Dodge Charger Daytona muscle car will have solid-state batteries by 2026

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Solid-state battery on Dodge Charger Daytona promise to revolutionize electric vehicles, and ⁤Stellantis has announced⁤ that⁢ they will be‌ installed on this model by 2026. However, ‌before you get too excited, the Dodge Charger Daytona electric ‍it will only be a fleet⁢ of demonstration vehicles.

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​ ⁣ Dodge Charger Daytona ‌muscle ⁢car ‌will have solid-state batteries by 2026

Prototypes ⁤ The Dodge Charger Daytona will have a solid-state battery Factor with an energy density of more ​than 390 Wh/kg. The companies did not disclose many other‍ details, but said the battery ⁣offers⁤ “significant advantages” over traditional‌ lithium-ion batteries. ⁤These benefits include “higher energy density, reduced weight, improved performance and the ability to further reduce‍ total ​vehicle costs over time”.

It’s a winning combination, so both companies are taking the next ⁣step toward commercialization. As part‌ of ⁣this effort, prototypes ‍will be used to validate battery technology and evaluate performance in‍ real-world driving conditions.

Dodge Charger Daytona muscle car will have solid-state batteries by 2026
Solid-state battery ‌on Dodge Charger Daytona ⁢ it will revolutionize electric vehicles.

Stellantis invested $75 million⁣ in Factorial in 2021 and‍ the company’s Chief Technology and Engineering Officer, Ned‍ Curic,⁢ said: “By integrating ‌Factorial’s innovative battery solution into the STLA ⁢Large platform, we are validating the potential of this solution to enhance‍ our range of‌ electric vehicles. , ensuring customers benefit from improved performance, longer driving range and faster charging times for years to come”.

In other news, Stellantis unveiled a high-tech wind tunnel with “moving earth” technology at its ‌research and development center in​ Auburn Hills, Michigan. The automaker says the upgraded ⁢tunnel will allow it ​to “measure and reduce airflow resistance from wheels and tires, which ‌can be up‌ to 10 percent‌ of total real-world ‍aerodynamic⁣ drag.”

The Dodge Charger Daytona battery car will‌ be released in ‍2026-Figure-3




​ ⁢ But first, solid-state batteries will ‌be installed in ​Dodge Charger Daytona muscle car prototypes to test ⁤their real-world performance.

This promises to make future electric vehicles more ‌aerodynamic, help increase their range or enable the use of smaller and cheaper batteries. Apart from the emphasis on aerodynamics, there are also technological improvements including automation capabilities. As the automaker explained, “Wheel changes and track testing, which can take up to two hours in a traditional wind tunnel, ‍can now be done in ⁢minutes.”

With a presence in​ North America, it’s no surprise to learn that the wind tunnel ‌focuses on super-large vehicles based ⁢on the STLA Large and STLA Frame platforms.

Title: The Future of Electric Vehicles: An⁣ Interview⁢ with Battery Expert⁢ Dr. Emily Lawrence

Interviewer (Time.news Editor): ​ Welcome, Dr. Lawrence! Thank you for joining us today to discuss an exciting development ⁤in the world of electric⁣ vehicles—specifically, the Dodge Charger Daytona’s upcoming transition to solid-state batteries. What are your first thoughts on Stellantis’ ‌announcement?

Dr. Emily Lawrence: Thank‍ you for having me! I think ​it’s a monumental step for both Stellantis and the electric vehicle (EV) market. The prospect⁣ of solid-state batteries promises not ‍only enhanced performance but also long-overdue improvements in energy density and efficiency. The Dodge Charger Daytona could set a benchmark for future‍ EVs.

Interviewer: You mentioned energy density; can you explain why⁢ it’s such a significant factor in battery technology?

Dr. Lawrence: Absolutely! Energy ⁣density essentially‌ measures how much energy a‍ battery‌ can​ store relative ⁣to its weight. The Charger‍ Daytona’s solid-state battery ⁤boasts ⁣over 390 Wh/kg, ⁣which is a remarkable‍ figure compared to traditional lithium-ion batteries.⁢ A⁢ higher energy density means longer driving ranges and⁤ lighter overall⁢ vehicle weight, both critical for performance and efficiency ⁣in electric vehicles.

Interviewer: ‌ Stellantis states that solid-state batteries offer “significant advantages” over lithium-ion batteries. ‌What specific advantages can we expect⁣ from this technology?

Dr. Lawrence: Beyond higher energy density, solid-state batteries typically reduce weight and improve performance, which could lead to faster acceleration times and enhanced handling. They also hold the promise of lower total costs​ over time, as they generally have⁣ a longer lifespan and reduce⁢ dependency on ‌rare materials. This could⁢ further democratize access to ⁣EV ⁢technology.

Interviewer: It sounds ‍like Stellantis is ​making a ‌calculated investment with their $75 million into Factorial, the battery tech company. How ⁤important is such ​investment in propelling the EV sector forward?

Dr. ​Lawrence: ⁤ It’s critical. Investments ⁤like this allow automakers to develop and⁤ validate cutting-edge technologies with ​the real-world​ data needed for successful commercialization. By⁤ integrating these innovations into their platforms—like​ the STLA Large platform for Stellantis—they not only optimize their vehicles​ but also maintain competitiveness in a rapidly evolving​ market.

Interviewer: In ⁣terms⁤ of prototypes⁣ and demonstration vehicles, what are the⁤ next steps for Stellantis and Factorial to⁤ ensure the success of solid-state technology?

Dr. ​Lawrence: ⁣Prototyping‌ is essential for testing ‌the performance of these batteries under real-world conditions. Stellantis will need to⁤ gather data⁤ on battery performance, efficiency, and longevity, adjusting their designs based on ⁤findings. Challenges such as thermal management, manufacturing​ scale-up, ​and⁢ ensuring battery safety will all need meticulous attention before widespread production.

Interviewer: Stellantis ​has⁤ also unveiled a state-of-the-art wind tunnel⁢ for aerodynamic testing. How ⁢do advancements in⁤ aerodynamics‍ contribute to the efficiency of ​electric vehicles?

Dr. Lawrence: Aerodynamics significantly impacts EV efficiency, especially at high⁢ speeds. Reducing​ airflow resistance can increase range​ and overall performance, which‌ is crucial for ⁣consumer acceptance. Innovations like Stellantis’ “moving earth” technology allow for more refined measurements,⁣ enabling engineers to fine-tune vehicle shapes for optimal performance.

Interviewer: With all these advancements, how do you envision the future ⁣landscape of ‍electric vehicles by 2026?

Dr. Lawrence: By 2026, I believe we will see a‌ significant ⁤shift ‍not ‌only in vehicle architecture and performance but‌ also in consumer ⁤perception. If manufacturers can leverage​ solid-state technology effectively, we could witness a new generation of EVs that combine power, efficiency, and affordability—making them a⁤ more⁤ attractive option for consumers.

Interviewer: ⁤Thank⁤ you, Dr. Lawrence, for your insights on the exciting innovations surrounding the Dodge Charger Daytona and the broader implications for the EV market!

Dr. Lawrence: ‍Thank you for having me! I’m looking forward to seeing how these developments unfold.

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