr. Emerson Raja received his bachelor’s and master’s degrees in Computer Science and Engineering from University of Madras, India in 1989 and 2001 respectively. His PhD degree was awarded by MMU, Malaysia for his research on “Intelligent Machine Condition Monitoring” in 2014. He has conducted successfully the Malaysian Government funded MTCP training program for 15 international participants form 14 August to 25 August 2017 at MMU. He was one of the speakers of the "International Teaching Week" at Hof University of Applied Sciences, Germany in June 2013. As a SENIOR member of IEEE, he has actively contributed as invited speaker in several technical symposiums arranged by IEEE Signal Processing Society of Malaysia. He had provided key-note speeches in many International Conferences in Malaysia, India, China, Dubai and Saudi Arabia. He has been invited twice as a guest speaker in MAL technical & innovation symposium on 21 November 2013 and 30 October 2014 at Infineon, a German based company in Malaysia. He was also awarded the silver medal by the Ministry of Higher Education, Malaysia, for his poster in the Innovative Practices in Higher Education Expo 2014 (I-PHEX 2014). Given a talk on “Peer Tutoring in Higher Education” at ASAIHL Conference, Tokio Japan in March 2018. He has been invited to Chonnam National University, South Korea, for their international summer session 2018, as international visiting scholar. He had given a talk on “Digestive health” at Gwanju International Centre, South Korea on 21st July 2018. He had also given the same talk on Digestive Health at Australian Radio SBS Tamil (2018) and it is available online. Being a HRDF certified trainer, he has conducted many workshops and delivered seminars on “The Role of Responsible AI in IR5,0”
Dr. Chung Yuan Kung is Professor Emeritus in the Department of Electrical Engineering at National Chung Hsing University, Taichung, Taiwan. He earned his BS (1969) and MS (1972) in Physics from National Tsing Hua University, an MS in Physics from the University of Alabama in Huntsville (1974), and a PhD in Materials Science from Northwestern University (1979). After postdoctoral research at Georgia Tech and Lawrence Livermore National Laboratory and six years in the U.S. semiconductor industry with Fairchild and National Semiconductor, Dr. Kung joined Taiwan’s ITRI in 1987 and served on NCHU’s faculty from 1991 until his retirement in 2016. His 2024 publications represent a culmination of decades spent unraveling the deep connections between geometry and materials.
Dr. Jadav Chandra Mandal holds the position of senior professor in the Department of Aerospace Engineering at the Indian Institute of Technology Bombay, India. He obtained his bachelor’s degree in Aeronautical Engineering from the Indian Institute of Technology Kharagpur in 1982, followed by a master’s in Aerospace Engineering from the Indian Institute of Technology Madras in 1984. Subsequently, he served as a scientist at the Vikram Sarabhai Space Centre, Indian Space Research Organization, from 1984 to 1985. Dr. Mandal completed his doctoral studies in Aerospace Engineering at the Indian Institute of Science, Bangalore, in 1990, before assuming a faculty position at the Indian Institute of Technology Bombay. His research group primarily focuses on pioneering numerical algorithms for tackling both single and multi-phase incompressible flows, alongside all Mach number compressible fluid flows, and fluid-structure interaction. In recent times, his team has been actively involved in advancing Riemann solvers for the analysis of deformation and wave propagation in solids. Dr. Mandal has been honoured with prestigious awards including the J. R. D. Tata Fellowship at the Indian Institute of Science, Bangalore (1987-1990), and the Alexander von Humboldt Fellowship in Germany (2002-2003).
