UC08 · Geoscience / Planetary Risk Intelligence

Plate Boundaries, Earthquakes & Volcanoes on the Globe

Five geoscience layers on one live 3D globe — tectonic plates, plate boundaries, orogens, real-time USGS earthquake alerts, and 1,500+ Smithsonian GVP volcanoes. Click any event for full detail.

GRIP 3D fuses five open geoscience datasets into a single interactive 3D globe: tectonic plate polygons colour-coded by plate identity, plate boundary lines classified by boundary type, orogenic belts showing mountain-building zones, a live USGS earthquake feed updated in real time with magnitude and depth, and the complete Smithsonian Global Volcanism Program database of 1,500+ Holocene volcanoes with name, country, subregion, elevation, and observatory data. Click any volcano to open its full profile panel — as seen in the demo with Long Valley Caldera, Mammoth Mountain, Mono-Inyo Chain, and more. Built for geoscientists, risk analysts, disaster preparedness teams, insurers, educators, and anyone who needs to understand where the Earth is most active.

Plate Boundaries Earthquakes Volcanoes Globe preview
What this demo shows:
The Pacific Ring of Fire rendered in real data — tectonic plates as coloured polygons, plate boundaries as classified lines, orogens as mountain belts, live earthquake dots scaled by magnitude, and every known Holocene volcano as a clickable triangle. Long Valley Caldera. Mammoth Mountain. The Ring of Fire. All in one view.
What teams struggle with today

Geoscience data is scattered across USGS portals, Smithsonian databases, academic GeoJSON repositories, and national seismic networks. Seeing tectonic context alongside live seismic activity requires stitching together five separate tools.

  • Earthquake feeds, volcano databases, and plate boundary data live in separate systems
  • No single view combines tectonic context with live seismic events
  • Flat 2D maps distort plate relationships at global scale
  • Risk analysts cannot see spatial overlap between plates, faults, and active volcanoes
How GRIP 3D solves it in 3D

GRIP 3D layers all five geoscience datasets onto one globe — tectonic context beneath, live seismic events on top — so the spatial relationship between plates, boundaries, orogens, earthquakes, and volcanoes is immediately visible.

  • Five toggleable layers: Tectonic Plates · Plate Boundaries · Orogens · Earthquakes · Volcanoes
  • Live USGS earthquake feed — real-time M0+ events, scaled and coloured by magnitude
  • 1,500+ GVP volcanoes as clickable points with name, country, elevation, observatory
  • Click any volcano to open detail panel — as shown in the demo screenshot

Why this works at global scale

Holocene volcanoes
1,500+
Tectonic plates
14 major
Earthquake feed
Real-time
Geoscience layers
5 on one globe

