As the year comes to a close, we are taking a moment to reflect on the milestones we have reached in partnership with our clients. At Penguin Location Services, we have always aimed to go beyond delivering location tracking solutions — we strive to make a real difference by solving meaningful problems. This year, our journey has taken us farther and deeper into that mission than ever before.

2024 has been a year of innovation and growth, driven by the real needs of our clients. Here are a few highlights.

Expanded Indoor Navigation Coverage

We extended our indoor navigation solutions to cover over 15 million square feet. Beyond traditional indoor positioning, we moved into campus-wide location capabilities — allowing our clients to offer seamless wayfinding experiences that genuinely improve how people move through complex spaces.

New Offerings to Meet Emerging Needs

In response to client feedback, we introduced several new solutions: digital wayfinding kiosks, workforce safety tracking, and hand-hygiene compliance monitoring tools. Each reflects our commitment to evolving alongside our clients and helping them address the operational challenges they face every day.

This year, we strengthened our ability to deliver meaningful results at scale — while staying close to the clients who depend on us.

By serving clients across four continents, we demonstrated our capacity to adapt to diverse facility environments and location challenges. New offices established in five countries bring us closer to our clients than ever before, which means faster support and smoother project delivery no matter where they operate.

Our clients rely on us to push what is possible. In 2024, we delivered what we believe is the world’s most accurate Bluetooth-based, sub-meter, room-level RTLS solution — setting a new standard for indoor positioning precision and reliability.

One client shared that we had “restored [their] faith in BLE as an RTLS technology.” That kind of recognition is exactly what drives us to keep raising the bar.

Our clients are at the heart of everything we do. Their trust and collaboration push us to innovate, refine, and deliver solutions that matter. This year has reinforced the power of genuine technology partnerships — and highlighted how much is possible when both sides are committed to achieving great outcomes together.

To our clients: thank you for trusting us with your challenges and allowing us to be part of your journey. Your successes inspire us every day.

As we step into 2025, we are ready to tackle new challenges, deepen our client relationships, and keep driving innovation that makes a real difference in how people and organizations use location intelligence.

To the Penguin Location Services team: thank you for your dedication, resilience, and hard work this year. Enjoy your well-deserved time off — we have another exciting year ahead.

Here is to building on this year’s momentum and achieving even greater things together.

Penguin Location Services delivers RTLS solutions across healthcare, commercial, and industrial environments — covering indoor navigation, asset tracking, workforce safety, and wayfinding. Learn more at penguinin.com/healthcare or request a demo.

Healthcare-Associated Infections (HAIs) affect around 750,000 people in the United States each year. They cause thousands of preventable deaths and cost US healthcare providers billions of dollars annually. The good news is that most HAIs are preventable — because the right combination of products, protocols, and monitoring technology can close the gaps where infections spread.

This guide covers the ten infection prevention priorities that healthcare facilities should have in place, including the digital monitoring tools that are changing how hospitals verify compliance in real time.

Infection prevention protects both patients and staff from harmful pathogens — and the stakes are measurable. HAIs cause thousands of preventable deaths each year in the US, add billions in avoidable costs, and damage the trust patients place in healthcare facilities.

Since most HAIs trace back to lapses in hand hygiene, surface disinfection, or PPE use, the prevention framework is well understood. The challenge is consistent execution — which is why the right combination of products, physical infrastructure, and monitoring technology matters so much.

1. Top-Quality Hand Hygiene Products

Hand hygiene compliance is the primary defense against healthcare infections. Alcohol-based sanitizers and antimicrobial soap dispensers are the clinical standard — because they remove pathogens effectively when used correctly and consistently. Product quality matters here. A sanitizer that staff find irritating or ineffective will be used less, and lower compliance rates translate directly into higher infection risk. Choosing products that clinical teams trust and will actually use is the foundation everything else builds on.

2. Reliable PPE Usage

Personal Protective Equipment — gloves, masks, and gowns — protects both healthcare workers and patients when used correctly. Reliable supply is the first requirement. When PPE is available at the point of care, compliance is higher. Proper training on correct donning, use, and disposal is equally important, since PPE that is used incorrectly provides limited protection. Regular audits of PPE practice help identify gaps before they become incidents.

3. Touchless Restroom Dispensers

Touchless dispensers for soap, water, and paper towels reduce surface contact at the moment when hand hygiene is most important — immediately after touching a contaminated surface. When dispensers require physical contact to operate, they become potential transmission points themselves. Touchless technology removes this risk while also reducing friction, which means staff and visitors are more likely to complete the hygiene step rather than skip it.

4. Convenient Hand Hygiene Stations for Staff

Placement drives compliance. When hand hygiene stations are positioned at care entry and exit points, staff can clean their hands naturally as part of their workflow — before and after patient interactions — rather than having to detour to reach a station. The Joint Commission’s hand hygiene standards reflect this principle: convenient access is not a comfort feature, it is a compliance driver.

5. Accessible Hand Hygiene Stations for Patients and Visitors

Hand hygiene in healthcare is a shared responsibility. Patients and visitors who clean their hands reduce the pathogen load in shared spaces, which protects other patients and staff. Placing stations in high-traffic areas, patient rooms, and waiting areas — with clear signage — makes hygiene accessible to everyone in the facility, not just clinical staff.

6. Enhanced Disinfection Practices

High-touch surfaces, equipment, and patient rooms require regular disinfection with EPA-approved agents. A strict cleaning protocol — defining which surfaces are cleaned, how often, and with what products — eliminates the guesswork that leads to inconsistent practice. Advanced disinfection tools, including UV-C devices for terminal cleaning, provide an additional layer of protection for high-risk areas and equipment that is difficult to clean manually.

