Journal of Nano Research
Vol. 56
Vol. 56
Journal of Nano Research
Vol. 55
Vol. 55
Journal of Nano Research
Vol. 54
Vol. 54
Journal of Nano Research
Vol. 53
Vol. 53
Journal of Nano Research
Vol. 52
Vol. 52
Journal of Nano Research
Vol. 51
Vol. 51
Journal of Nano Research
Vol. 50
Vol. 50
Journal of Nano Research
Vol. 49
Vol. 49
Journal of Nano Research
Vol. 48
Vol. 48
Journal of Nano Research
Vol. 47
Vol. 47
Journal of Nano Research
Vol. 46
Vol. 46
Journal of Nano Research
Vol. 45
Vol. 45
Journal of Nano Research
Vol. 44
Vol. 44
Journal of Nano Research Vol. 50
Paper Title Page
Abstract: Flow through nano-channels is important in several fields, ranging from natural porous media to microfluidics. It is therefore important to study the flow under controlled conditions. While quite a lot of work has been done on the flow of liquids through nano-channels, comparatively little systematic work has been done on gas flow. Here we present a study of the flow of argon through nano-channels. We study samples with 2000 parallel nano-channels, with quadratic cross section. Each side is 100nm. The total length is 20 m. The nano-channels are made by patterning a Si<110> wafer usingelectron beam lithography (EBL) followed by reactive ion etching and with subsequent anodic bonding between silicon and a borosilicate glass as a top plate. The samples were investigated using a home-built apparatus which allows us to measure flow at high Knudsen numbers (from around 10 to 550). We compare our results with a range of theoretical flow models. As innovation this work provides measurements of gas transport from the home-built apparatus. The system records the pressure profile of each sample and the mass flow rate is calculated numerically from the pressure data.
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