{ "schemaVersion": 1, "generatedAt": "2026-06-28T09:03:54.318Z", "site": "cislunar.news", "dataset": "comparisons", "count": 5, "records": [ { "slug": "clps-landers", "title": "CLPS landers compared", "dek": "How NASA commercial lunar delivery landers differ by payload role, mission maturity, landing target, and surface infrastructure value.", "category": "Commercial lunar delivery", "updated": "2026-06-28", "summary": "CLPS is not a single spacecraft class. It is a market mechanism that lets NASA buy repeated lunar delivery services while companies test lander buses, payload accommodations, power, thermal survival, precision landing, and surface operations.", "methodology": [ "Compare operational role first: small science delivery, large cargo, polar access, near-side demonstrations, and repeatability.", "Treat mission status as a risk indicator, not a quality score; lunar landing attempts remain high variance.", "Prioritize sourced mission pages and Cislunar News profile data over speculative capability claims." ], "sourceNotes": [ "NASA CLPS program pages", "company mission pages", "Cislunar News mission and company profile records" ], "cards": [ { "name": "Nova-C", "operator": "Intuitive Machines", "role": "Repeat CLPS lander and lunar communications anchor", "status": "Active pipeline", "differentiator": "Pairs lander delivery with data relay ambitions and south-pole services.", "watchItem": "IM-3 execution, relay revenue, and repeat landing cadence.", "links": [ { "label": "Company", "path": "/companies/intuitive-machines" }, { "label": "IM-3", "path": "/missions/im-3" } ] }, { "name": "Blue Ghost", "operator": "Firefly Aerospace", "role": "Commercial lander bus for NASA science payload suites", "status": "Active mission line", "differentiator": "Focused lander execution with Firefly launch/orbital vehicle ecosystem upside.", "watchItem": "Surface operations duration, payload uptime, and follow-on CLPS task orders.", "links": [ { "label": "Company", "path": "/companies/firefly-aerospace" }, { "label": "Blue Ghost", "path": "/missions/blue-ghost" } ] }, { "name": "Griffin", "operator": "Astrobotic", "role": "Large cargo lander and surface infrastructure platform", "status": "Upcoming", "differentiator": "Bigger payload class and power infrastructure tie-ins through Astrobotic LunaGrid concepts.", "watchItem": "Post-Peregrine reliability, Griffin integration, and large cargo customer mix.", "links": [ { "label": "Company", "path": "/companies/astrobotic" }, { "label": "Griffin Mission 1", "path": "/missions/griffin-1" } ] }, { "name": "Hakuto-R / APEX", "operator": "ispace", "role": "Commercial lunar delivery and rover/data services", "status": "International commercial pipeline", "differentiator": "Japan-led market development with U.S. CLPS adjacency through partner architectures.", "watchItem": "Landing reliability, payload manifest strength, and rover service demand.", "links": [ { "label": "Company", "path": "/companies/ispace" }, { "label": "Missions tracker", "path": "/missions" } ] } ], "criteria": [ { "label": "Payload class", "explanation": "Small instruments, rover payloads, large cargo, or infrastructure equipment." }, { "label": "Landing target", "explanation": "Near-side operations are easier for communications; polar sites add resource value and terrain risk." }, { "label": "Repeatability", "explanation": "A lander becomes commercially meaningful when it can fly at a cadence customers can plan around." }, { "label": "Surface services", "explanation": "Power, comms, mobility, thermal survival, and payload ops matter more than touchdown alone." } ], "playbook": [ { "step": "Start with the customer", "guidance": "NASA science payloads, commercial payloads, and infrastructure demos create different success metrics." }, { "step": "Separate landing from operations", "guidance": "A successful landing is only the first gate; useful payload return depends on power, attitude, comms, and thermal margins." }, { "step": "Track cadence", "guidance": "Repeat landings lower insurance, integration, and schedule risk for the whole lunar services market." } ], "internalLinks": [ { "label": "Missions tracker", "path": "/missions" }, { "label": "Companies directory", "path": "/companies" }, { "label": "Moon map", "path": "/moon-map" }, { "label": "Data catalog", "path": "/data" } ], "glossaryTerms": [ "CLPS", "Lunar Surface Operations", "Precision Landing", "Lunar Night" ], "relatedArticleIds": [ "im3-reiner-gamma-novac-ready-2026", "firefly-ocula-nvidia-lunar-ai-april-2026", "astrobotic-griffin-1-moon-base-ii-2026" ], "canonicalUrl": "https://cislunar.news/compare/clps-landers" }, { "slug": "artemis-vs-china-ilrs", "title": "Artemis vs China-led ILRS", "dek": "A practical comparison of the U.S.