Tony Seba Models 100% Solar-Wind Grid Yielding Free Power by 2030

Tony Seba

Oversizing solar and wind generation three to five times cuts required battery storage to just one to four days while generating superabundant, near-zero-cost power capable of fully electrifying transport and heating.

AI-assisted summary of Rethinking Energy -- 100% Solar, Wind and Batteries Is Just The Beginning — original source. Check the original for full context.

Source published: 2021-02-16

Key ideas

A 100% solar, wind, and battery (SWB) electric grid completed between 2021 and 2030 represents the cheapest possible power system, driven by learning curves rather than subsidies or policy mandates. (0:00)
Transitioning the entire US electric grid to 100% SWB by 2030 requires approximately $2 trillion in capital investment, or roughly 1% of US GDP over a ten-year period. (5:00)
Oversizing solar and wind generation by 3x to 5x reduces battery storage requirements to just 1 to 4 days, debunking assumptions that multi-month seasonal storage is necessary. (5:00)
Sizing capacity for worst-weather days creates superabundant, near-zero marginal cost electricity ('superpower'), generating surplus energy on 93% of days in California and Texas and 63% of days in New England. (5:00)
SWB economics behave like information technology: an incremental 20% capital investment in California beyond the base grid buildout can yield a 200% to 300% surge in superpower, enough to cover transport, residential, and commercial heating. (9:56)

Detailed notes

## Background Published on YouTube by Tony Seba on February 16, 2021, this presentation forms part of the Joint Declaration published by the Global 100% RE Strategy Group. Drawing on his research report, Seba outlines the technical and economic roadmap for building a 100% solar, wind, and battery power grid by 2030.

## TL;DR Tony Seba argues that the convergence of steep cost declines in solar, wind, and batteries (SWB) makes a fully renewable grid the cheapest possible electricity system by 2030. By optimizing generation and storage along a clean energy 'U-curve,' systems can overbuild generation three to five times, cutting required battery storage down to just one to four days and rendering seasonal multi-month storage obsolete. This deliberate overbuilding generates massive seasonal surpluses of clean electricity termed 'superpower' at near-zero marginal cost, unlocking enough clean energy to electrify transport, heating, and heavy industry while sparking widespread economic abundance.

## Atmosphere & style The presentation carries the crisp, authoritative cadence of a Silicon Valley tech keynote, driven by unrelenting data, cost-curve projections, and analytical conviction. Seba speaks with cool, matter-of-fact confidence, dismantling long-held energy orthodoxy not through moralizing environmental appeals, but through strict technological learning rates and market economics. The delivery evokes an exhilarating sense of inevitability, making a future of clean, superabundant energy feel both mathematically sound and economically unstoppable.

## Bulletin - [00:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=0s) A 100% solar, wind, and battery (SWB) electric grid completed between 2021 and 2030 represents the cheapest possible power system, driven by learning curves rather than subsidies or policy mandates. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) Transitioning the entire US electric grid to 100% SWB by 2030 requires approximately $2 trillion in capital investment, or roughly 1% of US GDP over a ten-year period. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) Oversizing solar and wind generation by 3x to 5x reduces battery storage requirements to just 1 to 4 days, debunking assumptions that multi-month seasonal storage is necessary. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) Sizing capacity for worst-weather days creates superabundant, near-zero marginal cost electricity ('superpower'), generating surplus energy on 93% of days in California and Texas and 63% of days in New England. - [09:56](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=596s) SWB economics behave like information technology: an incremental 20% capital investment in California beyond the base grid buildout can yield a 200% to 300% surge in superpower, enough to cover transport, residential, and commercial heating.

