Introduction

In hospitals around the world, medication errors remain one of the most preventable causes of patient harm. These errors, whether from misprescription, misadministration, or miscommunication, are often symptoms of deeper system (both operational and digital) inefficiencies and human fatigue. An analysis from 46 studies indicated that doctors do not misprescribe because of a lack of knowledge, but do so because of social pressure and fear of negative outcomes (Lopez‐Vazquez et al., 2012).  While healthcare systems increasingly turn to integrated electronic medication management systems (eMMS) to tackle this issue, there is another dimension that deserves equal attention: the well-being of healthcare providers themselves (Stolic et al., 2023).

Is the Key to Reducing Medication Errors Human Well-Being, Not Just Better Tech?

This is where positive psychology’s PERMA model (Butler and Kern, 2016) intersects meaningfully with health technology. The dual challenge here remains patient safety and care provider well-being

Consider this scenario

On a busy morning in a cardiology ward, a nurse begins to fill out the medication administration record (MAR) for one post-op patient, and suddenly an alert appears on her screen, a potential drug interaction between the newly ordered antibiotic and the patient’s ongoing blood thinner. However, the alert can be overlooked, buried in a flood of routine warnings, most of which are not clinically important. Amid the noise, a real safety issue could be overlooked.
Under pressure, she clicks through the warning, trusting that the doctor has considered the interaction. An hour later, the patient begins bleeding internally. The oversight becomes a root cause investigation, and the nurse, despite good intentions, carries the emotional toll of the error for months.

Now, imagine an alternate version of this story.

The same alert appears, but this time, the system offers a quick summary: “High risk of increased bleeding: patient currently on warfarin. Please confirm override.” A second prompt shows the contact details of the prescribing care provider. The nurse pauses, calls, and together they revise the order.

The patient is safe, and the nurse ends her shift feeling competent, connected, and supported.

The PERMA Model: Infusing Flourishing into Medication Safety  

Let us explore how each element of the PERMA can be infused into the design and implementation of an integrated eMMS, and how doing so could elevate both patient safety and staff flourishing.

P – Positive Emotion: Reducing Stress, Cultivating Confidence

Many medication systems generate anxiety. Alerts that are too frequent, unclear, or accusatory can cause alarm fatigue. A cumbersome interface adds to mental load, while unresolved medication reconciliation issues can frustrate even seasoned care providers.

• Include features that celebrate correct actions and timely interventions (e.g., gentle visual confirmations, achievement pop-ups for “error-free weeks”).
• Provide optional reflective prompts that recognize the emotional complexity of caregiving.

Systems that support emotional ease and confidence help generate positive emotions, essential for motivation and resilience.

E – Engagement: Creating Flow States in Clinical Work

Disjointed systems and manual workarounds drain engagement. Care providers find themselves toggling between screens, re-entering data, and deciphering conflicting information. This leads to “checklist fatigue” rather than meaningful clinical involvement. A study indicates that by applying human-centered design and dynamic algorithms, we can create optimized checklists not only to maintain safety but also to boost clinician performance and engagement, avoiding the cognitive overload seen with traditional checklists (Grigg, 2015).

• Enable prescribing, dispensing, administration, and inventory to be easily integrated.
• Provide decision-support functionality that delivers clinical intelligence in real-time so staff members feel intellectually engaged.

When healthcare professionals can focus on substantive work rather than wrestling with interfaces, they experience professional flow, which increases accuracy and job satisfaction.

R – Relationships: Encouraging Collaboration

Medication errors often occur at the points of handovers, and poor system design can isolate roles, limit visibility, and undermine teamwork.

•  Provide shared visibility across roles (with appropriate permissions) so that pharmacists, nurses, and doctors see the same updated information.
• Offer group alerts when collaborative tasks are needed (e.g., medication review before discharge).
• Create embedded appreciation features. A “Thanks for catching that interaction!” note function can go a long way.

Systems that enable collaboration strengthen team cohesion.

M – Meaning: Aligning Work with Purpose

When technology becomes a burden, care providers may feel like they are serving the system rather than their patients. This sense of disconnect from purpose is a key driver of demotivation.

• Design interfaces that highlight the patient’s story: allergies, history, personal values (for example, someone who prefers hospice care rather than a hospitalization, not just medications.
• Include modules that document patient outcomes linked to clinical interventions (e.g., “Adverse drug event averted due to interaction check”).
• Enable reflection logs or dashboards where users can view their impact over time.
• Ensure the system serves clinical judgment, not replaces it, allowing for purposeful overrides with clear documentation.

When healthcare providers see how their work prevents harm and promotes life, they reconnect with their calling, fostering deeper meaning in daily practice.

A – Accomplishment: Celebrating Clinical Excellence

In many healthcare systems are providers are told when they err, but rarely when they excel.

• Provide real-time feedback on successful interventions or caught errors.
•  Create peer recognition features for acknowledging colleagues who spot inconsistencies or escalate concerns.
•  Recognizing micro-wins builds a culture of excellence, reducing turnover and increasing productivity.

A 2021 study found that the tailored design of electronic medication management systems using the Unified Theory of Acceptance and Use of Technology (UTAUT) framework are important for the widespread adoption of such systems to reduce medication errors (Dabliz et al., 2021).

Ask the following:

1. What are the most common types of medication errors that occur in hospital settings?
2. To what extent do medication management errors pose a problem in hospitals?

Aim to use the PERMA framework to achieve the following outcomes:

• Reduced common medication errors in hospitals.
• Enhanced overall patient safety and care quality.
• Support for all key principles of safe medication administration.
• Promoted coordination among healthcare providers.

References

1. Butler, J., Kern, M.L., 2016. The PERMA-Profiler: A brief multidimensional measure of flourishing. Int. J. Wellbeing 6, 1–48. https://doi.org/10.5502/ijw.v6i3.526
2. Dabliz, R., Poon, S.K., Ritchie, A., Burke, R., Penm, J., 2021. Usability evaluation of an integrated electronic medication management system implemented in an oncology setting using the unified theory of the acceptance and use of technology. BMC Med. Inform. Decis. Mak. 21, 4. https://doi.org/10.1186/s12911-020-01348-y
3. Grigg, E., 2015. Smarter Clinical Checklists: How to Minimize Checklist Fatigue and Maximize Clinician Performance. Anesth. Analg. 121, 570–573. https://doi.org/10.1213/ane.0000000000000352
4. Lopez‐Vazquez, P., Vazquez‐Lago, J.M., Figueiras, A., 2012. Misprescription of antibiotics in primary care: a critical systematic review of its determinants. J. Eval. Clin. Pract. 18, 473–484. https://doi.org/10.1111/j.1365-2753.2010.01610.x
5. Stolic, S., Ng, L., Sheridan, G., 2023. Electronic medication administration records and nursing administration of medications: An integrative review. Collegian 30, 163–189. https://doi.org/10.1016/j.colegn.2022.06.005