Finnish Minerals and Beijing Easpring begin construction of a cathode material plant in Finland

Finnish Minerals and Beijing Easpring begin construction of a cathode material plant in Finland
Finnish Minerals and Beijing Easpring begin construction of a cathode material plant in Finland

Finnish Minerals and Chinese battery materials producer Beijing Easpring Material Technology have started construction of a plant in Kotka, Finland to produce cathode active material (CAM) for lithium-ion batteries.

The plant’s first-stage capacity will be 60,000 tons of CAM per year. The plan targets commercial production in 2027 and includes the possibility of expanding production in the future.

The €800 million investment project is being carried out by Easpring Finland New Materials, a joint venture established in 2024, in which Finnish Minerals owns 30% and Beijing Easpring Material Technology owns 70%.

In addition to the funding from the owners, the JV will seek financing through external loans and the clean transition aid scheme for industrial investments. The Finnish government is capitalizing Finnish Minerals with €100 million. The company manages the country’s state-owned mining industry shareholdings and is tasked with developing the Finnish lithium-ion battery supply chain.

“The Kotka CAM plant will be a state-of-the-art facility with a production process based on a high level of automation and proven technology. The basic design of the plant also provides for a situation where the market demands and technologies continue to develop and ensures that we can respond to these developments,” said Timo Strengell, SVP of Battery Value Chain at Finnish Minerals.

Source: Finnish Materials

What Tesla Drivers Want Most in 2026 (According to 12,000+ Comments)

Tesla asked—and thousands answered.

A few weeks ago, Lars Moravy, Tesla’s VP of Vehicle Engineering, took to X (formerly Twitter) to ask a simple question:

“Let’s make Teslas better… what do you all want for 2026?”

The post went viral fast, racking up over 12,000 responses from Tesla owners, EV enthusiasts, and curious drivers worldwide. The answers? Everything from luxury upgrades to long-range asks and high-performance dreams.

Here’s a breakdown of some of the most requested features—and a few fun surprises.

Top Requests from the Tesla Community

1. A CyberSUV
Fans want a real SUV version of the Cybertruck—something more family-ready, with that iconic stainless steel look. Think: futuristic design meets practical size.

2. Faster Charging with Better Curves
Tesla charging is fast—but it tapers off quickly. Owners want sustained high-speed charging, especially with the 500kW Superchargers rolling out in Q3. Chinese brands are already setting the bar here, so the pressure is on.

3. 450–500 Mile Range Options
While Tesla says 300 miles is “enough” for most, rural drivers and anyone who tows would love more. Longer range = less stress.

4. Ambient Lighting That Reacts to Music
It sounds small, but this was a huge ask. Syncing lights with your playlist adds a premium touch that many luxury EVs already offer.

5. Signal Stalk Retrofit for Refreshed Model 3
Not everyone is a fan of the new stalkless design. Some owners are hoping Tesla will offer official retrofits. Lars replied “I’ll try,” so fingers crossed.

6. Lumbar Support in Driver Profiles
Currently, Tesla profiles save seat position, mirrors, and climate preferences—but not lumbar support. That might change soon. Lars mentioned it’s a technical challenge, but solvable.

7. Model 3 Track Pack
The Model S has it. Why not the Model 3 Performance? Drivers want access to performance tires, brakes, and wheels for their own weekend warrior builds.

Some of Our Favorite Requests

Sentry Mode Upgrades
Users suggested adding side (B-pillar) camera recordings. Tesla’s on it—coming in the Spring 2025 update (v2025.14), but likely only for HW4-equipped vehicles.

Massaging Seats
More luxury, please. Many premium automakers offer this, and Tesla owners want the same for Model S and X. Contrary to rumors, Tesla has never offered this feature—yet.

Powershare Expansion
Right now, only the Cybertruck supports Tesla’s new Mobile Connector with Powershare. Drivers want this vehicle-to-load (V2L) or vehicle-to-home (V2H) option in all models—especially as Ford, Kia, and Hyundai offer it already.

Starlink Vehicle Integration
Cell service isn’t always reliable. Adding Starlink for data connectivity could be a game-changer, especially for road-trippers.

