IIT Roorkee Launches Data Science And Artificial Intelligence Programme

IIT Roorkee Launches Data Science And Artificial Intelligence Programme

The Indian Institute of Technology, Roorkee (IIT Roorkee) has partnered with Jaro Education, an online platform, which provides online courses in collaboration with Indian universities, to introduce a Post Graduate Certificate Programme in Applied Data Science and Artificial Intelligence (AI).

"This executive programme, offered by the Continuing Education Centre at IIT Roorkee, aims to equip professionals with the essential skills and knowledge required to excel in the fields of data science and artificial intelligence," the official press release read.
Eligibility, programme details

Applicants should have a bachelor's degree with a minimum of 50 per cent aggregate marks and have one year of work experience. For selection, candidates will have to submit personal details, educational qualifications, a resume, and a statement of purpose. The programme is 6-8 month-long.

The Post Graduate Certificate course in Applied Data Science & AI at IIT Roorkee is tailored to offer a detailed learning experience, covering both theoretical foundations and practical applications in these two courses.

The curriculum is regularly updated to incorporate the latest industry trends, including Generative AI, to ensure participants stay current with new advancements, according to the institute.
The curriculum is structured into several modules, each addressing different areas of data science and AI:Conceptual and Technical Foundations
Data Mining and Machine Learning
Analytics using NLP, Time Series, and Networks
Data-Driven Web Products
Data-Driven Business Decisions

This new program will explore essential concepts, methodologies, and real-world applications of data science and AI. Participants will receive practical training in key software tools and technologies such as Python, R, SQL, NoSQL, and cloud analytics. The program also features live online sessions led by IIT Roorkee faculty and offers two optional campus immersions for an enhanced learning experience.

The integration of data science and AI has created numerous career opportunities across different industries. Graduates can pursue roles such as Data Analyst, Data Scientist, Machine Learning Engineer, AI Specialist, Data Engineer, Business Intelligence Analyst, and AI Research Scientist. This program equips participants with the skills needed to excel in these roles and contribute to technological advancements in their fields.



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Mechanical Engineering at Sheffield rated top in the Russell Group for the third year in a row in the National Student Survey

The University’s subject of Mechanical Engineering has been ranked number one in the Russell Group by students in this year's National Student Survey.

  

The University’s subject of Mechanical Engineering has been ranked number one in the Russell Group by students for: teaching on my course, learning opportunities, assessment and feedback, academic support, organisation and management and student voice in the latest National Student Survey (NSS).

Mechanical Engineering was also ranked 4th in the Russell Group for learning resources.

I am thrilled with the excellent results for Mechanical Engineering in the NSS. Coming out best in the Russell Group in six out of the seven categories for Mechanical Engineering is testament to the hard work of our colleagues and students.

All staff groups, postgraduates and the undergraduates themselves have contributed in creating an environment where our students are happy and successful, and so I would like to thank everyone involved. I feel privileged to be working with such a great group of people.

Dr Jem Rongong

Head of Mechanical Engineering at Sheffield

For the second year in a row, The University of Sheffield has also been placed number one in the Russell Group, based on aggregate responses in the annual survey, in which students give feedback on their university experience.

Sheffield’s Students’ Union has been rated the best SU among UK universities, after also being placed top in the Russell Group in last year’s NSS.

Students gave Sheffield the highest score in the Russell Group for learning opportunities, assessment and feedback, and student voice, whilst the University has been ranked in the top four for teaching, academic support, organisation and management, and learning resources.

The NSS results follow Sheffield being voted University of the Year by students, as well as Best Students’ Union and Best Student Life in this year’s WhatUni Student Choice Awards.

Professor Mary Vincent, Vice-President for Education at the University of Sheffield, said: “We are so pleased that our students have rated their experience at Sheffield so highly again this year. The NSS is one of the many ways that we seek feedback from our students and listen to their views on their life at the University. Whilst we are delighted with these results, we are determined to provide the very best education and will keep working hard, together with our Students’ Union, to ensure studying at Sheffield remains a rewarding experience.”

