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. Article .
Physics

MATHEMATICS AND NATURE
Mathematics, Physics, Mechanics & Astronomy
July 2021 Vol. 1 No. 1: 003 DOI: 10.13140/RG.2.2.13210.36802
Relativistic Equation Failure for LIGO Signals ∗
X. D. Dongfang Wutong Mountain National Forest Park, Shenzhen, China

Signal waves of the monotone increasing frequency detected by LIGO are universally considered to be gravitational waves of spiral binary stars, and the general theory of relativity is thus universally considered to have been conﬁrmed by the experiments. Here we present a universal method for signal wave spectrum analysis, introducing the true conclusions of numerical calculation and image analysis of GW150914 signal wave. Firstly, numerical calculation results of GW150914 signal wave frequency change rate obey the com quantization law which needs to be accurately described by integers, and there is an irreconcilable diﬀerence between the results and the generalized relativistic frequency equation of the gravitational wave. Secondly, the assignment of the frequency and frequency change rate of GW10914 signal wave to the generalized relativistic frequency equation of gravitational wave constructs a non-linear equation group about the mass of wave source, and the computer image solution shows that the equation group has no GW10914 signal wave solution. Thirdly, it is not unique to calculate the chirp mass of the wave source from the diﬀerent frequencies and change rates of the numerical relativistic waveform of the GW150914 signal wave, and the numerical relativistic waveform of the GW150914 signal wave deviates too far from the original waveform actually. Other LIGO signal waveforms do not have obvious characteristics of gravitational frequency variation of spiral binary stars and lack precise data, so they cannot be used for numerical analysis and image solution. Therefore, LIGO signals represented by gw50914 signal do not support the relativistic gravitational wave frequency equation. However, whether gravitational wave signals from spiral binaries that may be detected in the future follow the same com quantization law? Only the numerical analysis results of detailed observation data can give an accurate answer.
Keywords: GW150914 signal wave; Lagrange frequency change rate; Blanchet frequency equation; com quantization.
PACS number(s): 02.60.-x—Numerical approximation and analysis; 03.65.Ta—Foundations of quantum mechanics; 04.30.-w—Gravitational waves; 04.60.Bc—Phenomenology of quantum gravity; 04.70.-s—Physics of black holes; 04.70.Bw—Classical black holes; 04.80.Nn—Gravitational wave detectors and experiments.

1 Introduction
In 1915, Einstein established the equation of a gravitational ﬁeld[1] and founded general relativity[2]. In 1916, Einstein predicted the existence of gravitational waves based on general theory of relativity, and published the ﬁrst paper on gravitational waves[3]. According to the general theory of relativity, when an object accelerates, it will generate gravitational radiation and escape from the gravitational ﬁeld source and propagate in the vacuum to form gravitational waves, which is considered that accelerated masses stimulate ﬂuctuations in space-time. In fact, gravitational waves are ﬂuctuating gravitational ﬁelds. In 1916, Schwarzschild calculated the static spherical symmetric solution[4, 5] of the Einstein ﬁeld equation, and the singularity in this particular solution was interpreted as the radius of the black hole’s horizon.

In February 1918, Einstein published the second paper on gravitational waves and gave formulas for the calculation of gravitational radiant energy[6]. In 1963, Kerr found the solution of the rotating black hole[7] for the ﬁeld equation.
Since Einstein proposed the concept of gravitational waves, the theoretical and experimental detection principles of gravitational waves[8-10] have been continuously developed within the framework of general relativity. Although gravitational waves exist widely, they are generally diﬃcult to detect due to their very weak energy. According to theoretical predictions, massive binary black holes or binary compact stars can generate powerful energy gravitational waves when merger, so compact binary stars like binary black holes become an important model for the study of gravitational wave theory and experimental detection principles. The main vibration

∗The ﬁrst draft of this article is titled “Relativistic Diﬀerences of LIGO Signal” and published in arXiv.org (1909.05072). It is hereby declared that Rui Chen and X. D. Dongfang are diﬀerent signatures of the same author.
Citation: Dongfang, X. D. Relativistic Equation Failure for LIGO Signals. Mathematics & Nature, 1, 003 (2021).

⃝c Mathematics & Nature–Free Media of Eternal Truth, China, 2021

https://orcid.org/0000-0002-3644-5170

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

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frequency and energy of the gravitational waves generated by the binary star during the process of inspiral, merger and ringdown ﬁrst increase and then decrease with time[11, 12]. In 1974, Hulse and Taylor used a radio telescope to ﬁnd a pulsed binary neutron star that rotates one revolution every 8 hours[13]. The radiation of gravitational waves in the process of binary satellite spiralling reduces the system energy and decreases the revolution period. Precise measurement results show that the period of revolution of the twin neutron star is reduced by 10−4 second per year, which is in accordance with the theoretical value. The discovery of the pulsed binary neutron star is considered to prove indirectly the existence of the gravitational wave. In 1995, Blanchet derived the Blanchet frequency equation[14] of gravitational wave from the binary star wave source, which is one of the important corollaries of the general relativistic gravitational wave theory.
In February 2016, LIGO’s two detectors at Livingston and Hanford received the signal wave named GW150914[15] at 6.9 ms intervals on September 14, 2015. In the signal waveforms, the vibration curve with the strain not exceeding about 1.2 × 10−21 for a period of time from 0.25 s to 0.45 s is considered as the gravitational wave of the spiral binary black holes, which was generated by the merger of two black holes whose mass was 29+−44M⊙ and 36+−54M⊙ respectively from the solar system 1.5 billion light years away, 1.3 billion years ago, and the mass of the merged black hole is 62+−44M⊙[16]. In less than two years after that, LIGO successively announced the detection of four gravitational wave signals GW151226[17], GW170104[18], GW170814[19], and GW170817[20] from the spiral binary holes or spiral binary neutron stars. The widely accepted conclusion is that these signals are gravitational waves generated by the merging of spiral binary black holes or spiral binary neutron stars. They constitute the last piece of Einstein’s general relativity. Not only does the black hole predicted by general relativity exist, but the binary black holes also merge frequently, even though spacetime is ancient-far. Why do all the gravitational wave signals detect by LIGO come from the merger of ancientfar binary black holes or binary neutron stars? How is the detailed frequency law of the gravitational wave from binary stars? Scientiﬁc assertions require scientiﬁc argumentation. The vibration curve of signal wave of GW150914 is clear, and the part where the frequency changes monotonically accords with the characteristics of spiral binaries, but this is only a qualitative conclusion. However, the frequency distribution of signals such as GW151226, GW170104, GW170814, GW170817 does not have precise rules, and quantitative calculations cannot be made to arrive at reliable conclusions, and there is actually a lot of uncertainty. Therefore, up to now, only gw150914 signal wave can be used to quantitatively explain the degree of LIGO signal conforming to the generalized relativistic gravitational wave equation.
Here the numerical analysis method of signal wave fre-

quency is introduced, and the data of gw150914 signal wave is analyzed in detail and the precise law of frequency distribution and variation of signal wave is found out, thus the scientiﬁc conclusion of the relationship between gw150914 signal wave and general relativity is obtained. First, the time of main strain peak is extracted from gw150914 signal wave database, and the time of wide peak and uncertain peak is corrected within the error range, and the frequency of main strain peak is determined. Then, the Lagrange frequency change rate, which represents the average frequency change rate, is calculated. It is proved that the frequency change of GW1500914 signal wave presents a generalized quantization law called com quantum law which needs to be described by integers, but it does not support the generalized relativistic Blanchet frequency equation of a gravitational wave. Thirdly, the broken line of frequency average change rate of GW150914 signal wave is compared with the function curve of Blanchet frequency equation by using the image method. It is further proved that the generalized relativistic Blanchet frequency equation of GW150914 signal wave, which is regarded as gravitational wave of spiral binary stars, is invalid. Finally, the frequency change rate of LIGO’s numerical relativistic gravitational waveform is calculated, and the result also does not conform to the general relativistic Blanchet frequency equation.
2 Frequency distribution and change laws of GW150914 signal wave
The frequency of the main vibration part of the GW150914 signal wave increases monotonically, and the strain of the main vibration part shows a tendency to change synchronously with the frequency, but does not increase strictly monotonously, which is mainly caused by noise. The detection of gravitational waves usually uses ﬁltering techniques to shield the noise. It should be pointed out that the ﬁltering technology can only shield the noise of the expected frequency distribution, and the isolated wave or the noise of unintended frequency distribution can still reach the detector. The noise with similar energy mixed in the gravitational wave strengthens or weakens the strain at a certain moment, so that the gravitational waveform is distorted to varying degrees. The gravitational wave waveform is also distorted by the forced vibration of the detection instrument due to the tremor of the crust without a ﬁxed frequency. Therefore, the strain corresponding to the gravitational wave signal may be shifted or masked. Strain distribution of the GW150914 signal wave is more complex than its frequency distribution. Here we mainly analyze its frequency distribution and its variation laws.
As shown in Figure 1, the main positive and negative strain peak time are extracted from the Hanford database[21] of the GW150914 signal wave and marked by vertical lines in reverse time sequence. The rightmost vertical line corresponds to the sequence number

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

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1. Correct the time of wide or uncertain peak within the allowable range of error. The accuracy of recording time in LIGO database reaches 10−9s. According to the monotonic increase of frequency, the correction time of wide peak or uncertain peak is obtained by using the characteristic equation correction method, and the accuracy of 10−9s is naturally retained.The correction time of wide or uncertain peaks are obtained by using the characteristic equation correction method and the accuracy of 10−9s is naturally retained. The formulas for the period and frequency are Ti = ti − ti+1 and fi = 1/Ti, respectively. The time of the positive and negative strains, the corresponding period, and the frequency calculation result are listed in Table 1 in reversed time order. The positive strain peaks have 6 main frequencies from 36.55320819Hz to 197.3975904Hz; the negative strain peaks have a total of seven main frequencies from 35.37953557Hz to 230.7600891Hz. The period

Strain 10 21

and frequency of the strain peaks characterize the period and frequency of the signal wave.

