|
CUBA/IRAN:
INMEDIATE THREAT
Dr. Manuel Cereijo,
P.E.
Desde
Miami |
ince
1990,
Cuba
and
Iran
have
cooperated
in
the
development
of
weapons
of
massive
destruction.
Dr.
Miyar
Barruecos,
physician,
very
close
to
Castro,
has
been
the
force
behind
the
throne
in
this
alliance.
Dr.
Luis
Herrera,
from
the
CIGB,
and
one
of
the
main
scientists
in
the
development
of
the
CIGB
and
the
biological
weapon
programs
in
Cuba,
has
been
the
operator,
the
facilitator,
in
the
massive
and
huge
cooperation
between
Cuba
and
Iran.
Cuba
finished,
May
2001,
the
construction
of a
Biotechnology
Center
in
Teheran.
Cuba
served
as
the
source
of
technology,
selling
of
equipment,
and
project
management
for
the
Center.
Iran
has
bought
the
best
fruits
of
the
CIGB,
recombinant
protein
production
technologies
in
yeast
and
Escherichia
coli,
as
well
as
the
large
scale
purification
protocols
for
both
soluble
and
insoluble
proteins
synthesized
in
or
excreted
by
them.
Cuba
obtained
from
Iran,
for
the
turnkey
project
$550
million
dollars.
The
Center
has
over
80,000
square
meters,
and
a
working
area
of
65,000
square
meters.
The
Center
has
facilities
such
as:
A
biotherium,
barrier
zones,
white
rooms,
for
research
with
sensitive
and
lethal
bio
agents,
mass
spectrometers,
infrared
and
ultraviolet
electron
and
scanning
microscopes,
gamma
counters,
DNA
synthesizers.
Also,
and
very
important,
downstream
fermenters,
drying
and
milling
machines,
centrifuges,
which
can
guarantee
research
and
development
of
bioweapons,
such
as
bacteria
and
virus
agents.
The
process
of
weaponizing
anthrax,
for
example,
can
be
done
at
these
facilities.
A
few
grains
of
the
freeze-dried
bacteria
are
kept
in a
stopper
vial.
Then,
a
small
amount
of a
nutrient
medium
is
put
into
the
vial.
A
mother
culture
is
created.
With
tiny
pipettes,
the
mixture
is
drawn
out
of
the
vial
and
a
small
amount
is
transferred
into
several
slightly
larger
bottles.
The
bottles
are
left
to
incubate
in a
thermostatic
oven
for
two
days.
This
process,
up
to
this
point,
is
very
similar
to
the
one
to
make
a
vaccine.
A
seed
stock
in a
standard
vial
will
swell
to
billions
of
microorganisms
after
48
hours,
but
it
will
take
weeks
of
brewing
to
produce
the
quantities
required
for
weaponization.
Once
the
culture
emerges
from
the
oven,
it
is
siphoned
off
into
large
flasks.
The
flasks
are
taken
into
a
special
room,
where
they
are
connected
to
air-bubbling
machines,
which
turn
the
liquid
into
a
light
froth.
The
bacteria
then
grow
more
efficiently.
Each
new
generation
of
bacteria
is
transferred
into
larger
vessels,
until
is
vacuum
pressure
into
fermenters.
The
substance
is
incubated
for
two
days
in
the
fermenters,
until
it
reaches
maximum
concentration.
At
this
stage,
the
process
is
passed
through
a
centrifuge
to
be
concentrated
as
much
as
thirty
times
further.
However,
we
do
not
have
a
weapon
yet.
The
pathogen
has
to
be
mixed
with
special
additives
to
stabilize
it
over
a
long
period.
Then,
the
weapon
is
ready.
Smallpox
virus
can
also
be
produced
at
the
Center.
Tissue
cells
are
obtained
from
animals
or
humans.
The
tissue
is
kept
alive
outside
its
natural
habitat
in
cell
lines
and
stored
at
very
precise
temperature.
Cells
are
obtained
from
the
kidneys
of
green
monkeys
or
from
the
lungs
of
human
embryos.
A
special
combination
of
amino
acids,
vitamins,
salts,
and
sera,
distilled
with
de-ionized
water,
is
crucial
for
the
process.
Iran
can
use
these
technologies
to
create
bioweapons
of
massive
destruction.
Iran,
with
Cuba’s
assistance
is
capable
of
producing
a
bacteria
known
as
Pseudomonas.
The
pathogen
is
not
usually
lethal
to
humans,
but
it
is
an
excellent
battlefield
weapon.
Sprayed
from
a
single
airplane
flying
over
enemy
lines,
it
can
immobilized
an
entire
division
or
incapacitate
special
forces
hiding
in
rugged
terrain
otherwise
inaccessible
to
regular
army
troops-precisely
the
kind
of
terrain
in
Afghanistan,
Pakistan,
and
similar
terrorist
regions.
Besides
Cuban
scientists,
at
least
there
are
about
ten
scientists
from
the
Biopreparat
Russian
Center
working
in
Iran.
The
New
York
Times
reported
in
December
1998
that
the
Iranian
government
dispatched
a
few
scientific
advisors
attached
to
the
office
of
the
presidency
in
Moscow
to
recruit
former
scientists
from
the
Russian
program.
In
May,
1997,
more
than
one
hundred
scientists
from
Russian
laboratories,
including
Vector
and
Obolensk,
attended
a
Biotechnology
Trade
Fair
in
Teheran.
Iranians
visited
Vector,
In
Russia,
a
number
of
times,
and
had
been
actively
promoting
exchanges.
A
vial
of
freeze-dried
powder
takes
up
less
space
than
a
pack
of
cigarettes
and
is
easy
to
smuggle
past
an
inattentive
security
guard.
The
Soviet
Union
spent
decades
building
institutes
and
training
centers
in
Iran
and
Cuba.
