4-dimensional computational analysis of molecular interactions between biological entities (proteins, antibodies, nucleic acids and lipids) and small ligands (inhibitors, substrates, cofactors) with atomic and temporal resolution. Based on solid physical principles and incorporate environmental effects (solvents, ionic strength, temperature), we deliver high-quality graphs and attractive pictures/videos illustrating these interactions. Our computer simulations provide detailed insights on biomolecular recognition and activity events.
Computational Chemistry Laboratory
Computational Chemistry is a cross-disciplinary area devoted to the accurate atomistic simulation of chemical and biochemical phenomena, from small-molecule reactions and metal-catalyzed processes to protein folding, dynamics and function. It is at the core of the structure-activity relationship and uses cutting edge technology based on state-of-the art supercomputing, nearly-exact quantum mechanics and multiscale molecular mechanics and dynamics simulations, with strong validation and feedback from experiments.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available. Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available.
Crucial for understanding biological phenomena and designing new molecules, processes and therapies. Our high-resolution virtualization tool provides rigorous descriptions and powerful images for the valorization. The only way to interpret biological phenomena, particularly when experimental structural information is not available