🚨 A REMARKABLE STORY ABOUT ELON MUSK’S SECRET GENERALS IN CHINA: THE TWO MEN WHO BUILT THE SHANGHAI MIRACLE 🏆 🌑 In 2018, Tesla had entered its darkest hour. In the United States, severe production crises and low yield rates had put Elon Musk on the hot seat. Wall Street magnates circled the company, eyeing it for short-selling, waiting for the inevitable collapse. 🌏 Across the Pacific, the situation was equally dire. In the massive Chinese market—which accounted for nearly half of global new energy vehicle sales—Tesla was struggling to gain traction. Faced with dismal sales of only 120 cars a month, an enraged Musk even considered disbanding the entire Chinese team. 🧱 The market was notoriously difficult to crack. Because all Teslas were imported, the starting price of 499,000 yuan for the Model 3 deterred most consumers. To lower prices, domestic production was essential. However, the premise for foreign companies to produce cars in China was to establish a joint venture—a compromise the maverick Musk was unwilling to make. 🔮 Tesla needed a miracle in China. That miracle would require two distinct phases spearheaded by two very different men: Robin Ren, the diplomat who would unlock the forbidden door, and Tom Zhu, the commander who would build an empire behind it. PHASE ONE: THE DIPLOMAT AND THE BREAKTHROUGH 🕵️‍♂️ Secretly, Musk began looking for a "China hand" to navigate the complex political landscape. Robin Ren (Ren Yuxiang), a fellow alumnus of the University of Pennsylvania, had long been on Musk's radar. Since 2012, Musk had repeatedly invited Ren to join Tesla, convinced he was the missing link. 🎓 Initially, Ren was surprised by the olive branch. He admitted he "knew almost nothing about the automotive industry" and found it hard to imagine that, 20 years after graduation, Musk would suddenly ask to have lunch. But Musk was persistent. As the 22nd International Physics Olympiad champion and Musk's former laboratory partner at UPenn, Ren was held in high regard by the CEO, who once noted that Ren was the only classmate whose physics was better than his own. 🤝 Ren finally joined in May 2015 as Vice President of Tesla Asia Pacific. Musk was set on him not just for his intellect, but for his unique leverage: his identity as a native Shanghainese with deep government relations. 🏛️ He became the unsung hero of the Shanghai project. Under Ren's mediation, Musk began frequently meeting with high-ranking Chinese officials. In April 2017, Ren first articulated the crucial argument that a wholly-owned factory "benefits the upgrading of China's automotive industry," persuading officials that Tesla's technology could drive the local supply chain. With theories of technological independence and industrial chain driving effects, Ren slowly loosened the customary domestic joint venture model. ✈️ By February 2018, the plan was ready. Ren flew to the US to report to Musk with a detailed blueprint for the Shanghai factory, including location maps, financing commitments, and transaction terms. Unfortunately, Musk was deep in the "production hell" phase of the Nevada battery factory. When they finally met, Musk didn't even look at Ren’s slides. He just stared at him and asked, "Are we doing this right?" 🚦 Ren was taken aback. He thought the heavy lifting was done, but realized Musk needed reassurance, not data. Giving a firm affirmative answer, Ren secured the green light. 🔓 In April 2018, the breakthrough arrived. The Chinese government lifted foreign ownership restrictions on new energy vehicles, and Ren seized the opportunity. By July, the Shanghai Municipal Government and Tesla signed a memorandum of cooperation. While Shanghai Mayor Ying Yong and Musk unveiled the project publicly, it was Ren who signed the agreement, quietly cementing his pivotal role. ✍️ Ren secured three extremely favorable terms that forcefully broke the established joint venture model. First, he negotiated land concessions, obtaining 860,000 square meters of land in Lingang at a 90% discount from the market price. ⚡ Second, he secured low-interest loans, obtaining credit support totaling over 16 billion yuan with an interest rate of just 3.9%. Third, he ensured rapid approval, taking only half a year from signing the contract to commencing construction. Robin Ren had successfully delivered Tesla's first taste of "China speed." PHASE TWO: THE COMMANDER AND THE WAR FOR SPEED 🏗️ With the door successfully opened, someone had to walk through it and build. While Ren moved in high-level diplomatic circles, the on-the-ground reality for Tesla China was chaotic. 