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Electrical power drives a controlled optical source at the local node.
QaliceAstroQalice.com Photonics for the
long distance.
Lasers already move information efficiently. Future space infrastructure may also use directed optical energy for power beaming, sensing, and coordination—subject to pointing, thermal, conversion, and safety constraints.
NowOptical communications
NextPrecision sensing
HorizonDirected energy transfer
01
Light is the transport layer.
Astro Qalice separates what works today from what must still be engineered, demonstrated, and governed.
Aim
Tracking systems keep a narrow beam aligned across a moving route.
Relay
Reflective or regenerative nodes redirect data and, where safe, energy.
Receive
A terminal converts photons into information or usable local power.
02
Qalice Astro · executable research model
Solar & Resource Lab.
Explore a laser-power route with live NASA/JPL small-body facts, geospatial NASA POWER context, and declared engineering assumptions.
Photonic power route Live calculation
Solar collector1.46 AU model point
Mirror relay1.5 m aperture
433 ErosReceiver + process load
0 12,000 km modeled route
04NASA/JPL object facts
- Orbit class
- Amor
- Diameter
- 16.84 km
- Albedo
- 0.250
- Rotation
- 5.27 h
- Perihelion
- 1.13 AU
- Semimajor axis
- 1.46 AU
06Evidence key
- Live sourceNASA/JPL API values
- CalculatedDeclared equations and inputs
- AssumptionUser-defined process scenario
Research model only. Outputs are not a mission design, mineral composition estimate, financial valuation, navigation solution, or operational safety case. NASA/JPL supplies object and orbital context; Qalice performs the optical-energy calculations.
03
Qalice Astro · evidence-separated scenario lab
Resource Atlas.
Explore extraction scenarios across the Solar System and compare them with observational records from another star system.
System mode
NASA dataObserved and published
→Qalice assumptionsUser-controlled scenario
→Modeled outputCalculation, not a reserve
Solar System context
Polar volatile and regolith-processing scenario
Source record
- Source
- NASA Science · Moon Facts
- Mean radius
- 1,737.5 km
- Distance context
- 384,400 km from Earth
- NASA API key
- Not required by this source
Published NASA context. Local site composition still requires mission measurements.
Open primary NASA source ↗This tool values a user-defined extraction site, never an entire world. NASA records supply physical or observational context; composition, accessible mass, recovery, price, energy, logistics, and all modeled outputs are Qalice scenario assumptions. Exoplanet mode is remote observation only and is not evidence of extractable resources.
04
Choose a route.
Compare the role of an optical network across three illustrative mission contexts. These are architecture prompts, not performance claims.
Asteroid operation
Mining telemetry + local process energy
A distributed optical network keeps high-rate science data moving while local equipment performs extraction and processing.
- Distance
- Mission dependent
- Optical path
- Mining craft → reflective relay → operations hub
- Design focus
- Autonomous acquisition and thermal limits
05
A research horizon,
not a deployed claim.
The site uses clear evidence labels so current photonics, engineering models, and future hypotheses are not presented as the same thing.
Read the Qalice whitepaperDemonstrated
Optical communications and laser ranging
Grounded in operating systems and published work.Modeled
Relay geometry, conversion chains, and thermal budgets
Useful for design exploration; requires validation.Hypothesized