Both of these techniques are tissue replacement techniques.
Like the radial-velocity method, both of these techniques are best for spotting hot Jupiters.
Both of these techniques produce a large number of images in each diagnosis.
In this paper we describe an algorithm to generalize on both of these techniques.
With both of these techniques, the reactions required to assemble the particles become increasingly difficult with each new drug that is added.
Both of these techniques are being applied to cells from the immune system, which need merely to be injected into a patient's bloodstream to work.
Both of these techniques can be performed upon standard, industrial knitting machines with high-performance yarns such as glass and carbon.
Both of these techniques are used sparingly in embedded applications because of the power and complexity costs associated with their implementations.
Since 2008, however, the biological passport has made it increasingly difficult for athletes to use both of these techniques, and the result is that the proportion of suspicious blood samples has drastically fallen.
Both of these techniques can be subsumed under "negative" eugenics, since the genes screened against are those associated with diseases or, potentially, with other conditions that the parents might regard as undesirable, such as low I.Q., obesity, same-sex preference, or baldness.
In this study we compare both of these techniques used for the production of thin Ag nanoparticle films from the point of view of their morphology, topography and optical properties in dependence on the deposition time and substrate material.
