Benefits of Clean Energy

This visual helps explain 3 concepts that A LOT of people forget about solar☀️   Solar energy’s fuel (sunshine) is free and delivered daily.   Therefore, electricity from solar does not include the cost of each marginal unit of fuel. That makes sense to people.   But the full implications of an energy system built upon a zero-cost, abundant fuel source are often still dramatically underestimated.   There are three other kinds of savings that solar provides:    Infrastructure Savings – As shown in the graphic, the world spends billions of dollars every year extracting oil, gas, and coal and transporting to the places it will be burned. The infrastructure to mine, refine, and move these fuels from point A to point B, whether by boat, rail, or pipeline, requires regular maintenance and TONS of investment. With solar, the sun does it all for us, delivering usable photons every morning.   Predictability Savings – When you’re relying on a globally traded commodity to produce electricity, the final cost of each gigawatt can fluctuate with the current price of oil and coal. Market uncertainty can send the price of these commodities (and the final price for electricity) soaring on a whim. But it doesn’t need to be this way. Once a solar farm is installed, the cost of each unit of electricity is basically fixed. This helps utilities better predict their costs and that’s a huge benefit to consumers.   Energy Independence Savings – Because oil, gas, and coal rely on complex international supply chains and lots of global infrastructure, there is a lot more that can go wrong. Geopolitical shocks, natural disasters, port congestion, and accidents (remember the Suez Canal blockage?) can all impact the predictability and reliability of coal and gas generation. No one can embargo the sun or interrupt its delivery to us, so solar energy is fundamentally more local and more independent.   I think it’s important to explain these hidden savings when talking to naysayers because, while they may understand that free sunshine = free fuel, they may not understand just how much they’re paying for the infrastructure, uncertainty, and volatility of fossil fuels.

We’ve called efficiency the unsung hero of the energy transition in the past. While the energy transition will happen first through the transition of energy usages, like the shift with transport, from internal combustion engines to electric vehicles, or from fuel or gas boilers to heat pumps, we cannot ignore the utmost priority of the energy transition: efficiency. Efficiency is the greatest path to reduce our energy use, our impact on the world’s climate through CO2 emission reduction, and very importantly, the best way to make solid and practical savings. In its most historical form, energy efficiency is about better insulation, to reduce heating (or cooling) loss in buildings like family homes, warehouses, office high rises, and shopping malls. This is useful, but expensive and tedious to realize on existing installations. Digitizing home, buildings, industries and infrastructure brings similar benefits at a much lower cost and a much higher economic return. The combination of IoT, big data, software and AI can significantly reduce energy use and waste by detecting leaky valves, or automatically adjusting heating, lighting, processes and other systems to the number of people present at any given time, using real-time data analysis. It also allows owners to measure precisely progress, report automatically on their energy and sustainability parameters, and benefit from new services through smart grid interaction. And this is just the energy benefit. Automation and digital tools also optimize the processes, safety, reliability, and uptime leading to greater productivity and performance.

I’m happy to share some big news: for the fifth year in a row, Amazon is the largest corporate purchaser of renewable energy in the world. Transitioning to carbon-free energy sources is one of the fastest ways we can address climate change. It’s why we’ve invested billions of dollars in hundreds of solar and wind projects around the world. But you don’t need to be a company of our size to make a difference. If you’re exploring renewables energy investments, here are three helpful things we’ve learned along the way: 1) Location = impact. We’re supporting projects in regions where they can have the greatest impact – including locations that rely heavily on fossil fuels. For instance, we invested in nine solar and wind projects in India, where the grid is primarily powered by coal. They’re expected to help avoid an estimated 55 times more carbon than if they were built in Sweden, which has one of the world’s most decarbonized grids. As more projects become operational, we’re seeing how they positively impact the grid – and local communities. In Mississippi, for example, three solar wind farms backed by Amazon account for nearly a quarter of the state’s operational solar power! 2) Open + collaborative mindset. We started with just a handful of projects when The Climate Pledge launched. Over the years, we’ve learned the value of collaborating across sectors – we’ve worked with various energy companies, utilities and experts outside Amazon. That’s all led to us supporting 600+ wind and solar projects in nearly 30 countries – which are expected to produce the same amount of energy it takes to power more than 8 million U.S. homes. 3) Build great teams. We recruited a diverse array of energy experts and gave them room to Think Big, because we believe innovation is critical to evolution. When smart people who care about our planet are empowered to find solutions, change accelerates. We’re also investing in other sources of carbon-free energy, like nuclear – more to come on that this year! https://lnkd.in/d9sN_Pq2 #energy #carbonfree #sustainability #renewablenergy

