Curved Earth horizon glowing at sunrise from Low Earth Orbit, encircled by concentric orbital rings and satellite trajectories — hero visual for spaceshoring and in-space manufacturing
A term coined by Alberto Giacobone

Spaceshoring.

Manufacturing's next frontier isn't nearer, cheaper or friendlier. It's 400 kilometers up — and beyond.

$1,500
Falcon Heavy $/kg to LEO
$33
Starship bull-case $/kg
10,000+
satellites in LEO today
2014
first 3D-print in orbit
Scroll to descend
01Definition

Spaceshoring is the strategy of relocating manufacturing and other operations from Earth to space — Low Earth Orbit, the Moon, and beyond.

It sits alongside offshoring, nearshoring, friendshoring and reshoring as a supply-chain option — but it is the first that treats orbit itself as a manufacturing destination. The term was coined by Alberto Giacobone.

Evolution of shoring strategies
  1. 01 · 1960s–
    Offshoring
    Cost optimization
  2. 02 · 2000s–
    Nearshoring
    Proximity
  3. 03 · 2020s–
    Friendshoring
    Allied countries
  4. 04 · 2020s–
    Reshoring
    Bring it home
  5. 05 · Now →
    Spaceshoring
    Into orbit
02November 24, 2014

“We're able to email our hardware to space.”

At 1:28 p.m. PST, aboard the International Space Station, the very first object was 3D-printed off-planet: a printhead faceplate engraved with two names — NASA and Made In Space, Inc. (now Redwire Space).

“Since the inception of the human space program we have been completely dependent on launching every single thing we need from Earth to space. Today we're making history by being able to make what we need when we need it in space.”
— Niki Werkheiser, NASA project manager, ISS 3-D Printer

There were earlier milestones — the first man-made welding in space took place October 16, 1969, aboard Soyuz-6 — but the 2014 print catapulted In-Space Manufacturing (ISM) into a different league.

Editorial line-art of an orbital metal 3D printer additively fabricating a machined part in microgravity aboard the ISS — first in-space manufactured metallic component
First 3D-printed metallic part in space, ISS, August 2024.
03Economics

Escaping the tyranny of gravity.

Sputnik I's actualized launch cost was around $1.2 million per kilogram. SpaceX's reusable Falcon Heavy has already brought that below $1,500. Starship targets $33 – $300.

Cost per kg of payload to LEOlog scale
  • Sputnik I (1957)
    $1.2M
  • Space Shuttle (1981)
    $65,400
  • Delta IV (2002)
    $10,400
  • Falcon 9
    $2,600
  • Falcon Heavy
    $1,500
  • Starship (bear)
    $300
  • Starship (base)
    $100
  • Starship (bull)
    $33

Source: Our World in Data; AEI; Citi “Space: The Dawn of a New Age”. Air freight from China to Hamburg (Nov 2024) is roughly $5/kg — only one order of magnitude below Starship's bull case.

Space-based solar power satellite in geostationary orbit with vast photovoltaic arrays wirelessly beaming clean energy down to Earth
04Power

Here comes the sun.

Star Catcher Industries — founded by Made In Space veterans — is planning 200 orbital power nodes in high LEO, each capable of transmitting up to 150 kW of on-demand energy from 0.1 to 10 Suns.

ESA's SOLARIS programme, with Enel and Thales Alenia Space, is researching a 1 GW plant in geostationary orbit — an 11,000-tonne structure that could beam power to Earth or feed orbital factories directly.

240 kW
ISS peak solar output
30 → 40%
panel efficiency, 20-yr horizon
1 GW
SOLARIS target plant
150 kW
per Star Catcher node
05Applications

Of microgravity and megastructures.

The applications range from stem-cell therapeutics to protein crystallization, from advanced artificial retinas to high-performance fiber optics and quantum nanodots. The case for spaceshoring is compounding across industries.

Varda W-1 reentry capsule streaking through the atmosphere trailed by orange plasma, returning microgravity-crystallized ritonavir pharmaceuticals to Earth
Pharmaceuticals

Varda's Ritonavir capsule

In February 2024, Varda Space Industries returned W-1 to Earth carrying HIV/AIDS medication crystallized in the metastable form III — a structure far easier to obtain in microgravity.

