




































DNA Decipher Journal | June 2016 | Volume 6 | Issue 2 | pp. 102-106 
Christianto, V. & Umniyati, Y., On the Plausible Implications of Gariaev & Montagnier’s Work: Omne Vivum ex Vivo via 
Crebritudo? 

 
ISSN: 2159-046X DNA Decipher Journal 

Published by QuantumDream, Inc. 
www.dnadecipher.com 

 

102 

Exploration 
 

On the Plausible Implications of Gariaev & Montagnier’s Work: 

Omne Vivum ex Vivo via Crebritudo? 
 

Victor Christianto
*1

&Yunita Umniyati
2
 

 
1
Malang Institute of Agriculture, Malang, Indonesia 

2
Swiss German University, Tangerang – Indonesia 

 

ABSTRACT 

Recently Luc Montagnier and his group reported that genetic information might be transmitted to 

water through applications of electromagnetic field. These experiments seem to confirm what 

have been done by Peter Gariaev and his group in the past three decades, i.e., that DNA has wave 

character. However, non-particle view of DNA seems to challenge the standard paradigm of 

DNA and biology. In this paper, we briefly explore the non-particle view of DNA and consider 

an extension of the known adage “Omne vivum ex vivo” to “Omne Vivum ex Vivo via Crebritudo 

(frequency)”. 

 

Keywords: DNA, genetic information, transmission, Gariaev, Montagnier, wave character. 

 

Introduction 

Recently Luc Montagnier and his group reported that genetical information might be transmitted 

to water through applications of electromagnetic field [2-3]. These experiments seem to confirm 

what have been done by Peter Gariaev and his group in the past three decades, i.e., DNA has 

wave character. However, non-particle view of DNA seems to challenge standard paradigm of 

DNA and biology. In this paper, we briefly explore the non-particle view of DNA. 

Concluding her review on Montagnier’s experiments, Laurence Hecht wrote [1]: 

With the results of Montagnier, we recognize that the principle, omne vivum ex vivo, 

still holds, but only on the condition that we adopt a non-particle conception of life. 

Since there are extensive reports since 1980s concerning the possibility of long distance 

communication between cells, especially using E.M. field, it seems appropriate to consider an 

extension of the known adage: “Omne vivum ex vivo” to “Omne Vivum ex Vivo via Crebritudo 

(frequency)”. 

 

 

 

                                                           
*
Correspondence:Victor Christianto, Malang Institute of Agriculture, Malang – Indonesia.  

  URL: http://researchgate.net/profile/Victor_Christianto.  Email: victorchristianto@gmail.com 

http://researchgate.net/profile/Victor_Christianto
mailto:victorchristianto@gmail.com


DNA Decipher Journal | June 2016 | Volume 6 | Issue 2 | pp. 102-106 
Christianto, V. & Umniyati, Y., On the Plausible Implications of Gariaev & Montagnier’s Work: Omne Vivum ex Vivo via 
Crebritudo? 

 
ISSN: 2159-046X DNA Decipher Journal 

Published by QuantumDream, Inc. 
www.dnadecipher.com 

 

103 

DNA & De Broglie’s Matter-wave Hypothesis  

Experiments carried out by Montagnier group seem to suggest that genetic information can be 

transmitted to water via electromagnetic waves. This is very interesting since it challenges 

standard paradigm in biology [2-3]. This is also related to Gariaev’s proposal of DNA wave 

genetics [4-6]. 

That cell has capability to communicate at a distance may be not surprising, since there are 

reports indicating that effect [7-8]. But that electromagnetic field can transmit genetic 

information to water is interesting result which seems to bring us back to an old battle between 

corpuscular view and wave view of matter, i.e., Newtonian corpuscular model vis a vis Huygens-

Fresnel’s wave model of matter. Louis De Broglie seemed to give a hint on that issue by 

proposing matter-wave hypothesis but it appears that this issue is not solved completely. 

For clarity, let us put aside objections on Einstein’s special relativity and follow De Broglie’s 

argument in his thesis: 

 ,fE                                        (1) 

and  

 2mcE                  (2) 

Equating (1) and (2) we get: 

 
2mcf  ,                 (3) 

or 

 .
2c

fm


       (4) 

In other words, matter comes from frequency. Therefore, it seems possible at least in theory that 

not only E.M. field can transmit genetic information to water, but also that E.M. frequency can 

alter genetic code. 

As a note, although our starting point of using (1) and (2) comes from De Broglie’s original 

proposal, the conclusion is rather different because we do not have to accept his pilot wave 

model.  

