where F1 indicates minimization of system imbalance which is equivalent to maximizing the system utilization, and F2 indicates the maximization of throughput which is equivalent to maximizing the system efficiency.
Preserving the multiuser diversity, it takes a maximal benefit of the opportunistic scheduling technique for maximizing the system capacity.
The objective is to minimize the heat exchangers' cost while maximizing the system performance.
The obtained results indicate that maximizing the system efficiency while minimizing system cost is a multi-objective optimization problem.
Complementation in intercropping during mid- and late- growth stages is beneficial for stimulating wheat growth, reducing N fertilizer application rate, and maximizing the system productivity.
In this paper, the power allocation problem (i.e., maximizing the system performance under a power budget) is modeled by a combinatorial auction.
The h values in the FLR models are determined according to the criterion of maximizing the system credibilities of the FLR models.
The aim of the research consists in maximizing the system and control performances, and minimizing the system development and maintenance costs.
Two typical redundancy allocation problem formulations, i.e., minimizing the system cost while satisfying required system availability and maximizing the system availability with a limited budget, are studied.
In this paper, our goal is to solve the constrained multi-objective reliability optimization problem of a system with interval valued reliability of each component by maximizing the system reliability and minimizing the system cost under several constraints.
To simplify the co-design and co-optimization of the fluid or combustion system and the thermoelectric device, which are crucial for maximizing the system performance, a three-dimensional thermoelectric generator model is proposed and implemented in a computational fluid dynamics (CFD) simulation environment (FLUENT).
