Researchers have detailed a radical departure from current memory tech, proposing a post-transistor architecture based on single-layer fluorographane (CF). This novel approach utilizes the covalent orientation of fluorine atoms on the carbon scaffold as a stable binary state, directly addressing the memory wall bottleneck plaguing modern AI hardware.

Theoretical calculations show an impressive stability profile. The C-F inversion barrier, confirmed at about 4.6 eV, results in spontaneous bit-flip rates near $10^{-65}$ seconds at room temperature. This effectively eliminates thermal decay and quantum tunneling loss mechanisms that plague smaller storage cells today.

Practically, a one-square-centimeter sheet of this material can encode 447 TB of non-volatile data with zero retention energy. Volumetric extensions suggest densities reaching 0.4 to 9 ZB/cm$^3$, far exceeding current NAND flash limitations compounded by supply concerns.

A scanning-probe prototype already functions as a memory device, demonstrating areal density greater than existing technologies by five orders of magnitude. Projected throughput for a full array scales toward 25 PB/s, offering an immediate, tangible path beyond silicon constraints.