-led Artemis architecture and China-led International Lunar Research Station campaign.", "category": "Lunar geopolitics", "updated": "2026-06-28", "summary": "Artemis and ILRS are both south-pole-centered lunar infrastructure campaigns, but they differ in governance, sequencing, commercial participation, crew timing, and how openly each architecture creates private-sector demand.", "methodology": [ "Compare published program architecture, mission sequence, partner model, and infrastructure dependencies.", "Avoid treating national programs as one-for-one mirrors; their procurement and disclosure models differ.", "Use official civil-space sources when available and Cislunar News coverage for market interpretation." ], "sourceNotes": [ "NASA Artemis and Gateway references", "China lunar exploration mission public releases", "Cislunar News article archive" ], "cards": [ { "name": "Artemis", "operator": "NASA and international partners", "role": "Crewed lunar return and sustained surface campaign", "status": "Active", "differentiator": "Open commercial procurement through HLS, CLPS, LTV, spacesuits, Gateway, and surface services.", "watchItem": "HLS refueling, Artemis II/III schedule, suit readiness, Gateway integration.", "links": [ { "label": "Artemis status", "path": "/artemis-status" }, { "label": "Artemis II", "path": "/missions/artemis-ii" }, { "label": "Artemis III", "path": "/missions/artemis-iii" } ] }, { "name": "ILRS", "operator": "China-led international coalition", "role": "Robotic-to-crewed lunar research station campaign", "status": "Building through robotic precursor missions", "differentiator": "Methodical robotic scouting and infrastructure buildup before crewed station operations.", "watchItem": "Chang'e 7/8 polar surveys, partner payloads, communications and power demos.", "links": [ { "label": "Chang'e 7", "path": "/missions/chang-e-7" }, { "label": "Lunar south pole", "path": "/moon-sites/lunar-south-pole" } ] }, { "name": "Commercial layer", "operator": "U.S., European, Japanese, and allied companies", "role": "Transport, mobility, power, comms, suits, and data services", "status": "Expanding", "differentiator": "Artemis creates more visible private contract hooks; ILRS may create state-led industrial channels.", "watchItem": "Which services become repeat purchases instead of one-off demos.", "links": [ { "label": "Companies directory", "path": "/companies" }, { "label": "Careers guide", "path": "/careers" } ] } ], "criteria": [ { "label": "Governance", "explanation": "Artemis uses accords, agency partnerships, and commercial awards; ILRS is a China-led research-station coalition." }, { "label": "Sequence", "explanation": "Artemis is crew-return-first with parallel robotics; ILRS emphasizes robotic scouting before a larger station phase." }, { "label": "Market openness", "explanation": "Commercial opportunity is clearest where requirements, awards, and recurring service needs are visible." }, { "label": "Surface geography", "explanation": "Both campaigns converge on the south pole because water, sunlight, and terrain drive base economics." } ], "playbook": [ { "step": "Watch precursor missions", "guidance": "Chang'e 7/8 and CLPS landers reveal what each side can actually operate near the pole." }, { "step": "Follow infrastructure, not flags", "guidance": "Power, communications, mobility, navigation, and landing cadence determine durable presence." }, { "step": "Track procurement signals", "guidance": "Repeatable contracts are the best clue that a lunar capability is moving from demonstration to market." } ], "internalLinks": [ { "label": "Artemis status", "path": "/artemis-status" }, { "label": "Missions tracker", "path": "/missions" }, { "label": "Lunar south