It seems that equation (4) can give some hints to explain many phenomena related to Montagnier 

and Gariaev’s experiments and may plausibly open new ways to treat DNA as quantum 

biocomputer [4].    

If this proposition holds true, then it is possible to extend the old adage “all life come from life” 

(Omne vivum ex vivo) to “all life come from life through frequency” (Omne vivum ex vivo via 

crebritudo). This is because genetic information can be altered or transmitted through E.M. field 

and frequency. In other words, one may use ‘frequentia’, so it becomes: “Omne vivum ex vivo via 

frequentia.” 



DNA Decipher Journal | June 2016 | Volume 6 | Issue 2 | pp. 102-106 
Christianto, V. & Umniyati, Y., On the Plausible Implications of Gariaev & Montagnier’s Work: Omne Vivum ex Vivo via 
Crebritudo? 

 
ISSN: 2159-046X DNA Decipher Journal 

Published by QuantumDream, Inc. 
www.dnadecipher.com 

 

104 

Plausible Application of the Proposed Concept 

To test the new concept of “all life comes from life through frequency” (Omne vivum ex vivo via 

crebritudo) which challenges the standard paradigm in biology, we suggest the following: 

Let us define f = yield frequency, i.e., frequency where matter becomes wave and a new 

parameter: 

 ,
2c

k


                 (5) 

Then we can write equation (4) as a ratio: 

 .k
f

m
                           (6) 

In other words, from the above equation we may predict that the ratio between a small mass (m) 

like photon with its yield frequency (f) is always a constant. The small mass here can be 

extended to neutrino, electron, muon etc. We hope that the above equation may serve as a means 

to test the proposed concept. 

One plausible application of this proposition is alternative method of cancer treatment using 

various frequencies. It is known that some frequencies like 444Hz may kill cancer cell without 

destroying the normal cells. Such a method seems worthy to be investigated and developed 

further [9]. 

Montagnier et al. also use very low frequency such as 7.83 Hz, which seems to be closely related 

to the Schumann resonance of 7 Hz. Whether or not such a 7.83 Hz corresponds to ambient 

frequency of electromagnetic noise in water should be tested with experiments. 

 

DNA as Perturbed SGE Soliton  

There are various models of DNA, one of them is using solitary wave [10]. Its use as a model of 

phyllotaxis systems including DNA has been proposed elsewhere [11-14]. Now, we will only 

consider Perturbed sine-Gordon equation (PSGE) as a model of interaction between soliton and 

external E.M. field. 

Perturbed SGE comes in a variety of forms. One common form is a damped and driven SGE: 

[11, p.17] 

𝛹𝑡𝑡 + 𝛷𝛹𝑡 −𝛹𝑧𝑧 + sin⁡(𝛹) = 𝐹                                      (7) 

 

In addition, the following two versions of the perturbed SGE have been studied in the literature, 

including: 



DNA Decipher Journal | June 2016 | Volume 6 | Issue 2 | pp. 102-106 
Christianto, V. & Umniyati, Y., On the Plausible Implications of Gariaev & Montagnier’s Work: Omne Vivum ex Vivo via 
Crebritudo? 

 
ISSN: 2159-046X DNA Decipher Journal 

Published by QuantumDream, Inc. 
www.dnadecipher.com 

 

105 

a. Directly forced SGE: [11, p.19] 

 

 𝛹𝑡𝑡 −𝛹𝑧𝑧 + sin⁡(𝛹) = 𝑀𝑓(𝜔𝑡)      (8) 

b. Damped and drived SGE: 

 

 𝛹𝑡𝑡 −𝛹𝑧𝑧 + sin(𝛹) = 𝑀𝑓(𝜔𝑡) − 𝛼𝛹𝑡 + 𝜂                          (9) 

In the meantime, (2+1)D SGE with additional spatial coordinate (y) is defined as: [11,p.21] 

 

 𝛹𝑡𝑡 = 𝛹𝑥𝑥 +𝛹𝑦𝑦 − sin⁡(𝛹)                           (10) 

In their in-depth review of SGE, Ivancevic and Ivancevic [11] discuss potential applications of 

SGE solitons in DNA, protein folding, microtubules, neural impulse conduction and muscular 

contraction soliton. New insights may be expected in the near future in these biological fields, 

based on sine-Gordon equation soliton. 