## Key takeaways - [00:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=0s) The energy transition over the next 10 to 15 years is driven strictly by economic dynamics and technology cost curves, mirroring the disruption of internal combustion engines by electric vehicles. - [00:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=0s) Between 2010 and 2020, capital costs fell 82% for solar PV, 46% for wind, and 87% for battery storage, with aggregate SWB costs projected to drop an additional 70% during the 2020s. - [00:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=0s) Unsubsidized solar is the cheapest electricity source in history, and pairing solar or wind with 4 hours of battery storage is already cheaper than paying the operating costs of existing legacy power plants. - [00:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=0s) Modeling granular, real-world demand and generation in markets like California, Texas, New England, and India reveals that generation and storage scale non-linearly across a clean energy U-curve. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) Conventional analysts err by treating renewable replacement as a 1:1 capacity swap requiring massive seasonal storage, whereas optimizing capital expenditure requires only 1 to 4 days of battery storage. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) Because generation hardware is drastically cheaper than physical storage, oversizing solar and wind capacity by 3x to 5x represents the absolute least-cost architecture for 100% grid reliability. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) The entire US power grid can transition to a 100% SWB system by 2030 for $2 trillion, representing approximately 1% of GDP over a ten-year timeline. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) Oversized generation produces massive volumes of 'superpower'—superabundant electricity at near-zero marginal cost during the vast majority of the year. - [05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) Even resource-constrained regions like New England produce free surplus energy exceeding twice the grid's daily demand on 63% of days each year. - [09:56](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=596s) Unlike extractive fossil fuels, SWB exhibits disproportionate returns to incremental capital, where adding 20% more capital can generate 200% to 300% more superpower. - [09:56](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=596s) Baseline superpower from a 100% SWB grid in California generates enough zero-cost energy to satisfy 100% of all road transportation miles if the state's vehicle fleet is electrified. - [09:56](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=596s) Expanding capital investment in California by 20% yields sufficient clean electricity to power existing electric demand, all transport, residential heating, commercial heating, and part of industrial heat. - [09:56](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=596s) 100% SWB and superpower establish a foundation for a new era of clean prosperity, creating zero-carbon industries and addressing United Nations Sustainable Development Goals by replacing resource scarcity with abundance.

## Detailed walkthrough ### [00:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=0s) The Coming Disruption of Energy: Cost Curves and the SWB Convergence

Tony Seba opens by declaring that the world is standing on the precipice of the fastest, deepest, and most consequential transformation in energy seen in a century. This transition is not driven by mandates or charity, but will unfold over the next 10 to 15 years for purely economic reasons. Seba recalls how, in 2010, his forecast that internal combustion engine (ICE) vehicles would be obsolete by 2030 was dismissed by mainstream analysts as an insane prediction; conventional wisdom asserted that electric vehicles (EVs) would not reach parity until the 2050s or 2060s. Yet his cost curve projections pinpointed the EV tipping point precisely around 2020 to 2021, an inflection validated when Tesla became the most valuable automaker on Earth and the CEO of Volkswagen publicly conceded that the automotive disruption will indeed transpire over the coming decade.

The exact same economic dynamic that is dismantling the internal combustion engine is now targeting electric power generation through the convergence of solar, wind, and batteries (SWB). Drawing from his report *Rethinking Energy: 100% Solar, Wind, and Batteries Is Just the Beginning*, Seba examines whether a power grid built entirely on SWB without conventional backup is feasible by 2030. Unsubsidized solar is already the cheapest electricity source in human history, and combining solar or wind with four hours of battery storage—providing what the power industry terms "nearly firm power"—is now cheaper than merely paying the ongoing operating costs of legacy power plants. Because cost curves follow technology learning curves rather than commodity cycles, these technologies will continue their steep downward trajectory over the next decade.

