Electric Cars

GM Pioneers Recycled Batteries for New EVs

General Motors is embarking on a forward-thinking initiative, announcing the integration of recycled materials from used electric vehicle batteries into new Cadillac, Chevrolet, and GMC models. This pioneering pilot program underscores GM's commitment to advancing sustainable manufacturing practices within the automotive industry, signaling a shift towards a more circular economy for electric vehicles.

The core of this program involves collaborating with battery recycling specialist Cirba Solutions. Through this partnership, materials from 80 end-of-life batteries have been recovered, yielding black mass—a vital mixture of cathode and anode materials such as lithium, nickel, cobalt, manganese, and graphite. After meticulous chemical processing, this black mass is transformed into new cathode active material. Remarkably, 12 metric tons of this new material, composed entirely of recycled nickel, cobalt, and manganese, have been produced and subsequently utilized in brand-new battery cells. These cells are already powering production vehicles, including the Cadillac Lyriq, Vistiq, Escalade IQ and IQL, the Chevrolet Silverado EV Trail Boss, and the GMC Sierra EV AT4, proving the viability and reliability of recycled components in high-performance EVs. Kurt Kelty, GM's vice president of battery and sustainability, affirmed that these recycled-material cells meet the same stringent quality, safety, and performance standards as those made from virgin materials.

Beyond material recovery, GM is also exploring second-life applications for EV batteries before they are fully recycled. In collaboration with Redwood Materials, approximately 10,000 used EV batteries are being repurposed for energy storage systems. This dual approach maximizes the lifespan of battery components, further reducing waste and the demand for new raw materials. The broader industry is also moving in this direction; Porsche plans to use recycled materials in its production vehicles by 2028, and Rivian is powering its Illinois factory with second-life batteries, highlighting a growing industry-wide commitment to circularity and sustainability in EV manufacturing.

The adoption of recycled battery components in new electric vehicles represents a monumental leap towards an eco-friendlier automotive future. This initiative not only promises significant environmental benefits by curbing the need for extensive mining and reducing waste but also holds the potential to decrease manufacturing costs, making electric vehicles more accessible. By embracing innovation and collaboration, the automotive sector is paving the way for a regenerative industrial model where today's waste becomes tomorrow's resource, fostering a sustainable ecosystem that benefits both the planet and its inhabitants.

Tesla's FSD Software Update Triggers False Camera Warnings, Prompting Unnecessary Service Appointments

Tesla's most recent software update for its Full Self-Driving system, identified as version 14.3.9, has reportedly caused an unexpected issue for vehicle owners. The update is triggering erroneous alerts that indicate dirty cameras, despite the cameras being clean and fully functional. This glitch has led to a number of drivers scheduling unnecessary service appointments, which the automaker has subsequently started canceling as it acknowledges the software defect. A solution for this problem is anticipated in a forthcoming system update.

The problem surfaced following the release of FSD update v14.3.9, which encompasses software builds 2026.27.5 and 2026.27.6, rolled out around September 12. Owners who installed this version began receiving a persistent message on their central display: "Poor camera visibility detected. Interior windshield residue cleaning is required." Curiously, this alert often appears in conditions of bright sunlight or glare, suggesting the software misinterprets normal optical circumstances as an obstruction to the forward-facing camera system. Social media posts from Tesla owners, including one from @CARN0N on X (formerly Twitter), showcased Tesla Support confirming the software fault and the company's efforts to preemptively cancel service bookings related to this false alarm. Similar reports from other owners on platforms like Reddit further corroborate the widespread nature of this issue.

The FSD v14.3.9 update also introduced a significant enhancement: Automatic Collision Evasion for vehicles equipped with Hardware 4, enabling the FSD system to intervene and prevent collisions during manual driving. However, the camera alert bug has overshadowed this improvement. Tesla advises owners experiencing the false warnings to refrain from scheduling service appointments. For those who have already incurred costs for inspections or cleaning services due to these alerts, Tesla Support is offering refunds. A subsequent update, v14.3.10, is expected to resolve the erroneous notifications. While its release notes currently mirror those of v14.3.9, it is anticipated to contain the necessary corrections.

This incident underscores the inherent complexities and ongoing challenges in perfecting vision-only autonomous driving systems. While a false camera warning may seem a minor inconvenience rather than a safety hazard, it highlights the delicate balance required for such systems to accurately distinguish between genuine environmental degradation (like dirt, fog, or dust) and benign optical conditions. The system's heightened sensitivity, which appears to be the root cause of this particular bug, indicates an overshoot in calibration. Achieving reliable and unsupervised self-driving capabilities at scale necessitates a robust and redundant sensing architecture. The current reliance on a camera-only approach, despite its advancements, is prone to such misinterpretations, suggesting that continuous refinement and potentially diverse sensor inputs will be crucial for overcoming these hurdles on the path to widespread autonomous vehicle deployment.

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Tesla's Austin Robotaxi Fleet Declines Significantly Post-Launch Hype

Tesla's robotaxi operations in Austin, Texas, have seen a sharp downturn in active vehicles, settling back to just eight in the past week. This decline is noteworthy, as it brings the fleet size to nearly the same level as when the service first launched in June 2025, revealing a surprising stagnation in growth over fifteen months, even after a prominent marketing event. The initial spike in active vehicles that followed the "Cybercab launch" proved to be fleeting.

The highly anticipated Cybercab launch event in Austin on September 3 temporarily boosted Tesla's numbers, with numerous supporters and influencers sharing their experiences with the steering-wheel-free vehicles. Data from community trackers showed a surge in unique Tesla robotaxis actively transporting passengers in Austin, briefly exceeding 100 vehicles in early September. This was a significant increase from the consistent range of 20 to 40 vehicles observed for most of the year. However, this surge was short-lived, as the active vehicle count quickly plummeted back to eight by September 22. The initial flurry of ride-sharing videos also subsided once the invited influencers departed the city, highlighting the temporary nature of the promotional boost.

While Tesla continues to expand its registered autonomous vehicle fleet with the Texas DMV, boasting 476 VINs, including 67 Cybercabs and 409 Model Ys, the number of vehicles actually providing rides remains disproportionately low. Trackers have only identified 265 of these registered vehicles by their license plates, with only 179 observed in operation over the last month. Crucially, a mere eight vehicles were recorded actively transporting passengers in the most recent seven-day period. This disparity suggests that the growing registration numbers do not accurately reflect the true operational capacity or deployment scale of Tesla's robotaxi service, indicating a gap between stated capabilities and actual on-road performance.

The situation in Austin underscores a marketing push that lacks a robust product deployment. While Tesla can produce Cybercabs, translating that production into widespread, safe autonomous ride-hailing remains a challenge due to ongoing safety concerns. Running a limited number of vehicles in restricted areas at slower speeds is a pragmatic approach, but it contrasts sharply with the public perception—and especially the stock market narrative—that Tesla is leading the autonomous market without close competition. This discrepancy suggests a need for greater transparency regarding the actual progress and operational realities of their autonomous driving technology.

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