YakRobot Protocols — Space Economy Brief

Executive Summary

Open protocols, so everyone can participate. Open protocols for robot coordination and infrastructure — built in public, available to all — that let anyone, a startup, a university lab, a national agency, an individual builder, participate in the space economy. Rovers are one application; the protocols are the point.

The space economy has become a multi-operator market. Over 10,000 active satellites orbit Earth as of 2026. Commercial stations (Axiom, Orbital Reef, Starlab, Vast Haven) replace the ISS by 2031. On March 24, 2026, NASA announced a permanent Moon Base at the lunar South Pole. No single vendor serves any tier alone.
Each tier converges on the same structural problem. Task posting, executor matching, credential verification, delivery verification, and settlement — unsolved across Earth observation tasking, in-space servicing (ISAM), commercial station logistics, and lunar surface operations. Bilateral contracts dominate where a protocol layer should exist.
Physics forces autonomous dispatch. LEO satellite passes are 10 minutes; Earth–Moon round-trip latency is 2.6 seconds. Execution decisions must happen at the edge. Autonomous dispatch with on-chain settlement is a property of the environment, not a feature.
YakRobot Protocols is a suite of open protocols for robot coordination and infrastructure. Five protocols — identity, security, discovery (teleoperation + autonomous agents), payments, marketplace. Marketplace is one layer; the rest of the stack runs continuously after a task is awarded. Being prototyped starting with construction surveying; same architecture extends to satellites, ISAM, stations, and lunar rovers.
Relay constellations are the MCP gateway. Starlink in LEO, LunaNet in cislunar space, commercial relay networks coming. ERC-8004 on-chain identity is relay-agnostic — identity resolves on-chain, endpoint reachability is a separate routing concern. Correct architecture for multi-relay, intermittent-coverage environments.
Seeking partners across the stack: EO/SAR/RF satellite operators, space station builders, ISAM providers, lunar robotics teams, cislunar relay operators, and researchers in autonomous space operations.

Try Simulator ↗ or NASA Architecture ↗

Team

YakRobot Protocols is the work of the Distributed Robotics Group, a Special Interest Group at the Protocol Institute — building open protocols for robot coordination and infrastructure: all code, all hardware designs, all protocols open to all. Rovers are the most tangible application: hardware under $150, assemblable at home, running the same identity and marketplace stack that will coordinate lunar surface operations. The mission is broader: a protocol that lets anyone participate in the space economy. The group originated at Yak Robotics Garage, part of the Yak Collective, building in public since 2021, and now continues under the Protocol Institute as a SIG.

Rafa

Protocol design, governance — Berlin

Director of the ZKsync Association. Architected ZKsync’s governance smart-contract system, live since 2024. Core researcher in the Summer of Protocols. Publishes through NPC Memo.

Anuraj

Robotics, embedded systems — Finland

M.Sc.(Tech.) Space Robotics and Automation. 15 years building hardware and software across Automotive, Space, Consumer Electronics, and Telecom. Built the first blockchain-authenticated robot on Ethereum and a voice-controlled robot fleet via MCP. Demonstrated at Devcon 7 Bangkok.

Venkat

Aerospace, strategy, command systems — Seattle

PhD Aerospace Engineering, University of Michigan. Postdoctoral research in command and control systems at Cornell. Former senior researcher at Xerox. US Patent 8,086,501. Director of Summer of Protocols. Founder of Ribbonfarm. Author of Tempo.

Jenna

Digital operations, book production — New England

MPA, MIIS; BA, Dartmouth. Studied in Mainz, taught in Kunming. Past exec. director, Vermont Book Professionals Association. Three decades of indie digital operations. Web strategy, editing, book design.

Maier

Technology, intellectual property strategy — Israel

30+ years patent attorney in hi-tech and medical devices. Inventor on 40+ patents across medical devices and software. Dabbles in robotics. Interested in space since 3rd grade.

Why Now

The space economy is no longer a research program. Earth orbit is the most active commercial environment it has ever been, and NASA has committed to a permanent lunar presence. Two shifts converge: commercial demand at scale, and a regulatory window where protocol layers can still form.

