




































DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 188

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

Article

Evolution in Many-Sheeted Space-Time: Big Vision

Matti Pitkänen 1

Abstract

This article is third part of an article consisting of four parts and devoted to evolution in many-
sheeted space-time. In the first part the basic facts believed to be known about pre-biotic evolution
were discussed and the TGD inspired vision about prebiotic evolution was introduced. In the second
part a physical model for the genetic code (not the only one) and its evolution was introduced and
McFadden’s views were compared with TGD views. In the third part a general vision about biological
evolution, evolution of brain, and cultural evolution are discussed. In the fourth part quantum variant
of expanding earth model and pre-cambrian evolution of continents, climate, and life will be developed.
The considerations of all these articles rely heavily on the notion of magnetic body and dark matter
identified as hierarchy of phases labelled by an effective value of Planck constant coming as an integer
multiple of ordinary Planck constant. Also the idea about hierarchy of Josephson junctions (cell
membrane would provide the basic realization) is central.

In the proposed model for the evolution great leaps in evolution would correspond to phase tran-
sitions in which the effective value of Planck constant - ~eff - assignable to an onion like layer of
the magnetic body increases. This implies scaling up of quantum coherence lengths and - times and
therefore macroscopic quantum coherence in arbitrarily long length scales. ~eff serves as a kind of
intelligence quotient. Evolution would correspond to the emergence of new layers to the magnetic
bodies of organisms. This would take place also for the magnetic bodies of populations making pos-
sible cultural evolution and the great differences between us and our ancestors and nearest species
with almost the same genome might be due to the cultural evolution not reducible to the evolution
of genome alone. Coherent collective gene expression would be one of the implications.

1 Introduction

The idea about magnetic body carrying macroscopic quantum phases characterized by a hierachy of
effective values of Planck constants suggests that great leaps in evolution would correspond to phase
transitions in which the effective value of Planck constant - ~eff - assignable to an onion like layer of
the magnetic body increases. This implies scaling up of quantum coherence lengths and - times and
therefore macroscopic quantum coherence in arbitrarily long length scales. ~eff serves as a kind of
intelligence quotient. Evolution would correspond to the emergence of new layers to the magnetic bodies
of organisms. This would take place also for the magnetic bodies of populations making possible cultural
evolution and the great differences between us and our ancestors and nearest species with almost the same
genome might be due to the cultural evolution not reducible to the evolution of genome alone. Coherent
collective gene expression would be one of the implications.

When I started to develop the idea, several obvious questions popped up. The preferred values of
(effective) Planck constant are assumed to be integer multiples of ordinary Planck constant: does this
integer have preferred values? For eight years later I take the original speculative answer to this question
with a grain of salt. Can one distinguish between evolution of biological and magnetic body and identify
cultural evolution as evolution of magnetic body? EEG and its variants (and the predicted scaled variants
of these) are expected to characterize living organisms, even super organisms like ant nest, bee hive, and
bacterial colony: is this really the case? Does bee hive possess a long term memory and what is the role
of the queen? One can also ask questions about the evolution of nervous system in the same conceptual

1Correspondence: Matti Pitkänen http://tgdtheory.com/. Address: Köydenpunojankatu 2 D 11 10940, Hanko, Finland.
Email: matpitka@luukku.com.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.

http://tgdtheory.com/
mailto:matpitka@luukku.com


DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 189

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

framework. Are the magnetic bodies of neurons and larger structures characterized by ~eff? What about
collective and transpersonal levels of consciousness?

Sheldrake’s vision [23] about species memory is also highly interesting from TGD point of view but is
not considered in the article series about prebiotic evolution. The interested reader can however consult
the article at [23]. The latest view about TGD inspired theory of consciousness justifying Sheldrake’s
vision in terms of negentropically entangled states defining representations invariant under quantum
jump sequence and in this manner giving rise to ”Akashi records” defining sensory - , memory - , etc.
representations can be found at [22].

Dark photons characterized by the value of ~eff and transforming to ordinary photons with the same
energy identified as biophotons are becoming a central element of TGD inspired quantum biology [21]: in
particular the non-destructive conscious reading of the memories represented in terms of negentropically
entangled states by interaction free measurement is very attractive idea [22]. The communications by dark
photons might have been present already during the prebiotic era before the emergence of biochemical
signalling and neural communications. The role of dark photons is not discussed in the vision as it was
formulated for more than five years ago.

2 Great vision about biological evolution and evolution of brain

The following great vision about evolution is not perhaps strictly about hierarchy of EEGs. The hierarchy
of dark matter and EEGs however leads to this vision naturally. The first part of vision relates to biological
evolution. Second part is about the evolution of brain. Here the key thread is evolution of two kinds of
intelligences, the ordinary fast intelligence evolving via the emergence of fast computation type activities
and emotional slow intelligence developing via the emergence of higher levels of dark matter hierarchy.
The latter intelligence is what distinguishes us from animals.

2.1 Basic assumptions

The great vision about evolution and brain relies on two several new notions and ideas.

1. Life as something in the intersection of real and p-adic worlds making possible negentropic entanglement-
both space-like and time-like. This makes possible to understand what conscious intelligence is and
NMP reduces evolution to a generation of negentropic entanglement. DNA as topological quantum
computer hypothesis [15] finds also a justification.

2. The notion of many-sheeted space-time implying a universal hierarchy of metabolic energy quanta,
and the notion of magnetic body.

3. Communication and control based on Josephson radiation and cyclotron transitions crucial for un-
derstanding biophotons and EEG and its fractal generalization as a key element of bio-communications.

4. Zero energy ontology and the closely related notion of causal diamond (CD) assigning a hierarchy
of macroscopic time scales to elementary particles coming as octaves of the basic time scale and
justifying p-adic length scale hypothesis. Zero energy energy ontology also justifies the vision about
memory and intentional action and the idea that motor action can be seen as time reversal of sensory
perception.

5. The hierarchy of Planck constants and the identification of the fundamental evolutionary step as
an increase of Planck constant. Evolutionary steps mean migration to the pages of the Big Book
labeled by larger values of Planck constant and living system can be regarded as a collection of
pages of the Big Book such that a transfer of matter and energy between the pages is taking place
all the time. The change of the Planck constant implies either reduction or increase of the quantum
scales-this leads to a model for biocatalysis and a model of cognitive representations as scaled down
or scaled up ”stories” mimicking the real time evolution.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 190

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

6. A resonant like interaction between hierarchy of Planck constants and p-adic length scale hierarchy
favoring the values of Planck constant proportional to powers of two, and idea that weak and color
interactions are especially important in the length scales which correspond to Mersenne primes
and Gaussian Mersennes. The simplest option is that weak bosons have their standard masses but
appear as massless below their Compton length which scales up like ~ and preferred p-adic length
scales correspond to Mersenne primes. Also copies of weak bosons and gluons with ordinary value
of Planck constant and reduced mass scale can (and will) be considered.

2.1.1 How to identify the preferred values of Planck constant?

The basic problem is to identify the preferred values of Planck constant and here one can only make the-
oretical experimentation and all what follows must be taken in this spirit. One can consider assumptions
which become increasingly stronger.

1. If only singular coverings of CD and CP2 are possible Planck constant is a product of integers. Al-
gebraic simplicity of algebraic extensions of rationals favors ruler and compass integers (Appendix).
This includes powers of two.

2. A resonant interaction between the dark length scales and p-adic length scales with ordinary value
of Planck constant favors Planck constants coming as powers of two.

3. An even stronger assumption would be that p-adic length scales coming as Mersennes and Gaussian
Mersennes are especially interesting.

(a) If weak bosons can appear with the ordinary value of Planck constant only in the p-adic length
scale k = 89, one obtains the condition

kd = k − 89 , k ∈ {89, 107, 113, 127, 151, 157, 163, 167} (2.1)

for the values of of r = 2kd allowing dark weak bosons in p-adic length scales assignable
to Mersennes. These values of kd assign to electrons and quarks dark p-adic length scales
L(keff ) =

√
rL(k), r ≡ ~/~0 = 2kd . The scales could correspond to size scales of basic units

of living systems.

(b) If weak bosons and possibily also gluons with ordinary value of Planck constant are possible in
all p-adic length scales L(k), k ∈ {89, 107, 113, 127, 151, 157, 163, 167}, one obtains much richer
structure. This hierarchy defines defines secondary dark matter hierarchies from the condition
that the scaling the p-adic length scale L(k1) in this set by

√
r, r ≡ ~/~0 = 2kd , gives a p-adic

length scale equal to another p-adic length scale L(k2) in this set. This requires kd + k1 = k2
so that the values

kd = k2 − k1 (2.2)

are favored for the scaling of ~. In this case the hierarchy of dark scales assignable to quarks
and leptons is much richer. The tables below demonstrate that electron appears as its dark
variant for all Mersennes and also in atomic length scales k = 137, 139 so that this option puts
electron in a completely unique position.

4. Also other scales are possible. For instance, r = 247 required by 5 Hz Josephson frequency gives
dark weak scale which corresponds k = 136 as a p-adic scale. The stages of sleep can be understood
in terms of scaling of ~ by factor 2 and 4 so that also the atomic length scale k = 137 and the scale
k = 138 are involved.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 191

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

Since the experimental input is rather meager, one is forced to do theoretical experimentation with
various hypothesis. The quantitative experimental tests are rather primitive but basically quantal.