 

Concluding Remarks 

Recently Luc Montagnier and his group reported that genetic information might be transmitted to 

water through applications of electromagnetic field. These experiments seem to confirm what 

have been done by Peter Gariaev and his group in the past 3 decades, i.e., that DNA has wave 

character.  

Concluding her review on Montagnier’s experiments, Laurence Hecht wrote [1]: 

With the results of Montagnier, we recognize that the principle, omne vivum ex vivo, 

still holds, but only on the condition that we adopt a non-particle conception of life. 

In this paper, we have briefly explored the non-particle view of DNA and consider an extension 

of the known adage: “Omne vivum ex vivo” to “Omne Vivum ex Vivo via Crebritudo 

(frequency)”.  

 

Acknowledgement: The first authors wishes to express his gratitude to Renata Wong and Prof. Akira 

Kanda for discussion and insight. 

 

 

 

 



DNA Decipher Journal | June 2016 | Volume 6 | Issue 2 | pp. 102-106 
Christianto, V. & Umniyati, Y., On the Plausible Implications of Gariaev & Montagnier’s Work: Omne Vivum ex Vivo via 
Crebritudo? 

 
ISSN: 2159-046X DNA Decipher Journal 

Published by QuantumDream, Inc. 
www.dnadecipher.com 

 

106 

References 

[1] Laurence Hecht. “Luc Montagnier’s Revolution in Biology: New Evidence for a Non-Particle view of 

Life.” 21
st
 Century Science and Technology, Winter 2010/2011. URL: 

http://www.21stcenturysciencetech.com/articles_2011/Winter-2010/Montagnier.pdf 

[2] Luc Montagnier, et al. (2011). “DNA Waves and Water.” 5
th
 Intr. Workshop DICE 2010; Journal of 

Physics: Conf. Series 306 (2011) 012007; [2a] http://arXiv.org/pdf/1012.5166 

[3] Luc Montagnier et al. (2015) “Transduction of DNA information through water and electromagnetic 

waves,” arXiv:1501.0162 [q-bio.OT]; see also [3a] Luc Montagnier, et al. (2009) “Electromagnetic 

Signals are produced by aqueous nanostructures derived from bacterial DNA Sequences.” 

Interdiscip. Sci. Comput. Life. Sci.  

[4] Peter Gariaev, et al. (2011) “DNA as basis for Quantum Biocomputer,” DNA Decipher Journal, 

January 2011, Vol. 1 Issue 1, pp. 025-046. http://www.dnadecipher.com  

[5] Matt Pitkanen (2011) “DNA & Water memory: comments on Montagnier group’s recent findings,” 

DNA Decipher Journal, January 2011, Vol. 1 Issue 1, pp. 181-190. http://www.dnadecipher.com   

[6]  Peter Gariaev & Matt Pitkanen (2010) “Model for the findings about Hologram Generating Properties 

of DNA,” url: http://tgd.wippiespace.com/public_html/ 

[7] Ashkan Farhadi (2014) “Non-chemical distant cellular interactions as a potential confounder of cell 

biology experiments,” Frontiers in Physiology, Oct. 2014, Vol. 5 Article 405 

[8] A.V. Khalyavkin & A.E. Gurvich (1978) “Role of distant interactions of lymphocytes in the 

development of antibody formation in vitro,” Bull. Exp. Biol. & Medicine, Plenum Publishing Corp. 

Available at www.researchgate.net 

[9] Victor Christianto (2015) “A review of Cancer electromagnetic frequency therapy: Towards Physics 

of Cancer,” Intr. Front. Sci. Lett., www.scipress.com  

[10] Victor Christianto & Yunita Umniyati (2015) “Graphical Plot of Soliton Solution of sine-Gordon 

model of DNA,” DNA Decipher Journal, www.dnadecipher.com  

[11] Vladimir G. Ivancevic and Tijana T. Ivancevic. Sine-Gordon solitons, Kinks and Breathers as 

Physical Models of  Nonlinear Excitations in Living Cellular Structures. arXiv:1305.0613 [q-

bio.OT] 

[12] Cristiano Nisoli (2009) “Spiraling soliton: A continuum model for dynamical phyllotaxis of physical 

systems,” Phys. Rev. E 80, 026110  

[13] Ludmila V. Yakushevich. Nonlinear Physics of DNA. Second, rev. ed. Berlin: Wiley-VCH Verlag 

GmBH & Co., 2004 

[14] Sara Cuenda, Angel Sanchez, Niurka R. Quintero. Does the dynamics of sine-Gordon solitons 

predict active regions of DNA? Physica D 223 (2006) 214-221.  


