Sounding Circle: Biophotons And The Universal Light Code

 Biophotons And The Universal Light Code2 comments
6 Mar 2004 @ 23:47, by Raymond Powers

Biophotons And The Universal Light Code
By William F. Hamilton
3-6-4

I have been reading a book entitled The Field by Lynne McTaggert, a book that could revolutionize our view of the universe once again. One of the key notions in this book is the discovery of biophotons, a new study in the field of biophysics that could have a far-reaching impact on our ideas of life and consciousness in the universe.

What are biophotons and how were they discovered?

"Biophotons, or ultra weak photon emissions of biological systems, are weak electromagnetic waves in the optical range of the spectrum - in other words: light. All living cells of plants, animals and human beings emit biophotons which cannot be seen by the naked eye but can be measured by special equipment developed by German researchers.

This light emission is an expression of the functional state of the living organism and its measurement therefore can be used to assess this state. Cancer cells and healthy cells of the same type, for instance, can be discriminated by typical differences in biophoton emission. After an initial decade and a half of basic research on this discovery, biophysicists of various European and Asian countries are now exploring the many interesting applications which range across such diverse fields as cancer research, non-invasive early medical diagnosis, food and water quality testing, chemical and electromagnetic contamination testing, cell communication, and various applications in biotechnology.

According to the biophoton theory developed on the base of these discoveries the biophoton light is stored in the cells of the organism - more precisely, in the DNA molecules of their nuclei - and a dynamic web of light constantly released and absorbed by the DNA may connect cell organelles, cells, tissues, and organs within the body and serve as the organism's main communication network and as the principal regulating instance for all life processes. The processes of morphogenesis, growth, differentiation and regeneration are also explained by the structuring and regulating activity of the coherent biophoton field. The holographic biophoton field of the brain and the nervous system, and maybe even that of the whole organism, may also be basis of memory and other phenomena of consciousness, as postulated by neurophysiologist Karl Pribram and others. The consciousness-like coherence properties of the biophoton field are closely related to its base in the properties of the physical vacuum and indicate its possible role as an interface to the non-physical realms of mind, psyche and consciousness.

The discovery of biophoton emission also lends scientific support to some unconventional methods of healing based on concepts of homeostasis (self-regulation of the organism), such as various somatic therapies, homeopathy and acupuncture. The "ch'i" energy flowing in our bodies' energy channels (meridians) which according to Traditional Chinese Medicine regulates our body functions may be related to node lines of the organism's biophoton field. The "prana" of Indian Yoga physiology may be a similar regulating energy force that has a basis in weak, coherent electromagnetic biofields."

First discovered in 1923 by Russian medical scientist Professor Alexander G.Gurvich (who named them "mitogenetic rays") and in the 1930s widely researched in Europe and the USA, biophotons have been rediscovered and backed since the 1970s by ample experimental and theoretical evidence by European scientists. In 1974 German biophysicist Fritz-Albert Popp has proved their existence, their origin from the DNA and later their coherence (laser-like nature), and has developed biophoton theory to explain their possible biological role and the ways in which they may control biochemical processes, growth, differentiation etc. Popp's biophoton theory leads to many startling insights into the life processes and may well provide one of the major elements of a future theory of life and holistic medical practice based on such an approach. The importance of the discovery has been confirmed by eminent scientists such as Herbert Froehlich and Nobel laureate Ilya Prigogine. Since 1992, the International Institute of Biophysics, a network of research laboratories in more than 10 countries, based in Germany, is coordinating research in this field which promises rapid development in the next decade. "(1)

There are so many ramifications to the study of biophotonic emissions that it is difficult to elucidate at this time. Biophoton studies seem to indicate that the emission is coherent and that biophotons may be modulated and communicate information not only throughout the body but into the extended environment. It may be the process by which DNA actually communicates its information to protein molecules in the process of morphogenesis. It may have relevance to extra-sensory modes of communication with other life forms and explain many mysteries of life.

Here is a list of some of the properties and characteristics of biophotons so far discovered (2):

"Some steps in revealing important properties of biophotons are (1) careful measurements of the spectrum, (2) the analysis of the photo count statistics, (3) connecting the spontaneous and delayed "luminescence", (4) investigations of the temperature dependence of biophotons and (5) correlating physical properties of biophoton emission and biological parameters such as growth, differentiation, DNA -content, and anomalies.

