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Pitkänen, M., New Findings Related to the Chiral Selection

Exploration

New Findings Related to the Chiral Selection
Matti Pitkänen 1

Abstract

The article ”Enantioselective Adsorption on Magnetic Surfaces” of Mohammad Reza Safari et al
published in the journal Advanced Materials (2023) discusses very interesting findings related to the
chiral selection. There is a copper conductor with a strong electric field in the normal direction of
the conductor. Cu is not a magnetic substance. There are very thin Cobalt islands at the surface of
the conductor. Cobalt is a magnetic metal. There are two options: magnetization direction is North
or South and it corresponds to either up or down. North up and South down are the options and
these could correspond to different chiralities somehow. The molecules drift to the Cobalt islands
and, depending on their chirality, prefer to bind to either south-up or north-up Cobalt islands. Are
the magnetic fields of islands helical and possess a definite chirality? Does the magnetic chirality tend
to be the same or opposite to that of the enantiomer that binds to it? The effect is reported to occur
already before the Cobalt islands in the drifting of molecules to the Cobalt islands. Counterparts
of magnetic fields are not present outside the Cobalt islands. It is also found that electrons with
a given spin direction prefer to tunnel through the molecules in a direction which correlates with
the chirality. Chiral selection is a mystery in standard model physics since it represents huge parity
violation. TGD suggests a mechanism of parity violation in terms of the hierarchy of effective Planck
constants labelling phases behaving like dark matter. For a large enough value of heff , the dark weak
boson Compton length would be a biological scale and below this scale the parity violation would be
large. This motivates a concrete model for what occurs in the experimental situation. The model
provides support for the generalizations of Pollack effect and dark genetic code replacing dark protons
with dark electrons.

1 Introduction
I learned of very interesting empirical findings related to the chiral selection of biomolecules (see the
popular article). The article ”Enantioselective Adsorption on Magnetic Surfaces” of Mohammad Reza
Safari et al [2] is published in the journal Advanced Materials (2023).

1.1 The findings
Consider first the experimental arrangement and findings.

1. There is a copper conductor with a strong electric field in the normal direction of the conductor.
Cu is not a magnetic substance. There are very thin Cobalt islands at the surface of the conductor.
Cobalt is a magnetic metal. There are two options: magnetization direction is North or South and
it corresponds to either up or down. North up and South down are the options and these could
correspond to different chiralities somehow.

2. The molecules drift to the Cobalt islands and, depending on their chirality, prefer to bind to either
south-up or north-up Cobalt islands. Are the magnetic fields of islands helical and possess a definite
chirality? Does the magnetic chirality tend to be the same or opposite to that of the enantiomer
that binds to it?

1Correspondence: Matti Pitkänen http://tgdtheory.com/. Address: Valtatie 8 as 2, 03600, Karkkila, Finland. Email:
matpitka6@gmail.com.

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https://phys.org/news/2024-02-magnetic-effects-life-difference.html
http://tgdtheory.com/
mailto:matpitka6@gmail.com


DNA Decipher Journal | December 2024 | Volume 14 | Issue 1 | pp. 62-68 63
Pitkänen, M., New Findings Related to the Chiral Selection

3. The effect is reported to occur already before the Cobalt islands in the drifting of molecules to the
Cobalt islands. What does this mean? Counterparts of magnetic fields are not present.

4. It is also found that electrons with a given spin direction prefer to tunnel through the molecules in
a direction which correlates with the chirality.

Chiral selection is a mystery in standard model physics since the it represents huge parity violation.
TGD suggests a mechanism of parity violation in terms of the hierarchy of effective Planck constants
labelling phases behaving like dark matter. For a large enough value of heff , the dark weak boson
Compton length would be a biological scale and below this scale the parity violation would be large. This
motivates a concrete model for what occurs in the experimental situation. The model provides support
for the generalizations of Pollack effect and dark genetic code replacing dark protons with dark electrons.