Dr. Ing. Marcel Graf is a researcher and academic in the field of Advanced Manufacturing Technology and Metal Forming. He was born on 29 June 1985 in Karl-Marx-Stadt (now Chemnitz), Germany, and currently serves as a Research Associate, Project Manager, and Chair of Materials and Surface Engineering at the Institute of Materials Science, Engineering, and Manufacturing at Chemnitz University of Technology, Germany. He completed his secondary education at Albert Schweitzer School in Zschopau and later earned his Diploma in Mechanical Engineering from TU Bergakademie Freiberg, specializing in Research and Development for Metal Forming Technology, Metallurgy, Foundry, and Forming Machines. He further obtained his Ph.D. from TU Bergakademie Freiberg with research focused on the “Development of Forming Behaviour of Oxide Scale in Metal Forming Processes under Hot Strip Rolling.” Dr. Graf has extensive expertise in product development, process engineering, virtual production engineering, and tribology in metal forming. His technical skills include CAD and simulation software such as Pro/Engineer, Siemens NX, PTC Creo, SolidWorks, MSC Simufact Forming, LS-DYNA, and ANSYS. Over the years, he has contributed significantly to research in hot rolling, bulk metal forming technology, and scale formation, and has participated in numerous international seminars, conferences, and scientific committees. He is fluent in German and English, with basic knowledge of Russian.
Dr. Detlef Hoyer has a PhD in theoretical electrical Engineering. He investigates Einstein-Maxwell equations derived from 5D Kaluza Relativity, where a scalar field occurs affecting both, gravity and electromagnetism. Recently he began to examine the 5D geodesic equation, which includes electomagnetic forces. Because geodesic equations are about acceleration and not about force, the term charge q over mass m has to be taken into account. Predictions of the theory are reduction of effective mass and a fifth force. Until it is not known, how to achieve those effects or even if they exist at all, his calculations aim for hints, how to arrange experiments for verification or falsification. Dr. Detlef Hoyer earned a college diploma in magnetism and low temperature physics in 1986. He completed his Ph.D. at the Hamburg University of Technology in 1992. Since then he worked as a software developer at a major German insurance company. In 2004 he started his research on Riemannian curvature of higher dimensional manifolds. Now he is an Alumnus of the Technical University of Hamburg in Germany and retired November 2024
Alireza has been a researcher and technology manager at German Aerospace Center (DLR) since 2019, focusing on strategic and operational aspects of technology and innovation management, including technology intelligence and transfer. He studied Industrial Engineering at Hamburg University of Technology, Germany, and the University of Newcastle, Australia, and has professional experience in the automotive industry with Audi and BMW. His doctoral research at RWTH Aachen University addresses data-driven methods in TRL assessment.
Dr. Thamo Sutharssan is a Senior Lecturer at the University of East London, where he leads the BEng in Aeronautical Engineering Program. With an extensive background in higher education, he has previously delivered and validated BTEC, HNC, HND, BEng, and MEng programs at institutions including the University of Portsmouth, Havering College, Derby College, and the Rolls-Royce Aerospace Academy. An active researcher in engineering system health monitoring and renewable energy, Dr. Sutharssan served as a Research Associate on a £177,500 Knowledge Transfer Partnership (KTP) project developing automated hydrogen fuel cell demonstrators with the University of Hertfordshire, and as a Research Fellow at the University of Greenwich. Dr. Sutharssan is a Chartered Electrical and Electronic Engineer (CEng, MIET), a Chartered Manager (CMgr, FCMI), and a Fellow of the Higher Education Academy (FHEA).
Roydon A. Fraser, PhD, P.Eng., FEC, is a Professor of Mechanical and Mechatronics Engineering at the University of Waterloo, Canada. He holds a BASc in Engineering Physics from Queen’s University and a PhD in Mechanical and Aerospace Engineering from Princeton University. His research spans hybrid electric vehicles, hybrid energy systems, batteries, compressed air energy storage, geothermal and subsurface energy storage, exergy and thermodynamic optimization, thermal remote sensing, and remote-community decarbonization. Since 1996, he has supervised the University of Waterloo Alternative Fuels Team, using hybrid vehicle systems as a platform for systems-integration education and research. His teaching and supervision have been recognized with multiple awards. He is also a past President of Professional Engineers Ontario.
