        
      
Proof Number Three:
That the NTSB Report contains
evidence which supports missile fire...
Example Two: The FDR contains evidence
supportive of missile attack.
Basic Presumptions: 1) That a supersonic
shock wave or the shock wave of a missile exploding nearby to an aircraft
will have an effect on instrumentation which is sensitive to air pressure,
air flow, or otherwise delicately sensitive to movement; 2) That the FDR
will record such variations according to its prime function until point
of failure; 3) That any indication in the FDR data supportive of missile
fire should be sufficient to warrant suspicion that missile fire took place.
As preface, there are multiple schools
of thought as to exactly what kind of missile attack took place. One contends
that a single test-fired dummy missile without a warhead passed through
the aircraft. Another contends an exploding warhead using a proximity detonation
exploded very near the plane low and forward of the wings. Another feels
that both are likely, the exploding warhead missile likely fired in an
attempt to intercept the errant missile before it could strike Flight 800,
but simply fired too late, the interception point being somewhat coincidental
in time and space.
The key FDR data can be somewhat
problematic because there are so many information sets to address, and
because it is difficult to explain some material with suitable briefness.
This review will be the first to recognize that some of the indicators
do not necessarily appear to support missile fire. Indeed, some of the
readings are simply bizarre, and may have resulted from unexpected effects
simply not yet understood, or, they may be trying to tell us something
else about what happened. Only a complete, open, and honest investigation
will have hope of final resolution of all matters, and like many things
in air crash investigations, some things may never be fully explained.
Some may wish to follow the lead
of NTSB and disallow the data at issue by claiming the FDR was receiving
faulty data. Yet there are several indications within the data itself which
show the FDR is collecting good data, more than those covered elsewhere
within this review. Any corrective reading, and there are many instances
of this, indicate proper operation of the system, and good data. The issue
is, if the data is good, then its relevance is very important to understanding
what happened. What follows is a simplified review of FDR information in
an attempt to show FDR does support missile fire.
Further, it is important to consider
anything which follows -- the 'old data' NTSB ignores. Where the 'old data'
matches either pre-event Flight 800 data or corresponding event-altered
data, then we MUST reconsider two possible conclusions: 1) That the "old
data" is actually Flight 800 data after all; 2) That the FDR data is GOOD
data which is telling us what happened.
Altitude dropped from 13772 (and climbing) to 10127
Approximately 3,650 feet lost
'Old data' simply drops off the scale
This, of course, is an impossible drop
in under 1 second. If this is old data, the old airplane could be crashing.
Clue: Engineers agree that both a
supersonic shock wave and the explosion of a nearby missile will produce
a shock wave which would increase atmospheric pressure upon altitude sensors
(external of the aircraft) based upon barometric pressure. Commander Donaldson's
group explains that it only takes 1.32 PSI of overpressure to cause an
indicated drop of this magnitude. If a precise warhead's explosive performance
was known, the distance from the sensor at detonation could be determined
based on the indicated altitude drop, because blast wave overpressures
fall off at the square of the distance. What is troubling is that the altitude
reading never recovers, perhaps because of failure or blast-force damage
to the sensor, such as a bending or flattening of the sensor tube's opening.
An explosion in the CWS would be too small a shock wave to produce this
result, as its overpressures would be less than required by a magnitude
of 10 times, according to Donaldson.
The 'Old Data' would suggest the
airplane involved was in a dive straight down. This, too, cannot be, and
refutes the notion it is old data at all (when and where did THAT plane
crash?). It also suggests damage to the external sensor which sends this
signal -- an even consistent with missile theory, but inconsistent with
CWT failure.
Airspeed dropped from 298 k (was mildly accelerating) to
100 k
A loss of 198 k
'Old data' indicates 300 k
(continued acceleration -- return to normal)
This, too, is an impossible change in
one second. If there is old data, both planes are remarkably similar in
performance.
Clue: The answer is much the same
as for altitude. The airspeed sensor is also dependent upon outside airflow
for its readings. For much the same reasoning, it is very likely that a
shock wave would cause a drop in IAS. Likewise, a CWS explosion is claimed
to be too little to account for this reading. Unlike altitude, the reading
recovers in the 'old data', indicating the FDR is working properly, and
the reading valid and telling.
Pitch changed from a nominal 3.6/4.0 deg. to 8.9 deg.
with a correction to 2.2 deg.