For
many
years,
the
Soviet
Union
organized
courses
in
genetic
engineering
and
molecular
biology
for
scientists
from
Cuba
and
Iran.
Some
forty
scientists
from
both
countries
were
trained
annually.
In
1997
Russia
was
reported
to
be
negotiating
a
lucrative
deal
with
Iran
and
Cuba
for
the
sale
of
cultivation
equipment
including
fermenters,
reactors,
and
air
purifying
machinery
from
Cuba
to
Iran,
using
Russian
brokers.
It
is
estimated
that
Cuba
receives
approximately
$
250
million/year
from
Iran
since
July
2001
for
the
technical
assistance
to
operate
the
Center,
and
for
the
supply
of
essential
materials
and
instruments.
Bejucal
Base,
other
Cyber
bases
and
Iran
Bejucal
Base
Located
in
Bejucal,
La
Habana,
Cuba.
20
square
mile
area.
Cost:
$
750
millions.
Built
by
the
Russians
from
1994
to
1997.
Workforce:
1,100
engineers,
computer
scientists,
technicians,
staff.
It
has
three
groups
of
antennas/satellites.
First
group
to
listen
to
general
USA
telecommunications.
Second
group
to
listen
to
pre
designated
phones
and
computers.
Third
group
with
the
voice
recognition
capacity.
It
has
2
HPCs
given
by
PRC.
Operated
now
with
the
cooperation
of
PRC’s
military
personnel.
It
used
to
work
with
Russian
satellites.
Now
it
operates
with
PRC’s
satellites.
It
can
interfere
USA
computer
networks,
and
affect
power
systems,
telecommunication
systems,
emergency
systems,
financial
activities,
and
several
other
critical
infrastructures.
Paseo
Between
11
and
13,
La
Habana.
Dedicated
to
transmission
and
reception
of
radio
waves.
Estimated
cost:
$60
millions.
Radio
and
TV
Marti
interference
headquarters
are
located
here.
Capacity
to
interfere
radio
telecommunications
in
USA,
mainly
in
airports
and
strategic
places.
Cojimar
Electronic
Complex
Located
in
La
Habana
del
Este.
Estimated
Cost:
$20
millions.
Work
on
electronic
experiments,
such
as
HERF.
Wajay
Electronic
Base
Located
in
Wajay,
La
Habana.
Estimated
Cost:
$15
millions.
Weather
change
research.
Radio
interference.
More
than
100
very
high
antennas.
Santiago
de
Cuba
Electronic
Farm
Very
similar
to
the
Wajay
farm.
Located
in
Santiago
de
Cuba,
extreme
east
of
Cuba.
EstimatedCost:
$10
millions.
80
very
high
antennas
Cuba
has
provided
Iran
with
sensitive
intelligence
from
the
Bejucal
Base.
Also,
Cuba
has
provided
important
services,
like
the
jamming
of
TV
signals
transmitted
to
Iran
from
the
United
States.
It
is
estimated
that
Cuba
gets
approximately
$
100
million
dollars
/year
since
mid
1998
to
present
date
for
intelligence
information,
services,
and
training
of
Iranian
engineers
and
technicians
at
the
Bejucal
Base.
APPENDIX
I
(Wire
Service
from
May,2001)
www.
khamenei.
de/news/2001
May
01
Cuban
President
Fidel
Castro
met
with
the
Supreme
Leader
(10.5.2001)
Tehran,
May
10 -
The
visiting
Cuban
President
Fidel
Castro
met
with
the
Supreme
Leader
of
the
Islamic
Revolution
Ayatollah
Khamenei
on
Wednesday.
In
the
meeting,
Ayatollah
Khamenei
stressed
the
Islamic
Republic
of
Iran
regards
any
struggle
and
resistance
against
the
arrogance
as
righteous.
Touching
on
vast
commom
ground
between
Iran
and
Cuba
in
various
areas
including
standing
up
to
the
US,
Ayatollah
Khamenei
said
the
Iranian
nation
feels
attached
to
the
Cuban
nation
because
of
its
resistance
against
the
US
bullying
behaviour
since
this
is
considered
a
value
according
to
Islamic
principles.
Ayatollah
Khamenei
noted
religion
should
be
at
the
service
of
man
and
his
needs,
expressing
regret
that
Christian
Leadership
is
indifferent
towards
justice
as
man's
most
important
need.
"Religious
thought
is
one
based
on a
profound
philosophy
and
strong
logic
and
the
reason
for
the
US
hostility
towards
the
Islamic
Republic
of
Iran
is
the
practical
effects
of
the
Islamic
thought
in
the
world,"
the
Supreme
Leader
told
the
Cuban
presiden
t.
Ayatollah
Khamenei
stressed
the
role
of
the
Islamic
thought
in
filling
the
spiritual
vacuum
in
the
world
today
and
the
special
importance
Islam
attaches
to
justice.
The
Supreme
Leader
remarked
the
key
to
the
steadfastness
of
the
Islamic
Revolution
of
Iran
is
people's
belief
in
Islamic
concepts
and
thought.
On
his
part,
Fidel
Castro
expressed
delight
over
his
visit
to
Iran,
which
he
described
as
the
world's
spiritual
center.
Castro
told
Ayatollah
Khamenei
that
his
remarks
on
Islam
and
religious
concepts
have
greatly
impressed
him.
Castro
termed
the
bullying
practices
of
the
West,
specially
the
US,
as
uncivilized
despite
superficial
propaganda.
"The
Iranian
and
Cuban
nations
can
cooperate
with
each
other
to
ground
the
US,"
he
concluded.
Ayatollah
Khamenei,
Fidel
Castro
Meet
(9.5.2001)Tehran,
May
9,
IRNA
--
Leader
of
the
Islamic
Revolution
Ayatollah
Seyed
Ali
Khamenei
met
with
the
visiting
Cuban
President
Fidel
Castro
Wednesday
afternoon.