7. Monitoring Hand Hygiene Compliance

Knowing that hand hygiene should happen is different from knowing that it does happen. Traditional compliance monitoring relies on direct observation — which is labor-intensive, covers only a fraction of events, and is subject to the Hawthorne effect, where staff perform better when they know they are being watched.

Real-time monitoring technology changes this. RTLS-based hand hygiene monitoring uses sensor-equipped dispensers combined with real-time staff location tracking to detect whether a staff member cleaned their hands before entering a patient room. The system captures every event — not just the ones observed — providing a complete and accurate picture of compliance rates across units, shifts, and individuals.

This data allows infection prevention teams to identify persistent compliance gaps, target coaching where it is most needed, and demonstrate measurable improvement over time.

8. Accelerating Safety Compliance with Digital Platforms

Integrating digital monitoring platforms speeds up compliance improvement by making the data actionable immediately. Rather than waiting for monthly audit reports, infection prevention teams can see real-time compliance rates by unit, flag declining trends before they become incidents, and direct resources to where they will have the most impact.

Penguin’s digital platform combines sensor-equipped dispensers with real-time staff location tracking. When a staff member approaches a patient room without cleaning their hands, the system detects the missed event and can prompt immediate corrective action — rather than surfacing the lapse days later in a report. This shift from retrospective reporting to proactive oversight is the core value that digital monitoring platforms deliver.

For a broader look at how RTLS transforms healthcare operations, see our complete guide to RTLS in healthcare.

9. Ongoing Staff Education and Training

Training gives staff the knowledge and skills to prevent HAIs effectively. Programs should cover proper hand hygiene protocols — including the wash-in and wash-out moments that matter most — PPE use and disposal, and environmental cleanliness standards. Since infection prevention guidelines evolve, continuous education keeps healthcare workers current on the latest evidence-based practices. When staff understand why a protocol exists — not just what the protocol is — compliance tends to be more consistent because it is driven by understanding rather than obligation.

10. Encouraging Good Hand Hygiene

Recognizing and rewarding staff for consistent hand hygiene builds a culture where compliance is the norm rather than the exception. When facilities acknowledge those who follow hygiene protocols, they signal that the organization takes infection prevention seriously — which reinforces the behavior across the team. Easy access to sanitizers and soap throughout the facility removes the logistical barriers that cause lapses even among motivated staff. Culture and infrastructure work together: one without the other produces limited results.

Healthcare facilities that focus on these ten infection prevention priorities — quality hand hygiene products, reliable PPE, thorough disinfection, strategic station placement, real-time monitoring, staff training, and a culture of accountability — can significantly reduce HAI risk. Digital platforms accelerate compliance by moving from self-reported data to continuous, objective measurement. When hygiene standards are met consistently, facilities can deliver care confidently and safely.

What is a Healthcare-Associated Infection (HAI)?

A Healthcare-Associated Infection is an infection that a patient acquires while receiving care in a healthcare facility — not present or incubating at the time of admission. Common HAIs include central line-associated bloodstream infections, catheter-associated urinary tract infections, surgical site infections, and ventilator-associated pneumonia. The CDC estimates that HAIs affect around 750,000 patients in the US annually and cause tens of thousands of preventable deaths.

What is the most effective way to prevent HAIs?

Hand hygiene is consistently identified as the single most effective intervention for preventing HAIs. When healthcare workers clean their hands at the right moments — before patient contact, before aseptic procedures, after body fluid exposure, and after patient contact — transmission of pathogens drops significantly. This is why monitoring hand hygiene compliance, not just promoting it, has become a clinical priority at leading healthcare systems.

How does RTLS improve hand hygiene compliance monitoring?

Traditional hand hygiene monitoring relies on direct observation, which covers only a fraction of hygiene events and is subject to observer bias. RTLS-based monitoring uses sensor-equipped dispensers and real-time staff location data to detect whether a staff member cleaned their hands before entering a patient room. Because the system captures every event rather than a sample, it gives infection prevention teams an accurate, complete picture of compliance across units and shifts — enabling targeted intervention rather than broad reminders.

What does the Joint Commission require for hand hygiene compliance?

The Joint Commission requires hospitals to implement a hand hygiene program consistent with current CDC or WHO guidelines, measure hand hygiene compliance, and set goals for improvement. Surveyors observe hand hygiene practice and review compliance data during accreditation visits. Facilities with digital monitoring platforms that produce objective, continuous compliance data are better positioned to demonstrate the active program management that surveyors look for.

What is the difference between hand hygiene monitoring and self-reporting?

Self-reporting relies on staff or supervisors recording hand hygiene events manually — a process that is time-consuming, incomplete, and subject to the Hawthorne effect. Monitoring technology captures events automatically and objectively. Because every dispenser interaction and every patient room approach is recorded, the data reflects actual practice rather than observed or remembered practice. This makes it far more useful for identifying persistent gaps and tracking whether interventions are working.

Penguin Location Services offers cost-effective RTLS-based hand hygiene compliance monitoring — combining sensor-equipped dispensers with real-time staff location tracking for complete oversight across your facility. To learn how Penguin can help your infection prevention program, visit penguinin.com/contact.

Patient throughput must be addressed on a whole-hospital level using modern solutions like Healthcare RTLS. Every hospital can benefit from better practices in patient flow management — even minor improvements can make a meaningful impact on care quality, staff workload, and operational costs.

Here are four patient flow optimization strategies to help hospitals improve efficiency and create a healthier, safer care environment.

