ETSIAEResearch ActivitiesResearch groups

Research Groups

Research lines

Below are the main research lines of ETSIAE. Within each one, specific research areas are detailed. For more information, you can contact the Subdirectorate of Research and Doctorate: subdireccion.id.aeroespacial@upm.es.

 

1. Analysis and Design of Missions and Aerospace Vehicles

  • Design of small aerial vehicles (MAV, micro air vehicles)
  • Design of bioinspired aircraft
  • Attitude control of spacecraft
  • Scientific operations in microgravity
  • Experimentation in microgravity
  • Orbital mechanics and mission design
  • Space mission design
  • Design and simulation of aerospace structures
  • Propeller and Rotor Systems
  • Solar Power
  • Astrodynamics: Orbital perturbations
  • Analytical and semi-analytical methods
  • Minimum distance between orbits (asteroids, space debris)
  • Structural dynamics, vibro-acoustics
  • Aeroelasticity

2. Plasma Physics and Technological Applications

  • Numerical simulation of inertial confinement fusion processes

3. Fluid Mechanics, Heat Transfer, and Combustion

  • Hydrogen combustion, thermoacoustic instabilities, direct use of alternative fuels
  • Compressible flow, shock waves, detonations, supersonic combustion
  • Electrohydrodynamics
  • Combustion
  • Space Thermal Engineering
  • Thermal control with phase change materials (PCMs)
  • Vibrated fluids in microgravity
  • Sloshing control
  • Fluid physics in microgravity, bifurcations, symmetries
  • Aeromechanical phenomena in sustainable aviation engine configurations
  • Reduced models for improving aircraft aerodynamic performance and damage diagnostics
  • Modeling and optimization of fluid dynamics problems
  • Analysis and development of the Lattice Boltzmann method
  • Geothermal energy
  • Large-scale thermal energy storage
  • Development of mathematical models, reduced models, deep learning, machine learning, artificial intelligence tools, data science, CFD simulation, control tools
  • Flow control
  • Propeller and Rotor Systems
  • Solar Power
  • Boundary Layers and Heat Transfer: Laminar
  • Boundary Layers and Heat Transfer: Turbulent
  • Separated Flows
  • Subsonic Flow
  • Unsteady Flows
  • Experimental fluid mechanics and combustion
  • Aeroelasticity
  • Turbulence
  • Large-scale computation
  • Computational fluid mechanics
  • CFD: Modeling and simulation
  • Modeling of reduced chemistry for combustion
  • Phase change modeling
  • Reactive flow problems
  • Mathematical modeling and numerical resolution of reactive flows
  • Numerical methods for high Reynolds number flows
  • Numerical methods for compressible multi-material flows
  • Data analysis of fluid and biomedical mechanics using data-driven techniques
  • Visualization of flow at extremely low Reynolds numbers

4. Design, Modeling, and Simulation of Systems

  • Surface physics and nanomaterials
  • Artificial intelligence: Reservoir neural networks. Prediction of complex time series. Applications to predictive maintenance and detection of large fluctuations
  • Non-linear deterministic and stochastic dynamics, time-delay systems, unstable dynamics. Critical state systems
  • Turbulence: Analytical description of the cascade process. Relevance in information processing. Multifractality. Complex systems
  • Inverse problems and numerical methods

5. Aerodynamics

  • Visualization of flow at extremely low Reynolds numbers
  • Low Reynolds number aerodynamics
  • Computational fluid mechanics (CFD): High-order methods (DG) and lattice Boltzmann methods
  • Boltzmann (LBM): Mesh adaptation methods
  • Boltzmann (LBM): Multiphase
  • Machine learning: Deep neural networks. Regression: Reinforcement learning. Unsupervised machine learning (clustering)
  • Data analysis of fluid and biomedical mechanics using data-driven techniques
  • Dynamics and stability of the in-flight refueling system using the hose-and-drogue method
  • Unsteady aerodynamics for compressible flows and active aeroelastic control in two-dimensional wings
  • Experimental civil aerodynamics

6. Aerospace Production and Materials

  • Advanced alloys: Physical and mechanical metallurgy
  • Advanced and smart materials
  • Metamaterials applied to vibration attenuation
  • Nanomaterials
  • High-performance metallic materials produced by additive manufacturing, metal powder recycling, and powder metallurgy
  • Bioengineering of tissue mechanics, cellular behavior, and growth

7. Air Transport Systems and Operations

  • Air transport
  • Safety analysis and evaluation models in ATM (Air Traffic Management)
  • Performance evaluation of human factors in ATM automation
  • Traffic flow and capacity prediction models
  • Air traffic management (ATM), air traffic control (ATC), and the introduction of AI in these areas
  • Avionics systems simulation

8. Technologies for Decarbonizing Energy and Transportation

  • Hydrogen combustion, thermoacoustic instabilities, direct use of alternative fuels
  • Sustainable Aviation Fuel (SAF)
  • Photovoltaic and photorefractive effects, optical damage, manipulation of particles using photovoltaic optical tweezers
  • Synthetic turbulence generation applied to atmospheric turbulence for aeroelastic simulation of wind turbines
  • Modeling of energy systems with high renewable penetration applied to wind energy analysis in the decarbonization process
  • Improvement of cup anemometer performance and wind speed measurement accuracy
  • Theoretical study of high-efficiency photovoltaic materials
  • Aerodynamic response of flat solar trackers and solar tables
  • Wind Energy:

    • Computational models for conceptual wind turbine design
    • Vortex shedding from wind turbine towers
    • Reduced aeroelastic models of wind turbines
    • Damping of resonances using dynamic dampers
    • Simulation of floating wind turbines and multiple rotors
    • OpenFAST-FVM
    • Time series prediction
    • Generation of synthetic wind using SRM and VARM
    • WRF-LES-GAL simulation
    • Prediction (microscale) of wind fields at sites using CFD for wind resource estimation
    • Computational and Experimental Aeroacoustics for Noise Prediction and Control

9. Other

  • Computational simulation of solids, multiphase physical systems, and structures

    • Bioengineering of tissue mechanics, cellular behavior, and growth
    • Artificial intelligence, digital twins, and computer vision
    • Metamaterials and structural engineering

  • Digital transformation and entrepreneurship in the aerospace industry
  • Dynamic and fatigue behavior of materials used in civil engineering, especially concrete
  • Self-repairing processes of cementitious materials