Clemson University Becomes First Ever to Award BS Degree in Automotive Engineering in US

Clemson University has made history by being the university  to graduate first ever Bachelor of Science degree in Automotive Engineering in United States. This to the university community is a great achievement which was mark by engraving the names of the first four students to be awarded the degree in a brick pathway at CU-ICAR.

Clemson University officially launched its automotive engineering as a graduate degree program with the establishment of the Clemson University International Center for Automotive Research (CU-ICAR) and the enrollment of it's first cohort students in 2006. This initiative marked the start of graduate-level education (M.S. and Ph.D. programs) specifically focused on automotive engineering, emphasizing collaboration with industry partners like BMW, Michelin, and others. 

While undergraduate automotive-related coursework may have existed within Mechanical Engineering at other colleges and universities in US, the automotive engineering at Clemson University is the first and the only (at least for now) that exist as a major and is part of CU-ICAR's mission to advance automotive research and education.  

While Clemson University may have awarded thousands of graduate degrees in Automotive Engineering it only started accepting students for Bachelor of Science degree in 2022 and so most of the first undergraduate cohort will graduate at ceremonies later this year or early 2026 

It was reported that these four which were being honored were students who accelerated their path by applying previously earned credits and completing required senior-level courses early, becoming the first to finish the undergraduate program. 

The names of the four graduating students as published by Clemson University are: 

• Garrison Bishop (Spartanburg, SC) 
• Matthew Flaim (Yorktown Heights) 
• Trevor Levine (Irmo, SC) and  
• Colin Luongo (Oxford, GA) 

It is believe  that the brick-laying ceremony not only honored these students’ individual achievements, but also to celebrated Clemson’s pioneering role in shaping the next generation of automotive engineers and leaders. 

Share This 

The College of Engineering U of A Will Graduates More Than 1000 Students This Spring

The College of Engineering, University of Arkansas (UofA) will award more than 1,000 degrees at two graduation ceremonies this week May 10, 2025: the university  graduation ceremony at 8:30 am, Walton Arena and at the College of Engineering graduation ceremony at noon, Saturday in Barnhill Arena.

A report by the management of the college says the former dean and recent College of Engineering Hall of Fame inductee John R. English and the college's Outstanding Senior, Jenova Kempkes will be recognized at the occasion.

It was revealed that in total, the college will award 1,070 degrees comprising of  647 undergraduate degrees, 339 master's degrees and 84 doctoral degrees including students who are  receiving interdisciplinary and online degrees. 

About John R. English 

John R. English who is scheduled to deliver a keynote address according to a publication by the College of R, University of Arkansas, retired in January after serving for nearly three decades at the institution, his alma mater. He began his faculty career as an assistant professor of industrial engineering in 1991. He was said to be the  head of the Department of Industrial Engineering from 2000 to 2007 and dean of Kansas State University College of Engineering from 2007 to 2013.

English bio as published by the University of Arkansas revealed  that he returned to the school in 2013 to serve as dean of the College of Engineering, a post he describes as his favorite job. He went on to serve as vice chancellor for research and innovation from 2020 to 2022, where he worked  assiduously on expanding research programs and improving operational efficiency across campus.

About Jenova Kempkes

The college's Outstanding Senior, Jenova Kempkes, will graduate with a bachelor's degree in Biomedical Engineering at the commencement.

For four years Kempkes was a member of Reserve Officers' Training Corp (ROTC) and will attend Uniformed Services University (USU) with plans to serve as a U.S. Army physician after completing medical school.

Her extracurricular activities included working as a U of A Biodesign Program intern, two National Science Foundation I-Corps programs and completing study abroad internships focused on healthcare in Kenya and Thailand. 

Share This 

College of Engineering and Physical Sciences UW Appointed Interim Dean

Daniel “Danny” Dale, the Harry C. Vaughan Professor of Astronomy at the University of Wyoming (UW) and longtime associate dean of the College of Engineering and Physical Sciences (CEPS), has been named the college’s interim dean. The appointment, approved this week by UW’s Board of Trustees, is effective immediately. A national search for a permanent dean will follow in the coming months.  

A publication by the University of Wyoming stated that Dale is a seasoned academic leader and researcher who brings over 25 years of experience at UW to the role. 

The publication stated further that since Dale joining the university in 2001 as an assistant professor in the Department of Physics and Astronomy, he has achieved full professorship and served in multiple administrative roles, including department head, associate dean, and interim dean of the former College of Arts and Sciences indicated that his  leadership continued after the department’s transition to CEPS, where he has served as associate dean since 2020.  

A renowned astrophysicist, Dale’s research focuses on star formation in nearby galaxies. Beyond his academic work, he directs UW’s Harry C. Vaughan Planetarium, oversees a National Science Foundation-funded undergraduate internship program, and coaches the university’s women’s club ice hockey team. He is also deeply involved in STEM outreach, spearheading initiatives like UW’s Windy Ridge Foundation Astro Camp and other K-12 educational programs.  

Dale’s contributions have earned him widespread recognition, including UW’s 2024 George Duke Humphrey Distinguished Faculty Award, the university’s highest honor for faculty achievement. His academic journey includes a Ph.D. and master’s degree in physics from Cornell University, following a summa cum laude bachelor’s degree in physics and mathematics from the University of Minnesota-Duluth. He completed postdoctoral research at the California Institute of Technology.  

As interim dean, Dale will oversee CEPS’s academic and research enterprises, building on his legacy of fostering innovation, student success, and community engagement. 