The Five Layers

🌍
Tectonic Plates
〰️
Plate Boundaries
⛰️
Orogens
🔴
Earthquakes
🌋
Volcanoes
🌍
Layer 1 — Tectonic Plates
14 major + minor plates · Colour-coded polygons · Click for plate name and type
USGS / PB2002 GeoJSON
What it shows
  • Each tectonic plate rendered as a filled polygon draped on the 3D globe surface
  • Colour-coded by plate identity — as visible in the demo screenshot over North America
  • Click any plate region to see plate name, type, and area in the info panel
  • Provides spatial context for why earthquakes and volcanoes cluster at boundaries
  • Shows how continents sit on their underlying plates — Pacific, North American, Eurasian, African, and more
Major Plates on Globe
Pacific
North American
Eurasian
African
Indo-Australian
Antarctic
South American
Nazca
Caribbean
Arabian
〰️
Layer 2 — Plate Boundaries
Convergent · Divergent · Transform · Subduction zones · Colour-coded by type
PB2002 Bird (2003)
What it shows
  • All plate boundary lines classified by tectonic type — convergent, divergent, transform
  • Subduction zones rendered with directional indicators showing which plate dips under
  • Colour-coded boundary lines: orange boundary lines visible in demo over western North America
  • The Ring of Fire subduction zone — Pacific coast of the Americas and Asia — rendered in full
  • Mid-ocean ridges (divergent) visible across Atlantic and Pacific
Boundary Types
  • Convergent — plates colliding, forming mountains or subducting
  • Divergent — plates separating, forming rifts and mid-ocean ridges
  • Transform — plates sliding past each other, causing strike-slip faults
  • Subduction Zone — oceanic plate diving beneath continental plate
  • Collision Zone — continental-continental convergence (e.g. Himalayas)
⛰️
Layer 3 — Orogens
Mountain-building belts · Geological deformation zones · Global coverage
USGS / GeoJSON static dataset
What it shows
  • Orogenic belts — zones of intense rock deformation caused by plate collision
  • Polygon overlay showing mountain-building regions: Rockies, Andes, Alps, Himalayas, Urals
  • Visible as the green/teal polygon region in the demo screenshot over western USA/Canada
  • Shows the geological history of where continents collided and folded the crust
  • Correlates with earthquake depth patterns — deep seismicity common beneath orogens
Major Orogenic Belts
  • Cordilleran Orogen — western North America (Rockies, Sierra Nevada, Coast Ranges)
  • Andean Orogen — western South America
  • Alpine-Himalayan Belt — Europe through Asia (Alps, Caucasus, Zagros, Himalayas)
  • Appalachian-Caledonian — eastern North America and northern Europe
  • Trans-Saharan Belt — central Africa
🔴
Layer 4 — Earthquakes
Live USGS feed · M0+ worldwide · Dot size = magnitude · Colour = depth · Updated continuously
USGS FDSN API · earthquake.usgs.gov
What it shows
  • Every recorded earthquake plotted in real time as a geo-located dot on the globe
  • Dot size scales with magnitude — M6+ events are immediately visible at global zoom
  • Dot colour encodes depth: shallow (red) → intermediate (orange/yellow) → deep (green)
  • Click any event: magnitude, place, time, depth, alert level, tsunami flag
  • Filter by time window: past hour, past day, past 7 days, past 30 days
  • Filter by minimum magnitude: M1+, M2.5+, M4.5+, M5+, significant events
Magnitude Scale
M0–2
M2–3
M3–4
M4–5
M5–6
M6–7
M7+
  • M0–2 · Micro — rarely felt, detected by seismographs only
  • M2–4 · Minor — often felt, rarely causes damage
  • M4–5 · Light — noticeable shaking, minor damage possible
  • M5–6 · Moderate — significant damage in populated areas
  • M6–7 · Strong — destructive in populated regions
  • M7+ · Major / Great — severe to catastrophic damage
🌋
Layer 5 — Volcanoes
1,500+ Holocene volcanoes · Smithsonian GVP · Name · Country · Elevation · Observatory · Click for full profile
GVP v5.3.4 · volcano.si.edu
What it shows
  • Every Holocene volcano (active in last 12,000 years) plotted as a triangle icon on the globe
  • Triangle size and colour reflects activity status — as shown in demo for California/Nevada
  • Click any volcano to open profile panel: Name, Country, Subregion, Elevation (M), Observatory
  • Multi-select supported — demo shows 9/10 selected in the California cluster
  • Smithsonian / USGS Daily Volcanic Activity Report integrated for currently erupting volcanoes
  • 40–50 volcanoes in continuous eruption at any given time globally — all visible on the globe
Volcano Profile Fields
  • Name — Official GVP volcano name (e.g. Long Valley Caldera)
  • Country — Nation where volcano is located (e.g. United States)
  • Subregion — State/province (e.g. California)
  • Elevation (M) — Summit elevation in metres (e.g. 2,600 m)
  • Observatory — Monitoring agency (e.g. CALVO, HVO, AVO)
  • Volcano Type — Caldera, Shield, Stratovolcano, Cinder Cone, etc.

Volcano Profile Examples

A sample of the California volcanic cluster shown in the demo — click any triangle on the globe to open these panels.

🌋
Long Valley Caldera
United States · California · Elevation: 2,600 m · Observatory: CALVO
Under Watch
🌋
Mammoth Mountain
United States · California · Part of Long Valley volcanic system
Monitored
🌋
Mono-Inyo Craters
United States · California · Most recent eruption ~650 years ago
Holocene
🌋
Mono Lake Volcanic Field
United States · California · Volcanic islands in Mono Lake
Holocene
🌋
Silver Lake Volcanic Field
United States · California · Part of Eastern Sierra volcanic chain
Holocene

Capabilities

Layers approach · APIs ready · Live geoscience intelligence
  • Five geoscience layers independently toggleable on a single 3D globe
  • Live USGS earthquake feed — real-time GeoJSON, continuous updates, global M0+ coverage
  • 1,500+ Smithsonian GVP volcanoes with full profile on click: name, country, elevation, observatory
  • Multi-select on volcano layer — select and compare up to 10 volcanoes simultaneously
  • Earthquake filter by time window (hour / day / week / month) and minimum magnitude
  • Tectonic plate polygons with plate boundary classification (convergent / divergent / transform)
  • Orogenic belt polygons showing mountain-building zones correlated with seismicity
  • APIs for custom seismic sensor data ingestion alongside USGS public feed

Data & API Stack

UC08 is powered by three authoritative open geoscience datasets — USGS for live earthquakes, Smithsonian GVP for volcanoes, and PB2002 for tectonic plate geometry.

