School of Water, Hydrology & Environment

The school that trains specialists who guarantee water, climate resilience, and environmental sustainability for the planet.

The School of Water, Hydrology & Environment at GUTEC University is dedicated to advanced water engineering and management, applied hydrology, environmental design, and climate resilience. Its purpose is to train professionals capable of facing one of the greatest challenges of the 21st century: ensuring the sustainability of water resources, environmental quality, and the protection of infrastructure and cities against natural and climate risks.

In a world where water has become a critical asset, where extreme events are increasing in frequency, and where urban and industrial pressure demands efficient solutions, this school represents a comprehensive, modern academic response geared toward real results.

The school integrates civil, environmental, and process engineering with hydrological and hydraulic modeling tools, international regulations, nature-based solutions, circular economy, and sustainability policies. Its approach is global: it trains specialists to work on urban projects as well as national infrastructure, coastal areas, watersheds, and industrial treatment systems.

A school created for the great challenges of water and climate.

This school is geared toward professionals and students who wish to specialize in:

The approach is based on a simple but critical idea: water engineering can no longer be separated from climate, energy, and land use. For this reason, the school combines technical skills with strategic vision, sustainability, and risk management.

Areas of specialization at the School.

The School of Water, Hydrology & Environment is structured around several key areas covering the entire water cycle and its relationship with the territory, the city, and the environment.

This area teaches students to understand and model the behavior of water on the surface of the land, especially in situations of heavy rain and extreme events. It covers everything from the basics of hydrology to the generation of risk maps, flood modeling, and infrastructure impact assessment.

Students learn to use tools such as HEC-HMS and HEC-RAS, analyze historical series, estimate design flows, understand the role of climate change, and convert technical models into planning decisions. This area also includes the creation of risk maps for licenses, urban plans, and engineering projects, as well as the assessment of the vulnerability of critical infrastructure.

The concept of resilience is central: it is not just a matter of calculating flow, but of designing solutions to reduce damage, increase resilience, and protect populations and assets.

Modern cities require advanced drainage solutions, especially in the face of intense storms, urban waterproofing, and network saturation. In this area, the school teaches urban drainage design and operation and SUDS (Sustainable Urban Drainage Systems) strategies.

Students learn to design solutions such as:

stormwater tanks and laminated tanks.
permeable pavements.
rain gardens and bioretention.
drainage ditches and infiltration wells.
green roofs and green infrastructure.
urban canals and city water restoration.

Rainfall resilience is addressed from an engineering perspective and also from a sustainable urban planning perspective, including maintenance, costs, performance indicators, and operation in real environments.

Drinking Water, Wastewater, and Reuse Treatment

Dado el aumento de estrés hídrico en muchas regiones del mundo, la escuela ofrece una formación específica en desalinización y sistemas de suministro en zonas costeras. Se trabajan:

  • plantas de ósmosis inversa, ED/UF, pretratamiento.
  • análisis energético y ERD (Energy Recovery Devices).
  • control del fouling y scaling.
  • diseño hidráulico de impulsión y bombeo.
  • integración con energía renovable.
  • gestión de salmueras y su impacto ambiental.
  • planificación hídrica en zonas turísticas y urbanas costeras.

Este ámbito resulta especialmente estratégico para proyectos en regiones con escasez de agua o alta dependencia del turismo.

Beyond traditional engineering, this area teaches how to work with nature to stabilize rivers, control flooding, and restore ecosystems. It covers:

restoration of river channels and recovery of riverbanks.
bioengineering solutions.
improvement of ecological connectivity.
natural water retention.
sediment management.
green corridors and urban adaptation.

Students learn to develop projects that meet environmental and infrastructural objectives, generating multiple benefits: risk reduction, improved biodiversity, and landscape value.

Environmental Assessment, Carbon Footprint, and Circular Economy

Environmental Monitoring and Data for Sustainability

Applied and comprehensive academic methodology.

The School of Water, Hydrology & Environment develops its teaching with an intensive methodology that combines:

Hydrological and hydraulic modeling based on real cases

Design of SUDS and urban solutions with an operational focus

Applied practice of ETAP/WWTP plants with simulation and process control

Climate resilience integration projects

Environmental analysis with actual engineering documentation

International approach, adapting cases to multiple regulations by country

El estudiante finaliza con proyectos aplicados como: mapas de riesgo, planes SUDS para barrios, estrategias de descarbonización de infra, diseño conceptual de EDAR, proyecto de reúso o estrategia de adaptación climática para un activo crítico.

Career opportunities.

Professionals trained at this school are in high demand in consulting, industry, and administration. Some career opportunities include:

Relationship with industry and real projects.

The school has international agreements with:

These partnerships enable practical experience, real-world cases, technical challenges, and access to global opportunities.

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