Master's Thesis proposals

Master Degree Thesis Proposals for 2025-2026:

Dark Energy–Dark Matter Interaction and Its Role in Addressing the Tension Between SH0ES and DESI Data

Analysis of scalar-tensor formulations for extended theories of gravity as implemented in the early and late Universe dynamics

Quantum Bounce in Polymerized Homogeneous and Inhomogeneous Cosmologies

Loop Quantum Cosmology as a Gauge-Fixing Formulation of Full SU(2) Internal Symmetry

Angular Momentum Transport in Stellar Accretion Disks through Porous Plasma with Crystalline Morphology

Impact of Cutoff Physics on Gravitational Collapse: Theory and Phenomenology

Analysis of Turbulent Transport in the Edge Region of a Tokamak: Accounting for Anomalous Particle Diffusivity

Other Master Thesis Proposals:

Cosmological study of the scalar mode of a f(R) modified gravity in the Jordan frame: analysis of the Universe classicalization mechanism and of the inflation paradigm in a Bianchi Universe when the non-Einsteinian scalar mode is adopted as a physical relational clock.

Study of the thermodynamical properties of bouncing cosmology: analysis of the thermal bath characterizing the early Universe in the framework of polymer quantum mechanics and also implementing cyclical dynamics.

Study of the X-point turbulence in a Tokamak configuration: analysis of the non-linear drift response in reduced models and of its connection with turbulence in ordinary fluids.

Study of the cosmological perturbations to an isotropic Universe in the f(R) modified gravity in the Jordan frame: description of the scalar perturbations modes in a synchronous gauge, throughout the radiation and matter dominated phases.

Study of the angular momentum transport in stellar accretion disks: characterization of the role played by magnetic microstructures in setting the steady regime of accretion in axially symmetric scenarios

Study of the equilibrium configurations in Tokamak devices: investigation of the role played by velocity fields, with particular reference to toroidal and poloidal velocities, in determining the nature of stationary Tokamak profiles.

If you are interested in these topics, please contact the Research Group Manager at giovanni.montani@enea.it

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