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Best laptops for engineering students in 2024

The best laptops for engineering students easily handle complex CAD projects and datasets. If you're getting ready for the Back to School season, these are the most powerful and lightweight laptops we recommend for any engineering course.

Our expert team of reviewers have tested of the best student laptops - and for engineering, we like the Dell XPS 15. With some great specs inside a light, compact chassis, it's ideal for taking to class. For alternatives, check out the budget HP Victus 15 and the always impressive m2-powered Apple Mac Air.


In reviewing the best laptops for engineering students, we've compared specs, benchmarked performance. We also explored core features such as ports, connectivity, and a comfortable keyboard for essay-writing, to help you find the right laptop, whichever branch of engineering you study.Best laptop for AutoCAD deals: We tracked down the best AutoCAD laptop deals around right now

"Laptop perfection" is how we described Dell's excellent XPS 15. Maintaining its outstanding classic design from previous generations, the 2022 model is a solidly built device. It's made with a brushed CNC aluminum chassis and carbon fiber palm rests that, alongside the ever-comfortable Dell keyboard design, we found comfortable for prolonged use. If you're writing a lot of essays, you'll feel the benefit of this design very quickly. We were also impressed with the extended battery life, letting you work across campus without worrying about losing charge too fast. 

However, limiting portability (without the use of a laptop docking station at least) is the lack of available ports. You'll find three USB Type-C ports, which won't be ideal if you're using USB-A peripherals. 

It's a small complaint, perhaps, in an otherwise great laptop. Paired with a beautiful screen, a great keyboard, and plenty of storage space, you'll blaze through your latest project. Better still, this is a Windows laptop - and many engineering programs, particularly Autodesk's line-up, only run on Windows. 

It might be marketed as a gaming laptop. Still, the HP Victus 15's simple design (free from the gaudy 'gamer aesthetic' of many powerful laptops) and RTX-equipped models make it a solid choice for any engineering student who will be running graphically-demanding programs.

It's also remarkably cheap for a laptop with a discrete GPU, likely to please any budding engineer on a budget. During testing, it performed below other gaming laptops in our standard benchmarks, but not by a huge margin. We also found that it takes air circulation seriously, boasting a dual-fan setup and a large air vent at the bottom. That's going to be a major benefit when working in those resource-intensive apps and large, complex projects that really test the mettle of any engineering laptop. 

A bright 15.6-inch FHD display and generally robust build quality mean that while this isn't the most lightweight laptop in the business, it's tough enough to withstand the bumps and bruises of college life. If you're looking to save space in your dorm, this machine easily pulls double-duty as a laptop and a desktop replacement. The Apple MacBook Air (M2, 2022) isn't just one of the best laptops Apple has ever made. It's one of the best laptops for engineering students who value portability and power. However, it's worth checking course requirements here, as depending on your discipline, many engineering classes require a Windows laptop for software compatibility. 

But if it's right for you, then you'll find this machine will absolutely breeze through just about any project, thanks to its incredibly powerful M2 processor. During our time with the MacBook Air, the laptop performed incredibly well, blazing through tasks like video editing and graphic design without a single drag on performance. So, it's more than capable of handle compatible engineering apps. Better still, for those working in libraries and other busy, communal areas, we found the fan was silent under normal operating conditions (although we would expect the volume to amp up when running heavier workloads). 

The laptop is thin, light, stylish, durable with an incredible battery life that lasts over 11 hours on a single charge. In other words, perfect for carrying around campus. Its screen is gorgeous, and the new-and-improved keyboard means you can effortlessly produce coursework for hours.

The Asus ROG Strix SCAR G834JY boasts an incredible array of specs that promise to make this machine rocket to the top of wishlists for engineering students looking for a laptop powerful for work and play (because college isn't all about studying, right?). 

