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SN
1987 A and the Neutrino
by
Ricardo L. Carezani
Introduction
Let
us concentrate on one of the *key* phrases in the major publication on
the evidence for neutrinos during the 1987 supernova explosion:
"...The
coincidence between the two results provides OVERWHELMING evidence that
the neutrinos, formed at the instant the supernova's core collapsed, did
INDEED come from this start".
Great
science indeed! We suppose what we are trying to prove: neutrinos! Regardless
of the circularity of this phrase, let us look at the facts.
Looking at the Data
The
Supernova's light was registered on a photographic plate took on the night
of January 24, starting at 24.06 Universal Time (UT) (1 h 26 m 24 s) and
finishing its routine exposure at 4 h 12 m. A similar photograph was taken
25 hours earlier at exactly the same place. On it, the supernova was no
brighter than 12th magnitude. There is no trace of light from a stellar
explosion on this plate. This is day 23 at minute, 0 h (UT) more or less.
I don't have the exact duration but normal exposure time for this type
of photographic plate is more or less 3 hours. That is, the supernova's
light didn't arrive at Earth until around 3 o'clock.
The
fact is that we really don't know exactly at what time the supernova light
arrived on Earth. The first supposed neutrino burst registered at Mont
Blanc was at 2 h 52 m 36.8 s. If neutrinos arrived before the supernova's
light, then they traveled *faster* than the light speed. If neutrinos
arrived after the Supernova's light, they traveled *slower* than the light
speed. But whether they were "faster" or "slower" doesn't change the fact
that they should arrive simultaneously at each device. If the supernova
light arrived precisely at the last minute registered on the photographic
plate, there is the following fact which needs explanation: Neutrinos
arriving at Mont Blanc were not detected at IMB, KAMIOKANDE II, and at
SOUTH DAKOTA. The neutrinos were detected by 1 of 4 devices, or by 25%.
This gives us the first fact:
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FACT
1
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The
supposedly "OVERWHELMING" evidence is reduced to very weak
evidence: %25 of the neutrino detectors reported activity.
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Neutrinos
arrived at IMB 6 seconds later than at Kamiokande II, but, as the experimenter
says, "within the uncertainty of the latter's timing", even though this
is not accepted by many physicists as we will see. Accepting this doubtful
simultaneity of arrival time, we still have the fact that neutrinos were
not detected at MONT BLANC and SOUTH DAKOTA. Thus:
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FACT
2
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Accepting
that there *is* simultaneity between Mont Blanc and Kamiokande
II, the evidence is only 50%, which is not too OVERWHELMING.
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It
is assumed that 10 billion neutrinos per square centimeter pass through
the earth per second. Given that SN 1987A is around 180,000 light years
from the earth, an equivalent solar mass of 10 to 15 percent must be converted
in the supernova to neutrinos in order to receive the *assumed* number
of neutrinos.
Where
is the fantastic new mechanism needed to create the incredibly large amount
of 10 billion neutrinos per square centimeter from such an incredible
distance? This mechanism, besides having no explanation, produces results
that are dissimilar to known solar mechanisms. Thus fact 3:
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FACT
3
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No
mechanism given to explain the incredible number of neutrinos
*assumed* to have arrived on earth.
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To
explain the neutrinos detected at Kamiokande II 12 seconds later than
the first burst, "a neutrino sphere, which is only some tens of kilometers
in radius" trapped the neutrinos and then released them several (12) seconds
after the initial burst. This is not totally true because there are other
neutrinos bursts detected at Kamiokande II and at IMB, with different
arrival times. In all, there are a total of 19 bursts: 11 at Kamiokande
and 8 at IMB.
This
simply means that the "neutrino sphere" blow out neutrinos at many different
times. No one could explain the fantastic hypothesis of how the sphere
trapped particles without mass, or what is worst, without electric charge,
and release them at different times.
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FACT
4
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No
explanation given for the neutrino sphere. (Meaning: if we
can only detect 1 out of billions and billions and billions
what fantastic device can trap them, and then release them?
Was the universe different there than it is here for the supernova
explosion?)
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More...
The
uncertainty concept of arrival time between IMB and Kamiokande II is irrelevant.
Each device controls time independently, meaning time is independent between
devices. Yet, somehow "Universal Time" is claimed to be known to extreme
accuracy between each device.
Supposing
we adjust the arrival time of IMB to be that of Kamiokande II. This would
eliminate the uncertainty of arrival time. If we place the IMB burst at
41.3 s and the Kamiokande II burst at 35 s, then, superpose the line and
two dots, we can see that there are coincidence in the first, second and
fifth burst(more or less). That is, from 8 bursts there is coincidence
in three bursts. But remembering that there are a total of 19 bursts,
then there are only three coincidences out of a total of 19 bursts.
The
uncertainty argument is not valid because using it makes the coincidence
argument very weak. And remember: no phenomena was recorded in the other
two devices. This leads us to:
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FACT
5
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Extremely
tenuous explanation for proof of coincidence.
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The
importance given to this phenomenon - the sequential time of neutrinos
arrival - is an hypothesis by itself. But this hypothesis destroys arrival
time uncertainty, and as consequence we get the most convincing fact:
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FACT
6
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NO
NEUTRINOS ARRIVED SIMULTANEOUSLY AT ANY OF THE 4 DEVICES.
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Finally,
the most damning evidence we have found for the solar neutrino and SN1987A
is the following: It is accepted that around 20 (19) neutrinos (11 at
Kamiokande and 9 at IMB) were detected from the supernova, and it is accepted
that 10 billion neutrinos per square centimeter per second pass through
the Earth coming from the Sun. (all calculations being based on the Sun).
I
will accept that the phenomenon took 12 seconds and that the events were
detected by only two devices.
Now
we will use logic and arithmetic:
If
10 billion neutrinos per square centimeter per second yield 20 neutrino
reactions in two devices (especially designed for neutrino detection)
in 12 seconds, the number of neutrino reactions in 24 hours in two devices
is:
(60 * 60 * 24 * 20) / 12 = 144,000 neutrinos
events
per DAY. And you say:
Therefore,
we should receive less than 20 neutrino events per day and, calculating
using the neutrino hypothesis from the Supernova, this means that we should
detect 144,000 events EVERY DAY.
I
am aware of the argument describing the energy relation between neutrinos
from the Supernova and the Sun. The devices are designed to detect neutrinos
from the Sun and the argument might seem irrelevant. But, even accepting
an extreme difference, the quantity can be reduced, at maximum, by a factor
of 10, thus yielding 14,400 events EVERY DAY.
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FACT
7
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Neutrino
existence using SN 1987A - yields an absurd conclusion: namely
that 14,000 neutrino events per day must be observed in solar
neutrino detectors in order to say that the explosion of SN
1987A yielded neutrinos.
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Conclusion
Putting
together all 7 facts, the *overwhelming* neutrino evidence is replaced
by an overwhelming evidence of "the pharaoh's science" (i.e. nothing).
(For
those of you not familiar with the pharaoh's science", you can perform
it yourself with a table and ruler: measure an arbitrary number of table
parts, use an arbitrary equation, and come up with PI. Anyone can do it!
Really!!)
(Of
course, this says nothing about whether we could really detect neutrinos
in the first place! But this FAQ sticks to the facts, regardless one's
belief in the neutrino)
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