Unfortunately, far too often, the monitoring systems spread around the hospital are fragmented, outdated, or inconsistent. Those factors can present a significant barrier to safety, efficiency, and innovation.

Because of this, modern hospitals, where care environments are becoming increasingly more complex, are looking to the concept of fleet standardization as not only a convenience, but also a critical strategy for improving outcomes, reducing risk, and empowering their clinical teams. Standardization impacts every layer of hospital operations — from the clinical workflows at the bedside, to the digital flow of patient data, to the supply chain of accessories and consumables that keep monitoring systems running.

That’s why in this article, we’ll explore not only the challenges that arise from a lack of standardization, as well as the strategic benefits healthcare systems can realize by taking steps toward standardizing patient monitors. Additionally, we’ll look at the complex dynamics that can arise in middle-income countries where systems may have a more departmental focus, discussing how these systems can break through barriers and utilize fleet standardization to create a thriving connected environment.

The cost of fragmentation

Although the move toward fleet standardization has grown, many hospitals still operate with a mix of monitoring platforms from multiple vendors. However, there are a number of costs that come with this approach. Not only can a lack of standardization result in incompatibility between devices and siloed data, it can also lead to inconsistent user experiences and drive clinical and operational friction.

  • Disconnection of devices and data: Different monitors capture data in different formats. It’s a factor that can make it harder to generate a complete, continuous patient record. Unfortunately, it can also result in disruptions of clinical workflows and reduced efficiency, by requiring staff to spend time re-documenting or reconciling data across systems. That’s time that could be better spent on a system’s most important mission — patient care.
  • Training challenges: In healthcare settings, staff already face a heavy cognitive burden. This load intensifies when clinicians must navigate multiple user interfaces and alarm systems — a complexity that has been linked to usability errors and operational inefficiencies. For instance, a human-factors study evaluating physiological monitoring systems found that many clinicians “failed to complete a number of tasks and/or completed tasks within an extended amount of time,” and that there was "a lack of confidence and competence in using a number of features of the monitor" (Stavrou et al., 2015).
  • Alarms and variability: Lack of standardization of alarm settings and interfaces can also play a role in alarm fatigue, leading to delayed response times. According to a study by Klein et al. inconsistent alarm practices, which are often driven by manufacturer differences, are linked to clinical inefficiencies and patient safety risks (2021). And, in Plan, Do, Check, Act: Using Action Research To Manage Alarm Systems, Signals, and Responses, Vockley points out that this can lead to clinicians ignoring or missing many clinically significant and actionable alarms.
  • Service and lifecycle complexity: Updating or maintaining a fleet with varied devices increases operational burdens. The difficulty of planning upgrades rises exponentially when full units must be replaced, rather than smaller incremental improvements made. Additionally, some manufacturers do not provide the flexibility of replacing only one or two units at a time.

The strategic advantage of fleet standardization

1. Streamlined workflows and improved consistency

The hospital is a complex environment and it can be a challenge to keep pace, which is where fleet standardization can be a big benefit.

Across the hospital, standardization makes it easier for healthcare providers to use technology. A unified user experience can assist nurses working in the intensive care unit, emergency room, or during patient transfer by:

  • Providing familiar, consistent experience across various care environments; cutting down on training time and enhancing onboarding
  • Establishing common procedures and checklists to reduce mistakes (a benefit that becomes especially evident in environments with significant staff turnover or floating workforce)

According to Naveh and Nissinboim (Technion, Israel Institute of Technology), standardization aligns procedures across complex systems, making it a potent tool for reducing errors. It makes it possible for caregivers to behave clearly and confidently, especially in stressful situations.

2. Data integration and continuity of care

Hospitals can utilize fleet standardization to help ensure that patient data moves smoothly between care areas, by reducing disruptions, intrusions, and data loss. In order to detect tiny changes in a patient's state, improve early interventions and increase diagnostic accuracy, this continuity is essential.

Professor Jean-Louis Vincent and other critical care experts have highlighted that data harmonization enables smart alarm integration, which enables early detection of crises like sepsis or ARDS – allowing for quick action before deterioration begins.

Additionally, Fazio et al. (2021) show that multi-measure standardization improves data quality, trending accuracy, and teamwork, especially in complex care settings like early mobility monitoring or critical care.

3. Operational and it efficiency

The benefits of fleet standardization go beyond improvements in clinical care and efficiency, offering valuable support for the operational foundation of the entire hospital.