Ayatollah
Khamenei
in
the
meeting
referred
to
the
foundations
of
the
Iranian
nation's
Islamic
beliefs
and
the
role
their
strong
belief
in
God
played
in
their
firm
resistance
against
the
global
arrogance,
particularly
the
US
hegemony.
"It
is
based
on
such
beliefs
and
mentality
that
the
Islamic
Republic
of
Iran
regards
any
resistance
against
arrogance
in
the
world
as a
righteous
move,"
said
the
Iranian
Supreme
Leader.
Highlighting
the
numerous
commonalties
between
Iran
and
Cuba,
including
resistance
against
the
US
global
hegemony,
Ayatollah
Khamenei
said,
"our
resistance
against
the
US
hegemony
is
based
upon
our
Islamic
beliefs,
since
in
Islam,
resistance
against
injustice
is a
value.
The
Iranian
leader
elaborated
that
the
main
objective
of
religions
is
being
at
the
service
of
the
mankind
and
fulfillment
of
the
people's
needs.
He
said
that
Islamic
logic
is
today
capable
of
answering
the
mankind's
demands
of
the
day.
Ayatollah
Khamenei
meanwhile
criticized
the
Christian
churches
of
the
day
for
remaining
often
silent
or
indifferent
when
they
encounter
injustice,
while
observing
justice
is
the
highest
need
of
the
mankind.
The
supreme
Iranian
leader
further
remarked
that
the
Islamic
mentality
has
eliminated
the
spiritual
gap
from
which
the
mankind
suffered
today.
He
also
stressed
the
utmost
importance
that
Islam
attaches
to
observing
justice
at
all
circumstances
and
under
any
condition.
Ayatollah
Khamenei
added,
"authentic
religious
thoughts
are
based
on a
deep
philosophy
and
a
strong
logic
and
the
main
reason
why
the
US
administrations
are
at
odds
with
the
Islamic
Republic
of
Iran
is
the
practical
effects
of
the
Islamic
mentality
on
the
world
masses'
minds.
He
also
said
that
the
secret
of
the
Islamic
Revolution's
successful
resistance
against
the
US
pressures
is
the
people's
religious
mentality,
based
on
which
"we
consider
the
American
regime
as
an
arrogant
power,
seeking
a
unipolar
world,
to
which
we
seriously
object."
Reiterating
that
the
American
regime
is
weak
and
extremely
vulnerable
today,
the
Ayatollah
stressed,
"the
US
grandeur
is
quite
fragile
today
and
if
that
objective
is
materialized,
it
is a
great
service
rendered
to
the
mankind,
including
the
American
nation."
Ayatollah
Khamenei
assured
Fidel
Castro
that
Iran
and
Cuba
can
achieve
that
goal,
hand
in
hand.
During
the
meeting,
attended
also
by
Iran's
President
Seyed
Mohammad
Khatami,
President
Castro
expressed
his
heartfelt
delight
over
his
presence
in
Iran,
which
he
said
is a
valuable,
divine
country.
Fidel
Castro
said
that
Iran
is
the
center
of
spirituality
in
the
world
today
and
told
Ayatollah
Khamenei
that
his
words
on
Islam
and
religious
values
had
deeply
impressed
him.
Terming
the
western
approach
towards
different
civilizations
and
religions
as
discriminating,
Castro
said
in
the
West
high
budgets
are
allocated
to
projects
aimed
at
deviation
of
the
mankind's
minds
from
the
sheer
truths
and
realities.
Castro
denounced
the
Western
hegemony
and
said
that
the
West,
and
particularly
the
US
administrations,
despite
their
vast
propaganda,
acts
in a
totally
uncivilized
manner.
He
agreed
with
Ayatollah
Khamenei
on
the
point
that
the
US
is
extremely
weak
today,
adding,
"we
are
today
eye-witness
to
their
weakness,
as
their
close
neighbors."
The
Cuban
President
further
stressed,
"we
are
not
scared
of
America
today,
and
the
Cuban
nation
is
stronger
than
ever
in
the
past,
forty
years
after
the
victory
of
its
revolution."
He
once
again
agreed
with
Ayatollah
Khamenei
on
the
point
that
Iran
and
Cuba
can
hand
in
hand
defeat
America.
The
74-year-old
Cuban
leader,
(presently
77
years
old)
leading
a
ranking
delegation
of
officials
and
businessmen,
arrived
here
Monday
night
on
his
first-ever
visit
to
Tehran
for
a
three-day
stay.
His
visit
to
the
Islamic
Republic
of
Iran
is
mainly
aimed
at
expanding
ties
between
the
two
nations,
in
addition
to
drafting
the
future
scheme
of
the
G-77
of
developing
nations,
whose
presidency
is
currently
held
by
Tehran.
Castro
has
already
held
talks
with
President
Mohammad
Khatami
and
Parliamentary
Speaker
Mehdi
Karroubi.
The
two
countries
have
always
enjoyed
strong
cordial
relations
and
Cuba
has
always
backed
the
Islamic
Republic's
stances
at
international
scenes.
APPENDIX
II
Iran’s
Nuclear
Program
Why
would
Iran,
a
country
that
has
some
of
the
world’s
largest
reserves
of
fossil
fuels,
need
an
extensive,
multibillion-dollar
program
of
nuclear
development?
The
determination
of
this
country
to
build
nuclear
power
plants
has
aroused
wide
suspicion.
What
is
it
like
to
live
in a
world
in
which
the
materials
and
technology
for
making
nuclear
weapons
are
freely
traded?
We
are
in
the
midst
of
finding
out.
Earlier
this
year,
investigators
determined
that
Pakistani
scientist
A.Q.
Khan
sold
some
of
the
technologies
he
used
to
build
Pakistan’s
nuclear
bomb
to
several
governments
that
had
long
sought
atomic
bombs,
including
Iran.