Professor (Ph.D) Janusz Rębielak, born in 1955, he studied architecture mainly in the field of engineering design of spatial structures, he obtained the Ph.D. in 1982 at the Wroclaw University of Science and Technology, in Poland. His scientific interests are very broad and concern mainly the methods of calculations of statically indeterminate trusses as well as the methods of numerical shaping and design of spatial structures intended for civil engineering particularly in area of lightweight roof structures and foundation systems of heavily loaded buildings placed on soils with low bearing capacity or located in seismically active areas, while in area of aviation and aerospace engineering his research is focused in design of VTOL aircrafts and a specific type of manned spacecraft. He published numerous papers, including three monographs, he obtains five patents. He is retired professor of the Cracow University of Technology, Poland, where he recently has been a head of Chair of Structures and Construction Engineering. He is married since 1980, has three children.
Professor Daniel N. Wilke is a Professor and Head of the School of Mechanical, Industrial and Aeronautical Engineering at the University of the Witwatersrand, South Africa. He enjoys getting to the heart of complex ideas and understanding the underlying principles and concepts that drive them, often through an optimisation lens: identifying the key drivers, understanding the trade-offs, and finding a clearer path forward. His work has moved from developing practical industrial solutions in computational engineering, optimisation, and data science to applying the same concepts to learning and student development. He is the author of The Lost Art of Learning, co-author of Practical Mathematical Optimization, Associate Editor for Computer Modeling in Engineering & Sciences, the past President of SAAM, and past National Chair for IUTAM.
Joseph P. Firmage is a researcher and author developing Potentum Physics, a geometric-algebra approach that presents atoms, fields, and coherence as conjugate rotations of interlinked flux. Through the ORIGAMI Physics Observatory and the Academy of Science and Arts, his work pairs classical field intuition with GA rotors and high-fidelity visual plates—codified as Canon 12, a publication standard for accessible, equation-light pedagogy. Recent KAIROS reports include The Loving Atom (Canon 12) and ongoing studies connecting quasar jet torsion, hydrogen spectroscopy, and molecular resonance to macroscopic design principles relevant to sustainable habitats. His current focus is translating these insights into practical frameworks for science education, materials thinking, and ecosystem-aligned engineering on Earth and future Martian settlements.
Cooperative, Connected and Automated Mobility (CCAM) is expected to reshape the way of travelling and moving in Europe and around the world. By the CCAM, the automated vehicles have to be integrated into the mobility and transport system by designing and implementing infrastructures, new services, platforms, cooperation and governance models. The smart traffic management and the deployment of CCAM innovative technologies and services is increasing efficiency and reducing congestion. This talk presents the approaches that are used to accelerate the implementation of innovative CCAM technologies and systems. The proposed methodology is based on the implementation and integration of enhanced Physical, Digital and Operational Infrastructures to enrich CCAM services and increase safety and traffic efficiency. The proposed actions will help to develop new mobility concepts, leading to healthier, safer, more accessible, sustainable, cost-effective and demand-responsive transport. Some solutions will be presented using Artificial Intelligence techniques and optimization strategies applied for a full integration of CCAVs in the real traffic for transportation of both passengers and goods.
Dr. Dou Zhang is an Assistant Researcher and M.S. Supervisor at Harbin Institute of Technology, China. Her research focuses on the mechanical behavior of shape memory polymer (SMP) composites and their application-oriented validation, with particular emphasis on constitutive behavior, thermo-mechanical coupling, and structure-function integration for deployable mechanisms. The SMP-based locking-and-release deployment mechanism developed by her team enabled the first dynamic unfurling of the national flag on China’s inaugural Mars mission, Tianwen-1. This achievement was selected as one of the “Top Ten Scientific and Technological Advances of Chinese Higher Education Institutions” in 2021.
