Only Cargo Dragon routinely brings cargo and research back to Earth for recovery. Cygnus and Progress deliver supplies to the International Space Station (ISS), then leave with waste for destructive reentry. Progress also carries station fluids and propellant and can help reboost the ISS; Cygnus is captured and berthed using the station’s robotic arm. Their capacity figures come from different years and measure different things, so they cannot be ranked as current maximums on a like-for-like basis.
What each spacecraft is for
Cygnus, Cargo Dragon, and Progress all serve as ISS cargo spacecraft, but “cargo delivery” does not mean the same job for each vehicle. They differ in how they attach to the station, what kinds of supplies they carry, whether they can return useful cargo to Earth, and whether they provide station-support functions beyond delivery.
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NASA’s commercial resupply program purchases services to bring science and supplies to the ISS. NASA’s overview of commercial resupply missions describes that capability as a way to increase the investigations conducted aboard the station. Cygnus and Cargo Dragon are commercial resupply vehicles; Progress is the Russian partner cargo vehicle described in NASA’s ISS reference guide. NASA summarizes the purpose of its resupply missions this way: “Resupply missions ensure a national capability to deliver scientific research to the International Space Station, significantly increasing NASA’s ability to conduct new investigations aboard humanity’s laboratory in space.”
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That program context matters. These vehicles are not simply competing products sold to the same customer on identical terms. NASA says it purchases commercial transportation services for its science and research needs, while Progress is part of the Russian partner cargo system. The useful comparison is what each vehicle contributes to station logistics: what it delivers, how it connects, and what happens to its cargo and spacecraft at the end of the mission.
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- Choose Cargo Dragon when the mission needs a return trip for cargo or research. It can deliver cargo and bring cargo back to Earth by capsule splashdown.
- Cygnus is a one-way commercial freighter. It carries research, crew supplies, and station hardware, then is used to dispose of waste through atmospheric reentry.
- Progress combines deliveries with station support. It carries dry cargo, water, gas, and propellant, can assist with reboost, and is loaded with waste before disposal.
Comparison at a glance
| Feature | Cygnus | Cargo Dragon | Progress |
|---|---|---|---|
| Program context | NASA commercial resupply service | NASA commercial resupply service; cargo variant, distinct from Crew Dragon | Russian partner cargo vehicle |
| Station connection | Captured by Canadarm2 and installed on a station module; NASA documented Cygnus XL installation on Unity in September 2025 | Autonomous docking, as described in NASA’s Commercial Crew Program press kit | Automatic docking, with an option for remote crew control in NASA’s ISS reference guide |
| Supply role described in the sources | Research experiments, crew supplies, station hardware | Science and supplies, with cargo and research returned to Earth | Dry cargo, propellant, water, and gas |
| Return and disposal | One-way vehicle; used for waste disposal by destructive reentry | Capsule returns to Earth by splashdown; the trunk is discarded before capsule reentry | Undocks carrying waste and is disposed of in Earth’s atmosphere |
| Station reboost role | Not established in the cited material | A Dragon trunk carried hardware for a reboost demonstration on CRS-33 in 2025; this was a specific demonstration | Can assist with station reboost, according to NASA’s guide-era description |
| Capacity figure available | NASA reported more than 11,000 lb of actual research and supplies on the first Cygnus XL mission in 2025; this is not a stated maximum | NASA’s 2012 historical comparison slide lists 3,100 kg ascent; not a current maximum | NASA’s 2010 ISS guide lists 2,250 kg upload capacity; guide-era figure, not a verified current maximum |
The connection and function descriptions are drawn from NASA’s Cygnus XL station report, Commercial Crew Program Press Kit, and Reference Guide to the ISS. Capacity numbers are deliberately labeled with their source dates and meanings below; they are not synchronized specifications.
Which one can return cargo to Earth?
