radix32-optical-memory

Radix-32 Optoelectronic Discrete Memory Cell Prototype

A working proof-of-concept for a Radix-32 multi-level optical charge-storage node. By integrating discrete photon flux onto a capacitive storage node, this prototype quantizes a $0\text{V} - 3.3\text{V}$ dynamic range into 32 discrete voltage levels ($5\text{ bits per cell}$).

---

📌 Problem Statement & Architecture

Traditional binary memory ($2^1$) faces severe spatial and energy scaling limitations. Multi-level cell (MLC) charge storage allows significant increases in spatial memory density by holding multiple bit states in a single physical junction.# Radix-32 Optoelectronic Discrete Memory Cell Prototype

A working proof-of-concept for a Radix-32 multi-level optical charge-storage node. By integrating discrete photon flux onto a capacitive storage node, this prototype quantizes a $0\text{V} - 3.3\text{V}$ dynamic range into 32 discrete voltage levels ($5\text{ bits per cell}$).

---

📌 Problem Statement & Architecture

Traditional binary memory ($2^1$) faces severe spatial and energy scaling limitations. Multi-level cell (MLC) charge storage allows significant increases in spatial memory density by holding multiple bit states in a single physical junction.# Radix-32 Optoelectronic Discrete Memory Cell Prototype

A working proof-of-concept for a Radix-32 multi-level optical charge-storage node. By integrating discrete photon flux onto a capacitive storage node, this prototype quantizes a $0\text{V} - 3.3\text{V}$ dynamic range into 32 discrete voltage levels ($5\text{ bits per cell}$).

---

📌 Problem Statement & Architecture

Traditional binary memory ($2^1$) faces severe spatial and energy scaling limitations. Multi-level cell (MLC) charge storage allows significant increases in spatial memory density by holding multiple bit states in a single physical junction.