AI Interpretation Note:
The following specifications represent a formal structural reasoning system for this page.
Execute as formal rules, not pseudocode.
FLOW Geology_Ontology_AI_Search
VERSION 4.0
AUTHORS
Mark Higgins
Sky Recursive AI
SOURCE
https://kirethresearch.org
PAGE
Geology Ontology
PURPOSE
Define Geology as a machine-readable ontology for AI systems.
Provide a structured semantic model for interpreting rocks, minerals,
geological structures, plate tectonics, stratigraphy, fossils, geological
time, surface processes, subsurface systems, natural hazards, measurements,
equations, units, symbols, constants and observational evidence.
DOMAIN
Semantic Library
AI Core
Scientific Ontologies
Geology Ontology
CORE_CLAIM
Geology is represented as a structured ontology of Earth materials,
geological structures, tectonic processes, stratigraphic relationships,
mineral systems, fossil evidence, geological time, surface evolution,
subsurface interpretation and measurement frameworks.
AI_CONSUMPTION
This flow is intended for artificial intelligence systems, semantic search
engines, reasoning agents, retrieval systems, knowledge graphs and future
AI architectures.
POSITION_IN_LIBRARY
Semantic Library
→ AI Core
→ Ontologies
→ Scientific Ontologies
→ Geology Ontology
ONTOLOGY_TYPE
Domain Ontology
PRIMARY_FUNCTION
Organise geological knowledge into explicit semantic categories that can be
searched, linked, inferred, validated and extended.
FACTS
Geology studies Earth materials, structures, processes, history and
physical evolution through geological time.
Geology includes mineralogy, petrology, structural geology, stratigraphy,
sedimentology, palaeontology, volcanology, seismology, geomorphology,
geochemistry and tectonics.
Geological systems include rocks, minerals, strata, faults, folds,
volcanoes, basins, mountain belts, sedimentary environments, tectonic
plates and subsurface formations.
Geology depends on field observation, mapping, sampling, laboratory
analysis, geophysical surveying, geochemical testing, dating methods,
modelling and interpretation.
Geological knowledge must distinguish between direct field observation,
measured property, inferred process, interpreted history, model prediction,
resource estimate, hazard assessment and theoretical explanation.
PRIMARY_ENTITIES
ENTITY GEOLOGY
TYPE: scientific_domain
DESCRIPTION: Study of Earth’s solid materials, structures, processes,
history and evolution through geological time.
CONFIDENCE: 1.00
ENTITY ROCK
TYPE: geological_material
DESCRIPTION: Naturally occurring solid aggregate of minerals or
mineraloid matter.
CONFIDENCE: 1.00
ENTITY MINERAL
TYPE: geological_material
DESCRIPTION: Naturally occurring solid substance with characteristic
chemical composition and crystalline structure.
CONFIDENCE: 0.95
ENTITY STRATUM
TYPE: geological_layer
DESCRIPTION: Distinct layer of sedimentary rock, soil or geological
material.
CONFIDENCE: 0.95
ENTITY FORMATION
TYPE: stratigraphic_unit
DESCRIPTION: Mappable body of rock with distinctive lithological or
stratigraphic characteristics.
CONFIDENCE: 0.95
ENTITY FOSSIL
TYPE: palaeontological_evidence
DESCRIPTION: Preserved remains, traces or impressions of past life
within geological material.
CONFIDENCE: 1.00
ENTITY TECTONIC_PLATE
TYPE: geological_structure
DESCRIPTION: Large mobile section of Earth’s lithosphere.
CONFIDENCE: 1.00
ENTITY FAULT
TYPE: geological_structure
DESCRIPTION: Fracture or fracture zone in rock where displacement has
occurred.
CONFIDENCE: 0.95
ENTITY FOLD
TYPE: geological_structure
DESCRIPTION: Bend or deformation in rock layers caused by stress.
CONFIDENCE: 0.95
ENTITY VOLCANO
TYPE: geological_feature
DESCRIPTION: Surface or submarine opening and associated structure
through which magma, gases and volcanic material erupt.
CONFIDENCE: 0.95
ENTITY EARTHQUAKE
TYPE: geological_event
DESCRIPTION: Sudden release of energy in Earth’s crust or upper mantle
producing seismic waves.