Clearly,
the
threat
of
the
casual
use
of
nuclear
weapons
and
of
nuclear
terrorism
has
been
catapulted
from
the
abstract
to
the
alarmingly
concrete.
A
series
of
revelations
and
new
findings
during
last
year
has
left
little
doubt
that
Iran
has
been
secretly
engaged
in
an
extensive
program
aimed
at
making
and
working
with
material
that
can
be
used
in
nuclear
weapons.
The
Iranians
have
been
assembling
the
nuclear
wherewithal
with
a
speed
and
determination
not
seen
since
the
heyday
of
Iraq’s
nuclear
weapons
programs
of
the
1980s.
Iran’s
quest-biological
center
and
nuclear
development-occurring
in a
region
radically
transformed
by
global
terrorist
networks
and
suicide
tactics,
which
are
fueled
by
deep-rooted
hatreds,
tests
the
will
of
the
international
community
to
block
development
of
WMDs.
North
Korea’s
leader
Kim
Jong
II
started
to
barter
the
country’s
advanced
missile
technology
for
nuclear
know-how.
Reportedly,
it
has
sent
missiles
to
Cuba,
via
Iraq.
Also,
so
many
North
Korean
missile
scientists
are
in
Iran
today
that
a
beach
resort
was
built
for
them.
It
is
the
International
Atomic
Energy
Agency,
IAEA,
that
must
determine
whether
drastic
international
action
is
necessary-a
job
that
is
stretching
its
resources
and
resourcefulness
to
the
limit.
Since
the
1991
Gulf
War,
the
agency
has
been
quietly
transforming
itself,
as
fast
as a
bureaucracy
of
2200
can,
to
burnish
a
reputation
tarnished
by
its
failure
in
the
1980s
to
detect
Hussein,s
once
–
huge
secret
nuclear
weapons
program,
as
well
as
its
failure
not
only
to
alert
the
international
community
regarding
the
Juragua
nuclear
plant
defects
in
Cuba,
but
providing
Cuba
with
over
$18
million
between
1992-1998.
Effective
handling
of
the
Iran
case
will
depend
heavily
on
cooperation
between
the
IAEA
and
the
United
States.
IEAE
director
Mohamed
ElBaradei
and
President
George
Bush
met
on
March
17,
2004,
to
lash
out
differences
and
strategize.
The
IAEA’s
key
findings
about
Iran
are
in
reports
released
in
March
2004
and
November
2003,
with
the
next
important
one
due
this
month.
In
November,
the
IAEA
concluded
that
Iran’s
nuclear
program
consists
of
practically
everything
needed
to
fuel
a
reactor
or
in
effect
to
produce
materials
for
bombs,
including
uranium
mining
and
milling,
conversion,
enrichment,
fuel
fabrication,
and
heavy
water
production.
Furthermore,
following
up
allegations
firs
made
by
IRANIAN
DISSIDENTS
the
year
before,
Iran
has
now
acknowledge
that
it
has
been
developing,
for
18
years,
a
uranium
centrifuge
enrichment
program,
and,
for
12
years,
a
laser
enrichment
program.
Iran
has
conducted
some
nuclear
activities
secretly
because
they
are
under
economic
embargo
and
subject
to
preemptive
strikes,
they
have
received
much
assistance,
paid
by
Iran,
from
Planta
Mecanica,
in
Cuba.as
far
as
aluminum
cylinders
to
enrich
uranium.
The
critical
elements
of
Iran’s
nuclear
program
include
not
just
the
enrichment
plants
at
Natanz
but
also
plants
that
started
being
built
on
July,
2004,
a
30-40
MW
natural-uranium-fueled,
heavy-water
research
reactor,
with
all
associated
equipment.
This
plant
has
been
already
finished.
This
situation
is
more
dangerous
than
ever,
not
only
because
of
Cuba’s
geographic
proximity
to
the
United
States,
but
because
terrorist
groups
like
Osama
Bin
Laden’s
Al
Qaeda
and
Hezbollah,
led
by
Sayyed
Hassan
Nasrallah
are
pursuing
apocalyptic
ends.
APPENDIX
III
Types
of
Uranium
Natural
uranium-
uranium
that
contains
99.3%
of
the
isotope
uranium-238
and
0.7
% of
the
fissionable
isotope
uranium-235
Low
enriched
uranium-
uranium
that
contains
the
isotope
uranium
235
in a
concentration
less
than
20%
and
higher
than
0.7%.
Most
commercial
reactor
fuel
has
been
enriched
to
3-5%
of
uranium
235
Highly
enriched
uranium-
uranium
that
contains
the
isotope
uranium-235
in a
concentration
above
20%.
Highly
enriched
uranium
is
used
in
research
reactors,
naval
propulsion
reactors,
and
weapons.
Depleted
uranium-uranium
with
less
than
0.7%
of
the
isotope
uranium-235
What
is
Uranium
enrichment?
Uranium
enrichment
is a
critical
step
in
transforming
natural
uranium
into
nuclear
fuel
or
weapon
grade
uranium.
Enrichment
is
the
process
of
increasing
the
concentration
of
uranium
235
while
decreasing
the
concentration
of
uranium
238.
Aluminum-clad
cylinders
or
rods
are
essential
in
the
production
of
enriched
uranium
Cuba
Since
the
early
1980s,
Cuba
started
an
intensive
search
for
atomic
minerals
in
its
territory.
The
objective
was
to
provide
these
materials
to
the
nuclear
industry
of
Cuba.
The
department
is
the
DMBA,
Departamento
de
Materiales
Basicos.
The
department
found
uranium
at
the
Northwest
of
Pinar
del
Rio,
called
the
Hierro-Mantua
ore.
Later,
in
the
early
1990s,
Cuba
was
able
to
obtain
Yellow
Kake
(55%
U308).
One
of
the
two
experimental
nuclear
reactors
in
Cuba
is
located
at
the
CIN,
Centro
de
Investigaciones
Nucleares,
of
Pedro
Pi,
Southwest
of
La
Habana.
