SpaceX’s RADICAL Upgrades on Starship's Pad-2 Catching System! New Era Comes Alive…

[music] 2026 is shaping up to be the year when long anticipated milestones finally transition into reality. At the center of this shift is full reusability as SpaceX advances toward recovering both stages of Starship using the catching method. Meeting the demands of this unprecedented challenge has required sweeping upgrades to the catching system with refinements across both hardware and operational procedures. Each change brings the concept closer to routine execution rather than experimental ambition. So, how close is SpaceX to making it work? Let's find out on today's episode of Great SpaceX. By now, the importance of reusability is almost self-evident. SpaceX has spent years proving that rockets do not have to be disposable. With Falcon 9, booster recovery evolved from a daring experiment into a routine operation, fundamentally reshaping the economics of spaceflight. Yet, even that achievement was never the destination. Partial reusability was only the proving ground for something far more ambitious. That ambition is full reusability, the most demanding tier SpaceX has ever pursued. Achieving it introduces entirely new technical challenges, but the payoff is groundbreaking. A fully reusable Starship system would redefine launch cadence, cost, and mission flexibility on a scale aerospace has never seen. At the center of this effort is the ability to catch Starship itself. For the V3 vehicle, catching is widely regarded as a core mission objective. While exact timelines depend on the performance of the first V3 flight, the path forward is becoming clearer. Before SpaceX can attempt to catch both stages, Starship must first complete a full orbital mission. To return to the launch site after orbit, it must reach orbit. There's no shortcut. As a result, SpaceX will almost certainly require at least one additional flight beyond the initial V3 mission to validate orbital insertion and a controlled return. In a best case scenario, flight 14 could mark the first attempt to catch the entire Starship stack. Even under optimistic assumptions, that milestone likely lies in early next year. That timeline explains why during construction of the new launchpad, systems related to the catching effort have received such intense focus. Every detail matters. Recently, on December 21st, SpaceX transported a new actuator for Chopsticks Pad 2. It's likely already installed. During the move, the component was concealed beneath a black cover, making close inspection difficult. However, its overall shape revealed clear differences from the previous design. Compared to the earlier actuator, the new unit appears to feature more segments and a noticeably larger end section. This strongly suggests the inclusion of upgraded hydraulic cylinders. These are not minor tweaks. They represent a meaningful increase in capability. The actuator is mounted between the carriage and the main arm of the chopsticks on pad 2, serving two critical functions. It enables the horizontal opening and closing of the arms and more importantly absorbs force and reduces shock during a catch. Securing a vehicle in midair demands that energy be dissipated instantly and smoothly. Any abrupt load transfer risks damaging both the vehicle and the structure holding it. This upgrade alone has the potential to significantly improve Starship's operational reliability. However, it's only one element of a broader evolution of the chopsticks system. At the center of that evolution is hydraulics. The upgraded hydraulic cylinders represent one of the most consequential changes in the new design. The power of hydraulic systems is well established. At scale, they can exert forces capable of deforming steel. Applied to the Mechazilla arms, this capability allows SpaceX to confidently control vehicles weighing hundreds of tons. Once raw force is no longer the limiting factor, attention can shift to precision and responsiveness. Managing mass and load enables flexibility rather than constraining it. That philosophy is already evident in the design changes taking place at Starbase. One of the most visible differences between Chopsticks Pad 2 and Pad 1 is arm length. The new Chopsticks are shorter by design. Musk has previously criticized the original arms for being too long, increasing inertia and slowing response. Shorter arms reduce that inertia, enabling faster, more precise motion. Lifting, lowering, opening, and closing can all be executed with greater agility. SpaceX reinforced this lesson by later shortening the arms on pad one as well. Together, these upgrades aimed to make the catch operation both more flexible and more reliable. Non-negotiable qualities at this level of difficulty. SpaceX compares the task to catching a fly with chopsticks. A metaphor that captures the precision but not the scale. Starship is enormous, even nearly empty. It returns weighing hundreds of tons. Catching an object of that mass while it's still moving leaves almost no margin for error. A failed catch could result in a massive explosion, damaging infrastructure and halting operations for months. The difficulty is compounded by the vehicle's condition on return. Starship arrives from orbit after enduring extreme heat, structural stress, and violent re-entry forces. In the final seconds, the vehicle and the chopsticks must function as a single system with second level timing and millimeter level alignment. The ship must not only be captured, but stabilized immediately. That is why the chopsticks must combine rigidity and adaptability. Without both, a successful catch is impossible. What further upgrades may be needed will be determined the SpaceX way through testing, iteration, and data. Because SpaceX is pursuing a two-stage catching strategy, Chopsticks Pad 1 is also being upgraded. Renovations are underway, and Pad 1 could return to service early next year, potentially ahead of the rest of the new pad infrastructure. Its configuration, however, will not mirror pad 2. Super Heavy and the ship are using different catching interfaces, so hardware such as rails and pins will vary. Current indications suggest pad 2 will be optimized for catching the ship while pad 1 continues its established role catching