BOOM 🆘 Democrats are projected to take control of the U.S. House 💀 What does this mean for Elon Musk and Tesla? 🙏 Starting in January 2027, Democrats could use their new House majority to launch congressional investigations, hold hearings, and issue subpoenas examining Musk's government activities and potential conflicts of interest. For Tesla, that could mean increased scrutiny of FSD and Robotaxi safety, regulatory compliance, and the company's relationships with federal agencies. However, President Trump would still control the executive branch, including the agencies responsible for most regulatory and enforcement decisions. A Democratic-controlled House cannot directly dictate those decisions or rewrite federal regulations on its own. In the near term, Tesla could face more political pressure, additional legal and compliance costs, and greater regulatory uncertainty. But here's what matters most: No matter which party controls Congress, Tesla's technological achievements, engineering talent, and enormous long-term opportunities aren't going anywhere 🔥 Tesla isn't standing still. It's pushing the boundaries of autonomous driving, advancing humanoid robotics with Optimus, expanding its energy business, and continuing to innovate across its vehicle lineup. Those opportunities don't disappear because the political landscape shifts in Washington. What matters is Tesla's ability to keep innovating, execute at scale, and turn its technological breakthroughs into sustainable growth. Politics may create temporary headwinds, but Tesla's long-term potential is built on technology, innovation, and execution, not which party holds the majority in Washington.

SOS 🚨 @Tesla saw one of the steepest valuation drops in Interbrand’s 2026 Best Global Brands report, falling 25 spots and losing nearly 38% of its brand value 😱 It’s the third straight year of decline. Tesla was #12# at $45.5 billion in 2024, slipped to #25# at $29.5 billion in 2025, and has now landed at #50# with $18.3 billion. That’s about 60% of its brand value gone in just two years, and Ferrari is right on its heels, only one spot and $600 million behind. To be fair, it was a tough year for every carmaker. The auto industry lost nearly $57 billion in brand value, with Toyota, Mercedes-Benz, BMW and Honda all down between 18% and 22%. Even so, no brand in this year’s top 100 fell harder than Tesla. Keep in mind this isn’t market cap. Interbrand blends projected economic profit, how much the brand drives buying decisions, and an overall brand strength score. Put simply, it’s trying to measure how much the name alone sells cars. Interbrand doesn’t mince words about what went wrong. People bought into Tesla’s philosophy: no dealers, cars that get better overnight with software updates, and a charging network built just for them. But those things can be copied, and plenty of rivals now plug into Tesla’s own charging standard. The report argues that Tesla’s identity was never bigger than one person, so once Elon became a polarizing figure, the brand had nothing else to lean on. It’s not all doom and gloom, though. Interbrand’s CEO points to the Semi, Optimus, Cybercab and Roadster as proof of Tesla’s ambition. He says the real opportunity is turning that tech edge into experiences people actually use, and he calls Tesla one to watch heading into 2027. Tesla built its brand by showing people the future first. Next year’s ranking will tell us whether actually delivering it can win that value back.

ROBOTAXI APP NEWS 🚖 Tesla has updated its Robotaxi iOS app to version 26.10.6, and a peek under the hood reveals some exciting developments: ✅ Airport-specific booking flows The app now includes airport-aware pickup and drop-off logic, complete with an airline selector featuring a "Popular Airlines" section. This signals preparations for seamless airport trips, helping passengers easily select the right drop-off terminal or pickup spot as service expands. ✅ Trip sharing The code includes a dedicated trip-sharing link, an active sharing status indicator, and a remote feature flag. This sets the stage for sharing live ride updates with friends and family, providing an extra layer of peace of mind when riding in a driverless vehicle. ✅ Referral rewards and the Robotaxi coin Tapping the animated gold coin unlocks "Refer and Earn," giving riders quick access to shareable invite links and their credit history. A dedicated notification flow kicks in after an invited rider completes their first trip, complete with celebratory reward messages and on-screen confetti. This lays the groundwork for a built-in referral program designed to fuel viral, word-of-mouth growth, with offer terms and eligibility managed remotely behind the scenes. ✅ Grok and personalized voice settings The app supports push-to-talk, "Hey Grok" voice commands, and customizable spoken-announcement preferences, with availability tied to vehicle capabilities and prior ride history. This paves the way for a more personalized, hands-free experience that seamlessly carries over between compatible rides. ✅ Theater and YouTube search Remote feature flags connect Tesla's system to entertainment search controls, along with checks to verify if front-screen video playback is allowed. This could allow Tesla to roll out easier media discovery across eligible vehicles, giving passengers more ways to enjoy the ride. ✅ Model Y and Cybercab booking choices Vehicle selection logic accounts for available ride options, pricing, and Tesla's default choice, enforcing seating rules of four passengers in the Model Y and two in the Cybercab. This gives Tesla the framework to match each group with the right vehicle as the fleet expands.

