South Africa’s push to extend auto incentives into battery raw materials, BYD’s accelerating European manufacturing plan, and a wave of robotics and energy-storage developments together show how the electric vehicle industry is evolving far beyond passenger cars. The latest updates, reported June 9 by Reuters via D1EV/Gasgoo and in separate D1EV reports, highlight a market increasingly shaped by localized supply chains, battery diversification, vehicle-to-grid software, and embodied AI for heavy industry. In short, the Chinese EV ecosystem is no longer just exporting cars—it is exporting industrial capability, computing platforms, and next-generation automation.
BYD Speeds Up Europe Localization
The clearest headline for EV watchers is BYD’s latest Europe manufacturing timeline. According to Reuters, cited by D1EV, BYD executive vice president Stella Li said the company’s new Hungary plant will begin vehicle assembly in the fourth quarter of this year.
That matters for several reasons:
- It gives BYD a local production foothold inside the European Union
- It may help mitigate tariff, logistics, and lead-time pressure
- It signals that Europe remains a strategic growth market despite regulatory friction
- It suggests BYD is prioritizing manufacturing depth, not just exports
Just as notable, BYD has reportedly paused its Turkey plant project to focus resources on Europe-based vehicle manufacturing, with Hungary now the top priority. Li also said the company is looking for a second vehicle production site in Europe.
Why Hungary matters
Hungary has become a major automotive and battery hub in Europe, attracting investment from both legacy automakers and Chinese EV supply-chain players. For BYD, local assembly could improve:
- Cost competitiveness
- Delivery flexibility
- Regulatory alignment
- Brand legitimacy in European markets
This is part of a broader pattern: Chinese EV makers are moving from a pure export model to a hybrid strategy combining exports, CKD/local assembly, and eventually localized supply chains.
Supply Chains Are Becoming the Real EV Battleground
While BYD’s Europe push grabbed attention, South Africa’s latest policy direction may be even more strategically important over the long term. The South African government plans to expand its automotive industry incentive policy to include minerals needed for EV battery production.
The goal is straightforward:
- Support domestic EV manufacturing
- Build local upstream supply chains
- Respond to the global shift toward BEVs and hybrids
- Stay competitive as lower-cost imports from China and India increase pressure
For the global EV market, this reflects a new reality: battery raw materials are now central to industrial policy. Countries are no longer just competing to host final vehicle assembly plants; they want a stake in the full value chain, from mining and refining to cells, packs, and vehicle production.
Raw-material risks are rising again
That policy shift comes as BASF CEO Markus Kamieth warned that conflict involving Iran could disrupt supplies of key industrial inputs, including sulfur and helium. His comments, reported in Frankfurt and cited by D1EV, underscore how exposed the auto industry remains to geopolitical shocks.
For EVs, battery materials and specialty industrial gases are not abstract inputs—they are production-critical. Any prolonged disruption could affect:
- Battery manufacturing output
- Semiconductor and component production
- Factory operating continuity
- Vehicle delivery schedules
In other words, even as the EV industry matures, supply-chain resilience remains fragile.
Battery Innovation Is Expanding Beyond the Car
Another notable development comes from General Motors, which said it will develop and produce sodium-ion batteries for grid-scale energy storage in partnership with California-based Peak Energy.
This is important because sodium-ion is gaining traction as a lower-cost chemistry for stationary storage, even if it is not yet the preferred solution for most long-range passenger EVs. The strategic logic is clear:
- Grid storage does not require the same energy density as premium EVs
- Sodium-ion can reduce reliance on more constrained battery materials
- Automakers can create new revenue streams beyond vehicle sales
GM is also preparing a software update that would allow some U.S. EV owners to sell electricity back to the grid, extending existing vehicle-to-home functionality into vehicle-to-grid, or V2G, applications.
What this means for the wider EV industry
Together, these two moves point to a broader transformation in how automakers think about batteries:
- Not just as components inside cars
- But as energy assets linked to homes, grids, and industrial storage
For Chinese EV companies, this is especially relevant. China already leads globally in battery manufacturing scale, LFP adoption, and energy-storage deployment. As global automakers pursue sodium-ion and V2G strategies, the competitive benchmark increasingly reflects capabilities long familiar in China’s broader new-energy ecosystem.
Robotics Is Moving Into the EV-Adjacent Industrial Stack
Although the source material is not strictly about passenger EVs, two robotics announcements are highly relevant to the future of the Chinese EV and battery industry. They show how embodied AI, industrial automation, and edge computing are becoming part of the same technology stack that powers advanced manufacturing.
Guwei Technology targets mining with industrial quadruped robots
Guwei Technology signed a comprehensive strategic cooperation agreement with Shenhuo Group to explore embodied intelligent robots in industrial safety and smart manufacturing, with a special focus on underground mining applications.
Shenhuo Group is a major Henan state-owned enterprise with businesses spanning:
- Coal
- Electrolytic aluminum
- Power
- Aluminum processing
- Advanced materials manufacturing
The significance here is twofold.
First, mining is directly linked to the EV supply chain through raw materials and energy-intensive industrial processes. Second, embodied robotics could reduce risk in high-hazard environments that are difficult or unsafe for human labor.
