Thesis Offers (B.Sc., M.Sc. and MAP miniproject)

The institute has the capacity to support a large number of Bachelor’s and Master’s projects in addition to MAP miniprojects. Below you can find some of the currently available topics. However, this list is not exhaustive and students should contact the individual research scientists who cover their topic of interest regarding potential project topics.

We are looking for highly motivated Bachelor’s and Master’s students to carry out projects in our group. If you find our work interesting and would like to know more about these opportunities then please contact Prof. Robin Klupp Taylor  or the respective doctoral researchers in the group. Here are some specific open topics:

Contact: Julia Seifert

The nanostructured particles group developed processes to coat core particles partially with noble metals. These metal patches can be synthesized with different morphologies, which lead to varying optical resonances. Recently, a method to tailor the structure of gold patches from a dendritic (see left image below) to a cuplike (see right image below) morphology was developed. However, due to the nature of the synthesis, the resulting patch yield is strongly decreased. To counteract this, it is necessary to introduce gold seeds to the core particles prior to the coating reaction. To perform the seeding and the coating reaction directly after one another, a new 2-T-mixer setup was built up.

Left: A typical SEM image of dendritic gold patches. Right: A typical SEM image of cuplike gold patches.

Project objectives:

The idea of the project is to investigate the influence of different seeding densities, core particles sizes and reactant concentrations on the resulting patch size, distribution and morphology in the new setup. This information should then be used to identify optimal reaction conditions to obtain a high yield of gold patchy particles with specific resonances.


  • Patch synthesis by a wet-chemical method
  • Extinction spectroscopy
  • Scanning electron microscopy (performed by the supervisor)
  • Image analysis with ImageJ
  • Possible further characterisation methods:
    • Analytical (ultra)centrifugation
    • Raman spectroscopy
    • Single Particle Scattering

Contact: Robin Klupp Taylor

The nanostructured particles research group has developed a simple and scalable process to produce metal patches on core particles. Due to the nature of the processes, the patches have a size distribution and not all core particles get coated (see left image below). In order to further optimize the process to produce patchy particles with desirable properties quantitative insight into the patchy dispersity is required. In this project image analysis will be developed for this purpose. The project involves little or no practical labwork and is particularly suitable for students with some programming experience.

What we want: Image analysis codes to determine core size distribution, patch yield (fraction of particles with patch), thickness and coverage distribution

Starting point: real and simulated images of patchy particles and a code to determine which particles have a patch (see right image below)

Left: A typical SEM image of silver-silica patchy particles. Right: The same image following automatic processing to remove the uncoated silica particles

Project objectives:

  1. Develop code able to segment and measure the core particle and patches.
  2. Develop an experimental protocol for obtaining well dispersed patchy particles, automatically acquiring images on the SEM and analysing them for patch yield and coverage


  • ImageJ
  • Python
  • POVRay
  • Matlab
  • Scanning electron microscopy
  • Analytical (ultra)centrifugation

Contact: Robin Klupp Taylor

The starting point of this project will be a simple and robust process based on electrophoretic deposition (see Figure below) developed in the group. This process deposits flake-like particles (e.g. commercial mica powder) in an out-of-plane arrangement. In this project, the possibility to arrange flakes in this way will be exploited in order to partially coat the flakes i.e. produce “Janus flakes”. This will be achieved by masking the part of the flakes closest to the substrate with a suitable polymer, followed by coating of the exposed part of the flakes. Once the flakes are released, such partial coating could be used to give the flakes amphiphilic properties, enable catalytic self-propulsion or introduce an unusual optical or magnetic properties.

Left: Electrophoretic process developed in the Nanostructured Particles Research Group to deposit flake-like particles in an out-of-plane orientation. Middle: coating produced when inert counter electrode are used. Right: coating produced when corrosion-susceptible counter electrode is used

Project objective: Demonstrate that the out-of-plane oriented flakes can be further processed to produce novel functional particulate materials

  1. Re-commission previously established electrophoresis setup
  2. Establish desirable coating chemistry (polymer or inorganic material) on suspended flakes
  3. Establish partial flake masking strategy (already in literature for spherical particles)
  4. Show that coating chemistry can be applied to exposed parts of flakes
  5. Release flakes and characterise properties.


  • Electrophoretic deposition
  • Particle coating methods (wet chemical synthesis)
  • Thin film coating methods (spin-coating etc)
  • Particle characterisation (DLS, analytical centrifugation)
  • Optical microscopy and Scanning electron microscopy