MATTER
An Alternative Concept
By: Nainan K Varghese

Table of Content

Table of Contents ▸
TABLE OF CONTENTS
GLOSSARY:ix
VOLUME I
Chapter 1
INTRODUCTION:
1.1. General:1
1.2. Aim of this book:1
1.3. Scope of this book:3
1.4. Interaction:6
Chapter 2
UNIVERSAL MEDIUM:
2.1. Assumptions in physics:9
2.2. Entities:13
2.2.1. Substance:15
2.2.2. Matter:16
2.2.3. Macrobodies:18
2.3. Space:19
2.3.1. Fundamental dimensions:22
2.3.2. Space as a reference:24
2.3.3. Dimensional spatial systems:27
2.3.4. Necessity of a universal medium:29
2.3.5. Ideal universal medium:30
2.4. Postulation:34
2.4.1. Structureless matter:35
2.4.2. States of existence of matter:38
2.4.3. Postulated matter-particle:39
2.4.4. Quantum of matter:40
2.4.5. Properties of a quantum of matter:44
2.5. Nature of quanta of matter:48
2.5.1. Actions within a quantum of matter:49
Integrity of matter-content:i
Chapter 2 (Continued)
Change in dimensional status:52
Displacement in space:57
2.5.2. Co-existence of matter-bodies:61
2.5.3. Co-existence of quanta of matter:63
2.5.4. Preservation of individuality:66
2.5.5. Interaction between quanta of matter:70
2.6. Universal medium:76
2.6.1. Junction points:78
2.6.2. 2D energy field:82
2.6.3. Equilibrium of a 2D energy-field:85
2.6.4. Properties of 2D energy-fields:88
2.6.5. Homogeneity of universal medium:91
2.6.6. Anisotropy of universal medium:92
2.6.7. Relative motion in universal medium:93
2.7. Structural distortions:94
2.7.1. Reactive effort:95
2.7.2. Field-effort:98
2.7.3. Work and effort:100
2.8. Distortion-field:102
2.8.1. Transmission of distortion-fields:106
2.8.2. Range of distortion-field:111
2.8.3. Time and inertia:112
2.9. Disturbance:115
2.9.1. Breakdown of a 2D energy-field:116
2.9.2. Creation of a disturbance:117
2.9.3. Magnitude of a disturbance:118
Chapter 3
GRAVITATION
3.1. Gravitation:121
3.1.1. Range of gravitation:122
3.1.2. Nature of gravitation:122
3.1.3. Strength of gravitation:124
3.2. Application of gravitation:126
3.2.1. Action of gravitation:127
3.2.2. Motion by gravitation:130
3.2.3. Pressure energy of a disturbance:131
3.2.4. Gravitation on a straight perimeter:132
3.2.5. Gravitation on a curved perimeter:135
Chapter 3 (Continued)
3.3. Gravitation on a disturbance:138
3.3.1. Shaping a disturbance:138
3.3.2. Size reduction of a disturbance:140
3.3.3. Contraction of a small disturbance:141
3.4. Apparent attraction:143
3.4.1. Gravitational attraction in 2D space:147
3.4.2. Effect of angle subtended:149
Chapter 4
PHOTON
4.1. Contraction of a larger disturbance:153
4.1.1. Internal pressure of a disturbance:153
4.1.2. Very large disturbance:155
4.1.3. Disturbance of optimum size:156
4.1.4. Creation of 3D matter:157
4.1.5. Creation of higher-dimensional matter:159
4.1.6. Critical radial size:160
4.1.7. Moulding a 3D disturbance:161
4.2. Ejection effort:162
4.3. Spin effort:164
4.4. Photon:165
4.4.1. Centrifugal action in a 3D disturbance:166
4.4.2. Creation of a photon:167
Shape of a photon:169
Concepts of a photon:171
Polarity of a photon:172
4.5. Motion of a photon:173
4.5.1. Linear motion of a photon:175
Stabilising mechanism:182
4.5.2. Spin motion of a photon:186
Stabilising mechanism:190
4.6. Stable photon:194
4.6.1. Stability of straight-line path:195
4.7. Stability of photon's linear speed:200