As far as results are available, a brief summary justifies at present the following statements:

· The spectral distribution of biophotons covers at least the range from 200 to 800 nm [1].

· The spectrum is not a line spectrum but rather flat, following approximately the rule f(w) = constant, where f describes the probability of occupying the phase space cells of energy . This is a significant difference from a closed system, where f(w) is the well-known Boltzmann distribution, where T is the absolute temperature [2].

· The probability of counting 0,1,2,...., n biophotons in a preset time interval Dt follows accurately a Poissonian distribution p(n,Dt) = exp (-) n/n! , where is the mean value of photon numbers n during the preset time interval Dt[2].

· This Poissonian probability distribution is fulfilled even in non-stationary biophoton emission. It holds to time intervals down to at least Dt of 10-5 s [2].

· Instead of following an exponential decay, delayed luminescence can be described rather accurately by a "hyperbolic relaxation" of the type A/(1+tz), where A and z are constant (including complex) values, while t is the time after external excitation [2].

· The temperature dependence follows a Curie-Weiss law rather than the Arrhenius factor [3].

· It is evident that at least a significant part of biophoton emission originates from DNA [4].



· There are manifold non-linear dependencies of biophoton emission on cell densities [5]. One of the leading researchers in this new field of biophotons is Fritz-Albert Popp of the International Institute of Biophysics (Biophotonics). Popp was one of those brilliant scientist who risked his career when he became interested in biophotons and there potential for healing. Experiments have even revealed that persons with deceased cells may be healed remotely by those who transmit coherent states of information via biophoton transmission. Popp says, "Biophotons are photons emitted spontaneously by all living systems.1-3 In particular, this phenomenon is not confined to "thermal" radiation in the infrared range. It is well known at present that biophotons are emitted also in the range from visible up to UV. Actually, the intensity of "biophotons" can be registered from a few photons per second and square centimeter surface area on up to some hundred photons from every living system under investigation. The spectral distribution never does display small peaks around definite frequencies. Rather, the quite flat distribution within the range of at least 300 to 800 nm has to be assigned to a thermodynamical system "far away" from equilibrium, since the probability f(n)(see Footnote) of occupying the phase space is on average almost constant and exceeds the Boltzmann distribution in this spectral range by at least a factor of 1010(in the red) up to 1040 (in the UV-range). Fig. 1 displays a typical frequency distribution of a living system, where the spectral intensity of biophotons (at the outside of the living system) has been averaged over several measurements and then expressed in terms of the excitation temperatures (upper figures and lower, left figure) or the occupation probability f(n ) (lower right figure). The term "bio-" in biophotons has been introduced4 in the same way as it has been done in the term "bio-luminescence", pointing to the biological source of the emission, and the term "photons" in the word ,,biophotons" has been chosen to express the fact that the phenomenon is characterized by measuring single photons, indicating that this phenomenon has to be considered as a subject of quantum optics rather than of "classical" physics." (3)

Though biophoton emissions are weak and various instruments are needed to detect these biophotons, the possibility exists that it may give rise to methods of detecting extraterrestrial life forms and determining their vital signatures. "Whereas an incoherent source relaxes according to an exponential relationship between light intensity and time of measurement, a coherent emission decays according to a hyperbolic relationship. Popp et al. and others have done considerable research to measure the kinetics of the decay of biological light emission from many organisms, with the result that almost all of the decay curves show a hyperbolic relationship. Although hyperbolic decay might also be observed for systems with a large number of independent emitters, Popp and Li10 maintain that under the particular conditions in which they have measured hyperbolic decay for light from organisms, the long-lasting hyperbolic decay observed for induced light emission is a sufficient condition for coherence." (4)

It is possible that biophotons may even be carriers of psi information and that a coherent coupling can be established between two conscious life forms resulting in a transference of information from a higher potential field to a field at lower potential. Even though this is conjecture at this point, it suggests other means by which disparate life forms can communicate. We know there is a process by which trees communicate and even signal each other in the face of danger. We may be exchanging information with pets and other animals through biophotonic communication. This may be how some people who have a green thumb affect plants they care for. The possibilities have not been fully explored, but I suspect that biophotonics will be a growing science in the 21st century.

