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NUCLEAR ENERGY FURTURE IN THE MIDDLE EAST

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Title: NUCLEAR ENERGY FURTURE IN THE MIDDLE EAST


1
The International Meeting on Nuclear Energy on
Proliferation in the Middle East Amman Jordon,
June 22-24, 2009
NUCLEAR ENERGY FURTURE IN THE MIDDLE EAST
Dr. Esmat A. Ezz Egypt
2
Introduction
3
Introduction
  • It is stated that the total energy supply in
    1994, was about
  • 54 percent derived from oil and gas,
  • 22 percent from coal, 12 percent from biomass
    fuels and
  • about 6 percent each from hydropower and nuclear
    fission.
  • the contribution from geothermal energy,
    wind-power and direct use of solar energy totaled
    less than a half percent.
  • Of the world fossil-fuel use, the industrialized
    countries accounted for almost three quarters.

4
Introduction
  • Human activities rival or exceed natural
    processes as mobilizers of
  • sulfur oxides,
  • nitrogen oxides,
  • hydrocarbons,
  • lead,
  • cadmium,
  • mercury and
  • suspended particulate matter in the global
    environment

5
Introduction
  • Actions of the humans have increased the global
    atmospheric burden of
  • carbon dioxide by almost 30 percent and
  • the methane by more than 100 percent
  • Compared to pre-industrial levels and among all
    human activities
  • levels and among all human activities,
  • the technologies of energy supply-
  • above all, fossil-fuel and
  • biomass energy technologies-are the dominant
    sources of most of these global pollutants and
    significant sources

6
Introduction
  • Actions of the humans have increased the global
    atmospheric burden of
  • carbon dioxide by almost 30 percent and
  • the methane by more than 100 percent
  • Compared to pre-industrial levels and among all
    human activities
  • levels and among all human activities,
  • the technologies of energy supply-
  • above all, fossil-fuel and
  • biomass energy technologies-are the dominant
    sources of most of these global pollutants and
    significant sources

7
Introduction
  • Global warming Carbon dioxide release from
    fossil-fuel burning is the largest single
    contributor is arguably the most dangerous of all
    of the environmental impacts of human activity.
  • Climate affects- and climate change can
    drastically disrupt- most of the other
    environmental conditions and processes
  • magnitude and timing of runoff,
  • frequency and severity of storms,
  • sea level and ocean currents,
  • soil conditions,
  • vegetation patterns and distribution of pests and
    pathogens ,among others..

8
Increasing Carbon Dioxide
Malinkovich cycle attributed to Earths orbital
anomalies
Measured Surface Temperature the past 150 years
5 warmest years 1998, 2002, 2003, 2004, 2005
Source NASA Goddard Space Flight Center
9
Global Temperature Variability
Sir N. Stern report compares fossil-fuel Based /
Climate-Friendly Scenarios
Ref Dr. Maryvonne Plessis-Fraissard
World Bank
Every year we pump more than six billion tones of
carbon emissions into the air from burning fossil
fuel, despite a general consensus that this
contributes directly to climate change.
Source NASA Goddard Space Flight Center
10
Climate Atmosphere (CO2, H2O, N2O, CH4, etc)
Intensive agriculture
Extensive agriculture
Wetlands freshwater systems
Forests
effects of ecosystem function on climate
atmosphere
impact of climate atmospheric change on
ecosystems
Source GIS " Climat-Environnement-Société "
11
Climate Atmosphere (CO2, H2O, N2O, CH4, etc)
Intensive agriculture
Extensive agriculture
Wetlands freshwater systems
Forests
Water Table
effects of ecosystem function on climate
atmosphere
effects of ecosystem function on water flow
water quality
impact of climate atmospheric change on
ecosystems
Source GIS " Climat-Environnement-Société "
12
The Middle East Energy Situation and Needs
13
The Middle East Energy Situation and Needs
  • Two thirds of the world s proven oil reserves
    as well as good amount of natural gas are found
    in the Middle East..
  • Major part of this oil and gas has been and is
    still being exported with little left which is
    short of satisfying the ever growing needs
    for development and economic growth.
  • Oil and gas are ever-declining finite resource
    and estimates indicate that they will run out in
    the next 50-100 years
  • The serious environmental impacts of these
    fossil energy resources are beyond any doubt
  • The requirement for renewable sources of energy
    that are friendly to the environment becomes of
    utmost importance.
  • The requirement for renewable sources of energy
    that are friendly to the environment becomes of
    utmost importance.

