Our group has more than three decades of recognized experience in the Chemistry of Molecular Materials, mainly focused on liquid crystals and, more specifically, on metallomesogens. The characteristic properties of these self-organizing and easily processable materials make them highly attractive for industrial applications, as they can act as carriers of a wide range of functionalities, including electronic and optical properties, as well as sustainable catalytic applications. We are currently working on new materials—both liquid crystals and polymers—including the synthesis of molecules capable of self-organizing into nanostructured condensed phases containing metal fragments as modulators of the system’s properties, and the development of polymers for sustainable catalytic applications.

The group was formed through the merger of the former Chromatography and Related Techniques group and the Applied Chemical Analysis group, with the aim of researching and developing methodologies capable of addressing real problems of economic and social relevance. Its objectives include: training qualified personnel in modern analytical techniques widely used across sectors such as academia and industry, through specialized theoretical and practical courses; analyzing complex samples, which often requires the use of hybrid and multidimensional techniques; and collaborating with public agencies and private entities in solving chemical‑analytical problems, validating methodologies, developing prototypes, and related activities.

The Asymmetric Synthesis and Catalysis Group, recognized as a Consolidated Research Unit (UIC 378) by the Regional Government of Castilla y León, has been dedicated since its foundation to the pursuit and development of new synthetic methodologies for the sustainable preparation of enantiopure compounds. Among our current research lines, organocatalysis stands out, particularly the development of new supported organocatalysts for enantioselective transformations. A different approach involves the use of amino alcohols—prepared from perhydro‑1,3‑benzoxazines derived from (–)-8‑aminomenthol—as chiral ligands in the enantioselective addition of various organozinc reagents to aldehydes, α‑ketoesters, and α‑diketones.

The overall objective of our work is the synthesis, reactivity, and study of the physical properties of organometallic or coordination compounds of transition metals, particularly those with biological relevance or applications in nanotechnology.

The Plasma Spectroscopy and Supersonic Jets Group is a Recognized Research Group (GIR) and a Consolidated Research Unit (UIC‑161) with three main research lines: (1) structural characterization of molecules and intermolecular complexes stabilized by non‑covalent interactions; (2) investigation of the properties of highly ionized gases; and (3) computational modeling of molecules, reactions, and plasmas. The group combines information obtained from high‑resolution spectroscopic techniques based on molecular rotation, vibrational laser spectroscopy, and ab initio quantum‑mechanical methods, providing a comprehensive description of both the molecules and their aggregation or reaction processes.

The overall objective of our work is the synthesis, reactivity, and study of the physical properties of organometallic or coordination compounds of transition metals, particularly those with biological relevance or applications in nanotechnology.

The Molecular Rotation Spectroscopy Research Group – GIER (UVa Recognized Research Group, UIC 293 JCyL) uses and develops rotational spectroscopy techniques to study the structure, interactions, and dynamics of molecules and molecular complexes. The experimental techniques employed include Fourier‑transform microwave spectrometers, both narrow‑band systems with Fabry–Pérot cavities (MB‑FTMW) and broadband chirped‑pulse instruments (CP‑FTMW), both operating with supersonic jets and laser ablation methods. These setups enable the study of isolated molecules at very low temperatures, as well as unstable molecular complexes or adducts. Among the latter, microsolvated complexes of molecules, biomolecules, and systems of pharmaceutical interest are analyzed, allowing the investigation of solvation processes, as well as prereactive systems that help elucidate possible reaction mechanisms. These studies are complemented by quantum‑mechanical calculations, which support the interpretation of the experimental data and provide a more complete understanding of the systems under investigation.

Our work is organized into four main research lines: the development of new chemo‑sustainable processes in steroid chemistry; new methodologies for obtaining active pharmaceutical ingredients; new catalytic and organocatalytic processes; and the synthesis of new materials. We also work on the synthesis of phosphatidylcholine and myo‑inositol derivatives for the study of inflammatory processes.