4.7.1. Higher than critical speed:202
4.7.2. Lesser than critical speed:207
4.8. Stability of photon's spin speed:212
4.8.1. Frequency shift of light:212
4.9. Resultant speed of a photon:217
Chapter 4 (Continued)
4.10. Extent of Universe:218
4.11. Background radiation:219
4.12. Matter and energy-content of a photon:219
4.12.1. Work and energy about a photon:222
4.12.2. Kinetic energy and rest mass:229
Chapter 5
INERTIA
5.1. Physical body:233
5.1.1. State of uniform motion:235
5.1.2. Interactions between 3D material bodies:238
5.2. Inertial-efforts:241
5.2.1. Nature of an effort:242
5.2.2. Action of an inertial-effort:250
5.2.3. Inertia:260
5.2.4. Efficiency of an effort:261
5.3. Mechanism of inertial motion:263
5.3.1. Effort on a macrobody:270
5.3.2. Addition of co-linear motions:275
5.3.3. Resultant of concurrent motions:279
5.3.4. Linear momentum:283
5.4. Torque:284
5.4.1. Mechanism of rotary motion:287
5.4.2. Inertia of rotary motion:291
5.4.3. Angular momentum:293
5.5. 'Centrifugal force':296
5.5.1. Bucket argument revisited:299
5.6. Motion in circular path:308
5.6.1. Momentum in circular motion:312
5.7. 'Centripetal force':316
5.7.1. Reduction in ‘centripetal force':319
5.7.2. Increase in ‘centripetal force':320
5.7.3. Termination of ‘centripetal force':320
5.7.4. Tangential motion:323
5.8. Linear motion of a rotating body:325
5.8.1. Rotation by a linear effort:333
5.9. Gyroscopic inertia:336
5.9.1. Gyroscopic precession:336
5.10. Effect of very large explosion:339
Chapter 6
RADIATION
6.1. Matter-field:345
6.1.1. Distortions in matter-fields:348
6.1.2. Directional classification of distortions:354
Normal-distortion:355
Parallel- distortion:356
6.2. Radiation:357
6.2.1. Radiation of matter:359
6.2.2. Radiation of energy:362
6.3. Velocity of radiation:364
6.4. Light:366
6.4.1. Speed of light:368
6.4.2. Velocity of electromagnetic wave:371
6.5. Relative velocity of radiation:373
6.5.1. Velocity of radiation in a medium:380
6.6. Properties of radiation:383
6.7. Reflection of light:384
6.7.1. Angle of reflection:394
Difference in rest masses:395
Differences in angle of incidence:397
Selective reflection:400
6.8. Doppler Effect:404
6.8.1. Reflection from a regressing surface:406
6.8.2. Reflection from an approaching surface:407
6.8.3. Radiation from a moving source:409
6.8.4. Radiation received by a moving body:410
6.9. Radiation near a very large macrobody:411
6.10. Refraction of light:414
6.10.1. Magnitude of refraction:418
6.10.2. Dispersion of composite light:419
6.10.3. Refraction during reflection:420
6.11. Selective refraction:422
6.11.1. Total internal reflection:424
6.11.2. Double refraction:424
6.11.3. Double reflection:425
6.12. Diffraction of light:426
6.12.1. Wave nature of fundamental particles:429
6.13. Interference of light:430
Chapter 6 (Continued)
6.14. Polarisation of light:433
Chapter 7
GRAVITATIONAL ATTRACTION
7.1. Push gravity:437
7.2. Gravitation in 3D space:439
7.3. Gravitational attraction:440
7.3.1. Attraction in 3D space:442
7.3.2. Attraction between photons:445
7.3.3. Attraction between coplanar photons:447
7.3.4. Attraction between macrobodies:453
7.3.5. Magnitude of attraction:459
7.4. Inverse square law:462
7.4.1. Breakdown of inverse square law:464
