TY - JOUR
T1 - Hydraulic analysis of the water-cooled blanket based on the sub-critical water condition
AU - Liu, C.
AU - Tobita, K.
PY - 2010/12
Y1 - 2010/12
N2 - The hydraulic simulation of the water-cooled blanket module based on Fluent code is reported. This study focused on heat transfer and the pressure drop under the sub-critical water condition. The temperature field distribution is discussed with the solid zones (breeder, multiplier and F82H material) and the coolants. The peak temperature of beryllium zones reaches about 600 °C and most of the breeder zones (Li4SiO4, Li4SiO 4/Be12Ti) would be nearly 900°C, which meets the thermal design requirements of the blanket material. For the ΔP (pressure drop), the piping circuit assumes most of the ΔP (72.68%) comparing to the other two, the FW (first wall) channel (23.96%) and the header (3.36%), and the total ΔP of blanket cooling system would be under 0.5 MPa which could be satisfied with the design guideline. In addition, by comparing on ΔP between the simulation and the empirical results, it is confirmed the empirical rules of ΔP could be applied to estimate the preliminary values of ΔP on relevant cooling structure.
AB - The hydraulic simulation of the water-cooled blanket module based on Fluent code is reported. This study focused on heat transfer and the pressure drop under the sub-critical water condition. The temperature field distribution is discussed with the solid zones (breeder, multiplier and F82H material) and the coolants. The peak temperature of beryllium zones reaches about 600 °C and most of the breeder zones (Li4SiO4, Li4SiO 4/Be12Ti) would be nearly 900°C, which meets the thermal design requirements of the blanket material. For the ΔP (pressure drop), the piping circuit assumes most of the ΔP (72.68%) comparing to the other two, the FW (first wall) channel (23.96%) and the header (3.36%), and the total ΔP of blanket cooling system would be under 0.5 MPa which could be satisfied with the design guideline. In addition, by comparing on ΔP between the simulation and the empirical results, it is confirmed the empirical rules of ΔP could be applied to estimate the preliminary values of ΔP on relevant cooling structure.
KW - DEMO
KW - Hydraulic analysis
KW - Solid blanket
KW - Sub-critical water
KW - Water-cooled
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U2 - 10.1016/j.fusengdes.2009.11.004
DO - 10.1016/j.fusengdes.2009.11.004
M3 - Article
AN - SCOPUS:79955468582
SN - 0920-3796
VL - 85
SP - 979
EP - 982
JO - Fusion Engineering and Design
JF - Fusion Engineering and Design
IS - 7-9
ER -