Operating theatres
BMS platform for analysis. For instance, the iTCP monitors the performance of critical systems such as air handling units, UCV systems, and medical gas supplies. If a filter in the air handling unit begins to degrade, the system detects the change in airflow efficiency and triggers an alert. Similarly, if the performance of a UPS battery declines, the iTCP conducts automated load tests and reports the findings to the BMS. This allows maintenance teams to replace components proactively, ensuring that systems remain operational and reliable. Energy monitoring is another key benefit of the
intelligent theatre control panel. By integrating all power, HVAC, gas, and environmental systems within the digital operating room, the iTCP provides a comprehensive overview of energy consumption patterns. This interconnectedness enables healthcare facilities to manage overall power usage more effectively. For instance, hospitals can align on-site renewable energy generation with the iTCP to reduce reliance on external power sources. By leveraging real- time data, facilities can ensure that energy is used efficiently and sustainably, contributing to broader Net Zero goals.
From passive to active data: the integration of digital or and BMS For years, building management systems (BMS) and Digital Operating Room (OR) technologies operated in silos, despite being two crucial components of modern hospitals. Building systems traditionally controlled lighting, HVAC, and security, while Digital OR technologies managed room environments, occupancy data, and visual display technology. Isolated power supplies and ultraclean ventilation systems were handled separately, with little to no data sharing between the two disciplines of Digital OR and BMS. However, recent advancements have
bridged this gap, transforming the relationship between Digital OR systems and BMS. Modern OR camera systems, for instance, can now detect room occupancy even when not in use for surgical procedures. Local environmental sensors provide real-time data on temperature, CO2
levels, particulates and air quality, which can be seamlessly integrated into the BMS. Alarm monitoring data, HVAC status, power consumption, and airflow metrics from within the OR can now be managed as an integral part of the overall building BMS scheme. This shift from passive to active data marks a turning point in hospital operations. Instead of relying on historical insights, organisations
can now leverage artificial intelligence (AI) to optimise workspace conditions in real time. For example, AI algorithms can dynamically adjust HVAC settings, lighting, and room availability based on current occupancy and environmental conditions. This not only enhances energy efficiency but also improves the comfort and safety of patients and staff.
The synergy between digital or controls and on-site energy systems The integration of Digital OR controls with on-site energy systems can represent a pivotal step toward achieving the NHS’s Net Zero carbon goals. By leveraging the capabilities of uninterruptible power supplies (UPS), battery storage, isolated power protection systems and advanced power management tools, healthcare facilities can unlock new efficiencies in power management and sustainability. Digital integrated theatre control panels
(iTCP) play a crucial role in this transformation. These systems enable real-time monitoring and active management of energy consumption, generating actionable data for central building management systems (BMS). This data supports broader environmental and operational objectives, such as reducing energy waste and lowering carbon emissions. The synergy between Digital OR controls
and site-wide energy systems enhances the resilience of healthcare facilities. In the event
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www.clinicalservicesjournal.com I January 2026
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