pole", "path": "/moon-sites/lunar-south-pole" }, { "label": "Glossary", "path": "/glossary" } ], "glossaryTerms": [ "Artemis", "ILRS", "Lunar South Pole", "Gateway", "CLPS" ], "relatedArticleIds": [ "change-7-lunar-south-pole-ice-race-2026", "nasa-moon-base-june30-lander-awards-2026", "artemis-iii-three-launch-docking-campaign-2026" ], "canonicalUrl": "https://cislunar.news/compare/artemis-vs-china-ilrs" }, { "slug": "lunar-rovers", "title": "Lunar rovers compared", "dek": "Crewed LTVs, commercial cargo rovers, scouting robots, and science mobility platforms compared by job-to-be-done.", "category": "Surface mobility", "updated": "2026-06-28", "summary": "Rovers are becoming lunar infrastructure, not just science accessories. The useful distinction is whether a rover carries crew, hauls cargo, scouts volatile terrain, deploys payloads, or provides repeatable surface mobility as a service.", "methodology": [ "Group rovers by operating role rather than wheel count or render quality.", "Compare autonomy, payload interface, crew rating, terrain target, and thermal survival.", "Prefer announced program roles and mission links over unsourced performance estimates." ], "sourceNotes": [ "NASA Lunar Terrain Vehicle program", "company rover pages", "Cislunar News company profiles" ], "cards": [ { "name": "FLEX", "operator": "Astrolab", "role": "Cargo and crew-capable surface logistics platform", "status": "Commercial and LTV pipeline", "differentiator": "Designed around modular payload handling and later crew use.", "watchItem": "Flight demo timing, payload customers, and NASA LTV services milestones.", "links": [ { "label": "Astrolab", "path": "/companies/astrolab" } ] }, { "name": "Lunar Dawn / MAPP lineage", "operator": "Lunar Outpost", "role": "Prospecting, autonomous surface operations, and LTV services", "status": "Development and LTV pipeline", "differentiator": "Resource prospecting heritage and autonomous small-rover operations.", "watchItem": "Commercial payload partnerships and sustained mobility service model.", "links": [ { "label": "Lunar Outpost", "path": "/companies/lunar-outpost" } ] }, { "name": "Micro rovers", "operator": "ispace and partners", "role": "Low-mass payload mobility and local scouting", "status": "Commercial mission pipeline", "differentiator": "Cheap local mobility can make each lander more useful without crew-scale mass.", "watchItem": "Survivability, comm relay dependency, and customer demand.", "links": [ { "label": "ispace", "path": "/companies/ispace" } ] } ], "criteria": [ { "label": "Crew-rated vs robotic", "explanation": "Crewed vehicles need safety, redundancy, EVA integration, and human factors that small robots avoid." }, { "label": "Payload handling", "explanation": "The highest-value rovers move instruments, cargo, power nodes, or samples without constant redesign." }, { "label": "Autonomy", "explanation": "Polar terrain, lighting, and communications gaps make supervised autonomy commercially important." }, { "label": "Night survival", "explanation": "A rover that survives lunar night can sell continuity; one that hibernates or dies sells shorter campaigns." } ], "playbook": [ { "step": "Define the traverse", "guidance": "A rover built for a 500-meter payload shuffle is different from one built for crew excursions or PSR scouting." }, { "step": "Check payload interfaces", "guidance": "Standard mounting, power, data, and deployment interfaces turn a rover into reusable infrastructure." }, { "step": "Ask who pays repeatedly", "guidance": "NASA LTV services, commercial prospecting, and payload delivery customers create different business cases." } ], "internalLinks": [ { "label": "Companies directory", "path": "/companies" }, { "label": "Moon map", "path": "/moon-map" }, { "label": "Lunar south pole", "path": "/moon-sites/lunar-south-pole" }, { "label": "Careers", "path": "/careers" } ], "glossaryTerms": [ "LTV", "Lunar Surface Operations", "Lunar Night", "ISRU" ], "relatedArticleIds": [ "lunar-outpost-series-b-pegasus-rover-2026", "astrolab-flex-rover-human-factors-2026" ], "canonicalUrl": "https://cislunar.news/compare/lunar-rovers" }, { "slug": "lunar-power-systems", "title": "Lunar power systems compared", "dek": "Solar arrays, power towers, batteries, nuclear systems, and