HUMANOID ROBOT NEWS 🚨 According to reports from the October 28 SAECCE conference in Suzhou, XPeng Vice President Gu Jie said the company had unveiled a solid-state battery designed specifically for robots 🤖 It prioritizes high energy density in a robot’s limited internal space, resistance to impacts and nail penetration, and protection against thermal runaway spreading from one cell to another. In an all-solid-state battery, a solid material replaces the liquid electrolyte that carries ions between the electrodes. Semi-solid batteries use both solid and liquid electrolytes, and that distinction matters here. For humanoid robots, these are fundamental engineering challenges. Every kilogram of battery is another kilogram the robot has to support, balance, and move. Higher energy density lets designers store more energy at the same weight, or cut weight while keeping the same capacity. Energy per liter matters just as much, because space inside a humanoid’s body is tight. A more compact battery leaves more room for actuators, electronics, and cooling. Those gains only count at the level of the finished machine. Protective structures, cooling, electronics, and the compression hardware some solid-state cells need to keep their layers pressed together all add weight and take up space. The battery also has to deliver bursts of power for walking, lifting, and catching balance, manage heat, recharge efficiently, and hold its capacity through repeated use. Higher energy density solves only part of the problem. Safety takes on new importance when the battery walks into a room full of people. A humanoid can fall, hit equipment, or get damaged while working nearby. Gu also reportedly said XPeng had “reworked its battery standards.” The report offers no specifics, but that could mean testing batteries around a robot’s real working life: falls, repeated bumps, and close contact with people. A pack designed to contain a single failing cell could keep a local failure from turning into a larger emergency. Solid-state chemistry alone doesn’t guarantee that, so pack design still matters. XPeng’s timeline adds important context. When the company announced an all-solid-state battery for its next-generation IRON in November 2025, it reported that the pack withstood one hour at 250°C without thermal runaway, a 300G impact, and penetration by a 3 mm nail without catching fire. Those results apply to the 2025 design, and the October report doesn’t say whether it’s the same pack. XPeng announced the opening of its robot production line in September 2026. Its latest schedule calls for scaled production in late 2026, with initial deliveries in the first half of 2027. But which battery will actually go into production? In September, Jipian Lab reported that XPeng had tried unsuccessfully to source all-solid-state cells from BYD, Gotion, CALB, and EVE. It then selected a high-energy semi-solid cell in a pouch format, rather than the cylindrical format common in robot batteries. The reported problem was finding production-ready all-solid-state cells. Jipian also quoted a researcher who described the industry’s all-solid-state cells as largely laboratory samples, with almost none ready for outside testing. XPeng has not publicly confirmed the reported switch. The Chinese wording makes this especially interesting. The October report uses 固态, or “solid-state.” China’s draft national standard for EV batteries separates batteries into three categories: liquid, mixed solid-liquid, and solid-state. It also accepts “semi-solid” as another name for mixed solid-liquid, and “all-solid-state” as another name for solid-state. Under that draft’s terminology, “solid-state” means all-solid-state. Everyday industry usage is looser. Was Gu referring to an all-solid-state battery, or the semi-solid cell Jipian reported? The remark alone doesn’t answer that question. The connection to Tesla Optimus is now concrete. In its October 21 Q3 update, Tesla said it had begun building Optimus on its high-volume production lines in Fremont, describing the robots coming off those lines as its first production-quality units. XPeng and Tesla announced major humanoid production milestones within weeks of each other. Both programs now face the same practical test: how much useful work can the complete machine do between charges, safely and reliably? A better battery could turn more of a humanoid’s intelligence into productive hours.

