The Measurements of Directional Dependence of Weight for Magnets

C. Y. Lo; Li Hua Wang

Authors

C. Y. Lo
Li Hua Wang

current-mass interaction; charge-mass interaction; repulsive gravitation; E=MC

Abstract

To explain the weight reduction of a charged capacitor and Einstein's unification, it is necessary to confirm the existence of the repulsive charge-mass interaction and the attractive current-mass interaction. Therefore, to show the existence of the current-mass interaction, one must measure the effect of a small directional dependence of weight for a magnet, To do this, one must exclude the magnetic effect from the earth. In addition, one should avoid the influence of the magnet to the electronic scale for weighing. Here, we provide a method to measure and confirm such tiny effects of weight directional dependence experimentally. However, it is not effective to measure the small current-mass interaction directly. A problem is that a current must have a maintaining source unless in the super-conducting situation. Thus, this connection to the source would affect the measurements of the small current-mass interaction. Moreover, E = mc 2 is not always valid and Einstein failed his unification because, unlike Maxwell, he did not recognize that some additional interactions must be added to the original theories.

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The Measurements of Directional Dependence of Weight for Magnets. (2018). Global Journal of Science Frontier Research, 18(A11), 1-11. https://journalofscience.org/index.php/GJSFR/article/view/2361

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References

C Lo (2012) Unknown Title. 25(4), 553-560.

C Lo (2012) The invalid speculation of , the Reissner-Nordström metric, and Einstein's Unification Theory. 25(1), 49-56.

C Lo (2012) On the Weight Reduction of Metals due to Temperature Increments. 12(7).

C Lo (2016) The observable temperature dependence of gravitation. 29(3), 337-342.

C Lo (2017) The observable temperature dependence of gravitation. 29(3), 337-342.

T Valone (2008) Electro Gravitics II.

P La, Violette (2008) Secrets of Antigravity Propulsion.

Takaaki Musha (2008) Instability of Space-time Continuum from the Standpoint of ZPF Field in a Vacuum. 5(4), 1-7.

Takaaki Musha Theoretical explanation of the Biefeld-Brown Effect. 3-11.

Takaaki Musha (2024) Special value of the odd zeta function ζ(3). 12(12).

C Misner, K Thorne, J Wheeler (1973) Gravitation.

C Lo (1997) Comments on Misunderstandings of Relativity and the Theoretical Interpretation of the Kreuzer Experiment. 477(2), 700-704.

C Lo (1995) Einstein's Radiation Formula and Modifications to the Einstein Equation. 455, 421-428.

S Editor Chandrasekhar suggests and approves the appendix therein.

C Lo (1999) Compatibility with Einstein's Notion of Weak Gravity: Einstein's Equivalence Principle and the Absence of Dynamic Solutions for the 1915 Einstein Equation. 12(3), 508-526.

C Lo (2000) On the Incompatibility of Gravitational Radiation with the 1915 Einstein Equation. 13(4), 527-539.

V Gladyshev, A Tereshin, D Bazleva, T Gladysheva (2005) Electromagnetic radiation in the medium with a velocity gradient. (1), 157-164.

A Einstein, W Pauli (1943) On the Non-Existence of Regular Stationary Solutions of Relativistic Field Equations. 44(2), 131.

H Einstein, H Lorentz, H Minkowski, Weyl (1923) The Principle of Relativity.

C Lo, G Goldstein, A Napier (1989) Radiation reaction force and unification of electromagnetic and gravitational fields. 12(2), 75-89.

Th, Kaluza (1921) On The Unity Problem of Physics, Sitzungsberichte der K. 966.

C Lo (2007) The Necessity of Unifying Gravitation and Electromagnetism, Mass-Charge Repulsive Effects, and the Five Dimensional Theory. 26(1), 29-42.

K Thorne (1994) Black Holes and Time Warps. 456.

C Lo (2015) The Weight Reduction of Charged Capacitors, Charge-Mass Interaction, and Einstein's Unification. 7(3), 1959-1969.

W Liu (2007) Virtual Private Network (VPN). 133-144.

C Lo, C Wong (2006) Unknown Title. 25(2), 109-117.

Einstein (1946) E = mc 2 ' (from Science Illustrated.

C Lo (2014) On Achievements, Shortcomings and Errors of Einstein. 4(2), 29-44.

Gullstrand (1921) Bibliography. 050(3), 312-317.

C Lo (2012) Comments on the 2011 Shaw Prize in Mathematical Sciences, --an analysis of collectively formed errors in physics. 12(4).

C Lo, Richard Hui (2006) Comments on the invalid proof of Einstein on L = mc² and E = mc². 31(1), 55-58.

C Lo, S Yau (1982) Witten and Jones Receive Fields Medals for Physics-Related Work. 44(2), 111-112.

C Lo (2017) An Open Letter to the International Mathematics Union on the Errors in the 1982 and 1990 Fields Medal Awards. 16(6), 1-4.

C Lo (2006) The Gravity of Photons and the Necessary Rectification of Einstein Equation. 1, 46-51.

C Lo (2011) Could Galileo be wrong?. 24(4), 477-482.

C Lo (2014) The Unification of Gravitation and Electromagnetism and the Cause of the Pioneer Anomaly Discovered by NASA. 3(1), 38-47.

C Lo (2013) Rectification of General Relativity, Experimental Verifications, and Errors of the Wheeler School. 13, 123-135.

G Hooft (1999) A Confrontation with Infinity.

Frank Wilczek (2004) Nobel Lecture: Asymptotic freedom: From paradox to paradigm. 77(3), 857-870.

C Lo, C Richard, Hui (2018) Comments on the Invalid Proof of Einstein on L = mc 2 & E = mc 2. 31(1).

C Lo (2013) On the Nobel Prize in Physics, Controversies and Influences. 13(3), 59-73.

Albert Einstein (1936) Physics and reality. 221(3), 349-382.

H Lorentz (1916) Unknown Title. 25, 1380.

T Levi-Civita, R (1917) Unknown Title. 7, 381.

A Einstein (1916) Unknown Title. 1, 167.

Demetrios Christodoulou, Sergiu Klainerman (1993) The Global Nonlinear Stability of the Minkowski Space (PMS-41). 42.

C Lo (2000) The Question of Validity of the "Dynamic Solutions" Constructed by Christodoulou and Klainerman. 13(1), 109-120.

Perlick Volker (1996) Unknown Title. 827, 761-763.

L Okun (1989) The concept of mass (mass, energy, relativity). 158(7), 511.

L Okun (2008) The Einstein formula: E 0 = mc 2 . "Isn't the Lord laughing?. 51(5), 513-527.

R Wald (1984) General Relativity.

H Bondi, F Pirani, I Robinson (1959) Gravitational waves in general relativity III. Exact plane waves. 251(1267), 519-533.

R Schoen, S.-T Yau (1981) Proof of the Positive Mass Theorem. II. 79, 231-260.

Edward Witten (1981) A new proof of the positive energy theorem. 80(3), 381-402.

L Herrera, N Santos, J Skea (2003) Unknown Title. 35(11), 2057.

Edmund Whittaker (1935) On Gauss' theorem and the concept of mass in general relativity. 149(867), 384-395.

Richard Tolman (1930) On the Use of the Energy-Momentum Principle in General Relativity. 35(8), 875-895.

C Lo (2011) Unknown Title. 2(4), 20-27.

A Einstein, N Rosen (1937) On gravitational waves. 223(1), 43-54.

Shahar Hod (2013) A SIMPLIFIED TWO-BODY PROBLEM IN GENERAL RELATIVITY. 22(12), 1342029.