Despite
being one of a pioneers in the study of Tachyons, Multi Universe and Zero Rest Mass particles,
in West Bengal of India Mr. Rupak
Bhattacharya of residence 7/51 Purbapalli ,Sodepur ,24 parganas(north) Kolkata
110, West Bengal , India, S/o late Bholanath
Bhattacharya and late Bani Bhattacharya remained practically unknown to the
world- A tribute From Professor(Dr.)
Pranab kumar Bhatttacharya
When Judging by his published articles as publications in the most
high impact factor open access indexed journals of science like Physics Org
of American Physical Society ; Cosmoquest Forum( Renamed from previous BAD Astronomy &
universe Today ); Global Journals of Science and Frontier
Research (
A )Physics and Space Science, USA; International journal of Astronomy and
Astrophysics and Space Science of Open Science journal Group USA; Research and Review Journal of Space science and Technology of STM journal
Group USA, In the Journal “Science “of AAAS.org ; Science News; Nature ; Applied Physics Letter , Physics Review ; Physical review letter ; Uncertain principal Archives ;
Physics World of IOP science Nature Worlds news and his self armature research works , at his
paternal house 7/51 purbapalli Post
office Sodepur; District 24 parganas (north) Kolkata 110 Rupak probably as a God gifted theoretical physicist grew up
in tremendous economic constrains, social negligence as class difference and unimaginable poverty from his child hood . Rupak was born in
march 1974,as youngest twin sons of late Mr.
Bholanath Bhattacharya(1925-2009)- a retired Account officer of A.G Bengal, Kolkata and a
dedicated worker of CPM party of sodepur panihati of west Bengal, as a true
Marxist by heart and action in his life and Late Mrs. Bani
Bhattacharya(1934-2006),who were resident of7/51 Purbapalli, PO- kolkata-110,
India , was brought up with unimaginable form of poverty, financial constrains for
study and also negligence, non
cooperation from his 2nd(Pallab) and 3rd brother's(Biplab) family members and
also of local social negligence as poor socioeconomic class, had his education
from Sodepur Chandrachur Vidyapith [primary and higher secondary], graduated from St. Paul,s college of kolkata of Calcutta
university and finally from Jadavpur university for his masters in applied mathematics in 1997 , is an amateur theoretical physicist and
Astrophysicist. He with his eldest brother Professor DR. Pranab Kumar
Bhattacharya MD(Calcutta university ), FIcPath(Ind.) , then a Professor of Pathology, developed a model of Universe
and anti Universe, we nomenclatured it as “ Bhattacharya’s
Model of Universe” based
on a mass less[zero
rest mass] particle after his name “ R particle”(Rupak Particle) in the family
of neutrinos particles and the cause of mass of particles is another particle
in Higg’s field- Rupak hypothesized. However the Zero rest mass particle at Plank’s moment is yet a
mathematical model. According to their theory …. in Grand Unified
Theories(GUT), when electron was treated
as neutrinos (ve) and the quarks that made nucleon were at different state of a
single neutrinos particle. In the simplest of Rupak Bhattacharya’s theory, the small neutrinos mass was given by a
formula by him Mv= mD2/M where mD is the quark color mass and M is
the mass which may be as large as the unification scale of 1014to 1015
Gev. As a result of Rupak Bhattacharya’s equation Mv=mD2 there
happened three sets of generation of earliest particles. Thus in addition of
electron there is generation of muon [mu=206me] and also” R particles”[ Rupak
Neutrinos mR=3500me]. These R particles are then very similar and close to
gluon particles and correspondingly there are three neutrinos ve vμ vτ and vr. This theory suggest that m
(ve)<< m (vμ)<<m (vτ)<<(vr). So as per Rupak Bhattacharya and
Pranab Bhattacharya’s theory ve, Vμ Vτ and vr are coherent mixture with quarks
in case of electron. Neutrinos produced in nonlinear β decay might be
v1cosθ+v2sinθ where v1 and v2 are the mass eigen state and θ is the mixing
angle. The R particle theory (Rupak Particles) suggest thus a newer model of
universe, we called it “ Bhattacharya model of universe and anti universe”, where
the concept of multiple bubble universe creation was suggested through the Big
Bang like events in the inner scale of time that existed at one end and anti
universe creation at other end of the time scale, instead of conventional
steady state universe or a single bubble Big Bang creation of universe in the
standard Model. Bhattacharya’s Model of universe puts everyone to further
thinking and questions “ what was before Big Bang an
identical universe ?” and”
what was before the boundary or horizon of universe?” Do our universe has a boundary?
