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1.Y.X.Wan Tasks of China MFR Intergration Desgin Group and W

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1.Y.X.Wan Tasks of China MFR Intergration Desgin Group and W Welcome all of you participating the first workshop on MFE development strategy in China Tasks and working schedule of China MFR integration design group Y. X. Wan School of Nuclear Science and Technology (USTC) Institute of Plasma Physics, CAS 5-6 January 2012 Beijing China Background information The current fusion research projects ITER in China: in kind contribution related domestic projects HL-2A tokamak in SWIP; HT-7 and EAST superconducting tokamak in ASIPP; University Programs: theory, experiments and education. ITER in China Contribution by in kind Domestic sub-project for: Improving the basic conditions; Development for key tech. Fusion materials; Theory and education; Reactor intergration design. Total is 0.6 billion US dollars ~ 0.6 billion US dollars Budget for ITER-CN (10 years) CN contributions in kind 1. Poloidal Magnet Conductors 10.Conductor of CC & FEEDER 6. Blanket-First Wall 74.25 (kIUA) CN: 50% 87.0:(kIUA) CN: 69% CN : 10% 2. TF Magnet Conductor 7. Blanket-Shield Block 215.0 (kIUA) CN: 7% 58.0:(kIUA) CN : 40% 3. Correction Coils 8. High Voltage Substation Materials 5.51:(kIUA) 21.0: (kIUA) CN : 100% CN : 100% 4. Feeders 9. Gas Injector Valve Boxes + Glow 48.38: (kIUA) Discharge Cleaning Conditioning CN : ~100% 7.7: (kIUA) CN : 88% 5. Magnet Supports 11. AC/DC Converters 12. Diagnostics 22.85:(kIUA) 82.2: (kIUA) 137.5: (kIUA) CN : 100% CN : 62% CN : 3.3% SWIP Status of HL-2A HL-2A HL-2A tokamak-present status • R: 1.65 m • a: 0.40 m • Bt: 1.2~2.8 T • Configuration: Limiter, LSN divertor • Ip: 150 ~ 480 kA • ne: 1.0 ~ 6.0 x 1019 m-3 • Te: 1.5 ~ 5.0 keV • Ti: 0.5 ~ 1.5 keV Auxiliary heating: Fueling system (H2/D2): ECRH/ECCD: (3+2 )MW Gas puffing (LFS, HFS, divertor) (6/68 GHz/500 kW/1 s) modulation: 10~30 Hz; 10~100 % Pellet injection (LFS, HFS) NBI(tangential): 1.5 MW SMBI (LFS, HFS) LHCD: 1 MW LFS: f =1~80 Hz, pulse duration > 0.5 ms gas pressure < 3 MPa (2/2.45 GHz/500 kW/1 s) HT-7 Superconducting Tokamak in ASIPP R = 1.22m, a = 0.27m Ip = 100~250 kA (250) BT = 1~2.5T(2.5) 13 -3 ne = 1~8x10 cm (6.5) Te = 1~5 KeV (4.5) Ti = 0.2~1.5K eV (1.5) ICRF: f = 15~30MHz, P = 0.3MW(0.35) f = 30~110MHz, P = 1.5MW LHCD: f = 2.45GHz, P = 1.2MW(0.8) Pellet injector Supersonic beam injection Main Goal: Advanced Steady-state operation and related physics ( Ip > 100kA, Ne>1.0x13cm-3, t=60s) EAST Superconducting Tokamak in ASIPP University programs • More than 10 universities are involved in 10-15 tasks (40-60M$/per year) with 200 Staff 200 students in MCF project; • 3 theoretical research centers (Hefei, Zhejiang, Beijing ) SUNIST in Tsinghua Univ. • School of NST in USTC has been created: 100 undergraduate/year 100-150 (MS+Ph.D)/year KT-5 in USTC J-TEXT in Huazhong Univ. Very Strong Support with Questions from Top Leaders and Public Why China joint ITER ? What is the next step and goals of fusion research in China ? ITER in China Contribution by in kind Domestic sub-project for: Improving the basic conditions; Development for key tech. Fusion materials; Theory and education; Reactor intergration design. Total is 0.6 billion US dollars ~ 0.6 billion US dollars Budget for ITER-CN (10 years) China MFR integration design group has been founded Members of the MFR integration design group Wan,Yuanxi USTC, ASIPP Wu, Songtao ITER Li, Jiangang ASIPP Li, Qiang SWIP Liu, Yong SWIP Weng, Pede ITER, ASIPP Wang, Xiaolin CAEP Guo, Huoyang USA Ye, Minyou USTC Feng, Kaiming SWIP Wan, Baonan ASIPP Wan, Farong BUST Duan, Xuerun SWIP Fu, Pen ASIPP Yu, Qin quang Germany Wu,Yican USTC, ASIPP Zhuang, Ge HUST Gong, Jun INS Yang, Qinwei SWIP Tasks of the National MFR Integration Design Group Now - 2014: providing two options of engineering concept