Abstract: A computer-implemented method, computer program product, and computing system is provided for quality of experience for media transmissions. In an implementation, a method may include determining a first quality of experience metric associated with a media stream at a first network node. The first quality of experience metric may be transmitted with the media stream. The method may also include determining a second quality of experience metric associated with the media stream at a second network node. An updated quality of experience metric may be transmitted with the media stream. The updated quality of experience metric may be based upon, at least in part, the first quality of experience metric and the second quality of experience metric.

Abstract: A method for calculating a mean opinion score (MOS) during an ongoing Voice over Internet Protocol (VoIP) call is provided. The method may include determining a time delay between a VoIP source and a VoIP destination connected by a communications network. A start recording message is sent from the VoIP source to the VoIP destination. A first recorded call sample from the VoIP source and a second recorded call sample from the VoIP destination are generated, whereby the first and the second recorded call sample are generated with a recording delay value corresponding the determined time delay for synchronizing the first and the second recorded call sample. Using an intrusive call quality measurement, a first MOS value is calculated based on the first and the second recorded call sample. Using a non-intrusive call quality measurement, a second MOS value is calculated based on the first MOS value.

Abstract: A method for calculating a mean opinion score (MOS) during an ongoing Voice over Internet Protocol (VoIP) call is provided. The method may include determining a time delay between a VoIP source and a VoIP destination connected by a communications network. A start recording message is sent from the VoIP source to the VoIP destination. A first recorded call sample from the VoIP source and a second recorded call sample from the VoIP destination are generated, whereby the first and the second recorded call sample are generated with a recording delay value corresponding the determined time delay for synchronizing the first and the second recorded call sample. Using an intrusive call quality measurement, a first MOS value is calculated based on the first and the second recorded call sample. Using a non-intrusive call quality measurement, a second MOS value is calculated based on the first MOS value.

Abstract: A computer-implemented method, computer program product, and computing system is provided for managing quality of experience for communication sessions. In an implementation, a method may include determining a participant focus metric for each of a plurality of participants of a communication session. The method may also include identifying one of the plurality of participants of the communication session as having sufficient capacity to support the communication session based upon, at least in part, the participant focus metric for each of the plurality of participants of the communication session. The method may also include selecting the one of the plurality of participants having a sufficient capacity to support the communication session as a selected focus for the communication session. The method may further include adaptively implementing a centralized communication session architecture utilizing the selected focus.

Abstract: A computer-implemented method, computer program product, and computing system is provided for managing quality of experience for communication sessions. In an implementation, a method may include determining a participant focus metric for each of a plurality of participants of a communication session. The method may also include identifying one of the plurality of participants of the communication session as having sufficient capacity to support the communication session based upon, at least in part, the participant focus metric for each of the plurality of participants of the communication session. The method may also include selecting the one of the plurality of participants having a sufficient capacity to support the communication session as a selected focus for the communication session. The method may further include adaptively implementing a centralized communication session architecture utilizing the selected focus.

Abstract: A first mobile device receives, from each of a plurality of other mobile devices, information related to the availability of at least one network resource provided by at least a first network offered for sharing by the respective other mobile device. The first mobile device also receives a request from a second mobile device to access the network resource provided by the first network shared by at least one of the plurality of other mobile devices. The first mobile device selects at least one of the other mobile devices to share the network resource provided by the first network with the second mobile device. The first mobile device communicates to the second mobile device peer-to-peer network connection information of the selected at least one of the other mobile devices.

Abstract: An approach is provided for predicting system performance. The approach operates by identifying a Queuing Network Model (QNM) corresponding to an information technology (IT) environment that includes a number of servers that perform a plurality of parallel services. The QNM is transformed to a linear model by serializing the parallel services as sequential services. Hardware based service demands are retrieved from the system. Software-based service demands are inferred from the hardware-based service demands. Predicted performance results of the IT environment are calculated based on the hardware-based service demands, the software-based service demands inferred from the hardware-based service demands, and the system transaction rate of the system.

Abstract: An approach is provided for predicting system performance. The approach predicts system performance by identifying a Queuing Network Model (QNM) corresponding to a clustered system that handles a plurality of service demands using a plurality of parallel server nodes that process a workload for a quantity of users. A workload description is received that includes server demand data. Performance of the clustered system is predicted by transforming the QNM to a linear model by serializing the parallel services as sequential services, identifying transaction groups corresponding to each of the server nodes, and distributing the workload among the transaction groups across the plurality of nodes. The approach further solves analytically the linear model with the result being a predicted resource utilization (RU) and a predicted response time (RT).

Abstract: A method, a computer program product, and a computer system for monitoring conversational audio quality of Voice over Internet Protocol (VoIP) are provided. A monitoring system determines a size of an audio file and an available bandwidth. The monitoring system predicts time of receiving the audio file, based on the size and the bandwidth. The monitoring system determines whether the time of receiving the audio file exceeds a monitoring timer interval by a certain threshold. The monitoring system uses an intrusive testing method for monitoring call quality, in response to determining that the time of receiving the audio file exceeds the monitoring timer interval by the certain threshold.