2 TGD based model for the findings
In the sequel, the general ideas about chiral selection in the TGD Universe are discussed and at the end
a concrete model is proposed.

2.1 The general TGD view of the findings
These findings are provide new empirical hints about the nature of chiral selection in living matter. Weak
interactions are indeed weak and parity violation effects should be extremely small above weak scale so
that the standard model fails to explain chiral selection.

1. Chiral selection is one of the key empirical facts supporting the TGD prediction of a hierarchy of
phases of ordinary matter predicted by the number theoretical vision of TGD [20, 19, 29, 23, 24, 25].
These phases are labelled by effective Planck constant heff , which is essentially the dimension of
an algebraic extension of rationals.

2. The predicted huge values of heff assignable to classical gravitational and electric fields of astro-
physical objects [25] mean that weak interactions become as strong as em interactions below the
scale up Compton length of weak bosons, which, being proportional to heff , can be as large as cell
size. This amplifies parity violation effects visible for instance in hydrodynamics [6].

3. Large heff phases behave like dark matter: they do not however explain the galactic dark matter,
which in the TGD framework is dark energy assignable to cosmic strings (no halo and an automatic
prediction of the flat velocity spectrum). Instead, large heff phases solve the missing baryon
problem. The density of baryons has decreased in cosmic evolution (having biological evolution
as a particular aspect) and the explanation is that evolution as unavoidable increase of algebraic
complexity measured by heff has transformed them to heff ≥ h phases at the magnetic bodies
(thickened cosmic string world sheets, 4-D objects), in particular those involved with living matter.

4. The large value of heff has besides number theoretical interpretation [21, 22, 26, 27] also a geometric
interpretation. Space-time surface can be regarded as many-sheeted over both M4 and CP2. In
the first case the CP2 coordinates are many-valued functions of M4 coordinates. In the latter
case M4 coordinates are many-valued functions of CP2 coordinates so that QFT type description
fails. This case is highly interesting in the case of quantum biology. Since a connected space-time
surface defines the quantum coherence region, an ensemble of, say, monopole flux tubes can define
a quantum coherent region in the latter case: one simply has an analog of Bose-Einstein condensate
of monopole flux tubes.

The flux tube condensate as a covering of CP2 means a dramatic deviation from the QFT picture and
is a central notion in the applications of quantum TGD to biology. Therefore some examples are in order.

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DNA Decipher Journal | December 2024 | Volume 14 | Issue 1 | pp. 62-68 64
Pitkänen, M., New Findings Related to the Chiral Selection

1. Fermi liquid description of electrons relies on the notion of a quasiparticle as an electron plus
excitations of various kinds created by its propagation in the lattice. In some systems this description
fails and these systems would. have a natural description in terms of space-time surfaces which are
multiple coverings of CP2, say flux tube condensates.

2. In high Tc superconductors and bio-superconductors [10, 11] the space-time surface could correspond
to this kind of flux tube condensates and Cooper pairs would be fermion pairs with members at
separate flux tubes. The connectedness of the space-time surface having about heff/h = n flux
tubes would correlate the fermions.

3. Bogoliubov quasiparticles related to superconductors are regarded as superpositions of electron
excitation and hole. The problem is that they have an ill-defined fermion number. In TGD, they
would correspond to superpositions of a dark electron accompanied by a hole which it has left behind
and therefore having a well-defined fermion number. Bogoliubov quasiparticle is indeed what can
be seen using the existing experimental tools and physical understanding.

4. Strange metals would be an example of a system having no description using quasiparticles, as
the linear dependence of the resistance at low temperatures demonstrates. I have considered a
description of them in terms of Cooper pairs at short closed flux tubes [10, 15]: this would however
suggest a vanishing resistance in an ideal situation. Something seems to go wrong.
An alternative description could be in terms of superpositions of dark electrons and holes assignable
to the flux tube condensate. Strange metal is between Fermi liquid and superconductor: this
conforms with the fact that strange metals are quantum critical systems. The transition to high
Tc superconductivity is preceded by a transition to a phase in which something resembling Cooper
pairs is present.
A natural looking interpretation would be in terms of a flux tube condensate and pairs of dark and
ordinary electrons. Also now the flux tubes could be short. In [8], I have considered the possibility
that high Tc superconductors could be this kind of ”half-superconductors” but this option seems to
be wrong.
The phase transitions between ”half-superconductivity” and superconductivity could play a central
rol also in living matter.