🔌 In early 2014, the company was struggling with a "charging anxiety" crisis that was killing sales before they could start. Consumers refused to buy electric cars without a reliable network. Into this breach stepped Tom Zhu. Unlike the diplomatic Ren, Zhu was a man of the earth. 🌍 Born in China but educated in New Zealand with an MBA from Duke University, Zhu had cut his teeth managing tough infrastructure projects in Africa. He was used to dust, delays, and difficult environments. He joined Tesla in April 2014 to build the Supercharger network, but his pragmatic, military-style execution caught Musk’s eye immediately. Despite having zero automotive experience, he was put in charge of Tesla’s entire China operation by the end of the year. ⚔️ If securing the land was Robin Ren's victory, building the factory was Tom Zhu's war. The timeline Musk demanded was widely considered impossible: transform a muddy field in Lingang into a world-class vehicle factory in under a year. 🏠 Zhu moved to the front lines. Known for his no-fuss style and often seen wearing a standard-issue Tesla fleece jacket and a buzz cut, Zhu rented a small, government-subsidized apartment just 10 minutes from the construction site. He paid less than 2,000 yuan ($300) a month for rent, purely so he could be the first one in and the last one out. 🚀 Under his watch, "China Speed" became a reality. He orchestrated a 24/7 construction schedule that stunned the industry. In January 2019, the site was dirt. By October 2019—just 10 months later—the factory was complete and starting trial production. It was a miracle of manufacturing engineering that saved Tesla’s cash flow at a critical time. 💰 The results were undeniable. Two years later, the Shanghai factory contributed half of Tesla's global production capacity, and costs were sharply reduced by 65%. Through the Gigafactory, Tesla solved its production and profitability issues in one fell swoop, eventually surpassing a market value of $1 trillion in October 2021. UNSTOPPABLE: THE MIRACLE OF SHANGHAI 🌟 While Robin Ren left the company in 2020, Zhu’s star continued to rise. His defining moment came in 2022 during the severe Shanghai COVID-19 lockdown. The city was paralyzed, and factories everywhere were shutting down. For Tesla, a halt in Shanghai meant cutting off half its global cash cow. 🛌 Zhu made a decision that mirrored Musk’s own famous "sleeping on the factory floor" days. He implemented a "closed-loop" system, moving into the factory and sleeping on the floor alongside thousands of his workers. 🥣 For over two months, they lived, ate, and worked inside the facility, cut off from the outside world to keep the assembly lines humming. While other automakers flatlined, Zhu’s army kept delivering cars. By 2022, Giga Shanghai was Tesla's primary export hub, producing over 710,000 vehicles that year—more than half of Tesla's global output. 🤠 Musk, who values "hardcore" commitment above all else, saw in Zhu a mirror image of his own relentless drive. In late 2022, when Tesla's Texas and Berlin factories were struggling to ramp up, Musk didn't hire a local expert. He flew Tom Zhu to Austin. 🦺 Zhu arrived with a team of his most loyal lieutenants from Shanghai, famously appearing at the US factories in their signature Tesla visibility vests, ready to instill "China efficiency" into American operations. 🏆 In April 2023, the former project manager who built charging stations was named Senior Vice President of Automotive. Today, Tom Zhu sits at the very pinnacle of Tesla's hierarchy, effectively serving as the global No. 2, overseeing all global production and sales. ☯️ Ultimately, the miracle of Shanghai wasn't just about steel and software; it was about the collision of two distinct forces. Robin Ren was the velvet glove who rewrote the rules of the game, while Tom Zhu was the iron fist who built the arena. One conquered with handshakes, the other with grit. Musk may have provided the vision, but without his Diplomat to open the gate and his Commander to hold the line, the future would have remained just a dream.

