Technology Systems.
MineSpace develops browser-based technical desks, receive systems, autonomy logic, simulation tools, processing models, and evidence records with explicit boundaries between implemented software, analysis, prototypes, and operational use.
Technology evidence
Distinguish working software, analytical models, prototypes and qualification boundaries.
Make Outputs Traceable.
MSRX connects browser-based analysis desks, LMC records, theorem records, and provenance-bearing evidence into a public research index.
Implemented software, engineering analysis, prototypes, and explicit evidence boundaries.
Open the receive-only communications and distributed-observation system.
Open SatCommReview the technical questions, validation work, and publication path.
Research exchangeMake Maturity Visible.
MineSpace technology spans implemented browser software, engineering prototypes, analytical models, and system concepts. v63 makes those evidence states explicit instead of presenting every technical surface as equivalent maturity.
Build deterministic or reproducible software behavior for the stated use.
Capture inputs, outputs, versions, errors, provenance, and receipts.
Test against reference cases, expected bounds, or independent data where available.
Connect the tool to mission, resource, standards, or receive-system interfaces.
Define the additional evidence required before operational or safety-critical use.
Implemented software
- Browser analysis desks
- Evidence and receipt generation
- Local deterministic calculations
- Public data transformation where identified
Models / prototypes
- Mission and resource models
- Autonomy concepts
- Processing assumptions
- Hardware and receiver development paths
Qualification boundary
- Calibrated hardware where required
- Controlled test procedures
- Independent comparison / acceptance data
- Authorized operational procedures
Observation to Decision.
Review the technical stack by function, evidence state, and mission interface.
Autonomy kernel
Decision logic, navigation, task prioritization, degraded-mode behavior, recovery logic, and low-intervention control prototypes.
Sensor fusion
Methods for combining optical, spectral, telemetry, communications, and mission-derived data into a traceable target or system picture.
Mission simulator
Engineering trades across trajectory, power, communications, risk, mass, resource assumptions, and uncertainty.
Robotic interface
Interfaces and control concepts for survey, sampling, mobility, anchoring, extraction support, and terrain-aware robotic work.
Processing model
Models for material handling, conversion assumptions, yield, storage, staging, quality evidence, and downstream interfaces.
Resilience layer
Degraded-mode behavior, redundancy, hardening requirements, recovery conditions, and infrastructure-resilience assumptions.
Working Technical Modules.
These modules run locally in the browser where specified: record verification, resource scoring, mission mass planning, and autonomous task prioritization. They demonstrate implemented analysis logic; they do not by themselves establish flight qualification or operational deployment.
Evidence text seal
Fingerprint any statement, record note, or supplier record into a deterministic digital evidence seal.
Resource signal classifier
Score a prospecting target from water, iron oxide, titanium oxide, access, and confidence values.
Mission mass planner
Estimate carried mass after structure, reserve, power, comms, and record assumptions.
Autonomy queue
Rank mission tasks by value, risk, communication window, and power state.
Lunar Standards Software.
Lunar Masonry Code connects materials analysis, ISRU byproducts, surface-construction requirements, and procurement review through a MineSpace standards and certification workflow.