(1) [link] (2) [link] (3) [link] (4) [link]


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2 comments

7 Mar 2004 @ 00:45 by butterflykiddo : :)
Interesting stuff here... More stuff for my knowledge ;) I'll read it again because it makes me think a lot. Do you know Danah Zohar? I'm reading a book of her called "The Quantum Self", it's quite interesting too :D

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30 Apr 2004 @ 06:59 by manish @203.109.65.11 : CV for post doctoral :manishkumar

Hello Sir
Good Morning
I am applying for join post doctoral in your group.
My PHD research field also have applications regarding to this post doctoral work.
I completed PhD under Dr KVR Murthy,His email is murthy@wilnetonline.net ,cell no 0091-265-3225568 and TeleFax:0091-265-2710377. He is also secretory of Luminescence Society of India.
I am very intresting in this given field for post doctoral.
Please sir, give me opportunity for join work in your group.
I do my best for satisfy work in your group.

Your Sincerely
Manishkumar
Good Day

***************************************************************************
Dear Professor
From your research papers, I understand with you are heading an active group investigates when I read of your research program. I have been working on the point defect studies in laboratory synthesized phosphate based rare earth phosphors using TSL and PL techniques. I had taken up this work, in an attempt to develop phosphors suitable for lamps , flat panels etc.,
I am interested in the applied aspects of Luminescence, and also interacting with local industry. However as most of the local industry uses products (lamp phosphors etc) from established commercial sources (mostly imported), under license, there does not appear to be much scope.
I would be very happy if you consider me for a post doctorial position in your group.
My strong points are doing best effort for best work and satisfy you sir.
I am attaching my CV for your reference.
Please feel free to write to me, if you need any more information.

Thanking you,
Your sincerely,
manish c parmar
(Manish C Parmar)
Display Materials Laboratory,
Applied Physics Department,
Faculty of Technology and Engineering,
M.S.University of Baroda, Baroda - 390 001, India
References are given at the end of the CV.



C V

Name : Manishkumar C Parmar
Father Name : C. J. Parmar
Date Of Birth : 24th October 1970
Marital Status : Unmarried
Nationality : Indian
Email : mcparmar2003@yahoo.co.in
Phone No. : 0091 261 2274914 ®
Address for correspondence:
Display Materials Laboratory,
Applied Physics Department
Faculty of Technology and Engineering,
M.S.Unviersity of Baroda, Baroda - 390 001, India
Telefax :0091-265-2710377
Present Address :
A1/49, Trishla Park
B/S SMC South Zone office
Udhna(W)-394210,Surat, Gujarat, INDIA.

Academic Qualifications:

B.Sc. (Physics) April 1995 from South Gujarat University, Surat, India

M.Sc. ( Applied Physics) November 1998 from Faculty of Technology & Engineering, M.S. University of Baroda, India

PGDCA (Post Graduate Diploma In Computer and its Applications), software-programming degree from MCRPV University at Bhopal. (Language know C, Oracle, FoxPro etc.)

Ph.D. thesis entitled "Thermoluminescence Characteristics of Lamp Phosphors".
Thesis submitted under the guidance of Dr.K.V.R.Murthy (Secretary of luminescence society of India) and presently waiting for viva.

PHD Guiding Professor : Dr KVR Murthy, he is also secretory of Luminescence Society of India and His Cell No is 0091-265-3225568
and his email : murthy@wilnetonline.net

Equipments Used for my PhD work:

1. Computerized Thermoluminescence Equipment.
2. High Temperature furnce.
3. Photoluminescence apparatuses.
4. Radiation sources used : gamma source,Co-60 and beta source
Sr-90.
Using high purity Rare earth dopants prepared LaPO4, with varying concentration of Ce and Tb.

I did my PhD research experimental work at Radiochemistry division, Modulus Laboratory, Rare Earth Development Section and Display Material Laboratory.

