Research And Development In Science

Turning Europe into a quantum industrial powerhouse Europe has been the cradle of quantum mechanics, the revolutionary science born from the genius of Max Planck, Albert Einstein, Niels Bohr, Erwin Schrödinger, and other visionaries who rewrote the rules of physical reality. On 2 July 2025, in the year marking a centenary since the initial development of quantum mechanics, the Commission has adopted an ambitious European Quantum Strategy, integrating Europe's unique scientific heritage with its vibrant quantum ecosystem of startups, SMEs, large industries, research and technology organisations, academia and research institutes. The mission is clear: turn Europe into a quantum industrial powerhouse that transforms breakthrough science into market-ready applications, while maintaining its scientific leadership. We are imagining a Union where medical scans can detect illnesses at the earliest stages, accelerating from weeks of uncertainty to mere seconds of precise diagnosis; where sensors are able to warn about volcanic activity or water shortages before they happen; and where unprecedented computational power will be available to solve complex problems in logistics, finance and climate modelling. A safer Europe, where our personal data, critical infrastructure, and businesses will always remain private and well-protected; where transport systems are optimised to reduce congestion and prevent accidents; and air travel is guided by quantum-enhanced precision navigation, pinpointing objects' locations down to the centimetre. A greener Europe, where sustainable energy grids can flawlessly manage millions of electric vehicles charging simultaneously overnight. These tangible, transformative technologies are within reach through support from the EU Quantum Strategy. The quantum community has clearly outlined what's needed to achieve this future: · Combine Europe's scientific excellence to bring quantum breakthroughs rapidly to market · Develop advanced quantum supercomputers like the ones we are supporting under the Quantum Flagship and are acquiring under the EuroHPC Joint Undertaking to operate as accelerators next to our leading network of supercomputers · Deploy secure communication networks such as those under EuroQCI, our secure quantum communication infrastructure that will be spanning the whole EU, composed of a terrestrial segment relying on fibre communications networks linking strategic sites at national and cross-border level, and a space segment based on satellites · Support quantum startups and SMEs, enhancing supply chain resilience, and foster supranational innovation clusters · Integrate quantum advancements into strategic capabilities for security and defence, protecting citizens and infrastructure · Educate Europe's workforce through specialised initiatives like the European Quantum Skills Academy Quantum is not one more technology to add to the list; is a high tide that will deeply transform our society and economy.

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.

India's Critical Mineral Paradox: Sitting on a Goldmine While Importing at Premium Prices I’ve spent time building businesses across consumer tech, telecom, and industrial sectors. Reading Alkesh Kumar Sharma’s strategic analysis on critical minerals was a wake-up call: India is racing toward clean energy leadership while dangerously dependent on imports for the very minerals that make it possible. Here’s the link: https://lnkd.in/dpjKHMsb This isn't just policy. It's national security and controlling our destiny in the 21st century economy. The vulnerability: India is 100% dependent on imports for lithium, cobalt, and nickel, over 90% for Rare Earth Elements. China controls 60% of global REE production and 85% of processing. We're targeting 500 GW renewable energy and net zero by 2070, while handing veto power over our clean energy future to geopolitical competitors. Having run P&Ls across markets, I know 100% import dependence isn't a supply chain. It's a strategic chokepoint. But India is sitting on untapped wealth. Geological Survey identified 5.9 million tonnes of lithium in J&K, significant REE deposits in Odisha and Andhra Pradesh. Yet mining contributes just 2.5% to GDP versus 13.6% in Australia. We have only 1% of global REE processing capacity. The government launched the National Critical Minerals Mission with ₹34,300 crore and auctioned 20 mineral blocks. The 2023 Mines Act opened private exploration. But execution determines everything. The urban goldmine: India generates 4 million tonnes of e-waste annually, only 10% formally recycled. Inside? The same minerals we're importing at massive cost. Attero proves what's possible. This Noida-based deeptech company achieves over 98% extraction efficiency in recovering rare earths like neodymium, praseodymium, and dysprosium, the exact elements we currently import. With over 200 patents filed and strong profitability, Attero’s revenue crossed approximately ₹1,000 crore in FY25, growing more than 50% year-on-year. The company works with all leading auto and battery manufacturers and is now expanding capacity sixfold to process 3 lakh tonnes annually, backed by significant capital infusion across India, Poland, and the US. India banned black mass exports, powder from shredded batteries we exported as cheap scrap to China, Korea, Japan who sold it back at 15-20x the price. This ban forces domestic refining. Attero proves we have the technology. The window is closing. If we don't build resilient supply chains through domestic mining, processing, and recycling, we're building our clean energy future on someone else's foundation. We have deposits, waste streams, and companies like Attero proving Indian technology competes globally. What we need is execution speed. #CriticalMinerals #CleanEnergy #AtmanirbharBharat #Sustainability #India