1.0

Signal GW150914 Hanford

0.5

0.0

0.5

1.0

0.25

0.30

0.35

0.40

0.45

Figure 1

Time s
The positive and negative strain time of the G-

W150914 signal wave [21].

Table 1

Positive and negative strain peak times of the GW150914 signal wave and its frequency distribution

Positive strain observation values

i

ti /s

Ti /s

fi /Hz

Negative strain observation values

ti /s

Ti /s

fi /Hz

1 0.428222656 0.005065918 197.3975904 0.430297903 0.004333505 230.7600891

2 0.423156738 0.008573092 116.6440307 0.425964398 0.007333624 136.3582345

3 0.414583646 0.012607488 79.31794085 0.418630774 0.010784741 92.72359945

4 0.401976158 0.017110162 58.44479852 0.407846033 0.014636434 68.32265222

5 0.384865996 0.022037889 45.37639637 0.393209599 0.018851727 53.04553744

6 0.362828106 0.027357380 36.55320819 0.374357872 0.023402144 42.73112738

7 0.335470727

0.350955728 0.028264927 35.37953557

8

0.322690801

200

frequency, Hz

150 LC of Negative Strain Peaks LC of Positive Strain Peaks LC of Positive and Negative Strain Peaks
100

50

0.37

0.38

0.39

0.40

0.41

0.42

Time s
Figure 2 Frequency-time polylines of strain peaks of the G-

W150914 signal wave.

As shown in Figure 2, according to the positive and negative strain time ti and frequency fi listed in Table 1, the frequency and time curves of the positive and negative strains of the GW150914 signal wave are plotted re-

spectively. The two polylines have the same monotonous change trend, and they are very close to each other. A single polyline that plots the frequency and time of the positive and negative strain mixtures reﬂects the ﬂuctuation characteristics of the frequency distribution.
It is assumed that the signal wave of GW150914 is the gravitational wave of a helical double black hole. In order to determine the chirp mass of GW150914 wave source, LIGO uses the low frequency approximation of the highly nonlinear Blanchet frequency equation of general relativity. In fact, the high and low frequencies are relative and there is no clear demarcation. To judge whether the frequency distribution and variation laws of a signal wave accord with the Blanchet frequency equation, it is necessary to calculate the time derivative of the frequency. The frequencies of the GW150914 signal wave and their change rates are all discrete. The classical method of calculation is to ﬁrst modify the graph of frequency change over time into a smooth curve, draw the tangent of the position of each frequency, and then measure the slope of these tangents. Therefore, the derivative of the frequency versus time f˙i at each frequency is obtained. However, the correction of a polyline to a smooth curve has great uncertainty, and the tangent line also has uncertainty. The calculation of the change

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

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rate is actually uncertain. As we all know, the mathematical signiﬁcance of the average rate of change of the discrete variation is consistent with the Lagrange mean value theorem[22], so the Lagrange mean value theorem can be used to calculate the time derivative of the frequency of the gravitational wave, that is, the Lagrange frequency change rate. The integer i in a table is an inverse time sequence, and the variation rate of discrete frequency conforming to the meaning of Lagrange mean value theorem is called Lagrange frequency change rate. It is deﬁned as,

f˙i

=

fi−1 − fi+1 Ti + Ti−1

(1)

The Lagrange change rate has a deﬁnite value for calcu-
lating the average change rate of the discrete frequency,
which is better than the tangent slope measured after the
frequency time polyline is corrected to a smooth curve,
because the correction of the curve and the measurement
results of the slope are uncertain. The column in Table 2 that f˙i is located lists the La-
grange frequency change rates of the main positive and
negative strain peaks of the GW150914 signal wave. Ac-
cording to dimension analysis, the time derivative of the
frequency should be represented by the square of the frequency. The column in Table 2 where f˙if˙i−2 is located also lists the ratio of the frequency change rate
of the positive and negative strains of the GW150914
signal wave to their square of the frequency. Numerical
results show that the frequency distribution and changes
in the positive and negative strain peaks are diﬀerent, but the ratio f˙if˙i−2 has the same distribution with high

accuracy, which is expressed as the following equations,

  

f˙2+ f˙3+ f˙4+ f˙5+

= = = =



0.636307692f22 0.436753649f32



0.334368530f42 0.271585859f52
...



⇔

  

f˙2− f˙3− f˙4− f˙5− f˙6−

= = = = =

00..643366370573669429ff2322 000...322372418359687852583356092fff456222

(2)

The positive and negative superscripts represent the pos-

itive and negative strains, respectively. Discrete laws of

physical quantities need to be described by integers. Dis-

crete laws are essentially generalized quantization laws

including quantization laws, which are called com quan-

tum laws. Equation (2) shows that the discrete frequencies of the GW150914 signal wave imply a generalized

quantization law closely related to quantum numbers in

accordance with the dimensional law. This opens the

prelude to the gravitational com quantum theory, which

systematically describes the quantization law of gravi-

tational systems. It also predicts that the GW150914

gravitational wave does not correspond to the Blanchet frequency equation of general relativity. This means

that the GW150914 signal may not be the gravitation-

al wave of the spiral binaries, or the GW150914 signal

may be the gravitational wave of the spiral binaries, but

the source of the wave is not the spiral binary black

holes or other binaries, or the GW150914 signal may be

the gravitational wave of the spiral binaries, but it can’t prove the general relativity. Any conclusion needs a lot

of scientiﬁc calculations to support.

Table 2 Relativistic diﬀerences of frequency change rule of the GW150914 signal wave

i

Positive strain observat/ion values /

fi

f˙i

f˙i fi2

f˙i fi11/3

Negative strain observat/ion values /

fi

f˙i

f˙i fi2

f˙i fi11/3

1 197.3975904

230.7600891

2 116.6440307 8657.49422 0.636307692 0.000228505 136.3582345 11831.23042 0.636307692 0.000176143

3 79.31794085 2747.763841 0.436753649 0.000298275 92.72359945 3755.061951 0.436753649 0.000229925

4 58.44479852 1142.134177 0.33436853 0.000379882 68.32265222 1560.827218 0.33436853 0.000292831

5 45.37639637 559.1999942 0.271585859 0.000470461 53.04553744 764.1961764 0.271585859 0.000362654

6 36.55320819

42.73112738 418.0919129 0.228972362 0.000438405

7

35.37953557

3 Numerical Proof of Relativistic Equation Failure for GW150914 Signal wave
According to the theory of general relativity, frequency distribution and variation law of a gravitational wave of spiral binaries are highly nonlinear Blanchet frequency equations[14], which can not be solved accurately. The frequency and strain of the signal wave increase monotonously, which is only qualitatively characterized by the merging of spiral binaries. GW150914 signal was regarded as gravitational wave of spiral double black hole only because of its qualitative characteristics. In the

literature, the zero order approximate equation of relativistic Blanchet frequency equation[15] at low frequency

f˙

=

96π8/3G5/3m1m2 5c5 (m1 + m2)1/3

f

11/3

(3)

is used to infer the mass of binary black holes before
merging. Among them, the universal gravitational constant is G = 6.674 × 10−11m3kg−1s−2, the speed of light in a vacuum is c = 2.998 × 108m s−1, and m1 and m1 is the masses of two black holes in binary black hole’s
gravitational wave source respectively. However, low fre-