7.5. Gravitational constant in 2D space:467
7.5.1. Practical gravitational constant:471
7.6. Action at a distance:473
7.7. Screening gravitation:474
7.8. levitation:475
7.9. Anomaly in gravitational attraction:477
Chapter 8
DISTORTION-FIELDS
8.1. Unstable photon:481
8.2. Distortions due to unstable photon:485
8.3. Distortion-field:490
8.3.1. Interaction between distortion-fields:498
8.3.2. Mechanism of field-efforts:499
8.3.3. Lines of force:501
8.4. Superposition of distortion-fields:502
8.4.1. Unidirectional linear distortion-fields:504
8.4.2. Linear distortion-fields in opposite directions:505
8.4.3. Angular distortion-fields:506
8.5. Field-efforts between photons:507
8.6. Interaction between photons:511
8.6.1. Linearly moving photons:514
Motion in the same direction:515
Motion in opposite directions:517
8.6.2. Angularly moving photons:521
Motion in dissimilar directions:524
Chapter 8 (Continued)
Motion in similar direction:529
8.7. Interaction between distortion-fields:541
8.7.1. Linear distortion-fields:545
8.7.2. Angular distortion-fields:547
Dissimilar angular distortion-fields:548
Similar angular distortion-fields:552
8.7.3. Assorted distortion-fields:555
Chapter 9
BITON
9.1. Formation of a biton:563
9.2. Binding effort of a biton:567
9.3. Stable biton:570
9.3.1. Change in the matter-content of one photon:573
9.4. Distortion-field about a biton:576
9.5. Stabilisation of a biton:583
9.5.1. Higher matter-content of a biton:586
9.5.2. Lower matter-content of a biton:587
9.5.3. Ground state of matter:588
9.6. Stable biton in free space:589
9.7. External pressure on a biton:591
9.7.1. Expansion of a macrobody:594
9.8. Internal pressure of a macrobody:595
9.8.1. Radiation from a macrobody:597
9.9. Life of a biton:598
9.9.1. Entropy of universe:599
9.9.2. Room temperature:600
9.9.3. Magnitude of radiation:601
9.10. Linear motion of a biton:602
9.11. Heat rays:612
9.11.1. Direct method of heating:614
9.11.2. Indirect method of heating:615
9.11.3. Energy transfer during heating:616
9.11.4. Radiation during heating:617
9.12. Heat and coldness:619
9.12.1. Transfer of heat:624
9.12.2. Temperature in high pressure regions:626
9.12.3. Matter-content level and physical state:627
9.12.4. Brownian motion:629
Chapter 9 (Continued)
9.12.5. Floating macrobodies:634
9.12.6. Thermodynamic laws:634
9.13. Temperature and acceleration due to gravity:635
9.14. Energy content of a biton:637
9.15. Classification of bitons:639
VOLUME II
Chapter 10
TETRON
10.1. Interaction between bitons:641
10.2. Combination of two bitons:644
10.3. Bonds in tetron:648
10.3.1. Stabilisation of tetron:650
10.3.2. Change in 3D matter-content:656
10.3.3. Deflection of a biton:657
10.3.4. Sustenance of stability:661
10.4. Mass and weight of a tetron:662
10.5. Interaction between tetrons:663
10.6. Group formation by tetrons:674
10.6.1. Layer formation by tetrons:677
10.7. Formation of a neutron:680
10.7.1. Bonds in a neutron:681
10.8. Properties of neutrons:684
10.8.1. Splitting a neutron:685
10.8.2. Energy content of a neutron:686
Chapter 11
FIELD-EFFORT
11.1. Classification of efforts:687
11.1.1. Mechanism of field-effort:688
11.1.2. 3D nature of field-efforts:696
11.1.3. Components of a field-effort:697
11.1.4. Nature of resolved components:698
