Physicist deeply fascinated by AI & ML | Focused on Applied Sciences & Quantum Technology | Interests: History, Philosophy, Political Theory, Art & Architecture
I've completed a literature review of 220 papers, honestly, this is completely new for me. Now, I will take on a computational project focused on the research gaps and carry that work forward. Excited to embark on new realms of quantum photonics computing.
I’ll try to learn the basics of Lumerical—it’s used for optics simulations. I think it will be much more helpful for my project than PyMeep FDTD and could have a greater impact. I have about two weeks left, and the project will be wrapping up soon.
This behavior provides a concrete physical consequence of lattice topology in a nanophotonic setting, linking the presence of topological edge modes to observable light–matter interaction effects.
New NoteBook:
The results indicate that photonic modes localized at the edges of the lattice lead to a pronounced enhancement of the local density of states. As a result, quantum emitters placed near the boundary experience increased spontaneous emission rates.
New update: This new notebook now presents the nanophotonic realization of the SSH lattice using an effective mode description.
The results show that introducing geometric dimerization at the level of resonator placement naturally leads to unequal coupling strengths.
I don’t even know where I’m headed. Learning new skills, keeping up with coursework, and chasing everyday curiosities it feels like either everything will fall into place, or I’ll end up with nothing. God knows.
Patience is essential for long-term goals. It’s never about a single big victory, but about the steady accumulation of small wins that lead to something meaningful over time.
New update: This new notebook now presents the nanophotonic realization of the SSH lattice using an effective mode description.
The results show that introducing geometric dimerization at the level of resonator placement naturally leads to unequal coupling strengths.
This asymmetry arises from the dependence of evanescent mode overlap on the inter-resonator separation and does not require any additional fine-tuning. These provide a clear physical foundation for the SSH tight-binding description in a nanophotonic setting.
New update: This new notebook now presents the nanophotonic realization of the SSH lattice using an effective mode description.
The results show that introducing geometric dimerization at the level of resonator placement naturally leads to unequal coupling strengths.
New update in Nanophotonics project! 🚀
Added an introductory Jupyter notebook on Bloch band structures, a key concept for periodic photonic systems.
#Nanophotonics#BlochBands#BandStructure#Research
New update in Nanophotonics project! 🚀
Added an introductory Jupyter notebook on Bloch band structures, a key concept for periodic photonic systems.
#Nanophotonics#BlochBands#BandStructure#Research
Studying nanophotonics papers early this morning. I plan to implement these ideas in my project, and on Sunday I will upload a new notebook on the Bloch Hamiltonian to study edge states.