Share This 

Michigan State University Unveils Innovative TechE Engineering Program to Meet Industry Demands

Michigan State University’s College of Engineering introduce to the public its groundbreaking Technology Engineering (TechE) undergraduate degree program during an April 17 event at the MSU STEM Teaching and Learning Facility. The announcement, attended by media, industry partners, and campus members, marks a strategic step toward preparing students for multidisciplinary challenges in today’s tech-driven world.  

Developed in close collaboration with industry leaders, the TechE curriculum integrates mechanical, electrical, and computer engineering with computer science to equip graduates with a versatile skill set to tackle modern engineering challenges. The program which award Bachelor of Science (BS) degree allow students to specialize in mechatronics and embedded cybersecurity or opt for a minor in smart agricultural systems.  

The program emphasizes experiential learning through cutting-edge labs and hands-on projects, with courses spanning hardware cybersecurity, robotics, automation, sensors, and embedded systems. By blending theoretical knowledge with practical application, TechE fosters a “foundational engineering mindset” while incorporating emerging technologies.  

Set to welcome its first cohort in fall 2024, the program addresses a critical industry need for engineers who can seamlessly bridge the gap between traditional engineering and computer science. Graduates, anticipated to enter the workforce in 2026, will be prepared for roles in diverse sectors such as automotive manufacturing, biomedical technology, aerospace, cybersecurity, agricultural innovation, and autonomous mobility.  

University and college leaders, alongside members of the TechE Industry Advisory Board, highlighted the program’s role in shaping adaptable, practice-ready professionals during the launch event. By aligning education with evolving industry demands, MSU aims to empower graduates to drive innovation across interconnected global systems.  

This initiative underscores MSU Engineering’s commitment to redefining STEM education and fostering collaboration between academia and industry to solve tomorrow’s challenges.

Speakers at the occasion were John Papapolymerou, interim dean of the College of Engineering.who  introduced Technology Engineering as the Michigan State University (MSU) newest undergraduate program. Janet Brelin-Fornari, director of Technology Engineering explain in details what the new program entails and David Sanders, General Manager and Managing Director for Microsoft’s global business with General Motors

Share This 

University of Northern Iowa Unveils Renovated Applied Engineering Building to Foster Workforce Development

The University of Northern Iowa (UNI) celebrated the grand opening of its transformed Applied Engineering Building on Friday with a ribbon-cutting ceremony, marking the culmination of a decade-long renovation and expansion project. 

The revitalized facility, now equipped with state-of-the-art laboratories, collaborative spaces, and hands-on learning environments, aims to equip students with the skills needed to address pressing workforce demands in Iowa and across the nation.  

UNI President Mark Nook emphasized the project’s mission-driven focus during the event when he said, *“This building wasn’t constructed for aesthetics—it was designed to empower students. Through the dedication of our faculty and staff, we’re helping these young minds achieve their educational and professional goals while guiding them toward building purposeful lives.”*  

The $44.7 million renovation, initiated after UNI’s Facilities Management identified urgent upgrades for the nearly 50-year-old structure, was funded by $40 million in state appropriations and $3 million in private donations. The project not only modernized the aging infrastructure but also eliminated $10 million in deferred maintenance costs. Additionally, the expansion provides tailored resources for high-demand fields, bolstered by partnerships with industry leaders to align curriculum with evolving sector needs.  

With a 95% job placement rate nationwide (85% within Iowa), UNI’s applied engineering and construction management programs are poised to meet surging enrollment, which has grown by 20%. The upgraded facility—now spanning 100,000 square feet, up from its original 60,000—features cutting-edge labs and flexible learning areas to nurture innovation and collaboration.  

A news release highlighted the building’s symbolic rebirth: earlier before the renovation the building  was awarded its AARP card. The revitalized space now buzzes with youthful energy, mirroring the ambition of the students it serves. By bridging education and industry, UNI aims to cultivate a skilled talent pipeline, ensuring graduates remain at the forefront of engineering, construction, and technology advancements.  

This transformative project underscores UNI’s commitment to education that translates directly into career readiness, reinforcing its role as a cornerstone of Iowa’s workforce development strategy.

Share This.

Cal State Fullerton Names Oh Interim Dean of College of Engineering and Computer Science

Sang June Oh, a seasoned mechanical engineer and longtime academic leader, has been appointed interim dean of Cal State Fullerton’s College of Engineering and Computer Science, effective June 1. Oh steps into the role following the retirement of Dean Susamma (Susan) Barua, who concludes her 37-year tenure at CSUF at the end of the semester.  

Currently serving as the college’s associate dean—a position he has held since 2016—Oh was selected after extensive consultation with faculty and staff. With nearly 16 years of dedication to CSUF, he brings a wealth of institutional knowledge, a passion for student success, and a track record of academic leadership to the role.

Oh’s academic journey began with bachelor’s, master’s, and Ph.D. degrees in mechanical engineering from Columbia University. He launched his teaching career as a lecturer at CSUF in 2008 and steadily advanced through the ranks, earning tenure as an associate professor in 2015 and full professorship in 2022. He also chaired the Department of Mechanical Engineering from 2015 to 2016.  

For Oh, one of the most fulfilling aspects of his work has been witnessing the achievements of alumni. “Seeing former students return to campus to share their professional milestones—and credit CSUF for shaping their careers—is incredibly rewarding,” he noted.  

As an Associate Dean, Oh has played a pivotal role in advancing college initiatives, including enrollment management, student internships, and the CSU’s Graduation Initiative 2025. He spearheaded efforts to maintain ABET accreditation standards, ensuring program quality and rigor. His collaborative leadership extends to university-wide committees, such as the Academic Standards Committee and the Strategic Plan Oversight Committee.  

Oh also co-directs *Project RAISER*, a U.S. Department of Education-funded initiative focused on improving STEM transfer student outcomes. His interdisciplinary research in assistive technology and biomedical engineering—bolstered by postdoctoral training in neuroscience at Yale and Johns Hopkins Universities—has further enriched his contributions to academia.  

