Technological platform “Medicine of the future”


Nuclear and Radiation Technologies



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Nuclear and Radiation Technologies




11. Closed nuclear-fuel cycle with fast reactors

1.1. "New technology platform: closed nuclear fuel cycle with fast reactors" (NTP).

1.2. NTP Coordinator – Directorate for Scientific and Technical Complex, Rosatom State Nuclear Energy Corporation.

1.3. List of enterprises and organizations involved in the creation of technology platform:




JSC NIKIET;

JSC "SSC RIAR";

JSC "OKB Gidropress";

JSC SPAEP;

JSC "VNIINM";

JSC TsKBM;

FSUE "SSC RF-IPPE";

JSC VTI;

JSC ENITS;

JSC ENIN;

MPEI;

FSUE CRISM "Prometey";

JSC "Afrikantov OKBM";

MSZ;

IBRAE;

SKhK;

SverdNIIkhimmash;

JSC AKME-engineering;

RCC MSU;

VNIIEF;

VNIITF;

MRRC;

IAM RAS;

MEPhI;

VNIPIET;

MZP;

GKhK;

ChMZ;

FSUE "SSC RF-ITEF";

SSC IHEP;

FSUE "SSC RF-TRINITI";

JSC VNIIKHT.

1.4. Main technology areas to be realized within the framework of the technology platform:

1.4.1. "The development of fast neutron reactors with closed nuclear fuel cycle":

1.4.1.1. "The development of lead-cooled fast reactors";

1.4.1.2. "The development of fast reactors cooled with lead-bismuth";

1.4.1.3. "The development of sodium-cooled fast reactors";

1.4.1.4. "The development of integrated systems of new generation codes for analysis and justification of the safety of advanced nuclear power plants and nuclear fuel cycle".
1.4.2. "Modernization of nuclear power experimental base":

1.4.2.1. "The development of multi-purpose fast neutron research reactor MBIR";

1.4.2.2. "Technical upgrading of 60 MW(t) fast neutron development reactor";

1.4.2.3. "Technical upgrading of the complex of fast critical facilities for modeling of fast reactors and fuel cycles".


1.4.3. "The development of advanced nuclear fuel production technologies":

1.4.3.1. "The development of technologies and creation of the production of mixed oxide fuel for fast neutron reactors";

1.4.3.2. "The development of technology for fabrication of dense fuel for fast neutron reactors";

1.4.3.3. "The development of advanced structural materials for fast- and thermal-neutron reactors".


1.4.4. "The development of materials and technologies of closed nuclear fuel cycle for fast- and thermal-neutron reactors":

1.4.4.1. The construction and commissioning of multifunctional radiochemical research complex;

1.4.4.2. Computational and experimental justification of the conditions for ultimate disposal of radioactive waste and the development of advanced support technologies;

1.4.4.3. The development of pyrochemical technology of dense fuel reprocessing and radioactive waste management technologies for testing of closed nuclear fuel cycle technologies;

1.4.4.4. The development of design documentation for a special-purpose line at a centralized plant of SNF reprocessing from fast- and thermal-neutron reactors including testing and justification of technological solutions applied.


  1. Controlled Fusion Technological Platform (CFTP)



  1. CFTP has been initiated by the Russian State Corporation on Atomic Energy.



  1. Institutes and organizations participating in CFTP development:

Science Research Center “Kurchatov Institute”

State Research Center Troitsk Institute for Innovation and Fusion Research

D.V.Efremov Scientific Research Institute of Electrophysical Apparatus

N.A.Dollezhal Research and Development Institute of Power Engineering

A.A. Bochvar All-Russian Scientific Research Institute for Inorganic


Materials

Federal State Unitary Enterprise “Krasnaya Zvezda”

National Research Nuclear University – Moscow Engineering Physics Institute

Ioffe Physical Technical Institute, Russian Academy of Sciences



Prokhorov General Physics Institute, Russian Academy of Sciences

Keldysh Institute of Applied Mathematics, Russian Academy of Sciences

Budker Institute of Nuclear Physics, Siberian branch of Russian Academy of Sciences

Institute of Applied Physics, Russian Academy of Sciences

Trapeznikov Institute of Control Sciences, Russian Academy of Sciences

Moscow Institute of Physics and Technology, State University

Bauman Moscow State Technical University

Moscow State University Faculty of Computational Mathematics and Cybernetics


  1. Basic technological directions of CFTP




  • Development and modernization of tokamak innovative experimental base

  • New plasma diagnostics tools

  • Theoretical foundations of the processes in fusion devices

  • Blanket technologies, including nuclear technologies of controlled fusion, tritium production, etc.

