Professionals Explore Buildings vs Climate Challenges

Professionals Explore Buildings vs Climate Challenges

A modern building featuring lush rooftop gardens under a clear blue sky. by Marian Florinel Condruz via Pexels

.

Researchers and industry professionals explore how buildings might better withstand climate pressures

.

Conference at Concordia brought together building engineering experts from 43 countries
Concordia University News – September 14, 2026

.

Professionals Explore Buildings vs Climate Challenges

 

.

More than 450 researchers, industry professionals, policymakers and students from 43 countries gathered at Concordia from July 20 to 24 for the 17th International Conference on the Durability of Building Materials and Components (DBMC 2026).

Co-hosted by Concordia and the National Research Council Canada (NRC), the conference drew participants from 205 institutions across six continents.

The gathering took place as extreme weather and a changing climate place increasing pressure on buildings and infrastructure. Researchers and practitioners explored how the built environment can remain durable and resilient while the construction sector reduces its environmental footprint.

Presentations addressed climate resilience, low-carbon materials, artificial intelligence, service-life prediction and the long-term performance of buildings and infrastructure. The program featured five keynote lectures, seven workshops, four technical panels, two laboratory tours and 294 technical presentations.

“Hosting DBMC 2026 reinforced Concordia’s role as a hub for international collaboration in building engineering research,” says Hua Ge, professor in Concordia’s Department of Building, Civil and Environmental Engineering, member of the Centre for Zero Energy Building Studies and a conference co-chair

“What was particularly rewarding was hearing directly from participants that they had received valuable feedback on their research, developed new professional connections and identified opportunities for future collaboration. That is ultimately what an international conference like DBMC should accomplish.”

Marzieh Riahinezhad of NRC, also a conference co-chair, says challenges such as climate resilience, durability and decarbonization cannot be solved in isolation.

“Bringing together researchers, industry professionals and policymakers from around the world allows us to share knowledge, learn from one another and accelerate progress.”

Among 82 respondents to a post-conference survey, the event received an average overall rating of 4.53 out of five. Networking opportunities received an average rating of 4.36. More than 30 respondents identified networking and international collaboration as among the conference’s most valuable aspects.

For Morgan Foster, a PhD student in mechanical engineering at Carleton University, those exchanges are already influencing future research.

“This conference proved to be an excellent opportunity to learn new research methods and hygrothermal assessment approaches from experts around the world,” Foster says. “I received excellent feedback and questions about my ongoing research, all of which will help me improve my future work.”

Laboratory tours gave visitors a closer look at Concordia’s research in building science, energy efficiency, building envelopes and climate resilience. They visited the Centre for Zero Energy Building Studies, the Solar Simulator and Environmental Chamber, the Atmospheric Boundary Layer Wind Tunnel and the Future Buildings Laboratory.

The conference also hosted international technical committees associated with the International Council for Research and Innovation in Building and Construction, CSA Group and the International Organization for Standardization. Their meetings advanced ongoing work on building durability and performance.

Industry participants also reported strong engagement. The Cool Roof Rating Council, which sponsored the event and contributed two papers and a workshop, connected with researchers already using its resources and others discovering its work on cool surfaces.

DBMC 2026 was co-chaired by Ge and Liangzhu Leon Wang of Concordia, Riahinezhad of NRC and Michael Lacasse, an adjunct professor at Concordia and retired NRC senior research officer. Ge also credited the organizing team, whose work over three years helped deliver the event.

For Sathya Ramachandran, a Concordia Building Engineering graduate and senior director of buildings for Western Canada at EXP, the gathering demonstrated the value of meeting in person.

“While the technical program was outstanding, one of the greatest highlights was reconnecting with old colleagues, meeting new friends, sharing ideas and enjoying the camaraderie that makes conferences like this so memorable,” he says.

.


 

.

What Can Somalia Learn from Singapore’s Development

What Can Somalia Learn from Singapore’s Development

Aerial view of numerous ships near a vibrant coastal city and lush greenery.by Jeffry Surianto via Pexels

.

What can Somalia learn from Singapore about building the leaders and institutions of tomorrow?

.

UNDP September 13, 2026

.

