WORK EXPERIENCE
Professional journey through cybersecurity, software engineering, and theoretical research. From practical development to cosmological exploration.
Professional Experience
CodSoft
Cybersecurity & Development Intern
Worked on live cybersecurity and automation projects, focusing on vulnerability scanning, exploit analysis, and tool development for ethical hacking. Improved workflow efficiency through Python-based automation and contributed to secure software development practices.
Certificates & Achievements
Internshala
Student Partner (ISP) - Campus Ambassador
Promoted career growth programs and internships, represented Internshala among peers, and organized skill-enhancing workshops to inspire student upskilling and awareness. Acted as a liaison between the organization and student community.
Certificates & Achievements
JPMorgan Chase & Co.
Software Engineering Job Simulation
Completed a comprehensive software engineering simulation focused on building a transaction processing system with Spring Boot microservices, Kafka message streaming, and REST API integration.
Certificate
Cosmological Research
I've recently documented an independent theoretical framework exploring the behavior of ultra-dense matter under extreme magnetic fields and strong spacetime curvature, a regime relevant to highly magnetized compact astrophysical objects.
The Hyper-Dense Magneto-Gravitational Quantum Matter (HMGQM) framework investigates how known physics — General Relativity, strong-field Quantum Electrodynamics, and relativistic fermionic matter — interact when standard isotropic fluid approximations break down.
Anisotropic Stress–Energy Tensor
Replacing scalar pressure in extreme magnetic regimes with anisotropic stress-energy representation for ultra-dense matter.
QED Vacuum Polarization
Explicit incorporation of Quantum Electrodynamics vacuum polarization as a leading-order contributor in extreme magnetic fields.
Modified Equilibrium Conditions
Derived equilibrium conditions for strongly magnetized, ultra-dense matter under extreme gravitational curvature.
Observable Signatures
Potential signatures include polarization-dependent lensing and deviations in gravitational-wave ringdown modes from compact objects.
This work is theoretical and exploratory in nature. It does not claim experimental verification, laboratory realization, or technological application. The goal is to document a consistent framework, clarify assumptions, and invite critical review and refinement.
The full draft and supporting material are openly available on GitHub for transparency, discussion, and versioned development. I'm sharing this as part of my learning journey in theoretical physics and as an exercise in engaging with unsolved regimes where conventional models may reach their limits.