LVCC sampling technique mainly consisted of a specially designed sampling cell including the rigid sample container and flexible sampling bag, and an absorption-derivatization module with a portable pump and a gas flowmeter.
The useful feature of adapting to various confining structures was demonstrated by removing a rigid gel sample formed within a conical mold.
Thus, for example, a cushion made of material, such as steel, can be selected for use on soft materials, and soft material, such as cardboard, can be chosen for use on more rigid samples.
Results reveal that softer samples due to humidity conditioning and/or substrate material used exhibit greater durability over multiple impacts, while the more rigid samples exhibit greater energy absorption performance at the expense of durability.
The proteasome itself is a rigid and homogenous sample, which is ideal for high-resolution reconstruction.
The measured surface topography was incorporated into a finite element model, which allowed simulating the indentation of an axisymmetric sample by a rigid spherical indenter.
Untreated bagasse sample presents a rigid and compact morphology, while the ones submitted to pretreatment with SO2 or CO2 exhibited a more disorganized morphology, with greater exposure of the fibers.
For the example of MgO, it is shown that the quantitative characteristics of photoadsorption of freons obtained for the air-exposed MgO samples are significantly different from that obtained for the samples experiencing a rigid pretreatment.
Samples were preloaded by compression against a rigid upper boundary to ensure full contact with the sample surface.
In this work, we compare the performance of samples prepared onto a rigid glass substrate and onto a cyclo olefin copolymer flexible one.
Carbon dioxide hydrate was formed in Ottawa 20/30 sand samples contained within a rigid cell using a partial water saturation formation methodology.
