IT power supply systems
International and local standards require insulated voltage power systems for hospital critical areas.
We have a strong presence in hospitals throughout Spain and are steadily advancing toward international expansion. Our electrical safety systems are implemented in leading healthcare facilities, ensuring protection in critical hospital environments.

ETKHO Presence Area

ETKHO Project Details
We develop hospital electrical safety infrastructure solutions for
critical areas of hospitals: operating rooms, ITU or ICU.

International and local standards require insulated voltage power systems for hospital critical areas.

The medical insulation monitor continuously oversees the insulation resistance of IT medical systems.

Grounding sockets and connectors are essential in creating an equipotential ground connection, helping to avoid contact voltages in critical medical areas.
Hospital commissioning makes it possible to technically validate critical areas before they enter service, ensuring that electrical systems, alarms, UPS, medical IT systems, transformers and ground connections operate correctly before the first clinical use.
In this article, we explore how the commissioning process helps reduce risks, detect errors before opening and ensure a safer, more documented hospital start-up prepared for operating rooms, ICUs, diagnostic rooms and other critical areas.
Protection coordination in hospitals helps limit the impact of electrical faults and prevent unnecessary disconnections in operating rooms, ICUs, diagnostic imaging, laboratories and other critical areas. Its purpose is not only to protect the installation, but to ensure that the right protection operates at the right point without compromising continuity of care.
In this article, we explain how hospital electrical selectivity works, which mistakes can cause non-selective trips, and how medical IT systems, insulation monitors, UPS systems, isolation transformers, grounding connections and hospital commissioning help build safer and more resilient electrical infrastructures.
Hospital technical alarms make it possible to detect, communicate and prioritize electrical incidents in operating rooms, ICUs, diagnostic rooms, laboratories and other critical areas. Their value does not depend only on issuing a signal, but on enabling a fast, clear and risk-based response.
In this article, we analyze how to classify alarms by criticality, reduce alarm fatigue and improve technical alarm management through medical IT systems, insulation monitors, alarm repeaters, UPS, transformers and grounding connections.
Predictive maintenance in hospitals helps anticipate electrical failures before they affect operating rooms, ICUs, diagnostic rooms or critical technical areas. Through continuous monitoring, electrical signal analysis and alarm interpretation, hospitals can improve continuity of care and strengthen patient safety.
In this article, we explore how to move from calendar-based maintenance to a predictive model supported by real operating data. We also explain the role of IT systems, insulation monitors, UPS, transformers and monitoring solutions in protecting critical hospital infrastructures.
Hospital digital twins are transforming hospital engineering through advanced monitoring, real-time simulation and predictive maintenance. By integrating electrical systems, digital platforms and intelligent analytics, hospitals can anticipate incidents, improve continuity of care and strengthen hospital electrical safety.
In this article, we explore how hospital digital twins work, which operational decisions they improve, and why they are becoming a key element in smart, resilient hospitals prepared for the digital future.
Hospital microgrids are transforming how healthcare facilities manage energy resilience, electrical continuity, and operational autonomy. By integrating renewable generation, energy storage, backup systems, and intelligent monitoring, they help hospitals maintain critical services even during grid failures or external incidents.
In this article, we explore how hospital microgrids work, why they are essential for operating rooms, ICUs, imaging rooms, and data centers, and how hospital engineering can design safer, more resilient, and energy-autonomous infrastructures without compromising patient safety.