Collaborating on Credentials The future of the workforce and the future of education lie in collaborative models where industry and academia work together to create relevant, practical learning experiences. Whether through advisory boards, design challenges and projects, or comprehensive microcredential programs, these partnerships are reshaping how we prepare talent for tomorrow's workforce. On a recent podcast, sie.ag/443UxN, I connected with Michael J. Readey and Christy Bozic, PhD, PMP, CPEM to discuss the transformative power of industry-academia partnerships. Together, we have been collaborating on credentials and sustainability to improve the circular economy digital mindset. Here are some insights we discussed that every education and industry leader should consider: The Traditional Model is Evolving: The "degree-only" mindset is shifting as we recognize the growing importance of continuous, skills-based learning. With the majority of credential-seekers being full-time professionals, the demand for flexible, targeted upskilling is clear. Industry-Academia Partnerships Matter: We must continue to invest in partnerships that bridge the critical gap between classroom theory and rapidly changing workplace demands. Together, we can enable faster identification of emerging skill needs and create timely real-world learning opportunities through immersive experiences. This provides learners with early and direct industry exposure. The Rise of Microcredentials: We're seeing a trend of professionals who actively seek, learn, and collect badges and microcredentials for career progression. Agile learning formats offer just-in-time education and experience for quick adaptation to industry needs, and flexible learning paths can address immediate and targeted skill application. Learn more about what hiring managers look for, how to build industry-relevant learning pathways, and what the future holds for collaborative academic-industry relations. I remember when I started in this industry, the focus was on how we could break down the walls between CAD and CAM. There are still walls between academia and industry we must break down. The collaboration we experienced with Michael, Christy, and the University of Colorado Boulder gives me hope for a new path forward. Listen to the full episode and share your perspective below: sie.ag/443UxN.

The Union Budget’s announcement to develop dedicated rare earth and #criticalmineral corridors across #TamilNadu, #Kerala, #Odisha, and #AndhraPradesh comes at a decisive moment for India and the global economy. This initiative is not merely about mining - it is about strategic autonomy, clean industrial growth, and long-term economic resilience. Today, China controls over 60% of global rare earth mining and nearly 85% of processing capacity, creating significant supply-chain vulnerabilities for clean energy, electric mobility, electronics, defence systems, and advanced manufacturing. In contrast, countries such as the United States, Australia, and the European Union are aggressively building domestic capabilities, strategic reserves, and recycling ecosystems to reduce dependence on concentrated supply sources. Rare earth elements are essential inputs for EV motors, wind turbines, solar technologies, semiconductors, batteries, defence electronics, and medical equipment. As India targets large-scale EV adoption, renewable energy expansion, and domestic semiconductor manufacturing, secure access to critical minerals becomes non-negotiable. The proposed corridors—spanning mining, processing, R&D, and manufacturing create an integrated ecosystem rather than fragmented interventions. Equally important is the opportunity to supplement primary mining with secondary sources. Estimates indicate that India’s e-waste alone could yield nearly 1,300 tonnes of rare earth elements, while mine tailings and industrial waste offer additional recovery potential. Last year’s ₹1,500 crore allocation for extracting critical minerals from waste streams was an important start, but scale, coordination, and regulatory clarity are now essential to unlock meaningful impact. The regulatory framework must evolve accordingly. E-waste Management Rules should clearly classify critical minerals as high-value strategic resources, not residual waste. Extended Producer Responsibility (EPR) frameworks must go beyond compliance and actively incentivise recovery, recycling, and reuse. At the same time, India’s large informal recycling sector—currently operating without safety nets must be formalised through technology transfer, skilling, access to finance, and transition incentives, ensuring both environmental protection and dignified livelihoods. From an economic and urban governance perspective, the implications are significant. Rare earth corridors can catalyse clean manufacturing clusters, generate high-skill employment, and reduce import dependence. Cities and industrial regions will benefit from value-added manufacturing, innovation ecosystems, and circular-economy models that align growth. If executed with coordination and clarity, this initiative can deliver multiple dividends: lower emissions, reduced waste, enhanced competitiveness, skilled job creation, and greater self-reliance.