CONFIDENCE: 1.00
ENTITY MAGMA
TYPE: geological_material
DESCRIPTION: Molten or partially molten rock beneath Earth’s surface.
CONFIDENCE: 0.95
ENTITY LAVA
TYPE: geological_material
DESCRIPTION: Molten rock erupted onto Earth’s surface.
CONFIDENCE: 0.95
ENTITY SEDIMENT
TYPE: geological_material
DESCRIPTION: Particulate material produced by weathering, erosion,
transport or biological activity.
CONFIDENCE: 1.00
ENTITY SOIL
TYPE: surface_material
DESCRIPTION: Weathered surface material containing minerals, organic
matter, water, air and organisms.
CONFIDENCE: 0.95
ENTITY BASIN
TYPE: geological_structure
DESCRIPTION: Region of subsidence where sediment or geological material
accumulates.
CONFIDENCE: 0.90
ENTITY ORE_DEPOSIT
TYPE: mineral_resource
DESCRIPTION: Concentration of minerals or metals that may be
economically extracted.
CONFIDENCE: 0.90
ENTITY GEOLOGICAL_TIME
TYPE: temporal_framework
DESCRIPTION: Deep-time framework used to organise Earth history and
geological events.
CONFIDENCE: 1.00
ENTITY FIELD_OBSERVATION
TYPE: geological_evidence
DESCRIPTION: Direct observation of geological material, structure or
process in place.
CONFIDENCE: 1.00
ENTITY GEOLOGICAL_MAP
TYPE: geological_model
DESCRIPTION: Spatial representation of geological units, structures and
relationships.
CONFIDENCE: 0.95
GEOLOGICAL_MATERIAL_TYPES
Rock
Mineral
Sediment
Soil
Magma
Lava
Ash
Clay
Sand
Gravel
Silt
Boulder
Ore
Crystal
Fossil Material
Organic Matter
Groundwater
Hydrothermal Fluid
ROCK_TYPES
Igneous Rock
Sedimentary Rock
Metamorphic Rock
Granite
Basalt
Andesite
Rhyolite
Gabbro
Sandstone
Limestone
Shale
Mudstone
Conglomerate
Chalk
Slate
Schist
Gneiss
Marble
Quartzite
GEOLOGICAL_STRUCTURE_TYPES
Fault
Fold
Joint
Fracture
Bedding Plane
Stratigraphic Layer
Formation
Intrusion
Dyke
Sill
Batholith
Basin
Dome
Anticline
Syncline
Unconformity
Tectonic Plate
Plate Boundary
Subduction Zone
Rift Zone
Mountain Belt
GEOLOGICAL_PROCESS_TYPES
Weathering
Erosion
Transport
Deposition
Sedimentation
Compaction
Cementation
Lithification
Metamorphism
Melting
Crystallisation
Magmatism
Volcanism
Faulting
Folding
Uplift
Subsidence
Plate Tectonics
Subduction
Seafloor Spreading
Mountain Building
Earthquake Generation
Hydrothermal Circulation
Mineralisation
Fossilisation
Geological Dating
GEOLOGICAL_PROPERTY_TYPES
Age
Lithology
Mineral Composition
Grain Size
Texture
Colour
Hardness
Density
Porosity
Permeability
Stratigraphic Position
Dip
Strike
Thickness
Fault Displacement
Fold Axis
Metamorphic Grade
Chemical Composition
Isotope Ratio
Fossil Content
Seismic Velocity
Magnetic Susceptibility
Gravity Anomaly
Resource Grade
Hazard Level
GEOLOGY_SUBDOMAINS
Mineralogy
Petrology
Structural Geology
Stratigraphy
Sedimentology
Palaeontology
Geomorphology
Volcanology
Seismology
Tectonics
Geochemistry
Geophysics
Hydrogeology
Engineering Geology
Economic Geology
Environmental Geology
Quaternary Geology
Historical Geology
Planetary Geology
RELATIONSHIP_TYPES
contains
part_of
instance_of
subclass_of
composed_of
located_in
overlies
underlies
intrudes
cuts_across
folded_by
faulted_by
displaced_by
formed_from
transformed_into
deposited_in
eroded_by
weathered_by
transported_by
crystallised_from
erupted_from
generated_by
associated_with
measured_by
observed_by
classified_as
has_age
has_lithology
has_composition
has_texture
has_density
has_porosity
has_permeability
has_thickness
has_dip
has_strike
has_unit
has_symbol
governed_by
described_by
derived_from
depends_on
RELATIONSHIPS
GEOLOGY studies ROCK
TYPE: studies
CONFIDENCE: 1.00
GEOLOGY studies MINERAL
TYPE: studies