Group of people in formal attire stand before a white columned building with OEI Tiong Ham sign

Group of people in formal attire stand before a white columned building with OEI Tiong Ham sign

 

.

This was the focus of an Executive Leadership Study Tour that brought senior leaders from the National Leadership Academy Somalia (NLA) and representatives from the Office of the Prime Minister (OPM) to Singapore.

Hosted by the Lee Kuan Yew School of Public Policy Executive Education, the study tour provided an opportunity for the Somali delegation to explore approaches to executive education, public sector leadership development and lifelong learning, and to consider how relevant lessons could be adapted to Somalia’s context.

The delegation explored five areas central to the continued development of the NLA:

NLA Development Areas infographic with five sections around a central group icon.

The learning continued through engagements with the Institute for Adult Learning Singapore, NUS Institute of Systems Science and NUS School of Continuing and Lifelong Education. These exchanges offered further perspectives on continuing education, technology, skills development and youth leadership.

For the delegation, the value of the experience lay in connecting what they observed with Somalia’s own development priorities.

“We really needed that trip. From the moment you step into the airport, you can see how far Singapore has come, especially in technology. It made me reflect on how Somalia can learn from such experiences and make better use of its own potential.” Mohamed Hared of the National Leadership Academy said, reflecting on the role of technology in development.

“One of the biggest lessons for me was seeing how professional experience is connected to teaching. Practitioners bring real-world knowledge into the classroom. It also reinforced that learning does not stop when you earn a degree; lifelong learning is essential for developing capable people and institutions.” National Leadership Academy Director General Ms. Hodhan Noor Abdi noted.

These reflections point to an important priority for Somalia: developing institutions that continuously invest in the knowledge, skills and leadership capabilities of the people who serve the public.

The study tour forms part of the Somalia Transformational Governance Programme (STGP), which supports Somalia’s efforts to strengthen governance and public sector institutions, including leadership development and institutional capacity, in coordination with the Office of the Prime Minister Somalia

The programme is implemented with the Office of the Prime Minister and supported by the Swedish International Development Cooperation Agency (Sida). Through this partnership, Somali institutions are gaining opportunities to strengthen their capacity, exchange knowledge and draw on international experience as they advance nationally led governance reforms.

UNDP Somalia thanks Sida and the Office of the Prime Minister for their continued partnership and support, and the Lee Kuan Yew School of Public Policy Executive Education, Institute for Adult Learning Singapore, NUS Institute of Systems Science and NUS School of Continuing and Lifelong Education for welcoming and hosting the delegation and sharing their expertise.

For the National Leadership Academy, the experience provides new perspectives to inform its continued development and its role in preparing a new generation of Somali leaders.

The lessons from Singapore now return to Somalia, where they can contribute to the ongoing work of strengthening leadership, institutions and public service for the country’s future.

Sustainability: Who Will Still Champion This By 2031?

Sustainability: Who Will Still Champion This By 2031?

Crowd holding a protest sign with ‘Fight Today for a Better Tomorrow’, outdoors and during the day. by Markus Spiske via Pexels

.

Sustainability, Who Will Still Be Doing This In 2031?

.

.

.

Most of the students who registered for their first semester this year will graduate in 2030, the year the Sustainable Development Goals (SDGs) expire. They have spent their whole education being told the climate is their inheritance, and every survey of young people in this region says they believe it, often to the point of anxiety. What no one has told them is what comes after. UNESCO’s Education for Sustainable Development framework runs out on the same year, and while a successor agenda is under international discussion, nothing has been settled. Where sustainability effort has been built mainly as compliance with a global target, there is a real risk that when the scaffolding comes down, the building behind it turns out to be unfinished. We do not exempt ourselves from that risk.

What we have, at best, is a decade of small attempts and a reasonable amount of learning from the ones that did not last. It was sustained by people willing to do the unglamorous parts: sorting and weighing what the campus threw away until its recycling could be stated in numbers, standing in drains and streams to sample water, arguing for a forest to survive longer than their own tenure, making the case for sustainability from faith as comfortably as from science. Some of it held. Much of it faded quietly when the people behind it graduated or moved on, and those are the ones we think about most.