BOOM 🚨 Have you ever wondered how Tesla stripped away the one thing standard brakes can’t live without—and yet the Cybercab still stops on a dime? 🔥 That's the magic of brake-by-wire 🔥 To see why that’s such a massive leap, let's look at how stopping usually works. In practically every car on the road, including every previous Tesla, stepping on the brake pedal forces hydraulic fluid down lines to squeeze the calipers. The Cybercab throws that entire setup out the window: no pedal, no lines, and zero brake fluid. Instead, braking begins as a software calculation. The car’s central computer determines the exact stopping force required for each wheel and fires off an electronic signal—no hydraulic master cylinder sitting in the middle. While Tesla hasn’t published its exact actuator specs, dry brake-by-wire systems generally work via a compact electric motor at each wheel. A small gearbox multiplies the motor’s torque, and a screw mechanism converts that rotational spin into a powerful linear push—much like turning a vise handle to clamp its jaws. That physical push forces the pads against the rotor. Sensors constantly monitor clamping pressure, allowing a wheel-level controller to micro-adjust the motor dynamic force dozens of times per second to hold the exact output requested by the computer. Releasing the brakes is just as snappy. The motor instantly reverses to pull the pads back cleanly, eliminating the light pad drag that creates subtle efficiency losses in conventional hydraulic setups. Because the whole system runs on electricity, Cybercab’s 48-volt architecture delivers far more punch to those actuator motors than legacy 12-volt setups ever could. The Cybertruck introduced steer-by-wire while keeping hydraulic brakes, but Cybercab completes the transition: both steering and stopping are now handled entirely by wire. Here’s the real twist: Tesla didn't ditch hydraulic brakes just to eliminate the foot pedal. Engineers made the leap because of how the vehicle is built. Cybercab is assembled from self-contained modules that only merge near the end of the assembly line. You simply can't route pre-filled, sealed hydraulic lines through a vehicle that starts out in disconnected pieces. With brake-by-wire, the front and rear braking hardware live entirely inside their respective modules. Each assembly can be built and tested independently before final integration—no brake lines to route, fill, or bleed on the main line. That design choice pays off long after the car leaves the factory, too. For a high-utilization robotaxi built to run over 500,000 miles, removing brake fluid eliminates routine fluid flushes and leak risks entirely. The biggest open question left is redundancy. Tesla hasn't detailed how the system manages a potential actuator failure on the fly—an answer that will carry real weight as Cybercabs hit public roads. Tesla didn’t rethink the brakes to stop harder. It rethought them so the car could be built in pieces.

GOOD NEWS 🚖 Tesla has just registered another 81 Cybercabs in Texas, officially hitting two major milestones in a single filing 🔥 ✅ With 544 Cybercabs and 507 Model Ys now registered, Tesla's commercial Robotaxi fleet in Texas has officially broken through the 1,000-vehicle threshold to reach 1,051 in total! ✅ Even bigger: purpose-built Cybercabs now outnumber Model Ys for the first time ever, taking over as the majority (51.8%) of Tesla's autonomous fleet in the state. ✅ Bonus: Tesla has added nearly 200 Cybercabs to its Texas fleet in the last 7 days!