(series of fluctuations,
larger up than down)
'Old data' indicates continuance 2.2 deg.
This is an emergency level change. If
there is old data, it is identical in performance to the Flight 800 corrected
data, a remarkable happenstance.
Clue: Any upward blow amid ships
by either a missile or a blast or just ahead of the wings would cause a
minor pitch change, in this case 4.7 degrees. As the aircraft settled from
the blow, loss of aerodynamics and an increase in drag due to airframe
damage would cause a subsequent drop. A CWS blast which vents forward into
the cargo bay as claimed by NTSB would not likely cause this reading. The
corrections indicate the FDR is working properly, the reading valid and
telling.
Elevator Position Right went from a nominal .01/.04 deg.
to 11.20 deg.
with a correction to -.02 deg.
'Old data' continues at -.02 deg.
This is an emergency level change. If
there is old data, it is identical in performance to the Flight 800 corrected
data, a remarkable happenstance.
Clue: A lateral blow by a supersonic
missile strike from the left should cause a reactionary shift of rudder
as indicated, one self corrective by means of air-flow influence and flexing
in absence of direct pilot instructions to any change. The correction should
not be complete, however, as the aircraft should be deflected slightly
off course. Donaldson simply thinks the shock wave caused minor movement
of the Pilot's yoke assembly. A centrally located CWS explosion should
have no effect on Rudder. The corrections AND 'old data' indicate the FDR
is working properly, the reading valid and telling.
Magnetic Heading went from 82 deg. steady to 163 deg.
with a correction to 276 deg.
'Old data' ceases altogether
This is an impossible 'spin' for an
aircraft to undertake in one second's time. If this is old data, the old
plane is crashing.
Clue: All agree a shock wave of impact
or explosion can cause a delicate gyroscope-based compass system to fluctuate
wildly, and it should be self corrective. The instrument may have subsequently
failed or the signal line may have been severed. Not enough is known about
this system design to make a complete determination of effects, but most
agree this is a likely symptom. It is not known if a CWS blast would be
capable of duplicating this effect.
Roll Angle went from a nominal 0.0/1.0 deg. (level flight)
to 144.0 deg.
(nearly fully inverted) with a correction to 0.0 deg.
'Old data' continues normally at 0.0 deg.
An impossible 'banking maneuver' for
an aircraft to make in one second's time. If there is old data, it is remarkably
identical to Flight 800's corrected readings.
Clue: As above. The gyroscope, mounted
on the wingtip, would likely experience sudden torque-forces. A gyroscope
tends to rotate at right angels to force applied. It is not considered
likely that a CWS blast would be capable of duplicating this effect. The
corrections indicate the FDR is working properly, the reading valid and
telling.
Rudder Position Upper went from nominal .63/.72 deg. to
77.76 deg.
with a first correction: -36.54 deg.
with a second correction: 0.72 deg. -- normal
'Old data' indicates normal continuance at 0.72 deg.
These are emergency level readings.
If there is old data, it is remarkably identical to Flight 800's corrected
readings.
Clue: As with rudder right shift,
a blow from the bottom of the aircraft should cause an appropriate reactive
rudder upper shift in the opposite direction, and correction. It is not
known if a CWS blast would be capable of duplicating this effect. The corrections
indicate the FDR is working properly, the reading valid and telling.
Angle of Attack went from steady 3 deg. to 106 deg.
with a first correction: 30 deg.
with a second correction: 3 deg. -- back to normal
'Old data' continues normally: 3 deg.
This is an impossible actual flight
maneuver in less than one second. If there is old data, it is remarkably
identical to Flight 800's corrected readings.
Clue: The angle of attack is a vane
which rides in the air stream. A shock wave which either directly impacts
the vane or deflects the air stream would cause a fluctuation, corrected
as the air stream returns to normal. A CWS failure shock wave originating
at the bottom of the aircraft would not reach the vane, which is apparently
mounted on the left wing. The corrections indicate the FDR is working properly,
the reading valid and telling, and tying 800 well into 'old data'.
