Advanced Technologies in Engineering Education

To unlock the technologies of tomorrow, faculty, staff, and students in UW-Madison Department of Materials Science and Engineering engineering materials with revolutionary properties—from alloys that survive extreme environments, to medical devices powered by motion, to lithium-free batteries, to quantum materials that will reshape computing, imaging, and sensing. What stood out most is MS&E’s deeply collaborative culture. The department’s internationally recognized National Science Foundation (NSF) Materials Research and Science Center (#MRSEC) brings together industry partners and 30 faculty across UW–Madison to pursue fundamental discoveries and prepare the next generation of materials engineers. I was honored to explore some of these engineering breakthroughs firsthand: Additional Highlights • Dan Thoma demonstrated the game-changing potential of additive manufacturing and its ability to 3D-print alloys for everything from custom aviation components to advanced medical devices. • Chang-Beom Eom gave me a masterclass in thin-film epitaxy—showing how layering 2D quantum materials like transition metal oxides leads to novel electronic and magnetic behaviors. • Jason Kawasaki showed how stretching or straining ultra-thin crystalline materials unlocks new states relevant for quantum and superconducting computing. • Hyunseok Oh, a next-generation metallurgist, described his research on high-entropy alloys engineered to withstand extreme heat, perform in space, and improve recyclability. • In the Wisconsin Centers for Nanoscale Technology, Paul Voyles showcased cutting-edge imaging tools—advanced microscopy, spectroscopy, and x-ray analysis—that empower faculty and students to visualize materials at the atomic scale. • A visit to the MS&E undergraduate lab revealed major equipment upgrades and a bold, student-centered vision for transforming the undergraduate experience. • Dane Morgan discussed how AI is revolutionizing materials research—accelerating property prediction, atomic-level simulations, and data discovery by up to 100x. • He also shared his work with Adam Nelson and the Data Science Institute to launch the Wisconsin Undergraduate Research in Data Science (WISCURDS), the evolution of the Informatics Skunkworks. This initiative prepares undergraduates for data-driven research through real projects, teamwork, project management, and applied data science—skills shaping the future of engineering. The innovations I saw are foundational to our #EngineeringMoonshots and the future of UW-Madison College of Engineering’s leadership. Thank you to Izabela Szlufarska for your visionary leadership and unwavering commitment to our students. On, Wisconsin! #TheBadgerWay #EngineeringTheFuture #MaterialsRocks #MaterialScienceInnovation

This is what the future of workforce education looks like Yesterday, I walked through Temple College's brand-new 70,000 sq ft Workforce & Visual Arts Building, and I'm still processing what I witnessed. We're talking about REAL industry equipment that most students only dream of touching: ✅ Multi-million dollar semiconductor manufacturing equipment ✅ Metal 3D printers running live production ✅ AI-powered computer labs with cutting-edge software ✅ Professional CAD design suites ✅ Fully automated robotic manufacturing lines ✅ LiDAR QA inspection systems in action Here's what blew my mind: This isn't a demonstration lab. These are the exact same tools, machines, and technology that students will use in their careers — FROM DAY ONE. While other schools teach theory, Temple College students are getting their hands dirty with equipment worth millions. They're programming robots, running semiconductor processes, and mastering AI applications because that's what employers actually need. This is how you close the skills gap. This is how you prepare students for jobs that pay real money. This is education that works. Massive respect to Temple College, ROOTS Education Co., DEDE GRIFFITH, Christy Ponce, Ph.D., and every partner who made this happen. You're not just building a facility — you're building careers and transforming lives. The bar has been set. 🎯 #WorkforceEducation #HandsOnLearning #AdvancedManufacturing #Semiconductors #AI #Robotics #TempleCollege #RootsEducation #TechEducation #SkillsGap

The curriculum design of core engineering disciplines such as Mechanical, Civil, Electrical, and Chemical Engineering should strategically integrate emerging technologies like Artificial Intelligence (AI), Machine Learning, Internet of Things (IoT), Blockchain, Electric Vehicles (EVs), and Autonomous Vehicles as practical applications. This integration will not only enhance students' technical skill sets but also align their education with industry demands, thereby improving their employability. By embedding these technologies as interdisciplinary modules or hands-on projects, students will gain a deeper understanding of how modern innovations apply to traditional engineering fields, preparing them for the evolving job market and fostering a culture of innovation and adaptability. Additionally, these courses can be structured as major or minor degree options, allowing students to specialize in these areas while completing their core engineering studies, thereby broadening their expertise and increasing their professional competitiveness.

