ADAPTING COMMUNICATION PARAMETERS TO LINK CONDITIONS, TRAFFIC TYPES, AND/OR PRIORITIES
    1.
    发明公开
    ADAPTING COMMUNICATION PARAMETERS TO LINK CONDITIONS, TRAFFIC TYPES, AND/OR PRIORITIES 审中-公开
    将通信参数适用于链接条件,流量类型和/或优先级

    公开(公告)号:EP3205035A1

    公开(公告)日:2017-08-16

    申请号:EP15784833.4

    申请日:2015-10-06

    申请人: VID SCALE, Inc.

    IPC分类号: H04L1/00 H04L12/801

    摘要: Systems and methods are provided for adapting communication parameters to a variety of link conditions, traffic types and priorities. For example, WiFi transmission parameters (e.g. retry limit, AIFS, CW size, MCS order and/or CCA threshold) may be adapted to channel congestion levels, channel errors and/or traffic priority levels. Parameter adaptation may be coordinated across layers (e.g. between MAC and PHY layer parameters). Congestion levels may be detected, for example, using a smoothed queue size and/or channel busy time. Traffic may be transmitted using adapted parameters, such as reduced retry limits for a high congestion level and increased retry limits for priority traffic in response to channel error. Feedback may support parameter adaptation. For example, feedback may be provided by a receiver and/or within a sender, such as a sender MAC and/or PHY layer or a parameter adapter providing feedback (e.g. spoofed NACK packet) to a sender application, transport and/or network layer.

    摘要翻译: 提供了用于使通信参数适应各种链路条件,业务类型和优先级的系统和方法。 例如,WiFi传输参数(例如,重试限制,AIFS,CW大小,MCS命令和/或CCA阈值)可适用于信道拥塞等级,信道差错和/或业务优先级等级。 参数适配可跨层协调(例如在MAC层和PHY层参数之间)。 例如,可以使用平滑的队列大小和/或信道繁忙时间来检测拥塞水平。 可以使用适应的参数来传输业务量,例如针对高拥塞等级的降低的重试限制以及针对响应于信道错误的优先级业务的重试限制的增加。 反馈可能支持参数适配。 例如,反馈可以由接收器和/或发送器内的发送者应用程序,传输和/或网络层提供反馈(例如,伪造的NACK分组),诸如发送者MAC和/或PHY层或参数适配器 。

    ADAPTING COMMUNICATION PARAMETERS TO LINK CONDITIONS, TRAFFIC TYPES, AND/OR PRIORITIES

    公开(公告)号:EP3955487A1

    公开(公告)日:2022-02-16

    申请号:EP21198921.5

    申请日:2015-10-06

    申请人: Vid Scale, Inc.

    IPC分类号: H04L1/00 H04W28/02 H04L1/18

    摘要: Systems and methods are provided for adapting communication parameters to a variety of link conditions, traffic types and priorities. For example, WiFi transmission parameters (e.g. retry limit, AIFS, CW size, MCS order and/or CCA threshold) may be adapted to channel congestion levels, channel errors and/or traffic priority levels. Parameter adaptation may be coordinated across layers (e.g. between MAC and PHY layer parameters). Congestion levels may be detected, for example, using a smoothed queue size and/or channel busy time. Traffic may be transmitted using adapted parameters, such as reduced retry limits for a high congestion level and increased retry limits for priority traffic in response to channel error. Feedback may support parameter adaptation. For example, feedback may be provided by a receiver and/or within a sender, such as a sender MAC and/or PHY layer or a parameter adapter providing feedback (e.g. spoofed NACK packet) to a sender application, transport and/or network layer.