Melanie Berg is the Founder and CEO of Space R3 LLC, with over 37 years of experience in ASIC and FPGA design, verification, and reliability for space systems. She has supported numerous NASA missions, including FPGA design contributions to New Horizons: Pluto and Beyond. She spent more than 20 years at NASA’s Goddard Space Flight Center in the Radiation Effects and Analysis Group, where she led advanced research in radiation effects and mitigation for microelectronics operating in harsh environments. She authored NASA FPGA radiation effects test guidelines and developed best practices for mitigation strategies now used across the industry. Her expertise includes ionization effects, error-response characterization, robust design and verification methodologies, and hardness assurance for spaceflight systems. She has published and presented extensively on improving the reliability and survivability of critical space electronics.
Xiaozhou Xin, Harbin Institute of Technology, Associate Professor. He is engaged in the research on the mechanical behavior of smart polymer composites, multifunctional metamaterials, smart deformation structure design and aerospace applications. He has published 27 SCI articles in Advanced Functional Materials, International Journal of Extreme Manufacturing, Chemical Engineering Journal, Composites Part B, Small and other journals. He has been selected for the 10th Young Talent Support Project of China Association for Science and Technology.
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Institute of Materials & Machine Mechanics, Slovakia, Academy of Sciences, Slovakia
Conference Acme Meetings is really great!!!
Many thanks!!!
I am looking forward to our further cooperation.
GERS Executive Park, USA
The presentation went very well.
Thanks Shashika. I heard several of the virtual presentations which were good.
Shanghai Jiao Tong University, China
Thanks for your email! I glad to give a keynote talk in Acme Meetings
Laboratorie LCPMM, Faculty of Sciences, University Blida, Algeria
I would like to thank you for organizing the conference, which went well overall, despite the absence of some participants.
Nevertheless, I would like to reiterate my congratulations for the successful organization of such an event, which is undoubtedly a challenging task from a logistical standpoint.
Bidhan Chandra Krishi, India
Greetings!
It has been an excellent programme. Felt honoured to deliver the Keynote address covering the disruption in resource and energy resilience inflicting into the ageo-ecological resilience in South-East Asia with a focus on India.Nevertheless, such a global issue being deliberated over needs bigger participation. I hope, will crop up in the upcoming conference.
You all really are doing great to save the good earth and kudos!
GD Goenka University, India
Hello!
It was a very enriching experience to hear and learn from so many learned professors around the globe... I am thankful for getting this opportunity through this platform and hopeful about future programmes organized by the team. Wish you all the best.
S.C.I. Energy (Swiss), from Zurich, Switzerland
The Acme Meetings concluded successfully in Zurich of Switzerland, bringing together global experts, researchers, and industry leaders to explore the latest advancements and future directions in renewable energy. Covering a wide range of topics—from solar, wind, water and hydrogen energy to storage systems and international energy policies—the conference fostered meaningful cross-disciplinary and cross-sector collaboration. Acme Meetings not only strengthened the global consensus on energy transition but also offered renewed momentum toward achieving carbon neutrality.
Head of HolisticCenter, Switzerland
Greetings!
...it was well done...
MECHMEET 2026 will be held at the Northern Institute of Technology Management (NIT), Hamburg, Germany, a prestigious academic institution known for excellence in engineering, technology, and management education. Hosting the conference at NIT provides an outstanding academic environment, world-class infrastructure, and strong industry–academia connections, making it an ideal venue for global researchers, academicians, and industry professionals.
Beyond the conference, Hamburg is one of Germany’s most vibrant and internationally connected cities. Renowned as a major hub for engineering, aerospace, maritime industries, and innovation, Hamburg offers participants valuable opportunities for professional networking and industry exposure. The city is also famous for its rich cultural heritage, historic harbor, modern architecture, and lively waterfronts. With excellent transport connectivity, diverse cuisine, and a welcoming international atmosphere, Hamburg promises a memorable academic and cultural experience for all attendees.
