Starship IFT-10 & Starlink | The Cost Curve No One’s Talking About

SpaceX, Starlink, starship, Starship IFT-10 -

Starship IFT-10 & Starlink | The Cost Curve No One’s Talking About

SpaceX's successful Starship IFT-10 test and advancements in Starlink technology are poised to significantly reduce launch costs and disrupt the broadband landscape, paving the way for a more efficient and cost-effective space travel and satellite internet service

 

Questions to inspire discussion

Starship and Starlink Advancements

🚀 Q: How does Starship improve Starlink satellite deployment?
A: Starship enables deployment of V3 Starlink satellites that are 40-50X cheaper per unit bandwidth compared to Falcon 9, according to Mach33 research.

📡 Q: What advantages do larger satellites on Starship offer?
A: Starship's size allows for larger satellites delivering more bandwidth per mass, improving physics scaling laws and making it 50X more efficient than Falcon 9 for launching bandwidth per kilogram.

Cost and Capacity Improvements

💰 Q: How will Starlink's cost per unit bandwidth change?
A: Starlink's cost per unit bandwidth will become 40-50X cheaper than Falcon 9, significantly reducing satellite data downlinking costs from up to $1 million per satellite per year.

🏘️ Q: What capacity improvements are expected for Starlink by 2030?
A: By 2030, Starlink's capacity saturation will increase from 10 houses per km^2 to 100 premises per km^2, providing gigabit speeds to 1600 homes in a 1 km^2 area.

Market Disruption and Competition

🌆 Q: How will Starlink's market reach change by 2030?
A: Starlink's sphere of influence will move closer to cities, disrupting suburban areas while fiber remains dominant in dense urban areas.

📊 Q: What changes are expected in the cost crossover point between Starlink and fiber broadband?
A: The cost crossover point will increase from 150 houses per km^2 to 800 premises per km^2 by 2030, making Starlink more viable for rural and suburban areas.

Global Coverage and Future Projections

🌍 Q: What population density can Starlink's V3 constellation support?
A: Starlink's V3 constellation will support 100-150 people per km^2, covering the vast majority of the global population except for dense urban centers.

⏱️ Q: How does Starship launch cadence affect Starlink's 2030 timeline?
A: The Starship launch cadence impacts the 2030 timeline for Starlink's capacity saturation and cost crossover point, with a 2026 start being the most likely scenario based on a Monte Carlo model.

Key Insights

Starship's Cost-Effectiveness

🚀 Starship IFT-10 successfully deployed V3 Starlink satellites, which are 40-50 times cheaper to launch than with Falcon 9 on a cost per kilogram basis, according to Mach33 research.

🛰️ Starship's larger size enables launching bigger satellites that deliver more bandwidth per mass, making it 50 times more efficient than Falcon 9 for launching bandwidth, even if fully expendable.

💰 Starlink's cost per unit bandwidth is 40-50X cheaper than Falcon 9, significantly reducing satellite data downlink costs, which can reach $1 million per satellite per year.

Starlink's Future Impact

📡 By 2030, Starlink's cost crossover point with fiber broadband will increase from 150 to 800 premises per kilometer squared, due to increased constellation capacity and gigabit speeds.

🌎 Starlink's sphere of influence will expand to suburban areas with 100-150 people per square kilometer by 2030, while dense urban centers remain connected by transatlantic cables.

🚀 A Monte Carlo model with ARC input suggests Starlink's constellation size is statistically most likely to reach 20,000 terabytes per second by 2030.

Starlink's Current Capabilities

🏠 Starlink's average capacity is 10 houses per kilometer squared, offering 500 megabit per second plans, with gigabit speeds unprecedented in rural areas.

🌐 The V3 constellation will support 100-150 people per square kilometer, covering the vast majority of global population except dense urban centers.

Physics and Technology Limitations

📊 Larger satellites benefit from physics scaling laws, delivering more bandwidth for the same mass.

🏙️ Starlink will lag behind fiber in dense urban areas due to physics and technology limitations.

 

#SpaceX #Starlink #IFT-10

X Mentions: @SpaceX @GoingBallistic5  @HabitatsDigital @RoydenDSouza @AarontBurnett @ValdSaigau @anatomyumea

