Connect with us

Science & Technology

Mind-Control Scientists Successfully Implant False Memories

Nicholas West AP

The race to decode the brain continues. A wild array of new possibilities are opening in the field of mind control. The mind control of the future forgoes all pretense at indirectly altering perception through media and politics, or even mind-altering drugs and environmental toxins. The mind control of the future goes straight into direct programming.

This direct programming could take place in a number of ways, from gadgets that create a brain-computer interface, to magnetic manipulation via “neural dust,” to the direct uploading of the contents of our brain and the subsequent hacking of our minds in the digital realm.

Memory research is a key component of this as well. Our memories help us form our identity: who we are relative to where we have been. Positive or negative lessons from the past can be integrated into our present decisions, thus enabling us to form sound strategies and behaviors that can aid us in our quest for personal evolution. But what if we never knew what memories were real or false? What if our entire narrative was changed by having our life’s events restructured?

Current research on mice indicates a disturbing quest by technocrats and reductionists to interfere with this human cognition and even deliberately plant false memories.

The military already has openly discussed a desire to erase the memories of soldiers suffering from Post Traumatic Stress Disorder. This is seen as a viable solution, rather than investigate and ameliorate the horrific events which have put soldiers into stressful situations to begin with. Multi-tour soldiers are more suicidal than ever before, and military researchers would like to rewire their brains, as opposed to rework our current understanding of war and peace.

Damn the ethics; science continues full throttle, largely at the behest of military ideology and funding. The proverbial canary in the coal mine has transformed into a mouse in a laboratory. Apparently, until humanoid robots can be released full force, they need to create the best human facsimile possible.

Once again MIT is in the picture.

In a supposed attempt to understand why people can have memories of things that never happened, or divergent reports of the same documented event, the upshot of recent experiments with mice is that it is in fact possible to implant false memories of events that never have happened. Beyond that, researchers can implant fear:

The researchers place a mouse in a brand new environment. As the mouse explores this environment (Place A), new memories are created in the hippocampus (the region of the mammalian brain that we know is deeply involved with memory formation). In Place A, the mouse has the time of its life. The mouse is then relocated to a different environment (Place B). While in Place B, the neuroscientists stimulate the memory of Place A using optogenetics . . . while simultaneously delivering electric shocks to the mouse’s feet, causing fear and pain. Then, when the mouse is returned to Place A, it freezes in fear. This is because the mouse’s brain has somehow confused the fear of electric shocks in Place B with its memory of Place A — in other words, a false memory has been created.

What you have just read is a form of trauma-based mind control.

Of additional note is that scientists employed a virus to change “the neuron’s DNA so that they produce a protein switch that is sensitive to light. Then, when these neurons are struck by light (a hole is drilled in the mouse’s skull and a laser is shot into that region of the hippocampus), the memory is turned on.”

A literal on/off switch to produce fear.

This is part of the grand future of neuroscience, which is receiving funding from the $100 million BRAIN project in the U.S., and another $1.3 billion committed by Europe.  We are already seeing some very unethical applications.

We would do well to weigh the positives and negatives while we still have the capacity to freely form and communicate our own thoughts; because the next step is on the horizon . . .  and it looks rather grim for anyone who values human emotion:

The next step, of course, is to actually do something with these findings. The research group would like to use its memory manipulation technology to fix/treat undesirable brain function, such as anxiety and depression. Being able to delete or reprogram bad memories, a la Eternal Sunshine of the Spotless Mind, would probably make short work of many mental woes. Perhaps more excitingly, though, is the potential to directly encode new memories into our neurons — kind of like when Neo learns to fly a helicopter in The Matrix. That’s probably a few years away yet, though.

Probably…

MIT Research Paper: “Creating a False Memory in the Hippocampus”: DOI: 10.1126/science.1239073

Comments

Science & Technology

20 scientific predictions for the next 10 years

We are lucky to be born and live in an incredible time of development of science and technology. We know the approximate rate of development of both, but we have no idea what this rate will be by the end of our life. Things that have long been considered science fiction are becoming components of our lives every day. In the next ten years, the world may present us with gifts that cannot be refused.