If you ask the Tesla engineers behind Cybercab to sum up its design in one rule, the answer is these four plain words: "donot waste a gram" 🔥 It sounds like a simple rule about using less. But the closer you look, the smarter it gets 🔥 ✂️ WHAT $TSLA DELETED Model 3 and Model Y surround their battery electronics with a separate wall, top cover, seal, and a handful of bolts. Cybercab replaces all of that with a single stamping, and that same battery cover doubles as the car's floor. The heat pump's compressor bolts straight onto the refrigerant manifold, wiping out every refrigerant hose in the system. And instead of running dedicated high-voltage circuits from the battery to the thermal system, Cybercab simply taps power from the drive inverter, which already carries high voltage. The electric oil pump is gone, along with its circuitry and firmware, replaced by a simple mechanical one. So is the one-shot pyro fuse. The front and rear body modules even skip e-coating, part of eliminating a paint shop that can cost a few hundred million dollars to build. Even fun gets audited. Tesla's head of drive units isn't a fan of Easter eggs, because someone would have to spend time grinding a logo into a die that never needed one. As a colleague put it, if it adds a penny, it's too much. ⚖️ SPENDING A LITTLE TO SAVE A LOT Here's the twist. Sometimes not wasting a gram means adding one. Every battery module board now gets a wireless chip, adding 20 to 30 cents to its cost. In exchange, Tesla deletes a communications harness that might cost about a dollar, plus roughly 50 cents to install. Robots hate harnesses too, because they're notoriously messy to automate. The battery enclosure switches to steel, which costs about $1.90 per kilogram versus $5 to $8 for aluminum. To get it down to just 1.2 millimeters thick, engineers add local reinforcements and extra parts exactly where they're needed. Steel loses on weight, but Tesla says the numbers still come out ahead on cost. The motor's cooling passages move out of pricey electrical steel and into the cheaper die-cast aluminum surrounding it. Every job goes to the cheapest material that can do it well. 🏋️ THE WAR ON HIDDEN PADDING Padding is one of the sneakiest ways a car gains weight. If the target is 1,600 kilograms, every team designs to 1,600. The car still has to meet every requirement, but no team gets to slip in its own 20% cushion on top. Testing works the same way. Parts are expected to fail between 95% and 100% of their spec, because a part that survives far beyond it is hauling around material it doesn't need. That matters because weight snowballs. A heavier car needs bigger brakes and a stronger structure, which pile on even more weight. The good news is that efficiency snowballs too. Cybercab turned out more efficient than Tesla expected, so the pack needed fewer cells than planned, leaving spare room inside. ♻️ WASTE IS MEASURED OVER A LIFETIME The rule doesn't stop at the factory door. Battery modules are now potted individually instead of as one solid pack. If one module fails, three healthy ones worth about $1,500 each get saved. On a Model Y structural pack, that same failure means replacing the whole thing. Reusable contactors can cut power under load a few times and keep right on working, so a minor fender bender doesn't have to blow a one-shot fuse and send the car to service. We usually judge a car's efficiency the day it rolls out of the factory. Tesla is judging Cybercab on the day it finally retires, at least half a million miles later, and counting every gram it never had to replace.

SOS 🚨 For years, the question was how fast Tesla could build cars. With Cybercab, the question is how fast the world can make room for them 🔥 During Munro’s tour of the Cybercab factory, @larsmoravy revealed that the line doesn’t even run every day. In his words, “the line can run so fast it’s currently outpacing our robotaxi deployments, so it’s a bit of a race right now to see who can go faster.” That’s a remarkable reversal for Tesla. During the Model 3 ramp, the factory was the bottleneck, and Elon famously called it “production hell”. When Tesla later pushed its lines toward even more automation, it hit a wall. As Lars put it, “the problem wasn’t the automation. The problem was the design”. That’s why Cybercab was designed around the factory from day one. The car is split into modules that are built and tested in parallel, then joined in about 25 final assembly stations, roughly a fifth to a tenth of what a Model Y needs. The framing line is fully automated, and the whole operation was planned to build thousands of cars a week in about half the usual floor space. Now the race has moved, and that flips how expansion works. Normally, a new market has to wait for the factory to catch up. With Cybercab, the cars could be ready before the next city is. And once the cities start catching up, this line finally gets to run every day.