The vegetation transition at treeline provides an opportunity to test the effects of vegetation, topography, and external inputs on soils at three spatial scales.
The way the initial programme interacts with and is influenced by external factors such as wind, topography, habitat etc. is still largely unknown.
Motion of nano objects adsorbed on the brush is induced by having the external conditions and thus the brush topography vary over time.
Furthermore, in the future we will consider the stability of weak solutions to the atmospheric models with the effects of topography, a non-constant external force, radiation heating, and the moist phase transformation, etc.
Such a system possesses the unique property of changing the surface topography in response to different external conditions.
This paper reports both the external and internal accuracy assessment for the topography models derived from recent space exploration missions Chang'E-1 and SELENE.
The effects of liquid volume, liquid surface tension, surface topography, nominal contact area, and external load on the stability of contact interface are studied.
In this paper, we consider the atmospheric motion model under the constant external force and without the effects of topography, and the aerosphere is regarded as a spherical shell encompassing the earth.
To be included, a KC subject must manifest one or more of the following clinical signs: posterior stress lines (Vogt striae), Fleischer ring, external sign (Munson sign) together with a topography positive for KC (central corneal power superior to 48.7 D), and an inferior superior asymmetry above 1.9 [ 15– 17].
The external accuracy assessment shows that the accuracy of the topography derived from SELENE is approximately 58 m, whereas the Chang'E-1 and the ULCN2005 topography are comparatively larger (i.e. approx. 157 m and approx. 537 m, respectively).
