NTP Radioisotopes SOC Ltd A subsidiary of Necsa SOC Ltd Pelindaba, - - PowerPoint PPT Presentation

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NTP Radioisotopes SOC Ltd A subsidiary of Necsa SOC Ltd Pelindaba, - - PowerPoint PPT Presentation

NTP Radioisotopes SOC Ltd A subsidiary of Necsa SOC Ltd Pelindaba, South Africa Status of NTPs Conversion Programme www.ntp.co.za 2017 Mo 99 Topical Meeting on Molybdenum 99 Production Technology Development 10 13 September 2017;


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NTP Radioisotopes SOC Ltd

A subsidiary of Necsa SOC Ltd Pelindaba, South Africa www.ntp.co.za

Status of NTP’s Conversion Programme

2017 Mo‐99 Topical Meeting on Molybdenum‐99 Production Technology Development 10‐13 September 2017; Montreal Mariott Chateau Champlain; Montreal; QC Canada

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Outline

  • Who are we?
  • Broad Principles of Conversion
  • Current Status
  • Reflections
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Who are we?

NECSA MANDATE The Company derives its mandate from the Nuclear Energy Act, No. 46 of 1999. In terms of Section 13 of this Act, Necsa is mandated to:

  • Undertake and promote research and development (R&D) in the field of

nuclear energy and radiation sciences and technology and, subject to the Safeguards Agreement, to make these generally available;

  • Process source material, special nuclear material and restricted material and to

reprocess and enrich source and nuclear material; and

  • Co‐operate with any person or institution in matters falling within these

functions, subject to the approval of the Minister.

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NTP Radioisotopes SOC Ltd AEC Amersham SOC Ltd (100%) NTP Logistics SOC Ltd (51%) Gammatec NDT Supplies SOC Ltd (55%) NTP Radioisotopes (Europe) S.A. (99%) Gamwave Gauteng (Pty) Ltd (40%) Gammatec Middle East (90%) Gammatec Aseana (100%) Lectromax (90%) Oserix (25%)

Who are we?

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SLIDE 5

Who are we?

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SLIDE 6

Who are we?

Radiochemicals Mo‐99, I‐131, Lu‐177 Radioactive Sources Ir‐192, Cs‐137, Co‐60 Irradiation Services Neutron Transmutation doping of Silicon, Neutron Irradiation Services Radiopharmaceuticals NovaTec‐P Tc‐99 Generator, FDG, MIBG, Cold kits, I‐131 Capsules and Solution Radiation Technology Products Transport containers

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Strategic Considerations – Minimum changes to target, irradiation, handling & chemical processes – Retention of production capacity – No interruption in current production

Broad Principles of Conversion

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Envelope – Within HEU safety envelope – With existing handling equipment – With existing transfer flasks

Broad Principles of Conversion

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NEA OECD HLG‐MR principles:

  • Take co‐ordinated steps, within our countries’ to implement a verifiable process for

introducing full‐cost recovery at all;

  • Ensure availability of reserve capacity;
  • Ensure availability of 99mTc produced on an economically sustainable basis;
  • Encourage those not party to the present Joint Declaration, to take the same

approach;

  • Report on an annual basis to the OECD Nuclear Energy Agency (NEA) on the progress

made.

Broad Principles of Conversion

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Year Event

2007/8 Theoretical feasibility studies & cold experiments 2009 NNR approval received for test stage and first hot runs commence 2010 Hot runs, process validation, regulatory approval Sep 2010 US FDA approves LEU 99Mo for a customer in the US Dec 2010 First large scale commercial FDA approved batch of LEU 99Mo produced and shipped to US for patient use Jun 2011 Routine commercial supply of LEU 99Mo commenced Sep 2011 Commencement of investment in plant modifications for increased LEU residue storage requirements Jan 2014 Hot commissioning of new LEU specific production line Dec 2014 Commencement of project to manufacture & install 2nd LEU design dissolver cell Jan 2017 Hot Commissioning of new uranium residue facility May 2017 1st month that 100% LEU based Mo‐99 production achieved

Current Status

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Previously

  • 2 production lines (HEU design)

Currently

  • 1 LEU designed and 1 HEU designed production line

Future

  • 2 LEU designed and 1 HEU designed backup production line

LEU based Mo‐99 production

Current Status

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Year Operational availability compared with schedule 2008 99.9 2009 99.4 2010 101.1 2011 102.4 2012 101.4 2013 100.5 2014 100.1 2015 100.3 2016 100.1

65 68 71 74 77 80 83 86 89 92 95 98 01 04 07 10 13 16 YEAR

SAFARI‐1 Power History

Current Status

0,0 10,0 20,0 30,0 40,0 50,0 60,0 70,0 80,0 90,0 100,0 0,0 2000,0 4000,0 6000,0 8000,0 10000,0 12000,0 14000,0 16000,0 Jul‐15 Aug‐15 Sep‐15 Oct‐15 Nov‐15 Dec‐15 Jan‐16 Feb‐16 Mar‐16 Apr‐16 May‐16 Jun‐16 Jul‐16 Aug‐16 Sep‐16 Oct‐16 Nov‐16 Dec‐16 Jan‐17 Feb‐17 Mar‐17 Apr‐17 May‐17 Jun‐17 Jul‐17 Yield (%) 6D Curies Month

Expected Mo‐99 Curies and Yields

Expected Produced Yield (%)

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0,0 5,0 10,0 15,0 20,0 25,0 30,0 2009 2010 2011 2012 2013 2014 2015 2016 2017

Mo‐99: % LEU Distribution relative to all LEU runs since inception

Current Status

Year % Conversion 2014 38 2015 47 2016 77 2017 (Latest) 95 ‐ 100

Conversion to LEU completed!

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5 10 15 20 25 30 35 2009 2010 2011 2012 2013 2014 2015 2016 2017

I‐131: % LEU Distribution relative to all LEU runs since inception

Current Status

Year % Conversion 2014 39 2015 46 2016 63 2017(Latest) 95 ‐ 100

Conversion to LEU completed!

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Reflections

Technically feasible Sustainability of the industry questionable More challenging production operations Full cost recovery not implemented

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The future of the nuclear medicine industry depends heavily on:

  • Full‐cost recovery through the entire supply chain
  • Realistic 99mTc pricing
  • Aspirant entrants realisation of the actual level of effort for

development, industrialisation, validation and regulatory processes

  • Realistic time frames from new market entrants

Reflections

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SLIDE 17

 ??

Thank you for your attention