Cargo Dragon: delivery and recovery
Cargo Dragon is the spacecraft in this comparison built to carry cargo in both directions. NASA’s Office of Inspector General makes the distinction directly: “Therefore, only Cargo Dragon can perform the critical function of returning science and research to Earth.” That statement concerns the cargo vehicles covered in its discussion, rather than every spacecraft that may ever visit the ISS. The OIG’s commercial crew and cargo transportation overview also describes Cygnus as an expendable, one-way freighter.
Return capability matters when researchers need samples, experiments, or hardware back on Earth for recovery and analysis. NASA’s description of the 2025 CRS-33 mission says Dragon would return research and cargo by splashdown. The spacecraft’s pressurized capsule provides an interior cargo space, while its unpressurized trunk can carry external payloads. The trunk is discarded before the capsule’s return, so “Dragon returns cargo” refers to cargo returned in the capsule, not a reusable trip home for the entire spacecraft. See NASA’s Dragon configuration material and CRS-33 mission release.
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Repair common Windows errors and clear accumulated junk for a smoother, more stable PC - no reinstall needed.Free scan · no reinstallThis also explains why delivery mass alone is an incomplete measure of a resupply mission. A payload can be useful on the station and still have a second requirement: returning it intact for examination. For that mission profile, the relevant question is not only “How much can go up?” but “Can the needed material come back, and in what part of the vehicle?” NASA’s CRS-33 release describes a planned return by splashdown; the general return capability does not mean every flight returns every item.
Cygnus and Progress: outbound delivery, then disposal
Cygnus does not provide Cargo Dragon’s routine capability to bring station cargo back to Earth for recovery. It stays at the ISS after unloading, can be loaded with trash, and is later sent into a destructive atmospheric reentry. Progress likewise leaves with station waste and is disposed of in Earth’s atmosphere. These are disposal paths, not ways to retrieve returned cargo intact.
That difference is easy to miss if every vehicle is described simply as a “resupply craft.” For a mission whose success depends on having an experiment back on the ground, the return leg is a separate logistics requirement, not a side effect of delivering the experiment to orbit. Conversely, a vehicle that leaves with waste still performs a useful station-logistics task, even though it does not return that waste or other contents for recovery.
How the vehicles reach and serve the station
Cygnus: robotic capture and installation
Cygnus approaches the station for capture by Canadarm2, the ISS robotic arm, which maneuvers the spacecraft into position for installation. NASA reported that Cygnus XL—the larger Cygnus version making its first flight—was installed on the Unity module after Canadarm2 captured it. Its first mission, Northrop Grumman CRS-23, launched on September 14, 2025, on a Falcon 9 and carried more than 11,000 pounds of research and supplies. NASA reported the installation on September 18, 2025, in its mission update.
The XL debut is an important qualification when reading older Cygnus capacity claims. A figure attached to an earlier version or a historical vehicle comparison does not automatically describe Cygnus XL, and an actual mission load is not the same thing as a vehicle’s maximum rated capacity. The 11,000-pound-plus figure is a report of the cargo carried on that particular first XL flight, not a promise that every mission carries the same amount.
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“Captured and installed” is also a more precise description of Cygnus’s station arrival than simply saying it docks. The Canadarm2 operation is part of how the vehicle is attached to the station. In contrast, NASA’s descriptions characterize Dragon’s connection as autonomous docking and Progress as using automatic docking, with remote crew control available in the guide’s description. The distinction is operational: the vehicles do not all use the same station-approach and attachment process.
Cargo Dragon: docking and a two-way cargo path
NASA’s Commercial Crew Program press kit describes Dragon’s autonomous docking capability. The capsule-and-trunk arrangement also enables the vehicle to carry both pressurized cargo inside and payloads externally in the trunk. For cargo resupply, use the name Cargo Dragon: NASA’s press kit discusses Dragon more broadly, including crewed flights, while the comparison here concerns the cargo service rather than a human transport mission.