Engine Power Rating ratios:
Engine #1 went from nominal 1.30/1.31 steady
to 1.14, NO CORRECTION
Engine #2 went from nominal 1.29/1.30 steady
to 2.46, NO CORRECTION
Engine #3 went from nominal 1.29/1.30 steady
to 2.36, NO CORRECTION
Engine #4 went from nominal 1.29/1.30 steady
to 2.44, NO CORRECTION
'Old data' for all engines continues
steady at higher-than-normal readings except for Engine #1
At this time, there is no consensus
as to how a shock wave might or might not account for these readings, which
like altitude and airspeed, are dependent upon air pressure readings. However,
these readings are within the engines themselves, subject only to airflow
through the engines. There are theories based on disruption of airflow
to the engines, but this would not explain steady readings after the impact
-- the most problematic readings in the 'old data'. There are theories
that the throttle was knocked askew or changed by pilot action at that
instant, but the performance of the engines could not produce an instantaneous
response indicated. CWS failure also fails to account for these readings.
Note: Most all experts agree that
if a missile explosion or shock wave were to somehow effect these readings,
the relative position of the engine on the aircraft would determine its
susceptibility to change and the amplitude thereof. If a blast were undernh
the right-side fuselage and barely forward of engine number 3, for instance,
number three might receive less impact than numbers 4 and 2, which would
have more sympathetic angles of attack (more receptive) to shock waves.
Engine #1, furthest away, would suffer the least change as it would be
least susceptible.
Casual discussion with aircraft mechanics ~ suggest that since fuel is
stored in wing tanks, any overpressure against the wing's surfaces would
likely increase the internal tank pressure which, in turn, should slightly
increase fuel flow rates and thus, engine performances should rise as shown
here, except for the engine furthest away from the point of overpressure.
The problem with engine #1 is that it drops in performance rather than
remaining constant or (as the others did) increasing. This suggests some
fuel starvation or other external forces were involved, such as a damaged/crimped
fuel line or metal-distortion-caused effect on the throttle control system.
Longitudinal Acceleration went from 0.10 g
steady to 0.18 g
with
a first correction: 0.18 g
with a second
correction: 0.05 g
'Old data' indicates continuance: 0.05 g
These are very telling readings. If
there is old data, it is remarkably identical to Flight 800's corrected
readings.
Note two consistent readings which
suggests validity of the data. A missile strike obliquely in the forward
direction from the bottom of the aircraft while in climb should produce
some momentary increase in forward acceleration, followed by a 'coasting'
period where the aircraft slows back to powered speed, and perhaps slower
due to increased drag from airframe damage. This effect would dramatically
increase as pieces began to rip off the aircraft.
Vertical Acceleration went from a nominal 0.89/0.92 g
steady to -0.89 g
with a first correction: -0.89 g
with a second correction: 1.02 g
'Old data' indicates continuance: 1.02 g
These are also important readings. If
there is old data, it is remarkably identical to Flight 800's corrected
readings.
Clue: Again note two identical successive
readings as well as continuance of 'old data' in agreement with corrections.
This is perhaps the best single indicator the FDR is working properly,
and that we need to pay attention to the readings. This may also be one
of the more important readings of the entire set for determining event
sequences. We might think that just like Longitudinal Acceleration, impact
by a missile or blast shock wave should send this reading high, at first,
and then see it settle down. This seems the opposite effect, here. It is
the only reading outside of engine performance which might be claimed as
contrary to supporting missile fire, but this is not actually the case.
The unexpected results lead to new insight.
The sensor for this is located on
the fuselage well aft of the wings. If the nose is suddenly pitched upwards
due to explosive or impact force, rather than being 'flown' upwards, the
rear of the aircraft should experience a kind of equal-but-opposite reaction
as the airframe effectively pivots about the wings, which provide the primary
anchor/lift point in the air stream. This accounts for the negative g change.
A CWS failure venting forward into the cargo bay would not likely account
for this change. But the reading then indicates a final increase in g's
even beyond the original, and this is perhaps more telling.
If a missile penetrated the aircraft
in a way that caused the airframe to destruct and fracture along the skin
circumferentially, the nose would tend to buckle downward under the weight
upon a ruptured keel. The lift provided by the wings would pull upward
on the body and against the sagging nose, and the aircraft would try to
climb faster than before. This reading looks like the very start of that
process. The nose immediately droops and begins to stress the airframe,
and we are looking at the readings which are showing signs of the structural
decay of the fuselage which leads to the nose falling completely away.
Summary: It seems clearly a mistake
for NTSB to throw out these readings. Of course, they are literally self-excused
to so do so by being blessed/instructed by FBI or other powers to IGNORE
missile scenarios. However, the readings paint a clear picture of what
happened to the craft -- exactly what the FDR is supposed to do. They are
supportive of missile fire.
NEXT EXAMPLE
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