Friday, March 6, 2026

Renesas’ 28 nm RH850/U2C MCU targets ASIL D vehicle control, BMS and zonal architectures


Renesas has added a new low-end member to its RH850 automotive MCU family with the 28 nm RH850/U2C, aimed at chassis and safety systems, battery management systems, lighting, motor control and other ASIL D applications.

The 32-bit MCU combines four RH850 CPU cores running at up to 320 MHz—including two lockstep cores—and up to 8 MB of on-chip flash. Renesas says it is designed as a migration path for developers using RH850/P1x or RH850/F1x devices, helping them move toward newer vehicle E/E architectures.

A big part of the pitch is communications support. The RH850/U2C includes interfaces for Ethernet 10BASE-T1S, Ethernet TSN at 1 Gbps/100 Mbps, CAN-XL and I3C, while maintaining compatibility with more familiar automotive interfaces such as CAN-FD, LIN, UART, CXPI, I²C, I²S and PSI5. Renesas says that mix should ease phased migration toward domain- and zone-based architectures.

The company also emphasizes functional safety up to ASIL D, ISO 26262 compliance and support for ISO/SAE 21434 cybersecurity requirements, along with hardware accelerators for cryptographic processing. “The RH850/U2C combines performance, a rich feature set and compliance with key industry standards to meet the requirements of next-generation ECUs,” said Renesas VP Satoshi Yoshida.

Source: Renesas



from Charged EVs https://ift.tt/JMbktTW

Forget about X, AI and robots—Tesla is quietly building a complete EV battery supply chain


For many a year, a certain California carmaker dominated the headlines in the EV press—so much so that I created a keyboard shortcut for the company’s name. Despite a relentless tide of naysaying, the company went from strength to strength for almost two decades. Then, coincidentally (?) around the time of Covid, the innovation engine seemed to stall, and the company’s leadership turned its attention to other things. In January, an uncharacteristically uninspiring earnings report seemed to confirm that the firm was “pivoting away from its electric car business.” No Master Plan Part Trois, no new vehicles—just some warmed-over talk about AI and robots. Has the company that almost single-handedly invented the modern EV industry lost its mojo, passed the torch on to others, gone over to the dark side?

Not so fast.

Christopher Chico reports, in his excellent Battery Chronicle blog, that “Tesla is quietly building the most complete battery supply chain in the West.” The company operates a lithium refinery, a cathode manufacturing facility, and two cell factories producing two different battery chemistries.

Tesla has been making 4680 cells at Gigafactory Texas since 2022. In 2023, the company filed for a $716-million expansion that included cathode manufacturing facilities. Early cathode production has reportedly begun, at an annual capacity of around 10 GWh.

Tesla is producing anodes and cathodes for its 4680 cells using a dry process that it acquired along with a company called Maxwell Technologies in 2019. Compared to the traditional wet slurry process, the dry process eliminates toxic solvents, cuts energy use, and requires less factory space. (The founding team of Maxwell is now running a company called LiCAP, which is licensing a similar dry electrode process. Read an in-depth interview with LiCAP President Richard Qiu in our Oct-Dec 2025 issue.)

Tesla’s lithium refinery in Texas began operations in January. Mr. Chico says it’s the first spodumene-to-lithium-hydroxide refinery in North America. Tesla uses an acid-free refining process that eliminates some steps traditionally dominated by Chinese firms. The facility is expected to deliver 30 GWh of annual lithium refining capacity.

At Gigafactory Nevada, Tesla has an LFP cell factory that uses manufacturing equipment from Chinese battery behemoth CATL. The company said last July that the facility was nearing completion. Mr. Chico reports that production is scheduled to begin in “early 2026,” at an initial annual capacity of 7 GWh. Most of these prismatic LFP cells are destined for Tesla’s energy storage products, not for EVs.

In fact, it could be argued that the enigmatic automaker is indeed pivoting away from vehicles, and toward stationary storage. Mr. Chico reports that stationary storage products are now the company’s fastest-growing business line, and are delivering nearly double the profit margin of the vehicle business.

Tesla’s battery-building business stands in marked contrast to the Dinosaurs of Detroit, who are, for whatever reasons, gradually retreating from all things electric. GM, Stellantis and Ford have all recently backed out of plans to build or buy stakes in battery plants.

