SpaceX says Starship’s 15th flight is preparing to launch as soon as Friday, November 13, pending regulatory approval, with a 75-minute window opening at 4:45 p.m. CT (SpaceX flight page). It is planned to be the first flight to return both the Super Heavy booster and the Starship upper stage to the launch site for a catch by the tower at Starbase.
SpaceX says a successful attempt “will mark the first full recovery of an orbital launch system”.
Business Pill · Vertical Integration
An evergreen Business Engineer explainer on vertical integration. It teaches the general idea only and does not discuss SpaceX or Starship.
The key insight: SpaceX says Starship Flight 15, targeted for November 13 pending regulatory approval, is planned to be the first flight to return and catch both the Super Heavy booster and the Starship upper stage, while deploying 26 Starlink V3 satellites; by our arithmetic on SpaceX’s 1 Terabit per satellite, that is about 26 Terabits of capacity.
According to SpaceX, the ship is expected to orbit at an altitude of about 275 km and complete about 14 orbits over a flight of more than 22 hours. The flight profile is designed so the vehicle can insert into a passively safe suborbital trajectory or deorbit safely at several predetermined points.
The booster’s primary objective is launch, ascent, stage separation, a boostback burn and a return to the launch site for catch. SpaceX says this will be the first return and catch attempt for a Super Heavy V3 booster; three V1 boosters were caught on earlier flight tests.
The upper stage’s primary objectives are deploying 26 Starlink V3 satellites and the first return to launch site and catch at Starbase. SpaceX says Starship “will only execute a return to launch site if the flight control team has ensured that the vehicle systems critical for reentry maneuvers and final landing burn and tower approach are healthy”.
Starship Flight 15 payload per SpaceX: 26 Starlink V3 satellites at 1 Terabit each, which SpaceX says equal about 10 Falcon 9 V2 Mini launches. The 26 Terabit total is our arithmetic.
Update, 8 Nov, 09:44 UTC: SpaceX sets out how Flight 15 will return the ship to Starbase. In an update posted on 7 November, SpaceX says the return “must now fly a safe trajectory that will take it over inhabited areas in northern Mexico and southern Texas”. Starship will first launch to “a passively safe suborbital trajectory” before a go or no-go decision for orbit. Three of the Starlink V3 satellites it deploys “have been modified to acquire imagery of Starship’s heatshield”. The ship will then coast in orbit “for another ~21 hours”, with options to end the mission early by splashing down around Hawaii or off the coast of Chile. It will return only if it meets SpaceX’s “internally developed, and FAA-approved, conditions for a return to launch site and catch”, and residents of Cameron County “may hear one or more sonic booms” (SpaceX).
Elon Musk’s post at 17:08 UTC on 7 November, captioned “Starship flight maneuvers”: a diagram that labels the steps of a Starship flight, from Super Heavy engine start, launch, ascent and hot staging to the flip maneuver and boostback burn, then Starship ascent, engine cutoff, orbital insertion burn, Starlink deploy, orbital coast phase, deorbit burn and entry, with two “landing burn and catch” steps.
SpaceX has just released a new blog about Starship’s upcoming 15th flight planned for Nov 13 with more info about what to expect, the significance of this flight, and their approach to safety:
“Starship is preparing to take a major step towards full reusability: bringing the Starship upper stage back to the launch site for a catch by the tower at Starbase.
To return Starship to Starbase, the spacecraft must now fly a safe trajectory that will take it over inhabited areas in northern Mexico and southern Texas to reach its launch site for catch. Like previous flight testing and the first successful mission to orbit, Starship’s flight profile for this ambitious mission is being designed with opportunities to safely end the mission early if necessary and will follow strict criteria before committing to the final phases of flight.
OUR APPROACH TO A SAFE RETURN: On Flight 15, Starship will initially launch to a passively safe suborbital trajectory. This is the same flight profile used on Starship’s first orbital mission and ensures that any issues encountered during ascent or shortly thereafter will result in Starship reentering over a cleared area of the Indian Ocean.
After this initial ascent, flight controllers will assess the health of Starship’s systems before giving a “go” or “no-go” for orbit. If “go”, Starship will then perform an orbital insertion burn with a single Raptor sea-level engine, increasing its speed and achieving orbit around Earth.