To test the viability of a 100% SWB grid by 2030, Seba's team modeled granular, real-world solar and wind generation alongside real-world consumer demand profiles across diverse power markets, including California, Texas, New England, and India. The analysis uncovered a fundamental, non-intuitive property of these systems: generation and storage do not scale in lockstep. Instead, there is a non-linear relationship between generation capacity and energy storage capacity, mapping out an optimization curve with thousands of possible configurations capable of delivering 100% reliability.

```mermaid flowchart TD accTitle: SWB Cost Reductions and Market Disruption accDescr: Flowchart illustrating historical and projected cost declines of SWB technologies leading to grid parity and total displacement of conventional power.

subgraph Costs["Cost Trajectories (2010 to 2030)"] direction TB S["Solar Photovoltaics 2010–2020: -82% 2020–2030: -72%"] W["Wind Energy 2010–2020: -46% 2020–2030: -43%"] B["Battery Storage 2010–2020: -87% 2020–2030: -80%"] end

subgraph Economics["Economic Inflection Points"] FIRM["Solar/Wind + 4h Batteries (Nearly Firm Power)"] CHEAP["Cheaper than marginal operating costs of existing conventional assets"] end

subgraph Outcome["System Transformation"] DISRUPT["100% SWB Electric Power System Cheapest clean buildout by 2030"] end

S --> FIRM W --> FIRM B --> FIRM FIRM --> CHEAP CHEAP --> DISRUPT ```

- In 2010, mainstream energy analysts maintained that EVs would not achieve market dominance until the 2050s or 2060s, whereas Seba forecasted the tipping point for 2020–2021. - Solar photovoltaic capital costs declined by 82% from 2010 to 2020 and are projected to decline by another 72% between 2020 and 2030. - Wind power capital costs dropped by 46% between 2010 and 2020, with an expected further decrease of 43% by 2030. - Battery storage costs plunged 87% between 2010 and 2020, with an anticipated additional cost drop of 80% over the subsequent decade. - Across all three components, the SWB suite is on track to drop an aggregate 70% in cost during the 2020s. - “Solar today, unsubsidized, is the cheapest source of energy, period, in history ever today,” Seba emphasizes regarding current market realities.

---

[05:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=300s) The Clean Energy U-Curve, Storage Realities, and the Rise of Superpower

Seba explains that conventional analysts fail to understand clean energy disruption because they treat it as a one-to-one component substitution—assuming a single coal, gas, or nuclear plant must be replaced directly by an identical capacity of solar panels and massive banks of multi-month battery storage. In reality, the non-linear trade-off between generation and storage generates a clean energy "U-curve." By calculating the absolute least-cost capital expenditure point along this curve for various geographic regions, Seba's team discovered that reaching 100% SWB requires only one to four days of battery storage, thoroughly debunking the persistent belief that seasonal multi-week or multi-month storage is technically or economically mandatory.

The trade-off for needing only a few days of battery storage is oversizing generation capacity: building three to five times more solar and wind capacity than existing average grid demand. Because solar and wind modules are becoming extraordinarily cheap, overbuilding nameplate generation capacity is dramatically less expensive than overbuilding physical battery storage. Built to these specifications, a 100% SWB system initiated in 2021 and completed by 2030 represents the cheapest possible electric power system achievable without subsidies. Across the entire United States, fully building out this 100% SWB architecture would require approximately $2 trillion in capital investment, translating to just 1% of US GDP spread over ten years.

Crucially, designing a grid sized to meet demand on the darkest, least windy days of the year creates a staggering operational byproduct: during the rest of the year, the overbuilt generation capacity produces superabundant clean electricity at near-zero marginal cost. Seba terms this surplus energy "superpower." Even New England, which possesses some of the weakest combined solar and wind endowments in the United States, would enjoy free surplus power exceeding twice the grid's total daily demand on 63% of days throughout the year. In high-resource regions like California and Texas, superabundant, essentially free electricity is generated on 93% of days.

