howclose.to
Space · Updated July 2026Momentum · accelerating

How close are we to cheap space launch?When does a ride to orbit get cheap?

or, simply: When does a ride to orbit get cheap?or, precisely: How close are we to cheap space launch?

Reusable first stages have cut the price of orbit by more than 90% since the Shuttle, but the sub-$100/kg goal depends on rapid full reuse that Starship has not yet demonstrated.Rockets can now land and fly again, which made space far cheaper — but the truly cheap ticket needs a whole rocket you can reuse in days, and nobody has that yet.

We are here

Starship V3 flies and deploys satellites (Flight 12) — Flight 12 was the first flight of the larger Starship Version 3, deploying 20 Starlink mass simulators plus two functional V3-class satellites — though the booster landing was not achieved. Next up — First upper-stage (Ship) tower catch attempt (expected 2027).

01 · Where we stand

Four tests between here and the goal

Each threshold is a falsifiable claim with a named next test. We move the meter only when a result is public.

Reusable first-stage launchLand the big first stage and fly it again✓ Achieved · Mar 2017
100%
Proven byFalcon 9 first reflight; list price ~$3,000/kg vs ~$54,500/kg on the Shuttle
Rapid full reuseReuse the whole rocket, fastEarly
35%
Next testFirst Starship upper-stage (Ship) tower-catch attempt, targeted for Flight 13/14 in 2026
Sub-$100/kg commodity priceMake the ticket to orbit truly cheapEarly
12%
Next testFully-reusable Starship reaching high cadence and publishing commercial pricing below $1,000/kg
THRESHOLDS — Thresholds for Cheap Space Launch.
Scale
Price to launch payload to low Earth orbit: log scalePrice to launch payload to low Earth orbit over time, with measured values, projected values, and a goal at 100 USD/kg to LEO.1001,00010,000Price to launch payload to low Earth orbit · USD/kg to LEOYear1981201620182026GOAL 100 · ~$100/kg — SpaceX Starship long-run targetSpace Shuttle — full-cost per kg to LEO (CSIS, constant FY2021 $): 54,500 USD/kg to LEO (1981)Space Shuttle — full-cost per kg to LEO (CSIS, constant FY2021 $)Falcon 9 (reusable) — per kg to LEO (CSIS, constant FY2021 $): 2,720 USD/kg to LEO (2016)Falcon 9 (reusable) — per kg to LEO (CSIS, constant FY2021 $)Falcon Heavy (reusable) — per kg to LEO (CSIS, constant FY2021 $): 1,500 USD/kg to LEO (2018)Falcon Heavy (reusable) — per kg to LEO (CSIS, constant FY2021 $)Starship — TARGET price, not achieved (~$100/kg claimed; ~$250–600/kg more likely near-term): 100 USD/kg to LEO (2026)Starship — TARGET price, not achieved (~$100/kg claimed; ~$250–600/kg more likely near-term)~1,400 USD/kg to LEO to goal
NOTE — Starship's ~$100/kg is a design target that depends on unproven reuse cadence, not an achieved price — shown as projected.
02 · How we got here

The record behind the verdict

Major events set large; context events set small but never hidden. Everything below the TODAY rule is a schedule, not a result.

195719801 event1 shown

The expendable era — high $/kg

The expendable era — high $/kg begins with sputnik 1 — first orbital launch. The result established the next question for the field.

1957
Sputnik 1 — first orbital launchDeployment
The Soviet R-7 placed the first artificial satellite in orbit, opening the era of fully expendable rockets thrown away after a single flight at very high cost per kilogram.
198120072 events1 shown

The Shuttle's false promise of reuse

The Shuttle's false promise of reuse moved the field from space shuttle first flight (sts-1) to dc-x delta clipper vertical landing. The results narrowed the next question without closing it.

1981
Space Shuttle first flight (STS-1)Deployment
Columbia flew the first reusable orbiter, but reuse did not lower cost — refurbishing the orbiter and boosters between flights was so labor-intensive that per-launch cost stayed roughly $1B+, higher than many expendables.
1993
DC-X Delta Clipper vertical landing
The DC-X prototype demonstrated vertical takeoff and vertical powered landing for the first time, an early proof-of-concept for reusable boosters that later inspired Falcon 9 and New Shepard.
200820226 events3 shown

Partial reuse — Falcon 9

Partial reuse — Falcon 9 moved the field from falcon 1 reaches orbit to starlink drives rapid falcon 9 reuse. The results narrowed the next question without closing it.

