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These pages provide an access point to data contained in CCFE published journal papers.  By selecting a paper, and then a specific figure or table, you can request the related underlying data if it is available for release.

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Publication Figures

Publication Date:
2019-03-22

First Author:
K.K. Kirov

Title:
Studies on the fast ions synergistic effects in JET high performance pulses

Paper Identifier:
CP/18/233

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Figure Reference Title Description Number of Figure Data Items Identifier Download Figure Details
Figure 1a Neutron yield, NTOT, versus diamagnetic plasma energy, Wdia, for baseline database with colour-coded RF power PRF 1 CF/18/234 Download
Figure 1b Neutron yield, NTOT, versus diamagnetic plasma energy, Wdia, for baseline database with colour-coded electron temperature Te 1 CF/18/236 Download
Figure 2a Beam-target DD 2.45MeV neutron production spectra showing that RF contributions can be clearly identified for neutron energies En<2MeV and En>3MeV 0 CF/18/238 Download
Figure 2b TOFOR analysis compared to simulated tTOF for hybrid pulse #92398 with PRF=5MW showing good agreement between simulations and measurements 0 CF/18/239 Download
Figure 2c TOFOR analysis compared to simulated tTOF for hybrid pulse #92398 with zero RF power and lower Te and Ti showing that the high energy (short time-of-flight, <61 ns) part of the spectrum does not match the TOFOR data for 55ns<tTOF<61ns 0 CF/18/240 Download
Figure 3a Time trances of JET pulse #92436, 2.8T/3MA high performance baseline, top to bottom, Ip/Bt, PNB/PRF/Prad, core and edge line integrated density, total gas puff rate and ELMs from BeII spectroscopy 0 CF/18/241 Download
Figure 3b Time trances of JET pulse #92395, 2.8T/2.2MA high performance hybrid, top to bottom, Ip/Bt, PNB/PRF/Prad, core and edge line integrated density, total gas puff rate and ELMs from BeII spectroscopy 0 CF/18/242 Download
Figure 4a Quasilinear diffusion coefficient, DQL, for typical JET conditions, which will give for ICRH related parameters E-/E+ ? 2.4, k? ? 50 m-1, fRF = 42 MHz and magnetic field Bt = 2.75 T for which ?cD ? 2 ? 21MHz in the centre of the plasma for n = 1 H minority and n = 2 for bulk D ions. 0 CF/18/243 Download
Figure 4b flux surface averaged thermal, subscripts Th, BT and BB, reaction rates vs. TRANSP normalised radius X for JET best performing baseline pulse #92436 with NB power only in blue and NB+RF in red. 0 CF/18/244 Download
Figure 5a BT reactivity from Mikkelsen [46] formula (7), <?.v>BT_MEB, for mono-energetic beam as a function of fast ions energy for three values of target ion temperature 0 CF/18/245 Download
Figure 5b bulk Maxwellian (FTh, dashed lines) and fast ions (Ffi, solid lines) unnormalized distribution functions near magnetic axis for baseline pulse #92436, 9.18s as provided by TRANSP with (red lines) and without (blue lines) RF power 0 CF/18/246 Download
Figure 5c the product < ?.v >BT_MEB Ffi as function of fast ions energy for the two cases shown above 0 CF/18/247 Download
Figure 5d BT cumulative reaction rate RBT(E) as explained in the text 0 CF/18/248 Download
Figure 6a Total neutron yields, NTOT, measured (in red) and from JETTO predictive (in blue) and TRANSP (in black) runs for baseline pulse #92436 (solid lines) and hybrid pulse # 92395 (dashed lines) 0 CF/18/249 Download
Figure 6b stored plasma energy, Wp, measured (in red) and from JETTO predictive (in blue) and TRANSP (in black) runs for baseline pulse #92436 (solid lines) and hybrid pulse # 92395 (dashed lines) 0 CF/18/250 Download
Figure 7a Baseline pulse #92436, ne, profiles at 9.4s from JETTO predictive modelling with BgB model compared to the experimental profiles from the available diagnostics. TRANSP was run with profiles provided by JETTO. 0 CF/18/251 Download