Clips

  • 00:00 🚀 SpaceX's Starship IFT-10 test was a massive success, paving way for scaling with V3 Starlink satellites unlocking significant cash flow.
    • SpaceX's Starship IFT-10 was a massive success, exceeding expectations with a near-perfect performance, following previous less successful launches.
    • The deployment of V3 Starlink satellites is the biggest achievement of the recent launch, as they are a major valuation driver that will unlock significant cash flow for SpaceX to scale Starship and potentially go to Mars.
    • The speaker feels relieved that the Starship IFT-10 test was successful, despite some anomalies, and notes that their sentiment has shifted after the test.
  • 03:51 🚀 SpaceX's Starlink satellites with Starship could potentially be cheaper to launch than with Falcon 9, and a report on Starship IFT-10 test is expected soon.
    • SpaceX's Starlink satellites, specifically the V3 version, are so performant that even an expendable Starship would be cheaper than launching with Falcon 9 on a cost-per-kilogram basis.
    • The discussion focuses on the Starship IFT-10 and Starlink, with a guest providing a high-level overview of the situation, touching on various theories about what happened during the test, including plasma physics and the fate of the skirt.
    • The speaker questions the direction in which Starship ejects objects, suggesting a retrograde direction would be safer to avoid potential impacts.
    • The speaker speculates that an energetic explosion or combustion occurred on the Starship, possibly due to a fuel and oxygen leak, but is unsure of the exact cause.
    • A report on the Starship IFT-10 and Starlink will probably be released later today or tomorrow.
  • 08:29 🚀 SpaceX's Starship IFT-10 success could reduce launch costs by up to 50x, revolutionizing space travel and satellite launches.
    • SpaceX's Starship success, particularly with IFT-10, significantly reduces launch costs, with estimates suggesting a decrease of up to 50x, revolutionizing space travel, including trips to Mars.
    • Starship can potentially reduce launch costs to around $700 per kilogram, even if fully expendable, due to its large size allowing for substantial payloads to orbit.
    • Combining V3 Starlink satellites with Starship's advantages can significantly change the cost curve, measured in dollars per gigabit per second, with different reusability scenarios showing varying cost savings.
    • Starship's reusability and larger size can make launching satellites up to an order of magnitude cheaper and enable more efficient delivery of bandwidth due to physics scaling laws.
    • The Starship's payload doors opened, indicated by gas venting that caused condensation, creating a cloud visible to viewers.
  • 13:03 🚀 SpaceX's Starship and Starlink advancements aim to significantly reduce costs and increase efficiency, leading to higher quality of service and lower prices for end users.
    • Launching bandwidth on Starship is 10-50 times more efficient than on Falcon 9, which will drive benefits for end users, including higher quality of service and lower prices.
    • SpaceX's Starlink constellation can reduce manufacturing costs by minimizing duplication of components, as a single satellite can serve as a hub, connecting multiple satellites and space stations with technologies like the recently tested mini laser.
    • SpaceX has a plug-in called "blazer" for third parties.
  • 16:23 🚀 Starlink's satellite network significantly reduces data downlink costs, enabling a large market for satellite constellations, and faces potential competition from other networks.
    • The Starlink laser terminal design poses interesting engineering challenges, including macro and micro pointing, and requires gyros to maintain satellite orientation.
    • The cost of downlinking data from a satellite can be up to $1 million per satellite per year, which Starlink's network can significantly reduce, enabling a large market for satellite constellations.
    • Starlink's 8,000 satellites could see significant cost reduction as competition from other networks like Kuiper increases, potentially cutting millions of dollars in annual costs per satellite.
    • China's attempt to build its own Starlink will face the same problem of limited satellite downlink capacity, requiring constant communication to efficiently transmit data.
    • The speaker's model for direct-to-cell costs is almost complete, and they plan to discuss the outcome in a future session.
  • 21:18 📡 Starlink's increasing capacity and speeds will disrupt broadband landscape, making it cheaper than fiber in rural areas and encroaching on suburban and urban markets by 2030.
    • Starlink is currently cheaper than fiber on a per kilometer basis to provide bandwidth, with the cost crossover point at 150 premises per kilometer squared.
    • Starlink's current capacity averages 5-10 houses per kilometer squared, which is significantly short of the 150 houses per kilometer squared required to match the cost curve.
    • By 2030, Starlink's capacity will increase to serve 100 premises per kilometer squared, encroaching on fiber's territory and shifting the rural-urban broadband divide closer to cities.
    • Starlink's speed, currently around 100 megabits per second, is outpaced by fiber's capacity of up to 1 gigabit per second, and will struggle to compete in dense urban areas.
    • Starlink's increasing speeds and capacities will disrupt not just rural areas, but also suburbs and eventually cities, as its sphere of influence expands, particularly with planned speeds of up to 1 Gbit per second by 2030.
    • Starlink's future constellation can support 100-150 people per square kilometer, which covers the average global population density, except for dense urban centers.
  • 28:27 🚀 Starship and Starlink's cost curve is expected to disrupt traditional fiber and internet services, with potential cost competitiveness by 2030.
    • A square kilometer is equivalent to 100 hectares, with 1 hectare being 100 meters by 100 meters or approximately 10 football pitches by 10 football pitches.
    • A 400-acre area, equivalent to 100 hectares, could support around 1600 homes, indicating that current production is only about one-tenth of the required scale.
    • Starlink's V3 will likely be a reliable and potentially cost-competitive option for most suburban areas, but may not be the only option in densely populated neighborhoods.
    • The cost of Starship and fiber crossover is expected to occur at 800 premises by 2030, based on a Monte Carlo model that accounts for possible Starship launch timelines.
  • 32:11 👋 The discussion with guests Aaron, Vlad, Scott, and Gustav on Starship IFT-10 and Starlink will continue next time with more details.

-------------------------------------

Duration: 0:32:35

Publication Date: 2025-08-30T08:28:15Z

WatchUrl:https://www.youtube.com/watch?v=nAZnZwXPRnM

-------------------------------------


0 comments

Leave a comment

#WebChat .container iframe{ width: 100%; height: 100vh; }