```mermaid flowchart LR accTitle: Clean Energy U-Curve Trade-off accDescr: Diagram contrasting high-storage versus high-generation trade-offs, showing the least-cost optimum and the emergence of superpower.

subgraph Optimization["Clean Energy U-Curve Architecture"] direction TB HighStore["1:1 Capacity Replacement (Requires weeks/months of batteries) Prohibitively Expensive"] LeastCost["Least-Cost Optimum • 3x to 5x generation overbuild • 1 to 4 days of battery storage"] HighStore -.->|"Optimize Capex"| LeastCost end

subgraph GenerationSurplus["Byproduct: Superpower"] direction TB Winter["Sized for worst weather days (Winter low-resource minimums)"] Surplus["Rest of year: Superabundant energy produced at near-zero marginal cost"] Winter --> Surplus end

LeastCost --> Winter ```

- Transitioning the entire US electric grid to 100% SWB by 2030 requires an estimated $2 trillion in capital expenditure, equivalent to roughly 1% of GDP over a ten-year timeline. - Because generation is oversized 3x to 5x to ensure system reliability during seasonal resource minimums, battery storage needs drop to just 1 to 4 days across analyzed geographies. - New England receives free surplus power greater than 200% of existing daily demand on 63% of days each year. - California and Texas generate surplus superpower on 93% of days every year. - Seba stresses the economic feasibility of this buildout, stating: “And what we found was that 100% SWB, if we start 2021 and we finish it by 2030, is the cheapest possible electric power system, period.”

---

[09:56](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=596s) Sectoral Disruption, Disproportionate Returns, and Abundant Clean Prosperity

Seba underscores that SWB systems exhibit an economic phenomenon never before seen in extractive, resource-based energy: disproportionate, non-linear returns to incremental capital investments. In a conventional fossil-fuel system, adding 20% more capital investment yields, at best, 20% more energy. In an SWB architecture, investing an incremental 20% beyond the baseline 100% grid buildout can yield an additional 200% to 300% of superpower generation. This behavior mirrors information economics, where the combination of photons and electrons unlocks zero-marginal-cost scaling that legacy fuels can never replicate.

This flood of near-zero-cost electricity fundamentally disrupts not just the power grid, but the entire macro-energy complex. In California, the baseline superpower generated by the core 100% SWB buildout is already large enough to fuel every single vehicle-mile traveled if the state's entire automotive fleet were electrified—providing that transport power entirely for free. If capital investment in California is expanded by just 20% above the baseline buildout, the resulting superpower can cover 100% of existing electric power, 100% of electrified transport, 100% of residential heating, 100% of commercial heating, and a substantial share of high-temperature industrial heat.

Concluding his address, Seba highlights that every major expansion of human civilization and prosperity throughout history has been accompanied by access to cheaper and more abundant energy. Deploying 100% SWB grids is merely the foundation of a transformative economic shift. Superpower provides the platform to foster entirely new zero-carbon industries, reduce poverty, and fulfill the United Nations Sustainable Development Goals by replacing scarcity with clean, superabundant abundance.

- An incremental 20% capital investment in an optimized SWB system can unlock a 200% to 300% increase in total available superpower output. - Baseline superpower from California’s 100% SWB grid is sufficient to power 100% of all road transportation miles if all vehicles in the state are converted to electric drivetrains. - Increasing SWB investment in California by 20% supplies enough zero-marginal-cost energy to satisfy existing electrical consumption, complete vehicle electrification, residential space and water heating, commercial heating, and a portion of industrial process heat. - Seba points out the economic paradigm shift: “To think about this in another way, this looks more like information economics. It looks like photons plus electrons basically give you disproportionate positive returns.” - Emphasizing the broader human impact, Seba concludes: “Superpower, 100% SWB, are the keys to a new prosperity to developing new industries, and to solving the world's most intractable issues as defined by the United Nations sustainable development goals.”