Oh’s commitment to education is evident in his teaching record. He has developed and taught 13 distinct courses, mentored students on research projects, and co-authored publications with undergraduates. His efforts have earned multiple accolades, including the 2009 Associated Students Inc. Outstanding Educator of the Year Award and recognition from CSUF’s Faculty Development Center for teaching excellence and ABET leadership.  

As interim dean, Oh aims to build on the college’s momentum, emphasizing access, innovation, and student empowerment. “I’m honored to support our talented community and continue advancing the college’s mission,” he said.  

Dean Barua, who led the college since 2016, leaves behind a legacy of growth and achievement. The university will initiate a national search for a permanent dean in the coming academic year.

Share This 

WCU and CU Boulder Announce New Biomedical Engineering Program in Gunnison

Building on the momentum of their collaborative partnership and growing industry demand, the Western Colorado University's (WCU's) Paul M. Rady School of Computer Science & Engineering  and the University of Colorado Boulder (CU) will introduce a cutting-edge biomedical engineering (BME) degree at Western’s Gunnison campus this fall, 2025.  

This innovative program merges the close-knit, personalized education of a rural university with the advanced resources and academic rigor of CU Boulder, a top-ranked engineering institution. Students will gain hands-on experience in state-of-the-art labs while specializing in *functional biomechanics*—a discipline focused on designing solutions for physical trauma recovery, orthopedic innovation, sports science, and rehabilitation engineering.  

A cornerstone of the program is its community-driven approach. Learners and faculty will collaborate with local hospitals, emergency medical services (EMS), and other organizations on real-world projects, integrating practical experience directly into the curriculum. The interdisciplinary degree combines engineering, biology, and medicine, preparing graduates to tackle challenges ranging from prosthetic development to medical device design. Students will also explore the unique physiological impacts of high-altitude environments, leveraging Western’s 8,000-foot elevation to study solutions for athletes and patients in mountainous regions.  

Graduates will be equipped for diverse career paths in healthcare technology, research, or advanced studies in graduate or medical school. The program follows the proven model of Western and CU Boulder’s mechanical engineering partnership, established in 2019, which boasts a 95% employment rate for 2024 graduates, with average starting salaries of $78,000. Strong industry ties and community collaborations have been pivotal to this success, a tradition the new BME program aims to continue.  

By combining academic excellence, experiential learning, and regional partnerships, the partnership positions Gunnison as a hub for nurturing the next generation of biomedical innovators.

Share This 

University of Glasgow Strengthens Research Leadership with Unveiling of New Cutting-Edge Magnetism Lab

The University of Glasgow has cemented its position as a pioneer in transformative research with the launch of a state-of-the-art medical magnetics laboratory. This project underscore the institution’s commitment to addressing global challenges through interdisciplinary innovation.  

The University’s newly opened magnetism lab, housed within the James Watt School of Engineering, features a bespoke magnetically shielded room (MuRoom) designed to eliminate external magnetic interference. 

Built with a £250,000 investment, the facility enables researchers to detect ultra-weak biomagnetic signals from muscles, organs, and the brain. These signals, measured via magnetomyography (MMG), magnetocardiography (MCG), and magnetoencephalography (MEG), offer significant advantages over traditional electrical methods.  

Unlike electrical recordings, which require skin contact and are prone to distortion, magnetic signals pass unimpeded through biological tissues, enabling higher spatial resolution and 3D vector-sensitive imaging. This breakthrough could revolutionize prosthetics control, neurotechnology, and human-computer interaction. For instance, advanced wearable devices developed here may one day translate neural activity into precise commands for robotic limbs or immersive extended reality (XR) systems.  

The lab fosters collaboration between academia and industry, supporting projects like *SUPREMISE*—a joint initiative with the University of Edinburgh exploring MMG applications—and Neuranics, a spinout commercializing spintronics-based sensors. Neuranics, founded by Glasgow and Edinburgh researchers, aims to enhance medical diagnostics and XR experiences through compact, energy-efficient magnetic sensing solutions. With over 10 alumni from the James Watt School contributing to its growth, the company exemplifies the University’s role in translating research into real-world impact.  

The medical magnetic laboratory project is one of the few the University of Glasgow executed for the advancement of scienceof sustainability in recent time. It should recalled that not too long ago UoG launched *HyDEX*, a £11 million project funded by the Engineering and Physical Sciences Research Council (EPSRC), to accelerate the UK’s transition to clean energy. Collaborating with Strathclyde, Cardiff, and other universities, HyDEX focuses on developing liquid organic hydrogen carriers (LOHCs)—a safe, efficient method for storing and transporting hydrogen.  

Hydrogen is critical to achieving net-zero emissions, but its low density and flammability pose logistical challenges. LOHCs, which bind hydrogen to liquid molecules, enable stable storage at ambient conditions, simplifying transport and integration into existing infrastructure. The Glasgow-led team aims to optimize these carriers for industrial use, supporting sectors like heavy transport and manufacturing. This project aligns with the UK’s Hydrogen Strategy and reinforces the University’s leadership in sustainable technology.  

Both the magnetism lab and HyDEX highlight Glasgow’s strategic emphasis on collaborative, solutions-driven research. The MuRoom’s industry partnerships and Neuranics’ success demonstrate how academic innovation drives economic growth, while HyDEX’s focus on sustainability addresses urgent environmental needs.  

Professor Hadi Heidari, leading the magnetics research, emphasized the lab’s potential to “reshape healthcare and human-machine interfaces." 