  • IT, models and codes.

  • Plasma control technologies and systems

  • Demo fusion neutron source

  • Hybrid fusion-fission systems

  • First wall and divertor technologies, including lithium technology of capillary-porous structures

  • Development of new materials

  • Physics of HF and SHF heating, neutral injection

  • Technologies of electron-cyclotron systems (gyrotrons, transmission lines, antennas)

  • Education in plasma physics and control fusion




  1. Economic sectors to be influenced by CFTP



  • Research and development in plasma physics and controlled nuclear fusion;

- Nuclear technologies, nuclear engineering, nuclear power;

- Power engineering;

- Mechanical engineering

- Technical superconductivity





  1. International cooperation



  • International project ITER

  • Russia-Italy international project IGNITOR

  • International cooperation in plasma studies and controlled fusion

  • International education programs



Information about CFTP initiator
Russian State Corporation on Atomic Energy,

www.rosatom.ru


Address: ul.Bol’shaya Ordynka, 24, Moscow, Russian Federation

Contact person: Cherkovets Vladimir Evgen’evich,

Science Research Center of Russian Federation

Troitsk Institute of Innovation and Fusion Research,

Director

Phone: 8(495) 334-53-08

Fax: 8(495) 334-57-76

e-mail: liner@triniti.ru





  1. Radiation technologies

1. Name of the technology platform

Radiation technologies.



2. Coordinator of the technology platform

State Atomic Energy Corporation “Rosatom”

“Radiation technologies” Program

Mr. Mikhail Lobanov

Tel.: 8-965-209-4012

e-mail: lobanov.mm@gmail.com



3. Participant list of technology platform

State Atomic Energy Corporation “Rosatom” and associated companies:



  • D. Efremov Research Institute of Electrophysical Instrumentation (NIIEFA), FSUE (St. Petersburg)Institute of High-Energy Physics, State Scientific Center of the Russian Federation (SSC IFVE), FSUE (Protvino, Moscow Region)

  • Izotop Trans-Regional Association, JSC (Moscow)

  • L.Ya. Karpov Physical-Chemical Research Institute (NIFKhI), FSUE (Moscow)

  • NIITFA— Research Institute of Applied Physics and Automation, JSC (Moscow)

  • A.I. Alikhanov Institute of Theoretical and Experimental Physics, State Scientific Center of the Russian Federation (SSC ITEF), FSUE 

  • V.G. Khlopin Radium Institute, Research and Production Complex (RPC), FSUE (St. Petersburg)

  • Research Institute of Atomic Reactors, State Scientific Center Of Russian Federation, JSC (Dimitrovgrad-10, Ulianovsk Region)

  • Mayak Production Association (PA Mayak), FSUE (Ozersk, Chelyabinsk Region)

  • N.L. Dukhov All-Russian Research Institute of Automatics (VNIIA), FSUE (Moscow)

Center for Strategic Research “North-West” Foundation

The Ulyanovsk region government



4. Main tasks and results of technology platform construction

The main tasks of technology platform are represented in the table below:



Table 1. Technology platform main tasks

Area

Short-term

Medium-term

Long-term

Market development

  • Minimization of organizational, financial costs through strengthening cooperation inside technological platform.