The amazing thing about all these scientific discoveries is that they give rise to technologies that further accelerate technological progress. Our ability to innovate grows exponentially as the years go by. 

To give you an idea of ​​the significance of this progression, here are 20 scientific predictions that should occur by 2030.

1. Artificial intelligence (AI) will pass the Turing test, or in other words, the machine will prove that it can think independently.

2. Hyperloop (Elon Musk’s vacuum train project) will start passenger transportation.

3. Biosensors will go on sale, which will call an ambulance if the wearer suddenly becomes ill. In addition, they will remind you to take certain medications, assessing the current state of the body.

4. The level of air pollution will rise, but scientists will come closer to an effective solution to this global problem.

5. Self-driving car will remain a luxury.

6. The world average cost of solar panels will drop sharply, the transition to solar energy will be very rapid.

7. People will return to the moon and begin its consistent colonization.

8. Robots-killers (drones with weapons) will appear. Crime will reach a fundamentally new level. Investigations will come to a standstill.

9. In developed countries, life expectancy will rise sharply. Cancer will cease to be a fatal problem.

10. NASA’s James Webb Space Telescope will be launched, which will help discover hundreds of new earth-like planets and partially learn the chemical composition of their atmospheres.

11. Rapid development of the multi-billion dollar space tourism industry.

12. In the public domain there will be “sources” for printing clothes on a 3D printer. Tens of millions of workers from poor countries will be left without even this low-paying job.

13. If breast cancer is detected on time, the chance of cure will be 100%.

14. The United States will actively grow organs from stem cells from patients themselves. The donation will in fact be liquidated.

15. We will not find extraterrestrial life on Mars. We will probably find it on the moons of Jupiter or Saturn.

16. SpaceX regularly brings people into lunar orbit in preparation for a manned mission to Mars.

17. Global warming will release the oldest viruses. The Chinese coronavirus will seem like a childish joke.

18. The Internet will completely replace television and print media.

19. Tesla cars will become the world’s best-selling cars.

20. Mass DNA editing experiments will begin. Thanks to this, children will be born with “built-in” protection against a huge number of diseases.

Continue Reading

Science & Technology

Designer has created a concept for the electric bike of the future

Futuristic motorcycles have become part of popular culture, associated with the concepts of the near future. They appeared in the film ” Tron: Legacy”, the anime “Akira” and in many video games from the “cyberpunk” genre. Recently, Russian designer Roman Dolzhenko presented his version of the bike of the future.

Russian designer has created a concept for the electric bike of the futureromorwise.com

MIMIC eBike – the concept of an electric superbike – originally existed as a sketch on a paper napkin. Later, the designer made the idea more realistic by rendering in 3DS max.

Minimalism prevails in motorcycle design. It lacks straight lines and protrusions. The dashboard of the bike is completely digital, and consists of a solid display showing basic information (speed and battery charge status).

Superbike MIMICromorwise.com

There are very few details about the superbike. Social network users are most often concerned about the question: how to turn the steering wheel with this design? The front wheel fairing and handlebar structure appear to be inactive. In an interview for InceptiveMind, Dolzhenko answered this question: the front of the motorcycle turns completely, but at a slight angle.

Superbike MIMICromorwise.com

There is no information on the cost of transport, capacity and production, which is not surprising. MIMIC eBike is just an extremely realistic concept art of the motorcycle of the future. Perhaps in a couple of years, some Elon Musk will adapt the MIMIC design for a real electric superbike.

Continue Reading

Science & Technology

Genes work differently in men and women

All of our cells have the same genes. They can have mutations, however, both in the muscle cell and in the neuron there is a gene for the globin protein, an insulin gene, an acetylcholinesterase gene, etc. But is it worth reminding that a muscle cell is not like a nerve cell? The point is that genes work differently in different cells.

… although these differences should not be exaggerated – even the end sections of chromosomes, which determine biological age, look the same in men and women.