Rupak Bhattacharya’s Ritwik Bhattacharya’s and Pranab Bhattacharya’s model of
universe is based on a Zero rest mass particle nomenclature as Rupak
Particle(R Particles) in the neutrinos family is almost consistent with the
concept of dark energies, susi particles
in the observable universe and
beyond the boundaries / horizon of universe as antigravity particles and thus
to some extent solving also the critical mass problem of the universe, as
baryons consists of only 4-23% of mass of universe as Mixed Dark Matter mass
and 73% as Dark energy as per open flat, low density universe. According them
“----relativistic gas of free quarks with Pα ρ/3 where P= is the pressure and
ρ= is the energy density of matter. The density at which the baryon to quark
happened, was a transition phase in the Universe creation in “Big Bang gospel” and was of crucial importance in
structure formation in the universe. So before
baryon was formed in early universe
there was a phase called “transition phase”. In QCD, success was in describing the interaction of
quarks and gluons or quark with R particles at high energies. Particles at high
energies were asymptotically free, that is, at high energies quark and gluons
or quark or R particles were weakly coupled, while at low energies they
appeared to be confined in hadrons i.e. in baryons and in mesons. However at
high temperature or at high densities, normal nuclear matter underwent a phase
transition to an unconfined quark- gluon or quark- R particle state. In the
early universe the transition from an initial unconfined quark- gluon
phase[Quark Gluon plasma? to confined hadronic phase took place at T≈10-5S
after the Big Bang moment. The thermodynamic picture of for quark- hadrons
phase transition viewing hadrons as a bag containing Quark and Gluon or R quark
and R particles equation of state for pressure
P and energy density ρQ. ρQ=π2/90[2(Nc2-1)+7/2NcNf]T4-β-(1),
ρQ=3ρQ+4β= where ρ=density of Universe, Nc=number of color of quarks
corresponding to Su(Nc) gauge group for QCD(Nc=3) Nf=number of light quark
flavor ( Nf=3 for up, down and strange quark) β = Big constant representing the
distance in vacuum energy between two phase. Based on this equation, we can be
convinced that a transition phase of quark- gluon or Quark- R particles matter
did occur in fact in expanded and cooled as the universe did gradually evolved.
The simple relation between Temperature and thermal radiation time was
therefore was as follows-: tsT2Mev≈ 2.4[N(T)]-1/2 where t= time measure in
second T= Mega electron volts N= number of relative degrees of freedom of all
particles at temperature T. At T≈200 ,the continuement phase transition had
occurred to that at lower temperature, the constituent of universe were
hadrons, leptons, and photons. The corresponding age of the universe at that
time was T≈10-5 S. It was not until T≈ 1 orT≈1Mev that the process
leading to nucleosynthesis was important. So the cosmic soup consisted of r particles with anti r particles, quarks and anti
quarks, electrons and it’s antiparticles anti electrons or positrons. The
particles and antiparticles were in constant annihilation and radiation as per
Einstein’s famous equation E= mC2. At 109K temperature
matter were produced and universe is today made of matter i.e. hadrons.
(Proton, Neutron, lepton, Electrons). But in Big Bang moment universe started
it’s voyage with equal numbers of matter and antimatter. Electron and Positron
were created and were in constant annihilation, liberating burst of energy and
radiation. Thanks to the creator of the Big Bang(if at all was as super most
mathematician ) that during the nucleon synthesis anti proton were not created.
If at all antiproton, antineutron were created they were at least in separate
compartments and did not come into contact [Matter and antimatter as soon as
come in contact both are destroyed and their entire rest mass converts into
radiation and energy known as entropy or annihilation. Late Prof, S.W. Hawking
FRS in his famous book “The Brief history of Time” nicely said –If you even
meet your anti You don’t hand shake with him you will turn into flash,
radiation and energy at once” The Universe consists of now large masses of
matter and antimatter organized into superclasters, galaxies, stars, blackhole,
and planets. According to this view about construction of the universe, the
matter and antimatter should co-exist at some early stage in Big Bang. For it only if the temperature was
high enough it should be possible for nucleons and anti nucleons to rub their
shoulders with each other’s. Simple theory suggests that they should after ward
annihilate each other’s with production of photons and neutrinos. To account a
universe in which matter and anti matter were separated in separate galaxies it
is therefore necessary to explain how such a separation could have taken place
at very early stage in the development of primeval fire ball? It is still one of the most fundamental questions in
cosmology.
Antimatter can be more famous in fiction than it is in real life. At the
original star Trek, antimatter reacts with ordinary matter to power the warp
drive that propels the United States. Enterprise at quicker-than-light
velocities. While warp drive is pure fiction, antimatter is very real. We know
that for every particle of ordinary matter, it is possible to have an identical
particle with the opposite electrical charge. An antiproton is much like a
proton, for example, but with a negative charge. The antiparticle corresponding
to the negatively charged electron, meanwhile, is the positively charged
positron. Physicists have created antimatter in the laboratory. However when
they do, they create an equal amount of matter. That indicates that the big
Bang must have created matter and antimatter in same quantities. But nearly
everything we see around us, from the ground under our feet to the most remote
galaxies, is made of ordinary matter. What’s happening? Why is there more
matter than antimatter? Our best wager is that the big Bang somehow produced a
tiny bit extra matter than antimatter.“What had to have happened early in the
history of the universe — in the very moments after the big Bang — is that for
every 10 billion antimatter particles there were 10 billion and one matter
particle. And the matter and the antimatter annihilated the ten billion,
leaving the one. And that little ‘one’ is the mass that makes up us.”But why
the slight excess of matter over antimatter in the first place? “We genuinely
don’t understand that,. “It’s weird.” Had the initial quantities of matter and antimatter
been equal, they’d have annihilated each other completely in a burst of energy.