The pattern in the ones that held is not complicated. None began as a directive from above. Each began because a group of people found the work meaningful and asked to be let in. Volunteerism, not instruction, has been the calling factor.

That has taught us something we are still not good at. Inclusion in this work should not be rationed by seniority, qualification or apparent capability, and we have caught ourselves doing exactly that. A contract cleaner knows more about the campus waste stream than most of the people who write about it. A clerk who has worked in the same building for twenty years knows which rooms are cooled to no purpose. A first year student brings little except willingness, and willingness is definitely not a small thing. Sustainability may be one of the few institutional agendas where the least credentialled participant holds the most useful information, and where taking part is itself the training. Every time we have narrowed the invitation to those already expert, the circle has stopped widening.

Something else has happened alongside all this. Sustainability has become, to put it plainly, fashionable. Climate anxiety, green careers and environmental, social and governance (ESG) reporting have pushed the subject into the mainstream, and more volunteers arrive at our door than before. This is a gift and we would rather receive it than question it. The harder task is converting enthusiasm into capability before the fashion moves on, and we are still working out how.

That conversion is where the Regional Centre of Expertise on Education for Sustainable Development (RCE) has been useful to us. RCE Central Semenanjung has been recognised by the United Nations University since 2014, and since January 2022 it has been hosted by the UM Sustainable Development Centre. An RCE is not a research unit. It is a network meant to connect a university with the schools, community groups, faith institutions, local authorities, businesses and international partners around it, so that education for sustainable development happens outside the lecture hall as well as inside it. In practice it has meant green educators from Penang benchmarking against our campus and students from RCE Tongyeong Sejahtera Forest in South Korea coming to compare notes with ours. We have learned at least as much from these visitors as they have from us.

On that point we want to be direct. The network is open and we would genuinely welcome more partners from outside academia. Companies with a sustainability function and nowhere to place it, non-governmental organisations needing a research partner, local authorities with a problem and no foundations looking for delivery capacity. Universities have no special claim on this agenda, and the work goes further when it is not attempted alone. If you are reading this and you have been looking for a way in, we would like to hear from you.

The value of that network for a student is easy to overlook. In a classroom a student is a recipient. Inside an RCE activity, a student becomes an educator. A third year undergraduate explaining composting to a group of ten year olds, or answering a visiting Korean student on why a campus bothers to protect a patch of forest, is doing something harder and more durable than passing an examination. They are being asked to own the argument in public. Very few of them forget it.

So how does any of this survive past 2030? Our working answer, offered tentatively, is that the goals were always the scaffolding and never the building. What outlasts a framework is the number of people who have taken on the habit, and the institutions that keep giving them somewhere to put it. There are things would help, and we are not yet doing any of them well.

Recognise the learning. Volunteering that teaches real competence should be documented as such, through micro-credentials or a co-curricular record a graduate can show an employer. It costs little and gives the volunteer a reason to go deep rather than merely attend.

Change what is counted. Counting participants tells us about a semester, which is why we do it. Asking what a cohort is doing five years later would tell us whether we changed anyone. We should be asking the second question.

Anchor to horizons beyond 2030. Malaysia’s net zero commitment runs to 2050. Planetary health, water security and biodiversity have no expiry date at all. If people understand their work as belonging to those longer horizons rather than to a numbered goal, whatever follows becomes a matter of relabelling rather than rebuilding.

Then there is the part we cannot organise, only hope for. Students who found something here go on to banks, ministries, schools, engineering firms and start-ups, and some of them look back. When a graduate returns with an offer to collaborate, to fund, to mentor a current cohort, or simply to tell the next intake what the work led to, it is worth more to us than any ranking submission. We have not made it easy for them to find their way back, and that is our failing rather than theirs. To those graduates we would say plainly that the door is open and the invitation stands.

The people volunteering on our campus today will be in mid-career by 2040 and running institutions by 2050. Whatever the goals are called by then, they are the ones who will be expected to deliver them. The task is not to hold their attention until 2030. It is to make sure that when the deadline passes they barely notice, because the work had already stopped being a target and become a way of doing things. We are some distance from that, and we would rather say so and get on with it.

.


 

.

