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Figure 6
Results of numerical simulations of 50 nm gold nanospheres dispersed in 1 µm gaps between thick kapton sheets. (a) Maximal temperature growth rate for insulated samples with different thickness of kapton sheets. The dashed line denotes results for 5 µm kapton sheets, the solid line for 50 µm-thick kapton sheets. (b) Maximal temperature growth in the sample with 5 µm kapton sheets for different parameters of heat conduction and emissivity ∊. The solid line denotes the insulated sample, the dashed line denotes conditions with emissivity ∊ = 0.2 and heat conductivity h1 = [0.21 \times \left({T - T_\infty } \right)^{5/4}] J m−2 s−1; the dot–dashed line denotes conditions with heat conductivity h2 = 2.1  × [\left({T - T_\infty } \right)^{5 /4}] J m−2 s−1 and ∊ = 0.2; the dot–dot–dashed line denotes heat conductivity h3 = h2 as above and emissivity ∊ = 0.8 (i.e. ambient conditions).

Journal logoJOURNAL OF
SYNCHROTRON
RADIATION
ISSN: 1600-5775
Volume 18| Part 4| July 2011| Pages 580-594
https://doi.org/10.1107/S0909049511016335
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