In which case, says Lincoln, “we wouldn’t exist.” Some answers may come when
the Deep Underground Neutrino Experiment (DUNE) starts collecting data in 2026.
DUNE will analyse a beam of neutrinos — tiny, charge less and nearly mass less
particles — fired from Fermilab to the Sanford Underground Research Facility in
South Dakota, some 800 miles away. The beam will include neutrinos and anti
neutrinos, with the aim of seeing if they behave in the same manner — thus
potentially providing a clue to nature’s matter-antimatter asymmetry. please
Read our articles published in Science Journal and in others sites
https://scienceblogs.com/startswithabang/2010/03/01/the-greatest-story-ever-told-4#comment-8636
http://totallydrug-resistanttbemergesinindia.blogspot.com/2018/07/the-ten-biggest-but-yet-today.html
The question of existence of antimatter in significant quantities in the present universe. in our
galaxy! The question of whether antimatter had an equal role with matter in making up
galaxies? In a contemporary Para diagram of Grand Unified theories & Gauge Theories.
These questions are related to the questions of nature of charge, parity variations at high energy.
The questions of separating matter and antimatter, proton and anti proton, helium and anti helium.
The symmetry between matter and antimatter [ i.e baryon symmetry in the cosmology ]
that was once observed at lenier accelerator had forced many scientists and astrophysicist
to think that there existed also a similar balance in the universe of “’matter and antimatter””
at most early phase of the universe. But we don’t see or don’t find antimatter in our observable
universe.Our observable universe is made of matter only. Why? Antimatter annihilate
with matter. If that was so, then there would not be any matter to make up
super clusters, galaxies ,stars,blackholes, planets, our observable universe. Was really
the matter and antimatter mixed together?Or was the matter and antimatter were in two
separate compartments? If the later was true, then wemust have another Universe.
That universe was made of antimatter. However universe consisted of large mass of matter and
antimatter- standard Big Bang model says so. On this view, in authors opinion,
is that whether matter and antimatter must co-existed all together at some early stage of Big Bang.?
For it ,only when the temperature was high enough, it was possible for nucleons and anti nucleons,
quarks and anti quarks r particles and anti r particles to rub their shoulders with each others,
and simple theory suggest that these rubbing resulted annihilation with production of photons
and neutrinos. H. Alfeven etal ( Alfeven .H – Gravitational Signature of Matter-Antimatter Interaction
Rev. Mod. Physics Vol37; P652; 1965) did bring out a mechanism which permitted region of matter
and antimatter to co-exist together in our galaxy, even without appreciable mixing. Otherwise in
early state of universe [when a homogeneous universe] there would have to be also a mechanism
for separating matter and antimatter so that galaxies were formed in clusters. Then the big questions
are 1) what was the mechanism for separation of matter and antimatter?
2) Where went the bulk of antimatter? 3) Does antimatter stars or antimatter galaxies were
capable of nuecleosynthesis? Does the antimatter stars or antimatter galaxies at all exists
that Rupak Bhattacharjee suggested in his concept of anti Universe? 5) If at all exists what is the
way of communication from our universe made of matter to a Universe made of antimatter?
The black holes/ The warm holes? Bhatacharya Pranab Kumar& Bhattacharya Rupak-
Does the universe contain also anti galaxies- a myth or a reality? Space Light Vol 4 P7-13; 1998).
Defining a region of mass MR as a typical unit of matter and antimatter According to conventional
standard model or Big Bang model of the universe, there were small excess of baryon particles
(~1 in 109) over anti particles in early stage of evolution of universe. At that time the thermal energy
“KT” exceeded the rest energy mpc2 of baryon particles. It was to the excess amount of KT, for that
we see the present existence of matter in the universe. So as thermal energy dropped bellow mc2,
the baryons and anti baryons started annihilated and there leaving just excess of baryons intact.
Let us now consider a model of universe that was initially filled up with the thermal radiations.
