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MCS · Space Race · 36

The Space Race.

Orbital hardware, by the numbers.

22 launch vehicles · 14 spacecraft & landers · 20 operators — every number sourced.

Snapshot · verified 19h ago · 2026-06-17

Reading the metrics

Spec sheets lie if you don't read the footnotes. Each axis, what it means, and where it bites:

Payload to LEO ↑ better
Maximum payload mass deliverable to low Earth orbit (~200–400 km circular), in the vehicle's stated reference configuration.
Expendable configs deliver ~20–40% more than reusable. Compare like-for-like (both expendable or both reusable).
Payload to GTO ↑ better
Maximum payload mass deliverable to geostationary transfer orbit (~185 × 35,786 km), in the stated reference config.
GTO definition varies by inclination and perigee; payload figures are not always comparable across operators.
Liftoff Thrust ↑ better
Total first-stage thrust at liftoff (sea-level), in kilonewtons, summing all active engines and solid strap-ons.
Liftoff Mass ↓ better
Total vehicle mass at liftoff including propellant, payload, and all stages, in metric tonnes.
Lower is better only in the context of per-unit cost. Raw mass is not a performance metric.
Vehicle Height ↓ better
Full stack height at liftoff, in metres, including fairing or spacecraft.
Launch Cost ↓ better
Publicly stated or estimated list price per launch, in millions of USD.
Lower is better. List prices rarely match as-flown contract prices. Reuse mode, trajectory, and mission profile all shift cost.
Cost per kg to LEO ↓ better
Derived cost efficiency: launch list price divided by payload-to-LEO capacity, in USD per kilogram.
Lower is better. Derived from list price ÷ payload; not an as-flown average.
Max Booster Reflights ↑ better
Maximum number of times a single booster unit has flown, as of the verifiedAt date.
This is the fleet maximum, not the average. Most boosters fly far fewer missions.
Mission Success Rate ↑ better
Percentage of launch attempts rated as full mission successes over the vehicle's complete flight history.
Partial failures and abort-to-orbit outcomes are scored differently across sources. New vehicles carry wide confidence intervals.
Launches in 2025 ↑ better
Total number of launch attempts conducted in calendar year 2025 (Jan 1 – Dec 31 UTC).
Counts include failures and partial failures unless stated otherwise.
Technology Readiness Level ↑ better
NASA-scale 1–9 maturity rating: 9 = mission-proven operational system; 6–8 = demonstration / qualification; 1–5 = R&D.
Self-reported or analyst-assigned TRL values vary; treat as indicative, not authoritative.
Crew Capacity ↑ better
Maximum number of crew members the vehicle can carry on a nominal mission.
Design max may differ from operational mission complement (e.g. ISS missions often fly 4 of 7 seats).
Cargo Upmass ↑ better
Maximum pressurized + unpressurized cargo delivered to station orbit (upmass), in kg.
Mix of pressurized and unpressurized mass varies by mission manifest.
Pressurized Volume ↑ better
Total internal pressurized volume of the spacecraft in cubic metres.

Launch vehicles · 22

Orbital-class launch vehicles sorted by payload to LEO.

VehicleLEOGTOThrust$/kg LEOReuseSuccess2025 launches
Starship / Super HeavySpaceX · in-development100,000 kg80800 kN
Falcon HeavySpaceX · operational63,800 kg26,700 kg22819 kN100%0
New GlennBlue Origin · operational45,000 kg13,000 kg17100 kN2
Vulcan CentaurUnited Launch Alliance · operational27,200 kg14,500 kg17056 kN1
Long March 5CASC · operational25,000 kg14,000 kg10573 kN3
Angara A5Khrunichev / Roscosmos · operational24,500 kg5,400 kg9610 kN1
Terran RRelativity Space · in-development23,500 kg15555 kN
Falcon 9 Block 5SpaceX · operational22,800 kg8,300 kg7607 kN$3,246/kg35 flights99.8%165
Ariane 6ArianeGroup / Arianespace · operational21,650 kg11,500 kg15370 kN4
H3JAXA / Mitsubishi Heavy Industries · operational16,000 kg6,500 kg4413 kN83.3%3
Long March 7CASC · operational13,500 kg4,000 kg7200 kN1
NeutronRocket Lab · in-development13,000 kg6603 kN
Atlas VUnited Launch Alliance · retired12,500 kg6,480 kg99.5%
Long March 3BCASC · operational11,500 kg5,500 kg5922 kN95.7%5
LVM3 (GSLV Mk III)ISRO / NSIL · operational10,000 kg4,000 kg11898 kN100%1
Long March 2FCASC · operational8,400 kg3265 kN2
Soyuz-2Roscosmos / Progress Rocket Space Centre · operational8,250 kg4317 kN98.3%
Long March 6ACASC · operational8,000 kg4828 kN2
Vega-CAvio / Arianespace · operational2,300 kg4323 kN
PSLVISRO · operational1,750 kg4800 kN1
Firefly AlphaFirefly Aerospace · operational1,030 kg836 kN$14,563/kg57.1%1
ElectronRocket Lab · operational300 kg190 kN$25,000/kg95.5%21

Crew spacecraft · 7

Crewed orbital vehicles sorted by crew capacity.

VehicleCrewVolumeCargo Up
MengzhouCASC / CMSA · in-development6 seats
Crew Dragon (Dragon 2)SpaceX · operational4 seats9.3 m³6,000 kg
Orion MPCVNASA / Lockheed Martin · operational4 seats19.6 m³
Boeing Starliner (CST-100)Boeing · in-development4 seats11 m³
Soyuz MSRoscosmos / RSC Energia · operational3 seats9 m³170 kg
ShenzhouCASC / CMSA · operational3 seats14 m³300 kg
GaganyaanISRO · in-development3 seats

Cargo spacecraft · 5

Uncrewed cargo freighters sorted by upmass capacity.

VehicleCargo UpVolume
TianzhouCASC / CMSA · operational7,400 kg18.1 m³
Cargo Dragon (Dragon 2 Cargo)SpaceX · operational6,000 kg9.3 m³
Cygnus XLNorthrop Grumman · operational5,000 kg36 m³
Dream Chaser (Tenacity)Sierra Space · in-development3,629 kg33 m³
Progress MSRoscosmos / RSC Energia · operational2,600 kg

Landers · 2

Lunar and planetary landers sorted by name.

VehicleCrewCargo Up
Blue Moon Mk1Blue Origin · in-development3,000 kg
Starship HLSSpaceX · in-development2 seats

Method

A hand-curated snapshot verified 2026-06-17. Launch manifest data and success rates sourced from The Space Devs Launch Library 2, NextSpaceFlight, and OrbitalRadar. Payload and propulsion specs cross-referenced against NASA NTRS and manufacturer user guides. Cost figures are publicly stated list prices — not as-flown contract values.

Every number on this page carries a source link — click any cell. Where a vehicle hasn't published a value, the cell reads "—" rather than a guess. Subsystem detail and program roadmaps arrive in the next pass (Phase 3). The model writes none of these figures; the catalog does.

Snapshot, not a live feed. Specs change post-flight, manifests slip, and the frontier moves weekly — re-verify against the linked sources before you cut a PO against them.