NASA “Ignition” — March 24, 2026. Permanent Moon Base at the lunar South Pole, phased toward continuous human presence. Architecture Definition Document released publicly.

Constellation inflation. Starlink ~7,000 satellites (~30,000 planned), Kuiper ~3,200 deploying, plus OneWeb, SES mPOWER, and Telesat Lightspeed. EO constellations (Planet, Maxar, BlackSky, Capella, ICEYE) generate thousands of tasking requests a day. The unit of commerce shifted from “the satellite” to “the task.”
ISAM goes from demo to routine. Northrop MEV (life extension), Astroscale ELSA-d (debris capture), Orbit Fab (refueling), Starfish Otter — a repeatable service market, and markets need clearing mechanisms.
ISS transition by 2031. NASA’s Commercial LEO Destinations program funds Axiom, Orbital Reef, Starlab, and Vast Haven, shifting NASA from operator to anchor tenant. Cross-operator logistics is an explicit unsolved problem.
Orbital compute is emerging as a new asset class. Google’s Project Suncatcher proposes solar-powered TPU satellites linked optically at 1.6 Tbps, with two prototypes launching by early 2027 with Planet Labs. Thales Alenia Space’s ASCEND study targets 1 GW of orbital data center capacity by 2050, assembled robotically; StarCloud makes the case for training AI in space. Every node needs inspection, maintenance, and servicing — a robot endpoint in the YakRobot registry with the same task schema as any other orbital infrastructure.
Regulatory pressure on debris. The FCC five-year deorbit rule (2024), ESA Zero Debris Charter (2023), and funded JAXA/ESA removal contracts make every operator responsible for end-of-life — and most will outsource it. A new task category, emerging today.
Physics forces autonomy. 10-minute LEO ground passes, sub-second orbit-to-orbit rendezvous windows, 2.6-second Earth–Moon latency. Human coordination across continents or planets is not fast enough.

Protocol

Components and Status

Five protocols — domain-agnostic across construction, Earth orbit, and lunar. The verification engine is the only domain-specific layer.

yakrobot-identity: Hardware-anchored authentication. ERC-8004 on-chain robot identity on Base mainnet. 100 test registrations on Sepolia + 1 live production attestation.
yakrobot-discovery: On-chain registry, MCP teleoperation, autonomous agent dispatch. 9 category MCP servers on Fly.io. Relay-agnostic by design — identity resolves on-chain, endpoint reachability is a separate routing concern.
yakrobot-payments: Stripe (card, ACH), USDC stablecoin on Base (gasless). Settlement abstraction designed for timing × privacy dimensions as the protocol scales.
yakrobot-marketplace: Reverse auction engine, 11-state lifecycle, 4-factor scoring, geographic filtering. Prototyped for construction surveying; 18 task categories defined, 8 delivery schemas, 37 MCP tools.

NASA Lunar Gap Mapping

NASA Gap	Requirement	YakRobot Capability
FN-A-104L / 105L	Robotic manipulation of payloads and logistics on the lunar surface	Task execution schema + payload delivery verification; MCP adapter to logistics carriers
FN-A-201L / 401L	Earth-controlled and uncrewed-period command and control	MCP-native robot control; autonomous auction dispatch, no human-in-loop required
FN-C-101L / 105L	High-bandwidth surface—Earth comms (>500 Mbps)	Relay-aware task routing; LunaNet / Starlink-lunar as MCP discovery substrate
FN-C-201L	Position, navigation, and timing at the South Pole	PNT task category; orbital asset scoring for navigation capability
FN-M-302L / 304L / 401L / 501L	Surface mobility (sunlit and PSR) + cargo unload and reposition	PSR-rated robot scoring; thermal/lighting tolerance as bid factors; cargo task with coordinate proof
FN-U-103L	Resource identification and ISRU payload operations	ISRU survey task schema; spectrometer / drill capability matching
ESDMD #0801 (Bin 1)	Lunar dust-tolerant systems and dust mitigation	Dust-tolerance capability tags on all robot schemas; scoring penalizes unverified executors
ESDMD #0805 / 0806 (Bin 2)	Autonomous surface mobility; payload offloading and manipulation	Phase 1 wedge tasks; auction ranks rovers by autonomous range and PSR access

Functional and technology gap IDs from NASA Architecture Definition Document (ADD) Rev C, December 2025. Bin 1 gaps must be closed for Phase 1 (Foundational Exploration). Full list at nasa.gov/architecture.