Grok AI in Cars
Tesla’s in-house AI assistant, Grok, is on its way to vehicles. It’s not here yet, but the xAI team has teased its arrival. The future? You’ll talk to your car like it’s a co-pilot.

 

What’s Next?

Lars replied to dozens of comments, which is a good sign Tesla is listening. While not every feature is guaranteed, the upcoming years are already packed. A more affordable Tesla and the Robotaxi rollout are both expected in 2025—and 2026 might bring even more.

The community has spoken. Now it’s Tesla’s move.

 

TDK launches automotive power-over-coax inductors

TDK launches automotive power-over-coax inductors
TDK launches automotive power-over-coax inductors

Japanese manufacturer TDK Electronics has expanded its ADL3225VF series of wire-wound inductors for automotive power-over-coax (PoC).

The company started mass production of the new components in March 2025.

In standard configurations, advanced driver-assistance systems (ADAS) cameras require two separate lines for power and signal transmission—a power line connected to the vehicle’s battery and a signal line connected to the electronic control unit (ECU). PoC technology enables a single coaxial cable to simultaneously carry power and data, simplifying and reducing cabling. This can reduce the vehicle’s weight, in turn improving fuel efficiency.

The ADL3225VF series measures 3.2 mm x 2.5 mm x 2.3 mm and implements a rated current of 1.6 A, which is equivalent to that of the ADL4532VK series, while reducing the mounting area of approximately 45%.

The PoC system requires a filter incorporating multiple inductors to separate power from the data signal before processing effectively. In comparison with TDK’s conventional ADL3225VM-2R2M product, the ADL3225VF series increases the rated current by approximately 20%. At the same time, it delivers high impedance across a wide frequency range. This reduces the number of inductors used, saving space. Additionally, the inductor ensures high reliability within a wide operational range of -55° C to +155° C.

“Looking ahead, TDK is committed to developing inductors for automotive PoC applications by pursuing optimized design by refining multilayer, wire-winding, and thin-film technologies to address market needs. TDK will expand its lineup of products to improve the quality of PoC transmission signals,” the company stated.

Source: TDK

Aachen University project aims to optimize fast charging capability of prismatic battery cells

Aachen University project aims to optimize fast charging capability of prismatic battery cells
Aachen University project aims to optimize fast charging capability of prismatic battery cells

The Chair of Production Engineering of E-Mobility Components (PEM) of RWTH Aachen University is working with research and industry partners to optimize the fast charging capability of prismatic lithium-ion batteries.

The aim of the new, three-year SchnelleZelle project, funded by Germany’s Federal Ministry for Economic Affairs and Climate Action, is to expand the performance of batteries by reducing charging times and increasing charging power without compromising on safety and lifespan.

From initial development to cell integration, the project aims to innovate cell design, electrode interconnection, sensor integration and the development of improved cooling and control strategies. The aim is to increase the charging rate by several percentage points in the State of Charge (SoC) range of 10-80%.

By integrating location-resolving sensors into the battery cells and using machine learning algorithms, charging processes will be optimized and adapted to individual battery conditions. An optimized connection of the electrode stack to the cell housing is designed to improve thermal stability and minimize internal resistance. The results will be implemented as prototypes of individual cells and cell networks.

“The improvement of fast charging capability in lithium-ion technology is a dominant topic in both research and industry and can be tackled separately or in combination with the help of various levers,” said PEM Director Professor Achim Kampker. “This can be achieved by integrating sensors into the cells and with the help of innovative approaches to cell design, cooling and charging algorithms,” added PEM Professor Heiner Heimes.

Source: PEM

SK On and SK Enmove showcase battery immersion cooling

SK On and SK Enmove showcase battery immersion cooling
SK On and SK Enmove showcase battery immersion cooling

South Korean battery and trading company SK On is showcasing advanced thermal management technology with lubricant supplier SK Enmove.

The immersion cooling technology for EV batteries circulates electrically insulating thermal fluids inside the battery pack to effectively dissipate heat. Since the coolant directly contacts the battery cells, it can more effectively suppress temperature rise compared to indirect cooling systems using air or water.