1. The time scales assignable to CDs of leptons and quarks and their scaled up counterparts for the
preferred values of Planck constant should define biologically important time scales. One might even
speak about evolutionary level of electron. These time scales could define fundamental biorhythms
and also time scales of long term memory and planned action.

2. Josephson frequencies and cyclotron frequencies scaling like 1/~ (if magnetic field scales down like
1/~) charactering biologically important ions and elementary particles. With inspiration coming
from the quantum criticality of living matter one can ask whether cell membrane can also correspond
to almost vacuum extremal so that besides classical em force also the classical Z0 force would be an
essential element of the model [16]. Also corresponding cyclotron and Josephson frequencies should
define fundamental bio-rhythms and characterize the evolutionary level of cell. Experimentally of
special importance are the cyclotron frequencies assignable to Ca++ ions.

3. The amplitude windows for electric field scaling like ~ for a particular cyclotron frequency define a
basic prediction.

2.1.2 Tables about predicted time and length scales

The following tables summarize various predictions for time scales and length scales. They correspond to
the most general assumption that exotic bosons with the ordinary value of Planck constant are possible
in all length scales associated with Mersennes and Gaussian Mersennes.

kd p1 p2 kd p1 p2

4 163 167 38 89 127

6 107 113 38 113 151
6 151 157 40 127 167
6 157 163 44 107 151
10 157 167 44 113 157
12 151 163 50 107 157
14 113 127 50 113 163
16 151 167 54 113 167
18 89 107 56 107 163
20 107 127 60 107 167
24 89 113 62 89 151
24 127 151 68 89 157
30 127 157 74 89 163
36 127 163 78 89 167

Table 5. The integers kd characterizing the preferred values of r = ~/~0 = 2kd identified from the
condition that the dark variant of p-adic length scale L(p1) corresponding to some ordinary p-adic length
scale defined by Mersenne prime Mp or Gaussian Mersenne MG,p, p ∈ {89, 107, 113, 127, 151, 157, 163, 167}
corresponds to similar p-adic length scale L(p2). If one assumes that weak bosons can appear with ordinary
value of Planck constant only in the p-adic length scale k = 89, only the rows with p1 = 89 of the table
are possible: in these cases p1 is in boldface and the row has double underline. The corresponding values
of kd are in the set {18, 24, 38, 62, 68, 74, 78}.

Note that the table above include only the dark length scales associated with k = 89 gauge bosons.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 192

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

Z,W d u e kd

89 120 124 127 0

93 124 127 131 4
95 126 129 133 6
99 130 133 137 10
101 132 135 139 12
103 134 137 141 14
105 136 139 143 16
107 138 141 145 18

109 140 143 147 20
113 144 147 151 24

119 150 153 157 30
125 156 159 163 36
127 158 161 165 38

129 160 163 167 40
133 164 167 171 44
139 170 173 177 50
143 174 177 181 54
145 176 179 183 56
149 180 183 187 60
151 182 185 189 62

157 188 191 195 68

163 194 197 201 74

167 198 201 205 78

Table 6. The dark p-adic length scales
√
rL(k) = L(keff ), keff = k + kd, of intermediate gauge bosons

Z,W , d and u quarks, and electron for the values r = 2kd of Planck constant defined in Table 5.
The uppermost row gives the integers characterizing the p-adic length scales of the particles for the
standard value of Planck constant. keff characterizes also the CD times scale through the formula
T (CD, keff ) = 2keff−127 × .1 seconds. The rows which correspond to the less general option for which
only M89 corresponds to weak bosons with ordinary value of Planck constants have double underline and
the corresponding values of kd are in boldface.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 193

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

k1 kM k1 kM k1 kM k1 kM

113 89 113 107 163 127 163 157
127 89 119 107 167 127 169 157
151 89 123 107 133 127 173 157
157 89 113 107 139 127 163 157
163 89 117 107 143 127 167 157
167 89 111 107 133 127 161 157
95 89 175 113 137 127 169 163
109 89 181 113 131 127 183 163
133 89 187 113 225 151 207 163
139 89 191 113 229 151 213 163
145 89 119 113 157 151 219 163
149 89 133 113 171 151 223 163
103 89 157 113 195 151 177 163
127 89 163 113 201 151 201 163
133 89 169 113 207 151 207 163
139 89 173 113 211 151 213 163
143 89 127 113 165 151 217 163
113 89 151 113 189 151 187 163
119 89 157 113 195 151 193 163
125 89 163 113 201 151 199 163
129 89 167 113 205 151 203 163
95 89 137 113 175 151 169 163
101 89 143 113 181 151 175 163
105 89 149 113 187 151 179 163
95 89 153 113 191 151 169 163
99 89 119 113 157 151 173 163
93 89 125 113 163 151 167 163
145 107 129 113 167 151 187 167
169 107 119 113 157 151 211 167
175 107 123 113 161 151 217 167
181 107 117 113 155 151 223 167
185 107 195 127 235 157 227 167
113 107 201 127 163 157 181 167
127 107 205 127 177 157 205 167
151 107 133 127 201 157 211 167
157 107 147 127 207 157 217 167
163 107 171 127 213 157 221 167
167 107 177 127 217 157 191 167
121 107 183 127 171 157 197 167
145 107 187 127 195 157 203 167
151 107 141 127 201 157 207 167
157 107 165 127 207 157 173 167
161 107 171 127 211 157 179 167
131 107 177 127 181 157 183 167
137 107 181 127 187 157 173 167
143 107 151 127 193 157 177 167
147 107 157 127 197 157 171 167

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 194

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

ľ
Table 9. The table gives all weak boson length scales -both non-dark and dark implied by the as-

sumption that all Mersennes primes and their Gaussian counterparts and their dark counterparts defined
kd = ki − kj them are possible.

particle Z,W d u e

k 89 120 123 127
f(CD)/Hz 2.7488× 1012 1280 160 10

Table 8. The fundamental frequencies associated with the CDs of intermediate gauge bosons Z,W , d
and u quarks, and electron. Note that for intermediate gauge bosons the frequency of CDs corresponds
to energy E = 1.13× 10−2 eV and wavelength λ = 1.01× 10−4 m (size of a large neuron).

Z,W d u e kd

3.64e-13 7.81e-04 6.25e-03 1.00e-01 0

5.821e-12 1.25e-02 1.00e-01 1.60e+00 4
2.31e-11 5.00e-02 4.00e-01 6.40e+00 6
3.73e-10 8.00e-01 6.40e+00 1.02e+02 10
1.49e-09 3.20e+00 2.56e+01 4.10e+02 12
5.97e-09 1.28e+01 1.02e+02 1.65e+03 14
2.38e-08 5.12e+01 4.10e+02 6.55e+03 16
9.54e-08 2.05e+02 1.64e+03 2.62e+04 18

3.81e-07 8.19e+02 6.55e+03 1.05e+05 20
6.10e-06 1.31e+04 1.05e+05 1.68e+06 24

3.91e-04 8.39e+05 6.71e+06 1.07e+08 30
2.50e-02 5.37e+07 4.30e+08 6.87e+09 36
1.00e-01 2.15e+08 1.72e+09 2.75e+10 38

4.00e-01 8.59e+08 6.87e+09 1.10e+11 40
6.40e+00 1.37e+10 1.10e+11 1.76e+12 44
4.10e+02 8.80e+11 7.04e+12 1.12e+14 50
6.55e+03 1.41e+13 1.13e+14 1.80e+15 54
2.62e+04 5.63e+13 4.50e+14 7.21e+15 56
4.19e+05 9.01e+14 7.21e+15 1.15e+17 60
1.68e+06 3.60e+15 2.88e+16 4.61e+17 62

1.07e+08 2.31e+17 1.84e+18 2.95e+19 64

6.87e+09 1.48e+19 1.18e+20 1.89e+21 74

1.10e+11 2.36e+20 1.89e+21 3.02e+22 78

Table 9. The ~-scaled fundamental time scales T (CD, keff ) = 2keff−127 × .1 seconds associated with
the CDs of intermediate gauge bosons Z,W , d and u quarks, and electron for the values ~/~0 = 2kd of
Planck constant defined in Table 5. The scales are expressed in seconds. The uppermost row gives the
time scales of CDs for the standard value of Planck constant. The rows which correspond to the less
general option for which only M89 corresponds to weak bosons with ordinary value of Planck constants
have double underline and the corresponding values of kd are in boldface.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 195

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

2.1.3 Electron and u quark are different

Before continuing an important observation is in order. Electron is exceptional when compared to
quarks. It appears as a dark particle in all p-adic length scales defined by biologically important Gaussian
Mersennes and also in atomic length scales k = 137 and k = 139. The reason is trivial: by the basic as-
sumptions electron must appear at same length scales as weak bosons above k = 127 since it corresponds
to Mersenne prime. Also for the less general option (exotic intermediate gauge bosons are possible only as
the dark variants of the standard ones) it appears at cell membrane length scale k = 151, which is due to
the fact that one has 113− 89 = 151− 127 = 24. Also u quark can appear with keff = 137, 139, 163, 167
and also this is an accident. The light invariants of intermediate gauge bosons appearing in long p-adic
length scales would naturally correspond to almost vacuum extremals making possible the criticality as
the basic aspect of life. One must of course be very cautious about the masses of exotic counterparts of
u and d quark: one can also consider the possibility that masses are identical.