Figure 7b Baseline pulse #92436, Te profiles at 9.4s from JETTO predictive modelling with BgB model compared to the experimental profiles from the available diagnostics. TRANSP was run with profiles provided by JETTO. 0 CF/18/252 Download
Figure 7c Baseline pulse #92436, Ti profiles at 9.4s from JETTO predictive modelling with BgB model compared to the experimental profiles from the available diagnostics. TRANSP was run with profiles provided by JETTO. 0 CF/18/253 Download
Figure 8a Hybrid pulse #92395, ne, profiles at 7.25s from JETTO and TRANSP interpretive analysis compared to the experimental profiles from the available diagnostics. 0 CF/18/254 Download
Figure 8b Hybrid pulse #92395, Te profiles at 7.25s from JETTO and TRANSP interpretive analysis compared to the experimental profiles from the available diagnostics. 0 CF/18/255 Download
Figure 8c Hybrid pulse #92395, Ti profiles at 7.25s from JETTO and TRANSP interpretive analysis compared to the experimental profiles from the available diagnostics. 0 CF/18/256 Download
Figure 9a TOFOR analysis for JET pulse #92436, averaged in 9-9.5s, simulated total TOFOR spectra (red line) from TRANSP with PRF=5MW (blue line) and scattered neutrons contribution (black dash-dotted line) compared to time-of-flight measurements (black dots) 0 CF/18/257 Download
Figure 9b TOFOR analysis for JET hybrid pulse #92395, averaged in 7-7.5s, simulated total TOFOR spectra (red line) from TRANSP with PRF=5MW (blue line) and scattered neutrons contribution (black dash-dotted line) compared to time-of-flight measurements (black dots). 0 CF/18/258 Download
Figure 10a Baseline pulse #92436, simulations for PNB=23.4MW, case #1 in table 1 (cyan lines), and PNB=31.6MW, case #2 in table 1 (blue lines), comparison of fast ions densities nfi (top), beam deposition SBDEP (middle) and NB ion heating PNB,i (bottom) profiles vs. TRANSP normalised radius X. 0 CF/18/259 Download
Figure 10b Fast ions density mapped on (R,Z) cross-section of the plasma for the reference case in table 1, (left) and without RF power case #5 in table 1 (right) 0 CF/18/260 Download
Figure 11a Baseline pulse #92436, 9.18s, fast ions distribution function, solid lines Ffi, and thermal Mawellian distribution function, dashed lines FTh, 0 CF/18/261 Download
Figure 11b the product <?.v>BT_MEB Ffi (E) 0 CF/18/262 Download
Figure 11c BT cumulative reaction rate RBT(E) 0 CF/18/263 Download
Figure 12a same as the figure 11 but for the case of lowering the NB (blue) and RF (red) power by 4MW. 0 CF/18/264 Download
Figure 12b same as the figure 11 but for the case of lowering the NB (blue) and RF (red) power by 4MW. 0 CF/18/265 Download
Figure 12c same as the figure 11 but for the case of lowering the NB (blue) and RF (red) power by 4MW. 0 CF/18/266 Download
Figure 13a Hybrid pulse #92395, simulations for PNB=22.8MW, case #1 in table 2 (cyan lines), and PNB=30.8MW, case #2 in table 2 (blue lines), comparison of fast beam ions densities nfi (top), beam deposition SBDEP (middle) and NB ion heating PNB,i (bottom) 0 CF/18/267 Download
Figure 13b Fast beam ions density mapped on (R,Z) cross-section of the plasma for the reference case in table 2 (left) and without RF power, case #5 in table 2 (right) 0 CF/18/268 Download
Figure 14a Hybrid pulse #92395, FI DF Ffi and thermal Mawellian DF 0 CF/18/269 Download
Figure 14b the product <?.v>BT_MEB Ffi 0 CF/18/270 Download
Figure 14c BT cumulative reaction rate RBT(E) 0 CF/18/271 Download
Figure 15a same as the figure 14 but for the case of lowering the NB (blue) and RF (red) power by 4MW 0 CF/18/272 Download
Figure 15b same as the figure 14 but for the case of lowering the NB (blue) and RF (red) power by 4MW 0 CF/18/273 Download
Figure 15c same as the figure 14 but for the case of lowering the NB (blue) and RF (red) power by 4MW 0 CF/18/274 Download

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