  • Supply chains quality raising

  • Attracting additional resources for radiological R&D

  • Creation of competitive products and services, that could be sold on the world market

  • Attraction of private and state investment to the companies working in the radiation technologies field

  • Achieving sufficient share of the world medical and industrial radiological equipment market

  • Technological platform participants to be included in the global product value adding chains

Social security

  • Providing information about the nuclear medicine methods to the population

  • National and international nuclear medicine centers creation

  • Substantial upgradу of the medical service quality

  • Substantial reduction of mortality caused by oncological diseases

Scientific and technical development

  • New radiopharmaceuticals for diagnostics and therapy development

  • Short-living and ultra-short-living radiopharmaceuticals production setup

  • Development of the new types of linear accelerators

  • R&D of the new diagnostic and therapeutic medical equipment

  • Proton therapy center setup

  • Creating of the centers for new medicines development, testing and certification

  • Creation of the industrial and technological zones for radiological equipment production Создание индустриально-

Technologies

  • Methods of radiopharmaceutical application for diagnostics and therapy development

  • Development of the engineering design of radiopharmaceuticals production complex

  • Development of new manufacturing lines for radiopharmaceuticals production

  • Development of new manufacturing lines for linear accelerators production

  • Development of the diagnostic information base

  • Development and modernization of the diagnostic and therapeutic medical equipment recycling

Production

  • GMP-certified radiopharmaceuticals production setup

  • Cyclotrons and cyclotron complexes production setup

  • Development and implementation of the new logistics schemes for radiopharmaceuticals distribution expansion

  • Organization of the modular complexes for radiopharmaceuticals production







Education

  • Organization refresher courses for medical and technical staff of radiological equipment

  • Creation of the training centers for specialists in engineering and maintenance of linear accelerators

  • Creation of the training centers for radiologists and medical physicists

  • Organization of the special educational centers for radiologists in the universities

The main results of technology platform operation are represented in the table below:

Table 2. Main results of technology platform operation



Results

Level

Terms

SPECT, SPECT-CT, PET-CT production setup

World level of competitiveness

5 years

Non-destructive testing equipment production setup

World level of competitiveness

5 years

Equipment for radiological therapy (proton therapy, neutron therapy) production setup

World level of competitiveness

5 years

Short-living and ultra-short-living radiopharmaceuticals production setup

Elimination of the lag behind the world level

3 years

Development of new manufacturing lines for radiopharmaceuticals production

World level of competitiveness

5 years

R&D of the new diagnostic and therapeutic medical equipment

World level of competitiveness

10 years

Creation of the training centers for specialists in engineering and maintenance of radiological medical equipment, radiochemists, radiologists and medical physicists

Elimination of the lag behind the world level

5 years

Nuclear medicine centers construction (Dimitrovgrad, Obninsk, Tomsk, etc.), providing technological base for modernization of healthcare agency.

Elimination of the lag behind the world level, in long-term prospect - World level of competitiveness

5 years

5. Markets and sectors of economy that would be influenced by technological platform

  • Medicine (oncological diseases diagnostics and therapy – more than 2.5 mln of potential patients annually).

  • Transport (security arrangements for airports, railway stations and subway).

  • Light and heavy industry (material features changing), food (imported food disinfection).

6. Possible collaboration with international partners

Collaboration with international manufacturers, distributors, R&D specialists and scientists is useful for the development of the technological platform. It is planned to start and carry on negotiations with foreign companies mentioned below:

Table 3. Foreign companies for possible mutual benefit collaboration

Market sector

Main players

Consolidation level

Volume

Diagnostic medical equipment

GE Medical Systems

Philips


Siemens

Toshiba


IS2 Medical Systems

Mediso Medical Imaging Systems



Medium

$45 bn

Therapeutic medical equipment

Varian

IBA


TomoTherapy

Elekta


Siemens

Accuray


High

Less than $50 bn

Isotopes production

MDS Nordion

Covidien IRE

NTP


High




Radiopharmaceuticals production

Siemens

IBA Molecular

Bracco Diagnostics Inc

GE Healthcare

MDS Nordion


Medium

$9 bn

Security arrangements

Smith

Rapiscan Systems

Varian Medical Security & Inspection Products

AS&E


Nuctech

High

Less than $5.5 bn

Non-destructive testing equipment

Varian Medical Security & Inspection Products

Nuctech


GE Inspection Tech.

V.J.Technologies



Medium

Less than $3 bn

Source: Bain & Company, Frost & Sullivan.


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