2.2 Dark matter hierarchy and big leaps in evolution

Dark matter hierarchy leads to an amazingly concrete picture about evolutionary hierarchy allowing to
identify the counterparts for concepts like mineral, plant, and animal kingdom that we learned during
schooldays and ceased to take seriously as students of theoretical physics as we learned that other sciences
are just taxonomy. Even more, a view about what distinguishes between prokaryotes, eukaryotes, animal
cells, neurons, EEG, and even about what makes cultural evolution, becomes possible. This view is also
very useful when one tries to understand the role of microtubules.

The appearance of CDs scaled up in size by r = ~/~0 and space-time sheets scaled up in size by√
r means the emergence of new levels of structure and it is natural to identify big leaps in evolution in

terms of emergence of new larger matter carrying space-time sheet magnetic flux sheets and corresponding
magnetic bodies. If magnetic flux quanta are scaled by r magnetic flux quantization conditions remain
unaffected if magnetic field strengths scale down by 1/r so that the energies of cyclotron photons are not
affected. The thickness of flux tubes can remain unchanged if the currents running at the boundaries of
the flux quantum cancel the magnetic flux. As already found, this mechanism must be at work inside
living organisms wheras in far away region flux quanta are scaled up in size.

The attractive hypothesis is that the leaps in evolution correspond to the emergence of dark variants
of weak and possibly also color interactions in dark p-adic length scales which correspond to ordinary
p-adic length scales characterized by Mersenne primes. These leaps would be quantum leaps but in
different sense as thought usually. The emergence of higher dark matter levels would basically mean
the integration of existing structures to larger structures. A good metaphor are text lines at the pages
of book formed by magnetic flux sheets whose width is scaled up by r as the new level of dark matter
hierarchy emerges. The big leaps can occur both at the level of organism and population and organisms
with rather low individual dark matter level can form societies with high dark matter levels and high
collective intelligence (honeybees and ants are good example in this respect).

Certainly also other scalings of Planck constant than those summarized in tables are possible but
these scalings are of primary interest. This intuition is supported by the observation that electron is
completely exceptional in this framework. Electron’s dark p-adic length scales corresponds to p-adic length
scales L(k), k = 167, 169, assignable to atomic and molecular physics and to the Gaussian Mersennes
MG,k = (1 + i)k − 1, k ∈ {151, 157, 163, 167}, assignable to the length scale range between cell membrane
thickness 10 nm and nucleus size 2.58 µm. The corresponding p-adic length scales, the number of which
is 23, are excellent candidates for the scales of basic building brickes of living matter and vary from
electron’s p-adic length scale up to 1.25 m (k = 167 defining the largest Gaussian Mersenne in cell length
scale range) and defining the size scale of human body. The corresponding p-adic time scales are also
highly interesting and vary from .1 seconds for electron defining the fundamental biorhythm to 9.6× 1014

years which is by 4-5 orders longer than the age of the observed Universe. For k = 167 the time scale is
1.1× 1011 years and is by one order of magnitude longer than the age of the observed Universe estimated

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 196

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

to be 1.37× 1010 years [3] .
This conceptual framework gives rather strong guidelines for the identification of the levels of evolu-

tionary hierarchy in terms of dark matter hierarchy. The outcome is a more detailed vision about big
evolutionary leaps. Note that in the sequel only the general option is considered: the justification for
this is that for this option electron appears as a dark particle for all length scales defined by Gaussian
Mersennes as well as in atomic length scales. The basic vision in nutshell is that evolution means the
emergence of dark weak and gluonic physics in both dark and ordinary length scales and that the size
scales of the basic biostructures correspond to Mersenne primes and their Gaussian variants.

2.2.1 A sketch about basic steps in evolution

The vision about evolution depends on what one assumes about the initial state.

1. If one assumes that weak bosons with ordinary value of Planck constant were present in the begining,
evolution would mean a steady growth of kd. The problem is that small values of kd = k1 − k2
correspond to the Gaussian Mersennes defining cellular length scales. If these exotic weak physics
were present from the beginning, large parity breaking in cellular length scales would have been
present all the time.

2. An alternative and perhaps more realistic view is that the evolution means the emergence of exotic
weak physics corresponding almost vacuum extremals in increasingly longer length scales. A pos-
sible mechanism could have been the induction of exotic ~0 variant of weak physics at the nearest
Mersenne length scale knext by the dark variant of weak physics at level k so that one would have
kd = knext−k. The simplest induction sequence would have been 89→ 107→ 113→ 127→ 151→
157 → 163 → 167 corresponding to kd ∈ {18, 6, 14, 24, 6, 6, 4}. A possible interpretation of exotic
~0 physics is in terms of almost vacuum extremals and non-standard value of Weinberg angle: also
weak bosons of this physics would be light. This sequence defines the minimal values for kd but
also larger values of kd are possible and would correspond to steps between neighbours which are
not nearest ones.

The following sketch about the basic steps of evolution relies on the latter option.

1. Elementary particle level

Magnetic bodies with size scale defined by the sizes of CDs assignable to quarks and leptons and
possibly also weak bosons (already now the size of big neuron emerges) corresponds to the lowest level
of hierarchy with the sizes of the basic material structures corresponding to the Compton lengths of
elementary particles. The fundamental bio-rhythms corresponding to frequencies 10, 160, and 1280 Hz
appear already at this level in zero energy ontology which suggests that elementary particles play a central
and hitherto unkown role in the functioning of living matter.

2. 89→ 107 step with kd = 18

The first step would have been the emergence of keff = 107 weak bosons inducing ~0 weak physics in
k = 107 length scale characterizing also ordinary hadrons. This in turn would have led to the emergence
of exotic nucleons possibly corresponding to almost vacuum extremals. The reduction of the model for
the vertebrate genetic code to dark hadron physics [20] is one of the most unexpected predictions of
quantum TGD and assumes the existence of exotic- possibly dark- nucleons whose states with a given
charge correspond to DNA, RNA, mRNA, and tRNA. The ~0 variants of these nucleons would interact
via weak bosons with hadronic mass scale. The exotic variants of the ordinary k = 113 nuclei would
correspond to the nuclear strings consisting of exotic nucleons [14, 20] and define nuclear counterparts
for DNA sequences. Their dark counterparts could define counterparts of DNA sequences in atomic
physics length scales. Therefore a justification for the previous observation that genetic code could be
realized at the level of hadron physics and that chemical realization would be higher level realization finds

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 197

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

justification. The anomalous properties of water could be also partly due to the presence of dark nucleons
and the proposal was that the presence of exotic nuclei is involved with water memory [17] . The possible
existence of the the analog of DNA-RNA transcription between ordinary DNA and its nuclear counterpart
would have dramatic implications. For instance, one can imagine a mechanism of homeopathy based on
this kind of transription process which would also allow a modification of genome by using dark nuclei to
communicate the DNA sequences through the cell membrane to the target nuclei.

3. 107→ 113 step with kd = 6

The next step would have been the emergence of keff = 113 weak bosons inducing ~0 weak physics in
k = 113 length scale characterizing also ordinary hadrons. Exotic variants of the ordinary nuclei possibly
corresponding to almost vacuum extremals could have emerged interacting weakly (or actually relatively
strongly!) via the exchange of weak bosons with mass scale of order 100 MeV. Also dark variants of the
exotic k = 107 nucleons could have have emerged and formed exotic nuclei of size scale k = 119.

4. 113→ 127 step with kd = 14

At this step weak bosons in electron mass scale would have emerged. Whether these weak bosons
could have induced large parity breakings in atomic and molecular length scales is not clear. Viruses,
which do not yet possess cell membrane could correspond to this level of hierarchy.

5. 127→ 151 step with kd = 24

This step would have been fundamental since weak bosons in cell membrane length scale would have
appeared. Note that by 113 − 89 = 24 this step also leads from k = 89 weak bosons to k = 113 weak
bosons. The weak bosons assignal to k = 151 could correspond to the weak interactions associated with
almost vacuum extremals and sin2(θW ) = .0295 could correspond to the weak physics in question.

kd = 24 step for k = 113 ~0 weak bosons would have produced them in keff = 137 atomic length
scale with L(137) ' .78 Angstrom This could have naturally led to large parity breaking effects and chiral
selection.

Dark keff = 151 electrons appearing in the TGD inspired model of high Tc super-conductivity would
have been a by-product of this step. Whether dark electrons could have transformed to light ~0 electrons
(of mass .25 keV) with a common mass scale of order 102 eV with exotic weak bosons is an interesting
question. The model of high Tc super-conductivity predicts the presence of structures analogous to cell
membrane. This would suggest that cell membranes emerged and chiral selection emerged at this step so
that one could not distinguish the emergence of molecular life as a predecessor for the emergence of cell
membrane like structures. This would conform with the fact that DNA molecules are stable only inside
cell nucleus. Note that for keff = 151 electron’s CD has time scale 224 × .1 seconds -that is 19.419 days
(day=24 hours).