On CRS-33 in 2025, NASA reported a Dragon trunk carrying hardware for a station reboost demonstration. That is evidence of a particular demonstration, not grounds to treat Dragon as having replaced Progress’s established reboost role. NASA’s CRS-33 release describes the mission and its planned return of cargo and research.
The capsule and trunk serve distinct purposes in this account. The pressurized section is the enclosed cargo space; the unpressurized trunk accommodates external payloads. The return trip is by the capsule, while the trunk is discarded before reentry. This makes the return feature specific rather than all-purpose: Dragon can return selected cargo in its capsule, but the full vehicle configuration does not come back intact.
Progress: automated resupply and station support
NASA’s 2010 Reference Guide to the ISS describes Progress as an automated, Soyuz-derived vehicle. Its logistics role goes beyond dry goods: the guide lists propellant, water, and gas among its deliveries. After docking, Progress can transfer those supplies, assist with station reboost, and depart carrying waste for disposal.
Reboost is a meaningful operational distinction because it connects a cargo vehicle to station support after delivery. The reference guide describes Progress as able to assist with reboost, whereas the material on Dragon concerns a specific hardware demonstration carried in its trunk on CRS-33 in 2025. Those are different kinds of evidence: one is an established role described in a guide, and the other is a named demonstration. Cygnus’s role in the cited descriptions is delivery and disposal; no comparable reboost function is established there.
Progress has a longer history than the current ISS cargo-service arrangement. NASA’s history of Progress 1 describes preparations for the first vehicle in 1977 to support Salyut 6 and notes the spacecraft’s Soyuz design lineage. That history helps explain the vehicle’s roots, but it should not be confused with a current specification for a particular Progress variant.
What the published capacity numbers do—and do not—show
There is no current common-basis maximum-capacity comparison for all three vehicles in the cited material. The available figures refer to different years and different kinds of evidence: an actual Cygnus XL mission load, a guide-era Progress upload specification, and historical values from a NASA comparison slide. Treating them as three current maximums would create a false ranking.
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| Vehicle or comparison | Figure | What it means | Source and date qualification |
|---|---|---|---|
| Cygnus XL | More than 11,000 lb | Actual research and supplies carried on its first mission, not a published maximum | NASA’s report dated September 18, 2025, about the CRS-23 flight |
| Progress | 2,250 kg | Upload capacity stated in the ISS reference guide; guide-era specification, not verified here as the maximum for every current variant | NASA Reference Guide to the ISS, November 2010 |
| Dragon | 3,100 kg | Historical ascent-capacity figure, not asserted as a current specification | NASA’s 2012 ISS cargo-vehicle comparison slide |
| Cygnus, older comparison | 2,000 kg | Historical comparison-slide figure, not a current Cygnus or Cygnus XL maximum | NASA’s 2012 ISS cargo-vehicle comparison slide |
| Progress, older comparison | 2,250 kg | Historical comparison-slide figure; separate from the guide’s guide-era upload figure and not a current maximum claim | NASA’s 2012 ISS cargo-vehicle comparison slide |
The historical slide is NASA’s ISS Cargo Vehicles and Payload Accommodation. Its numbers are useful as a record of an earlier comparison, not as a live spec sheet. In particular, the 2025 Cygnus XL mission load is an observed payload on one flight, while the other figures are older capacity descriptions; those are not interchangeable metrics.
There are several reasons to resist a simple “largest capacity wins” conclusion. The Cygnus XL number describes an actual manifest load in pounds. The Progress guide figure is an upload capacity in kilograms, and the Dragon figure is an ascent capacity on a comparison slide from 2012. The older slide also lists 2,000 kg for Cygnus and 2,250 kg for Progress, but those values reflect that historical comparison rather than current maximums. Dates, vehicle variants, and the definition of the payload measure all matter.