The European Quantum Industry Consortium (QuIC) has released its official recommendations for the EU Quantum Strategy, outlining key priorities to strengthen Europe’s position in quantum technology and ensure long-term technological leadership, economic growth, and strategic autonomy.   Key Focus Areas in the Recommendations: 👉 Developing a 'Made in Europe' Full-Stack Quantum Computer 👉 Strengthening Europe’s quantum supply chain and reducing dependency on non-EU suppliers 👉 Supporting quantum chip innovation and industrial-scale fabrication 👉 Ensuring secure quantum communications & cryptography 👉 Enhancing funding for quantum startups & scale-ups 👉 Strengthening Europe’s quantum workforce & talent pipeline 👉 Establishing leadership in global quantum technology standards & IP   QuIC underlines its committment to working with EU institutions and industry stakeholders to shape a bold, forward-looking quantum strategy that drives European innovation and competitiveness.   https://lnkd.in/dcKhnnvH #quantum #quantumtechnologies #quantumcomputing #quantumcomminications #quantumsensing #EU

You either stay and climb the tenure ladder, or you leave for industry and abandon your research identity. That’s often the narrative within academia. I’ve watched that narrative push talented scientists into corners they didn’t need to be in. Because there’s a third path that nobody talks about enough. → Build a university research program designed to solve real industry problems.  → Attract companies as partners.  → Train students who are ready for industry from day one.  → Do meaningful science AND see it applied. One professor I work with described it like this: “𝘐 𝘭𝘰𝘷𝘦 𝘣𝘦𝘪𝘯𝘨 𝘢𝘵 𝘢 𝘶𝘯𝘪𝘷𝘦𝘳𝘴𝘪𝘵𝘺. 𝘐 𝘨𝘦𝘵 𝘵𝘰 𝘥𝘰 𝘵𝘩𝘦 𝘴𝘤𝘪𝘦𝘯𝘤𝘦 𝘐 𝘤𝘢𝘳𝘦 𝘢𝘣𝘰𝘶𝘵, 𝘵𝘳𝘢𝘪𝘯 𝘵𝘩𝘦 𝘯𝘦𝘹𝘵 𝘨𝘦𝘯𝘦𝘳𝘢𝘵𝘪𝘰𝘯, 𝘢𝘯𝘥 𝘸𝘢𝘵𝘤𝘩 𝘮𝘺 𝘴𝘵𝘶𝘥𝘦𝘯𝘵𝘴 𝘸𝘢𝘭𝘬 𝘪𝘯𝘵𝘰 𝘪𝘯𝘥𝘶𝘴𝘵𝘳𝘺 𝘫𝘰𝘣𝘴 𝘵𝘩𝘢𝘵 𝘢𝘤𝘵𝘶𝘢𝘭𝘭𝘺 𝘶𝘴𝘦 𝘸𝘩𝘢𝘵 𝘵𝘩𝘦𝘺 𝘭𝘦𝘢𝘳𝘯𝘦𝘥 𝘪𝘯 𝘮𝘺 𝘭𝘢𝘣.” He’s not chasing tenure in the traditional sense. He’s built something more valuable: a research group that companies actively want to fund because it consistently delivers results they can use. If you’re an academic researcher feeling stuck between the tenure track and an industry exit, there’s a version of your career that includes both. This week’s newsletter explores what that looks like. Link in comments.

