Why this work matters
Oxygen is one of the most familiar therapies in health care and one of the world’s most essential medicines. Yet published literature and clinical realities point to persistent gaps in oxygen access, knowledge, practice, monitoring, targeting, reassessment, workflow, equipment, and system readiness.
Making Oxygen Therapy Visible™ is therefore a patient-safety and workflow priority, as well as an opportunity to strengthen global oxygen resilience and climate adaptation.
Knowledge and practice gaps persist across settings. Studies have identified oxygen therapy knowledge and practice gaps among doctors, nurses, and emergency clinicians (Dansa et al., 2024; Desalu et al., 2022; Hassanzad et al., 2022; Tang et al., 2024; Zeleke & Kefale, 2021; Zhao et al., 2025). Structured education can help when it is practical, protocol-aligned, and connected to real clinical workflow (Diab et al., 2022; Oza et al., 2025).
Oxygen is essential, but it still needs a target. Oxygen should not be withheld when clinically indicated, but excessive or poorly targeted oxygen can create risk in some patients and contexts (da Silva et al., 2024; Dylla et al., 2021; O’Driscoll et al., 2016; Singer et al., 2021). Finding the right balance requires patient-specific targets, appropriate monitoring, and ongoing clinical judgement.
SpO₂ is important, but incomplete. Pulse oximetry is a critical assessment, but SpO₂ alone does not prove that a patient is ventilating adequately, that CO₂ is normal, that oxygen delivery is reliable, or that the underlying illness is improving. Oxygen can maintain saturation while respiratory rate rises, mental status declines, or ventilation worsens (Asdo et al., 2025; McGrath et al., 2026).
Respiratory rate is a high-value vital sign. It can be an early sign of deterioration, but in busy care environments, it is often omitted or estimated. The evidence supports strengthening accurate respiratory-rate measurement as a core part of patient assessment and escalation pathways (Elliott & Baird, 2019; Fieselmann et al., 1993; Palmer et al., 2023).
Oxygen delivery is also a system and workflow problem. Oxygen can be disrupted by transport, tubing, equipment setup, empty tanks, unclear handoffs, wrong sources, or flow being unintentionally stopped or left running (Bocknek et al., 2024; Davis & Johnston, 2008).
Support global oxygen resilience. Gaps in oxygen access, delivery, monitoring, equipment, and maintenance continue to contribute to preventable harm worldwide (World Health Assembly, 2023). Building resilient oxygen systems requires a coordinated ecosystem that includes reliable infrastructure and clinical training (Smith et al., 2024). Nursing involvement is increasingly recognized as essential to strengthening global oxygen system resilience (Brown et al., 2025; Rudd & Helmerhorst, 2019).
Climate adaptation requires oxygen-ready acute care. Climate change can worsen respiratory illness and increase pressure on acute-care services during extreme heat, wildfire smoke, and deteriorating air quality (Canadian Association of Physicians for the Environment, 2019). Health systems should act now to transform care delivery and build climate resilience (Jakobsdóttir & Haines, 2026); for oxygen care, this means ensuring therapy remains reliable, visible, and responsive during climate-related surges and operational disruptions.
Making Oxygen Therapy Visible™
The purpose of the following quiz is to help clinicians reflect on where oxygen therapy is already a professional and system strength, and where safer systems, evidence-based training, and better measurement may be needed next.
Disclaimer: This tool is for education and discussion. It does not replace local policy, prescriber orders, respiratory therapy guidance, emergency protocols, or patient-specific clinical judgment.
Recommended next step
How to prepare
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Bedside knowledge → Consistent unit practice → Visible Oxygen Care Site™ readiness
References
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