Abstract:
Un procedimiento (500, 600) que facilita la planificación de un flujo de máximo esfuerzo y un flujo con un requisito de retardo dentro de un entorno de comunicaciones inalámbricas, que comprende: recibir (502, 602) al menos uno entre un flujo sensible al retardo con un requisito de retardo y un flujo de máximo esfuerzo; adjudicar (504, 604) una primera parte de ancho de banda al flujo sensible al retardo; adjudicar una segunda parte de ancho de banda al flujo de máximo esfuerzo; readjudicar (506, 606) la primera parte de ancho de banda a un nivel reducido de ancho de banda y la segunda parte de ancho de banda a un nivel aumentado de ancho de banda si se satisface el requisito de retardo; readjudicar (508, 608) la primera parte del ancho de banda a un nivel aumentado de ancho de banda y la segunda parte del ancho de banda a un nivel reducido de ancho de banda si no se satisface el requisito de retardo; y mantener (510, 610) un nivel de ancho de banda para la primera parte del ancho de banda y la segunda parte del ancho de banda si el requisito de retardo es equivalente a la primera parte del ancho de banda.
Abstract:
Systems and methodologies are described that facilitate dynamically adjusting scheduling priorities in relation to a combination of delay sensitive flows with delay requirements and best effort flows. The systems and methodologies provide optimal and efficient techniques to enable real time adjustment and assignment of bandwidth for a combination of best effort flows and delay sensitive flows. In particular, the bandwidth allocation is adjusted for each data packet such that delay requirements are met and the remaining bandwidth can be assigned to best effort flows.
Abstract:
Systems and methodologies are described that facilitate enhanced resource scheduling for a wireless communication system. As described herein, packets associated with a common flow that arrive within a predetermined time period following a leading packet associated with the flow can be grouped into respective packet bursts. Subsequently, system bandwidth, transmit power, and/or other communication resources can be scheduled based on an analysis of the respective packet bursts. As provided herein, by analyzing respective packet bursts in lieu of individual packets, computational and resource overhead required for resource scheduling can be significantly reduced. In one example described herein, a resource schedule is determined by selecting one or more flows to be assigned bandwidth from among a plurality of flows based on an analysis of packet bursts respectively associated with the flows. Sufficient bandwidth can subsequently be scheduled for the selected flows for transmission of the respectively associated packet bursts.
Abstract:
Systems and methodologies are described that facilitate dividing scheduling algorithms into background and foreground aspects capable of simultaneously servicing a multiplicity of disparate flows in wideband communications networks. The systems provided herein arbitrarily select prospective time horizons, generate optimal bandwidth allocation targets based on a plurality of flows observed by the system, and utilizes the optimal bandwidth targets to assign flows to users over the entirety of the prospective time horizon.