text: Yo, check it out, I'm 'bout to drop some knowledge,
  Using molecular dynamics, we explore a gel in college.
  We start with a fractal structure, generated with precision,
  Using diffusion limited cluster aggregation-deflection algorithm, no derision.
  
  Imposing an interaction potential, short-range attraction in effect,
  But also a long-range repulsion, that's what we select.
  System relaxes at zero temperature, then we let it evolve,
  At a fixed finite temperature, different scenarios, problem-solve.
  
  Temperature T plays a role, listen up, here's the deal,
  For T greater than 0.2, the fractal structure starts to break and peel.
  Small clusters form, relaxin' till equilibrium they reach,
  But for T less than 0.2, stability's what the structure will teach.
  
  Dynamics slow down, waitin' time increasin',
  Mean squared displacement scales as t to the 2/3 reason.
  Anomalous time dependence, we got mechanisms to discuss,
  Intermediates and low T, hold on, there's more to discuss.
  
  Self-intermediate scattering function, let me break it down,
  At small wave vectors, compressed exponential's the crown.
  But at large wave vectors, a stretched exponential takes the lead,
  At low T, stretched exponential's what we need.
  
  Elastic rearrangements, chainlike filament fluctuations in the mix,
  Heterogeneity playin' a part, this combination we can't fix.
  It's a subtle interplay, causin' this behavior we see,
  Now you know the dynamics of the gel, it's all chemistry.