Capacity is also only one planning constraint. The cargo must fit the vehicle’s arrangement and serve the mission’s purpose. The cited Dragon material distinguishes pressurized capsule cargo from unpressurized trunk payloads; the Cygnus XL report gives a specific mission load; the Progress guide discusses a mix of dry cargo and fluids. Those categories are not interchangeable, so a single mass figure cannot by itself tell a reader which vehicle better suits a particular experiment or station requirement.
How to choose the right comparison for a mission
The right vehicle depends on what must happen after launch, not just how much cargo goes up. A mission planner or reader comparing capabilities should identify the required cargo flow and station function first, then use figures only when their date and definition match that question.
- If research must come back to Earth, identify Cargo Dragon as the relevant return-capable vehicle among these three. Confirm that the specific mission carries the planned return payload; general capability does not mean every flight returns every item.
- If the objective is to deliver research, crew supplies, or station hardware without an intact return, Cygnus is a one-way option in the NASA commercial resupply context. Its robotic capture and installation are part of the station-arrival operation.
- If the cargo includes propellant, water, or gas, or the mission calls for reboost support, Progress’s documented logistics role is the relevant distinction. Do not treat Dragon’s 2025 reboost demonstration as equivalent to that established role.
- If waste disposal is part of the plan, Cygnus and Progress can leave carrying station trash and undergo destructive reentry. Cargo Dragon’s distinctive feature in this comparison is returning cargo in its capsule, rather than serving only as a waste-disposal freighter.
- If payload mass is the deciding factor, compare current, mission-specific payload limits from the relevant provider documentation on a common basis. The dated NASA numbers above do not establish which vehicle has the largest current maximum.
For readers making a comparison rather than planning a flight, the same sequence is useful: first ask whether the mission needs a return path, then whether it needs ordinary dry cargo or station fluids and propellant, and then how the vehicle attaches and leaves. Only after those requirements are clear does a capacity number become meaningful. A higher number on one dated chart may not answer a different mission question.
Why these differences matter to ISS operations
A cargo vehicle is both a delivery route and, potentially, a way to remove material from the station. For ordinary supplies, delivery may be the main requirement. For time-sensitive research, returned material can be as important as the outbound launch. For station upkeep, deliveries of fluids and propellant or the ability to assist with reboost add functions that a simple kilograms-delivered comparison misses.
The end-of-mission plan also changes how cargo is packed and prioritized. A return vehicle offers a path to recover selected items, while a vehicle destined for destructive reentry can take waste away but does not bring useful payload back intact. Likewise, robotic capture, autonomous docking, and automatic docking describe different station-arrival methods; they should not be collapsed into a single claim that all three “dock the same way.”
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NASA’s commercial resupply program and the Russian Progress system therefore complement rather than duplicate one another in the way the cited material describes them. The most meaningful comparison is the mission chain—delivery, attachment, transfer, station support, and departure—not a single payload number taken out of its date and context. That broader view also explains why NASA’s purchase of commercial services is part of the story: the program is designed to secure a national ability to deliver science and supplies, not merely to select a winner in a cargo-capacity contest.
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Frequently asked questions
Which of the three can bring ISS cargo back to Earth?
Cargo Dragon is the return-capable vehicle among these three. NASA describes cargo and research returning in the capsule by splashdown. Cygnus and Progress are used for disposal by destructive atmospheric reentry after carrying station waste; they are not the intact cargo-return option in this comparison.
What is the difference between Cygnus and Cygnus XL?
Cygnus XL is the larger Cygnus version that made its first flight on Northrop Grumman CRS-23 in September 2025. NASA reported that this mission launched on September 14 and carried more than 11,000 pounds of research and supplies. That figure is the actual load reported for the first XL flight, not a general maximum for every Cygnus mission.
Which spacecraft carries water, gas, and propellant?
NASA’s 2010 ISS Reference Guide describes Progress as delivering dry cargo as well as propellant, water, and gas. The same guide says it can assist with station reboost. The cited descriptions of Cygnus and Cargo Dragon do not establish the same combination of routine deliveries and reboost support.