The smallest nanobes [6] appearing in rocks have size 20 nm and could have emerged at this step. The
size of the viruses [7] is between 10-300 nm covers the entire reange of length scales assignable to Gaussian
Mersennes, which suggests that smallest viruses could have emerged at this step. Also the smallest [5] [5]
, which by definition have size smaller than 300 nm could have appeared at this stage.

6. The remaining steps

The remaining steps k = 151 → 157 → 163 → 167 could relate to the emergence of coiling structure
DNA and other structures inside cell nucleus. k = 167 would correspond to kd = 167 − 89 = 68 to be
compared with the value kd = 47 required by 5 Hz Josephson frequency for the neuronal membrane for
-70 mV resting potential. Note that kd = 48 (state 1-2 of deep sleep) corresponds to k = 163.

By their smallness also double and triple steps defined by kd = ki+n − ki, n > 1, are expected to be
probable. As a consequence, electrons can appear as dark electrons at all the Gaussian Mersenne levels.
At these steps the dark electrons corresponding to primes keff = 137, 139 would appear. For k = 137
dark electron appears with CD time scale equal to 128 seconds- rather precisely two minutes. The model
for EEG suggests that the exotic weak bosons appear in the scales keff = 136, 137, 138.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 198

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

Further multisteps from the lower levels of hierarchy would give structures with size scales above the
size of cell nucleus possibly assignable to organs and structural units of brain. The dark levels assignable
to electron are expected to be of special interest. It is encouraging that the longest scale assignable to
electron in this manner corresponds to k = 205 and length scale of 1.28 m defining body size. As a
consequence dark electrons are predicted at levels k = 137, 139, 141, 143, 145, 147 coming as octaves.

Prokaryotic cells (bacteria, archea) without cell nucleus for which cell membrane is responsible for
metabolic functions and genome is scattered around the cell could have emerged at this step. This would
mean that the emergence of the cell membrane thickness as a fundamental scale is not enough: also the
size scale of membrane must appear as p-adic length scale. The sizes of most prokaryotes vary between
1 µm and 10 µm: the lower bound would require k = 163. There also prokaryotes with sizes between
.2 µm (k = 157 corresponds to .08 µm) and 750 µm. Cell nuclei, mitochondria, and other membrane
bounded cell nuclei would have evolved from prokaryotes in this framework. The sizes of eukaryote cells
are above 10 µm and the fact that multicellular organisms are in question strongly suggests that the higher
multisteps giving rise to weak bosons and dark electrons in length scales above L(167) are responsible for
multi-cellular structures.

This scenario leaves a lot of questions unanswered. In particular, one should understand in more
detail the weak physics at various length scales as well as various exotic nuclear physics defined by dark
nucleons and dark variants of nuclei.

2.2.2 Division of the evolution to that of biological body and magnetic body

Electron’s Mersenne prime M127 is the highest Mersenne prime, which does not correspond to a completely
super-astrophysical p-adic length scale. In the case of Gaussian Mersennes MG,k one has besides those
defined by k in {113, 151, 157, 163, 167, } also the ones defined by k in {239, 241, 283, 353, 367, 379, 457, 997}
[1] . The appropriately extended model for evolution allows to distinguish between three kinds of values
of keff .

1. The values of keff for which electron can appear as dark particle and thus satisfying keff ≤ 205
(Table 5). These levels would correspond to structures with size below 1.25 m defined roughly by
human body size and it is natural to assign the evolution of super-nuclear structures to the levels
167 < keff ≤ 205.

2. The values of of keff for which dark gauge bosons are possible in the model. This gives the condition
keff ≤ 235. These levels correspond to structures in the range 1.25 m-40 km. The identification as
parts of the magnetic body can be considered.

3. The values of keff obtained by adding to the system also the Gaussian Mersenne pair k ∈ {239, 241}
allowing also the dark electrons. The lower size scale for these structures is 640 km.

4. The higher levels corresponding to keff in {283, 353, 367, ...}. The lower size scale for these structures
is 3 AU (AU is the distance from Earth to Sun).

keff > 205 levels would correspond to the emergence of structures having typically size larger than
that of the biological body and not directly visible as biological evolution. This evolution could be
hidden neuronal evolution meaning the emergence of extremely low Josephson frequencies of the neurons
modulating higher frequency patterns and being also responsible for the communication of long term
memories.

2.2.3 Biological evolution

In principle the proposed model allowing multisteps between hierarchy levels defined by Mersenne primes
and their Gaussian counterparts could explain the size scales of the basic structures below the size scale
1.25 m identified in terms of the keff ≤ 205 levels of the hierarchy.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 199

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

1. The emergence of cells having organelles

The appearance of the structures with keff > 167 (possibly idetifiable as magnetic body parts) should
correlate with the emergence of simple eukaryotic cells and organisms, in particular plant cells for which
size is larger than 10 µm, which could correspond to keff = 171 for electron and dark variants of weak
gauge bosons. keff = 177 is the next dark electron level and corresponds to 80 µm scale. It seems natural
to assume that these dark weak bosons do not transform to their ~0 counterparts at these space-time
sheets.

Cell nucleus would be the brain of the cell, mitochondria would be the energy plant, and centrioles
generating microtubules would define the logistic system. Also other organelles such as Golgi apparatus,
ribosomes, lysosomes, endoplasmic reticulum, and vacuoles would be present. These organelles would
live in symbiosis by topologically condensing to keff ≥ 171 magnetic body controlling their collective
behavior. Centrosomes associated with animal cells would not be present yet but microtubule organizing
centers would already be there.

The recent observations show that centrioles are not always in the characteristic T shaped conforma-
tion. Daughter centrioles resulting during the replication of mother centriole use first ours of their lifetime
to roam around the cell before becoming mature to replicate. A possible interpretation is that they are
also life forms and that magnetic body utilizes daughter centrioles to perform some control functions
crucial for the future development of the cell. For instance, centrioles visit the place where axonal growth
in neurons starts.

Cytoskeleton would act as a counterpart of a central nervous system besides being responsible for
various logistic functions such as transfer of proteins along microtobuli. Centrioles give also rise to basal
bodies and corresponding cilia/flagella used by simple cells to move or control movement of air or liquid
past them. Centriole pair would be also used by the magnetic body to control cell division.

The logistic functions are the most obvious functions of microtubules. Magnetic body would control
cell membrane via signals sent through the cell nucleus and communicated to the cell membrane along
microtubuli. Basal bodies below the cell membrane and corresponding cilia/flagella would serve as motor
organs making possible cell motion. Tubulin conformations representing bits would allow microtubule
surface to represent the instructions of the magnetic body communicated via via cell nucleus to various
proteins moving along the microtubular surface so that they could perform their functions.

TGD based view about long memory recall as communication with geometric past allows also the
realization of cellular declarative memories in terms of the conformational patterns. Memory recall
corresponds to a communication with geometric past using phase conjugate bosons with negative energies
reflected back as positive energy bosons and thus representing an ”image” of microtubular conformation
just like ordinary reflected light represents ordinary physical object. There would be no need for a static
memory storage which in TGD framework would mean taking again and again a new copy of the same
file.

Receptor proteins would communicate cell level sensory input to the magnetic body via MEs parallel
to magnetic flux tubes connecting them to the magnetic body. We ourselves would be in an abstract
sense fractally scaled up counterparts of receptor proteins and associated with dark matter iono-lito
Josephson junction connecting the parts of magnetosphere below litosphere and above magnetosphere.
The communication would be based on Josephson radiation consisting of photons, weak bosons, and gluons
defining the counterpart of EEG associated with the level of the dark matter hierarchy in question.

3. The emergence of organs and animals

The emergence of magnetic bodies with keff in the range (177, 181, 183, 187, 189, 195, 201, 205) al-
lowing both dark electron and weak bosons could accompany the emergence of multicellular animals.
Magnetic body at this level could give rise to super-genome making possible genetic coding of organs
not yet possessed by plant cells separated by walls from each other. The super structures formed from
centrosomes and corresponding microtubuli make possible complex patterns of motion requiring quantum
coherence in the scale of organs as well as memories about them at the level of organs.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 200

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

4. The emergence of nervous system

keff in the range (187, 189, 195, 201, 205) allowing dark electrons and weak bosons gives size scales
(.25, .5, 4, 32, 128) cm, which could correspond to the scales of basic units of central nervous system.
What would be of special interest would be the possibility of charged entanglement based on classical
W fields in macroscopic length scales. The emergence of the new level means also the integration of
axonal microtobuli to ”text lines” at the magnetic flux sheets making possible logistic control at the
multineuronal level. The conformational patterns of the microtubular surface would code nerve pulse
patterns to bit patterns representing declarative long term memories. An interesting question is whether
the reverse coding occurs during memory recall.

2.2.4 The evolution of magnetic body

For mammals with body size below 1.25 m the levels keff > 205 cannot correspond to biological body
and the identification in terms of magnetic body is suggestive. The identification of EEG in terms of
Josephson frequencies suggests the assignment of EEG with these levels.

1. The emergence of EEG

EEG in the standard sense of the word is possessed only by vertebrates and one should understand
why this is the case. The value of Josephson frequency equal to 5 Hz requires only kd = 47 so that
something else must be involved. A possible explanation in the framework of the proposed model comes
from the following observations.

