Forage-management principles have been structured from small-plot experimentation targeted at evaluating defoliation regimens, fertilization, and other factors on growth and persistence of forage varieties or germplasm.
A key objective in nanotechnology is to build functional structures from small building blocks, i.e. nanoparticles.
Our results demonstrate that this method has the potential to achieve accurate and detailed mapping of chromatin structure from small amounts of tissue samples.
Bottom-up approaches synthesize mono or few layer graphene structures from small molecule organic precursors by catalytic chemical vapour deposition (CVD) or organic synthesis or epitaxial growth on SiC and so on.
These materials demonstrate a great variety of their sizes and structures, from small molecules to long chains, as well as variations of the sp1, sp2, and sp3 bond ratio [1].
Formation of the first ring structure from small aliphatic molecules is often regarded as the rate-determining step (and in any case as a step of paramount importance) in the combustive growth of larger aromatic systems and soot lamellae.
The development of an effective collateralization in the ischemic zone involves angiogenesis, which is the sprouting of new capillaries, and arteriogenesis, the development of arterial structures from small preexisting collateral vessels [19].
They are spatial structures from small-scale field-aligned currents.
We propose a method that mitigates the limitations of object occlusion and allows detailed description of 3D canopy structure from small-footprint airborne LiDAR (ALiDAR).
It is a continuous process that covers the growth rate from the threshold to failure, and it has the capability of predicting the behavior of full-scale structures from small-scale laboratory tests.
Iyemori et al. (2015) showed that they are a spatial structure from small-scale field-aligned currents (FACs) and estimated the main wave period as 200 340 s, i.e., in the range of acoustic waves, using magnetic field data obtained from the Swarm satellites.
