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Home NEWS Science News Technology

Measuring Pain During Surfactant Treatment via Skin Conductance

Bioengineer by Bioengineer
December 22, 2025
in Technology
Reading Time: 4 mins read
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Measuring Pain During Surfactant Treatment via Skin Conductance
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In the ever-evolving field of neonatal medicine, advancements continue to reshape how clinicians address the delicate balance between effective treatment and patient comfort. Recently, groundbreaking research has emerged from a prospective cohort study that delves into the intricate relationship between pain management and surfactant administration in preterm infants. This study, led by Dirler, Boos, Bassler, and colleagues, focuses on utilizing skin conductance as a novel, objective method for assessing pain during less invasive surfactant administration (LISA). Their findings, detailed in a publication slated for December 2025, shed new light on how neonatal pain can be quantified and managed, potentially transforming neonatal care protocols worldwide.

Surfactant therapy is critical for the survival of premature infants suffering from respiratory distress syndrome (RDS). Traditionally, surfactant delivery has often involved endotracheal intubation, which, while effective, poses several risks including trauma and increased pain. In recent years, the LISA technique has gained prominence as a less intrusive alternative, aiming to reduce the invasiveness of surfactant administration by using thin catheters instead of full intubation. Despite being less invasive, LISA is not free from causing discomfort or pain in neonates. Hence, the imperative to accurately evaluate and mitigate this pain remains a substantial clinical challenge.

The innovation in the study lies in leveraging skin conductance measurement as a tool for real-time pain assessment. Skin conductance, linked to sweat gland activity controlled by the sympathetic nervous system, offers a dynamic and quantifiable signal of pain-induced stress. Unlike other conventional pain scoring systems, which rely heavily on subjective interpretation of physiological or behavioral cues by caregivers, skin conductance presents an objective, physiological parameter that promises greater reliability and sensitivity. The researchers hypothesized that monitoring changes in skin conductance during LISA could provide precise insights into neonates’ pain experiences.

The methodology of this study was meticulous. Infants undergoing LISA were prospectively enrolled, and skin conductance was continuously recorded from the moment of catheter insertion until several minutes post-administration. These measurements were carefully correlated with clinical pain assessment scales to verify the validity of skin conductance as an indicator of pain. By directly comparing these recordings with established pain scales, the research team sought to establish a new benchmark for real-time neonatal pain monitoring.

Data from the study revealed consistent and significant increases in skin conductance signals coinciding with the timing of surfactant catheter insertion and administration. This physiological response was evident even when traditional pain assessment scales suggested minimal discomfort, indicating that skin conductance might uncover subtle pain responses previously undetected. Such findings underscore not only the potential for underestimation of pain in neonates during LISA but also the critical need for enhancing current pain management practices in NICUs globally.

An intriguing aspect of the study was its exploration of the temporal dynamics of pain during the LISA procedure. The skin conductance data mapped out a distinct pattern: a sharp spike in sympathetic activity upon catheter insertion, followed by a gradual decrease as the procedure progressed. These physiological signatures offer a new dimension to understanding how neonates perceive and process painful stimuli over time. This temporal resolution might be invaluable for clinicians aiming to pinpoint optimal windows for analgesic interventions.

From a broader clinical perspective, the implementation of skin conductance monitoring could revolutionize neonatal pain management. Real-time feedback about an infant’s stress level could empower healthcare providers to tailor analgesic doses or modify procedural techniques dynamically, thereby minimizing unnecessary distress. Moreover, the objective nature of this tool could standardize pain assessment practices across different institutions and personnel, reducing variability caused by subjective judgment.

The research also opens avenues for further investigation. Could skin conductance monitoring be extended beyond LISA to other neonatal procedures known for causing pain? Given its non-invasive nature, this technique holds promise for widespread application—including venipuncture, heel lancing, and more invasive interventions like intubation. A universal, objective measure of pain across various neonatal procedures would be a landmark advancement in pediatric care.

Additionally, the technological integration of skin conductance sensors with other monitoring equipment could facilitate comprehensive neonatal comfort profiling. Combined data streams from heart rate variability, oxygen saturation, and skin conductance might yield composite pain indices, providing holistic and nuanced patient assessments. Such integrative approaches align well with the rising trend of precision medicine where treatments and interventions are tailored to individual physiological responses.

The study acknowledges potential limitations. Factors such as ambient temperature, humidity, and gestational age might influence skin conductance readings. Moreover, electrode placement and movement artifacts pose technical challenges that must be addressed for widespread clinical adoption. Nonetheless, the high correlation between skin conductance spikes and procedural pain events affirms the robustness of the method within controlled environments.

Ethically, the study highlights the underappreciated burden of pain in neonatal care and the moral imperative to minimize suffering. Neonates are particularly vulnerable to the long-term sequelae of unmanaged pain, including altered pain sensitivity and neurodevelopmental impairments. Incorporating objective, sensitive tools like skin conductance into routine practice can ensure that even the most fragile patients receive compassionate and evidence-based pain management.

The prospect of integrating skin conductance-based pain assessment into neonatal intensive care units (NICUs) heralds a new era where pain is not merely inferred but measured with precision. This transformation could influence training programs for healthcare professionals, emphasizing the interpretation of physiological pain metrics and corresponding therapeutic adjustments. Future guidelines on neonatal analgesia may incorporate skin conductance monitoring as a standard of care.

In conclusion, Dirler and colleagues’ pioneering work on skin conductance monitoring during less invasive surfactant administration presents a paradigm shift in neonatal pain assessment. Their prospective cohort study provides compelling evidence that physiological metrics can objectively capture pain responses, potentially enhancing neonatal outcomes through better pain control. As this technology matures and integrates into clinical workflows, it promises a future where neonatal procedures, though necessary, are no longer synonymous with unmitigated pain. The study charts a promising path toward more humane and scientifically sophisticated neonatal care.

Subject of Research: Neonatal pain assessment during less invasive surfactant administration using skin conductance monitoring.

Article Title: Pain Assessment During Less Invasive Surfactant Administration Using Skin Conductance: A Prospective Cohort Study.

Article References:
Dirler, C., Boos, V., Bassler, D. et al. Pain Assessment During Less Invasive Surfactant Administration Using Skin Conductance: A Prospective Cohort Study. Pediatr Res (2025). https://doi.org/10.1038/s41390-025-04703-9

Image Credits: AI Generated

DOI: 10.1038/s41390-025-04703-9

Tags: advancements in surfactant delivery methodsclinical research in neonatal medicineimproving neonatal care protocolsinnovative pain evaluation methodsless invasive surfactant administration techniquesneonatal comfort during medical proceduresneonatal pain assessmentpain management in neonatal careprospective cohort studies in healthcarerespiratory distress syndrome treatmentskin conductance measurement in medicinesurfactant therapy for preterm infants

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