Solar does not care about what happens in the Strait of Hormuz. Twenty-one miles of water carry roughly a fifth of the world's oil. When the strait closes, or credibly threatens to, prices move fast and economies feel it. That vulnerability is baked into two billion internal combustion engines. Solar doesn't share it. Oil is subject to depletion and geopolitics. Solar follows a learning curve. Azeem Azhar and Hannah Petrovic, PhD have written an excellent deep-dive I've read on where this curve goes next, including an interactive model you can test yourself. Worth your time: https://lnkd.in/ebA-rtqq For nearly five decades, every doubling of cumulative production has reduced module prices by around 24 percent, a relationship known as Wright's Law. From $1,000 per watt in 1958 to around seven cents today. Not ideology, not subsidy. Manufacturing at scale. The deployment numbers are striking. It took 68 years to reach the first terawatt of installed capacity. Two more years to reach the second. Module prices fell around 60 percent in the three years to 2025. Annual manufacturing capacity now exceeds one terawatt. Most forecasts got the trajectory wrong, and consistently in the same direction. They modelled solar as if it were a fuel, subject to resource constraints and diminishing returns. It isn't. It's a manufactured technology, and manufactured technologies get cheaper as you make more of them. Consider Cuba: bankrupt, under sanctions, running Soviet-era infrastructure. Between early 2025 and early 2026, it tripled its installed solar capacity in a single year. The learning curve does not ask for permission. At four cents per kilowatt hour, and one to two cents in the best locations, solar is already the cheapest source of new electricity across most of the world. Storage is on its own learning curve. Electrolysers are on theirs. The Strait will reopen. It always does. But each shock to oil markets improves the relative economics of electrification across transport, industrial heat, hydrogen and water. Each tightens the case for a system with no chokepoint and a compounding cost curve.

Everyone debates grid upgrades; West Virginia just made them optional Governor Morrisey signed something quietly brilliant this week. The Power Generation and Consumption Act creates America's first certified microgrid program designed for industrial-scale power users. Translation: Instead of waiting years for grid connections, companies can build their own power systems and skip the utility entirely. The First Big Test Fidelis New Energy is already building a $5 billion proof of concept in Mason County. The Mountaineer project combines hydrogen production with a 1-gigawatt data center on 2,000 acres. Zero grid dependency. The numbers: 800 permanent jobs, 4,200 construction workers, $100 million annual economic impact. But the real story is the model. Why This Changes Things Most states compete for data centers by promising grid upgrades that take forever and cost billions. West Virginia is competing on speed and self-sufficiency. Virginia currently hosts 25% of all US data center capacity. But as AI demand explodes, they're hitting transmission limits. West Virginia's approach removes that bottleneck entirely. The Bigger Picture This isn't just economic development theater. It's industrial-scale validation of the microgrid model. When you can power a gigawatt facility with on-site hydrogen and renewables, you've proven distributed generation works for serious workloads. If this succeeds, expect other states to copy the playbook fast. Why fight over grid capacity when you can build around it? The Strategic Question Are we watching energy infrastructure evolution or just expensive workarounds? Either way, West Virginia just became the most interesting laboratory for industrial energy independence. What happens when other governors realize they can skip the grid upgrade battles entirely? #Microgrids #EnergyInfrastructure #CleanHydrogen #EnergyPolicy

Sitting in Phuket, I heard Devendra Fadnavis just inaugurated Maharashtra’s 45,000 solar pump milestone. Without us even seeing it coming, we’ve gotten here. I think something much bigger at play here because the economics in this sector are finally starting to make sense. As a Bombay boy (through and through) this makes me genuinely proud. Every now and then I’m on a zoom call with a founder when a black out happens. And, there’s one thing I’ve heard consistently from founders across T2/3 cities. All of them say: “Mumbai has the most stable electricity in India. We wish our city ran like that.” Just imagine what solar can unlock when that level of reliability becomes the norm across the country. We will have fewer outages, smoother operations, stronger local businesses, and a power ecosystem that works for growth instead of slowing it down. From a business POV this is a major milestone. It will add massive productivity to our country which was being lost in outages. Also, agriculture consumes 22%+ of India’s electricity, yet generates almost no revenue. DISCOMs buy power at ₹6–7/unit and sell it to farmers at ₹0–1.5/unit, bleeding ₹4.5–6 per unit for 15–20 years. This model has created ₹90,000–₹1,00,000 crore of annual losses across state utilities. No one could survive this math, Yet the system ran like this for decades. Now, solar flips the economics > One-time capex of ₹2–3 lakh per pump > Funded by ADB, AIIB, World Bank > Zero recurring subsidy leakage > 3–5 year payback just through avoided losses > 15+ years of pure savings after breakeven The scale is massive - 45,000 pumps in 30 days, that free up 300–400 million units of power enough to stabilise entire industrial clusters. Eventually, it will be 7.47 lakh solar pumps that bring 22 lakh acre land under irrigation. WILD Eventually we will see more predictable grids and voltage for businesses. And finally, it will create more jobs for people creating an enabling ecosystem. This is proof that PMF can exist even in an industry that looked broken for decades. This reason this initiative works, is because the unit economics work and everyone wins. Farmers, DISCOMs, industry all win. And most importantly, India’s efficiency curve shifts upward. As someone who believes that power should be a right not a luxury, I am happy to see this hard problem being solved with sustainable economics… This model is a case study I hope we study - whether we’re building D2C brands, investing, or redesigning systems at scale. I’ve been to Phuket 10x over the last 30 years. In most visits I would get so consumed with the Thai hospitality and tourism efficiency that I wouldn’t want to come back. Seeing this, I’m raring to take my flight home 🏠 Jai hind 🇮🇳 !