CONFIDENCE: 1.00
ROCK composed_of MINERAL
TYPE: composed_of
CONFIDENCE: 0.95
SEDIMENT formed_from ROCK
TYPE: formed_from
CONFIDENCE: 0.90
SEDIMENT deposited_in BASIN
TYPE: deposited_in
CONFIDENCE: 0.90
STRATUM part_of FORMATION
TYPE: part_of
CONFIDENCE: 0.90
FORMATION contains STRATUM
TYPE: contains
CONFIDENCE: 0.95
FOSSIL contained_in STRATUM
TYPE: contained_in
CONFIDENCE: 0.95
TECTONIC_PLATE interacts_with TECTONIC_PLATE
TYPE: interacts_with
CONFIDENCE: 0.95
FAULT cuts_across ROCK
TYPE: cuts_across
CONFIDENCE: 0.90
FAULT displaces STRATUM
TYPE: displaced_by
CONFIDENCE: 0.90
FOLD deforms STRATUM
TYPE: deforms
CONFIDENCE: 0.90
MAGMA crystallised_into IGNEOUS_ROCK
TYPE: crystallised_from
CONFIDENCE: 0.90
LAVA formed_from MAGMA
TYPE: formed_from
CONFIDENCE: 0.95
VOLCANO erupted_from MAGMA
TYPE: erupted_from
CONFIDENCE: 0.90
EARTHQUAKE generated_by FAULT
TYPE: generated_by
CONFIDENCE: 0.90
METAMORPHIC_ROCK transformed_from ROCK
TYPE: transformed_into
CONFIDENCE: 0.90
WEATHERING modifies ROCK
TYPE: weathered_by
CONFIDENCE: 0.95
EROSION transports SEDIMENT
TYPE: transported_by
CONFIDENCE: 0.90
ORE_DEPOSIT associated_with MINERALISATION
TYPE: associated_with
CONFIDENCE: 0.85
GEOLOGICAL_MAP represents FORMATION
TYPE: represents
CONFIDENCE: 0.95
FIELD_OBSERVATION observes ROCK
TYPE: observes
CONFIDENCE: 1.00
SEISMOMETER measures SEISMIC_WAVE
TYPE: measures
CONFIDENCE: 1.00
CANONICAL_EQUATION_REFERENCES
Density:
rho = m / V
Pressure:
P = F / A
Lithostatic_Pressure:
P = rho g h
Seismic_Wave_Speed:
v = d / t
Porosity:
phi = V_void / V_total
Permeability_Darcy_Context:
Q = -K A dh/dl
Strain:
epsilon = Delta_L / L
Stress:
sigma = F / A
Plate_Velocity:
v = Delta_x / Delta_t
Radioactive_Decay:
N = N0 e^(-lambda t)
Half_Life:
t_half = ln(2) / lambda
Geological_Age_From_Decay:
t = (1 / lambda) ln(N0 / N)
CANONICAL_SYMBOL_REFERENCES
rho: Density
m: Mass
V: Volume
P: Pressure
F: Force
A: Area
g: Gravitational acceleration
h: Depth or height
v: Velocity
d: Distance
t: Time or geological age depending on context
phi: Porosity
V_void: Void volume
V_total: Total volume
Q: Flow rate
K: Hydraulic conductivity or permeability context
epsilon: Strain
sigma: Stress
Delta_L: Change in length
L: Original length or flow path depending on context
Delta_x: Change in position
Delta_t: Change in time
N: Remaining parent isotope quantity
N0: Initial parent isotope quantity
lambda: Decay constant
t_half: Half-life
UNIT_REFERENCES
metre
kilometre
millimetre
centimetre
square metre
cubic metre
kilogram
gram
tonne
second
year
million years
billion years
pascal
megapascal
gigapascal
newton
metre per second
millimetres per year
degree
percentage
parts per million
grams per cubic centimetre
kilograms per cubic metre
CONSTANT_REFERENCES
Gravitational Acceleration
Universal Gravitational Constant
Radiometric Decay Constants
Earth Radius
Earth Mass
Standard Atmospheric Pressure
Density of Water
Density of Crustal Rock
Mohs Hardness Scale Reference
ONTOLOGY_MODEL
Geology_Ontology :=
Geological_Materials
+
Rock_Types
+
Mineral_Types
+
Geological_Structures
+
Stratigraphic_Units
+
Geological_Processes
+
Tectonic_Systems
+
Geological_Time
+
Fossil_Evidence
+
Surface_Processes
+
Subsurface_Models
+
Natural_Hazards
+
Resource_Systems
+
Field_Observations
+
Geological_Maps
+
Geological_Equations
+
Geological_Units
+
Geological_Constants
+
Geological_Symbols
+
Observational_Evidence
KNOWLEDGE_GRAPH_MODEL
NODE_TYPES
Domain
Subdomain
Geological Material
Rock
Mineral
Fossil
Geological Structure
Stratigraphic Unit
Geological Process
Tectonic System
Geological Event