Every part of the hospital workflow is connected, and the cause of a patient flow bottleneck often occurs several steps before its noticeable effect. A patient flow problem in the inpatient units may result from issues with discharge procedures. A backed-up ED may trace to housekeeping response times. Because these connections span departments, all hospital staff — nurses, physicians, administrators, and support teams — must understand the objective of improving patient flow and the processes required to accomplish it.

The first step to optimizing patient flow is to create a cross-departmental team with representatives from every affected area. This team identifies workflow issues, sets patient throughput goals, and oversees changes. A good starting point is drawing a patient throughput diagram that maps current hospital operations and measures performance, with questions like:

• Are there bottlenecks with the current patient flow process?
• Are all the steps in the current hospital workflow necessary?
• Can some steps be completed simultaneously to reduce elapsed time?
• Is there a better way to sequence patient care steps?
• What technology can make specific steps faster or more reliable?

After identifying problem areas, the team should set specific, measurable patient flow improvement goals. Technology like Penguin’s RTLS-enabled Workflow applications improves communication and streamlines hospital processes by providing wearables for staff, patients, and equipment — delivering real-time data and integrating with existing clinical systems to automate workflows that currently depend on manual coordination.

Non-clinical staff have a significant impact on patient flow efficiency. Transport, housekeeping, billing, and administrative teams all sit in the critical path between a patient being medically ready and a bed being available for the next patient. Hospital management should evaluate non-clinical activities and find ways to improve their speed and reliability.

Invest in Training

Ongoing training increases employees’ confidence, engagement, and motivation — leading to improved skills and better patient satisfaction. When non-clinical staff understand how their role connects to patient flow goals, they become active contributors to improvement rather than passive participants in a process they do not fully see.

Embrace Technology

Automation reduces manual work and removes the coordination delays that slow non-clinical workflows. For example, healthcare facilities can use RTLS with medical equipment to enable housekeeping and transport staff to locate equipment and rooms quickly — rather than searching the floor before starting work. When the system shows that a room has been vacated and cleaning is needed, the right person can be dispatched immediately. For a detailed look at how RTLS supports equipment and asset workflows, see our guide on hospital asset tracking with BLE RTLS.

Hire the Right Staff

Select individuals who fit the hospital’s values and focus on patient satisfaction. The right non-clinical staff members want to be efficient and provide excellent service — they understand that their work directly affects the patient’s experience, even when they never interact with patients directly.

Healthcare professionals often use data from systems like EHR to determine how long each care step takes. However, this approach creates workflow blind spots because EHR only captures documented events — it does not measure the time between those events. A patient may be documented as admitted at 9:00 AM and in a room at 10:30 AM, but the EHR provides no visibility into what happened during that 90-minute gap.

Penguin’s Workflow Solutions fill this gap by automatically collecting real-time patient throughput data. RTLS badges worn by patients provide arrival-to-discharge location data continuously, allowing staff to see exactly where time is being lost and modify processes in real time rather than waiting for a retrospective report.

RTLS brings real-time visibility to these specific care settings:

Cycle time measures the duration of any hospital process — from patient registration to discharge, from ED arrival to admission, from OR case end to room turnover complete. Efficient cycle times improve patient throughput and reduce the need for additional resources. When cycle times are long, hospitals add staff or beds to compensate — when cycle times are optimized, the same resources serve more patients.

Hospital leaders should track the patient journey through the ED using RTLS to gather real-time cycle time data automatically. This gives them the information to identify bottlenecks and make targeted adjustments rather than broad operational changes based on instinct.

Specific actions that reduce cycle time include:

• Staff to meet demand: Ensure the ED has enough staff during peak times by using utilization data to identify when and where demand exceeds capacity consistently.
• Make supplies easy to find: Use asset tracking to show staff the exact location and status of critical equipment — eliminating the search time that delays procedures and extends cycle times.
• Improve registration: Reduce check-in time by minimizing required questions and implementing self-check-in technology that allows patients to begin the registration process before they reach the front desk.

Cycle time data collected manually is always incomplete — because no one can document what they cannot see. RTLS captures every minute of the patient journey automatically, giving clinical leaders a complete picture of where time is being lost and where targeted intervention will have the most impact.

For a deeper look at how RTLS specifically improves emergency department throughput, see our guide on RTLS in emergency departments.

What is patient flow management in hospitals?

Patient flow management is the systematic coordination of how patients move through a hospital — from arrival and registration through diagnosis, treatment, and discharge. When patient flow is optimized, each step of the care process happens efficiently, patients spend less time waiting, beds turn over faster, and staff spend more time on clinical work rather than coordination. When flow breaks down, it creates cascading delays across departments that affect care quality, patient satisfaction, and operational costs simultaneously.

What causes patient flow bottlenecks in hospitals?

Patient flow bottlenecks can originate anywhere in the care process — and the visible effect often occurs several steps after the actual cause. Common sources include delayed discharge decisions, slow bed turnover by housekeeping, equipment that cannot be located quickly, registration processes that create admission backlogs, and staffing levels that do not match demand patterns. Because these causes cross departmental boundaries, identifying them requires visibility into the full patient journey rather than individual department performance.

How does RTLS improve patient flow management?

RTLS provides real-time location data for patients, staff, and equipment throughout the facility. This fills the gaps that EHR data cannot capture — the time between documented care events, which is where most bottlenecks actually occur. When hospital leaders can see precisely where patients are waiting, for how long, and what is causing the delay, they can intervene in real time rather than discovering the problem through a retrospective report. RTLS also automates the data collection that makes cycle time measurement accurate and complete.

What is cycle time in hospital patient flow?