 

Fake Ranking Sites and Their Impact on Universities

Fake Ranking Sites and Their Impact on Universities

A woman in a graduation gown holding a mortarboard at Anıtkabir, Ankara, by Berna via Pexels

.

Fake ranking sites target Global South universities – Study

.

.

Fake Webometrics University Rankings (WURs) are targeting universities in the Global South, leading to the rise of dissemination of inaccurate ranking data through news outlets and consulting agencies.

But they have remained largely obscured from the European academic community due to Geo-IP masking tactics, which necessitate the adopting of institutional measures to enhance vigilance and safeguard the integrity and authority of academic rankings.

This is the outcome of a study that provided a comprehensive analysis of the fake Webometrics University Rankings (WURs) phenomenon observed in the first half of 2026 after investigating 300 publications gathered from 39 countries between 6 January and 6 July 2026.

Titled “Fake Webometrics University Rankings: Network expansion, Geo-IP cloaking, and institutional vulnerabilities in the global south”, the study was published on 18 August in Preprints.org – a free multidisciplinary platform providing a preprint service dedicated to making early versions of research outputs permanently available and citable.

The author of the study, independent researcher and consultant Dr Vladimir Moskovkin, said: “This study moves beyond identifying isolated web scams; it documents an aggressive, transnational ‘metric chimera’ economy”.

Moskovkin is the former director of the Centre for the Development of Publication Activity at Belgorod State National Research University, Russia, where he was also a professor in the university’s Department of World Economy.

He told University World News he was able to confirm obscuration in Europe because that is where he is based – in the Czech Republic – but he believes the fake rankings are also obscured in other developed countries, such as the US, Canada, Australia and New Zealand, and surmises that the information campaigns involving fake rankings were targeted exclusively at countries in the Global South.

“The evolution from simple fake website clones (spring 2025/early 2026) to complex ‘July 2026 new wave’ domains (webometrics.one, webometrics.top, webometric.org) indicates that perpetrators are highly adaptive,” Moskovkin pointed out.

“By exposing how fake domains bypass European detection through Geo-IP masking and successfully penetrate official state documents and international recruitment portals (like SMAPSE or BAYHOST), the research highlights a systemic threat to the integrity of global higher education,” Moskovkin indicated.

“The scammers configured the server so that the fake webometrics.org content was displayed only to users from specific regions (South-East Asia, the Middle East, and Africa) – areas where the demand for rankings is highest and vigilance is lower,” Moskovkin pointed out.

“Therefore, safeguarding higher education requires a coordinated global response involving researchers, media watchdogs, and state accreditation bodies,” Moskovkin stressed.

Phenonomon driven by technologies

Moskovkin said: “The study reveals that approximately 65% of cases involving the dissemination of inaccurate ranking data were initiated by news outlets and consulting agencies.”

He noted that this proves that the phenomenon is “largely driven by PR technologies and information aggregation, rather than isolated errors by universities themselves”.

“The most striking finding is the pronounced geographical imbalance: 81.3% of fake publications originate from the Global South, with Indonesia acting as the primary epicentre (accounting for over 50% of all recorded publications), followed by Turkey (10.3%), Ukraine (8.7%) and both the Philippines and Egypt (7.0%),” Moskovkin added.

Other countries – totalling 34 countries, 23.3% of publications – include developing countries such as Montenegro, Jordan, Moldova, Uganda, and Yemen.

“The presence of developed nations (the US, Spain, Israel, the UK, Germany and Canada) is sporadic and associated with local marketing errors or the activity of international consulting and recruitment agencies.

“Overall, this confirms the transnational and opportunistic nature of the fake WUR market, penetrating any region in search of image-driven demand,” Moskovkin indicated.

“This shows that universities in developing regions, facing immense pressure regarding publication performance and rigid KPI/accreditation systems, are uniquely vulnerable to fake rankings and actively exploit them to simulate international prestige,” Moskovkin pointed out.

“Furthermore, the data demonstrates a clear Pareto distribution, where a small number of countries hold the vast majority of ‘fake webometric weight’, creating an institutionalised illusion of global success,” Moskovkin indicated.

