Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Many scheduling problems can be vied as allocating rates to jobs, subject to convex packing constraints on the rates. ,  consider the problem of rate allocation when jobs of unknown size arrive online (non-clairvoyant setting), with the goal of minimizing ighted delay or flow time. Though this problem has strong lor bounds on competitive ratio in its full generality,  show positive results for natural and fairly broad sub-classes. More specifically, the subclasses  consider not only generalize several ll-studied models such as scheduling with speedup curves and related machine scheduling, but also capture as special cases hitherto unstudied scheduling problems such as routing multi-commodity flows, routing multicast (video-on-demand) trees, and multi-dimensional resource allocation.  establish several first positive results by making connections with two disparate disciplines: Economics and Queueing theory. First,  view the instantaneous allocation of rates as a resource allocation problem.  analyze the natural proportional fairness algorithm from economics. To do this,  extend results from market clearing literature, particularly the Eisenberg-Gale markets and the notions of Walrasian equilibria and Gross Substitutes. This yields the first constant competitive algorithm with constant speed augmentation for single-sink flow routing, routing multicast trees, and multidimensional resource allocation with substitutes resources. Next,  consider the general scheduling problem with packing constraints on rates, but with the restriction that the number of different job types is fixed.  model this problem as a non-stochastic queueing problem.  generalize a natural algorithm from queueing literature and analyze it by extending queueing theoretic ideas.  show that the competitive ratio, for any constant speed, depends polynomially only on the number of job types. Further, such a dependence on the number of job types is unavoidable for non-clairvoyant algorithms. This yields the first algorithm for scheduling multicommodity flows whose competitive ratio depends polynomially on the size of the underlying graph, and not on the number of jobs.
['Sungjin Im', 'Janardhan Kulkarni', 'Kamesh Munagala']
I am writing a research paper on a idea Competitive Flow Time Algorithms for Polyhedral Scheduling
[{"from": "human", "value": "I am writing a research paper on a idea Competitive Flow Time Algorithms for Polyhedral Scheduling"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Many scheduling problems can be vied as allocating rates to jobs, subject to convex packing constraints on the rates. ,  consider the problem of rate allocation when jobs of unknown size arrive online (non-clairvoyant setting), with the goal of minimizing ighted delay or flow time. Though this problem has strong lor bounds on competitive ratio in its full generality,  show positive results for natural and fairly broad sub-classes. More specifically, the subclasses  consider not only generalize several ll-studied models such as scheduling with speedup curves and related machine scheduling, but also capture as special cases hitherto unstudied scheduling problems such as routing multi-commodity flows, routing multicast (video-on-demand) trees, and multi-dimensional resource allocation.  establish several first positive results by making connections with two disparate disciplines: Economics and Queueing theory. First,  view the instantaneous allocation of rates as a resource allocation problem.  analyze the natural proportional fairness algorithm from economics. To do this,  extend results from market clearing literature, particularly the Eisenberg-Gale markets and the notions of Walrasian equilibria and Gross Substitutes. This yields the first constant competitive algorithm with constant speed augmentation for single-sink flow routing, routing multicast trees, and multidimensional resource allocation with substitutes resources. Next,  consider the general scheduling problem with packing constraints on rates, but with the restriction that the number of different job types is fixed.  model this problem as a non-stochastic queueing problem.  generalize a natural algorithm from queueing literature and analyze it by extending queueing theoretic ideas.  show that the competitive ratio, for any constant speed, depends polynomially only on the number of job types. Further, such a dependence on the number of job types is unavoidable for non-clairvoyant algorithms. This yields the first algorithm for scheduling multicommodity flows whose competitive ratio depends polynomially on the size of the underlying graph, and not on the number of jobs."}]