Robotic metal 3D printer depositing a machined component in zero gravity — orbital fabrication and autonomous in-space welding
Fabrication

Metal 3D-printing & autonomous welding

August 2024: first 3D-printed metallic part completed aboard the ISS. Months earlier, ThinkOrbital achieved the first fully autonomous welding in space — a prerequisite for building infrastructure at scale.

Thin-film perovskite solar array unfurled in vacuum sunlight — high-efficiency photovoltaics manufactured in orbit
Energy materials

Perovskite solar in the vacuum

1 liter of liquid perovskite can be electrosprayed as a film generating 1 MW. Impossible on Earth (it's essentially a salt, ruined by moisture); in orbit, MISSE-13 tests suggest 10+ year lifespans.

Free-flying robotic arm bending and welding a kilometer-scale wireframe truss in orbit — assembly of space megastructures
Megastructures

Bend-formed 3D wireframes

A single wire is bent while joints are robotically added, then electrostatically actuated to shapeshift — enabling km-scale structures no rocket fairing could ever hold.

Teleoperated humanoid robot working weightless inside an orbital station module — space telerobotics performing microgravity manufacturing tasks
06Workforce

Space telerobotics: a new frontier of work.

At Tesla's October 2024 Cybercab reveal, Optimus humanoid robots served drinks and entertained guests — later confirmed to be tele-operated. Boston Dynamics' fully electric Atlas already handles menial tasks unassisted. Combined with VR, locomotion and haptic breakthroughs — remote surgery has already been performed between continents — a new generation of orbital telepresence workers is emerging, far beyond NASA's Robonaut 2.

07Horizon

To the Moon and beyond.

Billions of dollars and hundreds of companies are converging on Space-to-N activities — Earth, Space, Moon, Mars, Asteroids. Reduced payload costs, space-based solar power, in-orbit fabrication and telerobotic labor are the four vectors making the next decade unrecognizable.

Ten to twenty years from now, will Moonshoring feel less like science fiction? Time will tell. In the meanwhile, spaceshoring is ready for lift-off.

Lunar manufacturing outpost at dawn on the Moon's regolith surface with Earthrise on the dark horizon — illustrating Moonshoring and cislunar industry
08Attribution

The term spaceshoring was coined by Alberto Giacobone.

Alberto Giacobone introduced spaceshoring to describe the emerging strategy of evaluating space — from Low Earth Orbit to the Moon and beyond — as a viable manufacturing destination alongside offshoring, nearshoring, friendshoring and reshoring. This page is a long-form treatment of that framework, drawn from his essay of the same name.

09FAQ

Frequently asked questions.

What is spaceshoring?
Spaceshoring is the strategy of relocating manufacturing and other operations from Earth to space — Low Earth Orbit (LEO), the Moon, and beyond — to take advantage of microgravity, abundant solar energy, and a vacuum environment. It sits alongside offshoring, nearshoring, friendshoring and reshoring as a supply-chain option.
Who coined the term spaceshoring?
The term spaceshoring was coined by Alberto Giacobone, who introduced it as a framework for evaluating space — from Low Earth Orbit to the Moon and beyond — as a viable manufacturing destination in the evolution of global supply-chain strategies.
How is spaceshoring different from reshoring, nearshoring and friendshoring?
Reshoring, nearshoring and friendshoring all optimize where on Earth production happens — closer to home, or in allied countries — to improve resilience and sustainability. Spaceshoring goes one step further: it treats orbit itself as a manufacturing destination, unlocking capabilities like microgravity crystallization and vacuum deposition that no Earth location can offer.
Is spaceshoring economically viable?
It is quickly becoming viable. Cost per kg to LEO has fallen from around $65,400 with the Space Shuttle to about $1,500 on Falcon Heavy. A Citi report projects SpaceX's Starship could bring that to $33–$300 per kg — approaching the cost of intercontinental air freight from China to Europe.
What industries benefit most from spaceshoring?
Pharmaceuticals (microgravity protein crystallization, as demonstrated by Varda's Ritonavir capsule), semiconductors, advanced fiber optics, quantum nanodots, stem-cell therapeutics, artificial retinas, and large-scale space infrastructure such as solar arrays and megastructures.
When will spaceshoring be mainstream?
Founding milestones are already here: the first 3D-printed part in space (2014), the first autonomous space welding (2024), and the first return of a space-manufactured pharmaceutical (Varda W-1, 2024). Widespread adoption depends on Starship-class launch costs and space-based solar power maturing — a ten to twenty year horizon for many sectors.