Abstract. Consider a single-server queue with a Poisson arrival process and exponential processing times in which each customer independently reneges after an exponentially distributed amount of time. We establish that this system can be approximated by either a reflected Ornstein–Uhlenbeck process or a reflected affine diffusion when the arrival rate exceeds or is close to the processing rate and the reneging rate is close to 0. We further compare the quality of the steady-state distribution approximations suggested by each diffusion
Motivated by queues with many-servers, we study Brownian steady-state approximations for continuous ...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
Motivated by queues with many-servers, we study Brownian steady-state approximations for continuous ...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
For a class of models of adaptive queueing systems an exact diffusion approximation is derived with ...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
A time non homogeneous diffusion approximation to a single server-single queue service system is obt...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
Motivated by queues with many-servers, we study Brownian steady-state approximations for continuous ...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...
Consider a single server queue with renewal arrivals and i.i.d. service times in which the server op...