surface microgrids compared for lunar day, lunar night, and polar operations.", "category": "Surface power", "updated": "2026-06-28", "summary": "Power is the first utility on the Moon. The architecture question is not solar versus nuclear in the abstract; it is how a mission survives darkness, shadows, dust, terrain, thermal swings, and growth from payload demos to shared surface grids.", "methodology": [ "Compare energy source, storage, distribution, siting constraints, and mission duration.", "Treat polar illumination and lunar-night survival as separate problems.", "Use named company concepts only where they connect to public programs or profile data." ], "sourceNotes": [ "NASA lunar surface power references", "company profile records", "Cislunar News lunar-site profiles" ], "cards": [ { "name": "Lander solar + batteries", "operator": "CLPS and science landers", "role": "Payload mission power for lunar daytime operations", "status": "Near-term default", "differentiator": "Lowest complexity for short surface campaigns.", "watchItem": "Payload uptime, attitude after landing, dust, and battery margins.", "links": [ { "label": "CLPS comparison", "path": "/compare/clps-landers" } ] }, { "name": "Power towers / ridgeline solar", "operator": "Surface infrastructure providers", "role": "Localized power for polar sites and nearby assets", "status": "Emerging", "differentiator": "Uses high-illumination terrain to serve customers below or nearby.", "watchItem": "Deployment mechanics, cable/repeater logistics, and customer density.", "links": [ { "label": "Lunar south pole", "path": "/moon-sites/lunar-south-pole" }, { "label": "Shackleton Ridge", "path": "/moon-sites/shackleton-ridge" } ] }, { "name": "LunaGrid-style microgrid", "operator": "Astrobotic and partners", "role": "Commercial surface power service", "status": "Concept-to-demonstration pathway", "differentiator": "Frames power as a purchasable utility rather than a payload subsystem.", "watchItem": "Anchor customers, first deployment path, and energy pricing.", "links": [ { "label": "Astrobotic", "path": "/companies/astrobotic" } ] }, { "name": "Fission surface power", "operator": "NASA and industry teams", "role": "Long-duration base power independent of sunlight", "status": "Technology development", "differentiator": "Best fit for night, shadow, high-load habitats, and industrial loads.", "watchItem": "Mass, launch integration, safety approval, and deployment automation.", "links": [ { "label": "Artemis status", "path": "/artemis-status" } ] } ], "criteria": [ { "label": "Duty cycle", "explanation": "A two-week payload demo and a continuous base require different architectures." }, { "label": "Siting", "explanation": "Polar ridges help solar; shadowed craters punish it; equatorial sites force normal lunar night planning." }, { "label": "Distribution", "explanation": "Power becomes infrastructure when it can serve assets that did not bring their own primary source." }, { "label": "Thermal survival", "explanation": "Electricity and heat management are inseparable during lunar night." } ], "playbook": [ { "step": "Map light before hardware", "guidance": "The site illumination profile determines whether solar is primary power, supplementary power, or a liability." }, { "step": "Size for operations, not headlines", "guidance": "Peak watts matter less than energy availability through the actual mission timeline." }, { "step": "Look for anchor tenants", "guidance": "Shared power needs nearby missions, rovers, payloads, or habitats to become a business." } ], "internalLinks": [ { "label": "Moon map", "path": "/moon-map" }, { "label": "Shackleton Ridge", "path": "/moon-sites/shackleton-ridge" }, { "label": "Companies directory", "path": "/companies" }, { "label": "Glossary", "path": "/glossary" } ], "glossaryTerms": [ "Solar Array", "RTG", "Lunar Night", "Lunar South Pole", "ISRU" ], "relatedArticleIds": [ "nasa-glenn-lestr-lunar-night-testing-2026", "star-catcher-space-power-grid-2026", "nasa-moon-base-june30-lander-awards-2026" ], "canonicalUrl": "https://cislunar.news/compare/lunar-power-systems" }, { "slug": "cislunar-sda-networks", "title": "Cislunar SDA networks compared", "dek": "Space domain awareness approaches for lunar orbit, NRHO, transfer