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The cited material does not establish that. NASA says a Dragon trunk carried hardware for a reboost demonstration on CRS-33 in 2025. That specific demonstration is distinct from the guide-era description of Progress as a vehicle that can assist with ISS reboost.
Which spacecraft has the greatest cargo capacity?
The dated numbers here do not support a reliable current ranking. NASA reported more than 11,000 pounds of cargo on the first Cygnus XL mission; its 2010 guide lists Progress at 2,250 kg upload capacity; and a 2012 slide lists Dragon at 3,100 kg ascent capacity. They describe different years, vehicles, and measures rather than comparable current maximums.
How do the vehicles attach to the ISS?
NASA describes Cygnus XL as captured by Canadarm2 and installed on Unity. NASA’s Commercial Crew Program press kit describes Dragon’s autonomous docking, while the ISS reference guide describes automatic docking for Progress and an option for remote crew control. These terms reflect different arrival and attachment approaches.
How much does a flight on each vehicle cost?
The sources cited here do not provide a comparable cost-per-flight figure for Cygnus, Cargo Dragon, and Progress. NASA’s commercial resupply overview explains that it purchases services from commercial providers, but that does not supply an apples-to-apples price comparison across these vehicles.
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Which of the three can bring ISS cargo back to Earth?
Cargo Dragon is the return-capable vehicle among these three. NASA describes cargo and research returning in the capsule by splashdown. Cygnus and Progress are used for disposal by destructive atmospheric reentry after carrying station waste; they are not the intact cargo-return option in this comparison.
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What is the difference between Cygnus and Cygnus XL?
Cygnus XL is the larger Cygnus version that made its first flight on Northrop Grumman CRS-23 in September 2025. NASA reported that this mission launched on September 14 and carried more than 11,000 pounds of research and supplies. That figure is the actual load reported for the first XL flight, not a general maximum for every Cygnus mission.
Which spacecraft carries water, gas, and propellant?
NASA’s 2010 ISS Reference Guide describes Progress as delivering dry cargo as well as propellant, water, and gas. The same guide says it can assist with station reboost. The cited descriptions of Cygnus and Cargo Dragon do not establish the same combination of routine deliveries and reboost support.
Does Cargo Dragon have the same reboost role as Progress?
The cited material does not establish that. NASA says a Dragon trunk carried hardware for a reboost demonstration on CRS-33 in 2025. That specific demonstration is distinct from the guide-era description of Progress as a vehicle that can assist with ISS reboost.
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Which spacecraft has the greatest cargo capacity?
The dated numbers here do not support a reliable current ranking. NASA reported more than 11,000 pounds of cargo on the first Cygnus XL mission; its 2010 guide lists Progress at 2,250 kg upload capacity; and a 2012 slide lists Dragon at 3,100 kg ascent capacity. They describe different years, vehicles, and measures rather than comparable current maximums.
How do the vehicles attach to the ISS?
NASA describes Cygnus XL as captured by Canadarm2 and installed on Unity. NASA’s Commercial Crew Program press kit describes Dragon’s autonomous docking, while the ISS reference guide describes automatic docking for Progress and an option for remote crew control. These terms reflect different arrival and attachment approaches.
How much does a flight on each vehicle cost?
The sources cited here do not provide a comparable cost-per-flight figure for Cygnus, Cargo Dragon, and Progress. NASA’s commercial resupply overview explains that it purchases services from commercial providers, but that does not supply an apples-to-apples price comparison across these vehicles.
The Bottom Line
Bottom line: Cargo Dragon stands out for returning cargo and research to Earth; Cygnus is a commercial one-way freighter that can take station waste away; and Progress combines cargo delivery with documented deliveries of water, gas, and propellant plus reboost support. Capacity numbers should be compared only when their date, vehicle version, and measurement basis match.
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