1. Besides the maximal p-adic scale k = 205 for which electron and weak bosons appears as dark
variants the model allows also levels at which only gauge bosons appear as dark particles. From
Table 9 one finds that levels k ∈ {207, 211, 213, 217, 219, 221, 223, 225, 229, 235} are allowed. Could
it be that these levels and possibly some highest levels containing both electrons and gauge bosons
as dark particles are a prerequisite for EEG as we define it. Its variants at higher frequency scales
would be present also for invertebrates. The lowest Josephson frequency coded by the largest value
of ~ in the cell membrane system determins the Josephson frequency.

2. The membrane potentials -55 mV (criticality against firing) correspond to ionic Josephson energies
somewhat above 2 eV energy ((2.20,2.74,3.07,2.31) eV, see Table 1). For 2 eV the wavelength
620 nm is near to L(163) = 640 nm. Therefore the Josephson energies of ions can correspond
to the p-adic length scale k = 163 if one assumes that a given p-adic mass scale corresponds to
masses half octave above the p-adic mass scale so that the opposite would hold true at space-time
level by Uncertainty Principle. Josephson frequencies fJ ∈ {5, 10, 20, 40, 80, 160} Hz correspond to
kd ∈ {47, 46, 45, 44, 43, 42} giving keff ∈ {210, 209, 208, 207, 206, 205}.

(a) Cerebellar resonance frequency 160 Hz would correspond to k = 205 -the highest level for for
which model allows dark electrons (also 200 Hz resonance frequency can be understood since
several ions are involved and membrane potential can vary).

(b) The 80 Hz resonance frequency of retina would correspond to keff = 206 -for this level dark
electrons would not be present anymore.

(c) 40 Hz thalamocortical frequency would correspond to keff = 207.

(d) For EKG frequencies are EEG frequencies below 20 Hz 12.5 and heart beat corresponds to
.6-1.2 second cycle (the average .8 s corresponds to keff = 212).

3. Even values of keff are not predicted by the model based on Mersenne primes allowing only odd
values of keff so that the model does not seem to be the the whole truth. The conclusion which
however suggests itself strongly is that EEG and its variants identified as something in the range 1-
100 Hz, are associated with the levels in at which only dark weak bosons are possible in the proposed

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 201

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

model. Note that the size scales involved with EEG would be above the size scale of human body so
that we would have some kind of continuation of the biological body to be distinguished from the
magnetic body. The time scales assignable to the dark CDs would be huge: for instance, k = 205
would correspond to T = 242 × .1s making about 1395 years for electron.

2. Does magnetic body correspond to the space-time sheets carrying dark weak bosons?

The layers of the magnetic body relevant for EEG have have size of order Earth size. Natural time
scale for the moment of sensory consciousness is measured as a fraction of second and the basic building
blocks of our sensory experience corresponds to a fundamental period of .1 seconds. This scale appears
already at ~0 level for electron CD. The natural question concerns the relationship of the magnetic body
to the k > 205 space-time sheets carrying only gauge bosons in the model and having size scale larger
than that of biological body. Do they correspond to an extension of biological body or should they be
regarded as parts of the magnetic body? The following observations suggest that they could correspond
to layers of the magnetic body responsible for the fractal variant of EEG.

1. The primary p-adic time scales (Compton times) T (239) and T (241) correspond to frequencies,
which are 2±1/2 kHz. The geometric average k = 240 corresponds to kHz frequency. Is the appear-
ance of kHz scale a mere accident or do the frequencies assignable to the quark CDs correspond to
Compton times ∝

√
2keff/2?

2. One can apply scalings by 2kd to the triplet (239, 240, 241) to get a triplet (239+kd, 240+kd, 241+kd).
The results are summarized in Table 10. Clearly the frequencies in question cover also the EEG
range. Note that these frequencies scale as

√
1/r whereas Josephson frequencies scale as 1/r.

kd f1/Hz f2/Hz f3/Hz
0 707 1000 1412
4 177 250 354
6 89 1250 177
10 22.1 31.3 44.2
12 11.1 15.6 22.1
14 5.5 7.8 11.1
16 2.8 3.9 5.5
18 1.4 2.0 2.8
20 0.7 1.0 1.4
24 0.2 0.2 0.3

Table 10. The Compton frequencies obtained by scaling 2kd/2 from the basic triplet keff = (239, 240, 241).
The values of kd correspond to those predicted by the model based on Mersenne primes.

Also ZEG and WEG would appear but in much shorter scales dictated by keff and might accompany
EEG. Somehow it seems that the effective masslessness of weak bosons below given scale is highly relevant
for life. One can of course ask whether some larger Gaussian Mersenne could change the situation. There
is a large gap in the distribution of Gaussian Mersennes after k = 167 and the next ones correspond to
MG,k, with k in (239, 241, 283, 353, 367, 379, 457, 997) [1] . The twin pair k = (239, 241) corresponds to a
length scales (1.6, 3.2)× 102 km and the minimum value for kd are (72,74) (167→ (239, 241) transition).

3. Long term memory and ultralow Josephson frequencies

What determines the time scale associated with long term memory is a crucial question if one really
wants to understand the basic aspects of consciousness.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 202

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

1. Does the time scale correspond to the size scale of CD assignable to electron scaled by r = ~/~0?
In this case relatively small values of r would be enough and r = 247 would give time scale of 1013

s for for electron’s CD, which is about 3× 105 years. This does not make sense.

2. Does Josephson frequency define the relevant time scale? In this case the long term memory would
require the analog of EEG in the time scale of memory span. keff = 205 would give 6 ms time scale
for memory from the assigment of keff = 163 to the Josephson photons at V=-50 mV implying
kd = 42. Minute scale would require keff = 217. The highest level keff = 235 allowed by the model
involving only Gaussian Mersennes with k ≤ 167 would correspond to a time scale of 77.67 days
(day is 24 hours). For Gaussian Mersennes defined by keff = (239, 241) the time scales become
about (41.4,82.8) months (3.4 and 6.8 years). These scales should also define important biorhythms.
The claimed 7 years rhythm of human life could relate to the latter rhythm: note that the precise
value of the period depends on the membrane potential and thus varies. The presence of the scaled
up variants of the by kd ≤ 78 allows longer time spans of long term memory and the scaling defined
by kd = 167− 163 = 4 scales up the span of long term memories to (54.4,108.8) years.

4. Cultural evolution

Higher levels in the hierarchy would correspond mostly to the evolution of hyper-genome coding for
culture and social structures. Introns are good candidate for the nucleodes involved. The development
of speech faculty is certainly a necessary prerequisite for this breakthrough. Already EEG seems to
correspond to dark layers of biological body larger than biological body so that one can cask whether
the weak bosons and dark electrons in the length scales k = 239, 241, 283, 353, 367, ... could be relevant
for the collective aspect of consciousness and cultural evolution. Maybe the size scales (175, 330) km and
their scaled up variants by kd ≤ 78 might have something to do with the spatial scale of some typical
social structure (not city: the area of New York is only 790 km2).

2.3 Could insect colonies have ”EEG”?

Only vertebrates can have EEG in 1-100 Hz range. According to the proposed model this means the
presence of the k > 205 levels which can be regardd as a continuation of the biological body carrying
dark weak bosons and having size scales larger than 1.25 m. That only vertebrates have EEG conforms
with the empirical findings about the effects of ELF em fields on vertebrate brain.

This does not however imply that one could not assign EEG to the collective levels of consciousness.
For instance, in the case of social insects forming colonies some kind of collective EEG might exist and
explain the ability of the colony to behave like single organism. Indeed, ELF magnetic field and magnetic
fields affect the behavior of honeybees just as ELF em fields affect the behavior of vertebrates [12] : the
model for this findings led to a model for the fractal hierarchy of EEGs.

One could argue that insect brain is so simple (in the case of honeybee the number of neurons 1/1000
of number of neurons in human retina) that it is not possible to assign ”personal” EEG to honeybee. The
fact that a honeybee isolated from colony dies just as does the cell separated from organism, suggests that
the relationship of insect to colony is like that of a cell to organism. Hence one could test whether colonies
of social insects or their sub-colonies might possess an analog of ordinary EEG. What this would mean
that ant colonies have sufficiently complex hyper-genome making possible collective variants of memory,
sensory input, and intelligence, as well as the ability to realize collective motor actions. Even bacterium
colonies have intricate social structures [13] so that one must remain open minded.

An objection against this line of thinking is that even in the case of collective EEG the proposed model
assigns the Josephson frequencies with neurons. One might imagine Josephson frequencies at EEG range
even in case of insects- say the queen of the nest. Since dark photons are in question the fields are very
weak. I do not know whether any-one has got the crazy idea about checking whether beehive has EEG
-certainly not any routine measurement! One an also imagine a fractal counterpart of EEG at the level
of some individuals- say queen of the nest- at very low frequencies making possible long term memory.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 203

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

2.3.1 Do honeybees have long term memory?

The realization that insect colonies rather than insects might correspond to higher keff > 205 levels of
the dark matter hierarchy came via an indirect route. The article ”Why honeybees never forget a face?”
of New Scientist [8] described evidence supporting the view that that honeybees might possess long term
memory in the time scale of days.