super heavy. Naturally, the emphasis on catching raises broader questions about landing philosophy. Is SpaceX betting everything on Mechazilla? The evidence suggests otherwise. In Florida, Starship's launch and landing plans include alternatives, including dronebased landings. Rather than contradicting the catch concept, these methods complement it. Drone landings offer several advantages. They reduce risk to critical ground infrastructure. They provide flexibility in landing location, allowing vehicles to optimize trajectories and propellant usage. They also support mission profiles that require landing legs, such as lunar or planetary surface operations. In these scenarios, Mechazilla is neither practical nor necessary. Conversely, catching with robotic arms offers unparalleled turnaround speed. By eliminating the need for landing legs and post-landing transport, vehicles can be secured, inspected, and readied for reuse far more quickly. For high cadence Earth orbit missions, this advantage is decisive. Crucially, SpaceX does not appear ideologically committed to any single landing method. Flexibility remains central. The company will employ whatever approach best suits the mission. All roads lead to the same destination, full reusability. Achieving it would collapse launch costs, normalize access to space, and fundamentally alter humanity's relationship with orbit and beyond. While the catching system draws most of the attention, the most critical upgrades extend far beyond the chopsticks themselves. The new launchpad represents a generational leap in infrastructure. With two elements standing out immediately, the flame trench and the redesigned orbital launch mount. On pad one, SpaceX relied on a six-legged OM paired with a water- cooled steel plate. This system ultimately proved effective after the early damage seen during flight 1. With the reverse shower deluge protecting the pad through subsequent launches over time, however, its limitations became clear. After just over 2 years and roughly 10 flights, the steel plate showed visible discoloration. This was not merely cosmetic. Discoloration is a clear indicator of material fatigue caused by repeated thermal cycling. For a vehicle as powerful as Starship, absorbing exhaust energy directly on every launch is not a scalable long-term solution. Is not a viable long-term solution. The Flame Trench offers a fundamentally different approach. Instead of absorbing thrust, it redirects it. Exhaust energy is channeled away from sensitive systems, reducing direct thermal and mechanical loading. Positioned below ground level, the trench confines and guides the plume, preventing it from washing over surrounding infrastructure and dramatically reducing cumulative damage. Integrated directly into the trench is a new water delivery system. Small diameter pipes are assembled into flame buckets that precisely follow the trench geometry geometry and are embedded in concrete for strength. When active, water is delivered at high pressure, aggressively suppressing heat and acoustic energy. Repeated deluge tests at pad 2 have already demonstrated the effectiveness of this design. Flame trenches themselves are not new. They have been a cornerstone of launch infrastructure for decades. What distinguishes SpaceX's implementation is scale and optimization. After validating the concept at the Massie test site, SpaceX deployed a dual flame bucket configuration at the pad, placing one at each end of the trench. This effectively doubles capacity, a necessity rather than a luxury. Super Heavy produces more than 9,000 tons of thrust, far exceeding that of the ship. Managing that energy reliably, is essential for sustained operations. Above the trench, the OM has been completely reimagined. The new OM resembles a rigid box-like structure rather than an open framework. Early speculation suggested it might be mobile for rapid replacement, but SpaceX instead welded it directly to the platform. This decision prioritizes rigidity, alignment, and structural integrity over modularity. In return, the new design emphasizes reliability and precision. Hold down clamp arms have been redesigned, opening and closing mechanisms improved, and sensitive components shielded from plume impingement. Large external manifolds now dominate the mount's appearance, supporting expanded cooling systems and protect not only the pad, but the OM itself. Heat management is now a core design feature, not an afterthought. Taken together, these upgrades reflect a clear long-term vision. Starship is becoming more powerful. Launch cadence is expected to rise sharply, and the pad must withstand repeated stress while remaining available. Downtime is the true enemy. This philosophy extends well beyond Starbase. At LC39A, existing OM legs have already been demolished to make way for a new mount and flame trench. Similar upgrades are underway across SpaceX's infrastructure, and even pad 1 continues to evolve following the V2 launch in October. All signs point toward a future defined by frequent launches and rapid reuse. Unlike traditional rockets, Starship is designed not only to leave the pad, but to return to it. Infrastructure must support both directions of travel. At the center of that vision is full reusability, enabled by one of the most ambitious concepts ever attempted, catching a rocket with robotic arms. It's an audacious idea, but so too was landing boosters on drone ships. SpaceX thrives in that space between Audacity and execution. With each upgrade, the system becomes more capable. With each test, uncertainty shrinks, and with a target set for early 2026, the timeline is no longer abstract. This is not a distant future. It is months away. For the first time, humanity is on the verge of watching a fully reusable orbital class rocket be caught out of the sky and prepared to fly again. It's an extraordinary moment unfolding in real time and we are here to witness it. And with that folks, this has been Kevin with Great SpaceX. Don't forget to like the video and subscribe if you haven't already to stay up to date with yours truly on the latest milestones in SpaceX's journey. Thank you so much for watching and always remember, curiosity, imagination, and inspiration will follow you so long as you keep looking up.