Science Project Funding Options

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  • View profile for Dawid Hanak
    Dawid Hanak Dawid Hanak is an Influencer

    Professor advising industry & SMEs on evidence-based business cases for net zero and technology appraisals | TEA, LCA, Financial modelling | Low-Carbon, CCUS, Hydrogen Advisory | Helping academics publish & make impact

    61,547 followers

    Don't go it alone - collaborate to deliver global impact with your research! Delighted to share findings from our newly published pilot-scale study on CO₂ capture heat integration. It's exciting not only because of new approach to reducing the reboiler duty by 6% and cooling duty by 24%, resulting in operating cost savings of CO2 capture. It's exciting because it proves that collaboration is essential for credible, impactful research. Our team brought together multi-institutional expertise, industrial partners, and real-world site access on a coal-fired power plant. This work was possible because this collaboration enabled: - Access to infrastructure - Operating a mobile pilot on a live power plant requires partnerships beyond any single lab. - Data rigour - Validating marginal energy gains demanded cross-disciplinary expertise, including thermodynamics, advanced data reconciliation, and process engineering. - Industrial validation - Co-developing with site operators built credibility and practical insight from day one. - Diverse expertise - Chemistry + engineering + simulation + field operations. Individual researchers miss insights that teams can easily identify. The lesson: Impact = great ideas + rigorous execution + real-world validation. Collaboration is how you deliver all three. If you're pursuing energy research with genuine traction, treat collaboration as a core strategy, not optional. Build networks early. Your best work will come from teams you haven't yet assembled. #science #research #scientist #researcher #professor #phd #CCUS #engineering

  • View profile for Khaled El-Enany Ezz
    Khaled El-Enany Ezz Khaled El-Enany Ezz is an Influencer

    Director-General of UNESCO.

    80,068 followers

    UNESCO for the People – Harnessing Science, Technology, and Innovation as Global Public Goods Science, technology, and innovation (STI) shape not only what we know but how societies thrive and tackle pressing challenges. The International Decade of Sciences for Sustainable Development (2024–2033), led by UNESCO, presents a unique opportunity to strengthen international cooperation, boost public and private research investment, reinforce local research ecosystems, and place science at the core of inclusive development strategies that empower women, youth, and marginalized communities. Over three decades in academia, I have witnessed how scientific research transforms societies. I have mentored students and young scholars, collaborated with leading global academic institutions, and helped establish joint academic and research programs that unite scholars across borders and empower early-career researchers. Throughout my campaign, I have met scientists who are making a meaningful impact despite limited resources. As I emphasized during a lecture at UNESCO’s Arab Week, strong education systems, adequate funding, and international collaboration are essential to building diverse, resilient research communities capable of driving real change. “UNESCO for the People” envisions STI as tools for inclusion and sustainable development—creating tangible benefits for people’s lives by: • Supporting Member States in developing national research strategies that strengthen inclusive science ecosystems, uphold the right to science, ensure scientists’ safety, improve working conditions, and advance gender equality and youth participation. • Advocating for greater investment in research and innovation by increasing national budgets and fostering partnerships with international financial institutions and donors. • Reducing disparities among countries by promoting an inclusive digital transformation, fostering skills in emerging and converging technologies, implementing the Recommendation on the Ethics of AI, and establishing ethical guidelines for frontier technologies such as neurotechnology, quantum computing, and synthetic biology. • Expanding capacity-building programs, increasing research grants for young scientists, investing in STEM education, and supporting the development of think tanks, science parks, and technology incubators. • Enhancing cooperation and knowledge-sharing through global academic networks and UNESCO Chairs, and by strengthening South-South and triangular partnerships. • Promoting open and responsible science, scaling up access to data and publications, and integrating Indigenous and local knowledge into policy and innovation strategies. • Strengthening the science-policy-society nexus by ensuring evidence-based decision-making rooted in robust data collection and analysis, while aligning research with national priorities to effectively address societal challenges.

