According to news on February 29, in order to gain a foothold in the fierce electric vehicle market, Ford Motor is planning to introduce an 800V fast charging architecture for its next-generation electric vehicles in order to catch up with competitors.
Ford CEO Jim Farley said after the release of the fourth-quarter earnings report that the company was forced to make changes due to "dramatic changes" in the electric vehicle market.
Farley pointed out that the two main reasons for the change in the market structure are: first, the significant price cuts by electric vehicle manufacturers such as Tesla, and second, the large influx of capital and production capacity into the compact crossover vehicle segment, which is also Ford The market segment in which Mustang Mach-E is located is its best-selling electric vehicle market.
Although the Mach-E is the second-best-selling electric SUV after the Tesla Model Y, competitors such as the Hyundai IONIQ 5 are eating into its market share. While Mach-E sales increased 4.6% year-over-year in the fourth quarter, with 11,369 units sold, Hyundai IONIQ 5 sales surged 92% to 8,612 units in the United States.
Farley said the next generation of electric vehicles will have "groundbreaking efficiencies" compared to current models and be "packed with innovative features that customers are willing to pay a premium for."
Currently, Ford says that the standard range version of the Mach-E can use a DC charging pile with a maximum output of 107 kW to charge from 10% to 80% in 38 minutes. The long-lasting version takes about 45 minutes. Based on Hyundai's proprietary 800V E-GMP platform, Hyundai IONIQ 5 can cut charging time in half, charging from 10% to 80% in just 18 minutes.
According to a new Ford patent, the company appears to be introducing 800V fast-charging technology for its next generation of electric vehicles in a bid to close the gap with rivals.
The patent was released on February 27, 2024, and is titled "Multi-voltage electrical architecture for electric vehicles." It describes in detail the 800V fast charging system developed by Ford for electric vehicles, which uses a multi-voltage charging circuit, including two voltage levels of 400V and 800V.
Earlier this month, Ford CEO also mentioned that the company was developing a low-cost electric vehicle platform. Farley said Ford has assembled a "talented team" to do so, and while the team is small, it includes, according to Farley, "some of the best electric vehicle engineers in the world." General Motors (GM) Chief Financial Officer Paul Jacobson said the company will save dozens of dollars by launching the next-generation Bolt EV on its Ultium platform rather than developing a separate low-cost system. One hundred million U.S. dollars.
Previous article:Diotec | Application of SiC and silicon-based components in electric vehicle charging circuits
Next article:Intelligent driving perception, will there be new answers in 2024?
- Popular Resources
- Popular amplifiers
- A new chapter in Great Wall Motors R&D: solid-state battery technology leads the future
- Naxin Micro provides full-scenario GaN driver IC solutions
- Interpreting Huawei’s new solid-state battery patent, will it challenge CATL in 2030?
- Are pure electric/plug-in hybrid vehicles going crazy? A Chinese company has launched the world's first -40℃ dischargeable hybrid battery that is not afraid of cold
- How much do you know about intelligent driving domain control: low-end and mid-end models are accelerating their introduction, with integrated driving and parking solutions accounting for the majority
- Foresight Launches Six Advanced Stereo Sensor Suite to Revolutionize Industrial and Automotive 3D Perception
- OPTIMA launches new ORANGETOP QH6 lithium battery to adapt to extreme temperature conditions
- Allegro MicroSystems Introduces Advanced Magnetic and Inductive Position Sensing Solutions
- TDK launches second generation 6-axis IMU for automotive safety applications
- LED chemical incompatibility test to see which chemicals LEDs can be used with
- Application of ARM9 hardware coprocessor on WinCE embedded motherboard
- What are the key points for selecting rotor flowmeter?
- LM317 high power charger circuit
- A brief analysis of Embest's application and development of embedded medical devices
- Single-phase RC protection circuit
- stm32 PVD programmable voltage monitor
- Introduction and measurement of edge trigger and level trigger of 51 single chip microcomputer
- Improved design of Linux system software shell protection technology
- What to do if the ABB robot protection device stops
- Detailed explanation of intelligent car body perception system
- How to solve the problem that the servo drive is not enabled
- Why does the servo drive not power on?
- What point should I connect to when the servo is turned on?
- How to turn on the internal enable of Panasonic servo drive?
- What is the rigidity setting of Panasonic servo drive?
- How to change the inertia ratio of Panasonic servo drive
- What is the inertia ratio of the servo motor?
- Is it better for the motor to have a large or small moment of inertia?
- What is the difference between low inertia and high inertia of servo motors?
- Lead and Lag Oscillators
- Recommended development directory for CH579M
- Free gifts! 11 popular Maxim development boards are waiting for you!
- Request: DC-DC small package chip similar to LM2596
- How to add c files in esp32 idf components to compile
- Have you noticed the LPDSP32 audio codec inside RSL10? Does your project use this resource?
- EEWORLD University - Industrial Internet of Things using CC1310 sub-1 GHz wireless MCU
- A simple way to distinguish between broadband FM and narrowband FM
- Wireless Connectivity Technology Selection Guide
- Learning FPGA Embedded System Design-1