Its expansion was described by the scale factor R (t) which behaved approximately like t -1/2
while the temperature varied like R-1. For early stage of the universe, effect of space curvature was
negligible. It was known in history of such a model, Our Bhattacharya model of universe can now
be divided in to several periods according to content of thermal radiation. The Hadronic (KT≥100 mev),
Leptonic (KT≥ 1mev) and Radiative (KT≥300K). Super imposed on division, on evolution of baryons,
we have to consider also other periods. The separation period (KT≥350Mev), annihilation period
(KT≥25Kev) and coalescence period (T>300K). There was some interest in 1970s regarding the
existence of the antimatter in the universe. Stiegman. G in 1969
( Stiegman. G. – Nature Vol224; P447; 1969 Antimatter, Galactic Nuclei and Theories of the
Universe: Speculation on the Nature of the Nuclei of Galaxies ) showed that if the space time
were filled with equal mixture of matter and antimatter then gamma ray flux that resulted from
nucleon and anti nucleon annihilation would be far above the observed limit. But as per
Rupak Bhattacharya, Ritwick Bhattacharya and Pranab kumar bhattacharya there were
much possibilities that matter and antimatter existed quite separately in large regions
consisting solely of one characteristic type, perhaps in the form of galaxies and anti galaxies
(Bhattacharjee Rupak, Bhattacharya Ritwick and Bhattacharya Pranab et al) separation,
one can assume that a process probably existed in early Big Bang model. This process could
however separated matter and antimatter into contiguous regions at some early epoch of Big Bang.
We can also assume that the regions remain separated until and after decoupling would prevent
collision between them, owing to effect of radiation. After decoupling, the material contained in
several such regions started to collapse and coalesce. The collapse and coalescence led to an
annihilation of particles from regions to anti regions. The rate at which coalescence occurred,
depended on the scale of density fluctuation. Defining a blob of mass MB, as the largest commonly
occurring density fluctuation, existing at decompleing, we know from galaxy forming theory
[How galaxies form ] that the minimum mass of the blob was ~107M◎ jeans mass. It is also
well known that any gravitational bound group of blob will eventually undergo collapse.
But due to expansion of the universe, the collapse would not proceed rapidly until the density
contracted. The collision cross section for blob contained in such group became very high, once
collapse set in. So, if both matter and antimatter were present in early universe, one must expect
a considerable amount of annihilation to occur at the time of collapse. So there must be a separation
period for matter and antimatter as per Rupak Bhattacharya. In the separation period particles
and antiparticles [Quarks and antiquarks / r particles and Anti r particles/ Neutrinos and
anti neutrinos/ Gluons and anti gluons Higgs and anti Higgs particles ] separated spatially
as a consequence of their statistical repulsion. This was initially induced by fluctuation
(Bhattacharjee Rupak and Bhattacharya Pranab Kumar bhattacharya Upasana et al -
The Cosmic Web, the Seed of Galaxies- Are Also Made of Warm Intergalactic Medium(WHIM)
and Dark Energy? Global Journal of Science Frontier Research: APhysics and Space Science
Volume 17 Issue 1 Version 1.0 Year 2017)
). One can compute the size as “δ,” as the individual condensation containing an excess of nucleon
and anti- nucleon reached during 10~5 S of the period. The total baryonic number in that period was
1028. Near the end of separation period universe was filled up with emulsion of nucleons and anti
nucleons with a topical size δ=3x10~4c.m. The next came annihilation period. When temperature
fell below the critical temperature (T) the particles and antiparticles [quarks and anti quarks
r anti r ] started to annihilate. The annihilate process was then controlled by diffusion so that
densities D and N (Nucleons) and N-(anti nucleons) satisfy the equation as given below
δΝ/δΤ=DV-2N-αN N-, δN-/δΤ=δV-N-αNN- (== Bhattacharjee Rupak ==). At the end of this period
a typical fraction of 10 ~8 or more nucleon survived. They were still in the form of emulsion
with a typical size of 105cm and with a typical mass of 1010 gram( 100,000,000 000, kilogram)
within a sphere of radius. This was however very far from a galactic mass. During annihilation
the process first gave birth chiefly to pions and through their decay to high-energy photons,
electrons, positrons, and neutrinos successively. The transfer of momentum by photons and
electrons produces an annihilation pressure at boundary between matter and antimatter.
To find the behavior of matter and antimatter, which were probably in contact through a
common boundary, the effect of high-energy photons and leptons was a dominant feature,
because these particles exerted a very strong pressure and kept the heating system on.
Radiative pressure was very dominant, so that pressure due to heating tended to balance
annihilation. With the possible exception of cosmic gumma rays, observation yielded
essentially no information on the relative amount of matter and antimatter beyond our solar system.
What the observation told us was that matter and antimatter are rarely ,if ever found together.
What was the mechanism that matter and antimatter were then separated?. Consider a gas of
proton, antiproton, electron and positron, which is sufficiently diluted and then annihilation can
not be neglected there. In general, such a gas will be situated in a magnetic field say “B” , in a
Gravitational field say “G” and in a electromagnetic field of flux “F”. Each of fields will then be
assumed static and homogeneous. In particular length scale for variation in “B” must be large
enough that particle drifts arising from magnetic in homogenetics are also negligible.
