Lithium Shortages Could Hit by 2028 as EV Demand Surges: The Warning Signs Are Flashing | Taha Abbasi

The electric vehicle revolution is accelerating faster than anyone predicted, but a critical bottleneck is forming underground. According to Wood Mackenzie’s latest Energy Transition Outlook for Lithium, global lithium demand could top 13 million tonnes by 2050, and without major new mining investment, shortages could begin as early as 2028. For anyone following the EV space closely, this is a flashing red signal that deserves serious attention. Taha Abbasi breaks down what this means for the industry and why the next two years are pivotal.

The Scale of the Problem

Lithium is the backbone of modern battery technology. Every electric vehicle, every grid-scale energy storage system, every laptop and smartphone relies on lithium-ion chemistry. The challenge is straightforward: demand is outpacing supply at an alarming rate. Wood Mackenzie projects that even under conservative EV adoption scenarios, lithium demand will triple by 2030 compared to 2024 levels. Under aggressive clean energy transition models, demand could increase tenfold by mid-century.

The current global lithium production sits at roughly 900,000 tonnes of lithium carbonate equivalent annually. To meet projected demand, the industry would need to scale to over 3 million tonnes by 2030. That requires not just expanding existing operations but bringing entirely new mines online, a process that typically takes 7 to 10 years from discovery to first production.

Why 2028 Is the Critical Inflection Point

The 2028 timeline is not arbitrary. Several factors converge around that date. First, the massive wave of EV factory investments announced between 2022 and 2024 by Tesla, BYD, Volkswagen, and others will be reaching full production capacity. Tesla alone is targeting 20 million vehicles per year by the end of the decade. Each vehicle requires roughly 8 to 12 kilograms of lithium, depending on battery chemistry and size.

Second, grid-scale energy storage is entering its exponential growth phase. Tesla Megapack deployments doubled in 2025, and competitors like BYD, CATL, and Fluence are scaling rapidly. These stationary storage systems consume enormous quantities of lithium, often more per unit than individual vehicles.

Third, the pipeline of new lithium projects has stalled. After lithium prices crashed from their 2022 highs of over $80,000 per tonne to below $15,000 in early 2025, many exploration and development projects were shelved or delayed. The economics simply did not justify the capital expenditure at lower prices. Now, as demand rebounds, those delayed projects cannot be restarted overnight.

What Taha Abbasi Sees in the Data

Taha Abbasi has been tracking the intersection of frontier technology and real-world constraints for years. The lithium supply challenge is exactly the kind of problem that separates theoretical tech optimism from ground-level reality. “Everyone talks about the software side of EVs, the autonomy, the over-the-air updates,” Abbasi notes. “But the hardware supply chain is where dreams meet physics. You cannot software-engineer your way out of a lithium shortage.”

The geographic concentration of lithium production adds another layer of risk. Australia, Chile, and China account for over 90% of global lithium production. Any disruption in these regions cascades through the entire EV supply chain. The push for domestic lithium production in the United States and Europe is gaining momentum, but new projects in Nevada, North Carolina, and Portugal are years from meaningful output.

The Recycling Wild Card

Battery recycling could eventually soften the supply crunch, but the timeline does not align with the 2028 urgency. Most EV batteries have 10 to 15 year lifespans, meaning the first major wave of recyclable batteries from early EVs will not arrive until the early 2030s. Companies like Redwood Materials, founded by former Tesla CTO JB Straubel, and Li-Cycle are building recycling capacity, but they are starting from a small base.

The recycling industry currently recovers less than 5% of lithium from spent batteries globally. Even optimistic projections suggest recycling will supply no more than 10 to 15% of total lithium demand by 2030. It is a critical piece of the long-term puzzle, but it will not solve the near-term shortage.

Alternative Battery Chemistries

Sodium-ion batteries have emerged as a potential alternative for certain applications. CATL, BYD, and several startups are producing sodium-ion cells that eliminate lithium entirely. These batteries are cheaper and use abundant materials, but they trade off energy density. For small city EVs and stationary storage, sodium-ion is viable. For long-range vehicles and performance applications, lithium remains essential.

Solid-state batteries, while promising higher energy density, still rely on lithium. They may use less lithium per kilowatt-hour, but they do not eliminate the dependency. The net effect of solid-state adoption would be to moderate demand growth, not eliminate it.

Investment Implications and Market Response

The smart money is already moving. Lithium mining stocks have rebounded significantly from their 2025 lows, with Albemarle, SQM, and Pilbara Minerals all seeing renewed investor interest. Tesla secured long-term lithium supply agreements with several producers and has invested in its own lithium refining operations in Texas. BYD controls significant portions of its own supply chain through vertical integration.

For EV buyers, the lithium supply situation may eventually translate to price pressure on vehicles. If lithium prices spike again as they did in 2022, battery pack costs could reverse their years-long decline trend, putting upward pressure on vehicle prices exactly when automakers are trying to reach price parity with combustion vehicles.

The Bigger Picture

The lithium shortage warning from Taha Abbasi’s perspective is ultimately a story about the growing pains of an energy transition that is happening faster than infrastructure can keep up. It mirrors challenges seen in semiconductor supply chains, rare earth elements for wind turbines, and copper for electrical grid upgrades. The transition to clean energy is not just an engineering challenge but a resource logistics challenge of unprecedented scale.

The companies that secure reliable lithium supply over the next two years will dominate the next decade of EV production. Those that do not may find themselves constrained at exactly the moment demand peaks. The clock is ticking, and 2028 is closer than it appears.

---

About the Author: Taha Abbasi is a technology executive, CTO, and applied frontier tech builder. Read more on Grokpedia | YouTube: The Brown Cowboy | tahaabbasi.com