Cycle time is the total elapsed time for any hospital process — from patient registration to discharge, from ED arrival to bed assignment, from OR case end to room ready for the next case. Tracking cycle time reveals where inefficiencies are adding time to the patient journey and allows hospital leaders to set specific improvement targets. RTLS measures cycle time automatically and continuously, without requiring manual data entry from clinical staff.

How does patient flow affect hospital financial performance?

Patient flow efficiency directly affects a hospital’s capacity to serve patients and its cost per patient served. When cycle times are long and beds turn over slowly, the hospital cannot admit new patients even when clinical demand exists — limiting revenue without reducing fixed costs. When patient flow is optimized, the same physical capacity can serve more patients, improving both access to care and the financial sustainability of the facility. Improvements in patient experience scores that result from reduced wait times also affect CMS reimbursement through value-based care metrics.

Penguin Location Services delivers patient flow management tools through Penguin Workflow Solutions — real-time patient tracking, cycle time analytics, and RTLS-integrated workflow automation on a single BLE 5.1 infrastructure. To learn more, visit penguinin.com/contact or request a demo.

Navigating large indoor spaces like hospitals, airports, shopping malls, and corporate campuses can be genuinely challenging. Traditional signage and printed maps fall short in complex building environments — because they are static, they cannot account for a user’s current position, and they cannot route around temporary closures or construction. This is where advanced indoor navigation solutions make a measurable difference, using real-time indoor positioning and accurate turn-by-turn directions to guide people efficiently through spaces they may never have visited before.

This guide covers the key components that make up an effective indoor navigation system and the enhancement features that take the experience from functional to exceptional.

1. Mobile Application with Indoor Positioning SDK

A mobile wayfinding application is the user-facing layer of an indoor navigation system. It houses the indoor positioning SDK, which uses various location technologies to determine a user’s precise position within a building continuously.

Indoor positioning technologies include several approaches:

• Radio signals — Wi-Fi and other radio sources triangulate the user’s position within indoor environments by measuring signal strength from multiple access points.
• Magnetic fields — The unique magnetic fingerprint of a building’s structure, plumbing, and electrical systems creates location signatures that an SDK can use to determine position without additional hardware.
• BLE beacons — Despite the availability of these technologies, Bluetooth Low Energy beacons remain the de facto standard for indoor positioning. Mobile operating systems place limitations on how apps can interact with other wireless signals, but BLE beacons emit signals that smartphones detect reliably across iOS and Android. This makes BLE the most accurate and consistent option for most deployments. See our BLE technology overview for a deeper look at how this works.

2. Detailed Maps in Multiple Formats

Effective indoor navigation requires detailed building maps in different formats — raster and vector. Raster maps are pixel-based and offer high visual detail, making them useful for rendering rich floor plans. Vector maps are composed of paths and shapes, which allows for scalable and interactive mapping features — zooming in on a specific room without losing clarity, for example.

Both formats serve different purposes within the system. A well-designed navigation solution uses raster maps where visual richness matters and vector maps where interactivity and scalability are the priority. For a practical look at how this applies across different venue types, see our guide on indoor wayfinding systems.

3. Robust Map Engine

The map engine is the processing layer that handles indoor maps and powers the user interactions that make navigation feel natural. It performs zoom, pan, and rotate operations smoothly — because a navigation experience that stutters or lags during these basic interactions quickly loses user trust. The map engine must also handle multi-floor navigation, switching between floor plans as a user moves through a building’s vertical dimension.

4. Advanced Routing Engine

The routing engine calculates the shortest path to a destination, considering factors that differ meaningfully from outdoor navigation. User profiles and abilities matter here — a person using a wheelchair needs a route that avoids stairs, and the routing engine must generate that alternative path without requiring the user to manually specify every constraint.

Accessibility navigation is a core requirement, not an add-on. Since buildings are legally required to provide accessible routes and users with mobility challenges rely on these routes for basic access, the routing engine must handle these requirements reliably. The engine also provides alternative routes when a primary path is temporarily unavailable — construction, a blocked corridor, or a temporarily closed elevator.

5. Comprehensive Content Management System (CMS)

A content management system is what keeps an indoor navigation deployment accurate over time. Without it, maps quickly become outdated as tenants rotate, layouts change, and points of interest shift — and an inaccurate map is worse than no map at all. The CMS allows facility administrators to:

• Change points of interest (POIs) as tenants open, close, or relocate
• Update navigation routes when layouts or access points change
• Modify building maps to reflect construction or renovation
• Manage configuration settings and underlying data without vendor involvement

The CMS must be operable by facility staff who are not technical specialists — because the people who know when a layout has changed are the operations team, not the IT department.

The five components above form the functional foundation of an indoor navigation solution. Several enhancement features can extend this foundation to deliver a richer experience for users and greater operational value for facility operators.

1. Location-Based Messaging

Location-based messaging sends targeted messages to users based on their current position within the building. In a retail environment, a user passing a specific store can receive a promotional offer. In a hospital, a patient approaching the radiology department can receive preparation instructions. In an airport, a passenger near a gate can receive boarding notifications. This functionality serves both as an engagement tool and, in commercial settings, as a monetization channel for the navigation platform.

2. Analytics, Dashboard, and Reporting

Analytics tools built on navigation data provide facility operators with insights into how people actually move through their spaces — which routes are most used, where dwell times are longest, where users consistently deviate from expected paths. A real-time dashboard makes these patterns visible as they develop, helping operations teams identify bottlenecks, staffing needs, and layout inefficiencies before they become systemic problems. For campus and mixed-use environments, this analytics layer is particularly valuable. See our guide on campus wayfinding solutions for how analytics applies at district scale.

