Elina Suut -Tuule

This Centre of Excellence (CoE) focuses on fostering innovation in resource efficiency, promoting circular economy practices, utilizing local resources, ensuring safe material circulation, and educating researchers to reduce environmental impacts. It centers around four key areas: Strategic Mineral Resources (SMR), Carbon-Based Resources (CBR), Circular Technologies Upscaling (CTU), and Circular Business Eco-System and Modeling (CBEM). The SMR group maps critical materials in waste streams, including renewables, for extraction and reuse while minimizing hazardous waste. The CBR group develops ecofriendly pathways for essential chemicals and plastics, also assessing their environmental impact. The CTU group pioneers waste reduction and recycling methods for aqueous, and solid waste, incl. water purification. The CBEM group analyzes sustainable business ecosystems and value chains. This CoE's interdisciplinary approach will benefit both Estonia and Europe by advancing circular economy.

The infrastructure brings together the capabilities in chemical synthesis, chemical and biotechnology in Estonia. Its primary goal is the development and technologization of new sustainable and environmentally friendly synthesis methods, such as mechanosynthesis, flow chemistry, electrochemistry, photochemistry, and organocatalysis. New chemical methods (using enzymes, ionic liquids, and metal-organic frameworks) creates new opportunities for obtaining complex natural compounds. To ensure the sustainability of methods and materials, safety studies are conducted. The shared use of the infrastructure initiates new interdisciplinary projects and creates prerequisites for innovation and collaboration with research-intensive companies. Involving the use of infrastructure at all levels of higher education and in micro-degree programs ensures continuity in science and a qualified personnel for entrepreneurship.

Sensing, capturing and separating enantiomers is important for environmental safety, agricultural chemistry, and drug design. The use of hemicucurbiturils is an effective strategy because of the combination of various monomers in a single-step templated mechanochemical synthesis. Due to the absence of bulk solvent the self-organizing efficiency is amplified and there is less waste - the process is green and sustainable. The current work will study the fundamentals of self-organization of hemicucurbiturils, the binding (capturing) of chiral molecules, and detecting chirality using supramolecular complexes. In the long term, the empirical observations will be combined with results from computational chemistry and cheminformatics to build models for predicting necessary monomers and reaction conditions to form macrocycles with desired properties. The outcomes of the project are expected to be highly useful for organizations and industries that monitor, use, or manufacture chiral compounds