More than ten years ago, a large international team of researchers launched the GTEx (Genotype-Tissue Expression) project, the goal of which was to determine the activity of all genes in all human tissues and organs. Samples of 49 tissues were taken from 838 donors – dead healthy people, mostly elderly. First of all, the DNA was read from each of the donors. Second, the amount of different RNA was analyzed in each tissue. As you know, genetic information from genes in DNA is first read into the messenger RNA (mRNA) molecule, and then proteins are already synthesized on the mRNA molecule (for simplicity, we are not talking about a large class of RNAs that do not encode proteins and which themselves perform various important functions in the cell). The more active a gene is, the more mRNA is read from it. Therefore, by the level of different mRNAs, one can understand where which genes are more active,

The activity of a gene depends on special regulatory sequences, which are also recorded in the DNA – that is, some sections of DNA affect others. By comparing the genetic text in DNA with the amount of different RNAs in different people, one can understand which regulatory regions in DNA affect a particular gene. Such regions (or loci) in DNA are called eQTL, expression quantitative trait loci, which can be roughly translated as loci that determine the level of activity.

As a result of the work, a whole bundle of fifteen articles was recently published in Science , Science Advances , Cell and other journals. Now, using the map of tissue genetic activity for each gene, you can check how it should work in a particular organ or part of it (because several samples were taken from each organ). On the other hand, by looking for a regulatory region (eQTL) in a person’s genome, one can estimate how certain genes will work. It’s genes – because each regulatory eQTL affects more than two genes.

Another important result concerns telomeres, the ends of chromosomes that shorten with each cell division. Telomeres are often used to assess biological age: the shorter they are, the older the body is. But usually blood cells are taken to measure telomeres. What if different fabrics age differently?

The researchers estimated the length of the end sections of chromosomes in 23 tissues, and came to the conclusion that blood does indeed provide an indication of age in general: telomeres in blood cells shorten in proportion to telomeres in other tissues. At the same time, earlier studies were not confirmed, in which female telomeres were on average longer than male ones – that is, neither women nor men have telomere advantages. Which is curious in its own way, since it is believed that women generally live longer than men . This is probably because telomeres are a significant, but not the only indicator of age. In addition, it was not possible to see a strong shortening of telomeres in smokers (here it is worth noting that lung cancer can occur without telomere shortening).

By the way, about women and men. Gender differences are hard to ignore, and we all know that men and women have different sex chromosomes and that men and women have different hormones. Obviously, this should affect the work of genes. Indeed, researchers have found that 37% of our genes work differently in men and women in at least one tissue. Moreover, some genes, relatively speaking, “work” only in one sex. For example, men with different DPYSL4 gene variants will have different body fat percentages. But in women, the DPYSL4 gene does not affect body fat – this does not mean that the gene does not work, just the amount of adipose tissue depends on other genes. Similarly, in men with different variants of the CLDN7 genethere will be different birth weights. In women, birth weight is linked to another gene, HKDC1 .

Many genes, whose activity depends on sex, are associated with diseases, but their “sex” differences were still unknown. Obviously, this information is useful in personalized therapy, when the patient is being treated according to his individual genetic characteristics. However, the authors of the work note that although a lot of “sex-dependent” genes were found, their activity itself does not change very much. In general, the gender genetic differences between men and women are not very large. We emphasize that this is precisely if we take it as a whole – because the genes on which, say, primary and secondary sexual characteristics depend, work in men and women in very different ways.

What else affects gene activity? For example, age – but here there is a gap in the received data. Above we said that the samples were taken mostly from people in years; in addition, more material is needed to analyze age differences across the entire genome. (By the way, it is possible that sex differences are manifested in different ways at different ages.) Some experts, according to The Scientist portal , generally strongly doubt the reliability of the results, because samples were taken from the dead, and not from living people. On the other hand, where can we find healthy volunteers who would allow them to take a piece of tissue from the bowels of their own brain? Subsequent studies are likely to greatly adjust this map of tissue gene activity, but, one way or another, the new data will have something to compare with.

Continue Reading
Advertisement

DO NOT MISS

Trending