From my Ph.D thesis the following conclusions are drawn:
The Thermoluminescence characteristics of the prepared samples show that TL peak is mainly around 140 oC to 150 oC in gamma and beta irradiated phosphors. When the phosphors is irradiated by gamma, the TL peak around 140 oC, the same trend is continued when the specimens are irradiated with beta, however the peak temperature varies from 140 oC to 170 oC.
This is because the variation of grain sizes and non-uniformity in beta penetration that is beta penetrates only few A.U from the grain surface.
While transferring the beta - irradiated material on to the kanthal strip of the TL unit the non-uniformity of the beta Dose -received grains occurs. This will lead to generation of kinks or humps in many cases and the peak shift is also observed. However in gamma irradiated phosphors the effect is not observed since the traps are uniformly distributed in the phosphors grains.
TL observed after 15 hours of beta -irradiation i.e. the TL recorded after storing the irradiated phosphor for 15 hour in a dark room the TL peak was found around 160o C in all the samples. However the TL peak temperature for LaPO4:Tb system shows a erratic behavior. This may be due to unstability of traps in the phosphors. A detail investigation should be carried to study the Dosimetry properties some of the phosphors. The fading effect of LaPO4 :Ce system shows more or less follows the above statement. However in all the TL glow curves record there is a well-resolved TL peak which may be useful for TL Dosimetry purpose.
The Photoluminescence characteristic are concerned, some of the prepared sample are very good phosphors. The same is compared with the materials developed by B.S.Chakravarty et. Al. On comparison the results of LaPO4 : Ce,Tb 0.01%, 0.02% are very good phosphors for 390 to 420 nm emission. But the LaPO4:Ce,Tb 0.05% and 0.1% shows a very good green emission. This may be due to Ce acts as a sensitizer. Therefore it is normally concluded that the PL emission of two specimen which are LaPO4:Ce,Tb 0.05% and gives 0.1% are good phosphors when excited with 209 nm. The LaPO4 :Tb system which gives broad emission from 370 to 545 nm, the PL intensity grows when Tb concentration increases. It is found the PL emission intensity always increase when dopant concentration increases.
The over all observed TL and PL results are comparable with the published literature. However the TL studies of beta -irradiated phosphors are new concept. A detailed study can be undertaken.

PAPERS PUBLISHED :

1. Colour Correction in Tubular Fluorescent Lamps. P38, International Symposium on Luminescence and its applications, 7-10 February 2000, Souvenir and Abstracts.

2. Fluorescence materials in Radiation Dosimetry, Page No. 155 Proceeding of NSLA-2001,17-19 January 2001. Osmania University, Hyderabad, India Edited by A.G.Page et al.,

3. A review on Lamps and Phosphors, Proceedings of NSTPLAR, Page No. 30-38. Pub. Luminescence Society of India, Edited by K.V.R. Murthy et al. Dec. 2001

4. Calcium Halophosphates in radiation Dosimetry, Proceedings of NSLA-2002 Page No. 171-178, Pub. Luminescence Society of India, Edited by KV R Murthy et al. Dec, 2001

5. Thermoluminescence sediments of secondary mineral assemblages. Page-18, NSPLA, Progress in Luminescence and its applications. 14th December 2002.

6. Thermoluminescence studies of Optoelectronic device phosphors. International seminar on material science at New Mexico. August 19 to 22, 2003 USA

7. Effect of Grain size on the Thermoluminescence Output of BaMgAl10O17Eu Phosphor, Proceedings of International Conference on Luminescence and its Applications, P252 February 9-12, 2004, BARC, Mumbai, India. Ed. A.S.Pradhan et al.,

References:

Dr.M.D. Sastry
Email: mdsastry@yahoo.co.in
Chemical Physics Laboratory
IFM, Linkoping University, SE-581 83, Linkoping, Sweden
Prof.K.Somaiah.
Email: karnati_somaiah@yahoo.com
Physics Department, Osmania University, Hyderabad- 500 007, India
Dr.V. Natarajan,
Email: vnatra@yahoo.co.in
Electronics and Elcro-optical Ceramics lab
National Taiwan University
Taipei, Taiwan, R.O.C.106
Fax No.+886-2-2362-3040  



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