By investing in facilities that bridge disciplines—from engineering to medicine and energy—the University of Glasgow continues to position itself at the forefront of global research, delivering transformative technologies that improve lives and safeguard the planet. As these projects evolve, they promise to unlock new frontiers in both human health and sustainable energy, solidifying the institution’s reputation as a catalyst for 21st-century innovation.  

Share This 

Bradford College Opens New Engineering Suite in Partnership with Metalcraft Group

Bradford College has opened a new state-of-the-art engineering suite at its Trinity Green Campus, marking a significant milestone in its partnership with local industry leader Metalcraft Group. 

Designed to train T-Level students with hand on work , thereby equipping them with industry-ready skills, the facility signify a shared commitment to bridging education and real-world engineering practice.  

The newly refurbished space, developed and equipped by Metalcraft Group—a Bradford-based metal fabrication and engineering firm—features advanced tools and prototype examples of precision engineering. This “industry-standard” environment aims to immerse students in the practical challenges and innovations of modern engineering. 

Stephen Smith, Head of Engineering at Bradford College, emphasized the partnership’s transformative potential: “This collaboration with Metalcraft Group elevates our T Level provision, granting students unparalleled access to professional expertise and cutting-edge facilities.”  

T Level program is a two-year post-GCSE qualification which blend classroom learning with 45 days of workplace experience. The partnership will afford students have hands-on training via placements and site visits at Metalcraft, enhancing their understanding of product design, testing, and manufacturing processes. 

rNathan Varley, CEO of Metalcraft Group, highlighted the shared goal of nurturing local talent: “Bradford’s youth possess immense potential. By merging academic rigor with practical exposure, we aim to unlock opportunities and cultivate the next generation of engineering leaders.”  

Rob Oldroyd, General Manager of Metalcraft Precision Engineering, echoed this sentiment, noting the partnership’s role in showcasing emerging talent: “This collaboration not only benefits students but also allows industry to engage with future innovators who will drive the sector forward.”  

The T Level in Engineering: Design & Development focuses on equipping learners with skills to transform concepts into tangible products, covering engineering principles, design methodologies, and manufacturing techniques. A college spokesperson stressed the program’s holistic approach: “Students graduate with both technical knowledge and real-world experience, positioning them for success in engineering careers or higher education.”   

This partnership is one of series the Bradford College go into in recent time. It should be recalled that  college recently launched a Digital Innovation Hub in collaboration with regional tech firms TechNorth Solutions. This facility is put in place to addresses growing demand for digital skills, offering specialized training in artificial intelligence, cybersecurity, and software development.  

Equipped with advanced computing labs and collaborative workspaces, it aims to equipped students with skills to tackle real-world projects such as app development and data analytics. 

By aligning education with industry demands, Bradford College and Metalcraft Group aim to address regional skills gaps while empowering students to thrive in a competitive field. The engineering suite stands as a testament to the power of collaboration, offering a dynamic space where theoretical learning meets practical application—and where Bradford’s aspiring engineer.

Share This 

Engineers at UF is Developing Digital Watermark to Detect AI Generated Content

Distinguishing human-written from AI-generated content is increasingly challenging. Advanced models like GPT-3 craft coherent, stylistically human text, mimicking grammar and tone flawlessly. Experts struggle to identify disparities, as AI replicates creativity and emotional nuance. Though subtle flaws exist—like contextual gaps—they’re often undetectable. This convergence sparks concerns about misinformation, authenticity, and academic integrity. As AI evolves, differentiation grows more complex, demanding robust detection tools and ethical vigilance to address the blurred boundaries of digital authorship. The line between human and machine creativity continues to fade and for this reason is why the engineers at the University of Florida are working on a digital watermark capable of detecting AI generated content. 

Using a supercomputer: HiPerGator, a team of engineers and researchers lead by Professor Yuheng Bu, (Ph.D) of the Department of Electrical and Computer Engineering in the Herbert Wertheim College of Engineering, University of Florida, are developing invisible watermarks for large language models to detect AI-generated text—even if modified or rephrased—without compromising output quality.  

According to a publication by the University of Florida, watermarking is an effective solution and another means of implanting specially designed, invisible signals into AI-generated text. These signals serve as verifiable evidence of AI generation, enabling reliable detection.

It is noted that Bu's work focuses on how to maintaining the quality of Large Language Model (LLM)-generated text after watermarking, and ensuring the watermark's robustness against various modifications. The proposed adaptive method ensures the embedded watermark remains imperceptible to human readers, preserving the natural flow of writing, compared to the original Large Language Models. 

The method being deployed by Buand his team applies watermarks to only a subset of text while being generated, and the result is better text quality and greater robustness against removal attacks. It also enhances the system’s strength against common text modifications in daily use, such as synonym swapping and paraphrasing, which often render other AI detection tools around ineffective.,  

Watermarks is hope to become an important tool for trust and authenticity in years to come so that when fully integrated into institutions of learning will help verify academic materials and differentiate genuine content from misinformation across digital platforms. 

Share This 

Mechatronic Engineering Course Introduced at University of Wisconsin Madison

A new Mechatronic Engineering core course have been added to curriculum in the Department of Mechanical Engineering, University of Wisconsin, Madison. 

Mechatronics engineering, a dynamic fusion of mechanical, electronic, and computer engineering, drives innovation by integrating these disciplines to design cutting-edge products, systems, and processes. Its applications span diverse sectors—from manufacturing, defense, and energy to healthcare, transportation, smart agriculture, and entertainment—making the expertise of mechatronics engineers indispensable in today’s technology-driven world.  

“Industries are actively seeking engineers skilled in mechatronics and embedded systems,” emphasizes Steve Nackers, Director of Design Engineering at Sub-Zero Group, Inc. and member of the Mechanical Engineering Industrial Advisory Board. “Professionals in this field are vital to advancing automation, robotics, and smart technologies in areas like automotive manufacturing, aerospace, healthcare, and beyond.”  

