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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:
0000-00-00

First Author:
Ian Jenkins

Title:
Scoping Studies for NBI Launch Geometries on DEMO

Paper Identifier:
CP/15/324

Search the list of Figures using keywords (case insensitive):

To drill down to information on Data within a published figure, select a table cell where the figure's number of Data Items > 0
Use the Download buttons to download information on each listed figure, e.g. the image file and how it was created

Figure Reference Title Description Number of Figure Data Items Identifier Download Figure Details
Fig. 2a Fig. 2a Contours of NBCD efficiency, ?, with EB=1.5MeV a) the flat density scenario Contours of NBCD efficiency, ?, with EB=1.5MeV for a range of tangency radii and elevations for a) the flat density scenario. 1 CF/15/325 Download
Fig. 1 Fig. 1 Density (upper) and Temperature (lower, Ti=Te) profiles Fig. 1. Density (upper) and Temperature (lower, Ti=Te) profiles plotted against rho for the DEMO scenarios considered. The solid lines relate to the ‘flat’ density profile case and the dashed to the ‘peaked’ density profile case. 0 CF/15/326 Download
Fig. 2b Fig. 2b Contours of NBCD efficiency, ?, with EB=1.5MeV b) the peaked density scenario. Contours of NBCD efficiency, ?, with EB=1.5MeV for a range of tangency radii and elevations for , b) the peaked density scenario. 1 CF/15/327 Download
Fig.3a. Contours of % shinethrough (solid lines) with EB=1.5MeV for a) flat density Contours of % shinethrough (solid lines) with EB=1.5MeV for a) flat density 1 CF/15/328 Download
Fig 3b Fig.3b. Contours of % shinethrough (solid lines) with EB=1.5MeV for b) peaked density Contours of % shinethrough (solid lines) with EB=1.5MeV for peaked density 0 CF/15/329 Download
Fig. 4a Fig.4a. Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.5MeV for a) flat density Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.5MeV for a) flat density 0 CF/15/330 Download
Fig.4b. Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.5MeV for peaked density. Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.5MeV for b) peaked density 0 CF/15/331 Download
Fig. 5a Fig.5a Contours of NBCD efficiency, ?, with EB=1.0MeV for a) the flat density scenario, Fig.5a Contours of NBCD efficiency, ?, with EB=1.0MeV for a) the flat density scenario, 1 CF/15/332 Download
Fig 5b Fig.5b Contours of NBCD efficiency, ?, with EB=1.0MeV for the peaked density scenario. Contours of NBCD efficiency, ?, with EB=1.0MeV for the peaked density scenario 1 CF/15/333 Download
Fig 6a Fig.6a. Contours of % shinethrough (solid lines) with EB=1.0MeV for a) flat density Contours of % shinethrough (solid lines) with EB=1.0MeV for a) flat density 0 CF/15/334 Download
Fig.6b. Contours of % shinethrough (solid lines) with EB=1.0MeV for peaked density Contours of % shinethrough (solid lines) with EB=1.0MeV for peaked density. 0 CF/15/335 Download
Fig. 7a Fig.7a. Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.0MeV for flat density Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.0MeV for a) flat density 0 CF/15/336 Download
Fig. 7b Fig.7b. Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.0MeV for peaked density scenarios. Contours showing the r/a location of the maxima of the NBCD profiles with EB=1.0MeV for peaked density scenarios 0 CF/15/337 Download
Fig. 8 Fig.8. A schematic representation of a trial solution with each bit string including a binary representation of the crossover and mutation rates associated with that particular trial solution and bit-string. A schematic representation of a trial solution with each bit string including a binary representation of the crossover and mutation rates associated with that particular trial solution and bit-string. 0 CF/15/338 Download
Fig. 9 Fig. 9. Typical ‘hybrid’ q-profile (upper) and corresponding current profiles (lower). Typical ‘hybrid’ q-profile (upper) and corresponding current profiles (lower). The dotted line is the difference between the total (solid line) and bootstrap current (dash-dotted), here calculated for the flat density scenario, and represents the current required to be provided by ohmic induction, NBCD, or a mixture of the two. 1 CF/15/339 Download
Fig. 10a. Fits after 1000 generations of genetic algorithm for the EB=1.5MeV NBCD source functions to target j-profile and the distribution of power required for flat density Fits (dashed line, inset) after 1000 generations of genetic algorithm for the EB=1.5MeV NBCD source functions to target j-profile (solid line, inset) and the distribution of power required for a) flat density 1 CF/15/340 Download
Fig. 10b Fig. 10b. Fits after 1000 generations of genetic algorithm for the EB=1.5MeV NBCD source functions to target j-profile and the distribution of power required for peaked density scenarios. Fig. 10b. Fits (dashed line, inset) after 1000 generations of genetic algorithm for the EB=1.5MeV NBCD source functions to target j-profile (solid line, inset) and the distribution of power required for peaked density scenarios. 1 CF/15/341 Download
Fig. 11a Fig. 11a. Fits after 1000 generations of genetic algorithm for the EB=1.0MeV NBCD source functions to target j-profile and the distribution of power required for flat density Fits (dashed line, inset) after 1000 generations of genetic algorithm for the EB=1.0MeV NBCD source functions to target j-profile (solid line, inset) and the distribution of power required for a) flat density 1 CF/15/342 Download
Fig. 11b Fig. 11b. Fits after 1000 generations of genetic algorithm for the EB=1.0MeV NBCD source functions to target j-profile and the distribution of power required for peaked density Fits (dashed line, inset) after 1000 generations of genetic algorithm for the EB=1.0MeV NBCD source functions to target j-profile (solid line, inset) and the distribution of power required for b) peaked density 1 CF/15/343 Download
Fig.12 Fig. 12. Comparison with target j-profiles of NBCD profiles output from TRANSP runs using EB=1.0MeV Fig. 12. Comparison with target j-profiles (solid line) of NBCD profiles output from TRANSP runs using EB=1.0MeV NB powers and locations as suggested by Fig. 11 for a) flat density, b) peaked density scenarios respectively. 1 CF/15/344 Download
Fig. 12 Fig. 12.(amended) Comparison with target j-profiles (solid line) of NBCD profiles output from TRANSP (dashed line) and PENCIL (dotted line, remapped onto rho) using EB=1.0MeV Fig. 12. Comparison with target j-profiles (solid line) of NBCD profiles output from TRANSP (dashed line) and PENCIL (dotted line, remapped onto rho) using EB=1.0MeV with NB powers and locations as suggested by Fig. 11 for a) flat density, b) peaked density scenarios respectively 0 CF/16/148 Download

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    Culham Centre for Fusion Energy, Culham Science Centre, Abingdon, Oxfordshire, OX14 3DB, UK. This work is funded by the UK Engineering and Physical Sciences Research Council (EPSRC) and EURATOM

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