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In this episode, we dive into the alarming concept of cognitive warfare—a new form of conflict where technology targets our minds to influence, control, and even manipulate our thoughts and emotions. Could governments and tech giants use these advanced tools to control how we think and feel? From artificial intelligence to neuromarketing, explore how cognitive warfare tactics are evolving and what they mean for personal freedom and mental autonomy in the digital age.

Join us as we uncover:

What cognitive warfare is and how it works.
How tech companies and governments could potentially shape public opinion.
The subtle ways AI-driven influence shapes our beliefs.
Potential risks to mental freedom and democracy if cognitive warfare becomes widespread.
If you’re concerned about AI manipulation, mind control technology, or the future of mental freedom, don’t miss this eye-opening video. Make sure to like, subscribe, and share to stay informed on critical issues at the intersection of technology, psychology, and control.

Riga, March 19, 2018

Building on experience from the seminar “Trends in Social Media and Their Further Development ” that was held in 2017, in 2018 we discussed emerging challenges and opportunities for strategic communications in social media. Experts speaking at this seminar came from the private sector, academia, media, military and government institutions.

Beyond the general recommendation to consume yogurt, this research raises questions about which products might offer the most benefit. Not all yogurts contain the same bacterial strains or concentrations. While many products include Bifidobacterium, the amounts can vary significantly. Future research may help determine whether certain formulations provide better protection against colorectal cancer.

Different subtypes of colorectal cancer may respond differently to preventive measures, suggesting that a one-size-fits-all approach to prevention might not be optimal. This understanding could eventually lead to more personalized prevention strategies based on individual risk factors and gut bacterial composition.

To see how cognitive maps form in the brain, researchers used a Janelia-designed, high-resolution microscope with a large field of view to image neural activity in thousands of neurons in the hippocampus of a mouse as it learned. Credit: Sun and Winnubst et al.

Our brains build maps of the environment that help us understand the world around us, allowing us to think, recall, and plan. These maps not only help us to, say, find our room on the correct floor of a hotel, but they also help us figure out if we’ve gotten off the elevator on the wrong floor.

Neuroscientists know a lot about the activity of neurons that make up these maps – like which cells fire when we’re in a particular location. But how the brain creates these maps as we learn remains a mystery.

The highly pathogenic avian influenza H5N1 is an emerging and unexpected threat to many wild animal species, which has implications for ecological processes, ecosystem services and conservation of threatened species. International collaboration and information-sharing is essential for surveillance, early diagnosis and the provision of financial and technical instruments to enable worldwide actions.

Read “” by Sebastian Schepis on Medium.


Imagine a world where thoughts aren’t confined to the brain, but instantly shared across a vast network of neurons, transcending the limits of space and time. This isn’t science fiction, but a possibility hinted at by one of the most puzzling aspects of quantum physics: entanglement.

Quantum entanglement, famously dubbed spooky action at a distance by Einstein, describes a phenomenon where two or more particles become intrinsically linked. They share a quantum state, no matter how far apart they are. Change one entangled particle, and its partner instantly reacts, even across vast distances.

This property, which troubled Einstein, has been repeatedly confirmed through experiments, notably by physicist John Clauser and his colleagues, who received the 2022 Nobel Prize in Physics for their groundbreaking work on quantum entanglement.