A First Step Toward Commercial Solid-State EVs

Verge Motorcycles has announced the start of production for its latest electric bike, the second-generation TS Pro, which it says features a fully solid-state battery system. Developed in collaboration with Finnish company Donut Lab, the model could mark a significant milestone if the technology performs as claimed.

Solid-state batteries have long been viewed as a breakthrough for electric mobility, offering the potential for higher energy density, faster charging, and improved safety. However, bringing such systems into mass production has proven difficult, and no major automaker has yet delivered a consumer vehicle powered entirely by this type of battery.

Verge TS Pro Electric Motorcycle Enters Production With Solid-State Battery


Why Solid-State Technology Matters

Unlike conventional lithium-ion batteries, solid-state designs replace liquid electrolytes with solid materials. This change is expected to reduce fire risks while enabling more compact and efficient energy storage.

Donut Lab previously presented ambitious figures for its battery technology, including energy density around 400 Wh/kg, rapid charging capabilities, and long cycle life. For comparison, most current EV batteries operate in the 200–250 Wh/kg range, making these claims particularly notable.

Despite these promising numbers, industry observers have expressed caution. While some independent test data has been shared, key technical details—such as the exact chemistry and long-term durability—remain unclear.


From Prototype to Production

Prior demonstrations of solid-state batteries have largely been limited to experimental platforms. For example, earlier showcase projects demonstrated feasibility but stopped short of delivering vehicles to customers.

Verge’s announcement suggests a transition from laboratory testing to real-world deployment. The company has confirmed that at least one production-ready TS Pro unit has been built, signaling that the concept is moving beyond prototypes.

Still, questions remain about scalability and consistency. Producing solid-state batteries without defects at a commercial level is widely considered one of the biggest challenges in the EV sector.


Battery Options and Range Figures

The updated TS Pro will be offered in two configurations. The entry-level version includes a 20.2 kWh battery pack with approximately 17 kWh usable capacity, delivering a claimed range of 217 miles. A larger option increases total capacity to 33.3 kWh (30 kWh usable), extending the estimated range to 370 miles.

These figures are broadly in line with high-end electric motorcycles, though the real distinction lies in charging performance rather than outright range.


Charging Speeds Take Center Stage

One of the most notable improvements in the second-generation model is charging time. The previous TS Pro required about 35 minutes to charge from 20% to 80%. The new version reportedly reduces this to around 12 minutes for a 10% to 80% session.

Verge also cites a peak charging rate of 200 kW, which is unusually high for a vehicle with a relatively small battery. If validated under real-world conditions, this could represent a major advantage for riders seeking minimal downtime during longer trips.


Performance and Design

Beyond battery technology, the TS Pro maintains strong performance credentials. Both versions produce up to 737 lb-ft of torque, delivered through the company’s distinctive hubless rear-wheel motor design. Acceleration from 0 to 60 mph is estimated at 3.5 seconds, placing it among the quicker electric motorcycles on the market.

This combination of high torque and rapid acceleration aligns with Verge’s focus on delivering both innovation and performance in a single package.


Pricing and Availability

In the United States, pricing for the TS Pro begins at $29,990, excluding additional fees. Opting for the larger battery increases the cost by approximately $5,000. Customers can secure a reservation with a $100 deposit.

Initial deliveries for early customers are expected to begin in the near term, while new orders may face longer waiting periods extending toward the end of the year.

Verge TS Pro Electric Motorcycle Enters Production With Solid-State Battery


Cautious Optimism Across the Industry

While the announcement has generated excitement, it has also been met with skepticism. Experts note that without transparent, third-party validation, it is difficult to confirm whether the battery meets its advertised specifications.

If the claims hold up, Verge’s TS Pro could represent a turning point, demonstrating that solid-state batteries are ready for real-world applications. If not, it will serve as another reminder of how challenging it is to move breakthrough technologies from concept to production.

For now, the industry will be watching closely as early units reach customers and independent testing begins to provide clearer answers.

Recommend Reading: Donut Lab Says Solid-State Battery Test Results Are Imminent

FAQs - Solid-State Batteries for Electric Vehicles

What is a solid-state battery in electric vehicles (EVs)?

A solid-state battery is an advanced energy storage technology that replaces the liquid or gel electrolyte in traditional lithium-ion batteries with a solid electrolyte. This design promises higher energy density, faster charging, and improved safety for electric vehicles.

How are solid-state batteries different from lithium-ion batteries?

Compared to conventional lithium-ion batteries, solid-state batteries:

  • Use solid electrolytes instead of flammable liquid electrolytes.
  • Offer higher energy density (more range in smaller size).
  • Support faster charging while reducing overheating risks.
  • Have the potential for longer cycle life and durability.
What are the main advantages of solid-state batteries for EVs?

Key benefits include:

  • Extended driving range (potentially over 500–700 miles per charge).
  • Enhanced safety due to reduced fire risks.
  • Faster charging speeds compared to current lithium-ion packs.
  • Longer lifespan, lowering total EV ownership costs.
What challenges are preventing mass production of solid-state batteries?

Despite their promise, solid-state batteries face hurdles such as:

  • High manufacturing costs compared to lithium-ion.
  • Scaling difficulties for large EV battery packs.
  • Durability issues with solid electrolytes under real-world conditions.
  • Need for new supply chains and production infrastructure.
Which automakers are developing solid-state batteries?

Several companies are investing heavily in solid-state EV technology, including:

  • Toyota (planning limited solid-state EVs by 2027).
  • BMW (working with Solid Power).
  • Volkswagen Group (via QuantumScape partnership).
  • Nissan (aiming for commercial use by 2028).
  • Startups like Factorial Energy, ProLogium, and SES are also key players.
When will solid-state battery EVs be available?

Industry forecasts suggest commercial solid-state EVs may debut around 2027–2030. Toyota and Nissan are leading with pilot projects, while startups like QuantumScape aim to deliver solid-state cells to automakers before 2030.

How much longer can EVs drive with solid-state batteries?

Solid-state batteries are expected to provide 50%–100% more energy density than lithium-ion packs. This could extend EV ranges from today’s 250–350 miles to 500–700 miles per charge, depending on vehicle design and efficiency.

Are solid-state batteries safer than lithium-ion batteries?

Yes. Because they use non-flammable solid electrolytes, solid-state batteries greatly reduce risks of thermal runaway, fires, and explosions. This safety improvement is one of the biggest reasons automakers are pursuing solid-state technology.

How will solid-state batteries impact EV charging times?

Solid-state batteries could enable 10–15 minute ultra-fast charging while reducing heat buildup. This is significantly faster than most current lithium-ion EVs, which typically require 30–60 minutes at DC fast chargers to reach 80% capacity.

What is the future outlook for solid-state EV batteries?

The future of solid-state batteries looks promising but will likely follow a gradual adoption curve:

  • 2025–2027: Pilot programs and premium/luxury EV models.
  • 2028–2030: Wider adoption in mainstream EVs.
  • Beyond 2030: Potential to replace lithium-ion as the dominant EV battery technology, unlocking higher range, lower costs, and safer energy storage.

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