Organic Logic in Memory (OLiM) is a novel approach to computer memory storage that uses organic materials to store data. It combines the benefits of traditional memory technologies, with the benefits of organic materials, such as their low cost and ability to be manufactured using low-temperature processes. In an OLiM device, electronic data is stored using the electrical properties of organic materials, such as their electrical conductivity, charge mobility, and dielectric constant. This allows the device to be non-volatile i.e., the data stored in the memory will persist even when the power is turned off. Compared to traditional memory technologies, OLiM has several advantages, including low power consumption, high endurance, and the ability to be integrated with flexible and transparent substrates. Additionally, the organic materials used in OLiM are environmentally friendly and biodegradable, making this a promising technology for sustainable and eco-friendly computing. Organic devices have faced significant challenges in being implemented in high-end electronics due to their low integration density and limited data processability. These shortcomings arise from the incompatibility of organic semiconductors with modern lithographic technologies, unlike conventional silicon-based logic circuits. Consequently, the need for novel device architectures that can provide mechanical flexibility, high data processability, and storage simultaneously has become crucial. One promising solution to this issue is the development of OLiM devices that combine both logic and memory functionalities within a single device, which can improve integration density and enhance data processability. Overall, OLiM represents a promising new direction in-memory technology, offering a combination of performance, scalability, and sustainability that could make it a key player in the future of computing.