This research introduces the first simple mathematical model capable of capturing the cooperative folding of alpha helices, a fundamental protein structure. By revealing how these proteins fold, stabilize, and misfold, the model offers new insights into diseases such as Alzheimer's and Parkinson's while providing a fast, flexible platform for protein research.

This research investigates gluon saturation, an extreme state of matter that existed immediately after the Big Bang. By developing precise theoretical calculations for particle collision experiments, it helps scientists understand how gluons bind quarks to form matter, revealing the fundamental processes that shaped the early universe and made life possible.

This research explores the philosophical foundations of particle physics and the Standard Model. Focusing on neutrinos, it argues that these particles may be better understood as different states of a single entity rather than separate objects. The project aims to develop a deeper ontology describing the fundamental structure of physical reality.

This research investigates whether dark energy, responsible for the universe’s accelerating expansion, evolves over time rather than remaining constant. Using galaxy distributions, supernovae, and cosmic microwave data, new statistical methods suggest evolving models may better fit observations, potentially reshaping our understanding of cosmology and the universe’s long-term fate.

Dark matter makes up most of the universe but cannot be directly observed. This research studies how dark matter halos evolve using cosmological simulations and the principle of maximum entropy. Results show halo entropy increases over time, indicating their evolution toward equilibrium follows fundamental thermodynamic principles.

This research develops a theoretical framework for understanding electron–hole interactions in quantum dots, focusing on positive and negative trions. By analytically modeling their behavior under electric and magnetic fields, it bridges gaps between theory and experiment, supporting advances in quantum electronics, energy technologies, and targeted medical applications.

This research examines unexpected beauty-quark decay patterns observed at LHCb that violate Standard Model predictions. The anomalies suggest a new force and a hypothetical leptoquark particle that couples mainly to third-generation matter. By modelling these effects, the work guides experimental searches and may shed light on the long-standing mystery of particle-generation hierarchies.