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-5

quency approximation is not a scientiﬁc method. Be-

cause low-frequency and high-frequency are only rela-

tive, there is no clear boundary between them. Theo-

retically, the frequency conversion motion has a low fre-

quency approaching to zero. Low frequency approxima-

tion (3) makes it easy for readers to shift their attention

to the so-called chirp mass, while ignoring the diﬀerence

between the frequency distribution of the GW150914 sig-

nal wave and the Blanchet frequency equation. Note that the approximate theoretical value f˙ ∝
f 11/3 derived from the formula (3) does not conform

to the observed value (2) clearly. The low-frequency

approximation of the Blanchet frequency equation re-

quires f˙if˙i−11/3 to be an approximate constant, but the f˙if˙i−11/3 value of the GW150914 signal wave listed in
Table 2 varies with frequency, which is a prominent con-

tradiction, manifesting as that the ﬁrst signiﬁcant digits

of the f˙if˙i−11/3 values corresponding to each frequency of positive and negative strain peaks are quite dif-

ferent. This diﬀerence cannot be eliminated by a nu-

merical method that corrects the strain peak time or

redeﬁnes the change rate of the discrete frequency. Al-

though Equation (3) is the zero-order approximation of

the Blanchet’s frequency equation at low frequencies,

the zero-order approximation embodies the main rule

of the Blanchet’s frequency equation. The high-order

approximation of the Blanchet frequency equation has

a small eﬀect on the ﬁrst signiﬁcant ﬁgure, and it can-

not change the conclusion that the f˙i f˙−i 11/3 values of the GW150914 signal wave are not constant and it are

inconsistent with the Blanchet equation.

The amplitudes and orbital contraction rates of the

general relativistic quadrupole moments of binary stars

with unequal masses are related to the system’s mass,

which happens to be in the zero-order approximation (3)

of the Blanchet’s frequency equation,

M

=

(m1m2)3/5 (m1 + m2)1/5

=

c3 G

(

5

)3/5 π−8/3f −11/3f˙

96

(4)

According to the report of LIGO, the masses of the two black holes of the GW150914 signal source are 29+−44M⊙ and 36+−54M⊙, respectively, where M⊙ represents the mass of the sun. From this, the estimated value of the chirp mass of the wave is
MLIGO = 28.10+−33..8591M⊙
The relevant literature does not explain how to calculate the lowest frequency to reach the above conclusion. If the GW150914 signal wave is the gravitational wave radiated by a pair of spiral binary stars, the results of chirp mass calculated by diﬀerent frequencies of the gravitational waves should be approximately equal, because the chirp mass of a spiral binary star is unique. However, according to the lower frequency f5 = 45.37639637Hz of the positive strain of the GW150914 signal wave and its Lagrange change rate f˙5 = 559.1999942Hzs−1 listed in Table 2, it is estimated that the chirp mass of the signal wave source is M = 36.090M⊙, and according to the lower frequency f6 = 42.73112738Hz of the negative strain of the GW150914 signal wave and its Lagrange change rate f˙6 = 418.0919129Hzs−1, it is estimated that the chirp mass of the signal wave source is M = 30.873M⊙. It can be seen that the estimation of chirp masses from diﬀerent frequencies are very diﬀerent, and there is no basis for making trade-oﬀs. This poses a challenge to the general relativity Blanchet frequency equation. The low frequency required by the zero order approximation of Blanchet’s frequency equation is relative, the signal wave has some lower frequencies which have not been recorded, and the gw150914 signal certainly has other diﬀerent chirp quality estimates. Using the frequencies and their time derivatives of all main positive and negative strain peaks of gw150914 signal wave, the results of estimating the chirp quality of wave source are very diﬀerent, as follows,

M2+

=

( 2.998

×

108

)3

6.674 × 10−11

(

5

π−8/3

×

45.376−11/3

×

)3/5 559.200

96

M⊙ 1.989 × 1030

=

55.664M⊙

M3+

=

( 2.998

×

108

)3

6.674 × 10−11

(

5

π−8/3

×

58.445−11/3

×

)3/5 1142.134

96

M⊙ 1.989 × 1030

= 48.960M⊙

M4+

=

( 2.998

×

108

)3

6.674 × 10−11

(

5

π−8/3

×

79.318−11/3

×

)3/5 2747.764

96

M⊙ 1.989 × 1030

= 42.347M⊙

M5+

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 × 116.644−11/3 96

)3/5 × 8657.494

M⊙ 1.989 × 1030

=

36.090M⊙

M2−

=

( 2.998

×

108

)3

6.674 × 10−11

(

5 96

π−8/3

× 42.731−11/3

×

)3/5 418.092

M⊙ 1.989 ×

1030

=

53.356M⊙

M3−

=

( 2.998

×

108

)3

6.674 × 10−11

(

5 96

π−8/3

×

53.045537−11/3

×

)3/5 764.196

M⊙ 1.989 × 1030

= 47.616M⊙

M4−

=

( 2.998

×

108

)3

6.674 × 10−11

(

5 96

π−8/3

× 68.323−11/3

×

)3/5 1560.827

M⊙ 1.989 × 1030

= 41.881M⊙

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

M5−

=

( 2.998

×

108

)3

6.674 × 10−11

(

5 96

π−8/3

× 92.724−11/3

×

)3/5 3755.062

M⊙ 1.989 × 1030

= 36.224M⊙

M6−

=

( 2.998

×

108

)3

6.674 × 10−11

(

5 96

π−8/3

× 136.358−11/3

×

)3/5 11831.23

M⊙ 1.989 ×

1030

=

30.873M⊙

003-6

Among them, the positive and negative superscript indicates the calculation of positive and negative strains. The above approximate calculation results show that the frequency distribution of the positive and negative strain of the GW150914 signal wave determines two kinds of the chirp mass distribution of the wave source, which vary monotonically with the frequency of the change of the gravitational wave signal, and these values are very diﬀerent. Before the merger, the rest mass of the two stars of the wave source of the GW150914 signal is invariable. Results of chirp mass estimation from different frequencies of the GW150914 signal wave are far from each other, and it is impossible to correct to be the approximate equivalent results. This shows that GW150914 signal wave does not support the general relativistic gravitational wave frequency equation.
Since the estimation of the chirp mass is derived from the zero order approximation of the general relativistic Blanchet frequency equation, the large diﬀerence of chirp quality corresponding to the above frequencies may be explained as the error caused by the zero order approximation of Blanchet frequency equation. It seems that there is no such obvious diﬀerence between the original Blanchet frequency equation and the observed value, or there will be no obvious diﬀerence between the

advanced approximation of the Blanchet frequency equation and the observed value. Is the result calculated according to the exact Blanchet frequency equation or its high-order approximation highly consistent with the GW150914 signal? This problem can be solved by the consistent conclusion of high precision multi image solution.
4 Graphical proof of Relativistic Equation Failure for GW150914 Signal wave
After detecting the gravitational wave signal and conﬁrming that the wave source is a binary star gravitational system, the mass of the wave source can be determined by the frequency and strain distribution of the gravitational wave in theory. The Blanchet frequency equation is a highly nonlinear equation and cannot be solved accurately. However, in order to calculate the chirp mass, there is no scientiﬁc basis for choosing the zero order approximation of the equation under the low frequency condition. Ignoring the spin of the black hole, remove the spin-spin and spin-orbit interactions of the Blanchet frequency equation. The high-level approximation of the Blanchet equation is,

πf˙

=

96G5/3m1m2(πf )11/3 5c5(m1 + m2)1/3

{[ 743
× 1 − 336

+

][

11m1m2

Gπf

4(m1 + m2)2

(m1 c3

+ m2) ]2/3

[ Gπf
+4π c3

(m1

][ 34103
+ m2) + 18144

+

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2

][ Gπf

18(m1 + m2)4

c3

(m1

]4/3} + m2)

(5)

Although this equation can not be solved accurately, the computer having developed to today, for some nonlinear and implicit function equations which can not be solved accurately, approximate solutions with high accuracy can be obtained by numerical calculation or image solution to prove the reliability of qualitative conclusions. In this section, we prove that the relativistic Blanchet frequency equation of GW150914 signal wave is invalid by means of image solution.
4.1 Incompatibility between theoretical and experimental curves of GW150914 signal wave
An image solution to Blanchet equation (5) is to ﬁrst give diﬀerent double black hole masses to the equation to draw various theoretical curves of frequency change rate and frequency relationship, and then draw the Lagrange frequency curve (i.e. experimental curve) representing

the relationship between frequency change rate and frequency of GW150914 signal wave. If the latter coincides with one of the former or approaches, the mass of the wave source is closest to the mass assignment corresponding to this particular theoretical curve. Otherwise, if the experimental curve cannot coincide with or nearly coincide with any theoretical curve, it is proved that the Blanchet frequency equation has no signal wave solution of GW150914.
As shown in Figure 3, the broken line is the Lagrange frequency broken line (experimental curve LC) of the frequency change rate of GW150914 signal wave strain peak. In order to describe the relativistic Blanche frequency equation curve (theoretical curve BC) of GW150914 signal wave, seven groups of double star masses were selected, m1 = 29m⊙, m2 = 36m⊙; m1 = 7m⊙, m2 = 58m⊙; m1 = 15m⊙, m2 = 50m⊙; m1 = 20m⊙, m2 = 45m⊙; m1 = 10m⊙, m2 = 55m⊙;

