The local adsoprtion geometries of the (2 × 2)-N and (✓3 × ✓3)R30°-N phases on the Ru(0001) surface are determined by analyzing low-energy electron diffraction intensity data. For both phases, nitrogen occupies the threefold hcp site. The nitrogen sinks deeply into the top Ru layer resulting in a N-Ru interlayer distance of 1.05 and 1.10 Å in the (2 × 2) and the (✓3 × ✓3)R30° unit cell, respectively. This result is attributed to a strong N binding to the Ru surface (Ru-N bond length= 1.93 Å) in both phases as also evidenced by an initio calculations which revealed binding energies of 5.82 and 5.59 eV, respectively
The adsorption states of N2 and H2 on MgO-supported Ru nanoparticles under conditions close to those...
The adsorption geometries of the p(2×2) and (√3×√3)R30° Rb/Ru(0001) phases at coverages of 0.25 and ...
An Extended Ruckel (E. H.) calculation was performed for the energy of Fex clusters (with x = 9, 10,...
The N/Ru(0001) system was studied by thermal desorption spectroscopy (TDS), low‐energy electron diff...
The dissociative chemisorption of N2 on Ru(0001), Ru(101̄0), and Ru(112̄1) surfaces at 300 K was stu...
The adsorption and reaction of NH3 was studied on the Ru(11 (2) over bar0) surface using high-resolu...
Atomic nitrogen on Ru(0001) was prepared by dissociative chemisorption of N2 and studied by scanning...
Adsorption and thermal dehydrogenation of NH3, adsorbed at 80 K on the open Ru(11(2) over bar 1) sur...
Nitrogen atoms adsorbed on a Fe(100) surface cause the formation of an ordered c(2 × 2) overlayer wi...
We investigated the NH3 catalytic decomposition on Ru and Ir metal surfaces using density functional...
Low-energy electron diffraction and density-functional theory calculations are used to examine the a...
The interaction of nitrogen with a Re(OOO1) surface has been studied by low energy electron diffract...
The interaction of N2 and NH3 with Ru(0001), (10̅10), and (11̅21) single-crystal surfaces was studie...
The chemistry of carbon monoxide and dinitrogen on an atomically stepped Ru(109) and an atomically s...
Adsorption of NO and the reaction between NO and H-2 were investigated on the Ru(0001) surface by X-...
The adsorption states of N2 and H2 on MgO-supported Ru nanoparticles under conditions close to those...
The adsorption geometries of the p(2×2) and (√3×√3)R30° Rb/Ru(0001) phases at coverages of 0.25 and ...
An Extended Ruckel (E. H.) calculation was performed for the energy of Fex clusters (with x = 9, 10,...
The N/Ru(0001) system was studied by thermal desorption spectroscopy (TDS), low‐energy electron diff...
The dissociative chemisorption of N2 on Ru(0001), Ru(101̄0), and Ru(112̄1) surfaces at 300 K was stu...
The adsorption and reaction of NH3 was studied on the Ru(11 (2) over bar0) surface using high-resolu...
Atomic nitrogen on Ru(0001) was prepared by dissociative chemisorption of N2 and studied by scanning...
Adsorption and thermal dehydrogenation of NH3, adsorbed at 80 K on the open Ru(11(2) over bar 1) sur...
Nitrogen atoms adsorbed on a Fe(100) surface cause the formation of an ordered c(2 × 2) overlayer wi...
We investigated the NH3 catalytic decomposition on Ru and Ir metal surfaces using density functional...
Low-energy electron diffraction and density-functional theory calculations are used to examine the a...
The interaction of nitrogen with a Re(OOO1) surface has been studied by low energy electron diffract...
The interaction of N2 and NH3 with Ru(0001), (10̅10), and (11̅21) single-crystal surfaces was studie...
The chemistry of carbon monoxide and dinitrogen on an atomically stepped Ru(109) and an atomically s...
Adsorption of NO and the reaction between NO and H-2 were investigated on the Ru(0001) surface by X-...
The adsorption states of N2 and H2 on MgO-supported Ru nanoparticles under conditions close to those...
The adsorption geometries of the p(2×2) and (√3×√3)R30° Rb/Ru(0001) phases at coverages of 0.25 and ...
An Extended Ruckel (E. H.) calculation was performed for the energy of Fex clusters (with x = 9, 10,...