公开(公告)号：US20080120081A1

公开(公告)日：2008-05-22

申请号：US11941186

申请日：2007-11-16

申请人： Karthikeyan CHANDRASHEKAR ,  Alain J. Cohen ,  Paul M. Janes ,  David Boyd ,  Stefan Znam ,  Pradeep Singh

发明人： Karthikeyan CHANDRASHEKAR ,  Alain J. Cohen ,  Paul M. Janes ,  David Boyd ,  Stefan Znam ,  Pradeep Singh

IPC分类号： G06G7/50

CPC分类号： H04L41/145 ,  H04L41/0896 ,  H04L41/22

摘要： In a network that includes static bandwidth and dynamic bandwidth links, traffic flow at the OSI network layer is simulated at a traffic-flow level at interfaces to fixed bandwidth links, and simulated at a discrete-packet level at interfaces to dynamic bandwidth links. The resultant discrete-packet reception events at the receiving interface(s) of the dynamic bandwidth link are processed to determine the effective bandwidth/throughput of the link, as well as the allocation of this bandwidth among the individual flows through the link. The discrete-packet level receptions are used to reconstruct the parameters of the traffic flow at the network layer of the receiving interface, and this determined traffic flow is simulated accordingly at the next link, depending upon whether the next link is a static or dynamic bandwidth link.

摘要翻译： 在包含静态带宽和动态带宽链路的网络中，在固定带宽链路的接口处，在业务流级别模拟OSI网络层的流量，并在离散分组级别模拟动态带宽链路的接口。 在动态带宽链路的接收接口处的结果离散分组接收事件被处理以确定链路的有效带宽/吞吐量，以及通过链路在各个流中分配该带宽。 离散分组级接收用于重构接收接口的网络层的业务流的参数，根据下一个链路是静态带宽还是动态带宽，在下一个链路上相应地模拟确定的流量 链接。

公开(公告)号：US09253045B2

公开(公告)日：2016-02-02

申请号：US11941186

申请日：2007-11-16

申请人： Karthikeyan Chandrashekar ,  Alain J. Cohen ,  Paul M. Janes ,  David Boyd ,  Stefan Znam ,  Pradeep Singh

发明人： Karthikeyan Chandrashekar ,  Alain J. Cohen ,  Paul M. Janes ,  David Boyd ,  Stefan Znam ,  Pradeep Singh

IPC分类号： G06F17/50 ,  G06G7/62 ,  H04L12/24

CPC分类号： H04L41/145 ,  H04L41/0896 ,  H04L41/22

摘要： In a network that includes static bandwidth and dynamic bandwidth links, traffic flow at the OSI network layer is simulated at a traffic-flow level at interfaces to fixed bandwidth links, and simulated at a discrete-packet level at interfaces to dynamic bandwidth links. The resultant discrete-packet reception events at the receiving interface(s) of the dynamic bandwidth link are processed to determine the effective bandwidth/throughput of the link, as well as the allocation of this bandwidth among the individual flows through the link. The discrete-packet level receptions are used to reconstruct the parameters of the traffic flow at the network layer of the receiving interface, and this determined traffic flow is simulated accordingly at the next link, depending upon whether the next link is a static or dynamic bandwidth link.

摘要翻译： 在包含静态带宽和动态带宽链路的网络中，在固定带宽链路的接口处，在业务流级别模拟OSI网络层的流量，并在离散分组级别模拟动态带宽链路的接口。 在动态带宽链路的接收接口处的结果离散分组接收事件被处理以确定链路的有效带宽/吞吐量，以及通过链路在各个流中分配该带宽。 离散分组级接收用于重构接收接口的网络层的业务流的参数，根据下一个链路是静态带宽还是动态带宽，在下一个链路上相应地模拟确定的流量 链接。

公开(公告)号：US07844423B2

公开(公告)日：2010-11-30

申请号：US11875900

申请日：2007-10-20

申请人： Karthikeyan Chandrashekar ,  Paul M. Janes ,  Alain J. Cohen ,  Pradeep Singh ,  David James Boyd ,  Ibrahim Utku Moral

发明人： Karthikeyan Chandrashekar ,  Paul M. Janes ,  Alain J. Cohen ,  Pradeep Singh ,  David James Boyd ,  Ibrahim Utku Moral

IPC分类号： G06F17/50 ,  G06F11/30 ,  G06F15/173

CPC分类号： H04L41/145 ,  H04W24/06 ,  H04W74/08

摘要： Channel access delays and reception uncertainty are modeled as protocol-independent generic processes that are optimized for improved simulation performance. The generic process components are designed such that each different protocol can be modeled using an arrangement of these components that is specific to the protocol. In this way, speed and/or accuracy improvements to the generic process components are reflected in each of such protocol models. If an accurate analytic model is not available for the generic process component, a prediction engine, such as a neural network, is preferably used. The prediction engine is trained using the existing detailed models of network devices. Once trained, the prediction engine is used to model the generic process, and the protocol model that includes the generic component is used in lieu of the detailed models, thereby saving substantial processing time.