GOOD NEWS 🇺🇸 Tesla CEO Elon Musk was seated at the head table for the state dinner alongside Nvidia CEO Jensen Huang, former Apple CEO Tim Cook, and AMD CEO Lisa Su 🔥

GOOD NEWS 📰 RBC Capital analyst Tom Narayan published a research note reiterating his Outperform rating on $TSLA while maintaining a $480 price target 🔥 The primary focus of this update is a preview ahead of Tesla's upcoming Q3 delivery report 🔥 Narayan estimates Tesla will deliver approximately 464,000 vehicles in Q3, modestly above the current market consensus expectation of around 454,000 vehicles 🔥

Tesla China just rolled out fresh limited-time savings for orders placed by October 31, 2026, knocking 5,000 yuan ($745) off the final balance across all Model 3 trims and 7,000 yuan ($1,045) off select Model Y configurations 🔥 Stacked with Tesla’s 5-year, zero-interest financing, buyers can lock in substantial savings: 🚗 Model 3: Starts at 222,500 yuan ($33,150) with 79,900 yuan ($11,900) down and monthly payments starting around 2,377 yuan (~$354) 🚙 Model Y: Starts at 256,500 yuan ($38,220) with the same 79,900 yuan down payment, bringing monthly installments down to 2,944 yuan ($439)

GOOD NEWS 🔋 Speaking during Tesla’s Semi rollout event in Nevada, Tesla Semi leads Dan Priestley and Lars Moravy emphasized that the production Semi delivers over 500 miles of range using a smaller, lighter battery pack 🆒 Tesla replaced externally sourced 2170 cells with its own in-house 4680 cells produced at Gigafactory Texas. Paired with efficiency improvements across the entire truck, the new pack requires fewer kilowatt-hours, weighs less, and costs less—all while preserving more than 500 miles of real-world range. Tesla emphasized that this range was demonstrated at a fully loaded 82,000 pounds without relying on a diminishing payload, noting that customer fleets have already validated the results. Early in development, Tesla viewed roughly 2.0 kWh per mile as the efficiency threshold needed to make the Semi commercially viable. The production truck reportedly consumes just under 1.7 kWh per mile when fully loaded. That creates a compounding benefit: lower energy consumption allows for a smaller battery, which further reduces weight and cost while enabling faster charging. Tesla also announced a lighter Standard Range Semi with roughly 325 miles of range for duty cycles and routes that don't require the full 500-mile pack.

GOOD NEWS ⚙️ During the launch event, Tesla Semi program lead Dan Priestley and Tesla engineering executive Lars Moravy said that Tesla has extensively redesigned the Semi’s drivetrain for volume production 🔥 The original Plaid-derived motor used a carbon-fiber-sleeved rotor, but Tesla replaced it with a steel-caged design intended to be cheaper, lighter, more efficient and more reliable. A stator shared with Cybertruck also allows Tesla to reuse an existing design and production line. Altogether, the redesigned drive axle is approximately 80 kg lighter. Tesla also replaced hydraulic steering with a fully redundant electric steer-by-wire system based on Cybertruck technology. Tesla says it eliminates hydraulic losses and leaks, makes the truck autonomous-ready and delivers exceptionally fast, precise steering. Combined with precise throttle control and greater wheel cut, it gives the Semi a turning radius reportedly close to a Model Y—making it easier to maneuver in cities and loading docks.

GOOD NEWS 🚨 Tesla has officially taken the wraps off the Megamanifold, scaling the proven thermal architecture of the Model Y’s Octovalve and Cybertruck’s Super Manifold V2 to Class 8 commercial freight 🔥 Instead of relying on isolated cooling loops and energy-hungry resistive heaters that crush winter hauling range, the Megamanifold unifies cabin HVAC and all powertrain thermal circuits into a single integrated system capable of heating and cooling different vehicle zones at the exact same time 🆒 Traditional diesel trucks waste nearly two-thirds of their fuel energy into the atmosphere as discarded exhaust and radiator heat, but the Tesla Semi captures that excess thermal energy directly from its motors, inverters, and brakes to heat the driver’s cabin and insulate battery chemistry 😎 By eliminating dozens of redundant hoses and treating every joule of powertrain waste heat as an asset rather than exhaust, Tesla is proving that full thermal integration—not just brute-force battery size—is what dictates the real-world economics of electric trucking 🔥

The main lobby of Tesla Semi Factory looks very cool 🤩 Everything has been ready for the big day 🔥

GOOD NEWS 🚛 A big wave of major companies is set to take delivery of Tesla Semis today at the @Tesla Semi Rollout event 🔥 Customer-branded trucks from DHL, PepsiCo, US Foods, Einride, Nevoya, ABF Freight, WattEV and others have already been spotted lined up at Tesla’s Nevada Semi factory 🔥 Several of these companies have placed significant fleet orders, making today’s event potentially the start of Tesla Semi’s much broader commercial rollout 🔥

