me were astonishing. He was a superb remote viewer. He was a superstar. It is sometimes asked why, since he was so good at remote viewing, he wasn’t officially in our elite group of remote viewers, and the reason for that is that it was his physics characteristics that were being researched very profoundly in a lot of laboratories, including government facilities. He was under review principally because he was of interest in the physics and materials science – the things that inexplicably it appeared he could do interacting with materials and electronics. In other words, we already had some outstanding remote viewers and needed Uri Geller for other, potentially even more important, matters.’
Let’s try, then, because it will be mentioned again, to get a handle on the quantum entanglement theory, which is essence, what Dr Green is talking about when he mentions the interaction of materials and electronics. A warning first, though; because quantum physics or quantum mechanics involves phenomena which even scientists describe as ‘weird’ or ‘spooky’, it has become a bit of a mantra for non-scientists to put anything unusual, from ghosts to strange coincidences down to quantum physics. This causes some scientists to get extremely heated and dismissive about what they call ‘woo woo’ science. It’s notable, by the way, that Uri never tries to invoke quantum as an explanation for his abilities, but plenty of his supporters do, and if they’re not knowledgeable about quantum physics, they probably do him a disservice by making it easy for scientists to scoff.
The problem, however, is that scientists are not of one mind and love nothing better than tearing into one another and calling each other idiots who know nothing about what quantum really is. They do this either in scholarly articles – or more often in emotional emails and statements to one another. This squabbling and bitching has been going on since the 1930s, when quantum theory was first developed, and it is not a pretty spectacle to anyone who likes to think – as do a lot of the professional sceptics who hate Uri Geller – that science has definitive, black-and-white answers to everything.
The reality is that, and this really is not using over-emotive language, that quantum entanglement – which broadly speaking involves separate sub-atomic particles affecting one another more or less instantaneously whether they are centimetres or light years apart – is probably the most mysterious phenomenon we know of in the universe. We are talking here about separate, distant objects behaving like one entity, while remaining two separate objects. Additionally, although ‘non-locality’, as quantum entanglement is also often called, has been demonstrated regularly in laboratories since the 1990s and is already being exploited in real-life applications in electronics and other fields, not even the most knowledgeable scientist has much of a clue how it works.
One quantum theory pioneer, the Princeton physicist, John Wheeler, said if you are not completely confused by quantum mechanics, you do not understand it, while the great theoretical physicist Richard Feynman famously said that nobody understands quantum mechanics and that if anyone tells you they know how it works, they’re lying.
Even Einstein, who was partly responsible for describing quantum theory, was disturbed by aspects of it from the start. The non-locality in particular troubled him: he described it as ‘spooky action at a distance’. His issue was that if particles could act in concert almost instantaneously from one side of the Universe to the other, information (or whatever it is) would need to be travelling faster than light, which his own work argued was an impossibility. (How much faster than the speed of light quantum entanglement provably works might have spooked Einstein still further; in one recent experiment, physicist Nicolas Gisin of the University of Geneva measured photons