While built with gamers in mind, the G834JY is built to effortlessly handle processor and GPU-intensive workloads on engineering courses. Specs are excellent - 13th Gen Intel Core i9-13980HX processor and an NVIDIA GeForce RTX 4090 Laptop GPU. RAM tops at 64 GB of DDR5-4800 MHz memory and comes equipped with 2 TB of PCIe 4x4 configured in RAID 0. So, this machine should last you throughout your course - it's not going to age-out or need upgrading. 

The screen is great, too - 18-inch QHD+ 16:10, with more screen real estate to keep total oversight over your work. Especially good for designers, the display boasts 100% DCI-P3 color gamut and Pantone Validation. 

On the downside, it's not ultra-portable.  It's broad and heavy and you won't want to lug this laptop around college ground a lot. Cooling isn't great here. Nor did we find battery life especially good. The Asus ROG Strix SCAR G834JY is ideal, however, for setting up in one or two locations each day. Connectivity and port selection aren't great either, the only highlight being a single Thunderbolt 4 port, so you'll need a docking station if you have a lot of peripherals.

With its top-end specs and those minor shortcomings on a very high-performance laptop, this one gives us desktop alternative vibes. 

#ElectricalEngineering #TechCareers #EngineeringJobs #HighPayingRoles #EngineeringOpportunities


nternational Research Awards on Mechanics of Functional Materials and Structures


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5 Careers In Electrical Engineering To Consider

If you find yourself drawn to the electrical engineering field, chances are you possess an analytical mindset and a strong aptitude for problem-solving. Along with the right college-level training and technical knowledge, these qualities can help you forge a career path that provides both intellectual stimulation and a healthy paycheck.

Electrical engineering careers span various sectors, including scientific research and development, telecommunications, aerospace, manufacturing, healthcare and energy. Across these diverse disciplines, electrical engineers develop and manage a vast array of complex electrical devices and systems.

Whether you’re considering a degree in electrical engineering or you’ve already graduated, use our guide to explore the many roles available in this cutting-edge field. We’ll also cover electrical engineering specializations and highlight professional organizations that can support your career journey.

Electrical engineering, a branch of the broader engineering field, deals with the practical application of all types of electricity.

Scientists have studied electrical phenomena since the 17th century. By the mid-1800s, electrical engineering emerged as a distinct discipline. With the popularization of inventions such as the telephone and incandescent lamp, the latter part of the 19th century saw increased demand for electrical engineers.

As demand for qualified professionals grew, so did the need for electrical engineer career training. The Massachusetts Institute of Technology established the United States’ first college-level electrical engineering curriculum in 1882.

Electrical engineers are essential to multiple economic sectors in today’s increasingly tech-integrated world. These professionals use their knowledge of mathematics and physics to design, test and modify equipment and systems that use or produce electricity, from the smallest nanotechnology components to the largest national power grids. They may also conduct academic research and oversee electrical device manufacturing.

Careers in Electrical Engineering

If you’re just starting out on your electrical engineering career path, here’s some good news: Engineering majors—including electrical engineering—top the National Association of Colleges and Employers‘ (NACE’s) list of disciplines with the highest starting salaries for new graduates.

In its 2023 salary survey, NACE reports that job-seekers with bachelor’s degrees in engineering fields earned an average starting salary of $74,405 as of 2023. Starting salaries for engineering master’s graduates averaged $86,826.

Below, we’ll detail a variety of careers in electrical engineering. We sourced salary data for this section from the U.S. Bureau of Labor Statistics (BLS) and Payscale in November 2023.

Electrical or Electronics Engineer

These roles represent some of the major job categories open to electrical engineers, but the field offers many more possibilities. Consider these additional options:

Electrical Engineering Specializations

Electrical engineering careers include several major subdisciplines, which tend to overlap. As you plot your professional trajectory, consider which branches of electrical engineering interest you most.

Control Engineering

In this specialization area, engineers use control theory and feedback processes to develop and refine control systems—the “brains” that govern how electrical and electronic equipment and systems behave.

Communications and Signal Processing

Specialists in this field design, analyze and improve systems that transmit sound, images and data. Key areas of study include fiber optic, radio, microwave and satellite communication.