Abstract: A method, a computer program product, and a computer system for monitoring conversational audio quality of Voice over Internet Protocol (VoIP) are provided. A monitoring system determines a size of an audio file and an available bandwidth. The monitoring system predicts time of receiving the audio file, based on the size and the bandwidth. The monitoring system determines whether the time of receiving the audio file exceeds a monitoring timer interval by a certain threshold. The monitoring system uses an intrusive testing method for monitoring call quality, in response to determining that the time of receiving the audio file exceeds the monitoring timer interval by the certain threshold.

Abstract: A computer-implemented method, computer program product, and computer system for notification of a QoE (Quality of Experience) issue in a network service. An end user device sends the notification to a server providing the network service, in response to determining that calculated QoE metrics is below a predetermined level for a predetermined time period. The server resolves the QoE issue, in response to determining that the QoE issue is listed to be resolved by the server. The server forwards the notification of the QoE issue to a system administrator, in response to determining that the QoE issue is not listed to be resolved by the server.

Abstract: A Voice over Internet Protocol (VoIP) session between computing devices can be identified. Each computing device can be associated with a communication link. Each of the computing devices can execute a VoIP application. Each application can include selectable codecs. The codecs can be an audio codec and a video codec. A unique list of the selectable codecs can be generated. The list can include sublists which can identify the codecs. A loss threshold with each sublist based on previously determined performance characteristics of the codecs can be associated. The threshold can be a packet loss threshold value of the link associated with the devices. A packet loss metric of the link can be evaluated. The link can be associated with a codec of the sublists. A programmatic action can be performed to select a different codec from the sublists responsive to the evaluating.

Abstract: A computer-implemented method, computer program product, and computing system is provided for managing quality of experience for video conferences. In an implementation, a method may include determining a capacity of a participant associated with a video conference. The method may also include determining a number of remote participants of the video conference. The method may further include implementing a video distribution architecture for the participant based upon, at least in part, the capacity of the participant and the number of remote participants. Implementing the video distribution architecture for the participant may include implementing a distributed architecture session for the participant if the capacity of the participant is greater than or equal to the number of remote participants of the video conference.

Abstract: A method for calculating a mean opinion score (MOS) during an ongoing Voice over Internet Protocol (VoIP) call is provided. The method may include determining a time delay between a VoIP source and a VoIP destination connected by a communications network. A start recording message is sent from the VoIP source to the VoIP destination. A first recorded call sample from the VoIP source and a second recorded call sample from the VoIP destination are generated, whereby the first and the second recorded call sample are generated with a recording delay value corresponding the determined time delay for synchronizing the first and the second recorded call sample. Using an intrusive call quality measurement, a first MOS value is calculated based on the first and the second recorded call sample. Using a non-intrusive call quality measurement, a second MOS value is calculated based on the first MOS value.

Abstract: A computer-implemented method, computer program product, and computing system is provided for quality of experience for media transmissions. In an implementation, a method may include defining a lower media stream discontinuity threshold. The method may also include evaluating a media stream discontinuity rate associated with a portion of a media stream. When the media stream discontinuity rate associated with the portion of the media stream is greater than the lower media stream discontinuity threshold, the method may further include determining a quality of experience associated with the portion of the media stream based upon, at least in part, a payload associated with the portion of the media stream.

Abstract: A first mobile device receives, from each of a plurality of other mobile devices, information related to the availability of at least one network resource provided by at least a first network offered for sharing by the respective other mobile device. The first mobile device also receives a request from a second mobile device to access the network resource provided by the first network shared by at least one of the plurality of other mobile devices. The first mobile device selects at least one of the other mobile devices to share the network resource provided by the first network with the second mobile device. The first mobile device communicates to the second mobile device peer-to-peer network connection information of the selected at least one of the other mobile devices.

Abstract: Arrangements described herein can include automatically monitoring, on a first client device receiving multimedia content, a first QoE associated with presenting the multimedia content by the first client device. The arrangements also can include automatically determining a configuration state of the first client device while presenting the multimedia content. The method further includes sharing, by the first client device, with at least a second client device at least a portion of the configuration state of the first client device while presenting the multimedia content, wherein the portion of the configuration state of the first client device is included in a candidate configuration that is a candidate for implementation on the second client device to improve a second QoE associated with presenting the multimedia content, or other multimedia content, by the second client device.

Abstract: Weighting sentiment information includes capturing sentiment information of a post from an electronic source, categorizing the post into categories based on the sentiment information, and assigning a weight to the post based on an interest attribute.

Abstract: A first instance of a reference video is stored. A primary video and a second instance of the reference video are simultaneously received. At least one quality of experience value that infers a perceptual quality of the primary video as received by a system is generated by comparing the first instance of the reference video to the second instance of the reference video on a pixel-by-pixel, frame-by-frame, basis and determining whether each pixel and each frame contained in the first instance of the reference video are contained in the second instance of the reference video.

Abstract: Arrangements described herein can include automatically monitoring, on a first client device receiving multimedia content, a first QoE associated with presenting the multimedia content by the first client device. The arrangements also can include automatically determining a configuration state of the first client device while presenting the multimedia content. The method further includes sharing, by the first client device, with at least a second client device at least a portion of the configuration state of the first client device while presenting the multimedia content, wherein the portion of the configuration state of the first client device is included in a candidate configuration that is a candidate for implementation on the second client device to improve a second QoE associated with presenting the multimedia content, or other multimedia content, by the second client device.