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-7

m1 = 10m⊙, m2 = 65m⊙; m1 = 30m⊙, m2 = 50m⊙, in which m⊙ = 1.989 × 1030kg is the solar mass. Substituting the mass assignments of the above groups into

equation (5) respectively, the following seven equations are obtained,

πf˙

( 96 6.674

×

10−11 )5/3

( 29

×

1.989

×

1030)

( 36

×

1.989

×

1030)

(π

×

f

)11/3

= ×

  1

5 × (2.998 × 108)5(29 × 1.989 ×

(

)(

−

743 336

+

11 × 29 × 36 4(29 + 36)2

6.674

1030 + 36 × 10−11π

× 1.989 × 1030)1/3
× f × (29 + 36) × (2.998 × 108)3

1.989

×

1030

)2/3

+4π
( +

× 6.674 34103 + 18144

× 10−11π × f × (29 + 36) × (2.998 × 108)3

13661 × 29 × 36 2016(29 + 36)2

+

59 × (29 (29 +

1.989 × 1030
× 36)2 ) ( 6.674 36)4

×

10−11π

× f × (29 + 36) (2.998 × 108)3

×

1.989

×

1030

)4/3

 



πf˙

=

( 96 6.674

×

10−11 )5/3

( 7

×

1.989

×

1030)

( 58

×

1.989 ×

1030) (π

×

f )11/3

×

  1

5 × (2.998 × 108)5(7 ×

(

)

−

743 336

+

11 × 7 × 58 4(7 + 58)2

1.989 × (
6.674

1030 + 58 × 10−11π

× 1.989 × 1030)1/3
× f × (7 + 58) × 1.989 (2.998 × 108)3

×

1030

)2/3

+4π × 6.674 ( 34103

× 10−11π × f × (2.998
13661 × 7 × 58

(7 + 58) × 1.989 × × 108)3
59 × (7 × 58)2 )

1030
( 6.674

×

10−11π

×

f

×

(7

+

58)

×

1.989

×

1030

)4/3

+

+ 18144

2016(7 + 58)2

+

(7 + 58)4

(2.998 × 108)3



πf˙

=

( 96 6.674

×

10−11 )5/3

( 15

×

1.989

×

1030

)

( 50

×

1.989

×

1030) (π

×

f )11/3

×

  1

5 × (2.998 × 108)5(15 × 1.989 ×

(

)(

−

743 336

+

11 × 15 × 50 4(15 + 50)2

6.674

1030 + 50 × 10−11π

× 1.989 × 1030)1/3
× f × (15 + 50) × (2.998 × 108)3

1.989

×

1030

)2/3

+4π
( +

6.674 × 34103
+ 18144

× 10−11π × f × (15 + 50) × (2.998 × 108)3

13661 × 15 × 50 2016(15 + 50)2

+

59 × (15 (15 +

1.989 × 1030
× 50)2 ) ( 6.674 50)4

×

10−11π

× f × (15 + 50) (2.998 × 108)3

×

1.989

×

1030

)4/3

 



πf˙

( 96 6.674

×

10−11 )5/3

( 25

×

1.989

×

1030)

( 40

×

1.989

×

1030)

(π

×

f

)11/3

= ×

  1

5 × (2.998 × 108)5(25 × 1.989 ×

(

)(

−

743 336

+

11 × 25 × 40 4(25 + 40)2

6.674

1030 + 40 × 10−11π

× 1.989 × 1030)1/3
× f × (25 + 40) × (2.998 × 108)3

1.989

×

1030

)2/3

6.674 × 10−11π × f × (25 + 40) × 1.989 × 1030

+4π × ( 34103

13661

×

(2.998 25 × 40

×

108)3 59 ×

(25

×

40)2

)

( 6.674

×

10−11π

×

f

×

(25

+

40)

×

1.989

×

1030

)4/3

 

+

+ 18144

2016(25 + 40)2

+

(25 + 40)4

(2.998 × 108)3



πf˙

=

( 96 6.674

×

10−11 )5/3

( 10

×

1.989

×

1030

)

( 55

×

1.989

×

1030) (π

×

f )11/3

×

  1

5 × (2.998 × 108)5(10 × 1.989 ×

(

)(

−

743 336

+

11 × 10 × 55 4(10 + 55)2

6.674

1030 + 55 × 10−11π

× 1.989 × 1030)1/3
× f × (10 + 55) × (2.998 × 108)3

1.989

×

1030

)2/3

+4π

×

6.674

×

10−11π

× f × (10 + 55) (2.998 × 108)3

×

1.989

×

1030

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-8

( 34103
+ 18144

+

13661 × 10 × 55 2016(10 + 55)2

+

59 × (10 × 55)2 (10 + 55)4

)

( 6.674

×

10−11π

× f × (10 + 55) (2.998 × 108)3

×

1.989

×

1030

)4/3

 



πf˙

( 96 6.674

×

10−11 )5/3

( 10

×

1.989

×

1030)

( 65

×

1.989

×

1030)

(π

×

f

)11/3

= ×

  1

5 × (2.998 × 108)5(10 × 1.989 ×

(

)(

−

743 336

+

11 × 10 × 65 4(10 + 65)2

6.674

1030 + 65 × 10−11π

× 1.989 × 1030)1/3
× f × (10 + 65) × (2.998 × 108)3

1.989

×

1030

)2/3

+4π
( +

× 6.674 34103 + 18144

× 10−11π × f × (10 + 65) × (2.998 × 108)3

13661 × 10 × 65 2016(10 + 65)2

+

59 × (10 (10 +

1.989 × 1030
× 65)2 ) ( 6.674 65)4

×

10−11π

× f × (10 + 65) (2.998 × 108)3

×

1.989

×

1030

)4/3

 



πf˙

=

( 96 6.674

×

10−11 )5/3

( 30

×

1.989

×

1030

)

( 50

×

1.989

×

1030) (π

×

f )11/3

×

  1

5 × (2.998 × 108)5(30 × 1.989 ×

(

)(

−

743 336

+

11 × 30 × 50 4(30 + 50)2

6.674

1030 + 50 × 10−11π

× 1.989 × 1030)1/3
× f × (30 + 50) × (2.998 × 108)3

1.989

×

1030

)2/3

+4π × 6.674 ( 34103

× 10−11π × f × (30 + 50) × 1.989 × 1030
(2.998 × 108)3 13661 × 30 × 50 59 × (30 × 50)2 ) ( 6.674

×

10−11π

×

f

×

(30

+

50)

×

1.989

×

1030

)4/3

 

+

+ 18144

2016(30 + 50)2

+

(30 + 50)4

(2.998 × 108)3



12 000 10 000
8000 6000 4000 2000

BC m1 29m , m2 36m BC m1 7m , m2 58m BC m1 15m , m2 50m BC m1 25m , m2 40m BC m1 10m , m2 55m BC m1 10m , m2 65m BC m1 30m , m2 50m
LC of GW150914

f Hz s 1

0

0

20

40

60

80

100

120

140

f Hz
Figure 3 Lagrange frequency curve (experimental curve LC) and Blanchet frequency curve (theoretical curve BC) of GW150914 signal wave. Graph lines intuitively reﬂect that the slope of each Blanchet frequency curve changes rapidly with increasing frequency, and the Lagrange frequency polyline cannot coincide with a certain Blancchet frequency curve, indicating that the GW150914 signal does not support the generally relativistic Blanchet equation.

