Industrial Plants, Energy & Infrastructure

An industrial plant can be represented at several connected scales. A polygon describes the overall site; smaller footprints describe its power islands, process units, main transformers, or gas turbines. Individual devices and connections have their own position or footprint, while pipelines and other lines have separate segment or route references. Each physical target becomes spatially addressable and can carry a label linked to its asset record.

This brings the component-addressing, plant-area, pipeline, and serial-item cases into one asset-management workflow. An operator can start with the site, select a unit, and identify a particular component or connection. For a repeated array, the planned serial-registration service would generate individual item SRLs and retain them in a logical group beneath the overall string or array footprint.

The account or an integrated asset-management system maintains the relationships between site, units, equipment, and groups. Logical membership is recorded explicitly; it is not inferred solely from geometric containment. A pipeline can cross a site boundary, and assets can overlap spatially or belong to more than one operational grouping. Equipment tags and serial numbers retain asset identity, while SRLs carry the associated geometry into labels, work orders, inspection records, and contractor handoffs.

Planned spatial services could use these references to find nearby assets, select objects inside a maintenance area, or identify lines intersecting a proposed work footprint. This would let teams ask which components are near a fault or affected by a work area. Encoding geometry alone does not provide those queries, infer engineering connectivity, or determine operational dependencies.

Scenarios and variations

• A complete industrial site referenced by its polygon boundary.
• Power islands, process units, main transformers, and gas turbines within the site.
• Solar-panel strings and other repeated arrays grouped down to individual items.
• Pipelines, cables, utility lines, valves, and connection points.
• Spatial labels and references shared with maintenance teams and contractors.
• Planned searches for nearby assets or assets within a selected work area.

Current SRLs can reference the supported individual geometries. Account-managed asset hierarchies, batch registration, and spatial query services described here are planned integrations, not yet implemented. Physical proximity, containment, and intersection results require backend WGS84 geometry; H3 supplies indexing and conservative candidates. Geometry changes require updated spatial references while asset identity remains stable in the asset record. Higher-precision and volumetric extensions remain planned.

Technical and safety zones often need to be shared outside the engineering tool where they were drawn. PDF plans, screenshots, or local GIS layers.

A work order can carry the actual maintenance or exclusion boundary alongside the equipment label. A contractor receiving the reference can recover the represented zone without depending on the plant's CAD application or an annotated PDF. Point references identify small targets; footprints identify the region covered by an instruction, and later volumes can add the relevant vertical extent.

Scenarios and variations

• Technical zones and equipment exclusion areas.
• Bounded maintenance and inspection regions.
• Facility geofences and access restrictions.

Engineering and facility operations repeatedly need compact references for vertical or bounded local structures. Plant-specific naming, CAD layers, and discipline-specific models.

A height-aware point can identify a relevant position above or below ground, while a surface boundary can locate the footprint. Planned cylinders and boxes can represent the physical extent of a tank, shaft, or chamber more directly. The reference can accompany inspection and maintenance documentation, giving service teams a portable geometric description without replacing the engineering model or access procedure.

Scenarios and variations

• Shafts, tanks, and underground chambers.
• Depth-sensitive access and inspection positions.
• Bounded vertical structures and confined operating volumes.

Explicit cylindrical and volumetric references are planned. A referenced volume does not certify confined-space access conditions.

Facilities repeatedly use regular pads, bounded maintenance areas, and structured internal locations. Plant naming schemes plus static drawings.

Site documentation can use a compact footprint for a pad, hall, or bounded part of a facility. Rectangles and squares suit regular modules; polygons suit irregular grounds or building outlines within the available geometry limits. These references can accompany work instructions and partner exchanges. Planned volumes and elevated platforms can extend the description when height or vertical extent is essential.

Scenarios and variations

• Industrial pads, utility footprints, and regular site modules.
• Building and industrial-hall outlines.
• Campus, compound, and irregular site perimeters.
• Platforms and parking structures.

An equipment tag may identify an asset in a plant database without locating the physical connection, device, or component for an outside team. Contractors depend on tag lists, drawings, local names, and verbal instructions.

An inspection order can pair the equipment tag with the location of the particular connection to inspect. A main transformer or gas turbine can instead have a footprint or, later, an oriented volume. The reference travels with the work order across owner, engineering, maintenance, and contractor systems. The required representation and precision depend on the physical target: a compact site position is not automatically a precise reference to a small terminal.

Scenarios and variations

• Small devices, ports, terminals, and physical connections.
• Main transformers and gas turbines.
• Process units and major equipment footprints.
• Later precise component volumes and spatial orientation.

The SRL complements the equipment tag and engineering data. Small-component placement may require planned higher-precision geometry and suitable source measurements.

Large energy facilities contain operational areas that are more specific than the site address and larger than one asset. Boundaries are often carried in drawings, discipline-specific models, or local naming schemes.

A power-island reference can designate the area associated with a particular work package, inspection, or handoff. Smaller component references can be issued alongside it, so the plant area and the main transformer remain distinct spatial objects. The same geometry can pass between operator and service organizations. The plant hierarchy and relationships between assets remain in the relevant engineering or asset-management system.