Guwei says its quadruped robots are built for harsh industrial settings, including:
- Anti-magnetic environments
- Explosion-proof applications
- Waterproof conditions
- Freeze-resistant operation
- High-temperature and high-dust environments
The company says its robots have already been deployed in nearly 1,000 specialized industrial scenarios. Its hardware uses a “wide-body + short-leg” design and self-developed joint modules, alongside an energy-recovery battery system aimed at balancing endurance and payload in extreme conditions.
This aligns closely with Chinese policy. In May, China’s National Mine Safety Administration and the Ministry of Industry and Information Technology issued a notice to accelerate pilot verification and scaled deployment of mining robots, specifically targeting dangerous, exhausting, dirty, and repetitive jobs.
D-Robotics powers next-gen humanoids with 560 TOPS
In another development, D-Robotics announced new industrialization progress with Humanoid Robot Shanghai. The latter’s Linglong 2.0 biped humanoid platform will use the Sunrise S600 embodied-intelligence chip and begin application validation in mainstream scenarios in the third quarter of 2026.
Key specs for the Sunrise S600 include:
- 18-core A78AE CPU
- 6-core R52+ MCU
- 560 TOPS (INT8) AI compute
According to the report, the chip is optimized for:
- Vision-language models (VLM)
- Large language models (LLM)
- Locomotion models
- Multi-modal perception from vision, radar, and force control
That combination allows real-time terrain recognition, path planning, obstacle avoidance, and closed-loop perception-to-action control.
Just as importantly, D-Robotics said the same Sunrise S600 has also been confirmed for the Tiangong 3.0 humanoid platform from Beijing Humanoid, with scaled mass production deliveries scheduled to begin in the second half of this year.
For the EV industry, the relevance is not that carmakers are suddenly becoming robot makers. It is that China’s broader intelligent hardware ecosystem is creating reusable platforms in compute, sensing, control, and battery management. Those competencies can flow across sectors—from vehicles to factories to warehouses to mines.
Key Developments at a Glance
| Topic | Company/Country | Key Update | Why It Matters |
|---|---|---|---|
| Europe manufacturing | BYD | Hungary plant to start assembly in Q4; second Europe site under consideration | Strengthens localization and competitiveness in Europe |
| Industrial policy | South Africa | Auto incentives may expand to battery raw materials | Signals upstream battery supply chains are now policy priorities |
| Grid storage batteries | GM + Peak Energy | Sodium-ion batteries planned for industrial grid storage | Shows battery diversification beyond EV use cases |
| Vehicle-to-grid | GM | Software update to enable some EVs to sell power back to the grid | Expands EV role in energy markets |
| Mining robotics | Guwei + Shenhuo | Strategic cooperation on embodied robots for underground mining | Connects AI robotics to materials, safety, and industrial automation |
| Humanoid compute | D-Robotics + Humanoid Robot Shanghai | Linglong 2.0 to use 560 TOPS Sunrise S600 chip from Q3 2026 | Highlights China’s growing embodied AI hardware stack |
Other Global Auto Moves Worth Watching
The same D1EV roundup also included several international industry developments that reinforce the scale of ongoing transition in mobility and manufacturing:
- Stellantis will recall more than 1.3 million Jeep SUVs and pickup trucks globally over a fire risk linked to an electrical connector defect in the electro-hydraulic power steering pump wiring
- Kia and Stellantis signed a memorandum of understanding for local vehicle assembly in Malaysia, with production set to begin in the third quarter
- Skoda has started production of the Epiq EV at Volkswagen’s Pamplona plant in Spain, with a starting price of about 26,000 euros
These stories may seem unrelated at first glance, but they all point to the same trend: automakers are reworking manufacturing footprints, platform strategies, and safety systems in response to electrification, cost pressure, and regional competition.
Why This Matters
The big takeaway is that the EV market is no longer defined only by vehicle launches and monthly sales charts. The more important competition is increasingly happening in five deeper layers:
- Localized manufacturing — exemplified by BYD’s Hungary push
- Resource security — seen in South Africa’s battery-minerals incentive rethink
- Battery diversification — highlighted by sodium-ion for stationary storage
- Grid integration — through V2G and energy software ecosystems
- Industrial intelligence — via embodied AI, humanoid compute, and robotics deployment
For Chinese EV companies, this shift plays to core strengths. China has built scale not just in vehicle assembly, but in batteries, supply-chain integration, power electronics, smart manufacturing, and increasingly AI-enabled robotics.
That matters globally because the next phase of competition may depend less on who can launch one compelling EV model and more on who can build a full industrial system around electrification.
Forward Look
In the near term, BYD’s Hungary launch in the fourth quarter will be a key milestone to watch, especially for clues on European pricing, sourcing, and future localization. Beyond that, the bigger story may be how quickly battery chemistry innovation, energy-market software, and embodied robotics start overlapping with the auto business.
If these trends continue, the most successful EV players will not simply be car brands. They will be platform companies spanning mobility, energy storage, supply chains, and industrial AI—and Chinese companies are positioning themselves aggressively for exactly that future.