Adrian Dyer of the University of Cambridge and colleagues trained honeybees to associate a sucrose
drink with a photograph of a particular face. The insects were then tested on their memory and recognition
skills by being presented with the picture of this face and the pictures of three other faces not associated
with any reward. Of the seven bees tested, two lost interest in the trial and flew away. But the five
remaining bees correctly identified the target face in more than 80 per cent of trials, even though the
reward had been removed. Moreover, some bees remembered the face two days later, indicating that they
had formed a long-term memory of it.

1. The conservative explanation is that the achievement is due to keeping the face-honey association
intact in the absence of the stimulus which created it in a time scale of days. For this option the
ability of honeybee to express the distance and orientation to the food source could be hardwired
involving no conscious memory about the flight. Also the interpretation of the honeybee dance
telling the distance and orientation of food source to advices where to fly would be completely
”instinctive”- whatever this means.

2. A more radical option is that honeybee hive rather than honeybee has long term memories in the
sense as long term memories are interpreted in TGD framework: that is as communications with
the geometric past. In this case the span of long term memories is determined by the level of dark
matter hierarchy as time scale defined by Josephson frequency assignable to level of dark matter
hierarchy in question and a span of few days for long term memories forces the conclusion kd ≥ 63:
the upper bound is kd = 78 (see Table 5), when one allows only k ≤ 167 Mersennes and this
corresponds to 87.6 years.

One can ask whether the ability of honey bee queen to found a new honeybee colony could involve long
term memory in the time scale of year. If this were the case, the queen would not face her formidable
challenge alone: the former colony in the geometric past still exists as a conscious entity and could
communicate advices to the queen. The magnetic body of the former colony could exist also in the
geometric now, being physically associated with the queen. This magnetic body could serve as the
conscious entity communicating to the queen the advices and commands making possible to construct
the beehive. A more conservative explanation is that these activities are genetically hardwired and
instinctive (leaving open what ’instinctive’ really means if it actually means anything).

The distinguished social position and anatomy of queen are consistent with the hypothesis that queen
has more massive connections than other bees with the magnetic body of beehive. For instance, it is
known that the new hive is oriented in exactly the similar manner as the old. Either long term memory
or passive magnetic coding of the orientation of the hive with respect to Earth’s magnetic field made
possible by the magnetite in the abdomen of queen could explain this. The neurons of queen could
correspond to a very large value of ~ giving rise to the required low Josephson frequencies.

The colony would have sensory resolution in a time scale of a fraction of second and short term
memory in minute time scale. The counterpart of EEG at the level of hive is highly suggestive and
conforms with the finding that ELF magnetic fields with strengths in the range .1-1 mT (2BE − 20BE

affect honeybee dance [12] as does also the absence of Earth’s magnetic field. Interestingly, 1-2 mT DC
field causes epileptiform activity in the case of humans [10] (the change of the DC field used seems to be
more important that the period it is applied). Could the beehive suffer a kind of epileptic seizure!

The intentional actions of the honeybee colony would be realized via magnetic flux sheets traversing
the super-genes of the insects participating to the action in question. Workers, soldiers, etc.. would act

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 204

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

to some extent as organs of the colony being connected by hyper-genes of hyper-genome to larger units.
Queen could act as the analog of a complex Grand Mother neuron in brain or a leader in human society.

This view can be criticized. Honeybee dance [4] is performed by forager bees and the dance represents
among other things the angle between the lines connecting hive to the food source and sun as the angle
between movement of bee and vertical direction (also other options are possible). The intricate pattern
of the dance in turn codes for the distance to the food source. If beehive is a conscious entity using
bees as its cells, why is honeybee dance needed at all? TGD based vision about the evolution of modern
human society from a bicameral society in which individuals received advice and commands from ”God”
[18, 19] , suggests an answer to this criticism. The society able to survive must be maximally flexible
and allow maximal individual intelligence and maximal freedom of individual actions consistent with the
overall goals. This requires delegation of simple tasks to lower levels meaning also that communications
between individuals become necessary (the development of language and other communications parallels
the transition from bicamerality to modern society in the case of humans). The communication itself
might however involve also the beehive. Foreagers could be like the prophets of the bicameral society
communicating in semitrance the advices of God to the colony.

It should be noticed in passing that honeybees have already earlier made a visit to TGD inspired
theory of consciousness [16] . As discovered by topologist Barbara Shipman [2] , honeybee dance has a
mathematical description in terms of a construct assignable to color group SU(3) of gauge interactions
between quarks and gluons. This led her to propose that color interactions might have some deep role in
living matter. This is in a sharp contrast to the fact that color interactions as establishment knows them
are completely invisible above the length scale of 10−15 meters. The TGD based prediction that there
exists an entire hierarchy of scaled up copies of QCD, in particular QCDs with confinement length scale
of order cell size, changes completely the situation.

2.3.2 Honeybees as magneto-receptors of the beehive or magnetic cells as magneto-receptors
of bee?

Earth’s magnetic field has a crucial status in the model of living systems even at the lowest levels of dark
matter hierarchy so that Earth’s magnetic field is expected to play a role in the functioning of all cells,
also bees and ants. This is indeed the case.

It is known that that bees have two navigation systems. The first system is based on the direction of
sun and polarization of solar light but does not work on cloudy days. The second navigation system uses
Earth’s magnetic field and is used in cloudy days. Bees have in their abdomen magnetite (Fe3O4) particles
of size about 30 nm and iron storage protein ferritin which correspond 10 to nm sized super-paramagnetic
particles [11] . Magnetite particles and ferritin in principle make possible magneto-reception instead of a
mere passive compass behavior.

The minimum option is that honeybee itself does not receive any neural information about the mag-
netic field but acts as a passive magneto-receptor of the bee colony or sub-colony (such as workers flying to
the food source) and that the information contained by the receptor grid allows the sub-colony to deduce
its position in the varying magnetic field. ”BEEG” would mediate this information to the magnetic body
of the (sub-)colony and the general mechanism based on Josephson currents does not require nerve pulse
patterns to achieve this.

Since foreagers seem to act as individuals able to navigate in the magnetic field of Earth, it would
seem that some cells of the honeybee could act as magneto-receptors so that the reaction of the magnetic
particles would be coded to a neural signal. It has been proposed that the changes in the shape of the
configurations formed by magnetite particles in a varying magnetic field induce changes in the shape
of neuron and in this manner can induce neural signal. This mechanism could also induce the voltage
perturbations coding the information to the Josephson current giving rise to the sensory part of EEG
as a state of coherent ELF photons. Perhaps the genes expressing these neurons are activated only in
foragers and ferritin makes possible the magneto-reception in this sense.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 205

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

2.3.3 Social bacteria and magneto-tactic bacteria

Magneto-tactic behavior of bacteria [9] was discovered for 30 years ago by microbiologist Richard P.
Blakemore and means that certain motile, aquatic bacteria orient and migrate along magnetic field lines.
This ability could be purely passive compass mechanism made possible by the magnetite detected in the
bacteria.

During last years we have learned that bacteria are not simple creatures having only single goal: to
multiply and fill the Earth. Bacteria are able to communicate and act co-operatively [13] . This raises the
question whether hyper-genes could appear already at this level and whether bacteria acting as a colony
they individual bacteria could act as magneto-receptors of colony allowing it to detect even variations of
the magnetic field much like individual cells in the brain of vertebrates or perhaps even in the abdomen
of honeybee are believed to serve as magneto-receptors.

2.3.4 Great leaps in evolution as emergence of higher levels of dark matter hierarchy at
level of individuals

The vision about great leaps in evolution led to the view that the emergence of EEG corresponds to
the emergence of keff > 205 levels of dark matter hierarchy. On the other hand, the time scale of gene
translation corresponds to that associated with the ordinary EEG, which forces to ask whether these
levels are present already in the lowest life forms. Perhaps a more plausible option is that the .1 second
time scale of electronic CD defines the time scale of gene translation and corresponds therefore to the
standard value of ~0. The findings about honeybees however support the view that keff > 205 levels are
present but are associated with the honeybee colony rather than individuals. This however requires that
the these levels have neuronal realization in terms of Josephson frequencies.

Therefore a more precise formulation of the hypothesis about great leaps in evolution would be that
great leaps in evolution correspond to the emergence of a new dark matter level at the level of individual
organism. If this view is correct then keff > 205 levels would correspond to a collective level of con-
sciousness in the case of invertebrates down to bacteria, which are indeed found to form societies [13]
. This conforms also with the fact that the genome of invertebrates is too small to allow realization of
keff > 205 flux sheets as genes or even super-genes. The somewhat unexpected conclusion would be that
all activities of invertebrates involving gene expression would be controlled by collective levels of con-
sciousness: invertebrates would not be individuals in this sense. Viruses do not possess DNA translation
machinery which is consistent with the absence of also collective keff > 205 levels. One can of course ask
whether the queen of honeybee could be an exception to this rule.

If one believes that the time scale of gene expression corresponds to Josephson frequency then the ex-
planation for the universality of the genetic code could be that keff > 205 levels controls gene expression:
for keff > 205 wave length scale indeed corresponds to the length scale assignable to the magnetosphere
of Earth. One could of course counter argue that it is more reasonable form magnetic Mother Gaia to
delegate this kind of duties to the lower levels and that the CDs of electron and quarks are ideal for this
purpose.