Agentic AI will change engineering education more than the internet did. But there is a massive problem: most universities are still teaching for the 2005–2015 software industry, not the 2030 AI-assisted engineering world. If AI can write code, generate CAD, run simulations, and orchestrate multi-step tasks, what exactly should future engineers learn? I've put together a new deck breaking down the required paradigm shift to Engineering Education 2.0. Here are the biggest takeaways: 🔄 The Massive Shift: We need to transition from studying subjects to building systems. Future engineers will not be evaluated on how much theory they know, but on what systems they can actually build. ⚙️ The Rise of the "Workflow Engineer": Future graduates won't just be manual coders, draftsmen, or simulation operators. They will be Workflow Engineers who design intelligent pipelines (e.g., Drone images ➔ Photogrammetry ➔ CAD extraction ➔ Simulation ➔ Dashboard). 📚 The New Skill Stack: The modern curriculum needs to abandon outdated theory for practical execution: • Instead of C programming ➔ Python + APIs • Instead of old OS theory ➔ Cloud + Containers • Instead of just lab experiments ➔ Real Digital Twins & Simulations • Instead of written exams ➔ A portfolio of automated workflows 💡 The bottom line: Earlier, engineers were people who knew how to use tools. Future engineers will be people who design intelligent workflows. Math + Simulation + AI + Automation + Digital Twins + Systems Thinking = Future Engineering Education . Check out the full deck below to see exactly how we should restructure engineering university curriculums from Year 1 through Year 4! 👇 #Engineering #FutureOfWork #AgenticAI #EngineeringEducation #EdTech #WorkflowEngineering #DigitalTwins #AI #Innovation

Transforming Engineering Education Through Immersive Technology & Sustainability We learn so much from the voice of students and future engineers. I recently had an inspiring conversation with Suavi Yildirim, whose team won the global Siemens Digital Industries Software-Sony Immersive Design Challenge. Our exchange revealed fascinating insights about the future of engineering education. (press release: https://lnkd.in/gbVJH4gX) We had an impressive response to the challenge. Students showed us how immersive design tools can broaden access to engineering. Through VR/XR technology, complex engineering concepts become more intuitive, breaking down learning barriers. This was perfectly demonstrated by the FAU Erlangen-Nürnberg Team NextCycle’s winning project, Battery Twin XR, which tackled EV battery lifecycle optimization. The team's ability to rapidly prototype and iterate in a virtual environment not only accelerated development but also led to better safety considerations and cost efficiencies. Suavi noted: “I think the immersive design tools have huge potential to democratize sustainable design education because they're very intuitive. So even students without CAD or VR experience can start exploring and understanding systems right away. This hands-on visual approach makes learning more engaging and accessible, especially in places where traditional tools or training might not be so common, so available. So, it's a great way to build confidence, creativity and a real understanding of sustainable design.” The success story here goes beyond the technology itself. It's about the power of cross-disciplinary collaboration - bringing together mechanical engineering, data analytics and software expertise. With guidance from industry mentors, the team learned to navigate real-world constraints while maintaining their innovative edge. This was a great example of blending academic theory with practical application. What's becoming increasingly clear is that the future of engineering education requires a delicate balance. While traditional degrees remain important, the rise of microcredentials and experiential learning are reshaping how we develop engineering talent. Industry-academia partnerships are no longer optional - they're essential for ensuring relevance in a rapidly evolving technological landscape. The key lesson? Tomorrow's engineering leaders need both technical excellence and a sustainability mindset, supported by cutting-edge tools and collaborative learning environments. It's not just about what we teach, but how we teach it. Listen now and let me know your thoughts: https://lnkd.in/gZbqcVJV.

