AnswersPublished22 sources
Ouyang Minggao’s 2030 Battery Forecast: China Shipments Could Top 3,600 GWh
Ouyang Minggao forecast that global lithium ion battery demand could exceed 5,000 GWh by 2030, with China’s shipments surpassing 3,600 GWh—nearly twice its roughly 1,875 GWh total in 2025. For 2025, he cited 769 GWh of battery installations in China, up 40% year on year, alongside roughly 1,875 GWh of lithium ion ba...
Published byEdited with GPT-5.6 TerraImages generated with GPT Image 2
Research answer
Key takeaways
- Ouyang Minggao forecast that global lithium ion battery demand could exceed 5,000 GWh by 2030, with China’s shipments surpassing 3,600 GWh—nearly twice its roughly 1,875 GWh total in 2025.
- For 2025, he cited 769 GWh of battery installations in China, up 40% year on year, alongside roughly 1,875 GWh of lithium ion battery shipments, up 53%; China’s global shipment share exceeded 80%.
- His central technology message was not “solid state versus LFP”: high energy, high safety solid state development and low cost, long life LFP/sodium ion batteries are both necessary.
AI Prompt
openai.comCreate a landscape editorial hero image for this Studio Global article: What did Chinese Academy of Sciences academician Ouyang Minggao forecast at the 2026 World Power Battery Conference about China’s and the gl. Article summary: Ouyang Minggao’s central forecast was that by 2030 the global lithium-ion battery market would exceed 5,000 GWh, while China’s shipments would surpass 3,600 GWh—roughly double China’s 2025 level. [15] - **2025 scale and . Topic tags: general, general web. Style: premium digital editorial illustration, source-backed research mood, clean composition, high detail, modern web publication hero. Use reference image context only for broad subject, composition, and topical grounding; do not copy the exact image. Avoid: logos, brand marks, copyrighted characters, real person likenesses, fake screenshots, UI text, readable text, watermarks, charts with fake numbers, clic
China’s battery industry is entering a phase where scale alone is no longer the story. At the 2026 World Power Battery Conference in Yibin, Chinese Academy of Sciences academician Ouyang Minggao projected that global lithium-ion battery demand could exceed 5,000 GWh by 2030, while China’s lithium-ion battery shipments could top 3,600 GWh—almost double the approximately 1,875 GWh reported for 2025. 2
12
His outlook paired that growth forecast with a clear condition: the next stage requires safer batteries, AI-enabled research and operations, traceability across the battery lifecycle, and a credible recycling system.
The numbers behind the 2030 forecast
Ouyang’s starting point was the scale China had already reached in 2025:
- 769 GWh of domestic power-battery installations, up 40% year on year;
- approximately 1,875 GWh of Chinese lithium-ion battery shipments, up 53%;
- a global shipment share of more than 80%; and
- six Chinese companies among the global top 10 power-battery manufacturers, representing 70% of those companies’ combined installations.