2008
Falcon 1 reaches orbitExperiment
On its fourth attempt Falcon 1 became the first privately developed liquid-fueled rocket to reach orbit, proving a startup could build an orbital launcher and keeping SpaceX alive.
2010
Falcon 9 debut flight
The first Falcon 9 reached orbit, giving SpaceX a medium-lift workhorse designed from the outset to eventually recover and reuse its first stage.
2015
First orbital-class booster landingExperiment
After the Orbcomm OG-2 launch a Falcon 9 first stage returned and landed upright — the first time an orbital-class booster was recovered intact.
2017
First booster reflight (SES-10)Deployment
SpaceX relaunched a previously flown Falcon 9 first stage to orbit and landed it again — the first reuse of an orbital booster, the moment reusability savings began moving from promised to demonstrated.
2018
Falcon Heavy first flight
Falcon Heavy flew for the first time and landed its two side boosters simultaneously, briefly the most capable operational rocket and extending reuse to heavy lift.
2019
Starlink drives rapid Falcon 9 reuse
SpaceX began launching its own Starlink constellation on reused Falcon 9 boosters, building the high-cadence operations that turned reusability into real, measured cost reduction (individual boosters now exceed 20+ flights).
202320306 events3 shown

Toward full reuse — Starship

Toward full reuse — Starship moved the field from starship first integrated flight test to full rapid reuse of both stages. The results narrowed the next question without closing it.

2023
Starship first integrated flight test
The first full Starship + Super Heavy stack lifted off but lost multiple engines, failed to separate, and was destroyed about four minutes in — an explosive but data-rich first attempt at a fully reusable super-heavy rocket.
2024
First Super Heavy tower catch (Flight 5)Experiment
On Flight 5 the Super Heavy booster flew back to the launch site and was caught in mid-air by the tower's 'chopstick' arms — the first catch of an orbital-class booster and a key step toward rapid reuse.
2025
Starship deploys its first payloads (Flight 10)
After a run of upper-stage failures earlier in 2025, Flight 10 successfully deployed eight Starlink mass simulators and completed a controlled splashdown — the first successful payload deploy from Starship.
2026
Starship V3 flies and deploys satellites (Flight 12)DeploymentWe are here
Flight 12 was the first flight of the larger Starship Version 3, deploying 20 Starlink mass simulators plus two functional V3-class satellites — though the booster landing was not achieved.
2027
First upper-stage (Ship) tower catch attemptExperimentTarget
Planned milestone: catching the returning Starship upper stage at the tower the way the booster already is — the still-unproven half of full reusability. Date and success are not yet established.
2028
Full rapid reuse of both stagesDeploymentTarget
Target: routinely reflying both the Super Heavy booster and Starship with minimal refurbishment — the actual mechanism by which launch cost is meant to fall dramatically. Not yet demonstrated.
203020301 event0 shown

Events outside the declared eras

Events outside the declared eras begins with target: sub-$100/kg to orbit. The result established the next question for the field.

2030
Target: sub-$100/kg to orbitDeploymentTarget
Long-stated aspirational goal of driving marginal launch cost below roughly $100 per kilogram — repeatedly promised for Starship but not yet realized or independently verified.
03 · The data behind the verdict

Why the meters read the way they do

The learning curves and comparisons that justify each threshold's percentage. Every series is measured, with the source event linked in the timeline above.

$/kg descent

The price of orbit keeps falling

15×best observed ÷ goal
Price to low Earth orbit on a logarithmic scaleObserved launch prices fall from the Space Shuttle to Falcon Heavy. The goal is $100 per kilogram, with a projected target shown separately. The remaining gap from the best observed price is 15 times.$10$100$1,000$10,000$100,000Price to launch payload to low Earth orbit · USD/kg to LEO · log scaleObserved vehicle / yearGOAL · ~$100/kg — SpaceX Starship long-run targetSpace Shuttle — full-cost per kg to LEO (CSIS, constant FY2021 $): $54,500 USD/kg to LEO (1981)Space Shuttle$54,5001981Falcon 9 (reusable) — per kg to LEO (CSIS, constant FY2021 $): $2,720 USD/kg to LEO (2016)Falcon 9 (reusable)$2,7202016Falcon Heavy (reusable) — per kg to LEO (CSIS, constant FY2021 $): $1,500 USD/kg to LEO (2018)Falcon Heavy (reusable)$1,5002018Starship — TARGET price, not achieved (~$100/kg claimed; ~$250–600/kg more likely near-term): $100 USD/kg to LEO (2026) — projected, not achievedTARGETStarship$100202615× from best observed to goal
Observed priceProjected targetGoal line
NOTE — Starship's ~$100/kg is a design target that depends on unproven reuse cadence, not an achieved price — shown as projected.
04 · What it unlocks

If the remaining tests pass

Downstream capabilities, drawn dashed because they depend on results not yet in.

Cheap Space LaunchCheap satellite mega-constellationsinternet, imaging and weather sats become far cheaper to put up and refreshBig science and deep-space infrastructurelarger telescopes, sample-return probes and orbital fuel depots stop being once-a-decade eventsOff-Earth industry and settlementmoving people and heavy cargo beyond Earth becomes merely expensive instead of impossible
05 · Sources

Where every number comes from

  1. CSIS Aerospace Security — Cost of Space Launch to LEOaerospace.csis.org
  2. Our World in Data — Cost of space launches to LEOourworldindata.org
  3. Wikipedia — List of Starship launchesen.wikipedia.org
  4. Wikipedia — SpaceX Starshipen.wikipedia.org