This
reactor
is
capable
of
converting
U238
to
Uranium
235
or
Plutonium
239,
basic
primary
components
of
an
atomic
bomb.
There
are
reports
that
the
Soviet
Union
delivered
in
1991,
70
pounds
of
enriched
uranium
to
Cuba
for
the
Juragua
reactor.
This
amount
is
sufficient
to
build
5
atomic
bombs.
Due
to
international
regulations,
Iran
cannot
purchased
aluminum
clad
rods
in
the
world
market.
Neither
has
Iran
the
manufacturing
facilities
in
place
to
produce
them.
However,
Cuba
does.
Cuba
has
a
large
manufacturing
plant-Planta
Mecanica-
that
has
the
capacity,
technology,
and
raw
material
to
manufacture
these
kind
of
specialized
aluminum
rods,
so
much
needed
by
Iraq
to
develop
its
nuclear
weapon
capabilities.
Fuel
element
assemblies
methods
include
welding,
swaging,
pinning,
including
box-type
elements
and
cylindrical
element
assemblies.
Planta
Mecanica
is
located
north
and
west
of
the
city
of
Santa
Clara,
in
the
center
of
Cuba.
For
the
last
few
years
its
production
has
been
dedicated
to
specialized
needs
for
the
biotechnology
industry,
as
well
as
the
nuclear
related
industry.
Planta
Mecanica
has
been
a
key
factor
in
the
development
of
Cuba’s
biotechnology
industry,
as
well
as
in
assisting
Iran
with
the
equipment
and
machinery
needed
to
develop
its
biotechnology
industry,
and
that
Iran
cannot
purchase
in
the
world
market.
For
the
last
two
years,
a
large
part
of
Planta
Mecanica
production
facilities
has
been
dedicated
to
produce
aluminum
rods.
Conclusion:
Iran
and
Cuba
have
been
involved
in
terrorist
activities,
where
Cuba
has
been
paid
by
Iran
with
dollars
and
oil.
Cuba
has
been
selling
the
oil
in
the
world
market.
Cuba,
Venezuela
and
Iran
Pose
A
GREAT
THREAT
TO
THE
SECURITY
OF
THE
UNITED
STATES
INTRODUCTION
Natural
uranium-
uranium
that
contains
99.3%
of
the
isotope
uranium-238
and
0.7
% of
the
fissionable
isotope
uranium-235
Low
enriched
uranium-
uranium
that
contains
the
isotope
uranium
235
in a
concentration
less
than
20%
and
higher
than
0.7%.
Most
commercial
reactor
fuel
has
been
enriched
to
3-5%
of
uranium
235
Highly
enriched
uranium-
uranium
that
contains
the
isotope
uranium-235
in a
concentration
above
20%.
Highly
enriched
uranium
is
used
in
research
reactors,
naval
propulsion
reactors,
and
weapons.
Depleted
uranium-uranium
with
less
than
0.7%
of
the
isotope
uranium-235
What
is
Uranium
enrichment?
Uranium
enrichment
is a
critical
step
in
transforming
natural
uranium
into
nuclear
fuel
or
weapon
grade
uranium.
Enrichment
is
the
process
of
increasing
the
concentration
of
uranium
235
while
decreasing
the
concentration
of
uranium
238.
Aluminum-clad
cylinders
or
rods
are
essential
in
the
production
of
enriched
uranium
What
is
nuclear
power?
Nuclear
power
taps
the
ultimate
source
of
energy
which
powers
the
universe
and
its
myriads
of
stars
like
our
Sun.
Nuclear
engineers
deliberately
arrange
to
split
certain
atoms-this
is
called
nuclear
fission.
When
this
happens,
some
matter
gets
destroyed,
liberating
huge
amounts
of
energy.
This
energy
mostly
ends
up
as
heat
from
which
you
can
make
steam
to
drive
turbines
and
generators
(referred
to
in
sections
above),
and
make
electricity
in
power
stations.
By
careful
design
using
material
like
uranium,
engineers
ensure
that
neutrons
collide
with
uranium
atoms,
breaking
them
apart
into
unequal
size
halves.
This
yields
energy
and
more
neutrons
and
is
called
nuclear
fission.
Repeat
this,
and
you
have
even
more
neutrons.
If
the
uranium
is
the
right
type-uranium
235,
a
potent
heat-releasing
but
controllable
chain
reaction
starts
up.
This
is
what
powers
reactors.
Reactors
use
a
low
grade
of
U-235
which
can
not
sustain
the
atomic
bomb
type
reaction.
This
is
why
reactors
contain
tons
of
uranium,
whereas
a
bomb
needs
only
a
few
kilograms.
Because
reactor
grade
uranium,
most
of
which
is
uranium
238
which
is
not
fissile,
contains
only
1 to
2%
U-235,
neutrons
have
to
be
slowed
or
they
simply
bounce
off
other
uranium
atoms.
Engineers
slow
down
the
neutrons
with
a
moderator
which
increases
the
likelihood
of
them
smashing
another
U-235
atom
to
continue
the
reaction.
The
moderator
can
be
graphite
or
ordinary
water,
designated
pressurized
Water
reactors,
PWRs,
the
most
commonest
reactor
type
around
the
world.
In
PWRs,
the
water
slows
the
neutrons
and
also
cools
the
core.
Powerful
pumps
cycle
the
hot
water
out
of
the
reactor
core
into
enormous
steam
generators.
Since
the
early
1980s,
Cuba
started
an
intensive
search
for
atomic
minerals
in
its
territory.
The
objective
was
to
provide
these
materials
to
the
nuclear
industry
of
Cuba.
The
department
is
the
DMBA,
Departamento
de
Materiales
Basicos.
The
department
found
uranium
at
the
Northwest
of
Pinar
del
Rio,
called
the
Hierro-Mantua
ore.