11.2. Primary electric field:702
Chapter 11 (Continued)
11.3. Magnetic field:704
11.3.1. Magnet:705
11.4. Electric field:707
11.4.1. Axes of electric and magnetic fields:708
11.4.2. Electric charge:710
11.5. Interaction between magnetic fields:711
11.6. Interaction between electric fields:714
11.6.1. Zilch-effort distance:723
11.7. Split distortion-fields:728
11.8. Static distortion-fields:739
11.9. Range of distortion-fields:740
11.10. Strength of a field-effort:741
Chapter 12
HEXTON
12.1. Formation of a hexton:753
12.2. Hexton:755
12.2.1. Changes in 3D matter-content:764
12.2.2. Deflection of a biton:765
12.2.3. Classification of hextons:768
12.2.4. Distortion-fields of a hexton:769
12.3. Distortion-field of a positron:771
12.3.1. Positron:777
12.4. Distortion-field of an electron:778
12.4.1. Electron:783
12.5. Nuclear field:784
12.5.1. Interaction between nuclear fields:786
12.5.2. Strength of nuclear fields:792
12.6. Energy content of a hexton:793
12.7. Interaction between 3D matter-particles:794
12.7.1. Interaction between two electrons:795
12.7.2. Interaction between an electron and a tetron:796
12.7.3. Interaction between an electron and a positron:797
Annihilation of 3D matter:799
12.7.4. Interaction between two positrons:800
12.7.5. Interaction between a positron and a tetron:802
12.8. Proton:806
12.9. deuteron:809
12.9.1. Interaction between two deuterons:812
ix
Chapter 13
ATOM
13.1. Induced distortion-fields:815
13.2. Atoms of elements:817
13.3. Nucleus of an atom:820
13.4. Grouping of deuterons:821
13.4.1. Axial arrangement:822
13.4.2. Circular arrangement:825
13.4.3. Mixed arrangement:826
13.5. Development of a nucleus:828
13.6. Formation of an atom:830
13.7. Nuclear spin:837
13.7.1. Positron on electron's path:839
13.7.2. Positron outside electron's path:843
13.7.3. Direction of spin:845
13.8. Alignment of orbital electron:845
13.8.1. Secondary electric field:857
13.9. Stable atom:858
13.9.1. Electronic orbital paths:861
13.10. Energy content of an atom:868
13.11. Grouping by atoms:870
13.11.1. Formation of a molecule:871
13.11.2. Characteristic properties of elements:872
13.11.3. Chemical interactions:874
13.11.4. Disintegration of atoms:876
13.11.5. Pair production:878
Chapter 14
ELECTRICITY
14.1. Application of this concept:881
14.2. Electric motoring:885
14.2.1. Strength of motoring effort:888
14.2.2. Electric field in non-uniform magnetic field:889
14.3. Electric generation:891
14.3.1. Nature of electric current:894
14.4. Atomic section in a magnetic field:897
14.4.1. Electric field about atomic section:902
14.4.2. Moving atomic section in magnetic field:905
14.5. Atom in a magnetic field:909
Chapter 14 (Continued)
14.5.1. Electric induction:911
14.6. Electric potential:918
14.6.1. Field-effort on an atom:921
14.6.2. Electric potential in a conductor body:926
14.6.3. Electric potential due to generation:928
14.6.4. Electric potential due to induction:930
14.6.5. Direction of electric potential:930
14.6.6. Spread of electric potential:939
14.7. Electric current:944
14.7.1. Production of electric current:946
14.7.2. Electric current in conductor body:949
14.8. Static electricity:954
14.8.1. Methods to develop electric potential:954
14.9. Electric resistance:956
14.9.1. Effect of heat on resistance:959
