Dr. Abdul Majid

Developed and validated complex ODE-based nonlinear/stiff mathematical and kinetic models through MATLAB simulations, integrating experimental data to accurately represent biochemical systems.

Conducted extensive numerical simulations and non-linear parameter tuning, sensitivity, and stability analyses for multi-pathway reaction systems, enhancing model robustness and predictive power.

Pioneered kinetic reaction modeling of amyloid-beta aggregation dynamics in Alzheimer's disease, specifically investigating reactive oxygen species-mediated polymerization and inhibitory mechanisms of small molecules.

Engineered mathematical models for the inhibition and degradation kinetics of amyloid-beta fibrils by large molecule drugs, contributing to novel insights into therapeutic strategies.

Designed and implemented an AI/ML and bioinformatics pipeline to analyze large biological datasets, successfully identifying biomarker genes and informing drug repurposing strategies for Alzheimer's disease.

Authored 6 peer-reviewed publications and delivered 3 conference presentations (2 oral, 1 poster), effectively disseminating complex research findings in chemical engineering and biomedical applications.

Taught Computer Methods for Engineers (ESC113M) to over 100 students, preparing MATLAB-based problems and conducting classes for numerical solutions.

Managed grading for 100+ student answer sheets and assisted in conducting lab sessions and examinations, ensuring fair and accurate assessment.

Served as a Teaching Assistant for 7 diverse courses, including Mass Transfer, Unit Operations Lab, Computational Methods, Mathematical Methods, and Data Science for Chemical Engineers.

Contributed to the development of course materials and provided direct support to students, significantly improving comprehension of complex engineering concepts.

Investigated nucleated polymerization of abnormal amyloid beta, contributing to foundational understanding of Alzheimer's disease pathogenesis.

Implemented MATLAB solvers, including LSQNONLIN and Genetic Algorithm, to accurately model complex biological systems and optimize parameters.

Designed and conducted experiments to analyze the impact of pH and contact time on the efficiency of Cr (III) extraction.

Performed quantitative analysis to determine the percentage removal of Cr (III), achieving measurable results in heavy metal remediation.