These seven Blanchet frequency curves (BC) are also plotted in Figure 3. Theoretically, the Lagrange frequency polyline of the signal wave should be approximately coincident with the Blanchet frequency curve

of the 36M⊙and 29M⊙ mass combinations. Therefore, the masses of the two black holes of the wave source can be found the best approximation from the curve. However, the fact is that the Lagrange polylines of the GW150914 signal waves deviate far from the Blanchet frequency curve of gravitational waves from binary black holes with masses of 36M⊙ and 29M⊙, which is contradictory! More importantly, the Lagrange polyline of the GW150914 signal wave cuts the Blanchet curves of different mass combinations. This shows that there is no mass assignment of any group of binary stars to make the Blanchet frequency curve coincide with the Lagrange frequency polyline of the GW150914 signal wave.
Taking the combined values of diﬀerent binary star masses m1 and m2 into the Blanche frequency equation can draw a lot of Blancchet frequency curves. When the total mass is kept constant, the masses of the binary stars are closer, and the Blanchet frequency curve is steeper with increasing frequency. The trend of all these Blanchet curves and Lagrange frequency polylines predicts that the Lagrange polyline must cut all the Blanchet curves. It is also impossible to modify the vibration curve of the GW150914 signal wave so that its frequency distribution satisﬁes the Blanchet frequency equation.
Therefore, the frequency variation law of gw150914 signal wave does not satisfy the relativistic Blanchet frequency equation. It is lack of the minimum standard of scientiﬁc proof to declare that gw150914 signal wave

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-9

comes from the merging process of double black holes with 36 and 29 solar masses.
4.2 Unsolvability of Blanchet equations for GW150914 signal
The Lagrange frequency polyline of the GW150914 signal wave cutting the Blanchet frequency curve of d-

iﬀerent mass combinations shows that the Blanchet frequency equation does not have any solution that satisﬁes the GW150914 signal wave. This conclusion can also be rigorously proved by another image solution.
Substituting the frequencies of the positive and negative strain peaks in Table 1 and their Lagrange derivatives into the Blanche frequency equation (5) in order, a system of nine Blanchet equations is obtained,

π

×

559.1999942 =

×

  1

−

(

743 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

1.989

×

1030)

(π

×

45.37639637)11/3

5 × (2.998 × 108)5(m1 × 1.989 × 1030 + m2 × 1.989 × 1030)1/3

+

11m1 × m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

45.37639637 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

+4π
( +

× 6.674 34103 + 18144

× 10−11π × 45.37639637 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1 (m1 +

m2)2 m2)4

)

×

( 6.674

×

10−11π

×

45.37639637 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

×

1142.134177 =

 

( 743

× 1 − 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

1.989

×

1030)

(π

×

58.44479852)11/3

5 × (2.998 × 108)5(m1 × 1.989 × 1030 + m2 × 1.989 × 1030)1/3

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

58.44479852 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

+4π
( +

6.674 × 34103
+ 18144

× 10−11π × 58.44479852 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

58.44479852 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

×

2747.763841 =

 

( 743

× 1 − 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

1.989

×

1030)

(π

×

79.31794085)11/3

5 × (2.998 × 108)5(m1 × 1.989 × 1030 + m2 × 1.989 × 1030)1/3

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

79.31794085 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

+4π
( +

6.674 × 34103
+ 18144

× 10−11π × 79.31794085 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

79.31794085 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

×

8657.49422 =

×

  1

−

(

743 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

5 × (2.998 × 108)5(m1 ×

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

1030)

( m2

×

1.989

×

1030)

(π

×

116.6440307)11/3

1.989 × 1030 + m2 × 1.989 × 1030)1/3 × 116.6440307 (m1 + m2) × 1.989 × 1030 )2/3

(2.998 × 108)3

+4π
( +

× 6.674 34103 + 18144

× 10−11π × 116.6440307 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

116.6440307 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

× 418.0919129

=

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

5 × (2.998 × 108)5(m1 × 1.989 × 1030

1.989 × 1030) (π × 42.73112738)11/3 + m2 × 1.989 × 1030)1/3

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

  × 1

−

( 743 336

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

42.73112738 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

003-10

+4π
( +

6.674 × 34103
+ 18144

× 10−11π × 42.73112738 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

42.73112738 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

×

764.1961764 =

×

  1

−

(

743 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

1.989

×

1030)

(π

×

53.04553744)11/3

5 × (2.998 × 108)5(m1 × 1.989 × 1030 + m2 × 1.989 × 1030)1/3

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

53.04553744 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

+4π
( +

× 6.674 34103 + 18144

× 10−11π × 53.04553744 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

53.04553744 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

×

1560.827218 =

×

  1

−

(

743 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

1.989

×

1030)

(π

×

68.32265222)11/3

5 × (2.998 × 108)5(m1 × 1.989 × 1030 + m2 × 1.989 × 1030)1/3

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

68.32265222 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

+4π
( +

6.674 × 34103
+ 18144

× 10−11π × 68.32265222 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

68.32265222 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

×

3755.061951 =

 

( 743

× 1 − 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

1.989

×

1030)

(π

×

92.72359945)11/3

5 × (2.998 × 108)5(m1 × 1.989 × 1030 + m2 × 1.989 × 1030)1/3

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

92.72359945 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

+4π
( +

6.674 × 34103
+ 18144

× 10−11π × 92.72359945 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

92.72359945 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



π

×

11831.23042 =

×

  1

−

(

743 336

( 96 6.674

×

10−11 )5/3

( m1

×

1.989

×

1030)

( m2

×

1.989

×

1030)

(π

×

136.3582345)11/3

5 × (2.998 × 108)5(m1 × 1.989 × 1030 + m2 × 1.989 × 1030)1/3

+

11m1m2 4(m1 + m2)2

)( 6.674

×

10−11π

×

136.3582345 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)2/3

+4π
( +

× 6.674 34103 + 18144

× 10−11π × 136.3582345 (m1 + m2) × 1.989 × 1030

(2.998 × 108)3

13661m1m2 2016(m1 + m2)2

+

59(m1m2)2 ) ( 6.674 (m1 + m2)4

×

10−11π

×

136.3582345 (m1 + (2.998 × 108)3

m2)

×

1.989

×

1030

)4/3

 



X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-11

Theoretically, the solution of this system of equations must exist and be unique. Otherwise, the result will prove that the Blanchet frequency equation does not have a GW150914 signal wave solution. The unknowns of the system of equations have only two masses, m1 and m2, and the positions of the two can be exchanged. The curves of these equations are plotted. According to the image solution, these curves should intersect in two very small regions within the error range. The coordinates correspond to the mass of the two black holes of the source. However, as shown in Figure 4, similar to the isotherm of the ideal gas in the closed container, the nine Blanchet curves corresponding to the frequency and corresponding time derivative of the signal wave strain peak of the GW150914 signal wave are disjoint, and the results negate the existence and uniqueness of the solution to the equation, that is, the GW150914 signal wave dos not support the Blanchet frequency equation of general relativity.

m2 m

120

Peak 45.376Hz,559.200Hz s

Peak 58.445Hz,1142.134Hz s

100

Peak 79.318Hz,2747.764Hz s

Peak 116.644Hz,8657.494Hz s

80

Trough 42.731Hz,418.092Hz s

Trough 53.046Hz,764.196Hz s

60

Trough 68.323Hz,1560.827Hz2

Trough 92.724Hz,755.062Hz2

Trough 136.358Hz,11831.2Hz2 40

20

signal source. In summary, if the GW150914 signal wave comes from
the merger of two spiral black holes with masses of 29 and 36 solar masses respectively, then the Lagrange frequency polyline of the GW150914 signal wave will inevitably coincide with the Blanchet frequency curve. However, the Lagrange frequency polyline of the GW150914 signal wave cuts all the Blanchet frequency curves of wave source mass combinations including 29 and 36 solar masses, so the Blanchet frequency equation does not have a GW150914 signal wave solution. However, the Lagrange frequency polyline of the GW150914 signal wave cuts all the Blanchet frequency curves of diﬀerent wave source mass combinations including 29 and 36 solar masses, so the Blanchet frequency equation does not have a GW150914 signal wave solution. The Blanchet frequency equation set determined by the frequency and its time derivative contains only the mass parameters, but the Blanch curve corresponding to the strain peak frequency of the GW150914 signal wave is discrete without intersections, which also indicates that the Blanchet frequency equation does not have a GW150914 signal wave solution. There are indelible essential diﬀerences between the GW150914 signal wave and the general relativistic Blanchet frequency equation.
Among all LIGO signals, only GW50914 signal has obvious monotonic change characteristics, and accurate data record can be used for quantitative analysis. It is concluded that the relativistic equation of LIGO signal is invalid, or speciﬁcally, the Blanchet frequency equation of LIGO signal is invalid.
5 Uncertainty of chirp mass of numerical relativistic waveform

20

40

60

80

100

120

m1 m
Figure 4 The Blanchet mass curves of the GW150914 signal wave. The group of curves is similar to the isotherm without two intersection regions, showing that the Blanchet frequency equation has no a GW150914 signal wave solution.