Benefits that can be achieved include:

  • Remote fleet management: When all monitors are on the same platform, IT and biomedical teams can remotely deploy updates, troubleshoot problems, and monitor fleet health. This can help to both lower costs and downtime.
  • Service predictability: As Ball et al. (2004) points out, a uniform fleet of devices simplifies contracts, support, and update cycles. This can allow operations to support more proactive lifecycle management.
  • Safe, future-ready infrastructure: With a standardized fleet, it's easier to include new monitors and the latest features, without completely redesigning the system.

4. Supply chain simplification for accessories and consumables

In addition to patient monitors, hospitals require a steady supply of consumables and accessories, such as patient cables, sensors, tubes, and filters - all of which play an important role in ensuring their efficacy. However, when fleets are fragmented, these components vary among departments, leading to increases in complexity, waste, and inefficiency.

On the other hand, healthcare systems that take steps to standardize their monitors and streamline their supply chain for consumables and accessories can achieve a number of important advantages.

These include: 

  •  Compatibility and interchangeability

With a standardized fleet, consumables and accessories are interoperable across all departments and care settings.  Staff use is made easier, bedside preparedness is improved, and delays in care that can negatively affect patient safety due to having to search for the "right" component are decreased.

  • Simplified purchasing

Monitor fleet standardization allows hospitals to combine purchasing of accessories and consumables with a single supplier rather than managing several vendors and irregular procurement cycles. Additionally, building supplier relationships and bulk ordering may also lessen administrative load and opens up cost savings.

  •  Enhanced departmental efficiency

 Departments can easily assist one another when all attachments and consumables are interchangeable.  This allows resources to be shared when demand is high or in emergency situations, without the risk of incompatibility.

  •  Better inventory control and less waste

Hospitals can reduce excess stock and improve inventory management by implementing a consistent supply chain. This helps to decrease operational waste and make budgeting more predictable.

Clearly, standardization of patient monitors is a step forward not only in clinical workflows and IT efficiency, but also in managing the supplies that sustain monitoring. By streamlining consumables and accessories, hospitals can put in place a more reliable, cost-effective, and responsive system that empowers both caregivers and supply chain managers.

Elevating safety and quality through standardization

The need for consistency in monitoring is supported by clinical recommendations from researchers and medical societies across the healthcare spectrum.

This includes recommendations from Klein et al. (2021) and the Intensive Care Society (2011), for uniform monitoring guidelines for both patient recovery and transportation.

The Spanish Society of Anaesthesiology also recommends the standardization of ICU structures and monitoring techniques as a step to improving patient handovers and lessen cognitive diversity between teams (Barturen et al., 2019).

Implementation of best practices can therefore be more successfully applied with a standardized fleet.

Tailored monitoring, not one-size-fits-all

A vital point to remember is that standardization isn't about sacrificing flexibility. Instead, in today's healthcare setting, a modern monitoring platform can be both unified and flexible with:

  • Scalable acuity levels, configurable at the bedside
  • Bed-specific customization within a hospital-wide architecture
  • Easy transport with consistent user experience
  • Integration-ready for future tech innovations

In other words, you gain a shared foundation that allows for individualized care — not restricted by vendor-specific limitations or incompatible software.

Bridging the gap: departmental ownership vs. Fleet standardization in middle-income settings

In many middle-income countries, hospitals are still developing the infrastructure to support interconnected systems and enterprise-wide interoperability. As a result, clinical technology such as patient monitors is often purchased and managed department by department, rather than through a centralized strategy. It's a model that's based on pragmatic concerns: accountability, familiarity, and preservation of valuable equipment.

For example, it’s not uncommon to hear sentiments such as:

"We don’t transfer the monitor module with the patient, because it belongs to our ICU.”
Or "We look after it better than other areas of the hospital."

This perspective is valid — and it speaks to a need for clear protocols and technological safeguards when considering hospital-wide fleet standardization.

Pros of departmental ownership

Some objections to utilizing the transport concept of fleet standardization and having units that travel around hospitals are based on the operational advantages of a departmental focus. 

These may include:

✅ Longevity and accountability: The lifespan of the equipment may be extended, since the same experienced people are responsible for maintaining it. This may help reduce maintenance costs. Additionally, staff is able to control the readiness of devices (i.e. batteries fully charged).

✅ Resource availability: Equipment is always available when it's needed (i.e. no misplaced cables/devices).

✅ Simplified asset monitoring: It's clear which department paid for the equipment and who is responsible for its maintenance.