To meet this growing demand, the University of Wisconsin-Madison’s College of Engineering has introduced -ME 376: Introduction to Mechatronics- a collaborative course offered by the Department of Electrical and Computer Engineering and the Department of Mechanical Engineering. 

Designed to equip students with industry-relevant skills, the course focus on three major area: advanced sensing, system analysis, and characterization. It is design to not only be theoretical classroom lectures but to be more on hands-on learning through weekly lab sessions. 

Students will gain practical experience in circuit design, microcontroller programming, sensor-actuator integration, and feedback control systems—core competencies for developing functional mechatronic systems. This blend of theory and application ensures graduates are prepared to tackle real-world challenges in high-growth industries, positioning them at the forefront of technological innovation.  

Share This 

Lithium Universe Ltd Partners Polytechnique Montréal to Advance Lithium Innovation

The Polytechque Montreal is partnering with an Australia headquartered lithium exploration company with project sites in Canada and Singapore, Lithium Universe Ltd (ASX:LU7, OTC:LUVSF)  to integrate the lithium refine processes and by-products into the academic curriculum.

Lithium, a versatile alkali metal is useful in the production of many products including mental health medication; glass and ceramics; lubricants and most importantly batteries use in powering laptops, smartphone and cars. 

Despite these aforementioned applications, engineers and scientists are continually working to find more uses for the metal and in a safer, efficient and cost effective ways, thereby the need to integrate it in the academic curriculum for more studies, research and development.

According to a statement by the Lithium Universe Ltd CEO Alex Hanly, the collaboration aims to embed Lithium Universe’s specialized knowledge in lithium refining and byproduct applications into the university’s research and educational frameworks. He said the key initiatives of the partnership include industry-driven training, academic program enhancement & innovation and Sustainability Research. 

This initiative follows Lithium Universe’s recent Memorandum of Understanding (MoU) with 5evworld leading cement producer: Lafarge, aims to explores integrating aluminosilicate byproducts (ACSR) into cement and concrete production. 

Hanly emphasized that both partnerships reflect the company’s strategic priorities: fortifying its supply chain, refining lithium processing efficiency, and cultivating critical industry alliances.  

Looking ahead, Lithium Universe plans to advance funding negotiations in late 2024 while prioritizing additional strategic collaborations, including offtake agreements and partnerships with original equipment manufacturers (OEMs). These efforts underscore the company’s commitment to positioning itself at the forefront of the global lithium sector through innovation and cross-sector synergy.  

By uniting industry acumen with academic rigor, the partnership with Polytechnique Montréal aims to drive technological breakthroughs and prepare a skilled workforce for the sustainable energy transition.

Share This 

Kansas State Engineers Awarded $300,000 to Develop Tech for Measuring Railroad Steel Stress

Railroad tracks, particularly those using continuously welded rails, are vulnerable to extreme temperature fluctuations. On hot days, rails expand, creating compressive stresses that can cause tracks to buckle. Conversely, in frigid conditions, rails contract, leading to tensile stresses that may result in cracks or breaks. These issues are exacerbated by the weight and motion of passing trains, posing significant risks of derailment.

Measuring rail steel stress is critical for ensuring railway safety and longevity. The methods to do this include destructive and non-destructive measurement but several challenges which include labor, time factor and lack of real-time precision complicate the processes and that is why the engineers at Kansas State University have been awarded $300,000 grant to develop highly precision, non-contact technology capable of monitoring stress levels in continuously welded steel railroad tracks. 

The grant was from the U.S. Department of Transportation’s Federal Railroad Administration (FRA) an it will be use to address critical safety challenges in the rail industry by preventing derailments caused by temperature-induced track deformations.  

The project leader Terry Beck, a professor in the Alan Levin Department of Mechanical and Nuclear Engineering said, 

“Presently, there’s no proven non-contact method to accurately assess rail stress, our approach could revolutionize how the industry manages track integrity.”  

A publication by the Kansas State University (K-State) stated that the K-State team’s solution leverages advanced non-contact strain-measurement technology to simultaneously monitor rail temperature and axial displacement—key indicators of stress. 

"By analyzing these parameters, we aim to determine the rail neutral temperature (RNT), a critical metric representing the temperature at which rails experience zero longitudinal stress. Maintaining RNT within optimal ranges is essential for preventing temperature-related track failures," Professor Terry Beck added.

He emphasized the project’s groundbreaking potential, calling it the “holy grail” of railroad engineering. By replacing outdated, reactive methods with a dynamic, data-driven approach, the technology could drastically reduce maintenance costs and enhance safety across the U.S. rail network, which spans over 140,000 miles.   

It was revealed that the project evelopment will occur in two phases. Initial laboratory testing at K-State will utilize a specialized test frame to validate the system’s accuracy. Subsequent field trials on active BNSF rail lines will assess performance in diverse environmental and operational scenarios. If successful, the technology could enable continuous, real-time monitoring of rail networks, allowing railroads to proactively address stress buildup before it escalates into a hazard.  

With funding secured and testing underway, the team anticipates that their non-contact system could become an industry standard within the next decade, transforming how railroads monitor and maintain their most vital asset: the tracks themselves.  

The project brings together interdisciplinary expertise. Beck is collaborating with co-principal investigator Robert J. Peterman, a civil engineering professor and holder of the Mark H. and Margaret H. Hulings Chair in Engineering, as well as John Bloomfield, engineering director at K-State’s Technology Development Institute. Industry partnership with BNSF Railway will facilitate field testing, ensuring the technology’s practicality under real-world conditions. Graduate student Veeshal Modi, a mechanical engineering doctoral candidate, also contributes to the research.

