Sentence examples for dynamic radius from inspiring English sources
C4Cn suspensions were diluted to 10 mM, sonicated for 1 min (10 on/off cycles of 3 sec) and centrifuged for 1 h at 100,000 g prior to determination of the apparent dynamic radius on a Zetasizer NanoS apparatus (Malvern), measurements were repeated six times.
It is shown that the jumps of parameters at the shock front in the dusty air follow other regularities in comparison with the case of an ideal gas, beginning from the distance of three dynamic radii, so at ten dynamic radii the difference in overpressure exceeds 60%.
However, the prediction of modern scaling theories that the ratio of the static and dynamic radii for randomly branched copolymers would attain a value of unity or slightly below as the critical branching, i.e. the gel point, is approached was not confirmed.
The sphere's radius is taken as the cluster's hydro-dynamic radius (see Figure 5B).
The member particles are assumed to be spheres of a volume calculated from their user-defined hydro-dynamic radius.
Additionally, a cluster's hydro-dynamic radius, used in the calculation of the cluster diffusion constant, is determined by the hydro-dynamic radii of all its member particles.
Reactants with a overall hydro-dynamic radius rotate less, and both the membrane diffusion landscape as well as the static diffusion landscape restrict the amount of rotation a reactant can undergo.
The value of a cluster's D is dependent on whether the cluster is membrane bound or not, on the viscosity of the cluster's diffusion landscape and on the hydro-dynamic radius of the cluster.
The software employs a Brownian dynamics engine to simulate reaction-diffusion systems at the reactive particle level, based on compartment properties, complex structure, and hydro-dynamic radii.
The hydro-dynamic radii and diffusion landscapes of the reaction partners determine the relative contribution of each partner to the rotational movements required to bring them into the right orientation.
left(m+{m}_{eq}right)overset{cdot }{v}=frac{i{M}_{eng}}{r}- mgleft(a+mu right -w{v}^2 (1) m Vehicle mass in kg m eq Equivalent mass of right -w{v}^2s in kg i Gear ratio including final drive m eng Engine's drag torque in Nm r Dynamic rolling radius of the tire in m g GraVehiclenal constant (≈9.81 mass a Slope μ Coeffinient of friction w Air resistant coefficient in kg/m.