Scenarios and variations

• Power islands and major generation areas.
• Substations and transformer areas.
• Industrial process zones and contractor work regions.
• Access routes to a bounded operating area.

A maintenance job may concern a particular section of pipeline or a utility corridor rather than one point. Section names and drawing excerpts need interpretation outside the source engineering system.

The operator can attach the relevant route or segment reference to the maintenance order. Separate points identify a valve, connection, or access position where needed. A footprint can identify a bounded work area along the section, while a later corridor can add width and vertical extent. The reference describes the supplied geometry; it does not infer network connectivity or replace detailed engineering coordinates.

Scenarios and variations

• Pipeline and utility-network sections.
• Inspection routes and service corridors.
• Elevated or underground connection positions.
• Railway and road sections used as inspection references.

A crane assignment needs a physical setup location and a defined region for the operation. These are commonly exchanged through lift plans, annotated drawings, and on-site explanations.

A setup footprint and an operating-area boundary can be shared as separate references. They help the lift planner, site team, and contractor refer to the same physical objects in their documents and software. Planned circle, sector, or volume geometry can offer a closer representation for suitable cases. The engineering assessment, clearances, ground conditions, and lift authorization remain part of the lift plan.

Scenarios and variations

• Crane setup footprints.
• A supplied swing region and exclusion area.
• Later sector-shaped and volumetric operating boundaries.

Radial sectors and explicit operating volumes are planned. Geometry references do not perform crane safety calculations.

A building address does not identify the roof section, elevated component, or access position covered by a maintenance job. Teams depend on photographs, roof plans, floor descriptions, and local access instructions.

A roof footprint can identify the horizontal work region while a height-aware point states the relevant elevated position. A separate point identifies the access location. These references can travel with the task to the contractor and into inspection records. A later elevated surface or prism can combine the spatial extent more directly. Access permissions and working-at-height requirements remain in the work instructions.

Scenarios and variations

• Specified rooftop maintenance regions.
• Height-aware equipment targets.
• Separate access and handoff positions.

A solar-panel string may contain many regularly spaced modules, each needing its own inspection history, label, or maintenance assignment. Registering every module manually is repetitive, while a row name or equipment serial number alone does not tell an external recipient which physical footprint is meant.

In the planned SpatialGlobe workflow, a user draws an oriented rectangle over a string and specifies how many equal sections it contains. The service generates an individual rectangle and a sufficiently precise SRL for each section. A two-dimensional mode divides an area into rows and columns. The selected layout must match the actual spacing and boundaries of the items being registered.

Each item reference can be used in labels and asset records. An account can retain the overall footprint as a logical parent, with the individual references grouped beneath it. Users can manage a whole string together or select one component. Reusing the layout at a neighboring string generates new SRLs for its new position; the geometry template and grouping can be retained without reusing the original location codes.

Later extensions could support other regular arrangements, including circular sectors, and use AI-assisted interpretation of aerial or satellite imagery to propose footprints for irregularly arranged items. Users would review the detected boundaries before generating the corresponding references.

Scenarios and variations

• Solar-panel strings and rows in solar farms or hybrid energy sites.
• Repeated equipment bays, rack positions, and industrial component arrays.
• One-dimensional subdivision of a row into individual item footprints.
• Two-dimensional subdivision into a grid of rows and columns.
• Repeated circular-sector layouts when the corresponding geometry is available.
• Later image-assisted registration of irregularly arranged objects.

Batch subdivision, account grouping, layout duplication, and image-assisted registration are planned platform functions, not yet implemented. Rectangles, squares, and polygons can already be encoded individually. An SRL references geometry; equipment serial numbers and asset identity remain separate record fields. Encoding precision must be sufficient to distinguish neighboring items, while positional accuracy depends on the source drawing or imagery and its geographic alignment.

Turbine numbers, site coordinates, and supporting access information identify wind-energy assets in maintenance and emergency workflows. An SRL adds a compact spatial reference that can travel alongside this information, from the individual turbine to its service area or an elevated inspection position.

An operator can add a printed SRL or QR code to a turbine information sign or service document. The code offers a compact alternative to reading a longer latitude-and-longitude coordinate pair aloud. If a receiving team cannot look up the turbine number in its own system, a compatible dispatch or field application can recover the encoded position directly from the full SRL without that registry lookup.

An inspection assignment can carry the turbine position, an elevated target where needed, and the relevant service-area or access reference. A park boundary describes the wider site without replacing individual asset identities. The same spatial objects can be used in a service order and a field report, while detailed component models and inspection results remain in the maintenance system.

Scenarios and variations

• Individual turbines and wind-park boundaries.
• Operations and maintenance buildings.
• Substations and transformers.
• Access routes and elevated inspection targets.
• Turbine information signs with a printed SRL or QR code.
• Spoken location handoffs to compatible dispatch and service applications.
• Printed E-Codes for emergency localization of a turbine base or access point.