Research lines

  • 1. Effects of insect pests on the quality, growth and production of forest stands.
  • 1. Effects of silviculture and forest site on timber quality.
  • 1. Modelling forest growth and productivity: tree and site models, site quality, stem profile equations and volume equations for product classification, biomass, carbon fixation and competition etc.
  • 1. Modelling the moisture content of dead fuels in forest areas and determination of seasonal patterns of moisture content in live fuels in forest and shrub land.
  • 1. Soil fertility, fertilization, and nutritional diagnosis by analysis of soils and vegetation.
  • 10. Development of innovative products for wood construction.
  • 11. Evaluation of gluing in technical wood products.
  • 12. Training and teaching of structural wood calculations.
  • 13. Estimation of carbon footprint in structural wood products.
  • 2. Effects of soil management. Conservation measures.
  • 2. Invasive species.
  • 2. Inventory and monitoring of forest resources: aerial and terrestrial LiDAR, satellites, UAV and field inventories.
  • 2. Modelling structural variables of the surface fuel characteristics that determine their flammability and combustibility.
  • 2. Physical characterization of clonal forestry plantations.
  • 3. Biochemical and soil organic matter cycles.
  • 3. Dynamics of forest insect populations: effects of temperature, plant nutrient status and defence system, microorganisms and fauna associated with growth, survival and reproduction of forest insects, in the current context of global change.
  • 3. Influence of pathogenic fungi on wood properties.
  • 3. Modelling structural variables of the tree canopy related to initiation and propagation of crown fire.
  • 3. Optimization and decision-making by multi-criteria analysis at site and forest level: linear, raw and mixed programming, heuristic techniques, differentiable methods, AHP and others.
  • 4. Cataloguing fuel types using the criteria outlined in the “Photo- guide to forest fuels of Galicia and associated fire behaviour”.
  • 4. Numerical simulation by finite elements of the resistance of timber destined for construction purposes.
  • 4. Silviculture: high growth Atlantic species, energy plantations and continuous cover forestry methods.
  • 4. The role of soil in global change: microorganism biodiversity and greenhouse gases.
  • 5. Evaluation of the efficacy of forest treatments in minimising forest fire risk.
  • 5. Optimization and calculation of timber structures and joints.
  • 5. Other uses of forests: mycological production.
  • 5. Soil pollution by heavy metals and emerging pollutants. Restoration and decontamination of soil and water.
  • 6. Forest management: protective zones and protected sites, small scale property and joint forest management groups.
  • 6. Mechanical characterization of timber for structural purposes.
  • 6. Remote sensing applied to forest fires.
  • 6. Revalorization of waste and by-products in agroforestry and environmental fields.
  • 7. Application of non-destructive techniques for the evaluation of structural timber.
  • 7. Educational innovation regarding forest fires.
  • 7. Evaluation of fire impacts on soils and restoration of burned areas.
  • 7. Forest certification: environmental, social and economic impacts.
  • 8. Development of computer programs to help in inventory and decision-making in forest management planning.
  • 8. Study of the behaviour of structural timber systems by using mechanical assays.
  • 8. Tropical soils.
  • 9. Use of photogrammetric techniques (Digital Image Correlation, DIC) for studying the behaviour of structural wood.
  • Forest fires
  • Forest health
  • Forest planning and management
  • Properties and applicactions of timber
  • Soils: nutrition, pollution and rehabilitation