Radioactive Waste Management Infrastructure in Egypt:

Slides:



Advertisements
Similar presentations
Generation of Radioactive Waste Radioactive Waste Management and Disposal NUCP
Advertisements

Waste Management System in Egypt Owner (Generator) Regulator RWM Operator Justification Minimization Segregation Transportati on Treatment Conditioning.
Chapter 2.1 Definition and classification
International Atomic Energy Agency IX.4.3. Waste management.
1 RADIOACTIVE WASTE MANAGEMENT PART 2 A RAHMAN RWE NUKEM Ltd (UK) Name, company and chapter.
E8 - Waste Vivien Tsang & Melody Mak. Waste Disposal Waste disposal is the transportation, management, recycling and disposal of waste materials usually.
Lesson 17 HEAT GENERATION
The Harnessed Atom Lesson Seven Waste from Nuclear Power Plants.
Wednesday, 12/12/2007, FYROM Prevention of Contamination from Mining & Metallurgical Industries in FYROM Strategic Plan for Prevention of Contamination.
Nucular Waste A Technical Analysis Ian Baird 5/12/08.
Decommissioning Nuclear Reactors. Background Before a company decides to close it’s power reactors the facility must be put in to a state that no longer.
CHEMISTRY TASIA MILLER. Nuclear: operated or powered by atomic energy Waste: to destroy or consume gradually Disposal: a disposing of or getting rid of.
Radioactive Materials Management NUCP2311. Low Level and High Waste Treatment Options Low level – diluted – dispersed – If short T 1/2 can let decay High.
Capabilities & Competencies An Introduction to EnergySolutions September 19, 2007 Scott Baskett Erik Vogeley.
CHAPTER 4 CPB 20004: Plant Utility n Maintenance
Radiation Safety Training Module 3 – UGA Site Specific Procedures.
Sources of Energy Glencoe Chapter 16 Pages
Boreskov Institute of Catalysis INTERNATIONAL CENTER FOR SCIENCE AND HIGH TECHNOLOGY OF THE UNITED NATIONS INDUSTRIAL DEVELOPMENT ORGANIZATION Workshop.
One Project. One Team. One Goal.
Breazeale Nuclear Reactor Penn State Radiation Science and Engineering Center.
IAEA International Atomic Energy Agency Radiation Protection Issues in Nuclear Installations (NPP & RR) Laszlo Sagi Radiation Safety and Monitoring Section.
1 Chapter 6: Material Management Helmut Steiner Ulrich Priesmeyer Kernkraftwerk Gundremmingen GmbH Priesmeyer, KRB A, 6. Material Management.
MethodAdvantageDisadvantage Landfills: Waste is buried in the ground  rotting material produces methane gas which cold be collected  filled ground.
1 Characterizing Mercury Waste at DOE’s Sites & Developing Management Strategies Breaking the Mercury Cycle Conference Boston MS May 1-3, 2002 Mike Morris,
The Nuclear Fuel Cycle 1. NUCLEAR FUEL Nuclear fuel is the energy source of nuclear reactors and an essential element of the reactor core. The heat energy.
Impairments to Water Quality. Module Topics What is Water Quality? What are Pollutants? Types of Water  Stormwater  Wastewater  Process water.
MethodAdvantageDisadvantage Landfills: Waste is buried in the ground  rotting material produces methane gas which cold be collected  filled ground.
Integrated Waste Management Strategy – preparing for SIII NuLeAF – 29 th January 2015.
RADIOACTIVE WASTE MANAGEMENT. MATE-FIN participated in several projects focused on radioactive waste management:  Characterisation of Radioactive Waste.
International Atomic Energy Agency Reprocessing, Waste Treatment and Disposal Management of Spent Nuclear Fuel Seminar on Nuclear Science and Technology.
IAEA Sources of Radiation Nuclear Fuel Cycle – Fuel Fabrication Day 4 – Lecture 7 1.
DECOMMISSIONING OF NUCLEAR POWER PLANTS IN THE CZECH REPUBLIC Peter Lietava Division of Radioactive Waste and Spent Fuel Management State Office for Nuclear.
Course TEN-702 Industrial waste management unit-2 Lecture -13.
 Asia’s largest environment solutions provider, with a strong international presence  Total water & environment management solutions for all sectors.
Nuclear decommissioning: Turning waste into Wealth Disposal of low-level radiation Tzany Kokalova University of Birmingham.
Presented By RENJINI CHANDRAN. The nuclear wastes are radio- active substances which are released from atomic reactors of nuclear power stations. When.
What About Nuclear Waste?
Chemical Engineering Drawing
Chapter 24 Solid and Hazardous Waste
 II THE ADVANTAGES OF ELECTRICITY
Land Pollution Solid Waste.
Nonrenewable Energy 7-2.
Beryllium Waste Management (non radioactive)
Assessment of radioactive waste within the ITER hot-cell facility
Status of national system for control of radioactive sources: Libya
John Christian President, Logistics, Processing and Disposal
BASIC PROFESSIONAL TRAINING COURSE Module XIX Waste management Case Studies Version 1.0, May 2015 This material was prepared by the IAEA and.
Earth and Space Science Ms. Pollock
Pollution control methods of thermal power plants
Management of Radioactive Waste
Nuclear Waste.
Waste Generation and Waste Disposal
Waste management trash, recyclables, hazardous waste, nuclear waste, e-waste, biological waste, . . .
SOLID WASTE MANAGEMENT
Average person produces 1700 lbs of MSW per year
Resource Conservation and Recovery Act (RCRA)
Nuclear Power: “Too cheap to meter”
Waste Disposal / Zero Waste to Landfill
History of Energy Use wood coal petroleum natural gas nuclear.
Waste Generation and Waste Disposal
Nuclear Energy Fission vs Fusion.
Typical Drainage system
Fission vs. Fusion.
Low-Level Radioactive Waste Program Update
HAZARDOUS WASTE.
PRE-TREATMENT OF ORGANIC LIQUID WASTE STREAM AT CERNAVODA NPP
Low-Level Radioactive Waste Program Update
Implementation of a Radioactive Waste Management Program
Update on TCEQ’s Role in Oil & Gas Waste Management
بسم الله الرحمن الرحيم Dr. Hany Sallam & Regulatory Activities
Presentation transcript:

Radioactive Waste Management Infrastructure in Egypt: Experience & Capabilities Prof. Ahmed El-Kamash Egyptian Atomic Energy Authority

Nuclear Authorities In Egypt

Waste Management System in Egypt Justification Minimization Segregation Owner (Generator) Regulator RWM Operator Regulation Licenses Inspection Transportation Treatment Conditioning & Disposal

Treatment, Conditioning Storage Disposal Hot Laboratories and Waste Management Center Radioisotope Production Nuclear Fuel Research Radioactive Waste Management Treatment, Conditioning Storage Disposal

Radioactive Waste Generation in Egypt Inshas Nuclear Complex 2MW Research Reactor 22 MW Research Reactor Nuclear chemistry department Radioisotope production lab. Activation analysis Nuclear fuel production lab. Nuclear metallurgy lab. Decontamination activities Other External Generators Medical uses: Hospital, medical lab. Research uses: Research institute, universities Industrial uses: Petroleum, inspection , etc.

Waste Management Division Studying waste composition Treatment Immobilization in cement, ceramic material Site-characteristics P.A. &S.A Transport to HLWMC site. Treatment of solid & liquid wastes Conditioning Storage Near surface disposal 7 R &D Practice Waste Management Division

Treatment facilities

Low Active Waste Incinerator Treatment facilities Low Active Waste Incinerator

Solid Waste Minimization Treatment facilities Solid Waste Minimization

Conditioning facility Waste conditioning

Interim Storage

New storage

One of the FOUR Disposal Trenches

The Drainage Well for the Four Trenches

Waste from NPP Radioactive waste generated from NPP can be divided into power reactor wastes, and fuel cycle facility wastes, Power reactors are responsible for the largest volume of LLW. Fuel cycle plants, such as fuel enrichment plants and fuel fabrication plants, produce small volumes of LLW relative to power reactors.

Power Reactor Wastes The majority of power reactor wastes : Liquid radioactive wastes, Wet solids (including slurries), Dry active solid wastes (DAW), Liquid organic wastes, and Thermal waste.

Power Reactor Wastes

Power Reactor Wastes 1) Liquid Radioactive Wastes Liquid radioactive wastes are produced from recycled reactor core fluids, hydraulic fluid from equipment repairs, housekeeping activities, and laundering. These wastes are treated to remove the maximum amount of radioactive contamination. Treated liquids are then typically recycled or discharged to the environment under the control of the plant operating license and national regulations.

Power Reactor Wastes 2) Wet solids Radioactive wet solid wastes consist of solid wastes containing greater than 5% liquid. Most radioactive wet solid wastes are produced from cleaning aqueous processing systems at power reactors. Spent Ion-Exchange Resins Filter Sludge Cartridge Filters

Power Reactor Wastes 3) Dry active solid wastes Cloth (rags, mops, gloves) Contaminated dirt Contaminated tools and equipment, Filters Glass High density concrete block Miscellaneous metal, Aerosol cans, Buckets, Crushed drums, Fittings, Pipes and Valves Miscellaneous wood Plastic Bags, gloves, shoe covers, Sample bottles Rubber, Sweeping Compounds Irradiated metal alloys Flux wires, Flow channels, Fuel channels, In-core instrumentation, Poison channels, Shim rods.

Power Reactor Wastes 4) Liquid organic wastes liquid organic wastes includes pump oil, lubricating oils, organic resins, liquid scintillation counting solutions, and decontamination solutions containing organic chelating agents. Liquid organic waste volumes are very small when compared to the total generated volume of LLW

Power Reactor Wastes 5) Thermal waste This waste is common both to conventional and nuclear plants. The quantity of thermal waste proportional to the size of the plant. In a NPP with a PWR operates at a thermal power of 1000 MW must dispose of approximately 2.4 million Btu/s. If this quantity of heat were released into a river having a flow rate of 1000 cubic ft/s, the entire river temperature would rise by 33 degrees Fahrenheit.

Fuel Cycle Wastes Fuel cycle facility wastes include Calcium fluoride generated from hydrogen fluoride gas scrubbers, Filter sludge, Contaminated equipment, and Trash.