Takeaway messages to HE policymakers

Asked about the most important takeaway messages for higher education policymakers and decision makers, Moskovkin said: “Policymakers and university leadership must realise that relying on unverified web metrics for national KPIs, hiring criteria, and institutional benchmarking creates a dangerous feedback loop of misinformation.”

He said ministries of higher education need to establish rigorous, independent audit mechanisms for academic metrics and rely solely on authentic, verified international repositories, such as the official data hosted on Figshare via the Cybermetrics Lab.

“An example of such successful work is the effort of the Center for Civic Education (CCE) in Montenegro, which, based on our research, succeeded in having an erroneous Order of the Ministry of Education, Science and Innovation of Montenegro revoked.

“The Order had been based on the fake webometrics.org ranking when hiring faculty for Montenegrin universities,” Moskovkin pointed out.

He said several actions must be taken to deal with the rise of the fake university ranking systems.

First, he said, official ranking providers and the academic community must take technical and legal action.

“Official providers must implement proactive legal and technical defences, while the academic community must establish global observatories.”

Moskovkin has published several studies and reports about fake university ranking sites in 2026, including the study titled “Pandemic of ‘Predatory’ Rankings: Why academic integrity fails the stress test” and the article titled “Predatory university rankings jeopardise the value of Webometrics”, and is involved in a group of higher education experts which is in the final stage of launching Global Observatory on Academic Metrics and University Rankings (GOAMUR), which will “continuously monitor, expose, and neutralise predatory ranking networks before they distort educational policy and consumer trust”.

Second, strategies identified in the group’s research must be implemented.

“These include the urgent restoration of the official webometrics.info portal as a single source of truth, the enforcement of strict verification protocols that require universities to cross-check any ranking claims solely against authentic repositories (such as the official Figshare archive), and the establishment of global monitoring systems to inform regulators about the geo-targeting tactics used by scammers to bypass detection,” Moskovkin said.

Third, GOAMUR is preparing an open letter to the ministries of higher education and scientific research worldwide, calling on national governments to take direct responsibility for monitoring and sanctioning the use of fake metrics within their own jurisdictions.

“Given the unprecedented, global scale of this academic fraud, it is time for ministries to ensure that institutional ‘prestige’ is not built on digital deception and to hold local universities accountable for upholding academic integrity,” Moskovkin stressed.

A threat to global HE sector

Global higher education expert and director of strategic insights at RMIT University in Australia, Angel Calderon, told University World News: “The continued proliferation of fake global university rankings, alongside the growing visibility of fraudulent or unsubstantiated expertise, is a matter of significant concern for the global higher education sector.

“While strategic geo-targeting is increasingly evident, particularly in emerging economies that are strengthening their higher education systems, it is important to emphasise the need to empower university leaders and the broader academic community to uphold academic integrity and adhere to the ethical principles of responsible scholarly publishing and information dissemination,” added Calderon, who is the author of “Sustainability Rankings: What they are about and how to make them meaningful”.

Proliferation of fake rankings expected

Calderon warned that the proliferation of fake global rankings and fraudulent expertise is unlikely to disappear anytime soon in an era of rapid technological transformation.

“I anticipate that academics and institutions will increasingly become targets of unscrupulous entities seeking commercial gain, as competition for resources intensifies and the pressure to demonstrate institutional relevance grows.

“This underscores the need for continued vigilance against such practices and for sustained efforts to raise awareness among university leaders, policymakers, academics, the media, and society more broadly.”

He said it is imperative to foster greater collaboration between academics in established higher education systems and their counterparts in emerging and developing systems, enabling them to learn from one another while strengthening quality assurance, upholding academic integrity, and promoting responsible academic practice.

Governments should be ‘more active’

“At the same time, national governments should be encouraged to play a more active role in establishing and strengthening frameworks for academic integrity, as well as robust systems for the verification and dissemination of reliable information.”

He said that while many critics contend that global rankings should be discontinued, they are unlikely to disappear anytime soon. Similarly, the pressure on academics to publish is unlikely to diminish in the foreseeable future.

“Ideally, we should reframe the ways in which academic staff are recognised and rewarded by reducing the sector’s reliance on quantitative performance indicators, including bibliometric measures.

“These challenges are complex and unlikely to be resolved easily,” he said.

