Abstract:
Systems and methods for fault handling are presented. In one embodiment, a fault handling method includes: performing an information collection process, wherein the information collection process includes collecting information regarding guest operating system files of a virtual machine; performing a selective replication region identification process, wherein the selective replication region identification process includes identifying regions associated with a selective amount of the guest operating system files; and performing a replication process based upon result of the replication region identification process. In one embodiment, the selective replication region identification process includes identifying regions associated with files of interest. The selective replication region identification process can include identifying regions associated with temporary files. The information regarding files can include a list of regions used by the files after loopback mounting of a virtual disk file, a list of regions which have been modified on the virtual disk file and regions associated with metadata that has changed.
Abstract:
A system for and method of monitoring caller interactions during a call session is presented. The system and method for monitoring caller interaction may include receiving information from a call session between a caller and an automated voice portal system via a communication network, monitoring caller interaction points accumulated during the call session, comparing a sum of caller interaction points accumulated during the call session with the automated voice portal system with the caller interaction threshold, and taking one or more actions in response to the sum of the caller interaction points exceeds the caller interaction threshold.
Abstract:
A periodic checkpoint method for a file system replication source. The method comprises generating a first checkpoint at a first time on a file system replication source and identifying a set of data objects from the replication source that have been modified during a time period between the first time and a subsequent second time. A periodic checkpoint is then generated at the second time on the file system replication source by using the set of data objects.
Abstract:
A messaging architecture extends the communication capability of complex systems in existing enterprises. The architecture implements sophisticated messaging capability between typically disparate order management and shipping systems. As a result, the messaging architecture greatly streamlines order processing and shipping, increases productivity, increases system uptime and provides a baseline solution for customers that desire integrated order processing and shipping.
Abstract:
Systems and methods for information storage replication are presented. In one embodiment, a namespace conversion process is performed. Node information regarding a file systems operation change is received. A changed node to pathname object conversion process is performed. An unchanged node to pathname object conversion process is performed. In one exemplary implementation, the changed node to pathname object conversion process and the unchanged node to pathname object conversion process utilize data structures that return the object indications and parent node indications. An object indication is inserted in a pathname.
Abstract:
Speaker content generated in an audio conference is visually represented in accordance with a method. Speaker content from a plurality of audio conference participants is monitored using a computer with a tangible non-transitory processor and memory. The speaker content from each of the plurality of audio conference participants is monitored. A visual representation of speaker content for each of the plurality of audio conference participants is generated based on the analysis of the speaker content from each of the plurality of audio conference participant. The visual representation of speaker content is displayed.
Abstract:
Provided is a method of monitoring a multicast flow. An initial multicast flow is characterized as a baseline flow entity. A subsequent multicast flow is compared against the baseline flow entity to identify anomalies between the baseline flow entity and the subsequent multicast flow.
Abstract:
A computer implemented method is disclosed, the method including but not limited to detecting an event of interest in video conference data for a plurality of video conference participants and notifying an end user of the event of interest. A computer readable medium is also disclosed for containing a computer program for performing the method. A computer implemented method is also disclosed for receiving at an end user device, a notification of an event of interest in a video teleconference, the method including but not limited to receiving at an end user device from a notification indicating a detection of the event of interest in video conference data from the video teleconference for a plurality of video conference participants; and sending data from the end user device to the server requesting a transcription of comments from the speaker in video teleconference.
Abstract:
The present disclosure relates to a mobile phone and a method for answering such a phone automatically without user input. In one embodiment, the mobile phone detects that a call is being received. A proximity sensor is then used to detect the presence of a nearby object. For example, this allows a determination to be made whether the mobile phone is within a pocket of the user while the phone is ringing. Then a determination is made whether the proximity sensor changes states. For example, if a user removes the phone from their pocket, the proximity sensor switches from detecting something proximal to detecting that the phone is no longer in the user's pocket. Next, a determination is made whether the proximity sensor is again next to an object, such as an ear. If so, the mobile phone can be automatically answered without further user input.
Abstract:
A method for automatic mismatch correction is presented. The method includes identifying a feature of interest in a reference image volume and a target image volume. Furthermore, the method includes computing a cost matrix based on one or more pairs of image slices in the reference image volume and the target image volume. The method also includes identifying one or more longest common matching regions in the reference image volume and the target image volume based on the computed cost matrix. In addition, the method includes aligning the reference image volume and the target image volume based on the identified one or more longest common matching regions. A non-transitory computer readable medium including one or more tangible media, where the one or more tangible media include code adapted to perform the method for automatic mismatch correction is also presented. Systems and non-transitory computer readable medium configured to perform the method for automatic mismatch correction of image volumes are also presented.