Maximizing throughput in flow shop real-time scheduling
Lior Ben Yamin, Jing Li, et al.
APPROX/RANDOM 2020
Consider a message-passing system of n processors, in which each processor holds one piece of data initially. The goal is to compute an associative and commutative reduction function on the n pieces of data and to make the result known to all the n processors. This operation is frequently used in many message-passing systems and is typically referred to as global combine, census computation, or gossiping. This paper explores the problem of global combine in the multiport postal model. This model is characterized by three parameters: n—the number of processors, k—the number of ports per processor, and λ—the communication latency. In this model, in every round r, each processor can send k distinct messages to k other processors, and it can receive k messages that were sent from k other processors λ-1 rounds earlier. This paper provides an optimal algorithm for the global combine problem that requires the least number of communication rounds and minimizes the time spent by any processor in sending and receiving messages. © 1995 IEEE.
Lior Ben Yamin, Jing Li, et al.
APPROX/RANDOM 2020
Kanthi Sarpatwar, Baruch Schieber, et al.
FSTTCS 2019
Tracy Kimbrel, Baruch Schieber, et al.
Journal of Scheduling
Rohit Khandekar, Baruch Schieber, et al.
FSTTCS 2010