Abstract:
A method, non-transitory computer readable medium, and resource management computing device comprises identifying one or more workload bursts in a production environment. One or more additional resources in a non-production environment required to manage the one or more workload burst in a production environment is determined by comparing an environment resource consumption value against a permissible maximum value, wherein the environment resource consumption value is a value indicating usage of each of the one or more resources. One or more additional resources are identified in the non-production environment. The identified one or more additional resources are provided to handle the one or more workload bursts.
Abstract:
The present invention relates to a method and a system to automate identification of transactions. The method comprises receiving raw log files from a transaction device into a log collector, storing the raw log files to a log storage, processing the raw log files by a log parser unit to remove the fields and the entries of the raw log files that are not relevant for the transaction identification analysis, identifying of at least one session of at least one user by clustering the processed one or more entries from a single user session using at least one session identifier unit, identifying at least one user path that is followed by at least one user during a single user session, identifying at least one entry point from the identified single user path and determining at least one transaction and at least one sub transaction from the identified entry point.
Abstract:
Systems and methods for leveraging social media data by entities to identify key influencers are disclosed. Monitoring criteria is based on a selected subject-matter. The analysis permits quantification of influencers and takes into account the conversari platforms and the published platforms in the social media.
Abstract:
This technology relates to a device, method, and non-transitory computer readable medium for allocating one or more resources optimally in a composite cloud environment. This technology involves configuring organization and service level quota values, describing service composition, service unit, service level agreement, defining allocation model and resource allocation optimization algorithm. Based on these predefined rules the infrastructure, software and manual resources are assigned, future allocation is forecasted and resources are allocated to complete the service requests received from the users.
Abstract:
A method, non-transitory computer readable medium, and resource management computing device comprises identifying one or more workload bursts in a production environment. One or more additional resources in a non-production environment required to manage the one or more workload burst in a production environment is determined by comparing an environment resource consumption value against a permissible maximum value, wherein the environment resource consumption value is a value indicating usage of each of the one or more resources. One or more additional resources are identified in the non-production environment. The identified one or more additional resources are provided to handle the one or more workload bursts.
Abstract:
Methods for creating a factory, such as a software factory, a user experience factory, and a persistence factory, for developing one or more Java 2 Platform, Enterprise Edition (J2EE) applications. One or more artifacts related to the J2EE applications, such as code components, workflow scripts, and build scripts, are identified. Further, one or more templates are created for generating the one or more artifacts. The templates may be created based on a predefined architecture and coding conventions. These templates are stored in a repository to enable their subsequent reuse. Thereafter, one or more relationships between the artifacts are defined in a factory schema. Subsequently, the factory is created using the factory schema and the templates. The factory thus created may be used to develop the J2EE applications.
Abstract:
Methods for creating a factory, such as a software factory, a user experience factory, and a persistence factory, for developing one or more Java 2 Platform, Enterprise Edition (J2EE) applications. One or more artifacts related to the J2EE applications, such as code components, workflow scripts, and build scripts, are identified. Further, one or more templates are created for generating the one or more artifacts. The templates may be created based on a predefined architecture and coding conventions. These templates are stored in a repository to enable their subsequent reuse. Thereafter, one or more relationships between the artifacts are defined in a factory schema. Subsequently, the factory is created using the factory schema and the templates. The factory thus created may be used to develop the J2EE applications.
Abstract:
The technique relates to a system and method for implementing petabyte scale online analytical processing solutions using MapReduce. The technique involves receiving an OLAP query from a user through an OLAP-QL Driver. After receiving the query it is parsed through the compiler. Then the metadata information is retrieved from the parsed query through the metadata manager. Validating the parsed query using plan generator module for generating a MapReduce job execution plan based on the retrieved metadata information. The next step is to identify the scope for optimization in the generated MapReduce job execution plan and optimizing the MapReduce job execution plan using the identified scope. Then executing the optimized MapReduce job plan using the execution engine and finally storing the output data in the cube specific distributed file system directory.
Abstract:
A computer-implemented method, apparatus, and non-transitory computer-readable medium for determining optimal combinations of elements having multiple dimensions, including removing all multi-dimensional elements from a combination matrix which have a dimension corresponding to a highest classification in a plurality of classifications, iteratively combining one or more multi-dimensional elements from a first end of the combination matrix and one or more multi-dimensional elements from a second end of the combination matrix to generate one or more combined multi-dimensional elements, incrementing a count of packed combinations when a combined multi-dimensional element in the one or more combined multi-dimensional elements has a dimension corresponding to the highest classification in the plurality of classifications, and removing a combined multi-dimensional element in the one or more combined multi-dimensional elements from the combination matrix when the combined multi-dimensional element has a dimension corresponding to the highest classification in the plurality of classifications.
Abstract:
This technology relates to a device, method, and non-transitory computer readable medium for allocating one or more resources optimally in a composite cloud environment. This technology involves configuring organization and service level quota values, describing service composition, service unit, service level agreement, defining allocation model and resource allocation optimization algorithm. Based on these predefined rules the infrastructure, software and manual resources are assigned, future allocation is forecasted and resources are allocated to complete the service requests received from the users.