12
The 2030 projection is therefore an industry outlook rather than a guarantee. It implies that battery demand will continue to expand across electric transport and energy storage, while China remains a major manufacturing center. 2
16
What Ouyang said China has achieved
Ouyang described major gains in lithium-ion battery capability: driving range rising from roughly 100 km to about 1,000 km, charging moving from hours to around 10 minutes, and cycle life advancing from a few hundred cycles to more than 15,000 cycles in relevant applications. Reports also placed costs in the range of RMB 0.3–0.5 per Wh. 21
Coverage differs on the precise cumulative cost-reduction percentage, with some reports citing 60% and others 90%. The consistent, source-backed conclusion is that battery costs have declined sharply while charging speed, range and durability have improved substantially. 5
6
Three priorities for the next stage
Ouyang framed the sector’s future around three connected priorities: full-process safety, AI across the value chain, and low-carbon lifecycle management. 19
1. Safety must cover the full battery lifecycle
He called safety the industry’s “eternal theme.” The emphasis is broader than preventing a new battery from failing: safety must hold through charging, use, aging, diagnostics and retirement. 10
China’s mandatory GB 38031-2025 safety standard, which took effect on July 1, requires batteries not to catch fire or explode, requires smoke not to harm occupants, and retains those requirements in an external-short-circuit test after 300 fast-charge cycles. 19
That matters because higher energy density increases technical and safety constraints. In Ouyang’s framing, performance gains cannot be separated from safety engineering. 21
2. AI is becoming battery infrastructure
Ouyang argued that AI will reshape battery design, manufacturing and management across the technology, industrial and value chains. He characterized the next five years as a key window for shifting battery R&D toward AI-based development platforms. 3
This is particularly relevant to all-solid-state batteries, which he described as exceptionally difficult to develop and industrialize. AI is presented as an accelerator for research—not as proof that those engineering challenges have already been solved. 3
23
He also connected AI to operational management: supply-chain and manufacturing data, large models, embedded sensors and closer cell-chip integration could support lifecycle quality management. 3
3. Digital battery identities and recycling will become essential
As battery volumes rise, tracking each battery from production through use and retirement becomes more important. Ouyang pointed to electronic battery identification requirements in Europe and China’s push for a digital identity for each battery, enabling more traceable lifecycle management. 3
The issue becomes especially urgent as early electric-vehicle batteries retire. Ouyang projected that China’s retired-battery total could exceed 2 million tonnes by 2030, making recycling both an industrial challenge and a major opportunity. 2
19
His resource argument has two time horizons:
- In the near to medium term, commercializing sodium-ion batteries could help moderate lithium-resource price volatility.
- Over the longer term, he expects recycled materials to become the dominant supply after 2050, reducing dependence on virgin mineral inputs.
3
21
Why solid-state batteries are not replacing LFP
One of the most useful parts of Ouyang’s outlook is its rejection of a single-winner narrative. He described two future battery paths as equally necessary. 9
17
High specific energy and high safety
The first path moves from today’s liquid lithium-ion batteries through solid-liquid hybrid designs toward all-solid-state batteries. It targets higher specific energy and high safety, but it also faces greater technical difficulty as energy density rises. 9
21
Low cost and long life
The second path centers on lithium iron phosphate (LFP) and sodium-ion batteries. It prioritizes affordability, durability and scalable deployment rather than maximum energy density. 17
21
The implication is practical: solid-state batteries are a long-term innovation track, while LFP and sodium-ion technologies remain central to cost-conscious, long-life applications. Ouyang’s message was that the industry needs both paths, rather than treating one as an immediate substitute for the other. 9
17
The bottom line
Ouyang’s 2030 forecast points to an enormous expansion in lithium-ion battery demand: more than 5,000 GWh globally and more than 3,600 GWh in China. But the more consequential takeaway is the roadmap behind the figures. Sustained growth will rely on lifecycle safety, AI-assisted R&D and management, battery traceability, recycling capacity and parallel investment in both solid-state and LFP/sodium-ion technologies. 2
3
19
For manufacturers, policymakers and buyers, the battery race is increasingly about whether scale can be made safe, traceable, cost-effective and circular—not simply about producing more cells.
Studio Global AI
Continue your research
This page includes a source-backed answer you can continue inside Studio Global.
People also ask
What is the short answer to "Ouyang Minggao’s 2030 Battery Forecast: China Shipments Could Top 3,600 GWh"?
Ouyang Minggao forecast that global lithium ion battery demand could exceed 5,000 GWh by 2030, with China’s shipments surpassing 3,600 GWh—nearly twice its roughly 1,875 GWh total in 2025.
What are the key points to validate first?
Ouyang Minggao forecast that global lithium ion battery demand could exceed 5,000 GWh by 2030, with China’s shipments surpassing 3,600 GWh—nearly twice its roughly 1,875 GWh total in 2025. For 2025, he cited 769 GWh of battery installations in China, up 40% year on year, alongside roughly 1,875 GWh of lithium ion battery shipments, up 53%; China’s global shipment share exceeded 80%.
What should I do next in practice?
His central technology message was not “solid state versus LFP”: high energy, high safety solid state development and low cost, long life LFP/sodium ion batteries are both necessary.