2.4 Dark matter hierarchy, hierarchical structure of nervous system, and
hierarchy of emotions

One can ask how the structural and functional hierarchy of CNS and the hierarchy of emotions relates to
the dark matter hierarchy. The basic picture wherefrom one can start is following.

1. The emergence of nervous system corresponds to the emergence of keff < 205 levels of dark matter
hierarchy above keff < 167. For instance, worms and insects would correspond to this level.

2. Vertebrates have EEG and thus the most primitive vertebrates (reptiles) should correspond to
keff ≥ 205.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 206

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

3. The emergence of new structures need not mean the emergence of new levels of dark matter hi-
erarchy. Rather, the most reasonable criterion for the presence of these levels is the emergence of
behaviors involving long term goals and the magnetic bodies of the parts of brain assignable to the
control of this kind of behaviors would correspond to higher values of keff . Also the maximum
span of memories at given level should be characterized by the value of keff associated with the
brain structures involved (hippocampus, mammillary bodies). This picture conforms with the fact
that already insects possess neurons, ganglia, and head containing the predecessor of cerebrum but
correspond to keff ≤ 205 most naturally.

For goal related emotions the maximal time scale assignable to the achievement of the goal might
allow to identify the time scale characterizing corresponding level of dark matter hierarchy. The lowest
level emotions would be ”primitive” emotions not related to any goal and one can as whether they could
be assigned to organs consisting of ordinary cells and correspond to keff ≤ 205.

1. The time scale of planned behavior and of long term memories makes possible to estimate upper
bounds for the values of keff assuming Josephson frequency hypothesis. keff ≤ 205 would give the
upper bound of 6 ms which corresponds to cerebellar resonance frequency 160 Hz. This time scale
looks too short even for the simplest vertebrates and one must be very cautious here.

2. An alternative interpretation is as the shortest possible span for short term memory whose time
scale is known to vary.

3. Cerebellar rhythm could be analogous to hippocampal theta rhythm and involved with the crebella
memory storage and therefore would not tell anything about the span of the memory but would
characterize the time resolution of memories and planned actions. The role of cerebellum in the
fine coordination of motor actions indeed requires high time resolution.

Brain has anatomic division into midbrain, hindbrain, and forebrain [J5] . Midbrain and hindbrain
(sometimes both are included in brain stem) is possessed by even the most primitive vertebrates and its
emergence could therefore correspond to the emergence of keff ≥ 205 levels and EEG. The emergence
of these levels relates naturally to the emergence of long term planning of motor actions in motor areas.
The emergence of limbic brain, which defines the most primitive forebrain, could mean the emergence of
the Gaussian Mersenne defined by keff = 239 containing dark electron condensates level and goal related
emotions. This conforms with the fact that for mammals forebrain and cerebral hemispheres dominate
whereas for other vertebrates hindbrain and cerebellum are in the dominant role.

2.4.1 Reptilian brain as keff ≤ 205 system?

Reptilian brain contains only the structures corresponding to brain stem (midbrain and hind brain, in
particular cerebellum) and as far structures are considered would correspond to keff ≤ 205 levels of the
hierarchy. Cerebellum is not believed to contribute directly to our consciousness. The absence of higher
looks however an unrealistic assumption since reptiles certainly have long term memories.

Simplest emotions correspond to emotions involving no goal. Moods like excitement, feeling good/bad/tired/strong,
etc.. could represent examples of such emotions and could be experienced already by reptilians. Of course,
the scaled up variants of these emotions could appear at higher levels of hierarchy and would relate to
the states of magnetic bodies (degree of the quantum coherence of Bose-Einstein condensates!).

2.4.2 Limbic system

Limbic system is not possessed by reptiles [J3] . It is responsible for emotions, control of emotions, and also
emotional intelligence. Limbic system corresponds to the brain of the most mammals. The limbic brain
includes the amygdala, anterior thalamic nucleus, cingulate gyrus, fornix, hippocampus, hypothalamus,
mammillary bodies, medial forebrain bundle, prefrontal lobes, septal nuclei, and other areas and pathways
of the brain.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 207

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

1. The sub-cortical part of the limbic system involves amygdalar and septal divisions. According to
[J3] amygdalar division promotes feeding, food-search, angry, and defensive behaviors related to
obtaining food. Septal division promotes sexual pleasure, genital swelling, grooming, courtship,
and maternal behavior. These divisions are emotional mirror images of each other hand could
correspond to 205 < keff < 239.

2. The cortical part of the limbic system contains cingulate gyrus which is the newest part of the
limbic system and belongs to thalamo-cingulate division which promotes play, vocalization (e.g.,
the separation cry), and maternal behavior. The time scale of memories would be shorter than 3.4
at this level.

3. Frontal lobes [J2] are often regarded as the organ of volition. The frontal lobes are involved in motor
function, problem solving, spontaneity, memory, language, initiation, judgement, impulse control,
and social and sexual behavior. Prefrontal lobes representing the extreme front part of frontal lobes
belong also to the limbic system and are responsible for motivation and ability to pose long term
goals. This ability distinguishes humans from other primates. For these reasons frontal lobes, in
particular prefrontal lobes, could involve the highest levels of dark matter hierarchy in the case of
humans. The Gaussian Mersenne levels keff = (239, 241) could be assigned as lowest level in this
hierarchy. The time scale of long term memories would be longer than 3.4 years at these levels.

Cortico-striatal emotions like sadness, hate, fear anger, surprise, embarrassment, happiness, content-
ment, and joy involve goal structures and failure or success to achieve the goal in essential manner and
would involve prefrontal lobes.

These levels would naturally relate to collective levels of consciousness coded by hyper genes. Hence
these emotions could also relate to goals not directly related to the fate of biological body. Mirror neurons
are a crucial prerequisite of a social behavior (autistic children seem to lack them), which suggests that
hyper genes are involved at least with them.

Social emotions (feeling embarrassed, ashamed, guilty, loved, accepted, ...) could be induced by the
collective levels of dark matter hierarchy as punishments or rewards for social behavior very much like
neurotransmitters are believed to provide rewards and punishments at neuronal level.

2.4.3 Neocortex and two kinds of intelligences

Neocortex is often assumed to be superior (”neomammalian”) part of the brain and makes the majority
of brain hemispheres. The species which are considered to be highly intelligent, such as humans and
dolphins, tend to have large amounts of neocortex. The amount of neocortex is roughly proportional to
the brain size for primates.

Neocortex cannot correspond to keff ≥ 239 (defining Gaussian Mersenne) as a whole. The decompo-
sition of sensory areas to layers is consistent with the presence of lower levels since it is time resolution
which matters in the case of sensory representations. Same conclusion applies to sensory association
areas. The fine tuning of the motor control performed by cerebellum is consistent with keff ≤ 205.
Intelligence understood in the conventional sense of the word is accurate, works fast, and is computer
like. The part of neocortex responsible for ordinary intelligence would be a rapid and accurate processor
of sensory and cognitive representations. Hence keff < 239 would naturally characterize sensory areas,
secondary and primary motor areas, to hippocampal representation of declarative memories, and all asso-
ciation areas except dorsolateral prefrontal sensory-motor association cortex where short term memories
are represented.

Emotional intelligence works slowly and is responsible for visions and holistic views and would thus
correspond to higher levels of dark matter hierarchy. Limbic system is involved with emotions, motivation
and long term planning and would thus be responsible for emotional intelligence. Indeed, the damage to
frontal lobes [J2] need not affect ordinary intelligence but affects emotional intelligence.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.



DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 208

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

2.4.4 The levels of dark matter hierarchy associated with short and long term memory

The first thing to ask is of course whether the notions of short and long term memory make sense in
TGD framework. Indeed, it would seem that it is more natural to speak about hierarchy of memories
with characteristic time scales coming as selected powers of two.

1. According to [J4] , the span of other than visual short term memories is 30-45 seconds. This requires
keff ∈ {217, 218}.

2. Visual short term memories [J1] representing selected features of visual field are reported to have
time span of few seconds. This suggests keff ∈ {213, 214, 215}.

3. Iconic visual memories representing entire visual field have much shorter time span of order 1 s:
keff ∈ {211, 212} would be appropriate for them,

4. Long term memories would correspond to keff > 218.

Hippocampus and mammillary bodies involved with long term memory recall are part of the limbic sys-
tem. The hippocampal theta rhythm 4-12 Hz , which could corresponds roughly to keff ∈ {163, 162, 161}
has nothing to do with the span of long term memories but would define the time resolution of the
memories: the moment of sensory experience indeed corresponds to 10 Hz frequency. The frequencies
responsible for memory storage need not have anything to do with the ultralow frequencies characterizing
the temporal distance of the past event associated with the memory recall and hippocampus could just
build a kind of bit sequence which during memory recall is communicated from the geometric past to
some part of the future brain or magnetic body.

Anterograde amnesia means an inability to restore long term memories. The damage of hippocampus
or of mammillary bodies can induce anterograde amnesia. In the usual conceptual framework the expla-
nation would be the inability to store new long memories. In TGD framework this would be inability to
construct those cognitive representations which are communicated to the geometric future in long term
memory recall. Retrograde amnesia seems to involve almost always anterograde amnesia and means loss
of memories for some time span before the injury. A possible explanation is that injury can propagate
also to the geometric past of the brain quantum jump by quantum jump.

