# A study of charged cylindrical Gravitational collapse with dissipative fluid

## TL;DR

This paper investigates the gravitational collapse of a charged, viscous, heat-conducting anisotropic cylindrical fluid, analyzing the effects of charge, dissipation, and heat flux on the collapse process using advanced thermodynamic theory.

## Contribution

It introduces a detailed analysis of charged cylindrical collapse incorporating dissipative effects and causal thermodynamics, extending previous models with new dynamical and transport equations.

## Key findings

- Charge and dissipation significantly influence collapse dynamics.
- Heat flux impacts the rate and nature of collapse.
- The derived equations provide a comprehensive framework for cylindrical gravitational collapse.

## Abstract

The present works deals with gravitational collapse of cylindrical viscous heat conducting anisotropic fluid following the work of Misner and Sharp. Using Darmois matching conditions, the dynamical equations are derived and the effect of charge and dissipative quantities over the cylindrical collapse are analyzed. Finally, using the Miller-Israel-Steward causal thermodynamic theory, the transport equation for heat flux are derived and its influence on collapsing system has been studied.