GOOD NEWS 📰 Tesla will livestream the Semi rollout on 𝕏 🔥 Here is when to tune in around the world: The Americas (Thursday, September 24) 🇺🇸 / 🇨🇦 6:00 PM PDT (Vancouver, Los Angeles) 🇨🇦 7:00 PM MDT (Calgary, Edmonton) 🇲🇽 7:00 PM CST (Mexico City, Monterrey) 🇺🇸 8:00 PM CDT (Austin, Chicago) 🇺🇸 / 🇨🇦 9:00 PM EDT (Toronto, New York) 🇨🇱 10:00 PM CLST (Santiago) Europe & Middle East (Friday, September 25) 🇬🇧 / 🇮🇪 2:00 AM BST / IST (London, Dublin) 🇪🇺 3:00 AM CEST (Berlin, Paris, Amsterdam, Rome) 🇫🇮 4:00 AM EEST (Helsinki, Athens) 🇹🇷 4:00 AM TRT (Istanbul) 🇮🇱 4:00 AM IDT (Tel Aviv) 🇦🇪 5:00 AM GST (Dubai, Abu Dhabi) Asia-Pacific (Friday, September 25) 🇮🇳 6:30 AM IST (New Delhi, Mumbai) 🇹🇭 8:00 AM ICT (Bangkok) 🇸🇬 9:00 AM SGT (Singapore) 🇲🇾 9:00 AM MYT (Kuala Lumpur) 🇹🇼 9:00 AM CST (Taipei) 🇨🇳 9:00 AM CST (Shanghai, Beijing) 🇯🇵 10:00 AM JST (Tokyo) 🇰🇷 10:00 AM KST (Seoul) 🇦🇺 11:00 AM AEST (Sydney, Melbourne) 🇳🇿 1:00 PM NZST (Auckland) nitter.net/i/broadcasts/1vJpPNaYn…

GOOD NEWS 🇺🇸 Tesla just expanded its Texas Robotaxi fleet by 10 Model Ys, bringing the total to (you guessed it) 420 vehicles 🔥 Factor in 69 Cybercabs, and the fleet now tops out at 489 🔥 You couldn't script these numbers better 🔥

GOOD NEWS 🇺🇸 The first Cybercab built with Tesla’s own cathode material from the new Giga Texas plant is a far bigger deal than it first appears 🔥 Cathode is the undisputed holy grail of battery production. It eats up 30% to 40% of the entire cell bill of materials and dictates virtually everything that matters—energy density, charging speed, and long-term durability. For decades, commercial-scale cathode manufacturing has been locked down in East Asia, leaving Western automakers stuck with slow-moving, vulnerable transpacific supply chains. Tesla just completely rewrote that playbook. By synthesizing cathode active material right inside Giga Texas and feeding it battery-grade lithium hydroxide from their Robstown refinery, they’ve collapsed an 8,000-mile overseas shipping nightmare into a tight, sub-200-mile Texas sprint. That insulates production from geopolitical wildcards, tariff swings, and maritime shipping snarls. The real engineering genius, though, is how this unlocks their dry battery electrode (DBE) process. Off-the-shelf cathode powders from third-party vendors were engineered for traditional, solvent-heavy wet slurries that bake in massive, energy-hungry ovens. Making the material in-house lets Tesla design the exact particle shape, density, and coating chemistry needed for dry calender rolling. That solves the particle fracturing and binder peeling issues that made ramping early 4680 dry-coating lines such an engineering grind. Then comes the real volume multiplier: Cybercab’s compact ~48 kWh pack. Because cathode active material is consumed strictly by mass, every metric ton out of the Austin kilns builds nearly three times as many Cybercabs as it would Cybertrucks. Tesla doesn't need the cathode plant running at full multi-gigawatt-hour output on day one to supply a massive initial fleet of robotaxis. Even early, modest ramp yields move the needle in a huge way. This is how you win the autonomous mobility race on raw unit economics. By producing the material on American soil, Tesla gets to stack the IRA Section 45X advanced manufacturing credits—bagging subsidies on the cathode material itself, plus the cell and pack levels—all while cutting out third-party supplier margins entirely. Crushing powertrain capital expenditure directly compresses the levelized cost per mile. It is the ultimate vertical-integration flex, and it lays the physical foundation for running a sub-$0.20 per mile robotaxi fleet at scale.