  • View profile for Gaurav Gandhi

    Career Transition Mentor | Reinvention, Global Careers & Visibility | Marketing, Partnerships & Innovation @ WayPoint.Global | Co-author, Career Heist | Ex-Tata

    27,178 followers

    Two years ago, I moved to Austria with curiosity in my heart and a question in my mind: What if Austrian and Indian universities could do more together? This week, that “what if” felt more real than ever. TU Austria (a network of TU Wien, TU Graz, and Montanuniversität Leoben) this week has launched a powerful initiative with India, supported by €5 million in funding from the Austrian Federal Ministry of Science, Research and Economy. This isn't just another exchange program. It’s a strategic bridge — rooted in academic diplomacy, built on trust and excellence, and aimed at addressing the global challenges of our time: 📌 Circular economy 📌 Climate-neutral technologies 📌 Sustainable infrastructure 📌 AI and digitalization As someone who has worked for a decade at the intersection of academia, innovation, and international collaboration — from Indian universities to top US institutions, and now actively engaging with Austrian universities — I see this as a defining moment. A moment to: 🎯 Co-create joint research labs 🎯 Launch PhD exchange programs with dual supervision 🎯 Design transdisciplinary academic-industry clusters between Austria and India 🎯 Develop curriculum and mobility models for the future of STEM education This is where I’d love to contribute — as a consultant and bridge-builder for universities in both countries. Helping map opportunities, facilitate strategic dialogues, and enable world-class programs that serve both nations — and the planet. 📢 To university leaders, deans, researchers, and innovation offices — let’s talk. Because when two strong academic cultures come together, we don’t just exchange students. We exchange futures. Read more about the initiative: https://lnkd.in/dfvprh4U (English summary also available via TU Austria) #AustriaIndia #AcademicDiplomacy #JointResearch #HigherEducation #CircularEconomy #GlobalCollaboration #TUAustria #InnovationBridges

  • View profile for Tony Tiyou

    Founder, CEO & Editor-in-Chief @ Renewables in Africa (RiA) | Awareness & Carbon Markets; CEO @ RiA Automation | AI Growth Systems for Green SMEs

    21,414 followers

    🌍 Over the last few months, one question has landed in my inbox again and again: “Do you have a reliable financial model for Solar + Battery projects?” It’s no surprise. As the world leans harder on renewables, battery storage is no longer a “nice to have” – it’s essential. But here’s the catch: good financial models are incredibly hard to find. Too often they’re either oversimplified spreadsheets that don’t reflect reality, or overly complex beasts locked behind hefty paywalls. Back in January, we at Renewables in Africa (RiA) organised a webinar on Financial Modelling for BESS. The response blew us away – and you can still watch it here if you missed it: Webinar Replay . Since then, requests for a model have kept coming. So we decided to act. 💡 👉 Working with some of our partners, we’ve developed a first practical, easy-to-use Solar BESS Financial Model (more will follow). It’s designed with project developers in mind: simple enough to navigate, yet detailed enough to capture CAPEX, OPEX, revenue stacking, debt service, and IRR/NPV calculations. Let me give you an example: Imagine you’re planning a 50 MW solar plant with a 30 MWh battery. By adjusting just a few inputs – solar yield, PPA price, and financing terms – the model instantly shows you three scenarios (Base, Low, High). You can immediately see how a drop in tariff or an increase in CAPEX impacts IRR and payback. No coding, no hours spent debugging formulas. Just clarity. 🔗 We’re making this tool available to the community here : http://bit.ly/4g0rIby (PS: There is a contribution though from you) 💬 I’d love to hear from you: If you’re working on Solar + BESS, what’s been your biggest challenge in modelling projects? Do you prefer simpler templates, or are you looking for advanced models with scenario stress-testing? Let’s spark a conversation. Your insights will help us make tools that genuinely empower Africa’s – and the world’s – clean energy transition. 🌞🔋

  • View profile for Kelly Keodara

    I make the complex clear | Communications & Brand Strategy | Space Nerd | CPH ↔ HEL

