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Chris Meder

@EVCurveFuturist9,257 subscribers

Futurist | Exponentialist | Humanist Electrification → #Bettrification Software → Automation → Intelligence Solar • Wind • Batteries • EVs • BESS • AI • BIO

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Across the Gobi Desert, autonomous tracked robots are transporting & installing solar panels with minimal human intervention, doubling installation efficiency. The energy transition isn't just about building more solar. It's about automating the infrastructure itself. #LFP #SWB

Across the Gobi Desert, autonomous tracked robots are transporting & installing solar panels with minimal human intervention, doubling installation efficiency. The energy transition isn't just about building more solar. It's about automating the infrastructure itself. #LFP #SWB

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The Dogger Bank Offshore Wind Zone is becoming one of the largest renewable energy projects on Earth. 🌊 ~9.3 GW planned capacity 🏠 Enough electricity for ~14-15 million UK homes ⚡ ~40-50 TWh annual generation 🗼 ~650+ offshore wind turbines 💰 £20B+ invested 📍 North Sea, 130-290 km off England's east coast Dogger Bank A, B & C (3.6 GW) are under construction now and expected to be fully operational by 2026-27. The wider Dogger Bank zone, including Sofia (1.4 GW), Dogger Bank South (3 GW) and Dogger Bank D (~1.5 GW proposed), pushes total capacity beyond 9 GW. For perspective, that's roughly equivalent to the annual output of 6-8 large nuclear reactors.

The Dogger Bank Offshore Wind Zone is becoming one of the largest renewable energy projects on Earth. 🌊 ~9.3 GW planned capacity 🏠 Enough electricity for ~14-15 million UK homes ⚡ ~40-50 TWh annual generation 🗼 ~650+ offshore wind turbines 💰 £20B+ invested 📍 North Sea, 130-290 km off England's east coast Dogger Bank A, B & C (3.6 GW) are under construction now and expected to be fully operational by 2026-27. The wider Dogger Bank zone, including Sofia (1.4 GW), Dogger Bank South (3 GW) and Dogger Bank D (~1.5 GW proposed), pushes total capacity beyond 9 GW. For perspective, that's roughly equivalent to the annual output of 6-8 large nuclear reactors.

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In Australia, under proposed national standards, new data centres must bring their own 100% renewable energy supply, firmed by batteries or gas. Crucially, this means new, additional renewable generation, not simply claiming certificates against generation already on the grid. And the scale is enormous. AEMO is already tracking 225 data centres in development, with data-centre electricity demand forecast to rise from around 3% of NEM consumption today to 13% by 2036, potentially around 34 TWh a year. Climate Change & Energy Minister Chris Bowen puts the challenge bluntly: “Data centres are huge consumers of electricity. They are whales.” In 2024, US data centres consumed as much electricity as the entire country of Sweden. Australia wants to get ahead of this. Australia isn't alone. Similar policy moves are underway in China, Germany and Ireland, but Australia's proposed framework is among the most aggressive: 100% renewable energy, tied to new additional generation and backed by firming, with the new rules intended to begin from 2027. Instead of allowing this enormous new load to compete with households and businesses for existing generation, Australia wants it to help finance the new supply needed to meet it. AI growth → electricity demand → renewable PPAs → new solar & wind → more batteries & transmission → stronger grid. This has always been part of my thesis: AI will become a major new demand engine for Australia's solar, wind and battery buildout, rather than a brake on the energy transition, potentially creating a blueprint the rest of the world can replicate. AI and renewables don't have to compete. Done right, each can accelerate the other. #SWB #Bettrification

Chris Meder

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Congrats to the Tesla team. This is a watershed moment for freight in America. $0.15/mile EV vs ~$0.50 diesel ($0.60+ when diesel spikes) Operating costs are the hero. Once fleets see it at scale and production ramps, sales will rocket. EV trucks will take over the roads. Extended POV: This isn’t about specs. It’s about economics under utilisation. Freight is brutal: high miles, heavy loads, tight margins. That’s exactly where EVs dominate. Core specs that matter: • Range: 325–500 miles (523–805 km) • Gross combination weight: up to ~82,000 lbs (37 t) • Energy use: ~1.7 kWh/mile fully loaded • Battery: ~600–900 kWh est • Motors: 3 independent rear motors Charging flips the model: • Megawatt charging (MCS) capable • ~60–70% in ~30 mins • ~400 miles recovered in a stop (real-world target) • Depot charging overnight = lowest cost energy Now the key part: At ~1.7 kWh/mile → $0.15/mile assumes ~$0.09/kWh depot energy Diesel: → ~6–7 mpg → $3–4/gal = ~$0.45–0.70/mile That gap is everything. And fleets scale that instantly. Then layer in: • near-zero idling losses • far less maintenance (no engine, gearbox, exhaust systems) • regenerative braking reducing wear • higher uptime And the system gets even stronger: → solar + battery depots pushing energy cost toward zero → load balancing across fleets → software routing + charging optimisation → predictable operating costs vs oil volatility This isn’t a truck upgrade. It’s a system rewrite. Diesel = fuel logistics Electric = energy + software Fleets don’t buy hype. They buy cost per mile. Once they hit scale production, it won’t be gradual. Fleet is where the system flips. ⚡🚛

Chris Meder

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