Power Engineering

This branch of electrical engineering deals with how electric power is generated and used. The BLS reports that organizations specializing in electric power generation, transmission and distribution employ nearly 1 in 10 electrical engineers.

Electronic Engineering

Electronic engineers design and test circuits that allow electronic devices to carry out tasks. The largest employers of electronic engineers include telecommunications companies, semiconductor and electronic component manufacturers, and the federal government.

Microelectronics and Nanoelectronics

This growing subfield deals with the smallest electronic circuit components. Microelectronics engineers need a strong grasp of materials engineering, chemistry and quantum mechanics.

Computer Engineering

Computer engineering may be a standalone major or part of an electrical engineering degree program. This field deals with the design of computers and computer systems, particularly their hardware components.

Electrophysics

Focused on developing real-world applications for emerging physics research, this field bridges the gap between theory and practice. Electrophysics engineers need a creative mindset and a strong understanding of abstract physics principles.

Electrical Engineering vs. Computer Engineering: What’s the Difference?

If you’re considering a career in electrical engineering, you may wonder what distinguishes this field from computer engineering. These closely related disciplines overlap significantly. In fact, computer engineering is often considered a subset of electrical engineering, although expert opinions differ on the subject.

Electrical engineering is the study of anything that runs on or produces electricity, including computers. A much narrower field, computer engineering focuses solely on computers, combining electrical engineering competencies with computer science knowledge.

Professionals in both fields need skills in areas like computer-aided drafting, higher mathematics, circuit design and quantitative analysis. However, computer engineers are more likely to engage in software engineering and programming. They often need computing-specific skills like debugging and may learn more programming languages.

Professional Organizations for Electrical Engineering

Professional organizations offer member benefits like mentorship, networking events, conferences, job boards and professional development resources. Connect with one or more of these organizations to boost your career development.

IEEE. IEEE’s roots date back to 1884. The group boasts over 420,000 members, making it the world’s largest organization for technology and engineering professionals. IEEE welcomes members working in electrical and electronics engineering and allied fields.
Association for Computing Machinery (ACM). This network includes nearly 100,000 computing educators, researchers and professionals. ACM offers a career center, more than 30 special interest groups and hundreds of local chapters.
SPIE. This organization serves professionals, educators and researchers in the optics and photonics fields. Members enjoy access to networking events, learning resources, and SPIE’s student and career hubs.
National Society of Black Engineers (NSBE). This organization supports working professionals and students from kindergarten through graduate school. NSBE special interest groups include programs dedicated to energy and aerospace engineering.
Association of Energy Engineers (AEE). This international organization focuses on combating climate change by improving energy efficiency. AEE offers energy-related certifications and opportunities to connect with like-minded professionals.
Society of Women Engineers (SWE). Founded in 1950, this organization empowers women to succeed in engineering fields. SWE offers youth programs, a mentor network and 21 affinity groups.
Audio Engineering Society (AES). AES provides networking and mentorship opportunities for student and professional audio engineers. Members can access over 20,000 publications in the organization’s online library.

#ElectricalEngineering #TechCareers #EngineeringJobs #HighPayingRoles #EngineeringOpportunities


nternational Research Awards on Mechanics of Functional Materials and Structures


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Metamaterial Magic: Scientists Develop New Material That Can Dynamically Tune Its Shape and Mechanical Properties in Real-Time

Researchers have created a novel metamaterial that can dynamically tune its shape and properties in real-time, offering unprecedented adaptability for applications in robotics and smart materials. This development bridges the gap between current materials and the adaptability seen in nature, paving the way for the future of adaptive technologies. Credit: UNIST

Drawing inspiration from the extraordinary adaptability seen in biological entities such as the octopus, a significant advancement in the field of soft robotics has been made. Under the guidance of Professor Jiyun Kim from the Department of Materials Science and Engineering at UNIST, a research team has successfully developed an encodable multifunctional material that can dynamically tune its shape and mechanical properties in real-time.

This groundbreaking metamaterial surpasses the limitations of existing materials, opening up new possibilities for applications in robotics and other fields requiring adaptability.

