Try these practical telepathy exercises to strengthen your abilities.
I don't advocate for the grifting in the article, but here is a nice article on how to develop telepathic senses.
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Try these practical telepathy exercises to strengthen your abilities.
I don't advocate for the grifting in the article, but here is a nice article on how to develop telepathic senses.
In 2012 Scheuermann elected to undergo brain surgery to implant two arrays of electrodes on her motor cortex, a band of tissue on the surface of the brain. She did so as a volunteer in a multi-year study at the University of Pittsburgh to develop a better brain-computer interface. When she visits the lab, researchers hook up her brain to a robotic arm and hand, which she practices moving using her thoughts alone. The goal is to eventually allow other paralyzed individuals to regain function by wiring up their brains directly to a computer or prosthetic limb. The electrodes in her head record the firing patterns of about 150 of her neurons. Specific patterns of neuronal activity encode her desire to perform different movements, such as swinging the arm to the left or clasping the fingers around a cup. Two thick cables relay the data from her neurons to a computer, where software can identify Scheuermann’s intentions. The computer can then issue appropriate commands to move the robotic limb. ... "It’s interesting, there are two ways to do a task. One is to think about each move I’m making. So if I’m picking up a cube, I could think “move left, move forward, turn fingers left, clench fingers around object.” The other is you just look and go for it. That works much better than when I try to figure it out step by step. There was one trial several months ago where I had to move the robotic arm back and forth over two lines as many times as I could in 60 seconds. I tried as best I could and I got 24. Then I had to do the same think while distracted, for instance while carrying on a conversation. And I got 24—the same thing! Then the distraction was counting backward by threes from some random number, and that was the same, 24, which is really fascinating. Sometimes not trying too hard is best. Let the hand do the task without thinking too much."
To test the idea, they recorded brain activity in another seven people undergoing epilepsy surgery, while they looked at a screen that displayed text from either the Gettysburg Address, John F. Kennedy's inaugural address or the nursery rhyme Humpty Dumpty. Each participant was asked to read the text aloud, read it silently in their head and then do nothing. While they read the text out loud, the team worked out which neurons were reacting to what aspects of speech and generated a personalised decoder to interpret this information. The decoder was used to create a spectrogram – a visual representation of the different frequencies of sound waves heard over time. As each frequency correlates to specific sounds in each word spoken, the spectrogram can be used to recreate what had been said. They then applied the decoder to the brain activity that occurred while the participants read the passages silently to themselves (see diagram). Despite the neural activity from imagined or actual speech differing slightly, the decoder was able to reconstruct which words several of the volunteers were thinking, using neural activity alone (Frontiers in Neuroengineering, doi.org/whb). The algorithm isn't perfect, says Stephanie Martin, who worked on the study with Pasley. "We got significant results but it's not good enough yet to build a device." In practice, if the decoder is to be used by people who are unable to speak it would have to be trained on what they hear rather than their own speech. "We don't think it would be an issue to train the decoder on heard speech because they share overlapping brain areas," says Martin. The team is now fine-tuning their algorithms, by looking at the neural activity associated with speaking rate and different pronunciations of the same word, for example. "The bar is very high," says Pasley. "Its preliminary data, and we're still working on making it better." The team have also turned their hand to predicting what songs a person is listening to by playing lots of Pink Floyd to volunteers, and then working out which neurons respond to what aspects of the music. "Sound is sound," says Pasley. "It all helps us understand different aspects of how the brain processes it." "Ultimately, if we understand covert speech well enough, we'll be able to create a medical prosthesis that could help someone who is paralysed, or locked in and can't speak," he says.
Brain decoder can eavesdrop on your inner voice