14.9.2. Thermal effect of electric current:961
14.10. Contact potential:964
14.11. Electromagnetic waves:966
14.11.1. Photon and electromagnetic wave:969
Chapter 15
CAPACITANCE
15.1. Electric capacitance:973
15.2. Electrostatic field:979
15.2.1. Dielectrics:983
15.2.2. Electrostatic and electric fields:985
15.2.3. Effect of distance between plates:986
15.2.4. Magnitude of electrostatic field:990
15.3. Foreign body between capacitor plates:996
15.3.1. Electric field in electrostatic field:999
15.3.2. Electron in an electrostatic field:1000
15.3.3. Macrobody in an electrostatic field:1002
15.4. Electrostatic generator:1004
15.5. Electrolysis:1009
Chapter 16
COSMOLOGY
16.1. Evolution of universe:1015
16.1.1. Gravitational collapse of a macrobody:1017
16.1.2. Intergalactic cloud:1018
Chapter 16 (Continued)
16.1.3. Satellites:1019
16.1.4. Planets:1020
16.1.5. Stars:1021
16.1.6. Black hole:1022
Invisibility of a black hole:1026
Background radiation:1028
Death of a black hole:1029
16.1.7. Quasars and Pulsars:1031
Novae:1032
16.1.8. Binary system:1033
Real paths of stars in a binary system:1034
16.1.9. Galaxy:1036
Stability of a galaxy:1037
Repulsion between galaxies:1041
16.2. Relative motion in cosmology:1048
16.2.1. Path of a moving object:1051
16.3. Planetary orbit:1052
16.3.1. Circular orbit:1059
16.3.2. Elliptical orbit:1062
Limits of angular speed of entry:1067
Orbits about a moving central body:1072
16.3.3. Anomalies in planetary orbits:1076
Apparent loss of orbital motion:1078
Precession due to eccentricity:1079
Assorted perturbations:1080
16.3.4. Electronic orbits:1081
16.4. 'Central force':1082
16.4.1. Magnitude of ‘central force':1089
16.4.2. Magnitude of radial velocity:1096
16.5. Planetary spin:1099
16.5.1. Magnitude of planetary spin:1100
16.5.2. Apparent spin motion:1106
16.5.3. Anomalies:1109
16.5.4. Variations of solar day:1110
16.6. Tides:1111
16.6.1. Terrestrial tides:1121
16.6.2. Direction of tides:1122
Direction of angular shift from local meradian:1125
Apparent direction of solar tides:1133
Chapter 16 (Continued)
Apparent direction of lunar tides:1135
Effect of orbital motion on directions of tides:1137
Chapter 17
GENERAL
17.1. Time:1139
17.2. Physical states of matter:1144
17.2.1. Latent stages:1146
17.2.2. Solid state of matter:1151
17.2.3. Liquid state of matter:1154
17.2.4. Gaseous state of matter:1157
17.2.5. Plasma state of matter:1161
17.2.6. Mpemba effect:1163
17.3. Evaporation:1167
17.3.1. External pressure on macrobody:1167
17.3.2. Vaporisation:1169
17.3.3. Condensation:1171
17.3.4. Boiling:1172
17.4. Photo-electricity:1174
17.4.1. Photoelectric materials:1175
17.4.2. Photoelectric effect:1177
17.5. Electric discharge:1183
17.5.1. Electric arc:1184
17.5.2. Dielectric constant:1186
17.5.3. Glow discharge:1186
17.6. Emission spectra:1189
17.7. Fluorescence:1193
17.8. Friction:1196
17.9. Elements of matter:1198
17.9.1. Hydrogen:1198
Ions:1205
Deuterium:1206
Tritium:1207
Formation of hydrogen molecule:1209
Splitting a hydrogen molecule:1214
17.9.2. Helium:1215
17.9.3. Lithium:1219
17.10. Permanent magnet:1220
17.11. Magnetic field about a moving macrobody:1223
Chapter 17 (Continued)
17.11.1. Terrestrial magnetism:1228
INDEX
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