“Nevertheless, it is important to continue discussions on reforming academic promotion and reward systems to ensure that they more fully recognise the breadth, quality, and impact of academic contributions.”

University World News reached out to the Webometrics Ranking of World Universities, QS World University Rankings, ShanghaiRanking’s Academic Ranking of World Universities and THE World University Rankings for reaction to the study but received no responses.

.


 

.

The Future of Engineering: Next-Gen Technologies Explored

The Future of Engineering: Next-Gen Technologies Explored

A robotic hand reaching into a digital network on a blue background, symbolizing AI technology. by Tara Winstead via Pexels

.

The Future of Engineering: AI, IoT, and Other Emerging Technologies

.

AMRITA September 2, 2026

.

The Future of Engineering: AI, IoT, and Other Emerging Technologies

.

The field of engineering is undergoing a profound transformation, driven by the rapid advancement of emerging technologies. From AI in engineering to the Internet of Things (IoT), these innovations are reshaping the way engineers approach problem-solving, design, and manufacturing. As the world enters the era of Industry 4.0, it is crucial for aspiring engineers to understand the impact of these technologies and how they will shape the future of the profession.

In this article, we will explore the key emerging technologies that are revolutionizing engineering, including artificial intelligence, IoT, 3D printing, renewable energy, and more. We will also discuss the importance of integrating these technologies into engineering education and the role of academic institutions like Amrita University in preparing students for the challenges and opportunities of the future.

Artificial Intelligence and Machine Learning

AI in engineering and Machine Learning (ML) are at the forefront of the technological revolution. These technologies enable systems to learn from data, make predictions, and improve over time. AI and ML are being applied in various areas of engineering, such as

Automation and Optimization

AI algorithms can analyze complex datasets to enhance efficiency and reduce operational costs in manufacturing. By optimizing processes and automating repetitive tasks, AI is helping engineers streamline operations and improve productivity.

Predictive Maintenance

AI-powered predictive maintenance systems can monitor the health of equipment and infrastructure in real-time, identifying potential issues before they lead to costly breakdowns. This proactive approach improves reliability, reduces downtime, and extends the lifespan of assets.

Design Optimization

AI and ML can assist engineers in optimizing product designs by analyzing vast amounts of data, simulating scenarios, and identifying the most effective solutions. This leads to improved performance, reduced material usage, and faster time-to-market.

Internet of Things (IoT) and Smart Cities

The Internet of Things (IoT) is connecting everyday objects to the internet, allowing them to collect and exchange data. This technology is creating smart environments where devices communicate seamlessly, leading to improved automation and control. In engineering, IoT is being used to:

Infrastructure Monitoring

IoT sensors can monitor the health of bridges, buildings, and other critical infrastructure, providing real-time data on structural integrity, environmental conditions, and potential hazards. This enables engineers to make informed decisions and proactively address maintenance needs.

Supply Chain Optimization

IoT devices can track assets throughout the supply chain, providing visibility and optimizing logistics. By monitoring inventory levels, transportation routes, and environmental conditions, engineers can streamline operations and reduce costs.

Smart City Development

IoT is playing a significant role in the development of smart cities. Engineers are designing IoT systems that facilitate communication between devices, improving overall functionality. Smart cities utilize IoT for traffic management, energy efficiency, and public safety, enhancing the quality of life for residents.

3D Printing and Additive Manufacturing

Additive Manufacturing, commonly known as 3D printing, is transforming product design and manufacturing processes. This technology enables the creation of complex geometries and customized parts with high precision and minimal waste. The benefits of 3D printing in engineering include:

Rapid Prototyping

3D printing allows engineers to quickly create physical prototypes of their designs, reducing development time and enabling faster iteration. This accelerates the product development cycle and facilitates early detection of design flaws.

Customization and Personalization

3D printing enables the production of customized and personalized products tailored to individual needs. This is particularly valuable in fields like medical engineering, where patient-specific implants and prosthetics can be created.

Sustainable Manufacturing

3D printing reduces material waste and enables the use of eco-friendly materials. By producing parts on-demand and minimizing inventory, 3D printing contributes to a more sustainable manufacturing process.