Share This 

Scientists at Bradford University Has Designed Microneedle to Deliver Pain-Free Injection

The future of pain-free injections is being reshaped by groundbreaking microneedle technologies, with researchers worldwide racing to develop accessible, minimally invasive solutions. Leading this charge is the University of Bradford, whose nanotechnology team has pioneered a microneedle platform poised to transform contraceptive access in low-resource community.   

Funded by a £5 million grant from the Bill & Melinda Gates Foundation, the University of Bradford’s Polymer Interdisciplinary Research Centre is developing a microneedle patch designed to deliver long-acting contraceptive hormones. The project which aim to address family planning challenges  in low and middle income communities witness a great success of the initial trail and rhus extended to 2026.

The patch features 100–200 micron-scale needles (under 1 mm in length) that painlessly penetrate the skin, releasing hormones steadily over time.  

Professor Ben Whiteside, of precision manufacturing, highlights the project’s milestone: “Ensuring consistent drug release in the dynamic environment of human skin has been a landmark achievement.” The team’s next phase involves scaling production for clinical trials, with plans to distribute the product globally, including in Western markets where discreet, user-friendly contraceptives are in demand.   

One other project that aim to address the delivery of pain-free injection is that of the researchers at MIT and Harvard called *Hydrogel Microneedle (HyMN)*. It target pain-free vaccine delivery. Unlike traditional needles, HyMN’s dissolvable hydrogel tips encapsulate vaccines or medications, releasing them as the hydrogel degrades in the skin. This innovation eliminates sharp biohazard waste—a critical advantage in regions with limited medical infrastructure.  

Early trials in 2023 demonstrated HyMN’s efficacy in administering flu and COVID-19 vaccines, with participants reporting zero pain. Dr. Maria Hernandez, a lead researcher, noted, “The hydrogel design allows precise dosing and cold-chain independence, which could redefine vaccine equity.” The project has attracted $8 million in funding from the NIH and WHO, with plans to expand into insulin delivery for diabetes patients.   

Both projects exemplify the versatility of microneedle technology. While Bradford’s platform focuses on sustained hormonal release for contraception, HyMN emphasizes rapid dissolution for vaccines and acute treatments. Crucially, both systems bypass the need for medical training, empowering patients to self-administer care.  

The Gates Foundation has emphasized the role of such innovations in bridging healthcare gaps. “Microneedles could democratize access to critical therapies, from family planning to pandemic response,” said a foundation spokesperson.  

As Bradford advances toward clinical trials, the team is exploring applications beyond contraception, including HIV prevention and vitamin delivery. Similarly, MIT and Harvard’s hydrogel technology is being adapted for biologics like monoclonal antibodies.  

These projects underscore a shared vision: replacing fear and discomfort with accessibility and dignity in healthcare. With microneedles poised to enter mainstream medicine by 2030, the era of painless, patient-centric drug delivery is within reach—one tiny needle at a time.  

Share This 

Curtin University's Graduate Diploma in Education Set to Graduate 300 New Teachers

Western Australia is grappling with a critical shortage of teachers, a crisis impacting schools, students, and families statewide. Rural and remote regions face acute staffing gaps, while urban schools struggle with overcrowded classrooms and overworked staff. Subjects like STEM, languages, and special education are particularly affected, with some schools relying on unqualified personnel to fill gaps. In response, the Curtin University  accelerated Graduate Diploma in Education program put in place to help address the issue is set to graduate over 300 new teachers by 2025.  

Launched in 2024, the one-year  program enables graduates with relevant bachelor’s degrees a rigorous, fast-track pathway to earn acceptable teaching credentials.

According  to a publication by Curtan University, it was reveal that in it inaugural year, the program will produce 340 classroom-ready educators with training to teach in  primary and secondary schools in Western Australia. 

Professor Jeff Brooks, Head of Curtin’s School of Education, emphasized the importance of the initiativer when he said: “The teacher shortage is destabilizing our education system. By adding hundreds of qualified professionals in just 12 months, we’re delivering immediate relief to schools in crisis.”  

The shortage, fueled by rising student enrollments, an aging workforce, and declining interest in teaching careers, has left WA with hundreds of unfilled positions. Recent government reports estimate the state needs over 1,000 additional teachers annually to meet demand—a gap Curtin’s program aims to narrow. 

Professor Brooks highlighted Curtin’s agility in responding to industry needs: “Schools pleaded for solutions. By leveraging our expertise and partnerships, we’ve created a pipeline of job-ready graduates tailored to WA’s priorities.”  

The diploma program combines theoretical coursework with hands-on training, including 45 days of workplace placements across three school settings. This practical focus ensures graduates understand contemporary classroom challenges, from integrating technology to supporting diverse learners. 

On this Professor Brook says: “Our students gain real-world experience in schools facing staffing shortages, making them resilient and adaptable educators from day one,”

Preliminary 2025 enrollment data suggests the program will expand further, reinforcing its role as a cornerstone of WA’s education recovery. The milestone coincides with Curtin’s School of Education celebrating its 50th years anniversary—a testament to its legacy of innovation since admitting 46 students in 1975. Today, the school boasts over 4,500 enrollments nationwide and offers comprehensive training, including bachelor’s and master’s degrees.  

While the diploma alone cannot resolve systemic issues like retention and rural incentives, it marks a critical step forward. “This program is about meeting urgency with action,” Professor Brooks stated. “Every graduate represents a classroom with a qualified teacher, a school with renewed stability, and students with brighter futures.”  

As WA’s education sector navigates this turbulent period, Curtin’s leadership underscores the vital role of universities in addressing societal challenges—and the transformative power of equipping passionate professionals to shape tomorrow’s classrooms. 