At the other end of the spectrum, China’s BYD manufactures roughly 75% of its vehicle components in-house, including cells, cathode material, electric motors, power electronics and semiconductors. It also owns lithium mining interests in Brazil, Africa and China.

Chico calls Tesla’s vertical integration strategy “the most ambitious in the West,” but it is incomplete, as Tesla owns no semiconductor or mining interests. However, “Tesla is the only Western company even attempting to match the Chinese model of full-chain ownership.”

Automakers spent decades outsourcing virtually everything except engines and vehicle design, but in the EV era, vertical integration makes a lot of sense. Batteries are so expensive that it pays to avoid sharing margin with suppliers, and the technology is changing so fast that OEMs can be more agile if they don’t have to wait for innovations to ripple through a complex supply chain. There are also geopolitical considerations.

Of course, there’s always a downside. Chico points out that when demand drops, vertically integrated companies can get stuck with high fixed costs. The way he sees it, Tesla’s vertical integration is a bet on trade barriers staying up and demand continuing to grow.

In the global game of battery poker, Asians are showing some aces, but at least one US automaker is still sitting at the table.

Source: The Battery Chronicle
Image: grigvovan – stock.adobe.com



from Charged EVs https://ift.tt/gkap6yJ

Thursday, March 5, 2026

Webinar: Unlocking Next-Gen xEV Power Conversion: New CoolSiC™ Devices


Join this webinar at next week’s Virtual Conference on EV Engineering, presented by Infineon, to gain valuable insights on the latest power conversion trend, topologies evolution, application requirements and the latest CoolSiC™ AEC-Q qualified products from Infineon.

Additionally, you will understand how new innovative CoolSiC™ power devices will revolutionize the automotive industry by enabling cost-effective single-stage Onboard Chargers (OBCs).

Mar 12, 2026, 9:15 am EDT
Register now—it’s free!


See the complete session list for the Virtual Conference on EV Engineering here.

Broadcast live from March 9 to 12, 2026, the conference content will encompass the entire EV engineering supply chain and ecosystem, including motor and power electronics design and manufacturing, cell development, battery systems, testing, powertrains, thermal management, circuit protection, wire and cable, EMI/EMC and more.



from Charged EVs https://ift.tt/QbvZz3Y

Steyr to assemble Chinese SuperPanther electric semi-trucks in Europe


A new Chinese electric truck brand is stalking the European market. Electrive reports (in German) that startup SuperPanther plans to start selling electric semi-trucks in Europe this year.

SuperPanther will rely on a contract manufacturing arrangement with Steyr Automotive in Austria for European production, Frank Schulz, SuperPanther’s Europe sales chief, told Electrive. Series production is scheduled to start this summer, and the company plans to deliver 100 to 200 customer vehicles in Europe by the end of 2026.

Four-year-old SuperPanther is based in Xiamen, China, and already has “several hundred electric trucks” on the streets in the People’s Republic. Europe will be its first export region.

SuperPanther doesn’t want to be seen as the stereotypical Chinese manufacturer, flooding the local market with cheap goods, Schulz told Electrive. “We do not intend to [offer] price breakers—we want to convince with performance, added value and TCO.” SuperPanther plans to provide comprehensive service to its European customers, including charging solutions (in-house or through partners) and repair and maintenance through a cooperation with brand-independent provider Alltrucks.

SuperPanther’s eTopas 600 is built on a BEV-only platform. It’s a 4×2 tractor unit with an empty weight of 10.8 tons and permissible total weight of 42 tons.

The battery technology comes from CATL, and is much the same as that of Daimler Trucks’ eActros 600. The LFP battery packs offer a gross capacity of 621 kWh, which is expected to deliver a range of 500 kilometers. The eTopas 600 is based on an 876-volt architecture and offers 394 kW continuous and 692 kW peak power in its twin-engine configuration.

SuperPanther’s truck sports dual CCS-2 charging ports, which will enable extra-high charging speeds at compatible charging stations. It’s also slated to be fitted with an MCS charging port.