The key challenge for solar has never really been daytime generation – it’s been providing reliable electricity after sunset. And that is now changing faster than most people realise. A new report from IRENA finds that near-constant solar power using batteries is becoming increasingly cost competitive with new fossil generation in regions with high solar irradiance. In parts of India, the Middle East, China, Australia, Africa and Latin America, firm solar costs are projected to fall to around $37–58/MWh by 2030. That is comparable to – and in many cases below – the cost of new coal and gas generation. The economics are shifting because: ✅ Solar PV costs have fallen 87% since 2010 ✅ Battery storage costs have fallen 93% over the same period ✅ The cost of “firming” solar power is falling rapidly This matters because many of the world’s largest and fastest-growing electricity markets are also located in regions with excellent solar resources. For decades, fossil fuels held a major structural advantage: they could provide reliable power on demand at relatively low cost. But in some regions, solar and batteries are now beginning to offer a competing pathway to reliable electricity – while also reducing exposure to fuel price volatility and import dependence. The debate is no longer simply whether renewables can generate cheap electricity. Increasingly, it is whether they can provide reliable electricity at competitive cost. And according to IRENA, that shift is now underway.

Energy efficiency isn’t just about reducing costs; it’s about building resilience and competitive advantage in a volatile energy world. The latest IEA report shows a paradox: global investment in efficiency is rising, yet progress is only 1.8% annually, less than half the COP28 target of 4%. This gap is a massive opportunity for businesses ready to act. Efficiency is no longer an operational detail; it is a boardroom priority. Organizations that treat it as strategic infrastructure, not overhead, are gaining margins competitors cannot match. Companies implementing energy management systems achieve 11–30% savings in their first year. Industrial motor upgrades boost performance by 40%. Heat pumps cut process energy demand by 75%.  Payback periods run 3 to 5 years for buildings and under 10 for industry. Emerging markets like India and Africa are embedding efficiency into growth strategies, while mature markets offer advanced tech and financing ecosystems. Success means adapting to local dynamics. Digital intelligence is transforming energy audits into real-time decision tools. Efficiency is now risk management, resilience, and a signal of maturity to investors. The companies that act today will define competitive advantage for the next decade.  Let’s accelerate together. 

In 2017, an Arkansas school district had a $250,000 budget deficit. 3 years later, they had a $1.8 million surplus thanks to solar. Here's how: Batesville School District in Arkansas was struggling. $250k annual deficit. Teacher salaries among the lowest in the region. Staff leaving for higher-paying districts. Superintendent Michael Hester ran an energy audit and found something interesting: Installing 1,400+ solar panels plus energy efficiency upgrades could save at least $2.4 million over 20 years. In March 2018, they approved a performance contract with Entegrity. → 1,400+ solar panels → Energy efficiency retrofits across district facilities (lighting, HVAC, windows, water systems) → Combined measures cut annual energy consumption by 1.6 million kWh Solar alone generated ~$100k per year in energy savings. The financial turnaround was immediate. Over three years, the $250k deficit became a $1.8M surplus. But here's where it gets interesting. Hester didn't just bank the savings. He invested them in teachers. Teacher salary increases: → Average raises of $2,000-$3,000 per year → Up to $9,000 per year for long-time employees → Some teachers saw raises as high as $15,000 Batesville moved into the top quartile for teacher pay in Arkansas. Staff retention improved. Recruitment got easier. And they used the solar installation as a live lab for STEM curriculum. The model worked so well that 20-30 neighboring school districts, a hospital, and a junior college replicated it. And if you’re selling solar to schools, you have to lead with what they care most about. You’re not selling "going green" or energy savings. You’re selling a solution to fix budget problems and pay teachers more. — Are you selling to schools or institutional clients?

The headline that caught my eye this week was "How Big Batteries Could Prevent Summer Power Blackouts." Here's my take:   May 14 in Texas should have been a grid disaster. Temperatures hit 104°F in Laredo while gas generators sat offline for maintenance. But batteries kicked in and renewables carried nearly half the load. Crisis averted by technology that barely existed five years ago.   The numbers tell the transformation story. U.S. energy storage jumped from 18 to 25 gigawatts in just twelve months. Arizona tripled its battery capacity; Texas nearly doubled it. More telling: grid operators slashed their Texas blackout probability from 15 percent to under 4 percent based almost entirely on new battery installations.   The technology itself has evolved substantially. Modern storage systems discharge for eight hours versus thirty minutes a decade ago. Batteries now fundamentally alter how grid operators think about capacity planning.   The economics explain the speed of adoption. Battery costs dropped 19 percent last year to $125 per kilowatt-hour, making storage an attractive way to add capacity. And the technology continues to improve. One analyst captured the moment perfectly: "Storage is now where solar was maybe 10 years ago." https://lnkd.in/epbRskuN