14
The Middle East Energy Situation and Needs
  • The supply from renewable sources of energy is
    limited for various reasons
  • The wind energy potential is limited and for
    hydropower, specific geographical conditions
    must be met.
  • The production of biomass for energy purposes is
    limited due to land use and mineral circulation
    constraints.
  • Solar energy is often mentioned as a candidate
    for unlimited energy supply.

15
The Middle East Energy Situation and Needs
  • Solar energy
  • In the Middle East the solar energy is abundant
  • Constraints appear in the material and land use
    requirements.
  • Large -scale applications of photovoltaic solar
    cells for instance are based on low-efficiency
    silicon systems,
  • high yield solar cells require relatively
    scarce elements such as arsenic and cadmium)

16
Energy Demand in the Middle East
  • Three factors are deciding the amount of energy
    demand in the Middle East
  • the population growth
  • the average level of economic activity per person
    (customarily expressed in terms of gross domestic
    product-GDP- per person)
  • and the corresponding average energy intensity of
    economic activity (the ratio of energy use to GDP
    )

17
Population Growth
  • In the Middle East, population growth is
    significantly high.
  • According to the Population Reference Bureau, the
    2008 World Population Sheet the population of
    Egypt in 2008 was 74.9 millions with expected
    increase of 2 it would become 95.9 millions in
    the year 2025, and would reach 117.9 in the year
    2050.
  • It is necessary to start planning for a reliable
    and more or less permanent source of energy to
    cover the expected increase in the energy demand.
  • Nuclear energy is the most suitable answer to the
    expected energy needs of the Middle East in the
    years to come.

18
Nuclear Energy
19
Nuclear Energy
  • Nuclear energy is one of the greatest discoveries
    of mankind, an energy source good for thousands
    of years developed just in time to replace the
    dwindling and climate-affecting fossil resources.
  • As mankind cannot survive without energy, it is
    difficult to imagine that a source of such
    potential would not be used
  • The ecological arguments promote the use of
    nuclear energy on large scale even before fossil
    fuels are exhausted in order to reduce carbon
    dioxide emissions...
  • About 450 nuclear reactors are now in operation
    producing about 17 percent of world electricity
    .48 reactors are under construction

20
Nuclear Energy
  • Close to one third of all reactors are already
    outside the nuclear weapon countries.
  • Impressive plans are proposed in several
    countries, such as Japan, South Korea Taiwan and
    China.
  • If we take China as developing country, it
    initiated a nuclear power program where it
    achieved 3,500 Megawatt (MWe) in the year 2000
    and plan to produce 25,000 MWe in 2010, 50,000
    MWe in 2015 and to reach 350,000 MWe by the year
    2050. (Ryukichi Imai)
  • France has continued a build up to what is now a
    predominant dependence on nuclear energy without
    any problem.

21
Nuclear Energy
  • Close to one third of all reactors are already
    outside the nuclear weapon countries.
  • Impressive plans are proposed in several
    countries, such as Japan, South Korea Taiwan and
    China.
  • If we take China as developing country, it
    initiated a nuclear power program where it
    achieved 3,500 Megawatt (MWe) in the year 2000
    and plan to produce 25,000 MWe in 2010, 50,000
    MWe in 2015 and to reach 350,000 MWe by the year
    2050. (Ryukichi Imai)
  • France has continued a build up to what is now a
    predominant dependence on nuclear energy without
    any problem.