Once on orbit, Starship will deploy its payload of Starlink V3 satellites. Three of these satellites have been modified to acquire imagery of Starship’s heatshield. This method of analyzing Starship’s heatshield has been tested on previous flights and is one of several data sources to help inform Starship’s readiness to return to the launch site on Flight 15.
After deploying its payload, Starship will then coast in orbit for another ~21 hours until its orbit aligns with Starbase for a return. During this multi-hour orbital coast, flight controllers will continuously perform manual and automated checks of Starship systems which, similar to the first orbital flight, will be intentionally conservative. They include Raptor engine health, loss of power or communications, the health of the flight computers and navigation sensors, the structural integrity of the propellant tanks and feedlines, the ability to hold tank pressure, and Starship’s ability to control its attitude.
During this prolonged coast phase, flight control teams have several options to end the mission early and return Starship to precleared areas of the Pacific Ocean if needed. These locations include early- and late-mission splashdown options around Hawaii and a mid-mission splashdown opportunity several hundred kilometers off the coast of Chile. These precleared areas, which were also used during Flight 14, provide a safe place to land Starship if any conditions arise that may preclude the ability to perform a safe reentry.
WHAT SHIP CATCH WILL LOOK (AND SOUND) LIKE: Flight controllers will only permit Starship to return to Starbase if the vehicle’s status meets our internally developed, and FAA-approved, conditions for a return to launch site and catch.
If these requirements are met, Starship will perform a deorbit burn with a single Raptor 3 engine. This deorbit burn will alter Starship’s path to place the vehicle on a course to reenter Earth’s atmosphere at a specific point over the Pacific Ocean, thousands of kilometers uprange from Starbase.
During reentry, Starship can alter its flight path by moving its four control flaps. This will permit Starship to maintain a safe and known trajectory while guiding itself with high precision control toward Starbase. This control will also allow Starship to carry out a series of small turns in its trajectory to intentionally fly over sparsely populated areas of northern Mexico and southern Texas.
As Starship approaches Starbase from the west, the vehicle will weave its way around the major cities in the Rio Grande Valley, passing to the north of South Padre Island and out over the Gulf of America as it makes its final turn south towards Starbase. This banking maneuver has been demonstrated several times on previous Starship flight tests.
During this phase, residents of Cameron County and those in the nearby area may hear one or more sonic booms as Starship approaches the launch site. A sonic boom is a brief, thunder-like noise a person on the ground hears when an aircraft or other vehicle in the area flies faster than the speed of sound. The sonic boom does not present a health risk and what people experience will depend on weather and other conditions.
As Starship arrives over Starbase, it will perform the final bellyflop maneuver down towards the tower at Pad 2. This bellyflop was proven during a series of high-altitude test hops and during numerous suborbital flight tests. Shortly before reaching the tower, Starship will ignite its three sea-level Raptor engines and flip itself vertical while stowing its flaps. After the flip is complete, Starship will down-select to two Raptor engines and maneuver between the tower’s mechanical arms, before down-selecting to a single engine as it comes to a near hover. The arms will close rapidly to catch Starship on its two catch fittings just below the forward flaps. Once Starship registers contact with the tower arms, it will shut down its final Raptor engine.
During reentry, flight controllers will have several options to end the reentry early and safely by intentionally tumbling Starship to ensure that it breaks up in the atmosphere before reaching land. There is also a late-reentry option to send Starship into the Gulf of America if any of its systems or the tower itself encounter an issue after reentry that would preclude a safe catch at Starbase.
THE HOLY GRAIL OF ROCKETRY: Recovering an entire orbital launch system has never been done, and Starship has always been designed change that. This full recovery is often referred to as the Holy Grail of rocketry as it enables full and rapid reuse of a rocket – opening the door to airplane-like cadence where a vehicle flies again rapidly.
Reaching this milestone with Starship will allow SpaceX to unlock the true capability of Starship and will enable future missions to establish a permanent human presence on the Moon, expand the worldwide Starlink network, launch our Starmind supercompute constellation, extend the light of consciousness to the stars, and make life multiplanetary.”
Video below of the what flight 15’s mission profile is:
Sawyer Merritt posted on 7 November long excerpts from SpaceX’s new update on Flight 15, with a video of the mission profile. The update box above takes its facts from SpaceX’s own page, not from the post.
