Industrial Partnerships
Structured research relationships around feasibility studies, demonstrators, measurements, algorithms, component integration, and technology transfer.
Industrial Partnerships: possible collaboration formats
- Exploratory scientific discussion
- Feasibility measurements
- Joint proposal or consortium preparation
- Component or algorithm co-development
- Student, doctoral, or postdoctoral research
A useful collaboration starts with a clearly stated decision or scientific question. Early exchanges can establish whether terahertz contrast is physically plausible, which samples and references are needed, and whether the work is best framed as an exploratory measurement, a research project, or a longer development programme.
Building a well-defined research collaboration
Scope, data ownership, confidentiality, sample handling, publication expectations, and validation criteria should be agreed early. The project should also define how negative or ambiguous results will be interpreted, because demonstrating the limits of a modality can be as valuable as confirming feasibility.
For consortium work, the strongest projects connect complementary expertise: domain knowledge, sample access, terahertz instrumentation, modelling, signal processing, reference metrology, and a credible route to validation. Historical collaborators named in the source dossier are not presumed to be involved in future proposals.
Related publications
- Theoretical and experimental studies of metallic grids absorption: Application to the design of a bolometer — DOI
The study delivers a comprehensive, validated framework for designing metallic grid absorbers with precisely tailored electrical resistivity, enabling the creation of efficient, room‑temperature bolometers and other thermal detectors. By treating structured metal layers as equivalent homogeneous films whose resistivity depends on geometry, the authors derived analytical expressions for transmission, reflection, and absorption that incorporate skin‑depth effects and diffraction when the grid period approaches the wavelength. Numerical simulations and experimental measurements at 0.3 THz and in the RF band confirm the model’s accuracy, demonstrating that…
- Propagation beam consideration for 3D THz computed tomography — DOI
The study introduces a new physical model that captures the real behaviour of terahertz (THz) radiation when used for three-dimensional tomographic imaging. Unlike conventional X‑ray methods that treat the beam as a straight, uniform ray, the authors model the THz pulse as a Gaussian beam whose intensity spreads during propagation. This model is incorporated into a realistic acquisition simulator, allowing researchers to predict how the beam will illuminate an object from different angles and to produce more accurate projection data—sinograms—than those obtained with the…
- Aeronautics composite material inspection with a terahertz time-domain spectroscopy system — DOI
- A comprehensive study of the application of the EOP techniques on bipolar devices — DOI
The study demonstrates that Electro‑Optical Probing (EOP), a non‑invasive laser‑based diagnostic technique, can be reliably applied to bipolar semiconductor devices to uncover internal electrical activity and identify failure mechanisms that are otherwise invisible to conventional analysis. By measuring the modulation of a reflected 1350 nm laser beam on the backside of transistors, the researchers quantitatively correlated signal variations with the electric field, carrier distribution, and doping profiles within the base, emitter and collector regions. Experiments on both a reference NPN transistor array and a…
- Ordered subsets convex algorithm for 3D terahertz transmission tomography — DOI
This research introduces a practical, high‑performance technique for three‑dimensional terahertz (THz) tomography that is designed to meet the stringent demands of non‑destructive inspection in industrial and cultural heritage contexts. The method refines the maximum‑likelihood reconstruction framework originally developed for X‑ray computed tomography, integrating a realistic Gaussian beam propagation model that captures THz diffraction and intensity variation across the sample. By incorporating direct measurements of the system’s blank‑scan background and dark‑field signals into the algorithm, the approach delivers robust estimates of material attenuation without the…