Most quantum boardroom conversations end without an agenda. They end with a posture — "we're monitoring quantum developments," "we're taking it seriously". Neither statement produces a plan. The distinction matters because quantum creates three problem classes, each with a different urgency and a different cost of inaction. A generic posture misaddresses all three at once. The right response, for most leadership teams, has three parts. The first is to defend now. Post-quantum cryptography belongs on the enterprise risk agenda as a current priority. That means building visibility into cryptographic dependencies across the enterprise, identifying migration priorities, and mapping third-party exposure. This is the part of the quantum agenda that cannot wait. The second is to explore selectively. Most leadership teams do not need a wide portfolio of quantum pilots. They need a small number of focused efforts on high-value problems where the workload aligns with quantum's actual strengths — evaluated against the strongest available classical alternative. Each effort should be a targeted test: one specific problem, one clear classical benchmark, one honest evaluation. The third is to build options. For companies in simulation-relevant sectors — pharmaceuticals, advanced materials, energy — the right posture is modest investment in partnerships and early hardware collaborations. The goal is R&D workflows that are ready to integrate quantum subroutines when the technology matures. The companies that benefit most will not necessarily be those spending the most today. They will be the ones best positioned to move when the moment arrives. The most common failure on quantum is conflating the urgency of the three classes — treating all three as equally distant or equally immediate, when each has a different clock running. The organizations that get this right understand early which problem classes matter to their business, which ones to set aside, and what the distinction demands of them starting Monday morning. https://lnkd.in/gkymW7Xm

Quantum readiness is less about sudden disruption and more about cultivating skills, forging collaborations, and aligning strategies with evolving standards, so that businesses can gradually integrate these technologies into their long-term transformation paths. We should see quantum computing as a journey that requires methodical preparation. Finance, logistics, chemistry, and cybersecurity are already experimenting with hybrid models that combine classical and quantum systems. These early steps show that the transition will not happen overnight, but through structured phases of learning and integration. The priority for leaders is to identify processes where quantum can create measurable improvements. This means feasibility studies, pilots, and a roadmap that integrates quantum into IT environments in a sustainable way. At the same time, teams need training in principles, tools, and algorithms, because without this foundation, the technology remains an abstract concept. Collaboration is another essential layer. Partnerships with research hubs, vendors, and cloud providers open access to quantum resources that would otherwise remain out of reach. Alongside this, governance and security must advance with post-quantum standards, ensuring compliance and ethics are never secondary. The real challenge is continuous adaptation. Regulations and technologies will evolve, and strategies must remain flexible. This long-term perspective will define the organizations that are prepared to grow with the next wave of innovation. #QuantumComputing #DigitalTransformation #FutureOfWork

Are we measuring the wrong things in drug innovation? Some of the most valuable therapies might never show up on our innovation radar. The typical view in US #biopharma has long equated “innovation” with patents, new drug approvals, and R&D spend. They're easy to count and look good in investor decks. However, these metrics often reward volume more than total value. They don't tell us whether a therapy meaningfully improves patient lives, strengthens public health, or delivers returns beyond the financial metrics. A new six-dimensional framework published in The Incidental Economist offers another option. Drawing from over 600 interdisciplinary studies, the authors propose a more rigorous definition of #innovation: - Scientific and Technological Advances: Captures innovation and productivity using metrics such as new molecules, new drug applications, and patents. Emerging indicators, such as AI-enabled R&D and digital biomarkers, offer forward-looking insights. - Clinical Outcomes: Highlights therapeutic impact through metrics such as safety, efficacy, and patient-reported outcomes, emphasizing real-world patient benefits and delays in disease progression. - Operational Efficiency: Measures efficiency in development and production using trial success rates, R&D timelines, supply chain resilience, and adaptive trial designs. - Economic and Societal Impact: Evaluates economic returns and societal benefits through cost-effectiveness analyses, budget impacts, and productivity improvements. - Policy and Regulatory Effectiveness: Assesses how regulatory frameworks support innovation through approval speed, breakthrough designations, and surrogate endpoint integration. - Public Health and Accessibility: Examines broader health impacts, including reduced disease incidence, healthcare access improvements, and equitable geographic distribution, ensuring innovations meet widespread public health needs. This doesn't have to just be academic. It could change what gets funded, approved, and reimbursed. Some examples mentioned in the article: -An Alzheimer's therapy might look risky on paper, but when viewed through long-term productivity gains and reduced caregiver burden, it becomes a more attractive, high-risk/high-reward bet. -A platform technology (e.g., mRNA) may not boost new molecule counts today, but could enable faster, more precise drug development in the future. -A one-time gene therapy with high upfront cost could prove more valuable than chronic treatments when lifetime adherence and hospitalizations are factored in (if payers can afford the upfront investment). Of course, expanding how we define innovation introduces trade-offs. Complexity increases. Metrics will compete against each other. The question is whether the upside of greater alignment with ALL stakeholders is worth the operational complexity and potential reductions in value for some individual stakeholders. Would you be in favor of evaluating innovation more holistically?