Later,
in
the
early
1990s,
Cuba
was
able
to
obtain
Yellow
Kake
(55%
U308).
One
of
the
two
experimental
nuclear
reactors
in
Cuba
is
located
at
the
CIN,
Centro
de
Investigaciones
Nucleares,
of
Pedro
Pi,
Southwest
of
La
Habana.
This
reactor
is
capable
of
converting
U238
to
Uranium
235
or
Plutonium
239,
basic
primary
components
of
an
atomic
bomb.
There
are
reports
that
the
Soviet
Union
delivered
in
1991,
70
pounds
of
enriched
uranium
to
Cuba
for
the
Juragua
reactor.
This
amount
is
sufficient
to
build
5
atomic
bombs.
Due
to
international
regulations,
Iran
cannot
purchased
aluminum
clad
rods
in
the
world
market.
Neither
has
Iran
the
manufacturing
facilities
in
place
to
produce
them.
However,
Cuba
does.
Cuba
has
a
large
manufacturing
plant-Planta
Mecanica-
that
has
the
capacity,
technology,
and
raw
material
to
manufacture
these
kind
of
specialized
aluminum
rods,
so
much
needed
by
Iraq
to
develop
its
nuclear
weapon
capabilities.
Fuel
element
assemblies
methods
include
welding,
swaging,
pinning,
including
box-type
elements
and
cylindrical
element
assemblies.
Planta
Mecanica
is
located
north
and
west
of
the
city
of
Santa
Clara,
in
the
center
of
Cuba.
For
the
last
few
years
its
production
has
been
dedicated
to
specialized
needs
for
the
biotechnology
industry,
as
well
as
the
nuclear
related
industry.
Planta
Mecanica
has
been
a
key
factor
in
the
development
of
Cuba’s
biotechnology
industry,
as
well
as
in
assisting
Iran
with
the
equipment
and
machinery
needed
to
develop
its
biotechnology
industry,
and
that
Iran
cannot
purchase
in
the
world
market.
For
the
last
two
years,
a
large
part
of
Planta
Mecanica
production
facilities
has
been
dedicated
to
produce
aluminum
rods.
Cuba
and
Venezuela
have
started
cooperation
in
nuclear
development.
Venezuela
is
about
to
purchase
a 27
Mwatts
reactor
from
Argentina.
Cuba
has
sent
to
Venezuela
nuclear
engineers
and
physicists,
to
assist
in
the
development
of
an
infrastructute
on
nuclear
power.
This
new
incursion
on
the
nuclear
development
is a
real
threat
for
the
security,
not
only
of
the
United
States,
but
all
Latin
America.
CUBA:
JURAGUA
EXPERIENCE
In
1976
Cuba
and
the
Soviet
Union
signed
an
agreement
to
construct
two
440-megawatt
nuclear
power
reactors
in
the
south
central
province
of
Cienfuegos,
near
Juragua,
about
180
south
of
Key
West,
Florida.
Juragua’s
nuclear
reactors
are
of
the
model
VVER-440,
of
Soviet
design
and
are
the
first
Soviet-designed
reactors
to
be
built
in
the
Western
Hemisphere
in a
tropical
environment.
The
arrangement
was
aimed
at
alleviating
Cuba’s
dependency
upon
foreign
oil
while
bolstering
its
electricity
capacity.
The
importation
of
oil
has
drained
Cuba
of
its
sparse
hard
currency.
At
the
same
time
the
country’s
production
of
electricity
has
been
fraught
with
difficulties.
As
of
1992
Cuban
power
plants
have
been
working
at
only
47%
of
their
capacity,
leading
to
frequent
blackouts.
This
figure
has
fallen
further
due
to
the
relative
decline
in
the
Cuban
economy
since
1998.
Upon
completion,
the
first
reactor,
Juragua
#1,
would
generate
approximately
15%
of
Cuba’s
energy
demands.
Figure
#s 4
and
5
show
construction
site
of
Juragua
at
two
different
years.
Actual
construction
of
the
reactors
began
in
1983.
The
Soviet
Union
supplied
a
majority
of
the
reactor
parts,
dispatched
technicians
to
supervise
construction,
and
trained
Cuban
engineers
to
operate
the
reactors.
According
to
1992
GAO
report,
Russia
tentatively
scheduled
the
first
reactor
to
be
operational
in
late
1995.
This
was
due
in
part
to
the
Cubans
constructing
the
reactor
lacking
experience
and
with
all
critical
work
being
performed
by
Russians
or
under
their
supervision.
However,
the
breakup
of
the
Soviet
Union
disrupted
construction
at
Juragua.
The
newly
formed
Russian
Federation
in
conjunction
with
its
transitioning
into
a
market
economy
established
new
economic
ties
with
Cuba.
Current
bilateral
ties
between
Russia
and
Cuba,
now,
involve
providing
technical
assistance
to
Cuba
on a
commercial
basis.
At
the
same
time
the
loss
of
Soviet
subsidies
to
Cuba
after
1990
has
sent
the
Cuban
economy
into
decline.
As a
result,
on
September
5,
1992,
Cuba
announced
a
suspension
of
construction
at
Juragua
due
to
Cuba’s
inability
to
meet
the
financial
terms
set
by
Russia
to
complete
the
reactors.
A
September
1992
GAO
report
estimated
that
civil
construction
on
the
first
reactor
ranged
from
90%
to
97%
complete
with
only
37%
of
the
reactor
equipment
installed.
About
25%
of
the
civil
construction
on
the
second
reactor
was
completed
with
the
status
of
the
equipment
unknown.
Cuban-Russian
attempts
to
resume
construction
at
Juragua
took
place
in
October
1995.
A
high-level
Russian
delegation
with
full
backing
of
the
government
arrived
in
La
Habana
to
conclude
an
agreement
to
complete
construction.
To
raise
the
$
800
million
dollars
necessary
to
complete
the
reactors,
Russia
and
Cuba
decided
to
form
a
syndicate
with
potential
third
parties.
