Sustainable Development Goals
Research interests
• Force field development
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Electrolytes for storage energy devices
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Solvents to improve solubility of IFAs
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Mesoscopic simulations bilayer/water/protein/IFA/ions
Profile
Dr. José Alejandre Ramírez holds a Ph.D., a Master’s degree, and a Bachelor’s degree from the Universidad Autónoma Metropolitana Unidad Iztapalapa. He has completed sabbatical stays at the University of Southampton, England (two years), the Instituto Mexicano del Petróleo (one year), and the University of Cambridge, England (one year).
He serves as a Full-Time Tenured Faculty Researcher at the Universidad Autónoma Metropolitana Unidad Iztapalapa, where he has served as Head of the Department of Chemistry. He is an Emeritus National Researcher in the Sistema Nacional de Investigadoras e Investigadores (SNII).
He has delivered lectures at national and international conferences and published 100 research articles in specialized journals, accumulating over 6,350 citations (h-index of 37 in Google Scholar), with two of his papers ranked among the most read by Mexican authors according to the American Institute of Physics. He has advised 20 undergraduate capstone projects, 11 master’s theses, and 9 doctoral dissertations, and hosted three postdoctoral researchers, four sabbatical scholars, and one visiting professor. He has led applied research projects with Unilever (England), the Instituto Mexicano del Petróleo, and the Centro de Investigación en Polímeros-COMEX.
A promoter of molecular simulation in Mexico, he co-organized 14 national Workshops on Molecular Dynamics and 15 international Meetings on Molecular Simulations. Mathematical algorithms developed by his group have been integrated into widely used global simulation software such as GROMACS (Netherlands), LAMMPS (United States), and DL_MESO (England). His research focuses on understanding molecular interactions and their impact on physicochemical properties, specializing in:
1. Molecular dynamics, Monte Carlo, and dissipative particle dynamics methods.
2. Non-polarizable force fields for polar liquids, ionic liquids, and solids.
3. Electrolytes to enhance ionic conductivity in energy storage devices (lithium and other metal ions) using polar solvents, ionic liquids, and polymers.
4. Solvents to increase drug solubility and release in water using co-crystals and room-temperature ionic liquids.
5. Mesoscopic studies of drug and ion transport across lipid membranes and proteins.
6. Methods for extracting pollutant compounds from gasoline and diesel fuel.
Information provided by the academic staff