School of MEP, Energy & Utilities
The school that trains engineers who design, transform, and operate the systems that make modern cities function.
The School of MEP, Energy & Utilities at GUTEC University is one of the institution’s most strategic academic divisions, focused on specialized training in mechanical, electrical, energy, and essential urban services installations. This school integrates applied engineering, advanced technology, sustainability, digitalization, international regulations, and critical network operation, making it a global benchmark for training professionals in the AEC, industrial, and public services sectors.
The School’s mission is to prepare future technical leaders who will be capable of designing, modernizing, optimizing, and operating MEP systems, energy infrastructures, urban networks, industrial facilities, and decarbonization solutions, ensuring the safety, efficiency, and continuity of essential services.
This is where the talent that sustains the actual functioning of buildings, cities, and industries is trained: energy, air conditioning, electricity, water, sanitation, ventilation, refrigeration, PCI, home automation, digital networks, substations, remote control, and utilities. Our approach combines a rigorous technical foundation with mastery of specialized software, BIM methodologies, monitoring platforms, advanced instrumentation, and integration with digital twins.
A multidisciplinary school created for the energy needs of the future.
MEP engineering and utilities are undergoing one of the most intense periods of transformation in their history. The energy transition, NZEB buildings, electrification, self-consumption, electric mobility, energy efficiency, data centers, urban growth, and technological advances require highly trained professionals.
The School of MEP, Energy & Utilities is designed for those who want to master:
- Design of HVAC thermal and air conditioning installations.
- Low, medium, and high voltage electrical installations.
- Ventilation, extraction, and pressurization systems.
- Fire protection.
- Industrial and commercial refrigeration.
- Plumbing, sanitation, and urban networks.
- Energy efficiency and international certification.
- Integration of renewable energies.
- Data centers and critical MEP.
- Operation of substations and electrical systems.
- Water, gas, heating, and cooling networks.
- Digitization (BMS, IoT, SCADA).
- Predictive maintenance and asset management.
- Energy transition and decarbonization.
Energy transition and decarbonization. It is a key school for engineers, technicians, architects, MEP specialists, maintenance managers, utility operators, energy managers, and consultants.
Areas of specialization at the School.
The main areas that make up this school are described below, each structured around real market needs and cutting-edge technologies.
This area covers everything from thermodynamic fundamentals to the detailed design of HVAC systems in residential, commercial, hospital, and industrial buildings. Students learn to:
Size equipment and ductwork.
Select VRF/VRV systems, chillers, heat pumps, and AHUs.
Calculate thermal loads using specialized software.
Design ventilation systems with air quality criteria.
Apply RITE, ASHRAE, and international standards.
Integrate HVAC systems into BIM models.
Optimize consumption and ensure comfort.
The application of emerging technologies such as smart ventilation, free cooling, heat recovery, and high-efficiency HVAC for NZEB is also studied.
The world is becoming electrified. This area prepares professionals capable of designing and operating modern energy networks. Electrical systems are studied at all scales:
Low-voltage installations.
Self-consumption, solar panels, inverters, and batteries.
Electric mobility and charging points.
Transformation centers and MV/HV substations.
Electrical protections, selectivity, and coordination.
Smart grids.
REBT, IEC, and IEEE standards.
Electrical modeling and dimensioning with technical software.
Students will understand the complete operation of the electrical infrastructure that powers buildings and cities.
In-depth coverage of:
- Plumbing and water supply.
- Sanitation and drainage networks.
- Pumping and drive systems.
- Greywater reuse.
- Urban supply networks.
- Storm drainage, SUDS, and urban resilience.
- Basic and advanced hydraulic modeling.
- Inspection and diagnosis of existing networks.
Los estudiantes aprenden a diseñar sistemas PCI basándose en normativas UNE, NFPA e ISO, abordando:
- Rociadores automáticos.
- BIEs, hidrantes y grupos de presión.
- Detección y alarma.
- Compartimentación y control de humos.
- Diseño prestacional basado en simulaciones.
- Integración con sistemas de evacuación y ventilación.
La escuela desarrolla competencias para proyectos de reforma, obra nueva e instalaciones críticas.
Complex systems are studied in the following areas:
- Food industries.
- Cold chain logistics.
- Supermarkets and catering.
- Solutions using transcritical CO₂, ammonia, glycols, and modern refrigerants.
- cold rooms, freezing tunnels, and industrial racks.
- energy efficiency in refrigeration.
This area trains professionals for one of the most demanding sectors in the world. The following topics are studied:
- MEP design for Tier II–IV data centers.
- N, N+1, 2N redundancy.
- Electrical systems and UPS.
- Precision cooling, free cooling, and adiabatic cooling.
- Environmental control, security, and digital infrastructure.
- Data center operation and maintenance.
- Uptime Institute and ASHRAE TC9.9 standards.
The following topics are covered:
- Energy certification (LEED, BREEAM, VERDE).
- Energy simulation.
- Decarbonization strategies.
- Energy audits.
- Integration of renewables in buildings.
- Designing strategies to reduce consumption.
- Waste energy recovery models.
La digitalización es esencial en los sistemas MEP. Por ello, la escuela enseña:
- Integración de sensores IoT.
- Control de climatización, iluminación y ventilación.
- BMS y sistemas SCADA.
- Automatización y control avanzado.
- interoperabilidad con gemelos digitales.
- Mantenimiento inteligente basado en datos.
Students understand the infrastructure that supports a modern city:
- Drinking water and wastewater.
- Heating and cooling networks.
- Gas and fuels.
- Urban electrical networks.
- Remote control and remote metering.
Applied academic methodology.
- Master classes with expert engineers
- Practical workshops,
- Exercises with real software,
- Simulation and modeling of facilities,
- Practical experience in digital twins and BMS/SCADA systems,
- Integrated projects in buildings and infrastructure,
- Technical mentoring
- Digital visits to real facilities (data centers, industrial plants, substations).
All programs are designed so that students can apply their knowledge to real projects from day one.
Relationship with industry and career opportunities.
- Global MEP companies.
- Electricity, water, and gas utilities.
- Data center operators.
- Building engineering companies.
- Food and logistics industries.
- Public administrations.
- Maintenance and facility management companies.
- HVAC engineer.
- MEP designer.
- MV/HV electrical engineer.
- PCI specialist.
- Industrial refrigeration engineer.
- Data center technician.
- Energy manager.
- Commissioning engineer.
- Maintenance manager.
- Utilities and networks engineer.
Programs such as Talento GUTEC allow students to access jobs, fairs, internships, and opportunities in different countries.