Quantum Energetics 1 Theory of Superunification

Contents......Page 4
Preface......Page 10
The need for introducing the space-time quantum into physics......Page 20
Main problems on the path to the Superunification theory......Page 26
The universe: Boiling ‘bouillon’ of quantons......Page 28
Gravity. Inertia. Black holes......Page 50
References......Page 73
The Einstein posthumous phrase......Page 74
Conclusion to chapter 1......Page 85
Introduction......Page 87
Electromagnetic quantisation of space-time......Page 94
Disruption of electrical and magnetic equilibrium of the quantised space-time......Page 110
Electromagnetic tensioning of vacuum. Strings and superstrings......Page 168
Conclusions for chapter 2......Page 183
References......Page 184
Introduction......Page 186
Nature of the electromagnetic wave. The luminiferous medium......Page 193
Fundamentals of gravitation theory Open quantum mechanics system......Page 212
Reasons for relativism Principle of spherical invariance......Page 230
Nature of gravity and inertia Simple quantum mechanical effects......Page 237
The principle of relative-absolute dualism. Bifurcation points......Page 246
D......Page 254
Wave mass transfer. Gravitational waves......Page 261
Time problems. Chronal waves......Page 264
Antigravitation.  Accelerated recession of galaxies......Page 267
Dimensions of the space-time quantum (quanton)......Page 271
Conclusions for chapter 3......Page 277
References......Page 278
Introduction......Page 281
Classic electron radius......Page 286
Gravitational boundary of the electron......Page 288
Electrical radius of the electron......Page 293
Hidden energy and electron mass......Page 296
Many relationships of electron parameters......Page 299
Gravitational diagram and electron zones......Page 301
The gravitational attraction zone......Page 306
Equivalence of gravitational and electromagnetic energies......Page 308
Stretching of the medium by the electron......Page 309
Gravitational well of the electron......Page 319
The zone of anti-gravitational repulsion......Page 321
The zone of the minus mass of the electron......Page 325
Annihilation of the electron and the positron......Page 327
The effect of electrical force on the quanton in the electron......Page 332
Effect of the spherical magnetic field of the quanton. Electron spin......Page 342
Electron energy balance......Page 352
D......Page 358
Tunnelling of the charge and wave transfer of electron mass......Page 361
Conclusions......Page 368
References......Page 370
Introduction......Page 371
Problem of the nucleon mass......Page 380
Shell sign-changing model of the nucleon......Page 382
Shell models of the proton......Page 385
Shell models of the neutron......Page 387
Structure of nucleon shells......Page 396
Prospects for splitting the nucleon into elementary components......Page 405
Electrical nature of nuclear forces......Page 407
Analytical calculation of nuclear forces......Page 409
Electrical energy of nuclear forces......Page 417
Electrical potential of nuclear forces......Page 420
Calculation of neutron interaction......Page 421
Proton–proton interaction......Page 423
Nuclear forces in quantum mechanics......Page 424
The zones of anti-gravitational repulsion in the nucleon shells......Page 427
Conclusions......Page 436
Two-rotor structure of the photon Photon gyroscopic effect......Page 441
Introduction......Page 442
Electromagnetic nature of the photon and rotor models......Page 446
Electromagnetic trace of the photon in the quantised medium......Page 465
Н......Page 471
The wave equation of the photon......Page 479
Total two-rotor structure of the photon......Page 484
Reasons for the deceleration of light in the optical medium......Page 494
Probable capture of atomic centres of the lattice of the optical medium by a photon......Page 498
Vector diagram of the complex speed of the photon in the optical medium......Page 511
Wave trajectory of the photon in the optical medium......Page 514
Forces acting on the photon in the optical medium......Page 520
Refractive index of the optical medium......Page 526
Conclusions......Page 529
Introduction......Page 532
Concept of the discrete quantised electron......Page 540
Special features of the structure of the proton, neutron and the atomic nucleus......Page 554
Reasons for the non—radiation of the orbital electron......Page 561
Reasons for proton radiation of the orbital electron......Page 569
aa......Page 571
vv FF......Page 573
v v......Page 574
Cij k......Page 577
n......Page 578
pF......Page 580
pE......Page 581
а n......Page 585
The role of superstrong interaction in photon radiation......Page 590
Gravitational radiation of the atom......Page 596
DD......Page 597
Probability electronic cloud......Page 598
Conclusion......Page 601
References......Page 602
Energy paradox in atom recoil......Page 604
Classic approach to calculating the atom recoil......Page 605
Method of calculating atom (molecule) recoil in photon emission......Page 607
Energy balance of the atom in photon emission......Page 610
Nature of thermal oscillations......Page 613
High temperature superconductivity......Page 615
Leonov’s task......Page 617
Introduction......Page 624
State of the space-time theory......Page 626
Main static equations of the deformed quantised space-time......Page 628
The balance of gravitational potentials in quantised space-time......Page 630
Limiting mass and energy of relativistic particles......Page 634
Fundamentals of the physics of black holes......Page 636
Derivation of the equation for the speed of light......Page 638
Distribution of time in space in the form of a chronal field......Page 640
Antimatter and ideal gravitational oscillator......Page 641
Electromagnetic quantisation of space-time......Page 644
Derivation of the Maxwell equations and electromagnetic waves......Page 649
Equivalence of electromagnetic and gravitational energies......Page 654
Electron structure......Page 658
Gravitational waves in quantised space-time......Page 662
Report by V. Leonov on the generation of a gravitational wave......Page 668
Conclusions for chapter 9......Page 669
References......Page 671
World economy and scientific and technical revolutions......Page 672
Scientific errors and new energy concepts......Page 674
Dependence of the efficiency of the cycle on the energy yield of fuel......Page 679
Quantum thermal energetics. Usherenko effect......Page 680
Quantum reactors......Page 683
Cavitation heating......Page 684
Quantum engines. The Searl effect......Page 687
Practical application of quantum engines......Page 689
Forecast of the development of quantum power engineering in century......Page 705
References......Page 728
Conclusion on volume 1......Page 729
Blog Quantum Energetics......Page 731
Projects......Page 744
Patents......Page 745