Discrete X-ray Steps from a Schwarzschild-like TDE: Evidence for Pixel Condensate Breaks (PCB) in Swift J1644+57

We propose a Pixel Condensate Break (PCB) framework to explain discrete, stepwise features observed in the X-ray light curve of the tidal disruption event (TDE) Swift J1644+57. Unlike smooth spin-down (magnetar) or stochastic accretion instabilities, Swift J1644+57 exhibits plateau–drop sequences of nearly constant flux followed by abrupt reductions with repeatable fractions. We interpret each plateau as a collective area-locking state of horizon micro-pixels (“pixel condensate”), and each drop as a synchronized breakdown of that condensate. The PCB model produces a quantized step-fit that agrees with the data and outperforms alternatives in capturing regularity, discreteness, and drop fractions. We outline the theoretical reinterpretation relative to Bekenstein area quantization and Loop Quantum Gravity (LQG), provide the PCB construction, and show evidence from Swift J1644+57 with a compact statistical comparison