## Notable quotes > [00:00](https://www.youtube.com/watch?v=PM2RxWtF4Ds&t=0s) Solar today, unsubsidized, is the cheapest source of energy, period, in history ever today — Tony Seba

## Mentioned Tony Seba, Tesla, Volkswagen, United Nations, Global 100% RE Strategy Group, Rethinking Energy: 100% Solar, Wind, and Batteries Is Just the Beginning

## Video description This presentation forms part of the Joint Declaration recently published by the Global 100% RE Strategy Group. Sign the declaration here: https://global100restrategygroup.org

[Source](https://www.youtube.com/watch?v=PM2RxWtF4Ds)

中文简报

托尼·塞巴建模预测：100%光伏风电电网将在2030年实现近乎免费供电超额配置3至5倍光伏与风电发电量，可将所需电池储能缩减至仅1至4天，同时产生极度充裕、边际成本近乎为零的电力，足以全面实现交通和供暖电气化。托尼·塞巴（Tony Seba）指出，光伏、风电和电池储能（SWB）成本的急剧下降，使其在2030年成为最廉价的电力系统。通过沿清洁能源“U型曲线”优化发电与储能，系统可将发电装机超配3至5倍，从而将所需储能时长削减至仅1至4天，使长达数月的跨季节储能变得不再必要。这种刻意的过度建设会带来巨量的季节性清洁富余电力（被称为“超级电力”），其边际成本近乎为零，足以支撑交通、供暖和重工业的全面电气化，进而催生广泛的经济繁荣。在2021至2030年间建成的100%光伏、风电和电池储能（SWB）电网，将是由学习曲线而非补贴或政策指令驱动的最经济的电力系统。 (0:00) 到2030年将全美电网完全转型为100% SWB，大约需要2万亿美元的资本投资，相当于十年内美国GDP的约1%。 (5:00) 将光伏和风电装机超配3至5倍，可将电池储能需求降至仅1至4天，打破了必须依赖长达数月跨季节储能的预设假定。 (5:00) 按最恶劣天气条件设计装机容量，会产生极度充裕、边际成本近乎为零的“超级电力”，使加利福尼亚州和得克萨斯州在93%的天数内、新英格兰地区在63%的天数内都能产生富余电力。 (5:00) SWB的经济特性类似于信息技术：在加州电网基础建设之外增加20%的增量资本投资，即可带来200%至300%的超级电力激增，足以覆盖交通以及居民和商业供暖需求。 (9:56)

Reading summary

Tony Seba argues that the rapid cost convergence of solar, wind, and battery storage (SWB) will make a 100% clean power system the cheapest electricity option by 2030, driven entirely by economic dynamics rather than subsidies or mandates. Technology Cost Curves and the SWB Convergence (0:00) Seba contends that electric power is undergoing the same disruption that overturned internal combustion engine vehicles, which he projected in 2010 to reach an inflection point around 2020–2021 despite mainstream forecasts delaying parity to the 2050s. This transformation is driven by technology learning curves rather than commodity cycles. Between 2010 and 2020, capital costs dropped 82% for solar photovoltaics, 46% for wind power, and 87% for battery storage. Seba projects further cost declines from 2020 to 2030 of 72% for solar, 43% for wind, and 80% for batteries, resulting in an aggregate 70% decline across the SWB suite during the 2020s. According to Seba, unsubsidized solar has already become the cheapest electricity source in history. When paired with four hours of battery storage to provide "nearly firm power," SWB systems are already cheaper to build and operate than merely paying the marginal operating costs of existing conventional power plants. Because these cost reductions continue downward, Seba asserts that the displacement of legacy generation assets is economically inevitable. The U-Curve and Generation Overbuilding (5:00) Mainstream energy modeling often assumes conventional plants must be replaced on a one-to-one capacity basis, requiring weeks or months of battery storage to manage seasonal intermittency. Modeling by Seba's team across diverse regions—including California, Texas, New England, and India—indicates that generation and storage do not scale linearly. Instead, they trace an optimization curve with thousands of viable configurations. The least-cost capital expenditure solution along this "clean energy U-curve" requires overbuilding solar and wind generation capacity to three to five times existing average grid demand while installing only one to four days of battery storage. Because solar panels and wind turbines are dramatically cheaper than physical storage hardware, overbuilding generation capacity drastically minimizes total system costs. Seba estimates that building a 100% SWB grid across the entire United States between 2021 and 2030 would require approximately $2 trillion in capital investment, or roughly 1% of US GDP over a decade. Superpower and Non-Linear Economic Returns (9:56) Because an optimized SWB grid is sized to fulfill demand during the least favorable weather days of the year, it creates a massive operational surplus of electricity at near-zero marginal cost throughout the rest of the year. Seba defines this surplus as "superpower." In New England, surplus power exceeding twice the daily grid demand is generated on 63% of days each year, while resource-rich regions like California and Texas generate superpower on 93% of days. Seba highlights that SWB systems demonstrate an economic property akin to information economics: disproportionate returns to incremental capital investment. Unlike extractive fossil fuel systems where capital yields linear energy outputs, adding 20% more capital investment to an SWB baseline can expand superpower generation by 200% to 300%. In California, the baseline surplus alone is modeled to fully power a 100% electrified vehicle fleet for free. With an additional 20% capital investment, superpower generation would satisfy 100% of current electricity demand, complete vehicle electrification, residential and commercial heating, and a portion of industrial process heat. Seba concludes that deploying a 100% SWB grid transitions the global economy from extractive energy scarcity to clean energy abundance. By providing vast volumes of electricity at near-zero marginal cost, superpower is presented as the foundation for creating new zero-carbon industries and advancing the United Nations Sustainable Development Goals.

