Radioisotopes production technology -EGYPT experience

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Radioisotopes production technology -EGYPT experience Mostafa A. Abdelaal, lecturer Egyptian Atomic Energy Authority Radioisotope production Factory ETRR2 Research Reactor Opportunities and Approaches for Supplying Molybdenum-99 and Associated Medical Isotopes to Global Markets, symposium. Vienna, July 2017

Contents Summary ETRR2 complex Milestones of RPF RPF Facility description Molybdenum Production stages Specifications of Molybdenum Specifications of Tc-99m generator Specifications of Iodine-131 Scope of current supply Future plane

Summary The ETRR-2 complex consists of the ETRR-2 research Reactor, the Fuel Manufacturing pilot plant (FMPP), and the Radioisotope Production plant (RPF). The ETRR-2 is a 22 MW multipurpose reactor, while the FMPP plant produces the fuel elements for the reactor, and the RPF plant makes use of the irradiation capabilities of ETRR-2 reactor to produce radioisotopes for medicinal and industrial use. The three facilities are located in the Inshas site- EAEA Egypt. The RPF was designed for the production of Mo-99, I-131, I-125, Cr-51,Ir-192,and Mo-99/Tc-99m generators. 3

ETRR2 complex ETRR2 - FMPP - RPF Complex 4

Milestones of RPF Construction and Civil Works Pre-commissioning Tests Commissioning (Cold and Hot tests) Preliminary acceptance final acceptance Licensing and certification Radiological plant & operator licenses (ENRRA prime Ministry cabinet) Radiopharmaceutical plant & product licenses (CAPA - Ministry of Healthy) Start regularly production 2004 2007 2008 2011 2013 2014 2015

RPF Facility description The Plant has 12 hot cells to produce the following radioisotopes: Radio isotope Molybdenum- 99 Iodine -131 Iodine -125 Chromium -51 Iridium -192 Iridium -192 description (produced through the fission of LEU). The weekly production of Mo-99 will reach 200 Ci (6 days precal.) (produced through the fission of LEU): This radioisotope is used in nuclear medicine as therapeutic or diagnosis agent. The weekly production of I-131 will reach 30 Ci. (produced through the irradiation of Xenon gas): This radioisotope is used in nuclear medicine as therapeutic or diagnosis agent. The weekly production of I-125 will reach 5 Ci. (produced through the irradiation of potassium chromate targets): This radioisotope is used as injectable medical product. The weekly production will reach 500 mci. (wire produced through the irradiation of iridium-platinum-alloy targets): This radioisotope is used in brachytherapy. The weekly production will reach 280 mci. (produced through the irradiation of natural Iridium sheets): This radioisotope is used in sealed sources for industrial gamma radiography. The plant can produce sources of up to 100 Ci.

Facility description Hot cells operation side Hot corridor view 7

Molybdenum Production stages Irradiation Ventilation Cooling Xenon decay Gas treatment Dissolution PPt. (U, Re,Te, Zr Nb, etc.) Filtering I-131 purification AG column CHELEX Column Alumina column 99m Tc generator loading Final conditioning QC Test, calibration

Molybdenum Production stages

Specifications of Molybdenum The end product is a sodium molybdate 99 Mo solution with the following technical characteristics: Specification Activity concentration Specific activity >10 Ci/ml > 27 KCi/g Mo ph 7-10 Radiochemical purity > 95 % as 99 MoO 2-4 Radionuclide purity 131 I < 5 x 10-3 % 103 Ru < 5 x 10-3 % Σβ < 5 x 10-3 % Σ α < 6 x 10-6 %

Specifications of Molybdenum Argentina India Germany Q.C. samples of Mo-99 from different batches Others Russia The results 99m Tc eluted from the loaded generator were found to be accepted according to European and US Pharmacopeia.

Specifications of Tc-99m generator The generator allows a reliable and efficient production of sodium pertechnetate (Tc-99m) solution with high activity concentration, of the following characteristics: ph 5-7 Specification Biological quality Aluminum pyrogen-free and sterile < 5 micrograms/ml Mo-99/Tc-99m concentration < 0.1 %

Specifications of Iodine-131 carrier-free Iodine-131 solution allows its further fractionation and capsulation for use in nuclear medicine Activity concentration Activity (capsules for therapy) Activity (capsules for diagnosis) Specification 200-1000 mci/ml 50 mci/capsule 10 mci/capsule Specific activity Carrier free ph 7-9 Radiochemical purity > 95 % as Iodide Radionuclidic purity 95 Nb < 1 x 10-1 % 95 Zr < 1 x 10-1 % 103 Ru < 1 x 10-1 % 132 I < 1 x 10-1 % 133 I < 1 x 10-1 %

Scope of current supply Egyptian demand weekly from 30-40 99m Tc- generator as an average. Now we cover a part of our local market demand of Tc-99m generator and I-131. Our scope now is to cover all of our local market demand of Tc-99m and I-131. Our currently production from Mo-99: 70-75 Ci /week ( 6-days calibration) 2 batches / month 10 month / year

Future plan Short Term Objectives (1-3 years): We are looking to increase our Mo-99 production gradually to reach the maximum capacity 180-200 Ci /week (6-days calibration) 4 batches / month 10 month / year

Future plan Long Term Objectives (more than 3 years). Our reactor have two irradiation position each can contain 12 LEU plates. We are looking to increase our Mo-99 production to reach: 400 Ci /week (6-days calibration) 4 batches / month 10 month / year This can be done by modification the Mo-99 production hot cell equipment, verification of the corresponding shielding, transportation, gas releases, liquid waste management, etc., as well as issuing the necessary licensing documents. This will be done with IAEA support

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