摘要翻译： 通道访问延迟和接收不确定性被建模为针对改进的仿真性能进行了优化的协议无关的通用进程。 通用过程组件被设计为使得可以使用特定于协议的这些组件的布置来对每个不同的协议进行建模。 以这种方式，通用过程组件的速度和/或精度改进反映在每个这样的协议模型中。 如果准确的分析模型对于通用处理组件不可用，则优选地使用诸如神经网络的预测引擎。 使用现有的网络设备详细模型来训练预测引擎。 一旦被训练，预测引擎用于对通用过程进行建模，并且使用包括通用组件的协议模型来代替详细模型，从而节省大量的处理时间。

公开(公告)号：US20080103738A1

公开(公告)日：2008-05-01

申请号：US11875900

申请日：2007-10-20

申请人： Karthikeyan CHANDRASHEKAR ,  Paul M. Janes ,  Alain J. Cohen ,  Pradeep Singh ,  David James Boyd ,  Ibrahim Utku Moral

发明人： Karthikeyan CHANDRASHEKAR ,  Paul M. Janes ,  Alain J. Cohen ,  Pradeep Singh ,  David James Boyd ,  Ibrahim Utku Moral

IPC分类号： G06G7/48

CPC分类号： H04L41/145 ,  H04W24/06 ,  H04W74/08

摘要： Channel access delays and reception uncertainty are modeled as protocol-independent generic processes that are optimized for improved simulation performance. The generic process components are designed such that each different protocol can be modeled using an arrangement of these components that is specific to the protocol. In this way, speed and/or accuracy improvements to the generic process components are reflected in each of such protocol models. If an accurate analytic model is not available for the generic process component, a prediction engine, such as a neural network, is preferably used. The prediction engine is trained using the existing detailed models of network devices. Once trained, the prediction engine is used to model the generic process, and the protocol model that includes the generic component is used in lieu of the detailed models, thereby saving substantial processing time.

摘要翻译： 通道访问延迟和接收不确定性被建模为针对改进的仿真性能进行了优化的协议无关的通用进程。 通用过程组件被设计为使得可以使用特定于协议的这些组件的布置来对每个不同的协议进行建模。 以这种方式，通用过程组件的速度和/或精度改进反映在每个这样的协议模型中。 如果准确的分析模型对于通用处理组件不可用，则优选地使用诸如神经网络的预测引擎。 使用现有的网络设备详细模型来训练预测引擎。 一旦被训练，预测引擎用于对通用过程进行建模，并且使用包括通用组件的协议模型来代替详细模型，从而节省大量的处理时间。

公开(公告)号：US20090279496A1

公开(公告)日：2009-11-12

申请号：US12435932

申请日：2009-05-05

申请人： Majid Raissi-Dehkordi ,  Karthikeyan Chandrashekar ,  Paul M. Janes ,  Ibrahim Utku Moral ,  Pradeep K. Singh

发明人： Majid Raissi-Dehkordi ,  Karthikeyan Chandrashekar ,  Paul M. Janes ,  Ibrahim Utku Moral ,  Pradeep K. Singh

IPC分类号： H04W72/04

CPC分类号： H04W16/04 ,  H04W72/048 ,  H04W72/082 ,  H04W84/18

摘要： A transmission channel allocation scheme for a multi-hop wireless network takes into account the priority of users, particular application requirements, applicable contractual requirements, and other factors. The channel allocation scheme determines which nodes can share a common channel for transmission without interference, and distinguishes between resources that must be dedicated to each node based on the requirements associated with each node, and the resources that are dynamically provided to each node, based on the current traffic demand. Additionally, resources that are not required to satisfy explicit requests are allocated among the nodes, thereby allowing nodes to sometimes avoid the delays associated with the access request process.

摘要翻译： 多跳无线网络的传输信道分配方案考虑到用户的优先级，特定应用要求，适用的合同要求等因素。 信道分配方案确定哪些节点可以共享公共信道以进行无干扰的传输，并且基于与每个节点相关联的需求以及动态地提供给每个节点的资源来区分必须专用于每个节点的资源，基于 目前的交通需求。 此外，在节点之间分配不需要满足显式请求的资源，从而允许节点有时避免与访问请求过程相关联的延迟。