Companies
in
Britain,
Brazil,
italy,
Germany,
and
Russia
expressed
interest
in
an
economic
association.
However,
nothing
concrete
came
out
at
that
time.
Cuba
was
rewarded
with
a
$50
million
dollar
grant
loan
from
Russia
for
support
work
at
Juragua.
Cuba
now
receives
financial
support
for
the
Juragua
plant
from
the
International
Atomic
Energy
Agency
(IAEA).
The
AIEA
has
provided
nuclear
technical
assistance
in
atomic
energy
development
and
in
the
application
of
isotopes
and
radiation.
The
AIEA
has
provided
from
1991
to
1996
about
$680,000
to
Cuba
to
develop
the
ability
to
conduct
a
safety
assessment
of
Juragua
reactors,
and
in
preserving
or
“mothballing”the
reactors
while
construction
is
suspended.
This
assistance
increased
during
1997
to
1999.
It
is
estimated
that
through
the
last
20
years
the
IAEA
has
provided
Cuba
with
some
$14
million
dollars.
We
will
dealt
with
this
topic
in a
following
section
of
the
report.
Recent
events
have
lead
to
the
speculation
of
resumption
of
construction
in
the
near
future.
Recently,
July
2000,
an
official
from
the
Russian
Federation
announced
the
intention
to
resume
construction
of
Juragua.
This
will
be
accomplished
through
an
international
consortium
of
countries,
including
Russia.
Upon
resumption
of
construction,
the
Juragua
first
reactor
is
expected
to
be
operational
within
a 14
month
timespan.
Meltdowns
How
can
radioactivity
be
released
from
a
nuclear
power
plant?
The
only
way
that
potentially
large
amounts
of
radioactivity
could
be
released
from
a
nuclear
plant
is
by
melting
of
the
fuel
in
the
reactor
core.
The
fuel
that
is
removed
from
a
reactor
after
use
and
stored
at
the
plant
site
also
contains
considerable
amounts
of
radioactivity.
To
melt
the
fuel
requires
a
failure
in
the
cooling
system
or
the
occurrence
of
heat
imbalance
that
would
allow
the
fuel
to
heat
up
to
its
melting
point,
about
5000
degrees
F.
It
might
seem
that
all
that
is
required
to
prevent
fuel
from
overheating
is
to
promptly
stop,
or
shut
down,
the
fission
process
at
the
first
sign
of
trouble.
Although
reactors
have
such
fast
shutdown
systems,
they
alone
are
not
enough
since
the
radioactivity
decay
of
fission
fragments
in
the
fuel
continues
to
generate
heat
that
must
be
removed
even
after
the
fission
process
stops.
Therefore,
reactors
should
have
redundant
decay
heat
removal
systems.
In
addition,
emergency
core
cooling
systems
should
be
provided
to
cope
with
a
series
of
potential
accidents,
caused
by
ruptures
in,
and
loss
of
coolant
from,
the
normal
cooling
system.
There
are
two
broad
types
of
situations
that
might
potentially
lead
to a
melting
of
the
reactor
core:
the
loss
of
coolant
accident
(LOCA)
and
transients.
In
the
event
of a
potential
loss
of
coolant,
the
normal
cooling
water
would
be
lost
from
the
cooling
systems
and
core
melting
would
be
prevented
by
the
use
of
the
emergency
core
cooling
systems(
ECCS).
However,
melting
could
occur
in a
loss
of
coolant
if
the
ECCS
were
to
fail
to
operate.
The
term
transient
refers
to
any
one
of a
number
of
conditions
which
could
occur
in a
plant
and
would
require
the
reactor
to
be
shut
down.
Following
shut
down,
the
decay
heat
removal
systems
would
operate
to
keep
the
core
from
overheating.
Certain
failures
in
either
the
shutdown
or
the
decay
heat
removal
systems
also
have
the
potential
to
cause
melting
of
the
core.
The
water
in
the
reactor
cooling
systems
is
at a
very
high
pressure
(between
50
to
100
times
the
pressure
in a
car
tire)
and
if a
rupture
were
to
occur
in
the
pipes,
pumps,
valves,
or
vessels
that
contain
it,
then
a
blowout
would
happen.
The
specific
LOCA
initiating
events
have
been
identified
as:
The
water
in
the
reactor
cooling
systems
is
at a
very
high
pressure
(between
50
to
100
times
the
pressure
in a
car
tire)
and
if a
rupture
were
to
occur
in
the
pipes,
pumps,
valves,
or
vessels
that
contain
it,
then
a
blowout
would
happen.
The
specific
LOCA
initiating
events
have
been
identified
as:
A.
Small
pipe
breaks
B.
Large
disruptive
reactor
vessel
ruptures
C.
Gross
steam
generator
ruptures
D.
Ruptures
between
systems
that
interface
with
the
cooling
system
Studies
have
indicated
that
a
core
meltdown
in a
large
reactor
would
likely
lead
to a
failure
of
the
containment.
Therefore,
the
containment
integrity
is
very
important.
Fuel
melting
accidents
release
more
than
200
different
radioactive
substances,
of
which,
54
are
very
dangerous.
The
Nuclear
Regulatory
Commission,
NRC,
which
oversees
the
United
States’
nuclear
power
plants,
says
exposure
should
not
exceed
25
millirem
per
year,
while
the
Environmental
Protection
Agency,
EPA,
has
set
a
standard
of
15
millirem,
with
ground
water
levels
not
to
exceed
4
millirem.
Aroutine
chest
X-ray
contains
6
millirem.
Dosages
above
30,000
millirem
are
known
to
cause
cancer,
and
levels
of
400,000
millirem
can
cause
death
in
days.
Another
international
unit
used
is
the
curie.