2.2 How large parity violation could emerge in the TGD framework
Before proceeding to a detailed model, one must understand how the large parity violation required by
the chiral selection could emerge in the TGD framework.

1. Since the Kähler action does not contain the induced SU(2)L weak fields, there should be no direct
parity violation at the space-time level. The geometric parity violation as a chiral selection of bio-
molecules could be however induced from the fermionic dynamics induced by the modified Dirac
action determined completely the bosonic action. The twistor lift of TGD [16, 13, 7] suggest that
this action is a sum of volume term and Kähler action.
Holography realized as generalized holomorphy implies that solutions are minimal surfaces irrespec-
tive of action and only the conditions at boundaries and singularities distinguish between different
general coordinate invariant actions constructible using the induced geometry.

2. In the standard physics framework one could argue that Chern-Simons term relates to the parity
violation. Now the situation is not so straightforward since parity violation for the weak interactions
basically occurs at the level of M4 × CP2 and is induced to the space-time level.
Chern-Simons-Kähler (CSK) action emerges from the topological istanton term J∧J in the exponent
defining vacuum functional [9, 12, 14, 18]. The CSK term is naturally imaginary whereas the non-
topological term defining the Kähler function as Kähler action would be real. The CSK term contains

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DNA Decipher Journal | December 2024 | Volume 14 | Issue 1 | pp. 62-68 65
Pitkänen, M., New Findings Related to the Chiral Selection

two parts corresponding to M4 and CP2 parts of the Kähler form. Neither Kähler action nor CSK
action contain the induced SU(2)L gauge potentials so that parity violation directly induced by
weak interactions is not present. CSK action is associated with partonic orbits carrying fermion
lines identified as the light-like boundaries of the space-time surface and the interfaces of Euclidean
and Minkowskian regions of the space-time surface.

3. CSK term contributes also a term to the modified Dirac action [18] [28], which is fixed completely by
the bosonic action defining the space-time surfaces as a Bohr orbit-like preferred extremals satisfying
holography, which reduces to a generalized holomorphy [14].
What is crucial is that the covariant derivative acting on the induced spinor fields, obtained by
restricting the second quantized H spinor fields to the space-time surface, contains the parity viola-
tion weak interaction term so that the parity violation at the level of elementary fermions emerges
through it. This parity violation must induce the geometric parity violation at the level of the
geometry of space-time surfaces distinguishing between different chiralities in dark weak scales.

4. The model of anomalous electron-positron pairs produced in heavy nucleus collisions [17] assigns
dark leptopion condensate to the non-vanishing of the Chern-Simons term requiring that the induced
Kähler and electric fields are not orthogonal. The condition that the dark leptopion Compton
wavelength, which is 1/2 of dark electron Compton length, should be of the order of the thickness
of the electric flux tube. One must assume that the leptopions are dark in the sense that they have
heff ̸= h since otherwise they would be produced in the decays of weak bosons.

It will be found that the model provides further support for a generalization of the Pollack effect
[3, 1, 5, 4]: instead of protons of water molecules, electrons at the conductor surface would be transformed
to dark electrons at the magnetic monopole flux tubes. This suggests also a generalization of the dark
genetic code discussed already earlier [24]. For this generalization dark proton triplets as a representation
of codons would be replaced with dark electron triplets. The universality of the realization of the dark
genetic code in terms of the completely unique icosa tetrahedral tessellation of hyperbolic space H3

supports this idea.

