With the planar conditioned particle image velocimetry (CPIV) technique, simultaneous access is given to the flow, turbulence, and flame position data, using PIV for flow and turbulence and the density jump at the instantaneous flame front for reaction progress variable and density.
An in-depth electrochemical and spectroscopic characterization of triphenylamine (TPA), diketopyrrolopyrrole (DPP) and BODIPY (BOD) and triads of the single constituents (triad 1: TPA-DPP-TPA; triad 2: TPA-DPP-BOD) has been carried out by means of voltammetric (planar diffusion conditions) and in-situ UV-vis-NIR spectroelectrochemical experiments (thin layer conditions).
By theoretical studies and FE simulations, optimal reinforcement methods are derived for the triangular and Kagome lattice under planar loading conditions.
In the C15 structure of the Laves phase, fairly strong electron channelling effects were observed under two planar channelling conditions where the incident electron beams were nearly parallel to the (400) and (220) planes.
The Al Mg/Mg foils were deposited from pure Al and Mg targets in a co-planar configuration, conditions having been initially found that produced high hardness/high strength amorphous Al Mg alloy foils.
The surface tension minimizes the free surface energy of the liquid metal as before, but with the new quasi-planar boundary conditions imposed by the plates, the optimum shape is now a flattened cylinder with height h and facial radii R (the curvature of the walls of the cylinder is assumed to be negligible compared to R).
The paper deals with a new mathematical formulation of methods for spectroelectrochemical examination of reversible simple charge transfer reaction O + ne− ⇌ R on planar electrodes under conditions of semi-infinite linear diffusion making use of glavanostatic electrolysis conditions.
This paper deals with a new mathematical formulation of methods for spectroelectrochemical examination of irreversible and quasi-reversible simple charge transfer reactions on planar electrodes under conditions of semi-infinite linear diffusion making use of electrolysis under galvanostatic conditions.
Now, a new mathematical formulation of methods for spectroelectrochemical examination of two parallel simple charge transfer reactions O1+n1e− ⇌ R1 and O2 + n2e− ⇌ R2 on planar electrodes under conditions of semi-infinite linear diffusion making use of electrolysis under galvanostatic conditions, is presented.