The Starlink Payload
SpaceX says each Starlink V3 satellite will add 1 Terabit of capacity to the constellation, and that the 26 satellites together equal about 10 Starlink V2 Mini launches on Falcon 9. Three of the satellites carry cameras to scan Starship’s heatshield and send the imagery to operators, one of the data sources SpaceX says will inform whether the ship is ready to return to the launch site.
The heatshield carries the changes made for Flight 14, including extra retention mechanisms on tiles in the areas most at risk during ascent, and a large section of curved tiles that SpaceX says reduced heating in the gaps between tiles.
Our Numbers
At 1 Terabit each, the 26 satellites would add about 26 Terabits of capacity (our arithmetic on SpaceX’s per-satellite figure). Using SpaceX’s own equivalence of about 10 V2 Mini launches, one Starship flight carries roughly the capacity of 10 Falcon 9 Starlink missions.
Connecting the Coverage
This week Musk also said the next-generation laser links would run at 10 terabits a second and that V4 satellites could compete with undersea cables (our piece). SpaceX has also filed to put up to one million orbital data-center satellites into space (our piece), and an analyst firm reported an order of 6,000 racks for orbital data centers, which SpaceX has not confirmed (our piece). Musk separately forecast SpaceX’s fourth-quarter revenue up about 70% (our piece).
The Structural Read
As we read SpaceX’s page, the flight pairs a recovery test with a commercial payload: the ship catch only happens if the flight team confirms the reentry and landing systems are healthy.
As we read the payload figures, SpaceX’s own equivalence of about 10 Falcon 9 V2 Mini launches is the clearest measure of what one Starship flight would add to Starlink.
As we read the page, it ties this mission to Starlink capacity only; it says nothing about orbital computing.
SpaceX, Starship Flight 15 page, 7 November 2026
“If successful, this will mark the first full recovery of an orbital launch system and a breakthrough moment in making Starship a reliable, rapidly reusable rocket”
Three Implications
FOR STARLINK SpaceX says each V3 satellite adds 1 Terabit of capacity and that the satellites should begin serving customers as soon as a few weeks after launch.
FOR REUSABILITY SpaceX says this is the first return and catch attempt for a Super Heavy V3 booster; three V1 boosters were caught on earlier flights.
FOR THE SCHEDULE SpaceX says the date is pending regulatory approval and the schedule is dynamic and likely to change.
The analysis tallies “~$1.04 trillion in 2026 compute capex, the first trillion-dollar year of compute capex in human history.”
As we read it, launch capacity is one of the inputs to the orbital-compute plans covered below; the analysis does not discuss Starship or this flight.
What Is Not Established
The launch date depends on regulatory approval and, in SpaceX’s words, the schedule “is dynamic and likely to change”. SpaceX says the 26 satellites “should begin serving customers as soon as a few weeks after launch”, after on-orbit checkouts. Nothing in the flight page ties this mission to orbital computing; that link is drawn only from the separate plans cited above.
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SpaceX is targeting November 13 for Starship Flight 15, its first attempt to catch both the Super Heavy booster and the Starship upper stage back at Starbase, while deploying 26 Starlink V3 satellites. By our arithmetic on SpaceX’s figures, that payload would add about 26 Terabits of capacity, roughly what SpaceX says 10 Falcon 9 Starlink missions carry.
A note on sourcing. The flight date, objectives, payload and heatshield details come from SpaceX’s Starship Flight 15 page, linked in the text; the 26 Terabit total is our arithmetic on SpaceX’s per-satellite figure. This is not investment advice.
Gennaro Cuofano is a CRO and tech executive who has worked in AI since late 2015, starting with bringing NLP, natural-language generation, voice and chatbot products to the marketing industry. His background is in law and finance: he holds a Master's degree in Law and an International MBA with an emphasis on corporate finance (LUISS Business School and the University of San Diego, 2012), and worked as a financial analyst at a real-estate investment firm in San Diego and as an assistant controller. His work focuses on business model strategy, business engineering and, more broadly, structural analysis: how companies make money, read from their own filings. He created FourWeekMBA and leads research there and at The Business Engineer, his newsletter on AI and business strategy, with over 95,000 subscribers and more than 1,000 published analyses. His writing has also appeared on Entrepreneur (for example, How to Digitize a Family Business in Europe) and HackerNoon. Find him on LinkedIn and Substack. See how we source.