3. Integration with Outdoor Maps and Routing

Integration with outdoor mapping platforms — Google Maps and similar services — allows users to plan a complete journey from their starting location to a specific room or point of interest inside the building, with a seamless handoff when they cross the threshold from outdoor to indoor. This removes the gap that exists in most navigation experiences today, where outdoor and indoor navigation are separate systems that require the user to mentally bridge the transition.

4. Integration with Mobility-as-a-Service (MaaS)

Integrating the navigation system with MaaS platforms gives users comprehensive travel options within a single interface — public transportation schedules, ride-sharing services, and other transportation modes alongside indoor navigation. This is particularly relevant for large campus environments, hospitals, and airports where users may arrive by multiple transport modes and need a continuous navigation experience from origin to final destination.

5. Augmented Reality (AR) Integration

AR integration overlays digital navigation information onto the physical environment viewed through a smartphone camera. Rather than looking down at a map and then up to walk, users see directional cues overlaid on the real world in front of them. AR works especially well for positioning tasks in visually complex environments — large atria, multi-level retail spaces, and sprawling hospital campuses — where abstract map representations are harder to correlate with physical surroundings.

What is an indoor navigation solution and how is it different from GPS?

An indoor navigation solution uses wireless technologies — primarily BLE beacons — to determine a user’s precise location inside a building and provide turn-by-turn directions to their destination. GPS signals are blocked or severely degraded inside buildings by walls, ceilings, and structural materials, which is why outdoor navigation apps stop working reliably once a user crosses a threshold. Indoor navigation replaces GPS with technologies that work in enclosed spaces, providing the same blue-dot and routing experience indoors that users expect from outdoor navigation.

Why are BLE beacons the standard for indoor positioning?

BLE beacons are the de facto standard because mobile operating systems — iOS and Android — allow apps to interact with BLE signals reliably, while placing limitations on how other wireless technologies can be accessed by third-party applications. BLE also offers low power consumption, low hardware cost, and sufficient accuracy for room-level and corridor-level positioning in most building environments — making it the most practical and cost-effective choice for indoor navigation deployments of any scale.

What types of buildings benefit most from indoor navigation?

Any large, complex building where first-time or infrequent visitors need to navigate to specific destinations benefits from indoor navigation. Hospitals — where patients arrive stressed and unfamiliar with the layout — see immediate impact on appointment adherence and patient experience scores. Airports benefit from reduced missed boarding events and better gate utilization. Shopping malls and mixed-use districts use indoor navigation to improve tenant reach and dwell time. Corporate campuses use it to help employees and visitors find meeting rooms, amenities, and colleagues across multiple buildings.

What is the role of the content management system in indoor navigation?

The CMS is what determines whether an indoor navigation deployment stays accurate over time. Building layouts change — tenants move, rooms are repurposed, construction creates temporary route changes. Without a CMS that facility staff can operate without technical expertise, every layout change requires a vendor engagement, which delays updates and allows the map to drift from reality. An accurate map is the foundation of user trust in the system — a single instance of being navigated to the wrong location significantly damages confidence in the tool.

How does indoor navigation integrate with outdoor mapping services?

Indoor navigation platforms integrate with outdoor mapping services through APIs that handle the handoff between GPS-based routing and BLE-based indoor positioning. When a user plans a route from an external location to a specific room inside a building, the outdoor mapping service handles the journey to the building entrance, then passes control to the indoor navigation SDK for the portion of the journey inside. Users experience this as a continuous navigation flow without having to switch apps or re-enter their destination.

Penguin Location Services delivers indoor navigation through PenNav — an indoor positioning platform covering hospitals, campuses, airports, and mixed-use environments. PenNav supports BLE beacon-based positioning, multi-format mapping, accessibility routing, and QR-based app-free wayfinding. To discuss your indoor navigation project, visit penguinin.com/contact.

Healthcare is constantly evolving, and hospitals must adapt to maintain high standards of patient care. Hospital asset tracking powered by IoT technology has emerged as a critical solution to one of healthcare’s most persistent challenges: knowing where equipment is when you need it most.

When a nurse spends 20 minutes searching for an infusion pump before a procedure, that time is not just inefficient — it is time away from patients. When a hospital buys additional ventilators because existing ones cannot be located, that is capital spending driven by poor visibility. Asset tracking eliminates both problems because it gives every clinical team member real-time access to the location of every tagged device.

Hospital asset tracking uses IoT sensors and BLE 5.1 technology to monitor medical equipment in real time. These systems track thousands of assets — infusion pumps, wheelchairs, ventilators, diagnostic equipment — throughout hospital facilities, updating their locations continuously as devices move between units, floors, and departments.

Each tracked device carries a small BLE tag that broadcasts a unique identifier signal. Readers installed throughout the facility — or existing enterprise Wi-Fi infrastructure — receive these signals and report location data to the tracking platform. The result is a live map of every tagged asset’s current room-level location, accessible to any authorized staff member through a mobile app or dashboard.

Standardized infrastructure that leverages off-the-shelf hardware reduces implementation costs significantly compared to proprietary RTLS systems. This lowers the total cost of ownership while ensuring that replacement hardware is readily available and that the system is not dependent on a single vendor’s product roadmap. For a full breakdown of the technologies involved and how they compare, see our complete guide to RTLS in healthcare.

From Equipment Loss to Complete Visibility

Hospital staff have traditionally spent significant time searching for misplaced equipment — time that study after study measures at 20 to 30 minutes per nurse per shift. With modern asset tracking, nurses and clinicians can locate any tagged device in seconds through a mobile app or workstation interface. This eliminates wasted time and ensures equipment is available when patients need it, rather than when a search finally succeeds.