Current soft machines lack the level of adaptability demonstrated by their biological counterparts, primarily due to limited real-time tunability and restricted reprogrammable space of properties and functionalities. In order to bridge this gap, the research team introduced a novel approach utilizing graphical stiffness patterns. By independently switching the digital binary stiffness states (soft or rigid) of individual constituent units within a simple auxetic structure featuring elliptical voids, the material achieves in situ and gradational tunability across various mechanical qualities.


The digitally programmable material exhibits remarkable mechanical capabilities, including shape-shifting and memory, stress-strain response, and Poisson’s ratio under compressive load. Furthermore, it demonstrates application-oriented functionalities such as tunable and reusable energy absorption and pressure delivery. This breakthrough material serves as a stepping stone toward the development of fully adaptive soft robots and smart interactive machines.
Breakthrough Material and Applications

“We have developed a metamaterial that can implement desired characteristics within minutes, without the need for additional hardware,” stated Jun Kyu Choe (Combined MS/Ph.D. Program of Materials Science and Engineering, UNIST), the first author of the study. “This opens up new possibilities for advanced adaptive materials and the future development of adaptive robots.”

The research team showcased the material’s potential by demonstrating an “adaptive shock energy absorbing material,” which adjusts its properties in response to unexpected impacts. By minimizing the force transmitted to the protected object, this material significantly reduces the risk of damage or injury. Additionally, the team utilized the metamaterial as a “force transmission material,” capable of delivering forces at desired locations and times. By inputting specific digital commands, the material selectively operates adjacent LED switches, enabling precise control over force transmission pathways.


Professor Kim emphasized the compatibility of this metamaterial with artificial intelligence technologies, such as deep learning, as well as existing digital technologies and devices. “This metamaterial, capable of converting digital information into physical information in real-time, will pave the way for innovative new materials that can learn and adapt to their surroundings,” added Professor Kim.

Reference: “Digital Mechanical Metamaterial: Encoding Mechanical Information with Graphical Stiffness Pattern for Adaptive Soft Machines” by Jun Kyu Choe, Jiyoon Yi, Hanhyeok Jang, Heejae Won, Suwoo Lee, Hajun Lee, Yeonwoo Jang, Hyeonseo Song and Jiyun Kim, 18 October

The research, published in the January 2024 issue of Advanced Materials, has been selected as a back cover. The project received support from the National Research Foundation of Korea (NRF), the Ministry of Science and ICT (MSIT), and the Korea Institute of Materials (KIMS).

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nternational Research Awards on Mechanics of Functional Materials and Structures


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Mechanical Engineering Student Soars with Aerospace Fellowship

When Abeni Belay launched her first rocket with a University of Texas at Dallas student organization for aspiring aerospace engineers, it changed her career trajectory.

“I joined Comet Rocketry and fell in love with aerospace,” said the mechanical engineering junior, who now serves as an officer of Comet Rocketry, which is part of the UT Dallas student chapter of the American Institute of Aeronautics and Astronautics (AIAA).

Belay recently was named one of 29 students nationwide to receive a 2024 Patti Grace Smith Fellowship, which connects leading aerospace companies with talented Black students. The program offers students internships in the aerospace industry, personalized mentors and scholarships. Belay will intern this summer as a systems engineer at Sierra Space in Broomfield, Colorado, and travel to a conference with other fellows.

“I’m honored to be a Class of 2024 Patti Grace Smith Fellow,” Belay said. “I’m excited about the opportunity to work at Sierra Space and become part of the fellowship community.”

Growing up, Belay planned to pursue a career in medicine. When her interests changed, she majored in computer science at UTD, then switched to biomedical engineering. Eventually, she discovered that mechanical engineering was a better fit. Although UTD does not offer degrees in aerospace engineering, many of the University’s mechanical engineering classes teach the principles, such as propulsion, needed for aerospace careers.

“I’ve learned so much, and it’s really nice to apply the theories I’ve learned in classes to build things like rockets and rovers,” Belay said.