Renewable Energy Technologies

The urgent need to address climate change has driven significant advancements in renewable energy technologies. Engineers are developing innovative solutions to harness solar, wind, hydro, and other sustainable energy sources. The key areas of focus include:

Solar Energy

Engineers are working on improving the efficiency and affordability of solar panels, developing new materials and designs to maximize energy capture. They are also designing smart grid systems to integrate solar energy into existing power networks.

Wind Energy

Advancements in wind turbine technology, such as larger blades and more efficient generators, are increasing the power output and reliability of wind energy systems. Engineers are also developing offshore wind farms to harness the abundant wind resources available at sea.

Energy Storage

The intermittent nature of renewable energy sources requires efficient energy storage solutions. Engineers are developing advanced battery technologies, such as lithium-ion and flow batteries, to store excess energy and ensure a stable supply of clean power.

Preparing for the Future of Engineering

To prepare students for the challenges and opportunities of the future, engineering education must adapt and integrate emerging technologies in engineering into their curricula. Amrita University, one of India’s premier private institutions for higher education and research, is at the forefront of this transformation.

Amrita University offers a dynamic curriculum that undergoes rigorous updates every three years, ensuring alignment with the standards of leading institutions. The university provides a comprehensive education that emphasizes both technical skills and ethical development, preparing students to become knowledgeable and principled professionals.

Moreover, Amrita University maintains strong partnerships with industry leaders such as Microsoft, Infosys, Bosch, and Wipro, creating exceptional placement opportunities for students. These collaborations expose students to real-world challenges and provide hands-on experience with cutting-edge technologies.

Final Thoughts

The future of engineering lies in embracing emerging technologies in engineering such as AI, IoT, 3D printing, renewable energy, and more. These technologies are reshaping industries, driving innovation, and presenting both opportunities and challenges for engineers.

To thrive in this rapidly evolving landscape, aspiring engineers must develop a deep understanding of these technologies and their applications. They must also cultivate a mindset of continuous learning, adaptability, and collaboration.

Institutions like Amrita University play a crucial role in preparing students for the future of engineering. By providing a comprehensive education that integrates emerging technologies, fostering industry partnerships, and emphasizing ethical development, Amrita University equips students with the knowledge, skills, and values necessary to succeed in the era of Industry 4.0.

If you are considering a career in engineering or looking to enhance your skills in emerging technologies, Amrita University offers a wide range of programs tailored to meet the demands of the future. From undergraduate to postgraduate studies, Amrita University provides an exceptional learning environment that nurtures innovation, creativity, and social responsibility.

Frequently Asked Questions

  1. What are the key emerging technologies shaping the future of engineering?

The key emerging technologies in engineering include artificial intelligence (AI), the Internet of Things (IoT), 3D printing, renewable energy technologies, and more. These technologies are transforming various aspects of engineering, from design and manufacturing to infrastructure monitoring and smart city development.

  1. How is AI transforming the field of engineering?

AI in engineering is being applied in areas such as automation, predictive maintenance, and design optimization. AI algorithms can analyze complex datasets to enhance efficiency, reduce operational costs, and improve product performance. AI is also enabling engineers to make data-driven decisions and streamline processes.

  1. What role does IoT play in engineering?

IoT is connecting everyday objects to the internet, allowing them to collect and exchange data. In engineering, IoT is being used for infrastructure monitoring, supply chain optimization, and smart city development. IoT sensors can provide real-time data on the health of assets, optimize logistics, and improve overall functionality.

  1. How is 3D printing revolutionizing manufacturing?

3D printing, also known as additive manufacturing, is transforming product design and manufacturing processes. It enables the creation of complex geometries and customized parts with high precision and minimal waste. 3D printing facilitates rapid prototyping, personalization, and sustainable manufacturing practices.

  1. What should aspiring engineers focus on to prepare for the future?

To prepare for the future of engineering, aspiring engineers should develop a deep understanding of emerging technologies in engineering such as AI, IoT, 3D printing, and renewable energy. They should also cultivate a mindset of continuous learning, adaptability, and collaboration. Pursuing education at institutions like Amrita University, which integrate emerging technologies into their curricula and foster industry partnerships, can provide a strong foundation for success in the era of Industry 4.0.

.


 

.