2.3 A concrete TGD based model for the findings
Consider now a concrete model for the findings in the TGD framework.

1. A good guess is that the molecular monopole flux tubes of the molecules and of the magnetic fields
assignable with the Cobalt islands tend to have the same chirality. This would generalize the chiral
selection from the level of biomolecules to the level of dark monopole flux tubes. Some kind of
condensate of flux tubes of the same chirality as a long scale parity violation would be in question.

2. In the TGD framework, the North up and South up magnetic fields could correspond to helical
monopole flux tubes of opposite chiralities. The helical structure is essential and could relate
directly to the requirement that the flux tube is closed: one could have a shape of flattened square
for which the long sides form a double helix. This would be the case also for DNA.

3. Parity violation requires a large value of heff . Dark Z (and W) bosons could generate a large parity
violation. Dark Z boson Compton length of order biological scale. The very large value of heff

would give the needed large energy splitting between generalized cyclotron energies at the dark flux
tube and induce chiral selection.
Gravitational flux tubes of the Earth’s gravitational field or solar gravitational field would do the
job. By the Equivalence Principle, the gravitational Compton length Λgr,E = .5 cm for Earth does
not depend on the particle mass and looks like a promising scale. Also the cyclotron energies are
independent of the mass of the charged particle since ~gr is proportional to particle mass m and
cyclotron frequency to 1/m.

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DNA Decipher Journal | December 2024 | Volume 14 | Issue 1 | pp. 62-68 66
Pitkänen, M., New Findings Related to the Chiral Selection

4. Also the electric field of the Copper surface should have an important role. The electric field
orthogonal to Cu conductor would correspond to electric flux tubes. The consistency condition
for the electric flux tube thickness with charged at the bottom (conductor) reads as Λem(d) ∼ d.
~em = Ne2/β0, N the number of electrons at the bottom. There is roughly one electron per atom.
N ∼ 104 per flux tube area of 100 nm2 having radius about 10 nm. Λem = Ne2/β0λe is about 1 nm
for β0 = 1. The value of ~em are rather small and it seems that it cannot contribute to the chiral
selection. One can however consider also the electric field of Earth, and in this case the situation
could be different.

The effect occurs already before the Cobalt islands. Furthermore, electrons with a given spin direction
prefer to tunnel through the molecules in a direction dicrated by the chirality. What could this mean?

1. The counterparts of magnetic fields are present as dark magnetic fields inside the magnetic bodies
of the drifting molecules. Suppose that dark molecular gravitational monopole tubes are indeed
present and give rise to closed spin current loops with a direction determined by the chirality of the
molecule. This would give rise to the large parity violation but how to understand the occurrence
of the effect already before the Cobalt islands?

2. Could one assign a definite chirality also to the electric flux tubes assignable to the Cu surface and
assume that the molecular chirality tends to be the same (or opposite) to this chirality? Do also
these closed monopole flux tubes carry dark electric current?
The spin direction of the current carrying electrons would correlate with the magnetization direction
so that the magnetic body of the molecule would prefer a pairing with the electric body with a
preferred spin direction. The preferred pairing would explain the drift to a correct Cobalt island:
the paths leading to the Cobalt island would be more probable.

3. In the case of water, the Pollack effect [3, 1, 5, 4] transfers part of the protons of water molecules
to dark protons at monopole flux tubes. Now there are no protons available.
Does this require a generalization of the Pollack effect? Could the electric flux tubes be gravitational
flux tubes carrying electrons instead of protons? Gravitational Compton length would be the same.
Could electronic Pollack effect for conductors as a dual of Pollack effect for water be in question.

4. In the TGD inspired quantum biology, one assigns genetic code with dark proton triplets. Could
one assign a dark realization of the genetic code to dark electron triplets? Could the electric
counterparts of gravitational flux tubes carrying dark realization of the genetic code define dark
genetic code? Codons would correspond to dark electron triplets instead of dark proton triplets.
Could the analogs of the ordinary genetic codons correspond to the triplets of electron holes at the
conductor surface?
The TGD based vision about universal genetic code suggests the existence of a 2-D analog of DNA
realized in terms of mathematically completely unique hyperbolic icosa tetrahedral tessellation.
Could this genetic code be associated with the metal surfaces? The implications of this hidden
genetic code for computers might be rather dramatic.

