We present a simple, efficient procedure to compute the spontaneous-emission rate from short-time finite-difference time-domain (FDTD) data of the electromagnetic field energy in microcavities of arbitrary geometry. As an illustration, we apply this procedure to two-dimensional photonic crystals. For comparison, we calculate the local radiative density of states employing an unconditionally stable FDTD method, that is without solving the eigenvalue problem and integrating over the (first) Brillouin zone. We demonstrate that both methods yield the same predictions about the enhancement or suppression of the spontaneous-emission rate by photonic crystals.
The concept of a plane scatterer that was developed earlier for scalar waves is generalized so that ...
The concept of a plane scatterer that was developed earlier for scalar waves is generalized so that ...
The authors calculate the lifetime distribution functions of spontaneous emission from infinite line...
Abstract — We present a general method for the factor calculation in optical microcavities. The ana...
We present a general method for the β factor calculation in optical microcavities. The analysis is b...
We show theoretically that photonic crystal membranes cause large variations in the spontaneous emis...
We present the detailed analysis of the spontaneous emission coupling factor (β factor) of the micro...
We developed a general numerical method to calculate the spontaneous emission lifetime in an arbitra...
We developed a general numerical method to calculate the spontaneous emission lifetime in an arbitra...
We have measured time-resolved spontaneous emission from quantum dots in 3D photonic crystals. Due t...
We show theoretically that two-dimensional (2D) photonic crystals in semiconductor membranes strongl...
We examine theoretically the spontaneous emission rate in optical microstructures with cavity resona...
A structured environment such as a photonic crystal can strongly affect radiative properties of an a...
The investigation of emission rates of quantum emitters placed in a variety of environments is a pro...
A structured environment such as a photonic crystal can strongly affect radiative properties of an a...
The concept of a plane scatterer that was developed earlier for scalar waves is generalized so that ...
The concept of a plane scatterer that was developed earlier for scalar waves is generalized so that ...
The authors calculate the lifetime distribution functions of spontaneous emission from infinite line...
Abstract — We present a general method for the factor calculation in optical microcavities. The ana...
We present a general method for the β factor calculation in optical microcavities. The analysis is b...
We show theoretically that photonic crystal membranes cause large variations in the spontaneous emis...
We present the detailed analysis of the spontaneous emission coupling factor (β factor) of the micro...
We developed a general numerical method to calculate the spontaneous emission lifetime in an arbitra...
We developed a general numerical method to calculate the spontaneous emission lifetime in an arbitra...
We have measured time-resolved spontaneous emission from quantum dots in 3D photonic crystals. Due t...
We show theoretically that two-dimensional (2D) photonic crystals in semiconductor membranes strongl...
We examine theoretically the spontaneous emission rate in optical microstructures with cavity resona...
A structured environment such as a photonic crystal can strongly affect radiative properties of an a...
The investigation of emission rates of quantum emitters placed in a variety of environments is a pro...
A structured environment such as a photonic crystal can strongly affect radiative properties of an a...
The concept of a plane scatterer that was developed earlier for scalar waves is generalized so that ...
The concept of a plane scatterer that was developed earlier for scalar waves is generalized so that ...
The authors calculate the lifetime distribution functions of spontaneous emission from infinite line...