Share This

Scientists in UK and America Has Developed Self Healing Road Technology

A groundbreaking collaboration between Swansea University, King’s College London, and Chilean scientists is paving the way for roads that repair themselves—a innovation poised to tackle the UK’s £143.5 million annual pothole crisis 

The team lead by Dr Norambuena-Contreras a Senior Lecturer in the Department of Civil Engineering at Swansea University, UK, and a member of the Materials and Manufacturing Research Institute developed a bio-inspired asphalt capable of autonomously “stitching” cracks without human intervention, using cutting-edge AI, sustainable materials, and biomimicry. This breakthrough, alongside a parallel advancement in dynamic polymer-modified asphalt, could redefine the durability and environmental footprint of global infrastructure.  

Traditional asphalt cracks when its bitumen—a petroleum-derived binder—hardens due to oxidation. While the scientists are still not totally able to resolve exact mechanisms of this degradation, the researchers leveraged machine learning to model organic molecules in bitumen, accelerating atomistic simulations to decode oxidation and crack formation. Having successfully done this they resolve to using Google Cloud, harnessting AI tools like Gemini and Vertex AI to simulate bitumen behavior computationally, enabling rapid optimization of healing strategies .  

The team’s solution embeds microscopic plant-based spores (smaller than a human hair) into asphalt. These spores, filled with recycled oils, rupture under mechanical stress from cracks, releasing rejuvenators that soften oxidized bitumen and “stitch” gaps. Lab tests demonstrated complete microcrack healing in under an hour, potentially extending road lifespan by 30%. Central to this innovation is its sustainability. The asphalt incorporates biomass waste—such as brown algae and recycled cooking oil—reducing reliance on petroleum. 

One of the team member, Dr. Francisco Martin-Martinez of King’s College likened the technology to biological healing, where roads mimic the regenerative properties of trees and animals .  

With asphalt production contributing significantly to carbon emissions, this shift to bio-based materials aligns with the UK’s 2050 net-zero targets. The team urges government and industry investment to scale the technology, which could save billions in repair costs and reduce maintenance-related traffic disruptions .  

In a complementary advancement, recent research published in *Journal of Polymer Research* highlights self-healing asphalt enhanced with dynamic polymers . These polymers integrate reversible chemical bonds that respond to external triggers like pressure, temperature, or pH changes. For instance, lignin-based vitrimers (derived from plant biomass) enable asphalt to autonomously repair cracks through bond reconfiguration, akin to “melting and re-solidifying” at stress points. This method, validated in lab trials, offers a dual advantage: extended pavement life and reduced reliance on fossil-fuel-derived additives .  

Unlike the spore-based approach, which relies on encapsulated rejuvenators, polymer-modified asphalt achieves healing through intrinsic material properties. This innovation could complement existing methods, offering a multi-faceted defense against road degradation.  

While promising, both technologies face hurdles. The spore-based asphalt’s real-world performance under heavy traffic and extreme weather remains untested, and scaling production of biomass-derived materials requires infrastructural adjustments . Similarly, dynamic polymers demand cost-effective synthesis and long-term durability studies.  

However, the potential is undeniable. The UK produces 20 million tonnes of asphalt annually, and transitioning to self-healing variants could slash emissions while addressing a backlog of £16.3 billion in road repairs. National Highways has already endorsed the spore-based technology as a game-changer for minimizing disruptions

 

Share This 

University of Southern Queensland Secures $1.1 Million to Commercialize Groundbreaking VARIwise Irrigation Technology

The University of Southern Queensland (UniSQ) has been awarded $1.1 million in funding through the Australian Government’s Climate-Smart Agriculture Program, administered by the Cotton Research and Development Corporation (CRDC), to accelerate the commercialization of its innovative VARIwise precision irrigation system. 

This cutting-edge technology, developed over a decade of research led by UniSQ’s Associate Professor Alison McCarthy, promises to revolutionize water management in agriculture by integrating artificial intelligence (AI), real-time data analytics, and adaptive control systems.  

From Research to Reality: The Evolution of VARIwise

VARIwise emerged from a series of CRDC-backed national projects under the Australian Government’s Rural R&D for Profit program. Initially conceived to address the limitations of traditional irrigation methods—which rely on static soil moisture thresholds—the technology evolved through iterative on-farm trials and advanced modeling. Early prototypes focused on optimizing water use in cotton crops, but subsequent iterations expanded to incorporate dynamic, site-specific decision-making powered by machine learning algorithms.  

The system synthesizes real-time data streams from soil moisture sensors, plant health monitors, weather forecasts, and satellite imagery to create hyper-localized irrigation prescriptions. Unlike conventional approaches, VARIwise’s AI-driven models adapt to shifting conditions, such as variable rainfall or heatwaves, ensuring water is applied only where and when needed. This capability marks a significant leap from manual or schedule-based irrigation, enabling farmers to respond proactively to both immediate weather events and long-term climate trends.  

Proven Results and Industry Impact

Extensive on-farm trials across cotton and pasture systems have demonstrated VARIwise’s potential to reduce water use by 10% while boosting productivity by 5%. In one landmark study, cotton growers using the technology achieved higher yields with less water by aligning irrigation with crop stress thresholds and root zone dynamics. These outcomes underscore the system’s role in addressing stagnating water efficiency gains; since 2007, the cotton industry has seen annual improvements of just 0.3%, a rate insufficient to meet future climate challenges.  

“VARIwise isn’t just incremental progress—it’s a paradigm shift,” said Associate Professor McCarthy, who leads the UniSQ Centre for Agricultural Engineering team. “By moving beyond soil-centric models to integrate plant physiology and predictive climate analytics, we’re empowering growers to make smarter, faster decisions. This isn’t just about saving water—it’s about future-proofing Australian agriculture.”  