The protons and antiprotons will be much more strongly influenced by Gravitational field than
by Radiation field. As well as spiraling around the magnetic line of forces the heavy particles
will therefore have a drift velocity Vh= mPxgxB/qB2 ,where mP is the proton mass, q is the particle
charge,.[Bhattacharjee Rupak & Bhattacharya Pranab Kumar – Does the Universe contain also
anti galaxies- a myth or a reality- Space Light; Vol4 P7-13;1998] .Because of their small mass,
and larger scattering cross section, the electrons and positrons will feel much weaker Gravitational
force due to radiation pressure. It is however to be noted that just electric current through gas does
not heavily result in separation of charges, and the opposed drift of matter need not produce an
actual matter- antimatter separation. On the other hand , matter and antimatter in an isolated
cloud or in extended medium, with an appropriate field configuration should achieve some degree
of separation. Because , proton and antiproton ,electron and positron fluxes will not be equal in
general. There will be some separation of charge leading to an electrical field “ E “ and E x B drift.
As E x B drift increases, heavy particles acquire an inertia which tends to remove the original
difference between proton and antiproton and electron and positron fluxes. So the big question
appeared before us What happened to these antimatter?. After the Plank epoch, when the age of the
universe was t ≤10-43S and temperature of the universe was T≥109Gev , we can be sure enough ,
that the interactions between the matter and the antimatter at their first quark level or Between
r+/ r_ [R particle level] became unimportant. This was because of that rate for gravitational
interaction( with Graviton particles ) was much less then expansion rate of the universe.
Although the interactions between matter and antimatter particles kept each of them
separately in a thermal equilibrium and thus probably Two worlds were created.
These Two world did not feel each other’s existence at very microscopic level.
During the primordial nucleo synthesis of the early universe, which started ~1S after the
initial Big Bang moment, the yield of the Big Bang depended on the expansion rate of the Universe.
The expansion density PT= P+Ps by R0/R= [(δπGN/3)(P+Ps)]1/2 where P and Ps= density of matter
and Antimatter, R= Cosmic scale factors. During this early epoch the universe was radiation
dominated with P=g (π2/30)T4 where g counts the effective number of degrees of freedom
particles (Rupak Bhattacharjee). The temperature of the particle world and that of anti particle
world were not the same. The inflation occurred in the two worlds in both the sector but not
necessarily simultaneously. The inflation involved was a random event in the nucleation of a
bubble or in the formation of a fluctuation region. At beginning of the inflation the universe
was in false vacuum state for both the worlds. The bubble nucleated for one world, first say
for antimatter world then matter world . As the bubble grew exponentially in physical size,
both the temperature of matter and antimatter decreased exponentially. At this time the ratio
of entropy remained constant. When the antiparticle vacuum energy was converted into radiation,
the antiparticle temperature raised and entropy decreased. Eventually a bubble of fluctuation
region formed for the matter world within the antimatter bubble. During the second phase of
inflation, new bubble grew exponentially. When the vacuum energy of ordinary matter world
converted into radiation, the temperature of particle world raised to a temperature, which was
exponentially larger than the temperature of the antiparticle world. Thus the entropy was reduced
further. To an exponentially small value and the matter dominated the visible universe. According
to Big Bang model of Universe, there was small excess of matter then antimatter (~1 in 109) in the
early stage of evolution, when the thermal energy KT exceeded the rest of energy mpc2. The baryons
and anti baryons annihilated and then leaving just excess of baryon intact. From a fit of
nucleon-nucleon scattering theory, the evidence of π, η7, ω, ρ, and mesons can divide the
nucleon and anti nucleon scattering amplitude. There are bound states of nucleon and
anti nucleon pairs, which can be identified with mesons π, ρ, ω, and η7. Such a situation
in which some particles appear as bound states and act as agent for Special Forces.
Dashen .Roger (Dashen. R Physics Review-Vol187; P345; 1969) summarized a basic
formula relating to Gibb’s potential Ω to it’s value Ω0 for free particles and to
collision matrix –S Ω =Ω0 -KT/2π∫δEc-E/KT trace [clogs (E) ee-∑u1n1].
Rupak , Ritwick and Pranab Bhattacharya’s theory is a separate theory from
conventional CP violation theory of Shakarov. Bhattacharya’s Model of universe
put two big questions. What was before the Big Bang? What happened from 0.00001 second
after Big bang Plank’s time of 10~34 seconds. Present Big Bang is accepted at 10~32 second.
The most recent report 2006 WAMP(CMB) cosmology shows glows of Big Bang, when the
universe was 3,80,000 years old and universe had a temperature then 3000c
The R particle –a zero mass particle also probably gives a solution for the age of universe
in accelerating universe. So long a not solved question before the physicist was whether
the nucleosynthesis was baryonic or non-baryonic in quark hadrons phase transition of big bang .
universe always suffered a short fall of ordinary matter constituents of proton, neutron & electron.