The image solution can explain intuitively and concisely whether the speciﬁed signal wave solution of the non-linear Blanchet equation exists or is unique. In fact, computer graphics can also give high-precision numerical solutions. Therefore, the image solution is one of the best methods for dealing with gravitational wave detection data and solving nonlinear Blancht frequency equations. Observations of the GW150914 signal wave are inconsistent with the results of the image solution of the Blanchet frequency equation, which is a general relativity inference, and there is a big diﬀerence between the general relativity prediction and the real gravitational wave signal. This is the reason why a reasonable result cannot be determined by using the Blanche frequency equation to estimate the chirp mass of the GW150914

There is a diﬀerence between the frequency distribu-
tion law of the GW150914 signal wave and the general
relativity Blanket frequency equation. Let us now study
the frequency distribution law of the so-called numeri-
cal relativistic waveform of the GW150914 signal wave
drawn by LIGO to understand the credibility of the nu-
merical relativistic waveform. As shown in Figure 5, the
time of the positive and negative strain peaks of the nu-
merical relativistic waveform of LIGO is ﬁrst extracted,
and the corresponding periods, frequencies, and frequen-
cy change rates are calculated. All the results are listed
in Table 3. It is shown from the calculation results that the f˙if˙i−2 values of the positive strain peaks and the negative strain peaks of the numerical relativistic wave-
form do not have the same distribution, which deviates from the law that the f˙if˙i−2 values of the positive strain peaks and the negative strain peaks of the original
GW150914 waveforms have the same distribution. On the other hand, the f˙if˙i−11/3 value of the numerical relativistic waveform is also not a constant approximated
by the zero-order approximation (3) of the Blanchet’s frequency equation, and the value of f˙if˙i−11/3 at high

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-12

frequencies is very diﬀerent in particular. It can be seen that the drawing of the numerical relativistic waveform of GW150914 does not meet the requirement of logic self-consistent.
The speciﬁc operational procedure of the numerical relativistic waveform has not been disclosed, and the real physical meaning has not caused the attention it deserves. The GW150914 signal wave was identiﬁed as coming from a far-ancient spectacle of the merger of spiral binary black holes with 29M⊙ and 36M⊙ respectively, and mass of the combined black hole is 62M⊙. How to draw such a conclusion, the calculation process of argument is missing. However, these processes of demonstration are one of the key procedures to test whether LIGO signal wave is the binary’s gravitational wave predicted by general relativity. Now we use the so-called numerical relativistic gravitational waveform of the GW150914 signal wave to estimate the chirp mass of the wave source. According to the values in Table 3, the peaks and troughs of the numerical relativistic waveform shown in Figure 5 have eight Lagrange frequency

Strain 10 21

derivatives, respectively, which are substituted into the approximate equation (4) to estimate the chirp mass. The result has 16 diﬀerent values,

1.0

0.5

0.0

0.5

1.0

0.25

0.30

0.35

0.40

0.45

Time s
Figure 5 The time of the positive and negative strain peak-

s of the numerical relativistic waveform of the GW150914 signal wave[21] .

Table 3 The positive and negative strain frequencies and their change rates of the numerical relativistic waveform

i

Positive strain of LIGO relativis/tic wavefo/rm

ti

fi

f˙i

f˙i fi2

f˙i fi11/3

Negative strain of LIGO relativi/stic wavefo/rm

ti

fi

f˙i

f˙i fi2

f˙i fi11/3

1 0.2805

0.2644

2 0.3103 33.55705

0.2955

3 0.3377 36.49635 132.99008 0.09984 0.00024864 0.3243 32.15434

4 0.3624 40.48583 216.78090 0.13226 0.00027706 0.3507 34.72222 103.70375 0.08602 0.00023276

5 0.3839 46.51163 399.33703 0.18459 0.00030687 0.3737 37.87879 177.24775 0.12353 0.00028915

6 0.4017 56.17978 901.12942 0.28551 0.00034647 0.3934 43.47826 301.70102 0.15960 0.00029688

7 0.4151 74.62687 3215.89835 0.57745 0.00043654 0.409 50.76142 584.25788 0.22674 0.00032582

8 0.4231 125.0000 9644.08726 0.61722 0.00019751 0.4195 64.10256 1704.08712 0.41471 0.00040391

9 0.4281 200.0000 10880.0774 0.27200 0.00003977 0.4259 95.23810 5452.51100 0.60114 0.00030266

10 0.4325 227.2727 5164.99283 0.09999 0.00001181 0.4306 156.2500 10588.0957 0.43369 0.00009568

11 0.4366 243.9024

0.4346 212.7660 10775.8621 0.23804 0.00003139

M3+

=

( 2.998

×

108)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 36.49635−11/3 × 132.99008

M⊙ 1.989 × 1030

= 37.9661M⊙

M4+

=

( 2.998

×

108)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 40.48583−11/3 × 216.78090

M⊙ 1.989 × 1030

= 43.0746M⊙

M5+

=

( 2.998

×

108)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 46.51163−11/3 × 399.33703

M⊙ 1.989 × 1030

= 43.0746M⊙

M6+

=

( 2.998

×

108)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 56.17978−11/3 × 901.12942

M⊙ 1.989 × 1030

= 46.3286M⊙

M7+

=

( 2.998

×

108)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 74.62687−11/3 × 3215.89835

M⊙ 1.989 × 1030

=

53.2188M⊙

M8+

=

( 2.998

×

108)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 125.00000−11/3 × 9644.08726

M⊙ 1.989 × 1030

= 33.0680M⊙

M9+

=

( 2.998

×

108)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 200.00000−11/3 × 10880.07737

M⊙ 1.989 × 1030

=

12.6406M⊙

M1+0

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 227.27270−11/3 × 5164.99283

M⊙ 1.989 × 1030

= 6.1023M⊙

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

M3−

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 × 34.72222−11/3 96

)3/5 × 103.70375

M⊙ 1.989 × 1030

=

36.4917M⊙

M4−

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 × 37.87879−11/3 96

)3/5 × 177.24775

M⊙ 1.989 × 1030

=

41.5652M⊙

M5−

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 × 43.47826−11/3 96

)3/5 × 301.70102

M⊙ 1.989 × 1030

=

42.2280M⊙

M6−

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 × 50.76142−11/3 96

)3/5 × 584.25788

M⊙ 1.989 × 1030

=

44.6521M⊙

M7−

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 × 64.10256−11/3 96

)3/5 × 1704.08712

M⊙ 1.989 × 1030

= 50.7952M⊙

M8−

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 × 95.23810−11/3 96

)3/5 × 5452.51100

M⊙ 1.989 × 1030

= 42.7197M⊙

M9−

=

( 2.998

×

108

)3

6.674 × 10−11

(

5

π−8/3

×

156.25000−11/3

×

)3/5 10588.09569

96

M⊙ 1.989 × 1030

= 21.4062M⊙

M1−0

=

( 2.998

×

108

)3

6.674 × 10−11

( 5 π−8/3 96

)3/5 × 212.76600−11/3 × 10775.86207

M⊙ 1.989 × 1030

=

10.9683M⊙

003-13

The estimate of the chirp mass corresponding to the numerical relativistic waveform varies nonmonotonically with frequency and cannot be approximately equal, indicating that the frequency distribution of the numerical relativistic waveform does not satisfy the general relativistic Blanche equation. Although the concept of numerical relativistic wave has been beautiﬁed and rendered, it has failed to achieve the expected goal. Moreover, the so-called numerical relativistic waveform drawing should always have a speciﬁc operation procedure. The procedure of drawing numerical relativistic waveform should be open, so that readers can understand why it is unique, and then judge whether it is reasonable.
LIGO announced the detection of gravitational waves in several spiral binary black holes and one spiral binary neutron star system, but avoided the calculation of the distribution and variation law of frequency, which are the most basic physical quantity. The drawing procedure of numerical relativistic gravitational waveform is also lack of the necessary introduction. All conclusions are only qualitative inferences. In fact, only after calculating the frequency distribution and frequency change rate of the signal wave, can we ﬁnd out the law of frequency distribution and change, so as to determine whether the detected signal wave really tests the general relativity theory.
6 Classical estimation method for total mass of spiral binaries
It is possible for diﬀerent wave sources to produce signal waves with similar frequency variation, and there is no one-to-one correspondence between signal waves and wave sources. The GW150914 signal wave is regarded

as the gravitational wave of the merging spiral binary black holes, which is just one of the countless possibilities. Even if it is considered that it is the only possibility, any one of values of the so-called chirps mass of the binary black holes has an inﬁnite set of double star masses. The estimation of chirp quality can not accurately obtain the information of a wave source, especially when there are obvious contradictions in the estimation results. Here we introduce the classical estimation results of the total mass of the source when GW150914 signal wave is regarded as the gravitational wave of a spiral double black hole.
As we all know, the calculation results of the classical mechanics of the planetary revolution cycle are consistent with the astronomical observations. A precise gravitational theory is bound to apply both to the strong gravitational ﬁeld and the weak gravitational ﬁeld. As an approximate analysis, the estimation of the total mass of a spiral binary black hole by the classical equation of the orbit period will not be too far from the predictions of any exact theory, otherwise there would be an exact dividing point that does not actually exist between the strong gravitational ﬁeld and the weak gravitational ﬁeld. If the binary black holes of mass m1 and m2 are combined into one large black hole, it can be assumed that a particle of mass m0 performs a uniform circular motion on the Schwarzschild horizon[23] of the large black hole. The orbital frequency fs of the particle is the Schwarzschild frequency. According to the gravitation Laws and circular motion laws are obtained,