The operational impact extends beyond convenience. When a critical device is needed urgently and is immediately findable, response times improve. When equipment is always locatable, the hoarding behavior that drives artificial shortages — nurses keeping devices near their station rather than returning them to circulation — becomes unnecessary.

Optimizing Equipment Utilization

Beyond simple location tracking, these systems provide detailed utilization data that reveals how equipment is actually being used across the facility. Hospitals can identify underused devices and redistribute them to high-demand areas before shortages develop. Usage patterns inform strategic purchasing decisions — because the data shows how many devices are genuinely needed, not how many are being purchased to compensate for poor visibility.

Documented asset tracking deployments consistently show equipment fleet reductions of 20–35% once utilization data reveals the true picture. Devices that were thought to be missing were often sitting idle in low-traffic storage areas. This data-driven right-sizing represents significant capital savings.

Preventing Equipment Loss and Theft

Hospital assets frequently leave the premises unintentionally — traveling with patients during discharge, moving with transport teams between facilities, or simply ending up in the wrong building on a large campus. Asset tracking systems create virtual boundaries and trigger alerts when equipment moves beyond designated areas. When this happens, hospitals can recover assets quickly rather than writing off losses and ordering replacements.

Choosing the Right Technology

When selecting an asset tracking solution, hospitals should prioritize BLE 5.1 technology for its accuracy, low power consumption, and advanced location capability. Standardized systems ensure compatibility with existing hospital infrastructure and avoid the vendor lock-in that comes with proprietary hardware. Since replacement hardware for standardized systems is available from multiple suppliers, the long-term cost and risk profile is significantly better than proprietary alternatives.

Tagging Strategy

Successful implementation starts with a clear tagging strategy. High-value and frequently used equipment — infusion pumps, ventilators, ultrasound machines — should be tagged first, since these deliver the fastest ROI and the clearest proof of concept for clinical staff. From there, the tagging program can expand to additional asset categories as the team becomes comfortable with the system and the data reveals where tracking will add the most value next.

Integration with Hospital Systems

Modern asset tracking platforms integrate with existing hospital management systems — CMMS, nurse call, EMR — through standard APIs. When data flows automatically between systems, clinical and operations teams see a unified picture rather than isolated data silos. This integration also eliminates duplicate data entry, which reduces administrative burden and improves data quality across all connected systems.

Hospital asset tracking serves as the foundation for smart hospital initiatives. The data generated by these systems enables healthcare organizations to assess operational efficiency, identify improvement opportunities, and anticipate challenges before they affect care delivery.

Asset tracking technology is also expanding beyond equipment. Real-time location systems for staff and patients run on the same sensor infrastructure — which means a hospital that deploys BLE asset tracking has already built the foundation for staff duress alerting, patient elopement prevention, and indoor navigation without a separate hardware investment.

Leading healthcare facilities are already using these comprehensive tracking solutions to transform their operations. The shift from reactive equipment management to proactive, data-driven operations is not a future vision — it is the operational model that high-performing hospitals are building today.

Penguin Location Services delivers hospital asset tracking through PenTrack — real-time equipment visibility, utilization analytics, and CMMS integration on a single BLE 5.1 infrastructure. Learn more at penguinin.com/pentrack or request a demo.

Hospital biomedical engineering teams face a problem that has no good solution within a traditional CMMS alone. They know which devices are due for preventive maintenance. They know the maintenance schedule, the service history, and the compliance requirements. What they do not know — until someone physically searches the facility — is where the device is right now.

A ventilator due for quarterly inspection could be in the ICU, in a storage room three floors away, or in the biomedical workshop waiting for an unrelated repair. Without real-time location data, finding it takes time that biomedical engineers do not have. Maintenance gets deferred. Compliance gaps accumulate. When a Joint Commission surveyor asks for the maintenance record of a device last serviced 14 months ago instead of 12, the answer is difficult to give.

Integrating Real-Time Location Systems with CMMS closes this gap — and it changes the operational model of hospital equipment management in ways that go well beyond simply finding devices faster.

A Computerized Maintenance Management System is the operational backbone of hospital biomedical engineering. It tracks maintenance schedules, work orders, service histories, and compliance documentation for every piece of medical equipment in the facility. In well-implemented CMMS environments, these records are accurate, complete, and audit-ready.

The gap is not in what CMMS records — it is in what it cannot see.

Most CMMS platforms record a device’s assigned department or last-known location at the time of the most recent work order. In a static environment, this would be adequate. Hospitals are not static environments. Medical equipment moves continuously — following patients between units, travelling with transport teams, accumulating in high-demand areas, and disappearing into storage rooms that are checked infrequently.

When a CMMS shows that an infusion pump is assigned to the cardiac care unit, that information may have been accurate three weeks ago. Today it could be on a surgical floor, in a discharged patient’s room waiting for housekeeping, or in the clean equipment room on a different floor entirely. The CMMS cannot tell the difference.

This location uncertainty creates a predictable and costly operational pattern. A device becomes due for scheduled maintenance. The biomedical engineer checks the CMMS for its location, finds a department assignment that may or may not be current, and begins searching. The search takes 20 to 45 minutes. If the device is not found in that time — because it has moved to an unexpected location — the work order gets deferred. Deferred maintenance accumulates. Compliance gaps develop quietly over months until they surface during accreditation surveys or equipment failures.

The CMMS knows everything about a device’s maintenance history except the one thing biomedical engineers need to act on it: where the device is right now. RTLS provides exactly that missing piece — and the combination changes the operational model entirely.

Real-time location systems track the precise location of every tagged asset continuously, updating as devices move through the facility. When RTLS data feeds into a CMMS, the result is a maintenance system that knows not just what needs to be done — but exactly where to go to do it.