For
example,
the
nuclear
accident
at
Chernobyl,
the
worst
nuclear
accident
to
date,
spewing
about
100
million
Curies,
or
4x10^18
becquerels,
of
radioactive
material
into
the
environment.
By
contrast,
the
Three
Mile
Island
released
only
some
15
Curies.
International
Atomic
Energy
Agency(IAEA)
Since
1958,
the
IAEA,
in
promoting
the
peaceful
uses
of
nuclear
energy,
has
been
providing
nuclear
technical
assistance
to
its
member
states
through
projects
that
supply
equipment,
expert
services,
and
training.
Currently,
more
than
90
countries
receive
nuclear
technical
assistance,
mostly
through
over
1,000
projects
in
IAEA’s
technical
cooperation
program.
The
United
States
is a
member
of
IAEA
and
its
major
financial
contributor.
IAEA
is
providing
nuclear
technical
assistance
to
Cuba
in
10
program
areas,
including
general
atomic
energy
development,
the
application
of
isotopes
and
radiation
in
medicine,
agriculture,
and
nuclear
safety.
Most
of
the
assistance,
however,
has
been
for
Cuba’s
partially
constructed
nuclear
power
reactors.
IAEA
spent
about
$12
million
on
nuclear
assistance
projects
for
Cuba
since
1963
through
1996.
About
75%
of
the
assistance
Cuba
received
through
these
projects
consisted
of
equipment,
radiation
related
instruments,
and
laboratory
equipment.
The
rest
was
in
the
area
of
general
atomic
energy
development.
IAEA
recently
approved
an
additional
$1.7
million
for
nuclear
technical
assistance
projects
for
Cuba
for
1997
through
1999.
In
addition,
IAEA
spent
about
$2.8
million
on
training
Cuban
nationals
and
research
contracts
for
Cuba.
The
United
States
contributes
about
40%
of
the
total
funds
of
the
agency
for
such
projects.
IAEA
is
assisting
Cuba
in
developing
the
ability
to
conduct
assessments
of
the
nuclear
power
reactors
and
in
preserving
or
“mothballing”
the
reactors
while
construction
is
suspended.
Nuclear
Waste
Disposal
The
disposal
of
radioactive
waste
from
nuclear
power
plants
is a
very
serious
problem.
Nuclear
waste
can
be
generally
classified
as
either
low
level
radioactive
waste
or
high
level
radioactive
waste.
Low
level
nuclear
waste
usually
includes
material
used
to
handle
the
highly
radioactive
parts
of
nuclear
reactors,
like
cooling
water
pipes
and
radiation
suits,
and
waste
from
medical
procedures
involving
radioactive
materials.
Low
level
waste
is
comparatively
easy
to
dispose
of.
High
level
radioactive
waste
is
generally
material
from
the
core
of
the
nuclear
reactor.
Most
of
the
radioactive
isotopes
in
high
level
waste
emit
large
amounts
of
radiation
and
have
extremely
long
half-lives,
some
larger
than
100,000
years,
creating
long
time
periods
before
the
waste
will
settle
to
safe
levels
of
radioactivity.
Radioactive
wastes,
being
highly
toxic,
can
destroy
or
damage
living
cells,
causing
cancer
and
possibly
death
depending
on
the
quantity
and
length
of
exposure.
In
addition,
radioactive
material
can
be
mutagenic,
thereby
transmitting
biological
damage
into
the
future.
Every
12-24
months
the
reactor
of a
nuclear
power
plant
is
shut
down
and
the
oldest
fuel
assemblies,
which
have
released
their
energy
but
have
become
intensely
radioactive
as a
result
of
fission,
are
removed
and
replaced.
The
fuel
which
has
been
consumed
is
known
as
“spent”
nuclear
fuel,
SNF.
Spent
nuclear
fuel
can
be
dissolved
in a
chemical
process
called
“reprocessing”,
which
is
used
to
recover
desired
radionuclides.
If
SNF
is
not
reprocessed
prior
to
disposal,
it
becomes
the
waste
form
without
further
modification.
The
only
commercial
reprocessing
facility
to
operate
in
the
United
States
closed
in
1972.
Since
that
time,
no
commercial
SNF
has
been
reprocessed
in
the
United
States.
Where
are
the
wastes
stored
now?
Today,
most
SNF
is
stored
in
water
pools
or
above-ground
in
dry
concrete
or
steel
canisters
at
more
than
70
commercial
nuclear-power
reactor
sites
across
the
nation.
Also,
waste
is
stored
underground
in
steel
tanks
at
four
Federal
facilities
in
Idaho,
Washington,
South
Carolina,
and
New
York.
Plans
are
to
store
SNF
at
Yucca
Mountain
repository
in
Nevada.
All
high
level
radioactive
waste
must
end
its
journey
in
long
term
storage.
The
waste
must
not
be
allowed
to
escape
to
the
outside
environment
by
any
foreseeable
accident,
malevolent
action,
or
geological
activity.
This
includes
accidental
uncovering,
removal
by
groups
intending
to
use
the
radioactive
material
in a
harmful
manner,
leeching
of
the
waste
into
the
water
supply,
and
exposure
from
geological
movement
activity.
The
extreme
lethality
of a
freshly
removed
spent
fuel
bundle
is
such
that
a
person
standing
within
a
meter
of
it
would
die
within
an
hour.
The
hazards
associated
with
transportation,
in
particular
the
possibility
of
accidents,
are
very
serious.
Therefore,
the
minimization
of
handling
and
transporting
spent
fuel
is a
desirable
objective.
Cuba
has
nuclear
waste
since
1993.
Conclusion:
Iran
and
Cuba
have
been
involved
in
terrorist
activities,
where
Cuba
has
been
paid
by
Iran
with
dollars
and
oil.
Cuba
has
been
selling
the
oil
in
the
world
market.
Cuba,
Venezuela
and
Iran
Pose
A
GREAT
THREAT
TO
THE
SECURITY
OF
THE
UNITED
STATES
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