G (m1

+ m2) m0 Rs2

=

m0Rs (2πfs)2

(6)

Among them, the Schwarzschild radius of a large black hole generated by a binary black hole merger is

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-14

/ Rs = 2G (m1 + m2) c2, which is replaced by the above formula to get

c3

m1 + m2 = 25/2πGfs

(7)

The gravitational radiation generated by the microscopic particles around the dense star is very small and has no observation eﬀect. Therefore, it is usually assumed that two spiral black holes merge to generate strong gravitational radiation. The Schwarzschild radii of th/e two black holes bef/ore the merger are Rs1 = 2Gm1 c2 and Rs2 = 2Gm2 c2, respectively. The two black holes run around their mass centers, and detoured Schwarzschild frequency fs still satisﬁes equation (7).
Assuming that the maximum frequency of the GW150914 signal wave is the Schwarzschild frequency fs of the wave source, then substituting the maximum frequency fs = 230.760Hz of the negative strain in Table 1 into equation (7) gives the total mass m1 + m2 = 9.845 × 1031kg = 49.497M⊙ of two black holes or binary compact stars, where the mass of the sun is M⊙ = 1.989 × 1030kg. And the other estimate of the total mass of the two black holes obtained by substituting the maximum frequency fs = 197.398Hz of the positive strain in Table 1 into equation (7) is 59.43M⊙. There are some diﬀerences between the two estimates. We choose the maximum value that meets the expectations,

m1 + m2 = 59.43M⊙

(8)

The chirp mass of the source estimated by Blanchet frequency equation is very uncertain, so the uncertainty of the total mass is also very large. But the uncertainty of estimating the total mass of the binary black hole according to the Schwarzschild orbit frequency is relatively small. Of course this is just an estimate. Accurate calculation belongs to the content of com quantum theory, which systematically studies the laws of com quantization in nature, what is given therein is the unique value of the statistical average.

7 Conclusions and comments
The conclusion of physical deduction and experimental analysis must conform to the unitary principle[24, 25]. Otherwise its logic must be unreliable. Often an experimental phenomenon can be explained by diﬀerent theories[26]. Choosing only a certain qualitative judgment as the ﬁnal conclusion obviously violates the unitary principle. The important feature of GW150914 signal is the monotonic increase in frequency. We studied in detail the relationship between the frequency distribution of GW150914 signal wave and the generalized relativistic Blanchet frequency equation. It was pointed out that the similarity between GW150914 signal wave and the wave predicted by general relativity is only qualitative. However, frequency distribution and

variation law of GW150914 signal do not support the non-linear Blanchet frequency equation, and the diﬀerence between them is far beyond the error range. On the other hand, the numerical relativistic waveform deviates too far from the original GW150914 signal waveform. The other LIGO signals do not have the obvious characteristic of monotonous increase in frequency, so they can’t be used for accurate spectrum analysis. In short, the LIGO signal does not support the relativistic Blanchet frequency equation of spiral binaries merging gravitational waves.
There is no precise demarcation point between the strong gravitational ﬁeld and the weak gravitational ﬁeld. The classical theory of gravitation is based on a large number of astronomical observations. There is no principle diﬀerence between the inferences of classical theory describing the gravitational system of black holes and the correct inference beyond classical theory. Therefore, if GW150914 signal wave belongs to gravitational wave of spiral binary stars, the Schwarzschild orbital frequency can be combined with classical theory to estimate the total mass of the wave source. The problem also restores its simple and easy-to-understand nature. The maximum frequency of positive strain of GW150914 signal wave is used to estimate the total mass of the wave source. The result is in line with expectation, but the maximum frequency of negative strain of GW150914 is used to estimate the total mass of the wave source, the result is not in line with expectation. Is there any scientiﬁc basis for making a unique choice between the two estimation of the total mass of the wave source? What kind of exact equation does the frequency of the GW150914 signal wave satisfy? How to accurately calculate the gravitational wave source mass and determine the exact position of the gravitational wave source? How to accurately distinguish the diﬀerent gravitational wave signals from the binary black hole, the dense binary star, the multi black hole or the dense multi star gravitational system? What are the necessary and suﬃcient conditions leading to the formation and merging of spiral binary black holes? All these are urgent problems to be solved by gravitational theory.
Although the frequency distribution of the GW150914 signal wave accords with the motion law of the classical process of spiral binary star, the numerical calculation results of the discrete frequency and rate of change of the positive and negative strain show that only use the quantum number can accurately describe the law of gravitational wave. This is the com quantum theory which is diﬀerent from the traditional quantum theory. An accurate theory of gravitational waves is bound to be highly consistent with the exact results of experimental observations. The detection of GW150914 signal wave is a scientiﬁc fortune, and this achievement will play an important role in the history of gravitational theory for a long time. Based on the monotonic increase of the frequency and strain of the signal wave, it can only be qualitatively judged that the signal wave detected

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-15

by the laser interferometer gravitational wave detector belongs to the gravitational wave combined by a spiral binary black hole or a helical binary neutron star. The strict proof of the conclusion requires that the numerical analysis results of the observation data with high accuracy conform to the theoretical equation. Recognition of frequency-varying signal wave is a new technology to be

developed. The generalized quantization characteristics of GW150914 signal contain a new scientiﬁc theory. Perhaps gravitational waves of spiral binaries that will be discovered in the future have the same general quantization law, and the gravitation theory will be developed and perfected.

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man, A. G. Gravitational-radiation damping of compact binary systems to second post-Newtonian order. Physical Review Letters 74, 3515 (1995). 15 Abbott, B. P. et al. Observation of gravitational waves from a binary black hole merger. Physical review letters 116, 061102 (2016). 16 Abbott, B. et al. Localization and broadband follow-up of the gravitational-wave transient GW150914. The Astrophysical journal letters 826, L13 (2016). 17 Abbott, B. et al. GW151226: Observation of gravitational waves from a 22-solar-mass binary black hole coalescence. Physical Review Letters 116, 241103 (2016). 18 Scientiﬁc, L. et al. GW170104: observation of a 50-solarmass binary black hole coalescence at redshift 0.2. Physical Review Letters 118, 221101 (2017). 19 Abbott, B. P. et al. GW170814: a three-detector observation of gravitational waves from a binary black hole coalescence. Physical review letters 119, 141101 (2017). 20 Abbott, B. P. et al. GW170817: observation of gravitational waves from a binary neutron star inspiral. Physical Review Letters 119, 161101 (2017). 21 https://losc.ligo.org/events/GW150914/. LIGO Gravitational Wave Strain Data. 22 Sahoo, P. & Riedel, T. Mean value theorems and functional equations. (World Scientiﬁc, 1998). 23 Hawking, S. W. Black holes in general relativity. Communications in Mathematical Physics 25, 152-166 (1972). 24 Dongfang, X. D. On the Relativity of the Speed of Light. ScienceOpen Preprints,doi:10.14293/S21991006.1.SOR-.PPBT1S7.v1. 2020. 25 Dongfang, X. D. The Morbid Equation of Quantum Numbers. ScienceOpen Preprints, doi:10.14293/S2199-1006.1.SOR.PP61CUI.v2. 2021. 26 Wang, R., Zheng, Y. & Yao, A. Generalized Sagnac eﬀect. Physical Review Letters 93, 143901 (2004).

Appendix A Mathematica Code of Figure 3

[

[{

Show ContourPlot πf˙

{(

)

×

1−

743 336

+

11×29×36 4(29+36)2

(

+

34103 18144

+

13661×29×36 2016(29+36)2

+

==

96(6.674×10−11)5/3(29×1.989×1030)(36×1.989×1030)(π×f )11/3
5×(2.998×108 )5 (29×1.989×1030 +36×1.989×1030 )1/3

(596(×.26(972+49×3×613)046−)211)π(×(2.f969×.68(7×2491×+01830)6− 3)1×11π(.×928.f999××8(1×20913+0083))632)/×31.+9849×π1×0306).647/43×}10,−11

π×f ×(29+36)×1.989×1030 (2.998×108 )3

πf˙ == {
× 1−

96(6.674×10−11)5/3(7×1.989×1030)(58×1.989×1030)(π×f )11/3

(
743 336

5×(2.998×10)8 )(5 (7×1.989×1030 +58×1.989×1030 )1/3

+

11×7×58 4(7+58)2

6.674×10−11π×f ×(7+58)×1.989×1030 (2.998×108 )3

)2/3

+

4π

×

(

)(

+

34103 18144

+

13661×7×58 2016(7+58)2

+

59×(7×58)2 (7+58)4

6.674×10−11π×f ×(7+58)×1.989×1030 (2.998×108 )3

6.674×10−11
)4/3} ,

π×f ×(7+58)×1.989×1030 (2.998×108 )3

πf˙

==

96(6.674×10−11)5/3(15×1.989×1030)(50×1.989×1030)(π×f )11/3
5×(2.998×108 )5 (15×1.989×1030 +50×1.989×1030 )1/3