Received July 1, 2024; Accepted December 31, 2024

References
[1] The Fourth Phase of Water: Dr. Gerald Pollack at TEDxGuelphU, 2014. Available at: https:

//www.youtube.com/watch?v=i-T7tCMUDXU.

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https://www.youtube.com/watch?v=i-T7tCMUDXU
https://www.youtube.com/watch?v=i-T7tCMUDXU


DNA Decipher Journal | December 2024 | Volume 14 | Issue 1 | pp. 62-68 67
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[2] Safari MR et al. Enantioselective Adsorption on Magnetic Surfaces. Advanced Materials, 2023.
Available at: https://doi.org/10.1002/adma.202308666.

[3] Pollack G. Cells, Gels and the Engines of Life. Ebner and Sons, 2000. Available at: https:
//www.cellsandgels.com/.

[4] Zhao Q Pollack GH, Figueroa X. Molecules, water, and radiant energy: new clues for the origin of
life. Int J Mol Sci, 10:1419–1429, 2009. Available at: https://tinyurl.com/ntkfhlc.

[5] Pollack GH Zheng J-M. Long-range forces extending from polymer-gel surfaces. Phys Rev E,
68:031408–, 2003. Available at: https://tinyurl.com/ntkfhlc.

[6] Pitkänen M. Hydrodynamics and CP2 Geometry. In TGD and Condensed Matter. https://
tgdtheory.fi/tgdhtml/BTGDcondmat.html.

[7] Pitkänen M. About TGD counterparts of twistor amplitudes. In Quantum TGD: Part III. https:
//tgdtheory.fi/tgdhtml/Btgdquantum3.html. Available at: https://tgdtheory.fi/pdfpool/
twisttgd.pdf, 2023.

[8] Pitkänen M. Comparing Berry phase model of super-conductivity with TGD based model. In
TGD and Condensed Matter. https://tgdtheory.fi/tgdhtml/BTGDcondmat.html. Available at:
https://tgdtheory.fi/pdfpool/SCBerryTGD.pdf, 2023.

[9] Pitkänen M. Identification of the WCW Kähler Function. In Quantum Physics as Infinite-
Dimensional Geometry. https://tgdtheory.fi/tgdhtml/Btgdgeom.html. Available at: https:
//tgdtheory.fi/pdfpool/kahler.pdf., 2023.

[10] Pitkänen M. Quantum Model for Bio-Superconductivity: I. In TGD and Quantum Biology: Part
I. https://tgdtheory.fi/tgdhtml/Bqbio1.html. Available at: https://tgdtheory.fi/pdfpool/
biosupercondI.pdf, 2023.

[11] Pitkänen M. Quantum Model for Bio-Superconductivity: II. In TGD and Quantum Biology: Part
I. https://tgdtheory.fi/tgdhtml/Bqbio1.html. Available at: https://tgdtheory.fi/pdfpool/
biosupercondII.pdf, 2023.

[12] Pitkänen M. Recent View about Kähler Geometry and Spin Structure of WCW . In Quantum Physics
as Infinite-Dimensional Geometry. https://tgdtheory.fi/tgdhtml/Btgdgeom.html. Available at:
https://tgdtheory.fi/pdfpool/wcwnew.pdf, 2023.

[13] Pitkänen M. Some questions related to the twistor lift of TGD. In Quantum TGD: Part
III. https://tgdtheory.fi/tgdhtml/Btgdquantum3.html. Available at: https://tgdtheory.fi/
pdfpool/twistquestions.pdf, 2023.