🎯 Can Extreme Miniaturization Redefine How Humans Learn Engineering and Innovation? Science Says Yes 🧠📡🌰✨   📊 A 2024 IEEE study on micro-embedded systems shows that shrinking electronic systems into ultra-compact enclosures improves spatial problem-solving ability by up to 38% among engineers and students. 🧠 Research from MIT Media Lab confirms that hands-on micro-engineering projects activate 2.4× higher cognitive retention compared to theoretical learning alone. 🔬 A Stanford experiential learning survey found that projects involving natural materials and constrained design environments increase creative solution quality by 41% due to enforced precision and systems thinking. 💡 When advanced electronics meet organic materials, innovation becomes tangible.  Energy optimization becomes critical.  Thermal balance becomes intentional.  Signal transmission becomes strategic.  And every millimeter matters. 🌟 Ultra-miniature engineering projects demand mastery across disciplines:  🌈 Wireless communication physics  ⚡ Power-density optimization  🧩 Micro-component integration  🔬 Material insulation behavior  🎯 Precision-driven assembly psychology This isn’t novelty — it’s systems engineering in its purest form. 🔍 Scientists describe this approach as constraint-led innovation — where creativity expands precisely because space, power, and materials are limited. The smaller the system, the sharper the thinking. 🌍 Beyond technology, these builds represent a deeper learning shift:  Learning by doing Understanding by building  Mastery through attention to detail That’s how future engineers, innovators, and problem-solvers are shaped. ✨ Sometimes the biggest breakthroughs don’t come from massive labs or billion-dollar budgets — They emerge from curiosity, patience, and precision… packed into the smallest possible space. Credits: 🌟 All write-up is done by me (P.S. Mahesh) after in-depth research. All rights for visuals belong to respective owners. 📚  

Immersive Technology is revolutionizing simulation and prototyping, transforming how engineers design, test, and refine their projects. With tools like Virtual Reality (VR) and Augmented Reality (AR), engineers can now step into their designs, interact with them in 3D, and gain invaluable insights. - Mechanical engineers can virtually assemble and disassemble components, optimize designs, and identify clashes. - Civil engineers can visualize entire construction projects, assess site logistics, and streamline planning. - Automotive engineers can simulate driving conditions, test vehicle dynamics, and refine ergonomics. Electrical and software engineers can debug circuits, simulate code, and collaborate remotely. Immersive Technology also enhances communication within interdisciplinary teams, offering a shared visual language. How do you see it transforming your work?

California Universities are in a unique, unprecedented situation. Traditional learning models are struggling to keep pace with the speed of innovation. A future where spatial computing, AI, and real-time global collaboration redefine what education looks like is possible in these remarkable learning institutions that have paved the way of the future of education. As someone trailblazing at the intersection of emerging technology and education, I’ve been thinking deeply about how learning institutions can leap forward—not incrementally, but transformationally. That’s where Proto's Spatial AI Platform comes in. Proto isn’t just a device, it’s a gateway to presence. A way to collapse distance, elevate engagement, and bring learning to life in ways we’ve never imagined before. Here’s what that looks like for California universities: Beam in world-class experts—live, in 3D Imagine students in the classroom of the future interacting with a Nobel laureate, a NASA engineer, a leading AI researcher, an iconic legend from the past, not on Zoom, but instead physically present via Proto Presence. Questions feel natural. Engagement is real. The experience is transformative. Teach globally, simultaneously Faculty can “beam” into multiple campuses—or even across countries—at the same time. One instructor. Multiple classrooms. Fully immersive. This isn’t distance learning, it’s distributed co-presence . Simulation-based learning that boosts learning outcomes From business school training to engineering walkthroughs, Proto enables experiential learning. Students don’t just hear about concepts, they see them, interact with them, immerse with them, and retain them. Reimagine Makerspaces & Entrepreneurship Entrepreneurs-in-residence can mentor students from anywhere in the world. Startup founders, VCs, and industry leaders can drop into innovation labs instantly—fueling collaboration and accelerating ideas into reality like never before. Build the future workforce: Spatial AI + Proto-native development Students can learn to create web-based applications for Proto devices, gaining hands-on experience in: Spatial computing interfaces Prompt engineering Retrieval-Augmented Generation (RAG) systems AI-powered interaction design Project Management Leadership skills These aren’t “nice-to-have” skills—they’re the foundation of the next decade of work. Why this matters now California has always been a leader in innovation. Our universities in California are exceptionally-well positioned to create the university of the future. I’m excited to partner with forward-thinking California universities ready to lead the future of education. If you're a California university reimagining what the next generation of learning looks like, let’s talk. Message me! #HigherEd #EdTech #SpatialComputing #AI #FutureOfWork #Innovation #Proto #CaliforniaUniversities #LearningisSpatial #SpatialAI #Spatialversity