精炼阅读摘要

Tony Seba认为，由太阳能、风能与电池储能构成的SWB系统正遵循陡峭的技术学习曲线快速降本，并将在未来10至15年内完全基于纯粹的经济规律颠覆传统电网，催生边际成本近乎为零的超丰裕“超级能源”。 SWB成本学习曲线与发电平价拐点 (0:00) Seba指出，当前的能源转型由技术学习曲线而非大宗商品周期驱动，纯粹出于经济逻辑展开。2010年至2020年间，太阳能光伏资本成本下降82%，风电下降46%，电池储能骤降87%；其模型预测在2020至2030年间，三者成本还将分别进一步下降72%、43%和80%，推动SWB整体成本在2020年代累计再降70%。目前无补贴的太阳能已被证实为人类历史上最便宜的电力来源。当太阳能或风电与4小时电池储能结合提供“准基荷电力”（nearly firm power）时，其发电成本已低于传统遗留电厂的日常运营成本。Seba强调，正如他在2010年准确预测电动汽车将在2020至2021年迎来平价拐点一样，SWB组合的经济优势正在以不可逆的动力终结传统化石能源资产。 U型曲线优化与轻储能过建架构 (5:00) 针对主流观点认为100%可再生能源电网必须配备数周甚至数月昂贵储能的质疑，Seba指出这一误解源于将化石能源电厂按1:1等额替代的机械思维。其团队通过对加州、德州、新英格兰及印度等地真实发电与负荷数据的模拟发现，发电装机与储能规模之间存在非线性权衡关系，构成了一条资本支出优化的“清洁能源U型曲线”。由于光伏和风机组件极为廉价，系统最优解是将发电装机容量过度配置为电网平均负荷的3至5倍。在此架构下，满足系统全天候100%可靠性所需的电池储能大幅削减至仅需1到4天，打破了对长期储能的技术迷信。Seba估算，全美在2021至2030年间彻底建成100% SWB电网所需资本支出约为2万亿美元，仅占同期美国GDP的1%左右，且完全不需要政策补贴。 “超级能源”的自然衍生与零边际成本 (5:00) 为了确保电网在一年中日照最弱、风力最小的恶劣天气下仍能平稳运行，3至5倍的过建装机会在全年中绝大部分时间产生海量过剩电力，Seba将这种副产品定义为“超级能源”（superpower）。由于产生这些额外电能无需消耗额外燃料，超级能源具备近乎为零的边际成本。这种能源丰裕现象覆盖广泛：即便是全美风光资源禀赋较弱的新英格兰地区，一年中也有63%的天数能产生超过日常总需求两倍以上的免费富余电量；而在加州和德州等资源丰富的地区，一年中多达93%的天数处于超级能源的充裕状态。这彻底逆转了传统能源管理中以稀缺和限电为核心的运行范式。非线性资本回报与全行业脱碳前景 (9:56) Seba强调，SWB体系展现出传统化石燃料能源从未具备的信息经济学特征——非线性的超额资本回报率。在传统能源中，增加20%的资本投入至多换取20%的产出；而在最优SWB电网的基础上若追加20%资本投入，释放出的超级能源产量可跃升200%至300%，实现光子与电子结合带来的规模效应。这种极度廉价的电力外溢效应将重塑整个宏观能源架构。以加州为例，基准100% SWB电网产生的超级能源已足以免费驱动全州汽车车队全部电动化后的运行里程；若在基准投资上追加20%资金，所获得的电力不仅能完全覆盖现有电网需求和全部交通电动化，还能全面承接居民供暖、商业供暖以及相当比例的高温工业热能需求。 Seba总结认为，人类文明与繁荣的历史本质上是由更廉价、更丰裕的能源所驱动的，100% SWB电网只是新型能源范式的起点，能够为新工业门类提供动力并推动联合国可持续发展目标的实现。然而，这一前景高度依赖于未来十年成本曲线如期下降、全产业链电气化消纳能力以及对超额装机电网的调度适应性，具体落地过程中的土地使用与电网改造等现实挑战仍有待观察。

