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Research

Research lines

Six areas of work that share methods and instruments, and that respond to the specific conditions of southern Peru.

01

Photovoltaic solar energy

How photovoltaic modules and systems actually perform in the high-altitude climate of southern Peru.

Arequipa combines unusually high irradiance with harsh conditions for a solar panel: large daily temperature swings, intense ultraviolet radiation and airborne dust. Datasheet values, measured under standard conditions, describe poorly what happens here.

This line measures effective field performance, tracks module degradation over time and assesses how soiling and cleaning strategies affect the energy produced.

It also covers the sizing of off-grid systems for rural areas without grid access and the analysis of their technical and economic feasibility.

  • Current-voltage curves
  • Module degradation
  • Soiling and cleaning
  • Off-grid systems
  • Solar pumping
02

Solar thermal energy

Using the sun's heat for domestic and productive purposes, with technology that can be replicated locally.

The region's solar resource can cover much of the heat demand that is met today with firewood, liquefied gas or electricity.

We design and test collectors, solar water heaters, crop dryers and solar cookers, measuring their thermal efficiency and their behaviour throughout the year.

The design criterion is that they can be built and repaired locally with accessible materials: a technology nobody can maintain solves nothing.

  • Solar collectors
  • Solar drying
  • Solar cookers
  • Thermal storage
  • Thermal efficiency
03

Solar resource and UV radiation

Continuous measurement of irradiance and ultraviolet radiation, and models to estimate the resource where there is no station.

Without long, reliable measurement series, no installation can be sized and no project can be assessed. This line keeps a continuous record of global, diffuse and ultraviolet irradiance.

Those data are used to fit and validate solar resource models and to produce maps for locations without their own instruments.

The region's altitude pushes the ultraviolet index above usual values, which makes monitoring it a public health matter as well as an energy one.

  • Global and diffuse irradiance
  • Ultraviolet index
  • Time series
  • Clear-sky models
  • Resource maps
04

Air quality and atmosphere

Measurement and analysis of particulate matter and aerosols in urban areas and around extractive activity.

Fine particulate matter is the pollutant with the best-documented effect on respiratory health, and its distribution within a city is very uneven.

We run PM2.5 and PM10 monitoring campaigns, study the optical properties of aerosols and analyse how local meteorology disperses or concentrates pollutants.

The results are meant to provide a technical basis for urban planning and environmental policy decisions.

  • PM2.5 and PM10
  • Atmospheric aerosols
  • Pollutant dispersion
  • Local meteorology
  • Monitoring campaigns
05

Materials for energy

Synthesis and characterisation of materials for photovoltaic conversion and environmental treatment.

Experimental work on thin films and semiconductor nanomaterials with applications in photovoltaic devices.

Characterisation combines optical, structural and electrical properties to relate how a material is prepared to its final performance.

A second strand deals with photocatalysis for degrading pollutants in water, at the boundary between materials and the environment.

  • Thin films
  • Semiconductors
  • Nanomaterials
  • Photocatalysis
  • Optical characterisation
06

Energy efficiency and buildings

Thermal comfort and energy demand in housing, with a focus on the high Andes.

In much of the Peruvian highlands, houses are built with no thermal criteria at all, and sub-zero nights are endured without heating. It is a health problem before it is a comfort problem.

This line assesses the thermal behaviour of existing buildings, tests low-cost passive solutions — Trombe walls, attached greenhouses, insulation with local materials — and measures their real effect on indoor temperature.

It is complemented by energy audits and by simulation of building performance throughout the year.

  • Thermal comfort
  • Bioclimatic architecture
  • Trombe wall
  • Energy audit
  • Energy simulation

Interested in any of these lines?

We welcome thesis students and interns, and we collaborate with groups from other institutions on joint projects.