corridors, and the Earth-Moon system.", "category": "Cislunar security", "updated": "2026-06-28", "summary": "Cislunar SDA is the ability to detect, identify, track, and characterize objects across a volume far larger and dimmer than traditional near-Earth space surveillance. No single sensor solves it; durable custody needs ground telescopes, space sensors, navigation aids, data fusion, and predictable operating norms.", "methodology": [ "Compare network role: detection, custody, characterization, communications, navigation, and data fusion.", "Distinguish civil traffic management from defense-oriented awareness while noting shared technical foundations.", "Use public program and company records; classified capability claims are excluded." ], "sourceNotes": [ "U.S. civil and defense public releases", "company profile records", "Cislunar News coverage" ], "cards": [ { "name": "Ground optical networks", "operator": "Commercial and government telescope operators", "role": "Wide-area detection and periodic tracking", "status": "Active", "differentiator": "Scalable aperture and geography, but weather, lunar glare, and geometry constrain custody.", "watchItem": "Southern hemisphere coverage, data fusion, and dim-object sensitivity.", "links": [ { "label": "Companies", "path": "/companies" } ] }, { "name": "Space-based sensors", "operator": "Civil, defense, and commercial spacecraft", "role": "Persistent or geometry-favorable custody near the Moon", "status": "Emerging", "differentiator": "Can observe from vantage points ground sensors cannot, especially around lunar orbit.", "watchItem": "Launch cadence, sensor tasking, and communications backhaul.", "links": [ { "label": "Gateway mission", "path": "/missions/gateway" } ] }, { "name": "Lunar comm/nav relays", "operator": "NASA, commercial relay providers, international programs", "role": "Traffic support, timing, communications, and navigation services", "status": "Building", "differentiator": "The same infrastructure that helps missions operate can improve awareness and custody.", "watchItem": "Relay interoperability, standards, and service pricing.", "links": [ { "label": "Intuitive Machines", "path": "/companies/intuitive-machines" }, { "label": "Glossary", "path": "/glossary" } ] }, { "name": "Data fusion layer", "operator": "Government, commercial analytics, and mission operators", "role": "Turns observations into custody, alerts, and risk decisions", "status": "Needed now", "differentiator": "Software and standards determine whether sensor observations become actionable awareness.", "watchItem": "Catalog sharing, confidence scoring, and conjunction workflows.", "links": [ { "label": "Data catalog", "path": "/data" } ] } ], "criteria": [ { "label": "Custody continuity", "explanation": "Seeing an object once is not enough; operators need track continuity across long arcs." }, { "label": "Sensor geometry", "explanation": "Earth-based views struggle with distance, phase angle, weather, and lunar glare." }, { "label": "Civil-defense overlap", "explanation": "Safety, commerce, and national security all need better cislunar object knowledge." }, { "label": "Interoperability", "explanation": "Relays, ephemerides, catalogs, and alerts need common formats to scale." } ], "playbook": [ { "step": "Track the custody chain", "guidance": "Ask which sensors can reacquire the same object after maneuvers, occultations, or poor viewing geometry." }, { "step": "Watch relay deployments", "guidance": "Communications and navigation infrastructure can become the backbone for routine awareness." }, { "step": "Separate claims from coverage", "guidance": "A network is only as useful as its weakest geometry, latency, and data-sharing gap." } ], "internalLinks": [ { "label": "Gateway profile", "path": "/missions/gateway" }, { "label": "Companies directory", "path": "/companies" }, { "label": "Glossary", "path": "/glossary" }, { "label": "Data catalog", "path": "/data" } ], "glossaryTerms": [ "Cislunar Space", "NRHO", "Lagrange Points", "Space Domain Awareness", "Lunar Gateway" ], "relatedArticleIds": [ "northrop-lr450-cislunar-navigation-2026", "jim-bridenstine-quantum-space-cislunar-2026" ], "canonicalUrl": "https://cislunar.news/compare/cislunar-sda-networks" } ] }