Source quotes

[0:00] Tony Seba: Solar today, unsubsidized, is the cheapest source of energy, period, in history ever today

Original transcript

[0:00] We're on the cusp of the fastest, deepest, most consequential transformation of energy in 100 years. my work on disruption. has shown that it's going to happen over the next 10, 15 years. for purely economic reasons. You know, in 2010, when I said that the internal combustion engine automobile would be obsolete by 2030. Many thought it was an insane prediction, most So, that I also said, that the tipping point for the electric vehicle disruption would happen around 2020 or 2021. And then it would accelerate. The mainstream view was this would not happen until the 2050s or 60s. And of course they said I was insane. Some of them are still saying that, but my numbers the cost curves of batteries and electric vehicles and so on, were clear on how it would happen. And now, of course, we saw over the last year how Tesla broke through. and became the most valuable auto company on earth. And we saw recently also that the CEO of VW said that yes, this disruption is going to happen over the next decade. which is exactly what I said 10 years ago. And they probably wish they had paid attention to me back then. So in terms of energy, "My work." indicates that the convergence of solar batteries and wind is going to do the same thing to energy generation that electric vehicles are going to do to the internal combustion engine automobile. So let's look. at my latest report. Rethinking energy, 100% solar wind and batteries, is just the beginning. So the question that I asked, that we asked ourselves was this: is 100% solar-ridden batteries is a system It's an electric power system. that is composed only of solar wind and batteries possible. by 2030. So as background to that, Let me show you that Over the last 10 years, as most of you probably know, solar and wind both have become the cheapest sources of energy. Solar today, unsubsidized, is the cheapest source of energy, period. in history ever today. So this is not in the future. This is actually today. Not only that, The convergence of solar plus batteries, four hours of batteries, which the industry calls a nearly firm power or wind in batteries. is already cheaper, not just than any other source of energy, It's cheaper than the operating costs, of everything else. So today it makes no sense to invest in any form of conventional generation. And on top of that, the cost curves, for solar, wind and batteries, basically show that they're going to get about 70% on the whole cheaper over the next 10 years. So the cheapest source of energy is going to get 70% cheaper. Solar went down in cost by about 82%, and we expect the next decade to see 72% drop in costs. Wind, went down by 46% since 2010, and we expect another 43% drop. Batteries, went down by 87%. in costs over the last 10 years. and we expect them to go down by another 80% over the next 10 years. So the question of whether 100% solar, wind and batteries, what we call SWE electric power system, basically yielded very interesting findings. Is it possible? by 2030 and how much will it be? So we took real-world energy generation data, generation from solar and wind. And also we took real world demand data. for several markets, larger markets. india california texas new england and so on and we took that and we analyzed how it would grow to be 100 in those markets the first key finding that is non-intuitive is this there is a non-linear relationship. between generation and storage. So there are thousands. of possible energy systems that are along that U-curve that are 100% SWB, thousands. [5:00] So it is possible. um And there is a nonlinear trade-off. between generation and storage. So that's another key feature of disruption. This is not a one-to-one substitution. where you take one coal mine, one coal power plant or nuke or whatever, and you substitute that one. with solar plus storage. This is a completely new system. completely different system. So there's a nonlinear trade-off. How do you choose? for the least cost system. We did that calculation. And this red line shows what the lease cost system