    21,452 followers

    Some places remind you that collaboration isn’t just a value — it’s an engine for understanding our planet. Last week, I traveled to Sodankylä in Finnish Lapland for the launch of the European Space Agency - ESAFinnish Meteorological Institute - Ilmatieteen laitos Arctic‑Boreal Earth Science Supersite — a world‑class hub where science, technology, and international partnership converge. Standing at the Arctic Space Centre, surrounded by decades of atmospheric, cryosphere, and ecosystem observations, you feel the weight of what global cooperation can achieve. The Sodankylä Supersite brings together European Space Agency - ESA, NASA - National Aeronautics and Space Administration, EUMETSAT, and research partners across Europe, North America, and Asia to develop and validate satellite data products essential for monitoring our climate. Its integrated observation system captures the interactions between the Earth’s surface, biosphere, and atmosphere, supported by reference instruments for missions such as NASA OCO‑2, ESA TROPOMI/Sentinel‑5P, ESA SMOS, and NASA SMAP. This site fills a critical gap in high‑latitude Earth system data, providing the ground truth that ensures global environment and climate monitoring satellites deliver accurate, actionable insights. What struck me most was the spirit of collaboration: Finnish researchers, European agencies, private‑sector innovators, and international partners working side by side. The Supersite isn’t just infrastructure — it’s a shared commitment to understanding a rapidly changing Arctic and, ultimately, a rapidly changing world. In an era where climate challenges cross borders, so must our solutions. And places like Sodankylä show what becomes possible when we build together. More information about the Supersite: https://lnkd.in/dw9gKxGJ

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  • View profile for Izabela Santos MBA

    🚀 Driving the Future of Sustainable Aviation Fuels | Founder & MD| Bankable SAF Offtakes, Commercialisation & Capital Advisory

    8,353 followers

    ‼️ Everyone Wants SAF. No One Wants to Pay for It ‼️ So — How Do You Finance a £500M+ Clean Fuels Project⁉️ Let’s be blunt: SAF plants are not being built because of financing. High-CAPEX projects like SAF, e-fuels, methanol or hydrogen rarely die in the lab — They die in Pre-FEED, FEED or just before FID when the money actually needs to move. So let’s simplify the landscape. If you’re building a plant, here’s what your financing journey really looks like: 1. Pre-FEED / Pre-Development Stage Goal: Prove you’re credible enough to justify deeper due diligence. ✅ Typical funding sources: • Founder equity / angel capital — painful but essential skin in the game • Innovation grants (e.g. UK AFF, EU Innovation Fund, DOE in the US) • Strategic partnerships with tech licensors or feedstock suppliers (often in-kind support rather than cash) What works best? ➡️ Grants + early offtake LOIs — your only real credibility anchor at this stage. ⸻ 2. FEED / Advanced Development Stage Goal: Turn assumptions into engineering-grade numbers. ✅ Typical funding sources: • Blended public-private grant structures (e.g. matched funding) • Corporate venture capital (CVC) — but only if you’re aligned with their supply chain needs • Convertible debt from strategic partners (airlines, fuel suppliers) What works best? ➡️ Grants + CVC + strategic equity, but only if you can prove future revenue. ⸻ 3. FID / Construction Stage – The Real Cliff Edge Goal: Secure bankable contracts so lenders stop seeing you as “experimental.” ✅ Funding instruments that actually close deals: • Project finance (with senior debt + mezzanine) — only unlocked after offtake contracts & feedstock secured • Revenue Certainty Mechanisms (e.g. UK GSP, US 45Z, EU FEETS allowances) • Export Credit Agencies (ECAs) — massively underrated, especially for equipment-heavy builds • Loan guarantees from governments (e.g. US DOE LPO model) What works best? ➡️ Long-term offtake + GSP/45Z or similar policy-backed price floor. TL;DR — Here’s the Brutal Truth Technology without bankability is just a science project. Policy gives confidence. Offtakes give leverage. Guarantees unlock capital. If you’re stuck between FEED and FID and don’t know which lever to pull first — you’re not alone. That’s exactly the gap we help close at StratX: bridging strategy, partners and financing pathways so real plants actually get built. Let’s talk!