Cons of departmental silos

Despite these benefits, this departmental focus can also be a negative to systems that want to achieve the highest level of patient care coupled with clinical efficiency:

❌ Patient discomfort and inefficiencies: When devices don't travel with a patient, they must be disconnected and then reconnected. This can result in added stress, physical discomfort, and clinical delays.

❌ Data fragmentation: Vital signs, alarm histories, and trend data may be lost or siloed during transitions, especially if systems are not digitally connected.

❌ Lack of flexibility in emergencies: When seconds count, not share monitoring equipment between departments could cause critical delays.

A balanced approach

Fortunately, hospitals don’t have to choose one model at the expense of the other. With the right technology, it's possible to support departmental ownership, while also creating a cohesive, hospital-wide monitoring strategy to achieve the benefits fleet standardization has to offer.

Standardized fleets can incorporate:

  • Smart asset tracking – This ensures devices that leave a department can be located, borrowed temporarily, and reliably returned
  • Interoperable modules and sensors – This reduces the need for complete equipment transfers while maintaining data continuity
  • Automatic data synchronization – This preserves patient records even during hardware transitions
  • Flexible service structures – This allows departments to maintain stewardship while benefiting from centralized support and analytics

In environments where budgets, workflows, and organizational culture differ across departments, fleet standardization can be adapted — not enforced. The goal isn’t to eliminate departmental control. The goal is to create a connected environment between departments where collaboration, transparency, and efficiency thrive.

Conclusion: standardization is the infrastructure of excellence

More and more healthcare systems are determining that fleet standardization of patient monitors is more than a procurement decision — it's a system-wide investment in safety, clarity, and clinical excellence.

By replacing fragmented systems with a unified, scalable, and intelligent monitoring platform, hospitals can:
✅ Improve clinical responsiveness
✅ Minimize training burdens and reduce errors
✅ Streamline operations and simplify upgrades
✅ Enable seamless data flow and better decision-making
✅ Simplify the supply chain for accessories and consumables, reducing waste and unlocking cost efficiencies
✅ Prepare for the future of integrated, personalized care

As the healthcare landscape becomes more complex, standardization becomes a competitive advantage — empowering hospitals to deliver more coordinated, consistent, and connected care while ensuring that every cable, sensor, and filter contributes to smarter, safer outcomes.

References

  • Ball, M. J., Weaver, C. A., & Kiel, J. M. (2004). HCA Inc.: standardization in action. Journal of Healthcare Information Management, 18(1), 59–63.
  • Barturen, F., Bustinza, A., Ezponda, A., & Martínez-Pellús, A. (2019). Structure of anaesthesia intensive care units: Recommendations of the Intensive Care Section of the Spanish Society of Anaesthesiology. Revista Española de Anestesiología y Reanimación (English Edition), 66(10), 506–520. https://doi.org/10.1016/j.redar.2019.06.001
  • Fazio, S. A., Chlan, L., Novotny, P., & Kamath, A. F. (2021). Standardisation, multi-measure, data quality and trending: A qualitative study on multidisciplinary perspectives to improve intensive care early mobility monitoring. Intensive and Critical Care Nursing, 63, 102949. https://doi.org/10.1016/j.iccn.2020.102949
  • Intensive Care Society. (2011). Guidelines for the transport of the critically ill adult (3rd ed.). https://www.ics.ac.uk
  • Klein, A. A., Meek, T., Allcock, E., Cook, T. M., Mincher, N., Morris, C., ... & McNarry, A. F. (2021). Recommendations for standards of monitoring during anaesthesia and recovery 2021: Guideline from the Association of Anaesthetists. Anaesthesia, 76(9), 1212–1223. https://doi.org/10.1111/anae.15576
  • Naveh, N., & Nissinboim, E. Process standardization and error reduction: a revisit from a choice approach. Faculty of Industrial Engineering and Management, Technion – Israel Institute of Technology.
  • Stavrou, E. P., et al. (2015). Human factors and the user interface of physiologic monitoring. Journal of Clinical Monitoring and Computing, 29(5), 643–651. https://doi.org/10.1007/s10877-015-9676-2
  • Vockley, M. (2012). Plan, Do, Check, Act: Using Action Research To Manage Alarm Systems, Signals, and Responses. AAMI Foundation Healthcare Technology Institute. http://s3.amazonaws.com/rdcms-aami/files/production/public/FileDownloads/Foundation/SafetyInnovation/2012_SI_Plan_Do_Check_BethIsrael.pdf

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