GOOD NEWS 🇨🇳 The first batch of Model Y Performance vehicles is being delivered to customers at Tesla delivery centers in Beijing and Shanghai 🔥

📖 Before you replace books with screens, read this. A massive meta-analysis of 460,000+ readers reveals a striking gap between print and digital reading—and for young kids, the difference is night and day. Synthesizing data from across two decades, researchers at the University of Valencia published their findings in the *Review of Educational Research* to examine how leisure reading habits connect with comprehension. What they found complicates the rush to move childhood reading entirely onto screens. When these results are placed alongside previous research, traditional print-reading habits show a robust connection with comprehension, whereas digital leisure reading demonstrates an association that is numerically six to eight times weaker. This difference is statistical rather than literal. Previous research has placed the correlation between print-reading frequency and comprehension at roughly 0.30 to 0.40, while in the digital meta-analysis, the corresponding association was a modest 0.05. That does not mean a child understands eight times as much after opening a physical book; it means print-reading habits show a much stronger relationship with reading comprehension. That distinction matters, in large part because of what was being measured. The study defined digital leisure reading broadly, encompassing social feeds, chats, forums, websites, and online news alongside e-books. Reading an edited novel on a dedicated e-reader is fundamentally different from moving through messages, social posts, hyperlinks, and fragments of online information. Because the underlying research grouped these varied habits together, the findings speak most clearly to children’s overall digital reading environment rather than to every individual device or text. The pattern is most concerning among younger readers. Among primary- and middle-school students, frequent digital leisure reading was negatively associated with reading comprehension. It is only later, in high school and college, that the relationship edges into positive territory—possibly because older students are better equipped to navigate digital texts and regulate their attention. One compelling explanation for the divergence lies in the cognitive habits commonly associated with each medium. Reading comprehension grows through repeated exposure to extended arguments, unfamiliar vocabulary, complex syntax, and ideas that must be held in mind across paragraphs or chapters. Much everyday digital reading exercises a different skill entirely: rapidly deciding what deserves attention, extracting a small amount of information, and moving on. While useful in its own right, rapid filtering may not provide the same sustained practice that deep comprehension requires. The design of connected devices reinforces this scanning behavior. Much of what we read casually on screens is short, fast-paced, and written in informal fragments rather than sustained, syntactically rich prose. On a connected screen, text constantly competes with notifications, links, videos, incoming messages, and the knowledge that another source is always a tap away. This environment can encourage a fragmented reading mindset. Print, by contrast, places far fewer decisions between the reader and the text. Because most of the underlying studies were correlational and relied on self-reported habits, the results cannot prove that screens directly caused lower comprehension. Nevertheless, the scale of the dataset and the consistent age-based pattern make these findings difficult to dismiss. The practical lesson is not that children must avoid screens altogether. Phones and general-purpose tablets certainly have their conveniences, while dedicated e-readers can offer a quieter, less distracting experience. But digital reading as a whole should not be treated as a one-to-one substitute for print during childhood. Digital exposure cannot simply take the place of sustained, immersive reading practice. For parents and educators, the most constructive approach is intentionality. Print should remain the default medium for longer stories, complex nonfiction, and close reading during the foundational years, while digital reading can be introduced deliberately alongside lessons in managing screen distractions. For children navigating the critical leap from learning to read to reading to learn, physical books continue to provide the quiet, dependable foundation that deep comprehension demands.

If you don’t have time for the full deep dive, the core idea is simple: @Tesla takes standard two-channel stereo, extracts the soundstage and acoustic space already folded inside the left and right tracks, and rebuilds the performance around the cabin 🔊 Here’s how a flat stereo recording unfolds into an entire room: First, the processor slices the audio into micro-moments across frequency bands, tracking tiny timing and volume differences between channels. A vocal centered in both tracks locks dead-center. Panned instruments find their place on stage. Loose, drifting echo reveals the original room’s acoustics. Next, the algorithm separates direct sound from ambience using smooth ratios rather than hard cuts. A guitar stays anchored upfront while its natural room echo floats outward. Built-in smoothing keeps audio from flickering between speakers, and anything ambiguous simply defaults to its original stereo spot. Then the soundstage opens. Lead vocals and instruments stay locked across the dashboard, while reflections, decay, and crowd noise route to side, rear, and overhead speakers. Millisecond-level delays keep every driver in sync, with the Immersive Sound slider controlling just how wide that surrounding space breathes. No Dolby Atmos master required. The music still arrives in two channels—those channels just stop acting like walls. Tesla doesn’t fake surround sound—it uses raw DSP to blow standard stereo wide open into a 360-degree stage.

A deeper look inside the latest Tesla app 4.61.0 reveals several interesting developments: ✅ Tesla is adding controls for the left and right side-storage compartments on a newer Semi configuration internally referred to as “Semi V2” ✅ Tesla appears to be developing in-app Supercharger site maps with virtual queuing and assigned charging-post integration ✅ The app also includes new charging-protocol definitions for an OPTIMUS site type and a dedicated optimus_charger_id, suggesting Tesla is building backend support for identifying Optimus charging docks or facilities.