Steyr Automotive will build the trucks from pre-assembled modules that include core components from China, as well as components from European suppliers including ZF, Schaeffler, Continental and Aumovio. SuperPanther is developing the e-axles, thermal management and software layer in-house, and plans to offer these solutions to third parties.

DHL has been named as the first potential customer—the logistics giant signed an MOU with SuperPanther in 2024.

Source: Electrive



from Charged EVs https://ift.tt/6VsczIj

Hyundai and Kia invest in battery software provider Qnovo


Hyundai and Kia have announced a new strategic investment in Qnovo, maker of a software platform that monitors battery health. The investment follows years of collaborative testing between Qnovo and Hyundai/Kia.

“By delivering a verifiable digital accounting of battery health via a scalable, hardware-free architecture, Qnovo enables automakers to maximize performance and safety in real-time, while providing the precise data needed to underwrite warranties and unlock the actual residual value of the battery throughout its lifecycle,” the company explains.

“Hyundai Motor and Kia’s investment is a testament to the strategic importance of sophisticated battery intelligence for charging and vehicle experience,” said Nadim Maluf, CEO of Qnovo. “We are creating a new standard for how batteries are managed, valued and scaled globally.”

“Partnering with Qnovo enables us to integrate battery intelligence into our EV platforms,” said Chang Hwan Kim, Executive VP of Hyundai Motor. “Qnovo’s unique approach to battery intelligence aligns with our vision for the future of mobility, where software is an important driver of the customer experience and vehicle longevity.”

Source: Qnovo



from Charged EVs https://ift.tt/W8CL4pe

Honeywell’s AI-powered Battery MXP platform to automate University of Alabama AMP Center pilot battery lab


Honeywell is integrating its AI-powered Battery Manufacturing Excellence Platform (Battery MXP) into the Alabama Mobility and Power (AMP) Center’s battery research lab at the University of Alabama, aiming to improve cell yields and speed up battery factory startups. The AMP Center says the deployment will also support workforce training for battery manufacturing and electrification.

Battery MXP is positioned as an automation platform for battery production that can scale “at any scale,” and Honeywell said it will be the AMP Center’s exclusive automation platform for guiding manufacturers on how to scale cost-effective, high-quality batteries.

“The deployment of Battery MXP supports Alabama’s automotive industry while advancing solutions for data center growth, grid stability, and the state’s long-term electrification and economic development goals,” said AMP Center executive director Mike Oatridge.

Honeywell said it is also working with FOM Technologies at the AMP Center to optimize electrode production within Battery MXP, describing electrode production as one of the most challenging stages of battery manufacturing. The AMP Center battery research lab is expected to open in Q2 2026 and is expected to be one of the first pilot battery production sites available to external organizations.

Source: Honeywell



from Charged EVs https://ift.tt/853QHbl

Wednesday, March 4, 2026

Webinar: Modeling hydrogen fuel cells and electrolyzers


The push for cleaner energy supply is a driving force for developing new hydrogen technology and adapting existing infrastructure to support it. Since direct measurement is often impractical or even impossible when it comes to hydrogen and fuel cell R&D, modeling and simulation is a useful solution.

In this webinar at next week’s Virtual Conference on EV Engineering, presented by COMSOL, we will share four examples of using the COMSOL Multiphysics® simulation software to model electrolyzer and fuel cell designs, where the goal is to optimize their performance under specific operating conditions. For each example, we will cover the main steps for creating the model as well as results visualization and analysis. The presentation includes a live demo of setting up and solving a model in the software. Note that COMSOL will follow up with all registrants about this event and any related questions.ed.

Mar 11, 2026, 1:00 pm EDT
Register now—it’s free!


See the complete session list for the Virtual Conference on EV Engineering here.

Broadcast live from March 9 to 12, 2026, the conference content will encompass the entire EV engineering supply chain and ecosystem, including motor and power electronics design and manufacturing, cell development, battery systems, testing, powertrains, thermal management, circuit protection, wire and cable, EMI/EMC and more.



from Charged EVs https://ift.tt/6yZcas5

Renesas’ 28 nm RH850/U2C MCU targets ASIL D vehicle control, BMS and zonal architectures

Renesas has added a new low-end member to its RH850 automotive MCU family with the 28 nm RH850/U2C, aimed at chassis and safety systems, b...