The s manifold energy levels for phosphorus donors in silicon are important input parameters for the design and modeling of electronic devices on the nanoscale. In this paper we calculate these energy levels from first principles using density functional theory. The wavefunction of the donor electron’s ground state is found to have a form that is similar to an atomic s orbital, with an effective Bohr radius of 1.8 nm. The corresponding binding energy of this state is found to be 41 meV, which is in good agreement with the currently accepted value of 45.59 meV. We also calculate the energies of the excited 1s(T 2) and 1s(E) states, finding them to be 32 and 31 meV respectively
The existing discrepancy between theoretical models and experimental results for hydrogen-donor comp...
Excitations of impurity complexes in semiconductors cannot only provide a route to fill the terahert...
Using the Burt–Foreman envelope function theory and effective mass approximation, we develop a theor...
The s manifold energy levels for phosphorus donors in silicon are important input parameters for the...
We present the density functional theory calculations of the binding energy of the Phosphorus (P) do...
We report a density-functional theory treatment of phosphorus 0-doped silicon. Using large asymmetri...
Spin qubits based on shallow donors in silicon are a promising quantum information technology with e...
We present density functional theory calculations of phosphorus dopants in bulk silicon and of sever...
The electronic properties of phosphorus delta-doped structures in silicon, and germanium, are studie...
The differences in energy between electronic bands due to valley splitting are of paramount importan...
The e.p.r. spectrum for relatively dilute samples of phosphorus-doped silicon (<5 x 10(16) donors/cm...
© 2008 Dr. Nikolas StavriasThere are many formidable challenges along the road to building a silicon...
Using first-principles calculations, the electronic structure of the phosphorus-vacancy pair in sili...
We present atomistic simulations of the D0 to D− charging energies of a gated donor in silicon as a ...
We present atomistic simulations of the D0 to D? charging energies of a gated donor in silicon as a ...
The existing discrepancy between theoretical models and experimental results for hydrogen-donor comp...
Excitations of impurity complexes in semiconductors cannot only provide a route to fill the terahert...
Using the Burt–Foreman envelope function theory and effective mass approximation, we develop a theor...
The s manifold energy levels for phosphorus donors in silicon are important input parameters for the...
We present the density functional theory calculations of the binding energy of the Phosphorus (P) do...
We report a density-functional theory treatment of phosphorus 0-doped silicon. Using large asymmetri...
Spin qubits based on shallow donors in silicon are a promising quantum information technology with e...
We present density functional theory calculations of phosphorus dopants in bulk silicon and of sever...
The electronic properties of phosphorus delta-doped structures in silicon, and germanium, are studie...
The differences in energy between electronic bands due to valley splitting are of paramount importan...
The e.p.r. spectrum for relatively dilute samples of phosphorus-doped silicon (<5 x 10(16) donors/cm...
© 2008 Dr. Nikolas StavriasThere are many formidable challenges along the road to building a silicon...
Using first-principles calculations, the electronic structure of the phosphorus-vacancy pair in sili...
We present atomistic simulations of the D0 to D− charging energies of a gated donor in silicon as a ...
We present atomistic simulations of the D0 to D? charging energies of a gated donor in silicon as a ...
The existing discrepancy between theoretical models and experimental results for hydrogen-donor comp...
Excitations of impurity complexes in semiconductors cannot only provide a route to fill the terahert...
Using the Burt–Foreman envelope function theory and effective mass approximation, we develop a theor...