TY - JOUR
T1 - ASIP tandem queues with consumption
AU - Yeger, Yaron
AU - Boxma, Onno
AU - Resing, Jacques
AU - Vlasiou, Maria
PY - 2024/1
Y1 - 2024/1
N2 - The Asymmetric Inclusion Process (ASIP) tandem queue is a model of stations in series with a gate after each station. At a gate opening, all customers in that station instantaneously move to the next station unidirectionally. In our study, we enhance the ASIP model by introducing the capability for individual customers to independently move from one station to the next, and by allowing both individual customers and batches of customers from any station to exit the system. The model is inspired by the process by which macromolecules are transported within cells. We present a comprehensive analysis of various aspects of the queue length in the ASIP tandem model. Specifically, we provide an exact analysis of queue length moments and correlations and, under certain circumstances, of the queue length distribution. Furthermore, we propose an approximation for the joint queue length distribution. This approximation is derived using three different approaches, one of which employs the concept of the replica mean-field limit. Among other results, our analysis offers insight into the extent to which nutrients can support the survival of a cell.
AB - The Asymmetric Inclusion Process (ASIP) tandem queue is a model of stations in series with a gate after each station. At a gate opening, all customers in that station instantaneously move to the next station unidirectionally. In our study, we enhance the ASIP model by introducing the capability for individual customers to independently move from one station to the next, and by allowing both individual customers and batches of customers from any station to exit the system. The model is inspired by the process by which macromolecules are transported within cells. We present a comprehensive analysis of various aspects of the queue length in the ASIP tandem model. Specifically, we provide an exact analysis of queue length moments and correlations and, under certain circumstances, of the queue length distribution. Furthermore, we propose an approximation for the joint queue length distribution. This approximation is derived using three different approaches, one of which employs the concept of the replica mean-field limit. Among other results, our analysis offers insight into the extent to which nutrients can support the survival of a cell.
KW - Asymmetric Inclusion Process (ASIP)
KW - Replica Mean-Field limit
KW - Vesicular Transport Hypothesis
UR - http://www.scopus.com/inward/record.url?scp=85175695922&partnerID=8YFLogxK
U2 - 10.1016/j.peva.2023.102380
DO - 10.1016/j.peva.2023.102380
M3 - Article
AN - SCOPUS:85175695922
SN - 0166-5316
VL - 163
JO - Performance Evaluation
JF - Performance Evaluation
M1 - 102380
ER -