M97 Project

M97 Project: Exploring Mind Control with Emerging Technologies

The M97 Project is an Omega Dynamics research line documented in a technical report published by Sylar Robert Jones on Zenodo in 2025.

Report scope

The publication proposes an active neuromodulation framework: combining non-invasive transcranial electrical stimulation with self-directed cognitive protocols. It describes the development of the M97 device, safety criteria, the study of cognitive and affective processes, and the ethical implications of intervening in memory and emotion.

It presents this work as exploratory research, with preliminary results and explicit limitations that require independent validation, ethical oversight, and rigorous evaluation before any clinical application.

Read the report on Zenodo · View the publication on ResearchGate

What is the M97 Project?

The M97 Project is a scientific research initiative focused on neuromodulation and the modification of specific cognitive processes, including the alteration of the emotional valence of autobiographical memories.

Unlike traditional neuromodulation approaches, M97 addresses Transcranial Electrical Stimulation (tES) in an innovative way through several pillars:

Active Neuromodulation

Nowadays, conventional brain stimulation methods tend to treat the individual as a passive recipient, where only the participation of medical/scientific personnel and the application of the method exist to evaluate results. The M97 Project attempts to break this barrier by combining external electrical stimulation with cognitive protocols self-directed by the subject. The main objective is to leverage the user's conscious intention to achieve highly specific and personalized neuronal changes.

Precision Neuromodulation

Through non-invasive technologies like tDCS (transcranial direct current stimulation) and tACS (transcranial alternating current stimulation), the project aims to regulate cortical rhythms and boost synaptic plasticity in key brain areas.

Detailed content in development.

In Silico Simulations and Results

We use advanced computational modeling to simulate neuronal response prior to any physical intervention, ensuring optimal safety profiles and complete personalization of cognitive treatment.