{"id":63,"date":"2026-08-26T00:03:34","date_gmt":"2026-08-26T00:03:34","guid":{"rendered":"https:\/\/sense.tech\/blog\/indoor-positioning-systems-technologies-accuracy-use-cases\/"},"modified":"2026-08-26T00:03:34","modified_gmt":"2026-08-26T00:03:34","slug":"indoor-positioning-systems-technologies-accuracy-use-cases","status":"publish","type":"post","link":"https:\/\/sense.tech\/blog\/indoor-positioning-systems-technologies-accuracy-use-cases\/","title":{"rendered":"Indoor Positioning Systems: Tech, Accuracy and Use Cases"},"content":{"rendered":"

A worker presses an SOS button in a large hospital, factory or housing estate, but the control room can only see the building name. An engineer is sent to find equipment that was moved three shifts ago. A facilities team has a completed task form, but no reliable evidence that the work happened at the required location. These are the operational problems that indoor positioning systems: technologies, accuracy and use cases<\/strong> are designed to address.<\/p>\n

Indoor location is not a single technology or a dot on a map. It is a combination of devices, signals, infrastructure and software that establishes where people or assets are, then connects that fact to an action. The right system can support faster response, verified presence, more efficient dispatch and a stronger record of work. The wrong design can create a costly map with insufficient accuracy or coverage for the decision it needs to support.<\/p>\n

What is an indoor positioning system?<\/h2>\n

An indoor positioning system determines the location of a person, asset or device within a defined environment. It is commonly part of a real-time location system, or RTLS. RTLS adds the operational layer: live location, historical movement data, alerts, zones, dashboards and workflow triggers.<\/p>\n

GPS is highly useful outdoors, but satellite signals weaken or become unreliable inside buildings, beneath dense structures and in areas with obstructed sky visibility. Indoor positioning fills that gap using local signals and installed infrastructure.<\/p>\n

A typical deployment has three parts. A wearable badge or asset tag transmits or receives signals. Gateways, anchors or beacons placed around the workplace detect those signals. Software turns the resulting measurements into usable location data. Buttons and environmental sensors can add direct safety and operational events, such as an SOS request, a fall alert or an out-of-range temperature reading.<\/p>\n

The useful question is not simply, \u201cCan we track this?\u201d It is, \u201cWhat decision must location data support?\u201d Finding a wheelchair on the correct ward, proving a cleaning task at a room entrance and locating a lone worker in immediate need of assistance each require different levels of precision.<\/p>\n

Indoor positioning systems: technologies and trade-offs<\/h2>\n

Ultra-wideband for precise indoor location<\/h3>\n

Ultra-wideband, usually called UWB, uses very short radio pulses across a wide frequency range. It can measure the time signals take to travel between a tag and fixed anchors. Because it is measuring time rather than relying only on signal strength, UWB can provide much more precise indoor positioning than many alternatives when the site is designed and installed appropriately.<\/p>\n

UWB suits operational situations where location at room, bay or sub-room level affects the outcome. Examples include locating vulnerable workers, finding high-value equipment, confirming presence in a defined work area, or directing the nearest suitable colleague to an incident. Sense UWB positioning can provide accuracy of up to 10cm in supported deployments.<\/p>\n

That accuracy is not a blanket promise for every building. Layout, materials, anchor placement, ceiling height, metal machinery, reflective surfaces, tag orientation and the density of the deployment all matter. UWB normally requires installed infrastructure, so it should be specified where precision has a clear operational value rather than treated as the default for every zone.<\/p>\n

Bluetooth Low Energy for scalable zones and proximity<\/h3>\n

Bluetooth Low Energy, or BLE, is widely used for workplace location because it is energy efficient and supported by a broad device ecosystem. BLE badges and tags can be detected by connected gateways, while beacons can define proximity or zone-based interactions.<\/p>\n

BLE is often appropriate where the organisation needs to know that a person or asset is on a floor, in a department, near a gateway or within a designated zone. It can support attendance verification, room-level visibility in suitable layouts, asset presence and location-aware workflows. It is generally less precise than a carefully designed UWB deployment, particularly where a decision depends on centimetres rather than zones.<\/p>\n

Signal strength changes with walls, people, doors, stock and metal structures. For that reason, BLE is best evaluated against a practical use case, not a theoretical accuracy figure. If the workflow only needs to confirm arrival at a work area, zone-level confidence may be entirely sufficient.<\/p>\n

GPS for outdoor and travelling teams<\/h3>\n

GPS uses satellite signals to establish location outdoors. It is valuable for field teams, vehicle-adjacent operations, construction sites, estates and movement between customer locations. It is not an indoor replacement, but it can form part of a joined-up location model when workers move between buildings and external areas.<\/p>\n

For organisations with mixed estates, combining GPS outdoors with BLE or UWB indoors avoids a common blind spot: knowing where a team is between sites but losing visibility the moment they enter a building. The handover between technologies should be planned around how staff actually work, not around organisational boundaries on a map.<\/p>\n

Gateways, sensors and geofencing<\/h3>\n

Gateways connect devices to the wider location platform. Depending on the design, they receive tag data, support positioning calculations and pass information to software in near real time. They are foundational infrastructure, not merely connectivity hardware.<\/p>\n

