Balázs Pál successfully defended his PhD Thesis

Balázs Pál successfully defended his PhD Thesis.

Title:Investigation of the Cosmological Large-scale Structure using Simulations and Machine-Learning-Assisted Data Processing

Supervisors: Gregely Gábor Barnaföldi, István Csbai

Congratulation!

 

Mónika Bokor succesfully defended her doctoral thesis of the Hungarian Academy of Sciences

Mónika Bokor succesfully defended her doctoral thesis of the Hungarian Academy of Sciences

Title: "Széles jelű NMR-spektroszkópia alkalmazása egyes rendezetlen fehérjék hidratációjának vizsgálatára"

Congratulation!

 

 

Gyula Fodor succesfully defended his doctoral thesis of the Hungarian Academy of Sciences

Gyula Fodor succesfully defended his doctoral thesis of the Hungarian Academy of Sciences

Title: Exponentially small radiation of oscillons and oscillatons

Congratulation!

 

Beatrix Fehér successfully defended her PhD Thesis

Beatrix Fehér successfully defended her PhD Thesis.

Title: Laser-Field-Controlled Ultrafast Currents in Metals

Supervisor: Péter Dombi, Vaclav Hanus  

Congratulation!

 

 

Róbert Kovács succesfully defended his doctoral thesis of the Hungarian Academy of Sciences

Róbert Kovács succesfully defended his doctoral thesis of the Hungarian Academy of Sciences

Title: Két időskálás hővezetési modellek elemzése és alkalmazása heterogén anyagokra

 

Congratulation!

István Vona successfully defended his PhD Thesis

István Vona successfully defended his PhD Thesis.

Title: Non-perturbative effects in integrable quantum field theories

Supervisor:  Zoltán Bajnok  

Congratulation!

 

Balázs Kacskovics defended his PhD Thesis

Balázs Kacskovics successfully defended his PhD Thesis.

Title: Modeling Gravitational Wave Sources and Compact Stars 

Supervisors:  Mátyás Vasúth; Dániel Barta 

Congratulation!

 

Silicon Carbide Quantum Defects: From Fundamental Physics to Bioinert Quantum Sensors 

Researchers led by Adam Gali and collaborators have unveiled in their publication in Physical Review Letters how atomic-scale defects in silicon carbide (4H-SiC) can serve as robust building blocks for next-generation quantum technologies — spanning quantum communication, sensing, and biocompatible photonics.

When can space plasma be considered a fluid?

Zoltan Németh has developed a new criterion that offers guidance on when the fluid model can be employed to describe the extremely rarefied, magnetized, conductive gas known as space plasma, which fills most of the Universe's volume, encompassing the space between planets, stars, and galaxies.  The article presenting this work was published in The Astrophysical Journal. 

A new class of quantum light sources in silicon carbide

When “bright” defects don’t conduct or resist: a new class of quantum light sources in silicon carbide