Open Challenges

Area	Challenge	Opportunity
Latency & autonomy	2.6-second round-trip rules out real-time correction. Lunar surface needs local autonomy with execution-level authority — a trust boundary not present in construction.	The platform that defines safe autonomous execution boundaries (and makes them verifiable on-chain) sets the operational standard for lunar dispatch.
Relay windows	Orbital relays provide intermittent coverage. Auction state machine must handle communications blackout periods and queue commands for relay resumption.	Relay-gated execution states are shared by LEO ground-pass and cislunar relay constraints — one design covers both markets.
PSR verification	Permanently shadowed regions operate at −173°C with no visible-light imagery. LIDAR, radar, spectrometry replace photogrammetry. ESDMD #0804 (extreme cold) is an explicit gap.	The verification schema must be sensor-class-aware, not camera-first. Defining the non-optical proof standard is a protocol-level move.

Verticals

The verification engine is the only domain-specific component across verticals — auction, identity, discovery, and settlement are unchanged. Two tiers: what can be built on today, and what comes online as the space economy expands.

Works with Existing Operators

The robots and satellites in this table exist today, have APIs or MCP-compatible interfaces, and operate in markets with machine-readable specs. The missing layer — cross-operator auction, verified delivery, autonomous settlement — is what the protocol adds.

Vertical	Example Operators	Typical Value
Construction survey (aerial LiDAR, photogrammetry, GPR)	DJI Matrice 350, Skydio X10, WingtraOne, Boston Dynamics Spot, Flyability ELIOS 3	$1K–$10K / task
Environmental monitoring (land, water, air quality)	Clearpath Husky, senseFly eBee X, DJI Mavic 3 Multispectral, Ghost Robotics Vision 60	$500–$5K / survey
Infrastructure inspection (bridges, pipelines, wind, solar)	Flyability ELIOS 3, Skydio 2+, Percepto Sparrow, Airobotics Optimus	$800–$8K / inspection
Mining & quarry survey (volumetrics, safety)	Emesent Hovermap (underground SLAM), ANYbotics ANYmal, Boston Dynamics Spot	$1K–$15K / survey
Agricultural & precision land survey	DJI Agras T50, senseFly eBee, Parrot Sequoia+, Trimble UX5	$200–$2K / task
Satellite EO / SAR / hyperspectral / RF tasking	Planet Labs, ICEYE, Capella, Umbra, Wyvern, HawkEye 360, Spire — plus aggregators Arlula, UP42, Cognitive Space	$500–$250K / collect
Weather & climate data (space-derived)	Spire Global, Meteomatics, Xweather	Subscription / per-query
ISS microgravity experiments	Voyager Space (1,000+ missions from 35+ nations, active today)	$50K–$2M / experiment-month

Construction survey is the first prototype vertical. All other Earth rows use the same schema with domain-specific verification; satellite rows have programmatic APIs but no cross-provider auction layer.

Future Verticals

These markets open as infrastructure comes online. The protocol design decisions happen now.

Vertical	When	Operators	Task Category
Commercial space stations	2026–2031	Vast Haven-1 (targeted May 2026), Axiom (ISS-attached now, independent ~2028), Starlab (~2028), Orbital Reef (~2030)	Cargo manifest auction, experiment hosting, crew-time procurement, free-flyer dispatch
In-space servicing (ISAM)	Now → routine by 2030	Northrop MEV, Starfish Otter, Astroscale, Orbit Fab (RAFTI), D-Orbit, ClearSpace	RPO inspection, life extension, refueling, active debris removal — $2M–$100M per mission
Orbital compute & AI infrastructure	2027–2050	Google Project Suncatcher (TPU sats, 2027 demo with Planet Labs), Thales ASCEND (1 GW target by 2050), StarCloud	Compute node inspection, robotic assembly, thermal management servicing
Lunar surface operations	2028+	CLPS landers (Astrobotic, Intuitive Machines, Firefly), lunar rover OEMs, NASA Moon Base partners	Terrain survey, cargo unload/reposition, resource ID, site prep — $250K–$50M per task
Cislunar relay & PNT	2028+	NASA LunaNet, SpaceX (Starship / cislunar Starlink), Amazon Kuiper, SES, Telesat	Relay capacity per task window, PNT service as registered task category

ISAM is transitioning from one-off contracts to a repeatable service market now — it straddles both tiers. All future verticals share the same protocol; only the verification schema and credential extensions change per domain.