The integration transforms three fundamental aspects of hospital equipment management:

Traditional CMMS scheduling is calendar-based — every 90 days, every 6 months, every year. RTLS integration enables location-aware maintenance dispatch. When a device becomes due for service, the CMMS queries the RTLS for its current room-level location and sends the engineer directly there. No searching. No deferral. The work order gets done on schedule because the device is immediately findable.

RTLS location data enables usage-based maintenance scheduling — a more clinically appropriate model than calendar timing alone. A ventilator used continuously in an ICU accumulates wear at a different rate than one used intermittently in a step-down unit. Usage-based scheduling services heavily used devices more frequently and extends intervals for lightly used ones. This optimizes the maintenance workload and extends equipment lifespan. It is only possible when the CMMS has access to continuous location and utilization data from RTLS.

The most advanced RTLS-CMMS integrations use location pattern data to surface predictive signals. A device that is moving abnormally slowly, being transported unusually frequently, or triggering repeated short work orders may be approaching failure before a traditional maintenance schedule would flag it. Identifying these patterns early — and acting before the device fails in clinical use — represents the highest-value application of the combined system.

The technical architecture of RTLS-CMMS integration varies by CMMS platform, but the operational flow is consistent across implementations.

Each tracked device carries a BLE tag — a small, battery-powered device that broadcasts a unique identifier continuously. BLE readers installed throughout the facility receive these signals and report location data to the RTLS platform in real time. The RTLS maintains a continuously updated map of every tagged asset’s room-level location.

The CMMS integration connects these two systems through an API. When the CMMS generates a maintenance work order, it queries the RTLS API for the device’s current location. The work order is then populated with the room-level location — Room 412, Clean Equipment Room 3B, Biomedical Workshop — and routed to the appropriate engineer with that location embedded.

Penguin’s PenTrack platform supports this integration through standard API connectivity with major CMMS platforms used in North American hospitals. The location data PenTrack provides is room-level accurate — precise enough for a biomedical engineer to walk directly to the device without a secondary search — delivered continuously and without requiring manual updates from clinical staff.

Preventive maintenance completion rates improve dramatically when engineers find devices on the first attempt. Hospitals that have integrated RTLS with CMMS consistently report reductions in deferred maintenance of 60 to 75 percent. Not because maintenance schedules changed, but because the time barrier to executing scheduled maintenance was removed. A work order that previously required 30 minutes of search time now routes directly to the device’s current location.

When a medical device manufacturer issues a recall or safety notice, the integrated system responds in minutes rather than days. The CMMS identifies which devices are affected from its asset registry. The RTLS locates every affected device immediately — showing current room-level locations across the entire facility. Biomedical staff retrieve them from their actual locations rather than conducting a facility-wide physical search. Compliance documentation is generated automatically from the combined location and work order records.

This capability has direct patient safety implications. A recalled infusion pump that remains in service because the hospital cannot quickly locate and remove it represents a known, preventable risk.

RTLS utilization data feeds directly into CMMS-driven equipment lifecycle decisions. A device that has been in continuous heavy use for five years in an ICU may be approaching end-of-life earlier than one with the same calendar age in lighter outpatient use. When the CMMS has access to actual utilization history from RTLS — not just calendar time — replacement and capital planning decisions are based on real operational data rather than assumed usage averages.

Decontamination workflow becomes automatable when RTLS location data is combined with CMMS equipment status. When a device enters the decontamination zone, the system records it. When it leaves, it carries a verified clean status in both the RTLS and CMMS records. If a device re-enters a patient area without a recorded decontamination event, an automated alert fires. The decontamination audit trail — timestamps, zone entry and exit, device identity — is generated automatically and available for infection control review without manual documentation. This directly supports hand hygiene and infection control compliance programs.

The financial return from RTLS-CMMS integration is measurable across several budget lines that hospital CFOs and capital planning teams recognize directly.

Biomedical engineering labor efficiency. At 30 to 45 minutes of search time per deferred work order, the cumulative labor cost of poor equipment visibility is significant in a hospital with hundreds of tracked devices and a small biomedical team. Eliminating search time returns those hours to actual maintenance work — increasing the volume of preventive maintenance the team can execute without adding headcount.

Reduction in equipment downtime. Devices that receive preventive maintenance on time have lower failure rates and shorter repair cycles. Equipment downtime in clinical settings carries direct costs — rental of replacement equipment, cancellation of procedures — and indirect costs in staff time and patient experience. Hospitals with high preventive maintenance completion rates document measurably lower rates of unplanned equipment failure.

Capital planning accuracy. Equipment replacement decisions made on actual utilization data are consistently more accurate than those based on assumed averages. Facilities that integrate RTLS utilization data into capital planning report fewer premature replacements and fewer emergency purchases caused by unexpected failures.

Rental cost reduction. When hospital asset tracking reveals the true location of equipment across the facility, rental expenses drop significantly. Many emergency rental requests are triggered not by genuine inventory shortages but by the inability to locate existing inventory. Knowing where every device is eliminates this category of spend almost entirely.

The Joint Commission and Accreditation Canada both require hospitals to demonstrate systematic medical equipment management programs — including documented preventive maintenance, recall response procedures, and equipment lifecycle oversight. The documentation burden of meeting these requirements manually is significant, and the quality is often inconsistent because it depends on human data entry under clinical workload pressure.

RTLS-CMMS integration generates compliance documentation automatically as a byproduct of normal system operation. Every maintenance event, location check, decontamination record, and recall response is timestamped and stored without requiring manual entry from biomedical engineering staff. When a surveyor requests the maintenance history of a specific device, the complete record — including location history, all work orders, service dates, and responsible technicians — is available immediately.