is. um, for several regions and what we found was because of that nonlinear trade-off is that To have 100% SWB, you can do that with anywhere from one day to four days of storage. That's it. So the idea of seasonal storage where you need weeks or maybe months of storage, is Not quite right, because this is not a one to one substitution. So only one to four days of storage are needed, depending on the region. But to do that. you need to build capacity for solar and wind, that essentially is three to five times what the demand is today. So because solar is getting to be so cheap, you can essentially build a lot more capacity in order to have less battery storage. So like I said, we did that work for many regions. And what we found, was that 100% SWB, if we start 2021, and we finish it by 2030, is the cheapest possible electric power system, period. No subsidies, nothing. So if we start building a 100% SWB system today, it will be the cheapest power system. And we could stop there. I mean, in the United States, it would cost about $2 trillion to fully electrify 100% SWB. which is 1% of GDP over the next 10 years. but wait there's more another key finding. is that this system, because it's designed for the lowest possible combination of wind and solar resources, essentially, will create super abundant near zero marginal cost energy the rest of the year. Zero cost clean energy, superabundant the rest of the year. We call that superpower. Now, what does that mean? So for these regions, California, Texas, New England, for instance, New England has the poorest solar or wind resources in the nation. And yet, when you build 100% SWB system, there are 63% of days when you will get more than twice the generation that you get today for free. This is extra power for free, super abundant clean, that superpower. In California and Texas, you get free super abundant power 93% of days. Another key finding, Is this there are disproportionate returns. to incremental investments in this infrastructure. So what does that mean? It means that once you have this 100% SWB system, If you invest, for instance, 20% more, you may get up to 300% more energy. More superpower. we have never seen repeat an extra 20 investment may get you 200-300% more superpower. We have never seen this in resource-based energy. the existing conventional system could never ever compete with this. To think about this in another way, this looks more like information economics. It looks like photons plus electrons basically give you disproportionate positive returns. And that's why it's so disruptive. which is another key finding. Superpower is disruptive not just to electric power. It's disruptive to all forms of energy. So in California, for instance, when you invest in the basic 100% SWE, you get all of this additional superpower that can [10:00] power every single mile of transportation if every car a vehicle in California were electric. for free. Did I say free? If you invest in another 20% increase, and superpower, then you can cover today's electricity demand, plus transportation, electric, plus residential heat, Plus, commercial heat plus some, in Das Raheem. for free. all of this is additional superpower. So, This is disruptive. to all forms of energy assuming of course that we electrify cars and buildings and so on. And of course, Every time in history, we've seen cheap and abundant clean energy we have seen prosperity. "superpower", 100% SWD, are the keys to a new prosperity to developing new industries, and to solving the world's most intractable issues. as defined by the United Nations sustainable development goals. So let me summarize. Um, There is a nonlinear trade-off between generation and storage. It's a U-curve, clean energy U-curve. 100% SWB is not only possible by 2030, it's the cheapest possible energy system by 2040. Superpower means that not only is it the cheapest to generate 100% of what we consume today, it's going to generate Super abundant. essentially free electricity, which is disruptive to everything else. and 100% solar wind and batteries is just the beginning. because if you invest more, you're going to get disproportionate returns on that additional energy. Thank you.