Immersion cooling allows for lower cell temperatures during fast charging conditions, thanks to its superior heat control. According to the companies, it improves battery life by reducing temperature variations between battery cells.

The battery pack incorporating immersion cooling technology that SK On and SK Enmove are developing highlights enhanced cooling efficiency with an optimized fluid flow structure design that maximizes the contact area between thermal fluids and cells.

SK On also plans to incorporate its wireless battery management system (BMS). A wireless chip is attached to the cell tabs, and transmits the collected cell data to the BMS via antennas embedded within the module.

The combination of immersion cooling and wireless BMS ensures the smooth flow of thermal fluids, as there are no wires. The extra space from the absence of physical wires can increase energy density, and the lack of risk of wire defects can improve reliability.

The commercialization of wireless BMS is expected to accelerate the adoption of the Battery Passport, a digital record that provides comprehensive information about a battery’s lifecycle, including manufacturing details, usage history and recycling data. It enables easy data management of a battery’s state of charge, cycle life, carbon footprint and more.

“We expect to see growing demand for wireless BMS and immersion cooling as the importance of safety increases with the rising EV penetration rate,” said Kisoo Park, Head of SK On’s R&D division.

Source: SK On

CustomCells joins project to advance large-format round battery cells

CustomCells joins project to advance large-format round battery cells
CustomCells joins project to advance large-format round battery cells

German battery manufacturer CustomCells is participating in an €8-million research project to develop next-generation round battery cells.

The Center for Solar Energy and Hydrogen Research Baden-Württemberg (ZSW), the Fraunhofer Institute for Manufacturing Engineering and Automation (Fraunhofer IPA) and the Karlsruhe Institute of Technology (KIT) are the scientific partners.

CustomCells has chosen to locate its pilot plant in Tübingen, Germany. It aims to advance and accelerate the design, production possibilities and digitalization for premium cells in the 46 mm large-format round cell format.

CustomCells is targeting customers in the German state of Baden-Württemberg, but also intends to supply the wider European market.

“Our round cell technology enables high-performance batteries for applications that place the highest demands on quality, safety and performance,” said Dr. Christoph Falk, COO of CustomCells.

Source: CustomCells

Swiss transport and waste disposal company buys a FUSO eCanter electric truck

Swiss transport and waste disposal company buys a FUSO eCanter electric truck
Swiss transport and waste disposal company buys a FUSO eCanter electric truck

TIT Imhof, a transport, construction and disposal company based in Kreuzlingen, Switzerland, has added an electric FUSO eCanter 9C18e skip loader to its truck fleet. The 8.55-tonne light-duty truck, which includes a type AK4V skip loader from Meier-Ratio, transports empty containers to customers and hauls the full containers to Imhof’s disposal center in Kreuzlingen.

Imhof’s eCanter has a range of up to 140 kilometers. The company charges it overnight at a DC charging unit in its yard. The skip loader body can lift containers ranging from one to ten cubic meters in size and up to 4.5 metric tons in weight.

“The eCanter perfectly meets our requirements and, above all, the payload of 3.3 tons is ideal for container transport,” says company owner Dominic Imhof.

With its short 3.4-meter wheelbase, the compact eCanter is particularly maneuverable—it can set the container down backwards in narrow driveways with high precision, and easily navigates the narrow, winding streets along the southern shore of Lake Constance.

“One of my favorite features is the electric power take-off (ePTO) in the eCanter,” says driver Jozef Peciar. “I press the button and the drive starts immediately. That’s not always the case with diesel-powered trucks. It often takes a while for the pump to start up.”

Dominic Imhof notes yet another advantage of the EVs in his fleet: “We didn’t even consider how quiet electric mobility would make our working environment. It’s another effect that everyone now really appreciates.”

Electric trucks will be exempt from Switzerland’s Heavy Vehicle Charge (HVC) until 2030. This fee amounts to around one Swiss franc ($1.15) per kilometer for a 40-tonne truck. Also, as of this year, Switzerland has introduced CO2 taxation on vehicle imports. Exemption from these two expenses makes the total cost of ownership of the locally emission-free FUSO eCanter attractive despite higher purchase costs.

Source: Daimler Truck