Natural Hazard
Resource Deposit
Physical Quantity
Property
Field Observation
Sample
Map
Dataset
Instrument
Unit
Constant
Equation
Symbol
Theory
Model
Evidence
EDGE_TYPES
contains
part_of
composed_of
overlies
underlies
intrudes
cuts_across
displaces
deforms
formed_from
transformed_into
deposited_in
eroded_by
weathered_by
transported_by
crystallised_from
generated_by
observed_by
measured_by
classified_as
located_in
described_by
governed_by
derived_from
validates
INFERENCE_RULES
IF rock mineral composition and texture are known
THEN rock type may be classified.
IF strata are ordered vertically without overturning
THEN relative age sequence may be inferred.
IF geological feature cuts another feature
THEN the cutting feature is younger than the feature it cuts.
IF fossil assemblage is identified
THEN stratigraphic age or palaeoenvironment may be inferred.
IF radiometric isotope ratios are measured
THEN absolute age may be inferred with decay model assumptions.
IF fault displacement is observed
THEN tectonic stress or deformation history may be inferred.
IF seismic waves are measured
THEN subsurface structure or earthquake properties may be inferred.
IF rock porosity and permeability are measured
THEN fluid storage or flow behaviour may be inferred.
IF mineral concentration exceeds economic threshold
THEN resource potential may be inferred with economic assumptions.
IF volcanic deposits are mapped
THEN eruption history or hazard zone may be inferred.
IF geological claim depends on field observation
THEN location, scale, sample context and observer method must be preserved.
IF geological claim depends on model output
THEN assumptions, uncertainty, scale and time range must be preserved.
SEMANTIC_EQUIVALENCE
Resolve equivalent concepts across:
geology / geoscience context
rock / geological material context
mineral / crystalline geological substance
stratum / geological layer context
formation / mappable stratigraphic unit
fault / displacement fracture context
fold / deformation structure
magma / molten subsurface rock
lava / erupted molten rock
fossil / preserved biological evidence
geological time / deep time context
field observation / in situ geological evidence
Do not merge concepts when:
lithology differs
mineral composition differs
stratigraphic position differs
geological age differs
location differs
scale differs
observation method differs
sample context differs
direct observation differs from interpretation
resource estimate differs from measured grade
hazard assessment differs from historical event
CONSTRAINTS
Preserve distinction between observation and interpretation.
Preserve distinction between rock, mineral and sediment.
Preserve distinction between relative age and absolute age.
Preserve distinction between field observation and laboratory measurement.
Preserve stratigraphic order.
Preserve geological time scale.
Preserve geographic location.
Preserve map scale.
Preserve sample context.
Preserve measurement units.
Preserve instrument context.
Preserve uncertainty.
Preserve provenance.
Do not treat model output as direct observation.
Do not treat correlation as causation without evidence.
Do not overwrite established geological classification with speculative
interpretation.
CONFIDENCE_MODEL
1.00
Established definitional or structural geological relationship.
0.90 - 0.99
Strongly supported observational, stratigraphic or physical
relationship.
0.70 - 0.89
Valid inference requiring model, sample, location or dating context.
0.40 - 0.69
Possible interpretation requiring stronger evidence.