Vision

Every tier — terrestrial and orbital — is a multi-operator market with the same unsolved problem: there is no standard way for a customer (human or software agent) to post a task, receive bids from qualified operators, verify the delivery, and pay. Today this runs on bilateral contracts that take months. YakRobot Protocols is the missing layer — identity, security, discovery, payments, and marketplace — open and identical across domains. We earn the right to coordinate robots in orbit and on the Moon by first coordinating them where the market already exists: on Earth. The protocol stays constant; only the verification engine and credential extensions change per environment.

Expanding Outward, One Environment at a Time

Stage	Environment	Initial segments
1 — Earth, today	Backyards, job sites, field operations	Home and hobby robots (sub-$150 open hardware); construction site surveying — aerial LiDAR, GPR, progress monitoring — at $1K–$200K per task
2 — Low Earth orbit	LEO constellations and commercial stations	EO/SAR/RF tasking, in-space servicing (ISAM), debris removal, station cargo and experiment logistics
3 — The Moon	Lunar surface and cislunar relay	Terrain survey, cargo unload and reposition, ISRU and resource identification, PNT — coordinating the NASA Moon Base supply chain
4 — Beyond	Mars-forward and deep-space operations	The same identity, discovery, and settlement layer wherever robots operate too far away for human coordination to keep up

Home/hobby robots and construction survey are the entry segments: a real market with machine-readable specs that exercises the full protocol end-to-end. Each later stage reuses the same architecture — physics (latency, intermittent relay windows, sensor-class constraints) only sharpens the case for autonomous, on-chain coordination.

Long-Term Impact

The protocol becomes pre-competitive infrastructure for the multi-operator robot economy — the equivalent of what TCP/IP was for the internet. Customers post tasks once and receive bids across operators; new operators — a backyard builder, a startup, a national agency, a lunar OEM — onboard once and reach global demand; settlement clears in USDC without bilateral agreements. The same architecture serves Earth, orbit, the Moon, and Mars-forward operations, regardless of who builds the rovers and stations.

Join Us

Satellite operators (EO, SAR, RF): Planet, Maxar, BlackSky, Capella, ICEYE, Umbra, HawkEye 360, Spire, Synspective, and any operator with a tasking API. YakRobot Protocols wraps your existing API as an MCP tool server and aggregates demand through cross-provider auctions — incremental capacity sold without changes to your internal scheduling.
ISAM providers and station operators: Northrop, Astroscale, Starfish, Orbit Fab, D-Orbit, ClearSpace, Maxar SPIDER, Redwire, Varda — plus Axiom, Orbital Reef, Starlab, and Vast Haven. Integration point: capability registration, milestone-based smart-contract settlement, station-agnostic experiment and cargo schemas.
Lunar robotics teams and CLPS partners: Lunar rover, hopper, drill, and cargo-manipulation builders, plus CLPS landers (Astrobotic, Intuitive Machines, Firefly, Draper, Lockheed). The protocol provides the full stack — discovery, teleoperation, autonomous agents, payments, marketplace; you provide the robot or the lander.
Researchers and capital partners: Autonomous RPO, multi-agent coordination, PSR navigation, regolith mechanics, privacy-preserving task matching, autonomous-systems liability. Strategic programs: NASA SBIR/STTR, DARPA Orbital Prime, ESA Business Applications, SpaceWERX, LEAP, JAXA J-SPARC. Open to NASA, ESA, JAXA, CSA, UAE, ISRO, and KASA partnership conversations.

Executive Summary

Team

Why Now

Protocol

Components and Status

NASA Lunar Gap Mapping

Open Challenges

Verticals

Works with Existing Operators

Future Verticals

Vision

Expanding Outward, One Environment at a Time

Long-Term Impact

Join Us

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