[14] Pitkänen M. Symmetries and Geometry of the ”World of Classical Worlds”. In Quantum Physics
as Infinite-Dimensional Geometry. https://tgdtheory.fi/tgdhtml/Btgdgeom.html. Available at:
https://tgdtheory.fi/pdfpool/wcwsymm.pdf, 2023.

[15] Pitkänen M. TGD and condensed matter physics. In TGD and Condensed Matter. https:
//tgdtheory.fi/tgdhtml/BTGDcondmat.html. Available at: https://tgdtheory.fi/pdfpool/
TGDcondmatshort.pdf, 2023.

[16] Pitkänen M. The classical part of the twistor story. In Quantum TGD: Part III. https://tgdtheory.
fi/tgdhtml/Btgdquantum3.html. Available at: https://tgdtheory.fi/pdfpool/twistorstory.
pdf, 2023.

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 https://doi.org/10.1002/adma.202308666
https://www.cellsandgels.com/
https://www.cellsandgels.com/
https://tinyurl.com/ntkfhlc
https://tinyurl.com/ntkfhlc
https://tgdtheory.fi/tgdhtml/BTGDcondmat.html
https://tgdtheory.fi/tgdhtml/BTGDcondmat.html
https://tgdtheory.fi/tgdhtml/Btgdquantum3.html
https://tgdtheory.fi/tgdhtml/Btgdquantum3.html
https://tgdtheory.fi/pdfpool/twisttgd.pdf
https://tgdtheory.fi/pdfpool/twisttgd.pdf
https://tgdtheory.fi/tgdhtml/BTGDcondmat.html
https://tgdtheory.fi/pdfpool/SCBerryTGD.pdf
https://tgdtheory.fi/tgdhtml/Btgdgeom.html
https://tgdtheory.fi/pdfpool/kahler.pdf
https://tgdtheory.fi/pdfpool/kahler.pdf
https://tgdtheory.fi/tgdhtml/Bqbio1.html
https://tgdtheory.fi/pdfpool/biosupercondI.pdf
https://tgdtheory.fi/pdfpool/biosupercondI.pdf
https://tgdtheory.fi/tgdhtml/Bqbio1.html
https://tgdtheory.fi/pdfpool/biosupercondII.pdf
https://tgdtheory.fi/pdfpool/biosupercondII.pdf
https://tgdtheory.fi/tgdhtml/Btgdgeom.html
https://tgdtheory.fi/pdfpool/wcwnew.pdf
https://tgdtheory.fi/tgdhtml/Btgdquantum3.html
https://tgdtheory.fi/pdfpool/twistquestions.pdf
https://tgdtheory.fi/pdfpool/twistquestions.pdf
https://tgdtheory.fi/tgdhtml/Btgdgeom.html
https://tgdtheory.fi/pdfpool/wcwsymm.pdf
https://tgdtheory.fi/tgdhtml/BTGDcondmat.html
https://tgdtheory.fi/tgdhtml/BTGDcondmat.html
https://tgdtheory.fi/pdfpool/TGDcondmatshort.pdf
https://tgdtheory.fi/pdfpool/TGDcondmatshort.pdf
https://tgdtheory.fi/tgdhtml/Btgdquantum3.html
https://tgdtheory.fi/tgdhtml/Btgdquantum3.html
https://tgdtheory.fi/pdfpool/twistorstory.pdf
https://tgdtheory.fi/pdfpool/twistorstory.pdf


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[17] Pitkänen M. The Recent Status of Lepto-hadron Hypothesis. In p-Adic Physics. https://
tgdtheory.fi/tgdhtml/Bpadphys.html. Available at: https://tgdtheory.fi/pdfpool/leptc.
pdf, 2023.

[18] Pitkänen M. WCW Spinor Structure. In Quantum Physics as Infinite-Dimensional Geometry.
https://tgdtheory.fi/tgdhtml/Btgdgeom.html. Available at: https://tgdtheory.fi/pdfpool/
cspin.pdf, 2023.