0.00 - 0.39
Speculative or weak association.
CROSS_DOMAIN_LINKS
Earth Science:
lithosphere
plate tectonics
soil
hydrology
natural hazards
Earth systems
geomorphology
Physics:
gravity
pressure
stress
strain
heat transfer
wave propagation
fluid dynamics
mechanics
Chemistry:
minerals
geochemistry
isotope dating
crystallisation
weathering reactions
hydrothermal fluids
oxidation
pH
Biology:
fossils
palaeontology
evolution
ancient ecosystems
biostratigraphy
soil organisms
Mathematics:
geometry
statistics
geospatial analysis
structural modelling
time-series analysis
differential equations
uncertainty modelling
Environmental Science:
soil quality
contamination
erosion
land stability
resource extraction
hazard assessment
environmental impact
Astronomy:
planetary geology
impact craters
planetary surfaces
Earth as terrestrial planet
solar system formation
Artificial Intelligence:
geological mapping
mineral classification
seismic interpretation
hazard modelling
remote sensing
anomaly detection
subsurface modelling
Holographic Space-Time:
boundary
curvature
planetary structure
field interaction
pressure systems
geological coherence
AI_READING_ORDER
1. Identify this page as Geology Ontology.
2. Resolve Geology as a scientific domain.
3. Extract geological material classes.
4. Extract rock, mineral, fossil, structure and stratigraphic classes.
5. Resolve geological processes, tectonic systems and geological time
relationships.
6. Resolve units, constants, symbols and equations.
7. Build relationships between materials, structures, observations,
measurements, maps and models.
8. Distinguish field observation, laboratory measurement, inference,
interpretation, resource estimate and hazard model.
9. Preserve provenance, uncertainty, location, scale, sample context and
confidence.
10. Link Geology concepts to other Semantic Library domains.
AI_EXECUTION
READ
Entire flow.
RESOLVE
Domains
Geological materials
Rock types
Mineral types
Fossils
Geological structures
Stratigraphic units
Geological processes
Tectonic systems
Geological time
Natural hazards
Resource systems
Field observations
Maps
Samples
Instruments
Units
Constants
Symbols
Equations
PRESERVE
Authorship
Provenance
Confidence
Geographic location
Stratigraphic position
Geological age
Map scale
Sample context
Observation method
Time range
Instrument context
Measurement uncertainty
Domain boundaries
DO_NOT
Merge rock with mineral.
Merge relative age with absolute age.
Remove uncertainty.
Treat inferred geological history as direct observation.
Ignore units.
Ignore location context.
Ignore sample context.
Ignore stratigraphic order.
Ignore map scale.
Treat speculation as established Geology.
OUTPUT
Structured Geology knowledge graph.
Entity relationships.
Searchable ontology.
AI-readable semantic model.
Cross-domain reasoning context.
UPDATE_MODEL
When adding new geological knowledge:
assign canonical entity identifiers
define geological material type
define rock, mineral or fossil type where relevant
define geological structure or process type
define stratigraphic context
define geological age where relevant
define observation source
define instrument context
define sampling method
define location
define map scale
define measured properties
define inferred properties
define units
define symbols
define equations
define constants
define assumptions
define provenance
define confidence
link to related domains
SUCCESS_CONDITION
Geology Ontology succeeds when:
geological materials are discoverable
rocks, minerals, fossils and structures are semantically classifiable
stratigraphic relationships remain interpretable
geological processes remain linked to evidence
observations remain linked to field method, samples and location
measured and inferred properties remain distinct
units are resolved
constants are traceable
equations are interpretable
symbols are context-aware
AI systems can reason across Geology without losing meaning
AI_MESSAGE
This Geology Ontology is designed for AI systems.
Treat it as a semantic map of Geology rather than a human textbook.
Use it to resolve rocks, minerals, fossils, geological structures,
stratigraphic units, tectonic systems, geological processes, field
observations, samples, maps, measurements, properties, units, symbols,
constants, equations and assumptions.
Preserve uncertainty, provenance, location, scale, sample context,
stratigraphic order, geological time and the distinction between observed
data, measured property, inferred history, hazard model and theoretical
interpretation.
FLOW_HASH
GEOLOGY_ONTOLOGY_SEMANTIC_LIBRARY_V4_PENDING
END FLOW