TéSA

Cooperative research laboratory in Telecommunications for Space and Aeronautics

Who we are

The TéSA Cooperative Laboratory was created in 2004 as a non-profit association under the French Act of 1901, with the corporate purpose, enshrined in its articles, of conducting research in the field of space and aeronautical telecommunications and related fields. The TéSA association has academic associate members such as the École Nationale de l’Aviation Civile (ENAC), the Institut Supérieur de l’Aéronautique et de l’Espace (ISAE-Supaéro), the Institut National Polytechnique de Toulouse (Toulouse-INP), the Institut Polytechnique des Sciences Avancées (IPSA)  and the Institut des Mines Télécom Atlantique (IMT Atlantique) as well as partner members: manufacturers such as Thales Alenia Space (TAS) and Collins Aerospace (RCF), and the French Space Agency (CNES).

The association functions as a research laboratory, managed by a Scientific Committee and a Board of Directors, and welcomes research engineers as well as teachers/researchers from the academic associate members, who can come and spend part of their research time in TéSA. In addition, some fifteen PhD and post-doctoral students are affiliated with TéSA and supervised by professors from the academic associate members.

Itsfield of expertise include digital communications, signal and image processing, and networks. The fields in which TéSA studies and theses apply are space communications systems, aeronautical communications systems, Earth observation, positioning and navigation, and related fields.

Our Expertise

TéSA expertise includes:

  • Digital Communications,
  • Networking,
  • and Signal and Image processing.

Click on the different boxes to focus on more specific keywords.

▼
▼
Digital communications
▼
▼
Equalization and predistortion
▼
▼
Linear
▼
Nonlinear
▼
Blind
▼
Channel model
▼
Precoding
▼
Coding
▼
▼
Network coding
▼
Iterative coding
▼
Source coding
▼
Channel coding
▼
Waveform
▼
▼
Non-coherent modulation
▼
Multicarrier modulation
▼
Multiuser detection (MUD)
▼
Synchronization
▼
Modulation recognition
▼
4G and 5G for satellite
▼
Optical communications
▼
Access
▼
▼
FDMA, SC-FDMA
▼
CDMA
▼
IoT access method
▼
Spectrum surveillance
▼
Cognitive radio
▼
Architecture
▼
▼
Satellite constellation
▼
MIMO systems
▼
4G and 5G
▼
Link budget optimization
▼
Software-defined radio
▼
Optical communications
▼
Antenna processing
▼
Signal and image processing
▼
▼
Positioning and navigation
▼
▼
Direction of arrival
▼
Vision
▼
Hybridization
▼
GNSS
▼
▼
Propagation channel
▼
Multipaths
▼
Tracking
▼
Inertial / odometry
▼
Signals of opportunity
▼
▼
Wifi
▼
Terrestrial signals
▼
UWB
▼
Radar and positioning
▼
▼
Tracking
▼
Array processing
▼
Altimetry
▼
Detection of targets and obstacles
▼
SAR processing
▼
Interferences
▼
AIS / radar
▼
3D direction finding
▼
Interferometry
▼
Image processing
▼
▼
Deconvolution
▼
Anomaly detection
▼
Change detection
▼
Segmentation / classification
▼
Machine learning
▼
Denoising
▼
Hyperspectral
▼
Synthetic aperture imaging
▼
3D reconstruction
▼
Signal processing
▼
▼
Array processing
▼
Anomaly detection
▼
Classification
▼
Machine learning
▼
Estimation / Detection
▼
▼
Event detection
▼
Bayesian
▼
Sparse
▼
Spectral analysis
▼
Filtering
▼
▼
Kalman
▼
Particle
▼
Filter banks
▼
Statistical modeling
▼
Wavelets
▼
Networking
▼
▼
Transport protocols
▼
▼
Performance enhancement proxies (PEP) and PEP-less approaches
▼
Congestion Control
▼
Protocol
▼
Cross-layer mechanisms
▼
Reliability
▼
Access
▼
▼
Effective encapsulations
▼
Energy-saving techniques
▼
Resource allocation
▼
Random access
▼
Architectures
▼
▼
CDN/ICN
▼
Hybridization
▼
IoT
▼
Mobile cellular networks (5G, 6G)
▼
Virtualization and software networking
▼
Interconnection of heterogeneous networks
▼
Routing and mobility
▼
▼
DTN
▼
Load balancing
▼
Handover
▼
Routing in satellite constellations
▼
Security
▼
▼
Intrusion detection
▼
Asymmetric cryptography
▼
Blockchain
▼
Authentication
▼
Quality of service and experience (QoS, QoE)
▼
▼
Traffic engineering
▼
QoE assessment
▼
Methods and tools
▼
▼
Ground network optimization
▼
Traffic prediction / ML
▼
Simulation and emulation
▼

Application Domains

The fields in which TéSA research and PhD studies apply are:

  • Space and Aeronautical communication systems,
  • Positioning and Navigation,
  • Earth Observation,
  • and related fields.

Click on the different boxes to focus on more specific keywords.

▼
▼
Positioning, navigation and timing (PNT)
▼
▼
GNSS system
▼
▼
Hybridization / Augmentation
▼
Interferences
▼
Robust localization
▼
Precise positioning
▼
Low cost receivers
▼
Oversea monitoring
▼
▼
AIS system
▼
Satellite constellations
▼
▼
COSPAS - SARSAT
▼
ARGOS System
▼
Satellite swarms
▼
▼
Positioning / Timing / ISL
▼
Time scales
▼
Related domains
▼
Earth observation
▼
▼
Imaging systems
▼
▼
Hyperspectral images
▼
Radar images
▼
Optical images
▼
Oceanography
▼
▼
Altimetry
▼
Reflectometry
▼
Environment monitoring
▼
Instrumentation / Calibration
▼
▼
Estimation of instrument transmittance
▼
Aeronautical applications
▼
▼
Navigation tools
▼
Diagnosis / Monitoring
▼
Space telecommunications
▼
▼
Satellite IoT
▼
▼
ARGOS
▼
LPWAN Communications
▼
Hybrid systems TN/NTN
▼
Mobile systems
▼
Fixed systems
▼
▼
Optical transmission
▼
Payloads
▼
Monitoring and classification
▼
Diffusion systems
▼
▼
Cooperative communications
▼
Satelilite swarms
▼
Satellite constellations
▼
Telemetry, Telecommand and Control (TMTC)
▼
▼
Anomaly detection
▼

They trust us

CNES
Thales Alenia Space
Collins Aerospace
SpaceAble

ADDRESS

7 boulevard de la Gare
31500 Toulouse
France

CONTACT


CNES
Thales Alenia Space
Collins Aerospace
Toulouse INP
ISEA-SUPAERO
IPSA
ENAC
IMT Atlantique