Mathematics & Nature (2022) Vol. 2 No. 1 202204-3
flaunt academic ethics, but they have always tried to de-
fend academic lies, strangle, slander and even plagiarize
those groundbreaking and correct scientific discoveries.
The experience of communication with scientific jour-
nals in the past 40 years has proved that many famous
journals do not really care about new scientific discov-
eries but pay more attention to safeguarding the fame
and interests of interest groups and individuals. The
groundbreaking and great discoveries made by the bot-
tom scientists can and can only be spread to the world
with the lowest efficiency by means similar to leaflets.
To foretell a new conclusion that needs strong log-
ic support: Dirac equation is not the ultimate answer
to quantum mechanics, and its position in physics may
gradually decline with the passage of time. However, the
Dirac equation construction method is one of the most
attractive methods for constructing partial differential
equations. The Dirac equation will bring rich and color-
ful mathematical problems, which will gradually increase
its position in mathematics. It is by no means easy to
construct a truly scientific and widely applicable wave
equation that can correctly describe the laws of nature.
Construction of wave equation needs the support of ba-
sic laws of physics and mathematical principles. The
wave equation that conforms to the unitary principle
in a wider range derived from the basic laws of physics
and mathematical principles will be the ultimate answer.
Some wave equations constructed by the operator princi-
ple of quantum mechanics, such as Schr¨odinger equation,
Klein-Gordon equation and the Dirac equation, may on-
ly be transitional equations of quantum theory. We need
a unified quantum theory that conforms to the unitary
principle from the field of mathematics to the field of
physics, which is suitable for describing both macroscop-
ic and microscopic laws of motion.
1 Dirac, P. A. M. The quantum theory of the electron. Part
II. Proceedings of the Royal Society of London. Series A,
Containing Papers of a Mathematical and Physical Charac-
ter 118, 351-361 (1928).
2 Dirac, P. A. M. The principles of quantum mechanics. (Ox-
ford university press, 1981).
3 Thaller, B. The dirac equation. (Springer Science & Business
Media, 2013).
4 Greiner, W. Relativistic quantum mechanics. Vol. 2
(Springer, 2000).
5 Schiff, L. I. Quantum Mechanics 3rd. New York: M cGraw-
Hill (1968).
6 Zeng, J. Y. Quantum Mechanics II. 611-620 (Beijing: Science
Press, 1997).
7 Dongfang, X. The End of Teratogenic Simplified Dirac Hy-
drogen Equations. Mathematics & Nature 2, 012 (2022).
8 Dongfang, X. The End of Teratogenic Simplified Dirac Hy-
drogen Equations. Mathematics & Nature 2, 012 (2022).
9 Dirac, P. A. M. A theory of electrons and protons. Proceed-
ings of the Royal Society of London. Series A, Containing
papers of a mathematical and physical character 126, 360-
365 (1930).
10 Dirac, P. A. M. The quantum theory of the electron. Proceed-
ings of the Royal Society of London. Series A, Containing
Papers of a Mathematical and Physical Character 117, 610-
624 (1928).
11 Hestenes, D. Real spinor fields. Journal of Mathematical
Physics 8, 798-808 (1967).
12 Good Jr, R. Properties of the Dirac matrices. Reviews of
Modern Physics 27, 187 (1955).
13 Macfarlane, A. Dirac matrices and the Dirac matrix descrip-
tion of Lorentz transformations. Communications in Mathe-
matical Physics 2, 133-146 (1966).
14 Patera, J. & Zassenhaus, H. The Pauli matrices in n dimen-
sions and finest gradings of simple Lie algebras of type A n-
1. Journal of mathematical physics 29, 665-673 (1988).
15 Biedenharn, L. C. Remarks on the relativistic Kepler prob-
lem. Physical Review 126, 845 (1962).
16 Biedenharn, L., Han, M. & Van Dam, H. Two-component
alternative to Dirac’s equation. Physical Review D 6, 500
(1972).
17 Wong, M. & Yeh, H.-Y. Simplified solution of the Dirac e-
quation with a Coulomb p otential. Physical Review D 25,
3396 (1982).
18 Wong, M. & Yeh, H.-Y. Exact solution of the Dirac-Coulomb
equation and its application to bound-state problems. I Ex-
ternal fields. Physical Review A 27, 2300 (1983).
19 Wong, M. & Yeh, H.-Y. Exact solution of the Dirac-Coulomb
equation and its application to bound-state problems. II. In-
teraction with radiation. Physical Review A 27, 2305 (1983).
20 Dongfang, X. D. On the relativity of the speed of light. Math-
ematics & Nature 1, 202101 (2021).
21 Dongfang, X. D. The Morbid Equation of Quantum Numbers.
Mathematics & Nature 1, 202102 (2021).
22 Dongfang, X. D. Relativistic Equation Failure for LIGO Sig-
nals. Mathematics & Nature 1, 202103 (2021).
23 Dongfang, X. D. Dongfang Com Quantum Equations for
LIGO Signal. Mathematics & Nature 1, 202106 (2021).
24 Dongfang, X. D. Com Quantum Proof of LIGO Binary Merg-
ers Failure. Mathematics & Nature 1, 202107 (2021).
25 Dongfang, X. D. Dongfang Modified Equations of Molecular
Dynamics. Mathematics & Nature 1, 202104 (2021).
26 Dongfang, X. D. Dongfang Angular Motion Law and Opera-
tor Equations. Mathematics & Nature 1, 202105 (2021).
27 Dongfang, X. D. Dongfang Modified Equations of Electro-
magnetic Wave. Mathematics & Nature 1, 202108 (2021).
28 Dongfang, X. D. Nuclear Force Constants Mapped by Yukawa
Potential. Mathematics & Nature 1, 202109 (2021).
29 Dongfang, X. D. The End of Yukawa Meson Theory of Nu-
clear Forces. Mathematics & Nature 1, 202110(2021).
30 Dongfang, X. D. The End of Klein-Gordon Equation for
Coulomb Field. Mathematics & Nature 2, 202201 (2022).
31 Dongfang, X. D. The End of Teratogenic Simplified Dirac Hy-
drogen Equations. Mathematics & Nature 2, 202202 (2022).
32 Dongfang, X. D. Dongfang Solution of Induced Second Order
Dirac Equations. Mathematics & Nature 2, 202203 (2022).