The air flow structure and its evolution under real-time boundary wind conditions are simulated by using this new scheme.
Air flow and pollutant dispersion characteristics in an urban street canyon are studied under the real-time boundary conditions.
Then the real-time boundary reconstruction capability will be developed, ultimately incorporating a Grad-Shafranov based [Nucl. Fusion 38 (1998 1055]] equilibrium solution, for more precise control capability.
A new scheme for realizing real-time boundary conditions in simulations is proposed, to keep the upper boundary wind conditions consistent with the measured time series of wind data.
Comparisons of simulated results under different boundary wind conditions indicate that real-time boundary wind conditions produces better condition for pollutant dispersion than the artificially-designed steady boundary wind conditions.
The simulations of pollutant dispersion also show that the transport of pollutants from the canyon to the upper air flow is dominated by the shear layer turbulence near the roof level and the expansion or compression of the air mass in street canyon under real-time boundary wind conditions.
The advantage of this choice is the possibility of raising the sampling frequencies beyond the hard real-time boundaries, while retaining control on the transient overloads.
Although the music provides a fullness, an illusion of depth, the two cuts appear to be long improvisations between the players, conducted in real time, within simple boundaries.
To sum up, in the two key steps of the splitting strategies, we still face enormous challenges to implement the generators coherency identification and acquire the optimal splitting boundaries in real time.
Biological invasions involving hybridization, on the other hand, can provide exceptional opportunities to study the erosion of species boundaries in real time.
We report on the use of an optical sensing platform based on Bloch surface waves sustained by one-dimensional photonic crystals as a novel optical tool to probe in real time the fluid flow at a boundary wall of a microfluidic channel under dynamic conditions.