  • View profile for James Evans

    Max Palevsky Professor of Sociology & Data Science at the University of Chicago, Santa Fe Institute, & Google

    6,856 followers

    Thrilled to share our new research published today in PNAS with brilliant colleagues Renli Wu (Northwestern University) and Christopher Esposito (UCLA Anderson)! 🎉 "Shifting power asymmetries in scientific teams reveal China's rising leadership in global science" We analyzed millions of scientific papers to understand how leadership in international collaborations is shifting by assessing who plays leadership roles in science. Here's what we found: 📊 The Leadership Shift In US-China collaborations: Chinese scientists went from leading 30% of projects (2010) to 45% (2023). Our models project parity by 2027-2028. 🔬 Critical Technologies: China is on track to reach leadership parity with the US in 8 of 11 critical technology areas before 2030—including AI, semiconductors, and advanced communications. 🌍 The Decoupling Paradox: Counterintuitively, our models show that US-China scientific decoupling would actually increase China's global scientific leadership, as Chinese scientists redirect partnerships to countries where they're more likely to lead. 🎓 Belt & Road Investments: China invested $4.6B in training international students (2012-2025), with growing focus on developing countries. This is already translating into scientific leadership in those regions. 💡 What This Means: This isn't a zero-sum game. The real question is whether competition will drive positive investments in global scientific capacity—or whether efforts to restrain progress will harm both nations and slow global advancement. The dynamics of US-China scientific competition can go in very different directions depending on policy choices made today. Paper: https://lnkd.in/g_GYzPrt Grateful to the NSF National Network for Critical Technology Evaluation and UChicago Knowledge Lab #Science #Research #Innovation #GlobalScience #SciencePolicy #China #ChinaPolicy

  • View profile for Julia Reinaud

    Senior Director at Breakthrough Energy / Gates Ventures, Board member Mission Possible Partnership, Ambassador France 2030, Cleantech, Venture & FOAK / scale Enthusiast

    16,184 followers

    From Rubik’s Cubes to Jigsaw Puzzles: Cracking the FOAK Coordination Code I joined the Green Finance Institute ’s FOAK (first-of-a-kind) Playbook workshop with key Nordic stakeholders — bankers, private lenders, pension funds, state actors, equity funds — and vivid case journeys (thermal energy storage and novel food proteins). Some takeaways that stuck with me: 1️⃣ From pilots to pipes, from slideware to steel FOAK isn’t about inventing more; it’s about scaling. The hard part is crossing the factory floor — turning proven chemistry and kilowatts into bankable, repeatable plants. 2️⃣ De-risking is a team sport No single capital type can carry a FOAK. We need the whole “capital stack orchestra”: catalytic grants keeping time, quasi-equity on strings, senior debt on brass, and industrial offtakers as the rhythm section. 3️⃣ Speak “Banklish” Technology ≠ construction ≠ market risk…Label the risks, allocate them to those willing (and mandated) to hold them, and translate them into PD/LGD terms. Capital is a coward until contracts show up. 4️⃣ The missing middle is real — and fixable Between VC and classic project finance lies a no-man’s-land. Blended structures, anchor guarantees, and standardized milestones can turn today’s green premiums into tomorrow’s green dividends. 5️⃣ Build once, finance many Modularity and repeatability are the bridge from FOAK to NOAK. Five near-identical projects on a common platform beat five individual projects. 6️⃣ Offtake aggregation = oxygen Aggregating demand (and standardizing paper) can turn offtakes into collateral. Think “index of suppliers” instead of one-to-one handshakes — more bankability. 7️⃣ Don’t boil the ocean — warm the bay Start where policy, permits, and institutional partners align. When experienced system players lean in — utilities, TSOs/DSOs, industrials — PD falls, LGD shrinks, and term sheets stop being allergic to FOAK. 8️⃣ No silver bullet, plenty of silver buckshot Catalyst-style co-investments, state tenders with long-dated certainty, EIF/EIB guarantees, mezz and private credit sleeves, and pension capital via pooled vehicles — all are valid pellets. Use many. 9️⃣ Courage is a KPI Beyond models and mandates, it takes institutional courage — measured not just in IRR, but in speed, standardization, and the willingness to be first. 🔟 Don’t starve the seedlings Capex financing gets the spotlight, but development expenses — the pre-Capex work of permits, engineering, contracts, community engagement — are where projects live or die. Everyone loves to water the tree once it’s planted, but too few want to pay for the seedbed. FOAK needs tailored “DevCap” instruments to cover this fragile stage. Without them, the orchard never grows Grateful for a pragmatic, sleeves-rolled-up dialogue. The playbook is writing itself: classify risk, standardize the steps, pre-wire the capital stack, and line up offtake. Do that, and Europe can move from “first-of-a-kind” to “first-of-many”

