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 UPS runtime is not a fixed figure on a specification sheet. It depends on the measured critical load, battery condition and temperature, UPS efficiency, and the time needed for the alternative supply to take over. This article explains how to turn those factors into a defensible estimate and verify it through a planned, traceable test.
It covers clinical operating scenarios, manufacturer discharge curves, variation between battery blocks, coordination with the generator and safe end criteria. It also sets out the data to record during acceptance and the trends to monitor throughout the battery bank’s life. The aim is to demonstrate useful operating time under the site’s defined electrical and clinical conditions without disrupting care or unnecessarily shortening battery life.
Selecting a medical isolation transformer takes more than adding up equipment nameplate ratings. This article explains how to turn a clinical equipment inventory into realistic load scenarios, assess simultaneous demand, inrush currents, impedance, selectivity and planned expansion, and verify that the panel retains adequate thermal headroom under actual operating conditions. It also covers commissioning measurements, thermal imaging interpretation and the evidence maintenance teams need to retain. A practical design matrix, guidance on integrating single-phase and three-phase solutions, common mistakes and a step-by-step verification plan connect the calculations to the installed system. The aim is a coordinated, maintainable medical IT installation that can accommodate future changes without arbitrary oversizing or compromising continuity of patient care in operating theatres and critical areas.
The first insulation fault in a medical IT system should not interrupt an operating room, but it must trigger an immediate technical response. This article explains how the insulation monitor detects degradation, how the ES 449 current injector generates a limited locating signal and how the ES 448 fault locator identifies the affected circuit without compromising continuity of care.
It also examines the role of the ES 1000A, coordination between channels and measuring current transformers, common fault sources and the protocol maintenance teams should follow from the initial alarm to the completed repair. Precise fault location prevents unnecessary disconnections, shortens diagnosis and enables selective, documented and safe intervention in operating rooms, ICUs and other critical hospital areas around the world.
Power quality in hospitals depends on more than keeping the supply available. Harmonics, voltage dips, transients, phase imbalances and frequency variations can expose transformers, UPS systems, motors, control systems and sensitive equipment to stresses that do not always cause an immediate outage.
This article explains how to distinguish each disturbance, which symptoms justify a measurement survey and where analysers should be installed to obtain meaningful data. It also sets out a method for correlating electrical records with load changes, alarms and clinical incidents, avoiding diagnoses based on a single reading. The aim is to turn power quality into a verifiable process: define the problem, measure it in context, locate its source and validate any corrective action under comparable operating conditions.
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.