For healthcare facilities pursuing or maintaining accreditation, this documentation quality is not just administratively convenient — it is the difference between a confident survey response and one that requires after-the-fact reconstruction from incomplete records.

CMMS platform compatibility. Not all RTLS systems integrate cleanly with all CMMS platforms. Before selecting an RTLS vendor, confirm that their platform supports API integration with your specific CMMS — whether that is TMS, Maximo, MP2, Nuvolo, or another system. Ask for documentation of existing integrations with your platform rather than accepting a vendor’s assurance that integration is possible.

Location accuracy requirements. For CMMS integration to deliver its full operational value, the RTLS must provide room-level accuracy — not zone-level or floor-level. A work order that routes a biomedical engineer to “the third floor” does not eliminate search time. A work order that routes them to “Room 312B” does. Confirm the accuracy level the RTLS delivers in real hospital environments, not just in specification documents.

Infrastructure requirements. RTLS systems that operate on existing enterprise Wi-Fi infrastructure — Cisco Meraki, Aruba, Juniper Mist — eliminate the need for dedicated parallel hardware and reduce implementation cost and timeline significantly. Confirm whether the RTLS requires proprietary readers or can leverage existing network infrastructure.

Multi-use-case infrastructure. The sensor network deployed for CMMS-integrated asset tracking is the same infrastructure that supports staff duress alerting, patient monitoring, and hand hygiene compliance. Facilities that evaluate RTLS as a platform rather than a single-use tool get significantly better total cost of ownership than those that deploy separate infrastructure for each application.

Implementation support and clinical change management. The technology integration is the straightforward part of an RTLS-CMMS deployment. The more challenging work is configuring alert thresholds, training biomedical staff on new workflows, and ensuring that clinical staff understand what the system tracks. Vendor support during the first 90 days of operation — when configuration adjustments are most needed — is an important factor in long-term deployment success.

The following questions represent the most common queries from biomedical engineering directors, hospital operations leaders, and IT teams evaluating RTLS-CMMS integration.

What is CMMS in healthcare and why does it need RTLS integration?

A Computerized Maintenance Management System (CMMS) in healthcare tracks medical equipment maintenance schedules, work orders, service histories, and compliance documentation. It is essential for managing preventive maintenance requirements and demonstrating compliance to accreditation bodies. CMMS needs RTLS integration because its core limitation is location visibility — it records which devices need maintenance but cannot tell biomedical engineers where those devices are right now. Without real-time location data, maintenance staff spend 20 to 45 minutes searching for devices before any maintenance work can begin, leading to deferred maintenance, compliance gaps, and unnecessary labor costs.

How does RTLS improve preventive maintenance completion rates in hospitals?

RTLS improves preventive maintenance completion rates by eliminating the search time that causes maintenance to be deferred. When a device becomes due for service, the CMMS queries the RTLS for its current room-level location and routes the engineer directly to that room. What previously required a 30-minute facility search now takes under 60 seconds to locate. Hospitals that have integrated RTLS with CMMS consistently report reductions in deferred maintenance of 60 to 75 percent — not from changing schedules, but from removing the location barrier that caused deferral.

How does RTLS-CMMS integration support equipment recall response?

When a manufacturer issues a recall, the integrated system responds in a structured, documented process. The CMMS identifies which devices are affected by model or serial number range. The RTLS immediately locates every affected device at room-level precision across the entire facility. Biomedical staff retrieve devices from their actual current locations rather than conducting a manual facility-wide search. Compliance documentation — which devices were affected, when they were located, when they were removed from service — is generated automatically from the combined system records.

What CMMS platforms does RTLS integrate with in hospital environments?

RTLS integration is available with all major hospital CMMS platforms through standard API connectivity. Common integrations in North American hospitals include TMS (TheWorxHub), IBM Maximo, MP2, Nuvolo, eMaint, and Infor EAM. When evaluating an RTLS vendor, confirm that they have documented, tested integrations with your specific CMMS platform rather than accepting a general statement that integration is possible.

What is usage-based maintenance scheduling and how does RTLS enable it?

Usage-based maintenance scheduling replaces calendar-based scheduling by triggering maintenance based on actual device utilization rather than time elapsed. A ventilator running continuously in an ICU accumulates wear at a fundamentally different rate than one used intermittently in a step-down unit — but a calendar-based schedule treats both identically. RTLS enables usage-based scheduling by providing continuous utilization data: hours in active use, transport frequency, and operating environments. When this data feeds into the CMMS, maintenance intervals become proportional to actual wear rather than assumed usage.

Can the same RTLS infrastructure support CMMS integration and other hospital applications?

Yes — and this is one of the most important cost considerations in RTLS deployment. The BLE sensor infrastructure deployed for CMMS-integrated asset tracking is the same infrastructure that supports staff duress alerting, patient wander and elopement prevention, hand hygiene compliance monitoring, and indoor navigation. A hospital that deploys one BLE 5.1 sensor network for CMMS integration has already built the foundation for all of these additional applications. Adding them requires software configuration and additional tags, not new hardware — significantly lowering total cost of ownership compared to deploying separate infrastructure for each application.

Penguin Location Services delivers RTLS-CMMS integration through PenTrack, built on BLE 5.1 technology with patented Direction Finding algorithms for room-level accuracy across complex hospital environments. PenTrack runs on the same sensor infrastructure as PenSafe staff safety and patient monitoring — one deployment, multiple operational and safety applications. Learn more at penguinin.com/asset-tracking or penguinin.com/workflow.