  • View profile for Iain Jackson

    Professor: Helping researchers and PhD students achieve their goals : Academic Strategist | 15+ years examining PhDs | Strategic frameworks for career acceleration | Professor at Liverpool

    71,593 followers

    Universities love signing MOUs with international partners. You'll find digital filing cabinets full of them. But signing agreements and building genuine partnerships are completely different things. Most MOUs sit dormant. Not because people don't want to collaborate - they do. The problem is jumping straight into ambitious, multi-year commitments without testing how you actually work together. Over 20 years of international research, I've learned to approach partnerships differently. Start small, see how it goes, then build from there. My work in West Africa began with a joint conference/seminar presentation. Six months later, we applied for a small pilot grant together. That led to a larger British Academy project, and so on. Now we have ongoing collaboration across multiple research streams. The pattern that works: Start with something specific and achievable - a conference paper, shared data collection, student exchange. Test the relationship when stakes are low. Move to substantial projects - but only with partners you've actually worked with successfully. Build long-term programs - after you know you can deliver together. Most failed international partnerships try to do everything at once. The successful ones I've seen all started with someone saying "let's try something small first." Real collaboration takes time - you have to play the long game and be prepared to invest and commit.

  • View profile for Vivek T.

    Optimizing energy systems | Prioritizing humans

    15,889 followers

    You might hear a lot of excitement about the GW-scale announcements for offshore wind farms. Many players see it as a huge opportunity, but is it really that simple? It all comes down to one important aspect: Project financing. Securing the right support and managing risks effectively are key to success. Here’s a basic breakdown of what needs to be considered: A - Regulations & Permitting Risks: The complexity can vary significantly depending on the market. What most have experienced in the US, explains the risks are unpredictable when democracies take turn. B - Production Assumptions: From the initial resource assessment to long-term availability, energy yield estimation must be realistic. I have had long discussions with friends working in this area, and this is such a tricky and complex topic, for example, changes in turbine models or neighbouring wind projects can affect output. Accuracy here can make a significant difference, as even small errors in assumptions can impact long-term predictions. C - Construction Risks: How many days might be lost if things don’t go as planned? Bad weather or technical issues can lead to delays. Not a show stopper and no delays like nuclear projects here at least. 😉 D - Power (Market) Assumptions: Forecasting electricity prices is always a challenge. With more renewables entering the grid, predicting profitability requires considering a range of scenarios. The choice between CfD, PPAs, or merchant pricing strategies can also influence financial stability. E - Financing Risks: Geopolitical uncertainties and interest rate changes can influence financial outcomes. While these are often beyond control, planning for flexibility and building resilient financial models can mitigate some of the unpredictability. F - Operational Risks: Once built, maintaining reliable operations is essential. Even minor disruptions can affect profitability sometimes. Addressing this phase requires a lot of practical experience and proactive maintenance strategies to reduce downtime. Putting it all together: Now, if you want to put it into an equation, it might look something like this: Success = f (A + B + C + D + E + F) Where: A = Regulatory and Permitting Risks B = Production Assumptions C = Construction Risks D = Power (Market) Assumptions E = Financing Risks F = Operational Risks (often underestimated) The function f() here is a combination of experience, strategic planning, and risk management. Each element influences the others, and achieving project success requires balancing them thoughtfully. Success in offshore wind is about carefully understanding and managing the challenges that come with large-scale projects and as you see in the picture, there are always colourful possibilities, if done right. 😇 📌 💡 https://lnkd.in/e_T-UbP2 #OffshoreWind #ProjectFinance #RenewableEnergy

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