We explore the effect of boundary curvature on the instability of reactive pulses in the catalytic oxidation of CO on microdesigned Pt catalysts. Using ring-shaped domains of various radii, we find that the pulses disappear (decollate from the inert boundary) at a turning point bifurcation, and we trace this boundary in both physical and geometrical parameter space. These computations corroborate experimental observatioons of pulse decollation
The effect of boundaries on pattern formation was studied for the catalytic oxidation of carbon mono...
The effect of boundaries on pattern formation was studied for the catalytic oxidation of carbon mono...
Chemical turbulence in the oscillatory catalytic CO oxidation on Pt(110) is suppressed by means of f...
We explore the effect of boundary curvature on the instability of reactive pulses in the catalytic o...
We study computationally and experimentally the propagation of chemical pulses in complex geometries...
We study the effect of microdesigned composite geometries on pattern formation during the catalytic ...
We study the initiation of pulses and fronts in a two-dimensional catalytic reaction–diffusion syste...
Experiments on the catalytic reduction of NO with CO on a Pt(100) surface reveal attractive interact...
The influence of the domain size on the properties of rotating waves in the NO+CO reaction on a micr...
The exploration of pattern formation by reaction-diffusion systems in complex bounded domains has be...
Fingering instabilities arising from local perturbations to planar reaction fronts in the CO oxidati...
Using a recently realized "addressable catalyst surface" [Science 294, 134 (2001)] we study the inte...
A systematic study of spiral waves in a realistic reaction‐diffusion model describing the isothermal...
Among heterogeneously catalyzed chemical reactions, the CO oxidation on the Pt(110) surface under va...
The phenomenology of spatiotemporal concentration patterns associated with the catalytic oxidation o...
The effect of boundaries on pattern formation was studied for the catalytic oxidation of carbon mono...
The effect of boundaries on pattern formation was studied for the catalytic oxidation of carbon mono...
Chemical turbulence in the oscillatory catalytic CO oxidation on Pt(110) is suppressed by means of f...
We explore the effect of boundary curvature on the instability of reactive pulses in the catalytic o...
We study computationally and experimentally the propagation of chemical pulses in complex geometries...
We study the effect of microdesigned composite geometries on pattern formation during the catalytic ...
We study the initiation of pulses and fronts in a two-dimensional catalytic reaction–diffusion syste...
Experiments on the catalytic reduction of NO with CO on a Pt(100) surface reveal attractive interact...
The influence of the domain size on the properties of rotating waves in the NO+CO reaction on a micr...
The exploration of pattern formation by reaction-diffusion systems in complex bounded domains has be...
Fingering instabilities arising from local perturbations to planar reaction fronts in the CO oxidati...
Using a recently realized "addressable catalyst surface" [Science 294, 134 (2001)] we study the inte...
A systematic study of spiral waves in a realistic reaction‐diffusion model describing the isothermal...
Among heterogeneously catalyzed chemical reactions, the CO oxidation on the Pt(110) surface under va...
The phenomenology of spatiotemporal concentration patterns associated with the catalytic oxidation o...
The effect of boundaries on pattern formation was studied for the catalytic oxidation of carbon mono...
The effect of boundaries on pattern formation was studied for the catalytic oxidation of carbon mono...
Chemical turbulence in the oscillatory catalytic CO oxidation on Pt(110) is suppressed by means of f...