- Ford has expanded its California EV Development Center to accelerate development of affordable next-generation electric vehicles and improve engineering efficiency.
- The company’s new Universal EV Platform project supports advanced battery validation, rapid prototyping, and faster manufacturing preparation for a midsize electric truck planned for 2027.
Ford is strengthening its electric vehicle engineering capabilities by expanding its Electric Vehicle Development Center in Long Beach, California. The facility serves as a centralized hub where engineering, design, manufacturing, and testing operations are integrated to support the development of next-generation affordable electric vehicles. Initially launched with a 120,000-square-foot building, the campus now includes a second and slightly larger structure located adjacent to the original site. The expanded setup enables teams to move rapidly from early material analysis and concept development to full-scale testing and manufacturing planning for future EV programs.
The initiative reportedly began three years ago as a confidential skunkworks-style project and has since evolved into a major operation employing around 350 specialists. The workforce combines experienced company personnel with experts recruited from startup ecosystems and consumer electronics industries. Engineers, designers, and supply chain teams operate in a collaborative environment focused on accelerating product development cycles. By following a rapid iteration strategy, the teams can transition concepts into physical testing within hours or days rather than traditional multi-week timelines. The program is expected to support production of an affordable midsize electric truck based on Ford’s Universal EV Platform beginning in 2027 at the Louisville manufacturing facility.
Key Features of Ford’s Expanded EV Development Center
The campus has been designed to support high-speed innovation across multiple stages of electric vehicle development. A centrally positioned 22,000-square-foot design studio includes advanced visualization and fabrication capabilities that allow teams to quickly evaluate and refine vehicle concepts. The studio houses a 360-degree turntable, seven large-scale milling towers, and a five-axis Fooke 911 gantry machine used for precision modeling and prototype development. Additional support systems such as trim shops, additive manufacturing units, and fabrication workshops help accelerate physical model creation and engineering validation.
| Facility Area | Primary Capability |
|---|---|
| Design Studio | Vehicle modeling and concept refinement |
| Battery Laboratory | Battery durability and thermal testing |
| Thermal Lab | Environmental simulation for full vehicles |
| Climatic Chassis Dyno | Simulation of wind, humidity, speed, and road grades |
Battery Testing and Validation Capabilities
Battery engineering remains one of the central priorities within the development center. The battery laboratory includes specialized thermal shock chambers designed to evaluate how battery packs respond to extreme temperature changes and operating conditions. Engineers also use ultra-high precision coulometer systems capable of simulating long-term battery degradation within a significantly shorter testing timeframe. These systems help accelerate battery lifespan analysis while supporting optimization of energy efficiency and durability targets for future electric vehicles.
Adjacent testing infrastructure further expands the facility’s validation capabilities. A dedicated thermal laboratory can accommodate a complete vehicle while reproducing harsh environmental conditions to assess the durability of batteries and other vehicle systems. Additionally, the climatic chassis dynamometer laboratory recreates real-world driving conditions by simulating wind resistance, humidity, speed variations, and road gradients using a vehicle mounted on large 48-inch rollers. These integrated testing systems enable engineers to validate vehicle performance across diverse operating environments before production readiness.
Manufacturing Efficiency and Platform Optimization
By operating outside its traditional headquarters environment in Dearborn, United States, the development team has reportedly achieved substantial efficiency improvements in the Universal EV Platform architecture. The redesigned platform reduces component count by approximately 20%, helping simplify vehicle integration and assembly operations. The company also stated that assembly processes for the future midsize electric truck are expected to be 15% faster compared with previous products manufactured at the Louisville Assembly Plant.
The revised engineering approach also improves manufacturing ergonomics, supporting more efficient production workflows and potentially lowering operational complexity during vehicle assembly. Collaboration between the Long Beach facility and teams in Dearborn, Palo Alto, and Louisville is enabled through a large-scale meeting space equipped with a floor-to-ceiling LED visualization wall capable of displaying life-sized digital vehicle models. This infrastructure supports faster decision-making and coordination between the approximately 500 employees involved in development of the Universal EV Platform program.
Frequently Asked Questions
What is the purpose of Ford’s expanded EV Development Center in California?
Ford expanded its EV Development Center in California to accelerate development of affordable next-generation electric vehicles through integrated engineering, testing, manufacturing planning, and battery validation operations. The facility combines advanced design studios, thermal laboratories, prototype fabrication systems, and collaborative engineering environments to help reduce development timelines. The center also supports the company’s Universal EV Platform strategy, which aims to improve manufacturing efficiency, reduce component complexity, and support production of a midsize electric truck scheduled for launch in 2027.
How does the EV Development Center improve electric vehicle testing and manufacturing?
The facility improves electric vehicle testing and manufacturing by combining battery validation, environmental simulation, rapid prototyping, and digital collaboration capabilities within a single campus. Advanced thermal shock chambers and precision battery testing systems help accelerate durability analysis, while climatic chassis dynamometers simulate real-world driving conditions. The integrated development model also enables engineering teams to reduce parts count and improve assembly efficiency. According to Ford, the revised platform architecture allows faster manufacturing processes and better production ergonomics for future EV programs.
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