Geofencing creates a virtual boundary around an area. Entering, leaving or dwelling in that zone can trigger a rule. A geofence might record verified arrival at a plant room, alert a supervisor when a restricted area is entered, or start a time-based workflow once an operative reaches a customer site.<\/p>\n

Environmental sensors extend the value of location. A temperature, humidity or air-quality event becomes more actionable when teams can see where it occurred and who is nearby. Likewise, an SOS button is more useful when the alert contains a current location rather than a vague description of the site.<\/p>\n

Accuracy should follow the operational decision<\/h2>\n

Accuracy is often discussed as a technical headline, but its real value lies in reducing ambiguity. A system that identifies the correct building may be suitable for multi-site attendance. A system that identifies the right floor may support a security response. A system that identifies a precise point within a production area may be needed for high-value asset retrieval or safety-critical assistance.<\/p>\n

Before selecting a technology, define the smallest meaningful area for each use case. This could be a site, external yard, building, floor, ward, room, loading bay, work cell or restricted zone. Then consider latency, coverage, battery life, device wearability, installation constraints and the consequence of an incorrect location.<\/p>\n

It is also sensible to test in representative conditions. A tidy demonstration space does not reflect a live warehouse with racking, a hospital with changing room occupancy, or a construction environment that evolves weekly. Site surveys and pilot deployments reveal where infrastructure needs to be placed and where a different level of accuracy is more practical.<\/p>\n

Where location data delivers operational value<\/h2>\n

For worker safety, location can shorten the time between an alert and an informed response. A wearable badge with an SOS function<\/a>, supported by accurate indoor location, can identify the likely position of a colleague requiring help. Lone-worker check-ins<\/a> and fall detection can add further signals, but escalation procedures still need clear ownership and tested response plans.<\/p>\n

In facilities management and hospitality, location can connect task allocation<\/a> with proof of completion. The platform can identify an available worker near a task, record arrival in the relevant area and retain time and location evidence when work is marked complete. This is more reliable than relying solely on self-reported forms, while still requiring sensible process design for work that cannot be verified by presence alone.<\/p>\n

Manufacturing and construction teams can use tagged tools, equipment and mobile assets to reduce time spent searching. Location data may also show whether critical equipment is available in the expected area before a job begins. In busy environments, the system needs to account for assets moving through stores, loading areas and temporary work zones.<\/p>\n

Healthcare, social housing and security operations often need a combined view of people, places and incidents. A badge, tag, button and gateway can create physical-world data that software-only workforce tools cannot generate on their own. Connected workflows can then notify the right team, create a record, or prompt the next action without requiring staff to stop and complete multiple manual updates.<\/p>\n

Sense Presence brings proprietary badges, tags, gateways, beacons, buttons and sensors together with intelligent software. This approach allows organisations to combine UWB, BLE and GPS according to the environment, then use location events for safety, attendance, task verification and location-aware automation.<\/p>\n

Deployment, privacy and governance<\/h2>\n

Indoor positioning should be designed as an operational system, not installed as a surveillance exercise. Organisations should be clear about why data is collected, what is proportionate, who can access it, how long it is retained and how workers are informed. UK data protection obligations will depend on the deployment and the data processed, so teams should involve their data protection lead and assess guidance from the ICO where appropriate.<\/p>\n

The practical governance questions are equally important. Who monitors SOS alerts outside normal hours? What happens if a badge is not worn or a tag battery is low? Which locations are operationally meaningful, and which data should not be collected? A credible deployment documents these decisions before scaling.<\/p>\n

Integration also deserves early attention. Location information becomes more valuable when it can inform existing work orders, incident processes, access workflows or operational dashboards. No-code automation can help teams build location-aware rules without turning every change into a development project, provided controls and ownership remain clear.<\/p>\n

FAQs<\/h2>\n

How accurate are indoor positioning systems?<\/h3>\n

It depends on the technology, building and deployment design. BLE commonly supports zone or proximity use cases, while UWB can provide much higher precision. Sense UWB positioning is capable of up to 10cm accuracy in supported deployments. Always assess accuracy against the specific area and decision that matter to your operation.<\/p>\n

Can GPS track staff inside a building?<\/h3>\n

GPS is primarily an outdoor technology. It may provide limited results near windows or entrances, but it is not dependable for indoor positioning. Mixed indoor-outdoor operations usually need GPS outside and technologies such as BLE or UWB inside.<\/p>\n

What is the difference between RTLS and geofencing?<\/h3>\n

RTLS is the wider system for locating people or assets in real time and using that data operationally. Geofencing is one capability within that system: it defines a virtual area and triggers an event when a device enters, exits or remains there.<\/p>\n

Is indoor location suitable for lone-worker safety?<\/h3>\n

It can support lone-worker arrangements by adding location to SOS alerts, check-ins or fall events. It should complement, rather than replace, risk assessment, training, escalation procedures and a properly resourced response process.<\/p>\n

The strongest indoor positioning deployment is the one that gives teams the right level of certainty at the moment they need to act – whether that means finding a person quickly, locating an asset, or proving that essential work happened where it should.<\/p>\n","protected":false},"excerpt":{"rendered":"

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