Dr. Joshua Summers, professor of mechanical engineering and interim associate dean for undergraduate studies in the Erik Jonsson School of Engineering and Computer Science, said he has seen student interest in aerospace grow in recent years as federal and private space exploration programs have expanded.

Summers, who has mentored Belay, said he advises students interested in aerospace to study mechanical engineering, which provides the qualifications they will need to work in the aerospace industry and keeps the door open to other career paths.

“I tell students who are interested in aerospace, ‘You can blaze your path through mechanical engineering,’” Summers said.

UT Dallas offers a range of classes and opportunities for students interested in aerospace, including its AIAA chapter. Comet Rocketry students build L1 rockets, the lowest class of high-powered rocketry, which can reach altitudes of about 4,000 feet. Belay and her team plan to compete in the Spaceport America Cup, an international intercollegiate competition that will be held June 17-22 in New Mexico.

AIAA UTD members also participate in the international organization’s design, build and fly competition for remote-controlled aircraft. The UTD chapter of SAE International includes an aerospace subgroup, too, and a student team is among 13 groups in the nation selected to present a prototype of its space exploration technology at NASA’s Johnson Space Center in June as part of the Micro-g Neutral Buoyancy Experiment Design Teams challenges.

In addition to studying for her classes and building rockets, Belay serves as a peer advisor in the engineering Living Learning Community and leads the University Rover Challenge project for Comet Robotics. After graduation, Belay hopes to work in the aerospace industry. Her goal is to earn a doctoral degree in mechanical engineering and teach at a university.

“I’m thankful that UTD has given me the flexibility to jump around and try new things,” she said.

Belay believes her experience at the University will make her a better engineer.

“I think of an engineering degree as a degree that teaches you how to problem-solve,” Belay said. “Since I have experiences from things like biomedical engineering and computer science, I can use all these things that aren’t traditionally taught in an engineering program, no matter what path my career takes.”

#SwanseaUniversity #PelaFlex #InnovateUK #OffshoreWind #RenewableEnergy #Decarbonization #JobCreation #SustainableFuture #SteelProduction #SouthWestWales #EnergyHub #MarinePowerSystems #TataSteelUK #PortOfMilfordHaven#Professor #Lecturer #Scientist #Scholar #Researcher #Analyst #Engineer #Technician #Coordinator #Specialist #Writer#Assistant #Associate #Biologist #Chemist #Physicist #Statistician #DataScientist #Consultant



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NEW FUNDING TO SUPPORT WALES’ DEVELOPMENT OF PIONEERING MARINE ENERGY TECHNOLOGY

Innovate UK has awarded funding to further optimise a unique and flexible floating offshore wind platform for applications in the Celtic Sea, a collaboration involving Swansea University.

The funding will help establish the Launchpad project to ensure that, where possible, a local supply chain will support the fabrication, manufacture, and deployment of the platform, known as PelaFlex.

Led by Marine Power Systems, Swansea University’s Department of Mechanical Engineering will be working with Ledwood Mechanical Engineering, Tata Steel UK, ABP (Associated British Ports) Port Talbot, and the Port of Milford Haven on the project, which is worth over £800,000.

Launchpad will optimise PelaFlex's structural efficiency, paying particular attention to the challenging environment in the Celtic Sea while minimising the cost of materials and deployment. This includes using strip steel manufactured in Port Talbot, components fabricated by local suppliers, and assembly and rollout using existing ports in southwest Wales.

Swansea University will provide design input by applying the latest developments in structural design modelling, and Ledwood, based in Pembrokeshire, will provide feedback that will help maximise the extent to which local suppliers can support fabrication.

Input from Associated British Ports and the Port of Milford Haven will ensure that the platform can be assembled and deployed from those locations whilst minimising the investment required to do so.

The project will support Tata Steel UK’s vision to decarbonise Port Talbot’s steel production, one example being the production of green strip steel using an electric arc furnace. It will also help position the town as an industrial hub for the development and deployment of offshore wind.