The R particles- a zero mass particle theory helps in the concept that beyond the horizon or boundary
of the observable universe there are energy particles and favours the concept of ever expanding universe
from its creation moment at big bang like event
Rupak struggled
and struggled of all kinds of economical
odds he faced throughout his life became totally introverts with schizoid
mood disorder(DSM4) took all
painstaking efforts to be passionate for
cosmos or universe and to theoretize
that the our universe was created
in a singularity called Big Bang
Epoch as multiple
bubble universe ( Today’s which is known as
Multi universe ) and of multiple
bubbles some bubbles collapsed , some
persisted and as such one of
bubbles is ourobservable universe and
thus there are multiple universes like
ours are and the best way to move from
one universe to another universe are warm holes or black holes and his concept was published first at BAD Astronomy and Universe Today forum now Cosmoquest
Forum under Title-: “ What was before the big bang ? An Identical Reversed
universe” ? followed by
publication in journal Research & Reviews: Journal
of Space Science & Technology ISSN:
2321-2837(online), ISSN: 2321-6506(print) Volume 5, Issue 1; 2015 The abstract of the article is like that ....”” The Cosmic
Microwave Background Radiation (CMBR) recorded in the 1960s was indelible
proof of the occurrence of the Big Bang. It was the residual heat, the first
rays of light emanating from that explosion, whose wavelength was now stretched
to microwaves. However, cosmologists were baffled by how uniform the map was.
The isotropy gives a hint as to why the Universe is so ordered. The CMBR is
a sumptuous map that represents indelible proof of the occurrence of the
Big Bang. One can quite easily observe the map’s uniformity implying the
isotropy of the primordial Universe Objects reach a temperature equilibrium by
distributing their heat to a nearby object or their surroundings until their
lowered temperature and the recipient’s elevated temperature become equal.
However, the map’s uniformity seems impossible, since accomplishing an
equilibrium between astronomical distances is constrained by the speed of light
— it cannot be achieved instantaneously. Alan Guth proposed that an equilibrium was quickly
achieved just moments after the Big Bang when the atomic entities were in close
proximity. According to him, the equilibrium was promptly succeeded by an
exponential expansion of the Universe. It bloated in less than a fraction of a
second, assuming the structure we now see. He called this phenomenon inflation.
Inflation doesn’t just beautifully explain how the Big Bang might have
occurred, but it can also explain what might have caused it. According to
inflation, empty space continually experiences tiny random quantum fluctuations
where energized pairs of particles and anti-particles can pop into existence,
as long as they exist for an infinitesimal time until before annihilating
themselves instantaneously. Inflation separates these entities before they are
effaced. However, researchers in the 1980s discovered that inflation is eternal
– the greater-than-light-speed expansion stops in some regions but continues in
others. This hints before Rupak Bhattacharya andProfPranab Kr Bhattacharya the formation of a grid of
universes or a multiverse that mimics concatenated soap bubbles, where our
Universe is one amongst them, isolated from our neighbors, who elude any
detection. A multiverse implies that inflation creates infinite universes, each
illustrating different properties, all of which can be traced to mere chance.
Why then are the laws of nature so generously suspended in our favor? A little
dab of misfortune and the constants would have assumed a different value,
debarring our existence!
Schrödinger Cat's Experiment's Interpretation
and Parallel Universe or Multiple Universes
Rupak Bhattacharya1, Pranab Kumar Bhattacharya*, Upasana Bhattacharya, Ritwik Bhattacharya, Rupsa Bhattacharya, Ayishee Mukherjee, Dalia Mukherjee, Hindol Banerjee, Debasis Mukherjee5, Ronok Vyas6 * Research & Reviews: Journal of Space Science & Technology ISSN: 2321-2837(online), ISSN: 2321-6506(print) Volume 5, Issue 1
Quantum mechanics provides us most fundamental descriptions of our most early universe, but there is a long-standing debate amongst theoretical physicists about what all these mathematics really mean in real world? The present three-dimensional (3D) universe, we humans experience daily since our birth, is probably just one of an enormous numbers of essentially classical worlds, and all quantum phenomena arise from a universal force of repulsions that prevented many universes (Multiverse) from having identical physical configurations like ours. Probabilities arise only because of our human ignorance as to which in our world an observer occupies a position in space time. This picture is all that is needed to
explain bizarre quantum effects such as particles that can tunnel through solid barriers and wave behaviour in double-slit experiments or in a warm hole. Our many-interacting-universes approach hinges on our assumption that interactions between deterministically evolving worlds cause all quantum effects. Each world is simply the position of particles in three dimensional space time, and each would evolve according to Newton’s laws, if there were no inter world interactions. A surprising feature of human approach was that the formulation contains nothing that corresponds to the mysterious quantum wave functions, except in the formal mathematical limit in which the number of worlds becomes infinitely large. Conversely, Newtonian mechanics corresponds to the opposite limit of just one world. Thus, our approach should incorporate both classical and quantum theory. As few as two interacting worlds can result in quantum like effects, such as tunneling through a barrier. Many interacting