Master's Thesis Topic Available – Chiral Induced Spin Selectivity (CISS) Catalysts

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Background

The Chiral Induced Spin Selectivity (CISS) effect has emerged as a fascinating quantum phenomenon that couple’s electron spin with molecular chirality, leading to spin-polarized electron transport without external magnetic fields. This effect opens new possibilities for designing highly selective and energy-efficient electrocatalysts for key reactions such as CO₂ reduction (CO₂RR), oxygen evolution (OER), and hydrogen evolution (HER).

Understanding and harnessing CISS in catalytic materials can fundamentally transform electrocatalysis by improving reaction kinetics, selectivity, and stability through spin-controlled charge transfer.

Possible focus areas

  • Synthesis of chiral inorganic or hybrid catalysts (e.g., chiral metal oxides, chiral coordination complexes, or nanostructured catalysts).

  • Surface modification of electrodes with chiral molecules or ligands.

  • Electrochemical testing for CO₂RR, OER, or HER activity and selectivity.

  • Characterization of catalysts with McAFM, XRD, EPR, SEM, TEM …

  • Correlation of spin polarization with catalytic performance.

  • (Optional) First-principles or DFT-based simulation of spin-dependent charge transfer processes.

Your profile

  • Bachelor’s degree in chemistry, Physics, Materials Science, Chemical Engineering, or a related field.

  • Strong interest in catalysis, electrochemistry, or spintronics.

  • Basic laboratory or simulation experience (e.g., electrochemical techniques, nanomaterial synthesis, or quantum chemistry).

  • Motivation to work in an interdisciplinary environment bridging chemistry, physics, and materials science.

  • Good communication skills in English (both written and spoken).

We offer

  • A highly interdisciplinary research environment within an international team.
  • Access to state-of-the-art facilities for electrochemical testing and materials characterization.
  • Opportunity to contribute to cutting-edge research in spin-dependent catalysis.
  • Close supervision and the possibility to publish results in peer-reviewed journals.

Application

Please submit the following documents as a single PDF:

  • Motivation letter
  • Curriculum Vitae (CV)

Send your application to: haojie.zhang@chemie.uni-halle.de