Відео

Martinez Laura Thomas John Martinez Steven

43:00 It is generally accepted that a quantum transition occurs as a result of the evolution of the system over a finite period of time, and the moment of occurrence of each of the transitions is by no means the end of the disturbance. The course of a quantum transition (jump) in time deserves special analysis. A single transition is a random phenomenon and at what point each transition occurred, it is not possible to calculate* using quantum mechanics, which proceeds from the basic postulate of this theory: if an event is possible, then only its probability is reliable. Thus, QM is distributed in an infinitely small time interval (=0) in the vicinity of event P. That is, it is a pseudo-quantum theory that is internally and externally ~ consistent. However, the QM claims to a comprehensive description of the world and, moreover, extension of own limitations to reality are not modest. --------------------- *) - Instead, "Shut up and count." Feynman should have said: "Wake up and create a truly quantum theory.” Addition In fact, the observer's self-esteem in QM is underestimated to the level of the infamous ostrich. The observer is always involved in an unavoidable measurement process. It seems that there have never been any problems with QM already within the framework of GR (for example, in the case of the Schrodinger/Carroll cat). A live cat breathes and, accordingly, emits gravitational waves according to the formula GR with intensity: I(G)=(2G/45c^5)(M^2)(l^4)(w^6), where M is the mass of the cat, l is its characteristic size, w is its frequency breathing.The frequency of gravitational radiation should be on the order of w~ 2π/т where т is the characteristic time of accelerated mass movement (pulsation, rotation, collision, non-spherical explosion).It is clear that the dead cat is not breathing and I(G) =0*. In principle, all this lends itself to a certain (improbability) constant measurement without opening the "black box", since gravity is not shielded [w=w(m)]. Moreover, the behavior of the radiation source is also controlled, since it emits only in an excited state. ** Of course, Carroll's sleeping cat breathes, but differently (can be measured) than the waking one. Sweet dreams to you QM, on the interpretation of the Born wave function.*** P.S. Why didn't Einstein use this argument? He wasn't sure about the reality of gravitational waves and assumed only the presence of hidden parameters… --------------------- *) - By the way, a "smile" without a cat can be detected according to Einstein's equations. Raising one of the indices, substituting I=k and summing, we find: R=-(8πG/c^4)T, where T=T(n) is the trace of the energy-momentum tensor (~ "gravitational memory."). **) - If the cat is replaced with a detector, then with each absorption its state will change (which makes measurement possible). It is clear that this will also cause additional radiation of gravitational waves, since the included detector is already a source. ***) - “Smile gentlemen, a serious look on your face is not a sign of intelligence."(Gorin, "The same Munchausen").