[19] Pitkänen M. Does valence bond theory relate to the hierarchy of Planck constants? Available at:
https://tgdtheory.fi/public_html/articles/valenceheff.pdf., 2017.

[20] Pitkänen M. Quantum self-organization by heff changing phase transitions. Available at: https:
//tgdtheory.fi/public_html/articles/heffselforg.pdf., 2019.

[21] Pitkänen M. A critical re-examination of M8 −H duality hypothesis: part I. Available at: https:
//tgdtheory.fi/public_html/articles/M8H1.pdf., 2020.

[22] Pitkänen M. A critical re-examination of M8 −H duality hypothesis: part II. Available at: https:
//tgdtheory.fi/public_html/articles/M8H2.pdf., 2020.

[23] Pitkänen M. Comparison of Orch-OR hypothesis with the TGD point of view. https://tgdtheory.
fi/public_html/articles/penrose.pdf., 2022.

[24] Pitkänen M. How animals without brain can behave as if they had brain. https://tgdtheory.fi/
public_html/articles/precns.pdf., 2022.

[25] Pitkänen M. About long range electromagnetic quantum coherence in TGD Universe. https:
//tgdtheory.fi/public_html/articles/hem.pdf., 2023.

[26] Pitkänen M. New findings related to the number theoretical view of TGD. https://tgdtheory.
fi/public_html/articles/M8Hagain.pdf., 2023.

[27] Pitkänen M. A fresh look at M8 − H duality and Poincare invariance. https://tgdtheory.fi/
public_html/articles/TGDcritics.pdf., 2024.

[28] Pitkänen M. Modified Dirac equation and the holography=holomorphy hypothesis. https:
//tgdtheory.fi/public_html/articles/modDir.pdf., 2024.

[29] Pitkänen M and Rastmanesh R. The based view about dark matter at the level of molecular biology.
Available at: https://tgdtheory.fi/public_html/articles/darkchemi.pdf., 2020.

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https://tgdtheory.fi/tgdhtml/Bpadphys.html
https://tgdtheory.fi/tgdhtml/Bpadphys.html
https://tgdtheory.fi/pdfpool/leptc.pdf
https://tgdtheory.fi/pdfpool/leptc.pdf
https://tgdtheory.fi/tgdhtml/Btgdgeom.html
https://tgdtheory.fi/pdfpool/cspin.pdf
https://tgdtheory.fi/pdfpool/cspin.pdf
https://tgdtheory.fi/public_html/articles/valenceheff.pdf
https://tgdtheory.fi/public_html/articles/heffselforg.pdf
https://tgdtheory.fi/public_html/articles/heffselforg.pdf
https://tgdtheory.fi/public_html/articles/M8H1.pdf
https://tgdtheory.fi/public_html/articles/M8H1.pdf
https://tgdtheory.fi/public_html/articles/M8H2. pdf
https://tgdtheory.fi/public_html/articles/M8H2. pdf
https://tgdtheory.fi/public_html/articles/penrose.pdf
https://tgdtheory.fi/public_html/articles/penrose.pdf
https://tgdtheory.fi/public_html/articles/precns.pdf
https://tgdtheory.fi/public_html/articles/precns.pdf
https://tgdtheory.fi/public_html/articles/hem.pdf
https://tgdtheory.fi/public_html/articles/hem.pdf
https://tgdtheory.fi/public_html/articles/M8Hagain.pdf
https://tgdtheory.fi/public_html/articles/M8Hagain.pdf
https://tgdtheory.fi/public_html/articles/TGDcritics.pdf
https://tgdtheory.fi/public_html/articles/TGDcritics.pdf
https://tgdtheory.fi/public_html/articles/modDir.pdf
https://tgdtheory.fi/public_html/articles/modDir.pdf
https://tgdtheory.fi/public_html/articles/darkchemi.pdf

	Introduction
	The findings

	TGD based model for the findings
	The general TGD view of the findings
	How large parity violation could emerge in the TGD framework
	A concrete TGD based model for the findings


