EV Gigafactories


EV gigafactories are large-scale manufacturing complexes dedicated to producing complete electric vehicles. Unlike battery gigafactories, which focus on cell and pack production, EV gigafactories integrate body, chassis, motors, batteries, electronics, and software into finished vehicles. These plants are capital-intensive, highly automated, and increasingly retooled from legacy ICE (internal combustion engine) facilities to support mass electrification. Their geographic location and supply chain integration directly shape the competitiveness of global automakers.

Core Functions

  • Body & Chassis Assembly – Stamping, welding, casting, and body-in-white production adapted for EV platforms.
  • Powertrain Integration – Installation of motors, inverters, PCUs, and thermal management subsystems.
  • Battery Pack Integration – Incorporation of battery modules or structural packs into the vehicle chassis.
  • Electronics & Wiring – HV/LV harnesses, domain controllers, ADAS hardware, and software installation.
  • End-of-Line Testing – Vehicle safety, functionality, and software validation before delivery.

Gigafactory Characteristics

Modern EV gigafactories emphasize automation, flexible production lines, and digital twins for continuous optimization. They require proximity to battery supply (often co-located with pack gigafactories), robust logistics, and renewable or low-carbon energy sources to meet sustainability targets.

Aspect Examples Notes
Automation Robotics for welding, casting, final assembly High OEE; precision assembly for safety-critical systems
Flexible Production Ability to produce multiple EV models on shared platforms Reduces capex per unit; adapts to demand fluctuations
Energy Integration Onsite renewables, BESS, microgrids Aligns with OEM sustainability and net-zero goals
Digitalization Digital twins, MES, AI-driven QA Optimizes throughput and predictive maintenance

Global Footprint

EV gigafactories are clustered in regions with strong supply chains, skilled labor, and industrial incentives. Their build-out is reshaping automotive geography worldwide.

Region Examples Notes
North America Tesla Gigafactory Texas, Ford Rouge EV Center, Rivian Illinois, GM Factory ZERO IRA incentives accelerating U.S. EV assembly capacity
Europe Tesla Berlin, VW Zwickau, Renault ElectriCity, Stellantis Italy/France Focused on retooling ICE plants; EU Green Deal support
Asia BYD Shenzhen, SAIC, NIO, Hyundai Ulsan, Toyota Japan EV lines China leads in scale; Korea/Japan upgrading legacy ICE plants

EV Gigafactory List

2025 List of all factories and gigafactories in the U.S. that produce electric vehicles. The average gigafactory consumes 2.4 GW of electricity and 1 million gallons of water daily. See also battery gigafactories that produce lithium battery packs. Some automakers assemble battery packs onsite while others use dedicated factories just for batteries.

Factory Location State
Canoo Pryor, OK OK
Faraday Future ieFactory Hanford, CA CA
Ford Rougue Dearborn, MI MI
Ford Van Dyke Sterling Heights, MI MI
Foxconn EV Warreb, OH OH
GM Factory ZERO Detroit, MI MI
Honda East Liberty, OH OH
Hyundai Metaplant Bryan County, GA GA
Karma KICC Moreno Valley, CA CA
Kenworth Renton, WA WA
Lion Electric Joliet, IL IL
Lucid Group Casa Grande, AZ AZ
Mercedes Truck/Bus Charleston, SC SC
Mercedes Tuscaloosa Vance, AL AL
Nikola Coolidge, AZ AZ
Nissan Powertrain Decherd, TN TN
Nissan Smyrna, TN TN
Nova Plattsburgh, NY NY
Polestar Ridgeville, SC SC
Proterra Greenville, SC SC
Rivian Normal, IL IL
Tesla Giga Texas Austin, TX TX
Tesla Tesla Fremont Fremont, CA CA
Tesla Giga Nevada Sparks, NV NV
Thomas Built High Point, NC NC
Thomas Built Portland, OR OR
VinFast Chatham County, NC NC
Volkswagen Chattanooga, TN TN
Volvo Ridgeville, SC SC


Strategic Reshoring & Industrial Policy

EV gigafactories are among the most visible examples of advanced manufacturing reshoring to the United States. Once concentrated in Asia, large-scale EV production capacity is now being built in the U.S. to secure domestic supply, reduce dependence on imports, and meet clean energy targets. Federal incentives under the Inflation Reduction Act (IRA) and state-level support have accelerated investment in EV assembly hubs across Texas, Michigan, Ohio, Tennessee, and Kentucky. These plants not only anchor domestic supply chains for batteries, motors, and semiconductors, but also create high-skill jobs and position the U.S. as a strategic competitor in the global EV race.


Supply Chain & Risks

EV gigafactories depend on stable supply of batteries, motors, semiconductors, and advanced manufacturing equipment. Risks include semiconductor shortages, skilled labor gaps, and dependence on Asian battery supply. Retooling legacy plants is capital-intensive, while greenfield gigafactories require billions in investment and long lead times. Energy intensity also poses sustainability challenges unless paired with renewables and microgrids.


Market Outlook & Adoption (Ranked)

Rank Trend Adoption Drivers Constraints
1 Retooled ICE Plants Lower capex; skilled workforce; existing logistics hubs Not fully optimized for EV platforms
2 Greenfield EV Gigafactories Purpose-built; optimized for EV platforms and automation High upfront cost; long permitting and ramp-up times
3 Co-Located EV + Battery Complexes Reduces logistics cost; secures supply; speeds integration Requires massive investment; supplier ecosystem dependency