design of CFETR which should include in: • Missions • Type • Main physics basis • Main technique basis to be taken • The concept engineering design for all sub-systems • Important R&D items • Budget & Schedule and Location • Management system 2015: proposal to government to try to get permission for construction; (because the preliminary first proposal has been ranked No.1 in the national next 5Y plan—started at 2016) Working schedule of the National MFR Integration Design Group Within next 6 months: the mission, type and main physic, technic & engineering basis for one option of CFETR should be determined The second option also should be determined preliminarily From medial of this year the activities of the conceptual desing both on physics and engineering will be started It is hoped that at around end of 2014 or ealy of 2015 the engineering conceptual desing of CFETR can be completed. The proposal for constructon of CFETR should be sent to government to try to get permission at 2015; About this workshops Mission: It is a series of workshops; It is expected that the workshops will give us the advisory suggestion, opinion, comments or proposals for next step of MFE development in China; The two design options will be determined by our design group finally after two or three workshops and series of internal expert meetings within next six months from now. About this workshops Topic-1: Suggestion or advisory opinion on what the mission and strategy of MFE development in China should or could be. Topic-2: Tokamaks option • Types (AT, ST, Hybrid?) • The basis of physics can or should be taken. • The basis of technologies can or should be taken. • Challenges and risks Topic-3: Alternative options • Stellarator ? Types The basis of physics can or should be taken. The basis of technologies can or should be taken. Challenges and risks • Any Other attractive options? Under discussion final option ? What is Possible Road map of Fusion to DEMO in China FPP HL-2A DEMO EAST ITER ? JET Concept & Eng. design Now~2015 2015~2025 2030~2040 2050 Welcome you to give us advisory suggestion, opinion, comments or proposals on next step of MFE development in China!! Thanks ! Under discussion final option ? What is Possible Road map of Fusion to DEMO in China FPP HL-2A DEMO EAST ITER ? ~15 yr earlier JET Concept & Eng. design Hybrid or what ? Now~2015 2015~2025 2030~2040 2050 Integration Design Group for Magnetic Confinement Fusion Reactor 1. Layout Design and System 7. Diagnosis & CODAC Integration 8. Electrical Power & Control 2. Plasma Physics and Technology System 3. Superconducting Magnet and 9. Fuel Circulation System & Cryostat System Waste Disposal 4. Vacuum Vessel & Vacuum 10. Radiation Protection & Safety System 11. Remote Control and 5. In-vessel Components & Blanket System Maintenance System 6. Heating & Current Drive 12. Auxiliary Supporting System System 13. Project Management Fusion support system in China Premier NSFC CNNC MOST NDRC CAS MOE ITER and Related National project National Development and Reform Commission – NDRC Ministry of Science and Technology – MOST Fusion by Ministry of Education – MOE supported Chinese Academy of Sciences – CAS ; China National Nuclear Corporation – CNNC Natural Science Foundation of China – NSFC Competitions to Fusion in China G-IV Reactor: Fast Breeder 65MW (now) 800MW(2015) HTGR 10MW (now) 200MW (2015) Melt-salt fission (100MW at 2020) Z-pinch and Laser hybrid reactor configurations also ADS starts for NWT proposed Key issues for fusion energy research SS operation and related issues: SS CD and Heating SSO control technologies; Disruption mitigation and prevented T and it’ self – sustainable Materials Improving confinement further Practical energy resources should be SSO !! 21 -3 Pfusion∝ n﹡T﹡τE ＞ 10 m ﹡s﹡kev ∝ × × × Efusion ( n T τE ) t burning Steady-State Operation (SSO) .
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