worlds theory (MIW) explains that rather than standing apart, an infinite number of universes in the early time shared the same space and time as ours. They show that the theory can explain quantum mechanical effects while leaving open the choice of theory to explain the universe at large scales. This is a fascinating new variant of multiverse theory that, in a sense, creates not just a doppelganger of everyone but an infinite number of them all overlaying each other in the same space and time. The fine tuning of parameters required to reproduce our present day universe suggests that our universe may simply be a region within an eternally inflating super-region. Many other regions beyond our observable universe might have existed in earlier times with each such universe governed by a different set of physical parameters and laws. Collision between these regions, if they occurred, should have left signatures of anisotropy in the cosmic microwave background (CMB) but have not been seen yet. We assess different mechanisms for this residual emission and conclude that although there is a 30% probability that noise fluctuations may cause foregrounds to fall within 3σ of the excess, there is less than a 0.5% probability that foregrounds can explain all the excess. A plausible explanation is that the collision of our universe with an alternate universe, whose baryon to photon ratio is a factor of ∼4500 larger than ours, could produce enhanced Hydrogen Paschen-series emission at the epoch of recombination. Future spectral mapping and deeper observations at 100 and 217 GHz are needed to mitigate systematics arising from unknown galactic foregrounds and to confirm this unusual hypothesis. After careful analysis of the spectrum of the CMB, Chary et al. found a signal that was about 4500x brighter than it should have been, based on the number of protons and electrons. Scientists believe that this
existed in the very early universe. Indeed, this particular signal, an emission line that arose from the formation of atoms during the era of recombination is more consistent with a universe whose ratio of matter particles to photons is about 65x greater than our own. There s a 30% chance that this mysterious signal is just noise, and not really Hitherto, the scientific community has reached a consensus that the Big Bang erupted from a singularity, a point where all the laws of physics break down, rendering only crude accounts of possibilities beyond it. Right now, without a Theory of Everything, a theory that would hopefully unite classical and particle physics, science can only beat around the bush; it cannot predict without any uncertainty how our Universe began
Rupak Bhattacharya1, Pranab Kumar Bhattacharya*, Upasana Bhattacharya, Ritwik Bhattacharya, Rupsa Bhattacharya, Ayishee Mukherjee, Dalia Mukherjee, Hindol Banerjee, Debasis Mukherjee5, Ronok Vyas6 * Research & Reviews: Journal of Space Science & Technology ISSN: 2321-2837(online), ISSN: 2321-6506(print) Volume 5, Issue 1
Quantum mechanics provides us most fundamental descriptions of our most early universe, but there is a long-standing debate amongst theoretical physicists about what all these mathematics really mean in real world? The present three-dimensional (3D) universe, we humans experience daily since our birth, is probably just one of an enormous numbers of essentially classical worlds, and all quantum phenomena arise from a universal force of repulsions that prevented many universes (Multiverse) from having identical physical configurations like ours. Probabilities arise only because of our human ignorance as to which in our world an observer occupies a position in space time. This picture is all that is needed to
explain bizarre quantum effects such as particles that can tunnel through solid barriers and wave behaviour in double-slit experiments or in a warm hole. Our many-interacting-universes approach hinges on our assumption that interactions between deterministically evolving worlds cause all quantum effects. Each world is simply the position of particles in three dimensional space time, and each would evolve according to Newton’s laws, if there were no inter world interactions. A surprising feature of human approach was that the formulation contains nothing that corresponds to the mysterious quantum wave functions, except in the formal mathematical limit in which the number of worlds becomes infinitely large. Conversely, Newtonian mechanics corresponds to the opposite limit of just one world. Thus, our approach should incorporate both classical and quantum theory. As few as two interacting worlds can result in quantum like effects, such as tunneling through a barrier. Many interacting worlds theory (MIW) explains that rather than standing apart, an infinite number of universes in the early time shared the same space and time as ours. They show that the theory can explain quantum mechanical effects while leaving open the choice of theory to explain the universe at large scales. This is a fascinating new variant of multiverse theory that, in a sense, creates not just a doppelganger of everyone but an infinite number of them all overlaying each other in the same space and time. The fine tuning of parameters required to reproduce our present day universe suggests that our universe may simply be a region within an eternally inflating super-region. Many other regions beyond our observable universe might have existed in earlier times with each such universe governed by a different set of physical parameters and laws. Collision between these regions, if they occurred, should have left signatures of anisotropy in the cosmic microwave background (CMB) but have not been seen yet. We assess different mechanisms for this residual emission and conclude that although there is a 30% probability that noise fluctuations may cause foregrounds to fall within 3σ of the excess, there is less than a 0.5% probability that foregrounds can explain all the excess. A plausible explanation is that the collision of our universe with an alternate universe, whose baryon to photon ratio is a factor of ∼4500 larger than ours, could produce enhanced Hydrogen Paschen-series emission at the epoch of recombination. Future spectral mapping and deeper observations at 100 and 217 GHz are needed to mitigate systematics arising from unknown galactic foregrounds and to confirm this unusual hypothesis. After careful analysis of the spectrum of the CMB, Chary et al. found a signal that was about 4500x brighter than it should have been, based on the number of protons and electrons. Scientists believe that this
