Anastasia Maria Moschovi

Head of Research & Innovation Dpt at ​MONOLITHOS Catalysts & Recycling Ltd.

Greece

About

As Head of the Research & Innovation Department at Monolithos, I lead the company’s R&D strategy and coordinate applied research, process development, and technology upscaling activities across catalysis, hydrometallurgy, recycling, and sustainable materials. I manage multidisciplinary research teams and oversee the full innovation chain—from laboratory research and proof-of-concept to pilot-scale validation and industrial implementation—ensuring the technical quality, scalability, and industrial relevance of developed technologies. Research is something I have always wanted to pursue, and at Monolithos I work in a highly dynamic R&D environment where scientific curiosity is consistently translated into practical industrial solutions. I actively contribute to EU and national projects, working with academic and industrial partners, and supporting IP development and the translation of research outputs into exploitable technologies. This work has led to international recognition, including the Women in Energy Award 2023 (European Sustainable Energy Awards), and to active contribution within the scientific community as a Member of the Bulgarian Catalysis Society.

Experience

  • Head of Research & Innovation Dpt at Monolithos Ltd.
    Jul 2017 - Present · 9 yrs

  • Research and Development Manager at MEDICHROM INTERNATIONAL SA
    Nov 2015 - Jul 2017 · 1 yr 9 mos

    Greek National Organization for Medicines - Project preparation and Submission of applicaition U S Food and Drug Administration Registration & Regislation Industrial Property Organisation Patent submission Good Manufacturing Practices for Pharmaceutical Products Complience

  • Postdoctoral Fellow at National Technical University of Athens
    Oct 2015 - Nov 2015 · 2 mos

  • Foundation for Research and Technology - Hellas (FORTH) (Patras, Greece)
    • Post Doctoral Fellow in MESBL FORTH ICEHT
      Mar 2014 - Aug 2015 · 1 yr 6 mos

      The significantly higher concentration of some metabolites (most commonly glucose) could affect the derivatization and quantification of other molecules, thus their selective filtering is desirable. Hydrogels are insoluble crosslinked polymer network structures composed of hydrophilic co- or homo-polymers which exhibit the ability to absorb significant amount of water. Molecular imprinting (MI) in hydrogels is a technique in which functional groups of the hydrogel are allowed to form a network around a template molecule. After the removal of the template molecule, cavities with specific recognition sites and size are generated for the preferential binding of the target over similar molecules.These materials are candidates for molecular recognition, drug delivery, highly specific catalysis, quantitative analysis and separation materials in conjunction with chromatographic techniques. We propose to combine the recognition capabilities of MI polymer hydrogels with GC-MS metabolomics to increase the resolution of the metabolic profiles.

    • Postdoctoral Fellow in Ionic Liquid and Molten Salt Lab
      Feb 2014 - Aug 2015 · 1 yr 7 mos

      The structures of the melt of the dicationic aprotic BisCH2MIm(NTf2)2 and protic BisHImCH2(NTf2)2 ionic liquids are investigated with infrared and Raman Spectroscopy at room temperature and above its melting point. The anion conformation shows in the melt of the dicationic ILs show similarities with the structure of the monocationic ones. On the other hand, although the dicationic ILs have double charge than then monovalent ones, the HBs in the melt show improper H-bonding behavior.

  • Dr at University of Patras
    2002 - 2015 · 13 yrs