Commercialization and Next Steps 

The new funding will support the translation of VARIwise from a research-focused tool into a user-friendly, commercial-ready platform compatible with existing irrigation infrastructure. Key steps include refining the interface for broad accessibility, enhancing scalability for diverse crops and regions, and establishing partnerships with irrigation manufacturers and agtech providers. The project also aims to embed training programs to accelerate adoption, ensuring farmers and agronomists can leverage the system’s full potential.  

A Climate-Smart Future

As VARIwise moves toward commercialization, its development reflects a broader shift toward data-driven, climate-resilient agriculture. By transforming raw data into actionable insights, the system not only bolsters water efficiency but also strengthens the industry’s sustainability credentials—a key advantage in global markets increasingly focused on ethical production.  

For Australian irrigators facing hotter, drier conditions, VARIwise offers a roadmap to thrive in an uncertain climate. As McCarthy concluded, “This is how we turn challenges into opportunities: by equipping our farmers with science that works as hard as they do.”  

The Climate-Smart Agriculture Program’s Partnerships and Innovation Grant is part of the Australian Government’s $302 million commitment to advancing sustainable agricultural practices. 

Share This 

Condemnation Follows the Decision of Cardiff University to Scrap Music School

Widespread condemnation has followed the decision of the Cardiff University management to scrap the school music department which has been in existence since 1883. 

This comes amidst report of imbalance in the account book of the institution and among many plan announced by the institution to save  money.

The decision not only affect the department of music but also the school of nursing; religion and theology; modern language and translation and ancient history. 

While its international student applications continue dwindling, it was reported that in 2023 -24 academic calendar, the university had an operating deficit of £31.2m something they say would make the institution “run out of cash in four years” if an urgent step is not taken.

The move, however has been met with widespread condemnation as people including academics, union representative and students have seen it as too harsh, considering the implications on the teachers at Cardiff University and Welsh culture at large. The school of music was at the forefront of promoting Welsh culture through teaching of music and dancing.

Share This

Six New Degree Programs Approved at Plateau State University

A state owned university in the central region of Nigeria, Plateau State University, Bokko has gotten a nod from the National University Commission (NUC) to start offering six new degree programs. 

This announcement was contained in a statement made by the Acting Vice Chancellor and the Chairman of the Senate Professor Shedrack Gaya Best at the 92nd regular meeting of the Senate which held on January 10, 2025, 

According to the statement, the six new academic programs which are granted approval to be started the next academic calendar are  Medical Sciences (MBBS), Pharmaceutical Sciences (Pharm D.), Statistics (B.Sc.), and Religious Studies (B.A.). 

Also included are Law (LLB) and Nursing Science (B.Nurs). Each of the courses were granted approval by their relevant professional bodies.

While commenting of the development, Professor Shadrack said, " The result is that now we have gotten approval from the National Universities Commission (NUC) for all of these programs". He narrated that approval  was as a result of series of successful resource verification visits conducted by the commission last year to assess PLASU’s readiness to offer these new programs.

Prof. Shadrack then praised the Plateau State Governor, Caleb Mutfwang for his enormous support to make the approval a success.

"I would like to sincerely thank the Governor for his steadfast support of the university’s progress,” he said. “This achievement would not have been possible without his leadership and dedication.”

The addition of the six new academic programmes now swell the number of courses on offer at the Plateau State University to thirty. 

Share This.

Wrexham University Don Awarded £20,000 to Solve Inequality Problems for Engineering Graduates

The Dean of the Faculty of Arts, Science and Engineering Wrexham University has been awarded a fund to make her invented toolkit available  to many more universities in UK. 

The invention, known as Equity Development Growth Employment (EDGE) toolkit, according  to Professor Anne Nortcliffe is aims to address problem faced by minority groups in engineering and will be introduced to all higher institution of learning. 

Supported by a £20,000 grant from the Royal Academy of Engineering’s Diversity Impact Programme, Equity Development Growth Employment (EDGE) toolkit seeks to revolutionize inclusivity in the education community and job market by addressing stark disparities in graduate employment outcomes.  

Engineering remains one of the least diverse STEM fields in the UK, with racial minorities, women, LGBTQ+ individuals, and students from low-income backgrounds facing persistent underrepresentation. 

A Recent data from the Office for Students (2024) underscores this imbalance. While 73% of white male engineering graduates were able to make it into engineering  practice, only 71.6% of women, 68.7% of Asian graduates, 69.8% of Black graduates, and similarly low figures for LGBTQ+ and socioeconomically disadvantaged students were able to make it. These gaps highlight systemic inequities in hiring practices and workplace cultures—a reality the EDGE toolkit directly aim to address.  

According to Professor Anne Nortcliffe, the toolkit is designed to benefit academics, employers, and students in four ways which are:

• Empowering employers and students to overcome employment related difficulties  

• Open their understanding to equity, diversity, and inclusion (EDI) principles.

• Encouraging participation and growth in equity, diversity and inclusion (EDI) program and 

• Equipping organizations and individual alike to build inclusive environments. 

Professor Nortcliffe got funding to develop the toolkit during her tenure as Head of the School of Engineering at Canterbury Christ Church University. It has also been in use at Wrexham University and now to be introduce to other higher instructions of learning where engineering is being taught in UK.

Professor Nortcliffe said that she wants students from the minority backgrounds to celebrate their unique ideas and the value they add to society noting that their unique insights—shaped by cultural experiences, gender identity, or socioeconomic hurdles—are assets to the engineering world and cannot afford to be lose.

Share This