22
Requirements for Nuclear Energy Power Plant
Operation
23
Requirements for Nuclear Energy Power Plant
Operation
  • Nuclear fission reactors are the realistic
    alternative to carbon fuel until fusion becomes a
    realistic proposition.
  • For fission power plant the following is needed
  • A reactor dedicated for energy production (LWR)
  • Supply of necessary low level enriched uranium
    (3- 3.5 )

24
Requirements for Nuclear Energy Power Plant
Operation
  • Countries operating nuclear power stations should
    be obliged to submit their nuclear facilities to
    international safeguards and to join the
    Non-Proliferation Treaty (NPT),
  • Furthermore, several points have to taken care
    of
  • a-Environmental radiation hazard
  • b-Security risk from generated plutonium

25
Requirements for Nuclear Energy Power Plant
Operation
  • a-Environmental radiation hazard
  • This could be considered under three headings (C
    R Hill,1996)
  • Operational or accidental (for example Chernobyl)
    release of radioactivity.
  • Radiological consequences of waste disposal and
    storage
  • decommissioning consequences
  • Much work has been going on to minimize .if not
    to prevent the possibility of environmental
    radiation release and to make operation cycle as
    safe as possible.

26
Requirements for Nuclear Energy Power Plant
Operation
  • b-Security risk from generated plutonium
  • This problem has been overemphasized and it
    should be discussed at length because plutonium
    produced in nuclear power plants cannot be
    used to produce nuclear weapons.

27
Requirements for Nuclear Energy Power Plant
Operation Plutonium
28
Difference between Reactor Grade and Weapon Grade
Plutonium
  • In reactors dedicated to produce energy, like LWR
    reactor, it burns Low enriched uranium to
    28,000 MWD\T or 30,000 MWD\ T
  • MWD is 24000 KWh
  • MWD\T means 24000 KWh\Ton
  • The reactor uses only 3 of the uranium
  • The portion used causes fission and a part of
    neutrons released turns uranium238 to plutonim239
  • U238 absorbs one neutron gt Pu239

29
Difference between Reactor Grade and Weapon Grade
Plutonium
  • Pu239 one neutron gt Pu 240 one neutron gt
    Pu241 one neutron gt Pu 242
  • After that plutonium becomes unstable.
  • Pu241 turns into Americium by nuclear
    transmutation and emits a large amount of gamma
    rays and heat.
  • Without heat removal, the Americium would melt by
    its own heat. if left for sometime.
  • The type of plutonium which can be used for
    nuclear weapons is plutonium 239 with very little
    of plutonium240. It is difficult to separate
    plutonium 240. Plutonium used for weapon
    production should not contain more than 7 of Pu
    240.

30
  • The following Table demonstrates the amount
    of different Plutonium isotopes produced in
    nuclear power reactors and weapon grade reactors
  • --------------------------------------------------
    --------------------------------------------------
  • Nuclear reactor initial enrichment average
    level of Plutonium composition

  • Burning MWD\T 238 239 240
    241 242
  • --------------------------------------------------
    --------------------------------------------------
  • Tokai unit 1 natural Uranium
    3,000 .04 79.4 17.8 2.2
    .4
  • LWR (BWR ) 3
    28,000 1.5 58.7 26.6
    8.3 4
  • 1,100 MW
  • LWR (PWR ) 3.4
    30,700 1.3 61.7 22
    9.6 4.3
  • 1,160 MW
  • --------------------------------------------------
    ----------------------------------------------Weap
    on Grade ReactorsStanford

    .012 93.8 5.8 0.35 .02
  • Selden
    0
    93.5 6 0.5 0

31
UNIDIR Comparison of existing proposals by
timeframe and scope
32
(No Transcript)
33
Conclusions
  • It is suggested that to overcome the possible
    abuse of the spent fuel from the power reactors,
    strict control over the reprocessing operations
    of this fuel could be carried out by a regional
    or international agency in a special reprocessing
    centre
  • The establishment of a regional centre for
    reprocessing of the spent fuels of all the power
    reactors in the Middle East which operates under
    strict safeguards of the IAEA., could be an
    answer to all proliferation fears from operation
    of nuclear power stations.

34
Conclusions
  • To close any gap in the nuclear safeguards, the
    IAEA came with the Additional Protocol in 1997
    which expanded its safeguards authorities and
    activities.
  • This protocol environmental sampling is
    restricted to locations visited by inspectors
    anyway
  • Satellite imagery has been demonstrated as a
    powerful tool to detect clandestine facilities

35
Thank You
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