Learning outcomes

This course is designed to familiarise students with the various techniques of surface and interface analysis using electron beams and low and high energy ion beams.

Goals

To provide students of the Master in Physics in FA with a theoretical knowledge of the main methods of surface and interface analysis, used for academic and industrial research.

Content

Low energy electron and ion spectrosopies (L. Houssiau; 50% of the overall score)

  1. X-ray photoelectron spectroscopy (XPS)
  2. Auger electron spectroscopy (AES)
  3. Secondary ion mass spectrometry (SIMS and ToF-SIMS)
  4. Low energy ion scattering (LEIS)

High energy ion spectrometry (J. Colaux; 50% of the overall score)

  1. Ion matter interaction (energy loss, straggling, cross-section)
  2. Radiation or particle detection
  3. Rutherford Backscattering Spectrometry (RBS)
  4. Elastic Recoil Detection (ERD)
  5. (Resonant) Nuclear Reaction Analysis (NRA or RNRA)
  6. Particle-Induced X- or Gamma-ray Emission (PIXE or PIGE)
  7. Synergy of IBA (Total-IBA)

Teaching methods

Lecture, illustrated mainly by PowerPoint presentations.

Assessment method

Low energy electron and ion spectrosopies (L. Houssiau, 15h)

The evaluation will be done in the form of an oral exam with preparation.


High energy ion spectrometry (J. Colaux, 15h)

The oral exam is held during the exam session and consists of a discussion based on a scientific article dealing with the analysis of specimens using high-energy ion beams. The topic of the article is open (e.g., materials science, heritage science, metrology, life sciences, geology…), provided the article was published within the last ten years.

Each student selects an article from the scientific literature and submits it to J. Colaux for approval no later than the last day of the relevant term. The same article may not be chosen by more than one student.

The assessment focuses on a critical discussion of the methodological and scientific choices made by the authors, based on a presentation prepared in advance (PowerPoint or equivalent).

Sources, references and any support material

Nuclear Physics Part 1 (G. Terwagne - Librairie des Sciences, FUNDP) Nuclear Physics Part 2 (G. Terwagne - Librairie des Sciences, FUNDP) - Librairie des Sciences, FUNDP)

Language of instruction

French
Training Study programme Block Credits Mandatory
Advanced Master in Nanotechnology Standard 0 3
Master in Physics, Research focus Standard 0 3
Advanced Master in Nanotechnology Standard 1 3
Master in Physics, Research focus Standard 1 3