Dr Will Harrison, Senior Lecturer in Mechanical Engineering at Swansea University, said: “It is a great opportunity to be working with MPS, Ledwood, Tata Steel, the Port of Milford Haven and ABP Port Talbot to deliver this exciting project. Each of the partners brings different and complementary expertise to this engineering challenge, and the project really showcases the potential of industry in South-West Wales. MPS has developed a world-class concept which we are really excited to help them optimise, using experience in computation techniques at Swansea University and to support local industry.”

Graham Foster, Chief Technology Officer at Marine Power Systems, commented: “We are really excited to receive support through Innovate UK. With the deployment of floating offshore wind in the Celtic Sea becoming a reality the time is absolutely right to work with local supply chain to optimise the detailed design of our technology and maximise its deliverability. A good example of that, is that we are confident that through this project we will be able to optimise our platform design to increase the amount of local steel used to fabricate it from around 10% to over 50%.”

Mark Davies of Ledwood Mechanical Engineering commented: “Launchpad represents another step forward for the emerging floating offshore wind industry. As a locally-based engineering company, we are pleased to be working with MPS, Tata Steel, the Port of Milford Haven, ABP Port Talbot and Swansea University to help build a local supply chain by capitalising on the skills, expertise and infrastructure that we have here in South-West Wales. This is an exciting time for us and we hope the region can take advantage of the opportunities that will soon emerge

#SwanseaUniversity #PelaFlex #InnovateUK #OffshoreWind #RenewableEnergy #Decarbonization #JobCreation #SustainableFuture #SteelProduction #SouthWestWales #EnergyHub #MarinePowerSystems #TataSteelUK #PortOfMilfordHaven#Professor #Lecturer #Scientist #Scholar #Researcher #Analyst #Engineer #Technician #Coordinator #Specialist #Writer#Assistant #Associate #Biologist #Chemist #Physicist #Statistician #DataScientist #Consultant



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The Future of Mechanical Engineering: Trends to Watch in 2024

 

In 2024, mechanical engineering is undergoing a significant transformation with the integration of Artificial Intelligence and robotics

From the Industrial Revolution to the digital age, mechanical engineering has consistently led the way in innovation, driving progress across manufacturing, transportation, and various other sectors. Today, as India endeavours to strengthen its manufacturing sector, aiming to substantially elevate its GDP and realize the ambitious vision of becoming a 30-trillion-dollar economy by 2047, the demand for young mechanical talent at Viksit Bharat has never been more pressing. Here, we explore several promising advancements that are reshaping the field, presenting mechanical engineers with new tools and avenues to shape a brighter future.

Rise of AI and Robotics

Traditional mechanical engineering is undergoing a significant transformation fuelled by the integration of Artificial Intelligence (AI) and robotics. This powerful combination gives rise to autonomous systems – machines empowered by AI algorithms that can perform complex tasks with unmatched precision and efficiency.

The applications of AI in mechanical engineering are vast, encompassing industrial automation, self-driving cars, and smart manufacturing facilities (Industry 4.0). But the potential goes beyond factories. Imagine AI-powered drones assisting small farms, conducting daring rescue missions, or even serving as intelligent health companions. The future holds promise for AI-managed entities in public services and social sectors, alongside the development of collaborative robots, medical robots, and even swarms of intelligent machines working together.

3D Printing Revolution

3D printing, also known as additive manufacturing, is revolutionizing the way mechanical engineers design and manufacture. Unlike traditional methods, 3D printing allows for the creation of intricate geometries with unparalleled precision and efficiency. This technology disrupts production by enabling on-demand creation of complex, customized parts, leading to lighter, more efficient designs and reduced waste.

Additive manufacturing opens doors to a world of possibilities, from rapid prototyping to full-scale production. The future is even brighter with the emergence of 4D printing (objects that change shape over time), organ printing for medical applications, and multi-material printing that combines different materials within a single print. Whether you're a seasoned engineer or just starting out, exploring 3D printing can unlock a world of possibilities. Consider joining maker spaces or collaborating with peers to gain access to 3D printers and delve deeper into this exciting field.