During ageing memories tend to be lost but the memories of childhood are the most stable ones. A
possible interpretation is that faster rhythms of the generalized EEG tend to disappear: kind of scaled
up variant for the process of falling into sleep accompanied by silencing of higher EEG bands could be in
question.

2.4.5 What about transpersonal levels of consciousness?

keff > 245 levels of dark matter hierarchy correspond to time span longer than 109 years and cannot relate
to the biological body alone. They could relate to higher collective levels of the dark matter hierarchy
and evolution of social structures. The memories extending over personal life span claimed by meditators
could have interpretation in terms of keff > 245 transpersonal levels of consciousness. Also the ”god
module” located to temporal lobes could correspond to this kind of levels of dark matter hierarchy. If
it corresponds to Gaussian Mersenne with keff = 283 the time scale of memories becomes huge: about
1014 years so that the notion of ”god module” is indeed appropriate.

References

Mathematics

[1] Gaussian Mersenne. http://primes.utm.edu/glossary/xpage/GaussianMersenne.html.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.

http://primes.utm.edu/glossary/xpage/GaussianMersenne.html


DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 209

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

[2] B. Shipman. The geometry of momentum mappings on generalized flag manifolds, connections with
a dynamical system, quantum mechanics and the dance of honeybee. http://math.cornell.edu/

~oliver/Shipman.gif, 1998.

Cosmology and astrophysics

[3] Age of the universe. http://en.wikipedia.org/wiki/Age_of_the_universe.

Biology

[4] Magnetic Bees. http://www.abc.net.au/science/k2/trek/4wd/Over57.htm.

[5] Nanobacterium. http://en.wikipedia.org/wiki/Nanobacterium.

[6] Nanobe. http://en.wikipedia.org/wiki/Nanobe.

[7] Virus. http://en.wikipedia.org/wiki/Virus.

[8] Why honeybees never forget a face? New Scientist, page 22, December 2005.

[9] S. Clement. Magnetic Microbes. http://commtechlab.msu.edu/sites/dlc-me/curious/

caOc96SC.html, 1996.

[10] J. P. Dobson et al. Evocation of epileptiform activity by weak DC magnetic fields. American
Geophysical Union Meeting, Baltimore, Maryland. EOS, (16), 1993.

[11] M. Desoil et al. Definitive identification of magnetite nanoparticles in the abdomen of the honeybee
Apis mellifera. Journal of Physics: Conference Series, 17, 2005.

[12] J. L. Kirschvink. Constraints on biological effects of weak extremely-low-frequency electromagnetic
fields’. Phys. Rev. A. http: // prola. aps. org/ abstract/ PRA/ v46/ i4/ p2178_ 1 , 43(1991), 1992.

[13] S. Silberman. The Bacteria Whisperer. Wired Magazine. http: // www. wired. com/ wired/

archive/ 11. 04/ quorum. html , April 2003.

Neuroscience and Consciousness

[J1] Visual short term memory. http://en.wikipedia.org/wiki/Visual_short-term_memory.

[J2] Frontal lobes. http://en.wikipedia.org/wiki/Frontal_lobes.

[J3] Limbic system. http://en.wikipedia.org/wiki/Limbic_system.

[J4] Short term memory. http://en.wikipedia.org/wiki/Short_term_memory.

[J5] J. S. Nicholis S. W. Kuffler and A. R. Martin. From Neuron to Brain. Sinauer, Massachusetts, 1984.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.

http://math.cornell.edu/~oliver/Shipman.gif
http://math.cornell.edu/~oliver/Shipman.gif
http://en.wikipedia.org/wiki/Age_of_the_universe
http://www.abc.net.au/science/k2/trek/4wd/Over57.htm
http://en.wikipedia.org/wiki/Nanobacterium
http://en.wikipedia.org/wiki/Nanobe
http://en.wikipedia.org/wiki/Virus
http://commtechlab.msu.edu/sites/dlc-me/curious/caOc96SC.html
http://commtechlab.msu.edu/sites/dlc-me/curious/caOc96SC.html
http://prola.aps.org/abstract/PRA/v46/i4/p2178_1
http://www.wired.com/wired/archive/11.04/quorum.html
http://www.wired.com/wired/archive/11.04/quorum.html
http://en.wikipedia.org/wiki/Visual_short-term_memory
http://en.wikipedia.org/wiki/Frontal_lobes
http://en.wikipedia.org/wiki/Limbic_system
http://en.wikipedia.org/wiki/Short_term_memory


DNA Decipher Journal | June 2013 | Volume 3 | Issue 2 | pp. 188-210 210

Pitkänen, M., Evolution in Many-Sheeted Space-Time: Big Vision

Books and articles related to TGD

[14] M. Pitkänen. Cosmic Strings. In Physics in Many-Sheeted Space-Time. Onlinebook. http://

tgdtheory.com/public_html/tgdclass/tgdclass.html#cstrings, 2006.

[15] M. Pitkänen. DNA as Topological Quantum Computer. In Genes and Memes. Onlinebook. http:
//tgdtheory.com/public_html/genememe/genememe.html#dnatqc, 2006.

[16] M. Pitkänen. General Theory of Qualia. In Bio-Systems as Conscious Holograms. Onlinebook.
http://tgdtheory.com/public_html/hologram/hologram.html#qualia, 2006.

[17] M. Pitkänen. Homeopathy in Many-Sheeted Space-Time. In Bio-Systems as Conscious Holograms.
Onlinebook. http://tgdtheory.com/public_html/hologram/hologram.html#homeoc, 2006.

[18] M. Pitkänen. Semi-trance, Mental Illness, and Altered States of Consciousness. In Magneto-
spheric Consciousness. Onlinebook. http://tgdtheory.com/public_html/magnconsc/magnconsc.
html#semitrancec, 2006.

[19] M. Pitkänen. Semitrance, Language, and Development of Civilization. In Magnetospheric
Consciousness. Onlinebook. http://tgdtheory.com/public_html/magnconsc/magnconsc.html#

langsoc, 2006.

[20] M. Pitkänen. Three new physics realizations of the genetic code and the role of dark matter in
bio-systems. In Genes and Memes. Onlinebook. http://tgdtheory.com/public_html/genememe/
genememe.html#dnatqccodes, 2006.

[21] M. Pitkänen. Are dark photons behind biophotons. In TGD based view about living matter and
remote mental interactions, 2013.

[22] M. Pitkänen. Comparison of TGD inspired theory of consciousness with some other theories of
consciousness. In TGD based view about living matter and remote mental interactions. Onlinebook.
http://tgdtheory.com/public_html/pdfpool/consccomparison.pdf, 2013.

[23] M. Pitkänen. Sheldrakes Morphic Fields and TGD View about Quantum Biology. http://

tgdtheory.com/articles/sheldrake.pdf, 2011.

ISSN: 2159-046X DNA Decipher Journal June www.dnadecipher.com

Published by QuantumDream, Inc.

http://tgdtheory.com/public_html/tgdclass/tgdclass.html#cstrings
http://tgdtheory.com/public_html/tgdclass/tgdclass.html#cstrings
http://tgdtheory.com/public_html/genememe/genememe.html#dnatqc
http://tgdtheory.com/public_html/genememe/genememe.html#dnatqc
http://tgdtheory.com/public_html/hologram/hologram.html#qualia
http://tgdtheory.com/public_html/hologram/hologram.html#homeoc
http://tgdtheory.com/public_html/magnconsc/magnconsc.html#semitrancec
http://tgdtheory.com/public_html/magnconsc/magnconsc.html#semitrancec
http://tgdtheory.com/public_html/magnconsc/magnconsc.html#langsoc
http://tgdtheory.com/public_html/magnconsc/magnconsc.html#langsoc
http://tgdtheory.com/public_html/genememe/genememe.html#dnatqccodes
http://tgdtheory.com/public_html/genememe/genememe.html#dnatqccodes
http://tgdtheory.com/public_html/pdfpool/consccomparison.pdf
http://tgdtheory.com/articles/sheldrake.pdf
http://tgdtheory.com/articles/sheldrake.pdf

	Introduction
	Great vision about biological evolution and evolution of brain
	Basic assumptions
	How to identify the preferred values of Planck constant?
	Tables about predicted time and length scales
	Electron and u quark are different

	Dark matter hierarchy and big leaps in evolution
	A sketch about basic steps in evolution
	Division of the evolution to that of biological body and magnetic body
	Biological evolution
	The evolution of magnetic body

	Could insect colonies have "EEG"?
	Do honeybees have long term memory?
	Honeybees as magneto-receptors of the beehive or magnetic cells as magneto-receptors of bee?
	Social bacteria and magneto-tactic bacteria
	Great leaps in evolution as emergence of higher levels of dark matter hierarchy at level of individuals

	Dark matter hierarchy, hierarchical structure of nervous system, and hierarchy of emotions
	Reptilian brain as keff205 system?
	Limbic system
	Neocortex and two kinds of intelligences
	The levels of dark matter hierarchy associated with short and long term memory
	What about transpersonal levels of consciousness?



