Ordered states, not shuffled snapshots.
Learn how the same place moves through time, with transitions, horizons and next-state targets kept explicit.
ShelobConnect your agent Shelob collects public spatial records from around the world and keeps every version it sees. For model builders, that means data about how places change over time, from many independent sources, with the source and licence on every record.
Boundaries
Permits
Freight
Drainage
Road access
Flood history
Persistent place IDs
Ordered state sequence
Transition events
Evidence + rights
That requires more than a larger pile of snapshots. It requires persistent identity, ordered observations, cross-source context and evaluation designed to reveal whether a model generalises across both geography and time.
Learn how the same place moves through time, with transitions, horizons and next-state targets kept explicit.
Connect infrastructure, movement, hazards, activity, imagery-derived features and records that are rarely modelled together.
Measure geographic transfer, temporal reasoning and calibration with held-out places, periods and source combinations.
Keep publisher, provenance, observation time, licence status and permitted use attached through training, evaluation and retrieval.
Spatial data usually arrives as disconnected files, schemas and snapshots. Shelob resolves those records to real places, preserves when each observation was made and connects signals that are rarely available in one training or retrieval layer.
The model can see the direction of travel, inspect the evidence behind it and distinguish an observed fact from an inferred trajectory.
Shelob turns successive, source-grounded observations into model-ready place trajectories. Every sequence preserves the state at each window, transition events, forecast targets, related signals, uncertainty, evidence and permitted use.
12 observations establish the initial place state.
18 new observations expose the first divergence.
24 new observations show the trajectory strengthening.
15 observations establish vegetation, access and insured density.
21 observations reveal exposure accumulating across sources.
29 observations support a higher-risk portfolio state.
14 observations define the catchment and service baseline.
20 observations show demand growing faster than local capacity.
27 observations indicate a widening access gap.
17 observations establish the corridor baseline.
23 observations expose the first capacity divergence.
31 observations reveal where the transition is constrained.
Train on ordered observation windows across land use, infrastructure, hazards, access and activity, all resolved to one persistent place.
Create supervised tasks for temporal order, direction of change, forecast horizon and the observations supporting a prediction.
Test whether capability transfers across geography and time, with answer keys, evidence sets, hard negatives and explicit uncertainty.
Give a model the current state, the sequence behind it and the source, recency and licence context required to use it.
STATE SEQUENCES
·CHANGE EVENTS
·FORECAST TARGETS
·HARD NEGATIVES
·GEO/TIME SPLITS
Discuss trajectory data ↘Availability and historical depth vary by location. Every delivery is scoped to the coverage, rights and model task agreed with your team.
Parcels, administrative areas, planning zones, protected areas and the geometries that define where something is.
Footprints, development, industrial activity, density, surface change and how a place is being used.
Roads, rail, ports, energy, water, telecommunications and the networks a place depends on.
Freight, mobility, road access, closures, corridors and the changing connections between places.
Flood, fire, heat, water, terrain, vegetation and environmental conditions observed over time.
Approvals, business activity, public assets, services, investment and other signals of change.
Aerial LiDAR and imagery-derived features where publishers release them, aligned to place and observation time.
Population dynamics, health access, public services, amenities and the human context surrounding a place.
VECTOR FEATURES
·IMAGERY-DERIVED FEATURES
·TIME SERIES
·EVENT RECORDS
·RELATIONSHIP GRAPHS
·TEXT METADATA
Start with a defined model task. Shelob shapes the geography, history, fields, rights and delivery format around the way the data will actually be used.
Train on resolved place sequences, transition labels, cross-source relationships and difficult negative examples instead of isolated coordinate pairs.
Evaluate place resolution, temporal order, next-state prediction, cross-source synthesis and calibration across held-out geographies and future windows.
Retrieve the latest state, the sequence behind it, source conflicts and the provenance and rights required to support a model response.
Use successive observation windows to learn development, exposure, access and infrastructure trajectories while keeping observations separate from inference.
Every observation carries its publisher, source URL, observation date, original attributes, projection details and a viewable licence record. Your pipeline can filter by accepted usage status before data reaches training, evaluation or inference.
Use a one-off corpus, a continuously refreshed feed or grounded retrieval at inference time. The evidence model remains consistent across every route.
Partitioned datasets, longitudinal extracts and task-specific feature collections delivered with schemas, manifests and data cards.
PARQUET · GEOPARQUET · JSONL · CLOUD STORAGEHeld-out regions, spatial reasoning tasks, evidence bundles and rubrics designed around the capabilities you need to measure.
DATASETS · ANSWER KEYS · EVIDENCE · RUBRICSResolve places, find changes and retrieve the observations, provenance and licence context required for a model response.
REST · MCP · STRUCTURED JSONRefresh the agreed geography and data families as new observations arrive so the model is not fixed to one stale snapshot.
VERSIONED RELEASES · CHANGE FEEDS · MONITORINGShelob maintains a worldwide location index across countries, regions, cities, corridors and sites. Data depth varies by place; your partnership defines the coverage and observation history needed for the model task.
Inspect published coverage ↗We will map the task to available sources, geographic coverage, observation history, rights and delivery architecture. You will get a practical view of what is ready, what needs to be built and how a first data engagement could work.