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

003-16

{( × 1−

(

+

34103 18144

)

743 336

+

11×15×50 4(15+50)2

+

13661×15×50 2016(15+50)2

+

(596(×.16(571+45×5×015)040−)211)π(×(2.f969×.68(7×1451×+01850)0− 3)1×11π(.×928.f999××8(1×10513+0085))032)/×31.+9849×π1×0306).647/43×}10,−11

π×f ×(15+50)×1.989×1030 (2.998×108 )3

×π+f˙{(=13148=−110434(96+73(43636.1265307+×61466×(141(2121(×.025×92− 5+925+8145×1×40×)40)15420)0/2083+))(52((552×956(××.126.(51792+.4859×94×8×0914)×0140− 0)13210013))π0((+×(24.04f96×09×.6×81(7×.1249.51×89+09818×490)0×− 31)011×301013π().0×92()8.π1f99/×9××38f(1×2)015131+00/843))032)/×31.+9849×π1×0306).647/43×}10,−11

π×f ×(25+40)×1.989×1030 (2.998×108 )3

×π+f˙{(=13148=−110434(96+73(43636.1265307+×61466×(141(2111(×.010×91− 0+910+8150×1×55×)55)15525)0/2583+))(51((051×906(××.116.(01791+.4809×95×8×5915)×0145− 0)13210013))π0((+×(25.55f96×59×.6×81(7×.1149.01×89+09818×590)5×− 31)011×301013π().0×92()8.π1f99/×9××38f(1×1)010131+00/853))532)/×31.+9849×π1×0306).647/43×}10,−11

π×f ×(10+55)×1.989×1030 (2.998×108 )3

×π+f˙{(=13148=−110434(96+73(43636.1265307+×61466×(141(2111(×.010×91− 0+910+8160×1×65×)65)15625)0/2583+))(51((051×906(××.116.(01791+.4809×96×8×5916)×0145− 0)13210013))π0((+×(26.56f96×59×.6×81(7×.1149.01×89+09818×690)5×− 31)011×301013π().0×92()8.π1f99/×9××38f(1×1)010131+00/863))532)/×31.+9849×π1×0306).647/43×}10,−11

π×f ×(10+65)×1.989×1030 (2.998×108 )3

×π+f˙{(=113=84−1140(943673(+436{36.61257+30×461×66(141(211(3×.03×90− 039+3+081051××5×0)051)55)200/}2083+))(53((035×069(×.1×63.17(903.48+90×985××9105×0)140− 01)3102013))π0((+×2(5.05f96×09×.×861(×7.1394.0189×+09881×59)00×31−)01×1301013π).0(9×2()8π1.f99/×9××38f(1×)3010131+00/83)5)023)/×31+.9849π×1×0306).647/43×}10}−1,1

π×f ×(30+50)×1.989×1030 (2.998×108 )3

{f, 0, 150}, f˙, 0, 12000 , Axes → True, GridLinesStyle → Directive[Dashed],

PlotLegends → Placed [{"BC(m1=29m⊙, m2=36m⊙)", "BC(m1=7m⊙, m2=58m⊙)", "BC(m1=15m⊙, m2=50m⊙)", "BC(m1=25m⊙, m2=40m⊙)", "BC(m1=10m⊙, m2=55m⊙)", "BC(m1=10m⊙, m2=65m⊙)", "BC(m1=30m⊙, m2=50m⊙)"} , {0.250, 0.60}] , Ticks → {Range[−10, 10, 2]}, ContourStyle → {{Hue[0.7], AbsoluteThickness[3]}, {Hue[0.9], AbsoluteThickness[3]},

{Hue[0.2], AbsoluteThickness[3]}, {Hue[0.3], AbsoluteThickness[3]}, {Hue[0.6], Absol{uteThickness[3]}, {Hue[0}.5]], AbsoluteThickness[3]}, {Hue[0.8], AbsoluteThickness[3]}}, FrameLabel → “f (Hz)”, "f˙ (Hz s−1)" ,

ListLinePlot[{{136.3582345, 11831.23042}, {116.6440307, 8657.49422}, {92.72359945, 3755.061951}, {79.31794085, 2747.763841}, {68.32265222, 1560.827218},

{58.44479852, 1142.134177}, {53.04553744, 764.1961764}, {45.37639637, 559.1999942},

{42.73112738, 418.0919129}}, PlotStyle → {Thickness[0.010], RGBColor[1, 0, 0]},

PlotLegends → Placed[{“LC of GW150914”}, {0.250, 0.60}]], AspectRatio → 0.86]

Appendix B Mathematica Code of Figure 4

[{

ContourPlot {(

π × 559.1999942 )(

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π×45.37639637)11/3 ) 5×(2.998×108 )5 (m1 ×1.989×1030 +m2 ×1.989×1030 )1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×45.37639637(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4π (

×

6.674×10−11 π ×45.37639637(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×45.37639637(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

×{

1142.134177 (

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×58.44479852)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×58.44479852(m1+m2)×1.989×1030 2/3 (2.998×108 )3

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1

+4(π

×

6.674×10−11 π ×58.44479852(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×58.44479852(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

×{

2747.763841 (

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×79.31794085)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×79.31794085(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4π (

×

6.674×10−11 π ×79.31794085(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×79.31794085(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

×{ 8657(.49422

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×116.6440307)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×116.6440307(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4(π

×

6.674×10−11 π ×116.6440307(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×116.6440307(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

×{

418.0919129 (

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×42.73112738)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×42.73112738(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4π (

×

6.674×10−11 π ×42.73112738(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×42.73112738(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

× 764.1961764 {(

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×53.04553744)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×53.04553744(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4π (

×

6.674×10−11 π ×53.04553744(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×53.04553744(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

×{

1560.827218 (

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×68.32265222)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×68.32265222(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4π (

×

6.674×10−11 π ×68.32265222(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×68.32265222(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

×{

3755.061951 (

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×92.72359945)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×92.72359945(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4π (

×

6.674×10−11 π ×92.72359945(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

)}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11 π ×92.72359945(m1 +m2 )×1.989×1030 (2.998×108 )3

4/3

,

π

×{

11831.23042 (

==

96(6.674×10−11 )5/3 (m1 ×1.989×1030 )(m2 ×1.989×1030 )(π ×136.3582345)11/3 ) ( ) 5×(2.998×108)5(m1×1.989×1030+m2×1.989×1030)1/3

×

1−

743 336

+

11×m1 ×m2 4(m1 +m2 )2

6.674×10−11π×136.3582345(m1+m2)×1.989×1030 2/3 (2.998×108 )3

+4(π

×

6.674×10−11 π ×136.3582345(m1 +m2 )×1.989×1030

(2.998×108 )3

)(

) }}

+

34103 18144

+

13661×m1 ×m2 2016(m1 +m2 )2

+

59×(m1 ×m2 )2 (m1 +m2 )4

6.674×10−11π×136.3582345(m1+m2)×1.989×1030 4/3 (2.998×108 )3

,

{m1, 6, 130} , {m2, 6, 130} , GridLinesStyle → Directive[Dashed], Axes → False,

GridLinesStyle → Directive[Dashed], PlotLegends → Placed[{“Peak(45.376Hz,559.200Hz/s)”,

“Peak(58.445Hz,1142.134Hz/s)”, “Peak(79.318Hz,2747.764Hz/s)”, “Peak(116.644Hz,8657.494Hz/s)”, “"TTrroouugghh((4922..773214HHzz,,471585..009622HHzz/2s))"”,,"“TTrroouugghh((15336.0.34568HHzz,7,16148.13916.2HHzz/2s))"”}, ",T{r0o.7u6g,h0(.6680.}3]2,3Hz,1560.827Hz2)",

Ticks → {Range[−10, 10, 2]}, ContourStyle → {{Hue[0.1], AbsoluteThickness[3]},

{Hue[0.2], AbsoluteThickness[3]}, {Hue[0.3], AbsoluteThickness[3]},

003-17

X. D. Dongfang Mathematics & Nature July (2021) Vol. 1 No. 1
{Hue[0.4], AbsoluteThickness[3]}, {Hue[0.5], AbsoluteThickness[3]}, {Hue[0.60], AbsoluteThickness[3]}, {Hue[0.7], AbsoluteThickness[3]}, {Hue[0.8], AbsoluteThickness[3]}, {Hue[0.9], AbsoluteThickness[3]}}, FrameLabel → {"m1 (m⊙)", "m2 (m⊙)"} , AspectRatio → 0.86]

003-18