🔴 USGS Earthquake Hazards Program — https://earthquake.usgs.gov/fdsnws/event/1
Endpoint Used for Returns
/feeds/v1.0/summary/all_day.geojson Default earthquake layer (past 24h) All M0+ earthquakes: mag, place, time, depth, coordinates
/feeds/v1.0/summary/significant_month.geojson Significant events layer (past 30 days) High-impact events with alert level, tsunami flag, felt reports
/query?format=geojson&minmagnitude=4.5&limit=500 M4.5+ filter layer Filtered earthquake set with full event properties
/query?format=geojson&eventid={id} Single event detail on click Full event: mag, depth, coordinates, felt reports, CDI, MMI, alert colour
/query?format=geojson&starttime=&endtime=&minmagnitude= Custom time + magnitude filter GeoJSON FeatureCollection of matching events with all properties
🌋 Smithsonian GVP v5.3.4 — volcano.si.edu · CC BY 4.0
Field Used for Detail
Volcano Name Label and panel title on click Official GVP name for all 1,500+ Holocene volcanoes (e.g. Long Valley Caldera)
Latitude / Longitude Triangle icon placement on globe Geo-coordinates for all volcanoes — drives spatial placement on 3D surface
Country / Subregion Profile panel: Country + State/Region fields Nation and sub-national region (e.g. United States / California)
Elevation (m) Profile panel: Elevation (M) field Summit elevation in metres — as shown in demo (e.g. 2,600 m for Long Valley)
Primary Volcano Type Icon shape variation on globe Caldera, Shield, Stratovolcano, Cinder Cone, Submarine, etc.
Volcano Observatory Profile panel: Observatory field Monitoring agency code (e.g. CALVO, HVO, AVO, YVO) — as shown in demo
Last Known Eruption Activity status badge on card Year of last confirmed eruption — used to classify Active / Holocene / Historical
🌍 PB2002 Bird (2003) + USGS Tectonic Plates GeoJSON — Open / Public Domain
Dataset Used for Detail
Tectonic Plate Polygons Layer 1 — plate fill on globe 14 major + minor plate polygons, colour-coded by identity, draped on 3D globe surface
Plate Boundary Lines Layer 2 — boundary lines on globe All boundary segments classified: convergent, divergent, transform, subduction, ridge
Orogen Polygons Layer 3 — orogenic belts on globe Mountain-building zone polygons — Cordilleran, Andean, Alpine-Himalayan, Appalachian, etc.

Who Uses This

Industries
  • Insurance & Reinsurance — Overlay tectonic plates and earthquake frequency onto asset portfolios; model seismic risk exposure by region for underwriting and cat modelling
  • Infrastructure & Engineering — Identify proximity of critical infrastructure to plate boundaries, subduction zones, and active volcanic systems before build decisions
  • Government & Emergency Services — Real-time earthquake alerts on a globe — coordinate preparedness across multiple hazard zones simultaneously
  • Mining & Resources — Correlate orogenic belts with mineral deposit locations; understand structural geology at global scale
Teams
  • Geoscientists & Researchers — Five open datasets on one spatial canvas — a reference layer for tectonic, seismic, and volcanic research workflows
  • Education & Outreach — Show students exactly where the Ring of Fire is, why Japan has earthquakes, and what a caldera looks like — all in one interactive globe
  • Media & Journalism — Visualise earthquake and volcanic events in context the moment they happen — spatial storytelling in seconds
  • NGOs & Humanitarian — Pre-position disaster response based on where high-population zones overlap with active tectonic and volcanic hazard layers

Platform Views

Open for consulting and partner integrations

If you want this use case mapped to your data sources, we can deliver a fast prototype and integration plan — including layers, APIs, and deployment options.

Request a demo