500 students share one computer in Niger. Yet they're conducting advanced physics experiments that students at elite schools can't access. The secret? WebAR turning basic smartphones into portable STEM labs. Think about that. In Sub-Saharan Africa, fewer than 10% of schools have internet. Student-to-computer ratios hit 500:1. Yet mobile subscriptions jumped from single digits to 80% in a decade. Students already carry the infrastructure—we just weren't using it right. Traditional EdTech Reality: ↳ VR headsets: $300+ per student ↳ Heavy apps requiring 5G speeds ↳ Labs costing millions to build ↳ Rural schools: permanently excluded The WebAR Revolution: ↳ Runs in any browser, optimized for 3G ↳ No app store, minimal storage ↳ Science scores improving 10-15% ↳ Every smartphone becomes a laboratory But here's what grabbed me: A physics teacher in rural South Africa has one broken oscilloscope. No budget. Her students scan printed markers, and electromagnetic fields pulse across their desks. They run experiments infinitely—no equipment damaged, no reagents consumed. One student told her: "Engineering is for people like me now. The lab fits in my pocket." What changes everything: ↳ Mobile-first matches actual connectivity ↳ Browser-based works offline ↳ Teachers need training, not new buildings ↳ Inequality becomes irrelevant The Multiplication Effect: 1 teacher with markers = 30 students experimenting 10 schools sharing content = communities transformed 100 districts adopting = educational equality emerging At scale = STEM education without infrastructure gaps We spent decades waiting for labs that won't arrive. Now any browser becomes one. Because when a student in rural Africa explores the same 3D molecules as someone at MIT—using the phone already in their pocket—you realize: WebAR isn't shiny technology. It's a quiet equaliser making world-class STEM education fit into 3G connections and $50 phones. Follow me, Dr. Martha Boeckenfeld for innovations where accessibility drives transformation. ♻️ Share if you believe quality education shouldn't require perfect infrastructure.

"We tell students not to use AI in exams—then expect them to thrive in an AI-driven workplace." Something doesn’t add up. Yesterday I joined a panel at the Summer retreat of the Department of Computer Science, Aalborg University on how to teach and learn in the age of AI. Here’s the thing: AI is no longer an optional add-on in education. It’s already in our classrooms—writing code, generating reports, even acting as a virtual teammate. And yet, our teaching and assessment methods haven’t caught up. In my talk, I argued: ➡️ We should integrate AI tools into software engineering education—not ban them. ➡️ Let students fail productively while exploring AI. That’s how real learning happens. ➡️ Prepare them not just for today’s tools, but for the ethical and societal complexities AI brings. If we’re serious about responsible innovation, we need to rethink what—and how—we teach. It’s not about replacing human skills. It’s about augmenting them. Curious: How are you adapting your teaching or learning practices to AI? #AI #Education #SoftwareEngineering #TeachingWithAI #ResponsibleInnovation #HigherEd