Electric Vehicles (EVs) Becoming Mainstream

Fuelled by stricter environmental regulations, consumer demand for cleaner transportation, and rapid technological advancements, electric vehicles (EVs) are poised to dominate the future. Mechanical engineers are at the forefront of this shift, designing innovative powertrains with longer-lasting batteries, efficient motors, and robust charging infrastructure.

But the future of transportation is not just electric, it's autonomous. Engineers are collaborating on self-driving algorithms seamlessly integrated with EVs, promising a safer and more convenient tomorrow. Affordability is key – as engineers continuously improve EV performance and efficiency, these vehicles will become accessible to a wider audience, driving the sustainable transportation revolution forward.

Global Buzz for Sustainability

Sustainability has become more than just a buzzword; it's an urgent necessity. Technological advancements have come at a cost to the environment, leading to climate change and other challenges. Mechanical engineers are uniquely positioned to develop solutions through innovations in renewable energy transition, energy storage, and grid integration. Advancements like lightweight solid-state batteries, bladeless wind turbines, and AI-powered grid management are making a significant difference. Additionally, initiatives like zero waste, biodegradable materials, sustainable packaging & circular economy practices are gaining traction, all areas where mechanical engineers can play a crucial role.

The versatility of mechanical engineering empowers professionals to navigate diverse industries and challenges. With expertise in design, analysis, and optimization, mechanical engineers make significant contributions across emerging domains such as smart manufacturing, advanced materials science, and green technology.

By embracing stability, simplicity, and versatility, they will continue to drive future advancements and pioneer new technological improvements, shaping a brighter tomorrow.

International Research Awards on Mechanics of Functional Materials and Structures

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It’s official: United Nations declares 2025 the International Year of Quantum Science and Technology

The International Year of Quantum Science and Technology follows several other recent science-based international years, including the periodic table of chemical elements in 2019 and light and light-based technologies in 2015.

The United Nations (UN) has officially declared 2025 to be the International Year of Quantum Science and Technology (IYQ). Agreed by its general assembly, the year-long worldwide celebration will highlight the impact and contribution of quantum science. It also aims to ensure that all nations have equal access to quantum education and opportunities. An opening ceremony is expected to take place on 14 January in Berlin.

The campaign for 2025 to celebrate quantum science has been led since 2021 by the American Physical Society and the German Physical Society (DPG). The year was chosen as it marks the centenary of Werner Heisenberg’s efforts to develop the mathematical formulation of quantum phenomena. The proposal was soon supported by other societies, including the Institute of Physics as well as the International Union of Pure and Applied Physics.

In May 2023 the executive board of the United Nations Educational, Scientific, and Cultural Organization (UNESCO) endorsed a resolution encouraging an official UN quantum year. That was followed by an endorsement at the UNESCO general conference last November. In May, Ghana submitted a draft resolution for the official proclamation of the IYQ in 2025 to the UN General Assembly. It was supported by more than 70 countries and the resolution was  approved by the general assembly on 7 June.

“Through this proclamation, we will bring quantum [science] education and research to young people in Africa and developing countries around the world with the hope of inspiring the next generation of scientists,” notes Riche-Mike Wellington, chief programme specialist at the Ghana Commission for UNESCO and the Ghanaian representative for IYQ. The IYQ consortium will now organize regional, national and international outreach events and activities throughout 2025 to celebrate and develop quantum science.

“Inventions such as magnetic resonance imaging in hospitals, lasers, solar cells and the smallest chips as the basic building blocks of computers all owe their existence to quantum mechanics,” says DPG president Klaus Richter, a condensed-matter physicist from the University of Regensburg. “These and other quantum technologies give new impetus to our economic development and influence numerous areas of everyday life. Quantum mechanics is a prime example of the practical impact that an abstract physical theory can have.”

The IYQ follows several other recent science-based UN International Years, including the International Year of the Periodic Table of Chemical Elements in 2019, light and light-based technologies (2015) and crystallography (2014).

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