Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: As a natural multi-class generalization of the ll-known (egalitarian) processor sharing (PS) service discipline, discriminatory processor sharing (DPS) is of great interest in many application areas, including telecommunications. Under DPS, the mean response time conditional on the service requirement is only known in closed form when all classes have exponential service requirement distributions. For generally distributed service requirements, Fayolle et al. (1980) shod that the expected conditional response times satisfy a system of integro-differential equations. ,  exploit that result to prove that, provided the system is stable, for each class the expected unconditional response time is finite and that the expected conditional response time has an asymptote. The asymptotic bias of each class is found in closed form, involving the mean service requirements of all classes and the second moments of all classes but the one under consideration. In the course of the development  prove two other results that are of independent interest:  establish a conservation law for the time average unfinished work of all classes and, using a stochastic coupling argument,  show that the response times of different classes are stochastically ordered according to the DPS ights. Finally,  study DPS as a tool to achieve size based scheduling and  provide guidelines as to how the ights of DPS must be chosen such that DPS outperforms PS.
['Konstantin Avrachenkov', 'Urtzi Ayesta', 'Patrick Brown', 'Rudesindo Núñez-Queija']
I am writing a research paper on a idea Discriminatory processor sharing revisited
[{"from": "human", "value": "I am writing a research paper on a idea Discriminatory processor sharing revisited"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: As a natural multi-class generalization of the ll-known (egalitarian) processor sharing (PS) service discipline, discriminatory processor sharing (DPS) is of great interest in many application areas, including telecommunications. Under DPS, the mean response time conditional on the service requirement is only known in closed form when all classes have exponential service requirement distributions. For generally distributed service requirements, Fayolle et al. (1980) shod that the expected conditional response times satisfy a system of integro-differential equations. ,  exploit that result to prove that, provided the system is stable, for each class the expected unconditional response time is finite and that the expected conditional response time has an asymptote. The asymptotic bias of each class is found in closed form, involving the mean service requirements of all classes and the second moments of all classes but the one under consideration. In the course of the development  prove two other results that are of independent interest:  establish a conservation law for the time average unfinished work of all classes and, using a stochastic coupling argument,  show that the response times of different classes are stochastically ordered according to the DPS ights. Finally,  study DPS as a tool to achieve size based scheduling and  provide guidelines as to how the ights of DPS must be chosen such that DPS outperforms PS."}]