existed in the very early universe. Indeed, this particular signal, an emission line that arose from the formation of atoms during the era of recombination is more consistent with a universe whose ratio of matter particles to photons is about 65x greater than our own. There s a 30% chance that this mysterious signal is just noise, and not really Hitherto, the scientific community has reached a consensus that the Big Bang erupted from a singularity, a point where all the laws of physics break down, rendering only crude accounts of possibilities beyond it. Right now, without a Theory of Everything, a theory that would hopefully unite classical and particle physics, science can only beat around the bush; it cannot predict without any uncertainty how our Universe began
His concept in the year 1995 that our universe when started
in the Big bang Singularity at Plancks
epoch it was started from the Zero mass Zero volume and zero time. So a Zero rest
mass particle was required at that very
time and some other particles actually gave the origin of the mass in the higg’s field and he named the particle in the family of the neutrinos particles as “Rupak
Particles( r particles and anti r particles)” and published first as comment in nature journal in 2011 then
at the Guardian and
then at International journal of Astronomy and Astrophysics and Space Science of
Open Science journal Group USA;(
viewer till December 2018 =22, 650) in 2015
and in Research and Review
Journal of Space science and Technology
of STM journal Group USA, in the article Where From mass came in
the universe? Did the mass originated from a zero rest mass p[articles in higgs
field and he told
that higgs particles are not
the massless particles in the universe and there are many types
of higgs particles and possibility of
supersymmetry and susi particles
at cosmoquest forum in 2008
We scientists know that matter
is made up atoms, and atoms are made of protons, neutrons, and electrons. And
we recognize that protons and neutrons are made up of smaller particles called
quarks. Would probing deeper uncover particles even more fundamental? We don’t
know for sure. We do have something known as the standard model of particle
physics, which is excellent at explaining the interactions among subatomic
particles. The standard model has also been used to expect the existence of
previously unknown particles. The last particle to be found this way was the Higgs
boson, which LHC researchers observed in 2012 But according to me
there’s a hitch. “The standard model doesn’t give an explanation for
everything,” “It doesn’t provide an explanation for why the Higgs
particle actually exists. It doesn’t explain in detail why the
Higgs boson has still the mass and decays that it does
In fact, the Higgs turned out to be a heck of a lot less massive than predicted — theory had held that it would be about “a quadrillion times heavier than it’s far,” The mysteries don’t end there. Atoms are known to be electrically neutral — the positive charge of the protons is cancelled out by the negative charge of the electrons — but as to why this is so,, “Nobody knows. Here may be some explanation by us "where From mass came in the Universe? did the mass originate from a zero rest mass particle in Higgs field "Published in Research and review journal of Space science and technology VOl 5 Issue 3 2016 URL https://www.slideshare.net/…/research-reviews-journal-of-sp…
In fact, the Higgs turned out to be a heck of a lot less massive than predicted — theory had held that it would be about “a quadrillion times heavier than it’s far,” The mysteries don’t end there. Atoms are known to be electrically neutral — the positive charge of the protons is cancelled out by the negative charge of the electrons — but as to why this is so,, “Nobody knows. Here may be some explanation by us "where From mass came in the Universe? did the mass originate from a zero rest mass particle in Higgs field "Published in Research and review journal of Space science and technology VOl 5 Issue 3 2016 URL https://www.slideshare.net/…/research-reviews-journal-of-sp…
2] The Cosmic Web, the Seed of Galaxies- Are Also Made
of
Warm Intergalactic Medium(WHIM) and Dark Energy? Global Journal of Science Frontier Research: A
Physics and Space Science Volume 17 Issue 1 Version 1.0 Year 2017
URL https://globaljournals.org/…/E-Journal_GJSFR_%28A%29_Vol_17…
Warm Intergalactic Medium(WHIM) and Dark Energy? Global Journal of Science Frontier Research: A
Physics and Space Science Volume 17 Issue 1 Version 1.0 Year 2017
URL https://globaljournals.org/…/E-Journal_GJSFR_%28A%29_Vol_17…
4] The cosmic Web, the seed of galaxies- are also made
of Warm Intergalactic Medium(WHIM) and Dark energy?
https://forum.cosmoquest.org/showthread.php…
5] Where From the mass came in the Universe ? did the mass Came from a zero rest mass particle in the higgs field?
URL https://issuu.com/…/docs/research___reviews_journal_of_space
https://forum.cosmoquest.org/showthread.php…
5] Where From the mass came in the Universe ? did the mass Came from a zero rest mass particle in the higgs field?
URL https://issuu.com/…/docs/research___reviews_journal_of_space
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