Abstract: An automated method for provisioning a grid used to run a load test on a target website includes sending one or more requests in a multi-threaded manner to at least one cloud provider, the one or more requests for an allocation of N load server instances and M result server instances which comprise the grid. Requests received back from the cloud provider are also handled in a multi-threaded manner; any errors occurring during the allocation being corrected automatically. The N load server instances and the M result server instances are then verified to be operational and correctly running software deployed to provide defined test services. Errors identified during the verification are automatically corrected either by attempting to restart a failed instance or allocating a different instance.

Abstract: A processor-implemented method includes providing an analytic dashboard with a graphical user interface (GUI) that outputs aggregated results streaming in real-time of a load test performed on a target website. Responsive to input of a user on the GUI, the input comprising selection of a source chart and a target chart, a single chart is automatically generated that represents either a combination or a statistical correlation of the source and target charts. The single chart has a left y-axis and an x-axis. The combination or the statistical correlation of the single chart changing in real-time as the load test progresses. A visual representation of the single chart is then produced on the analytic dashboard.

Abstract: A method for optimally maintaining the execution of a first application, wherein the first application is further configured to received a set of sequential data elements from a second application, and the set of sequential data elements further includes a first data element and a second data element. The method includes establishing a connection between the first application and the second application. The method further includes transmitting a request to send the set of sequential data elements; receiving the first data element from the second application; and determining if the connection is still active. If not, the method also includes reestablishing the connection; transmitting a request to the second application to resend the first data element; receiving the first data element; and, if necessary, receiving the second data element.

Abstract: A method of optimizing the delivery of a set of data elements from a first device to a second device. The method includes retrieving from a data source the set of data elements, including a first subset of the set of data elements, a second subset of the set of data elements, and a third subset of the set of data elements. The method also includes transferring the first subset of the set of data elements to the second device. The method further includes selecting a forth subset of the set of data elements, wherein the forth subset can be comprised of data elements from the first subset and the second subset; or wherein the forth subset can be comprised of data elements from the second subset and the third subset. The method also includes transferring a forth subset of the set of data elements to the second device.

Abstract: A system that pushes active data to a client receives a first request for a page that includes active data from the client. The active data includes a component and a corresponding model for a data source of the component. The system determines if the model is active and if so, instantiates an encoder that corresponds to the component. The system queries the model for the active data and renders a user interface representation of the data. The system then returns a response to the request with the user interface representation.

Abstract: A client computer has a master window and at least one slave window. The client computer receives streaming data at the master window. The master window includes a list of slave windows and the data includes an envelope that has a destination window identifier. The master window determines a destination window that corresponds to the window identifier. The master window dispatches the data to a slave window if the destination window is not the master window. Otherwise, the master window streams the data to the destination within the master window.

Abstract: A system that pushes active data to a client receives a first request for a page that includes active data from the client. The active data includes a component and a corresponding model for a data source of the component. The system determines if the model is active and if so, instantiates an encoder that corresponds to the component. The system queries the model for the active data and renders a user interface representation of the data. The system then returns a response to the request with the user interface representation.

Abstract: A client computer has a master window and at least one slave window. The client computer receives streaming data at the master window. The master window includes a list of slave windows and the data includes an envelope that has a destination window identifier. The master window determines a destination window that corresponds to the window identifier. The master window dispatches the data to a slave window if the destination window is not the master window. Otherwise, the master window streams the data to the destination within the master window.

Abstract: A method of creating a printable representation of data elements as displayed in a browser, including a set of frames. The method includes determining an optimal height distance X of each frame of the set of frames, wherein the frame can be printed without a page break. The method further includes retrieving from a data source a first set of data rows, from a row 1 to a row N, wherein each row further comprises a set of data elements; determining a row height for each row of the first set of data rows, based in part, on a set of device display configuration indicia; and determining a row M from the first set of data rows, wherein a summation of the row height of the row 1 to the row M is smaller than X, and a summation of the row height of the row 1 to a row M+1 is larger than X. The method also includes discarding from the row M+1 to the row N; rendering the row 1 to the row M in the browser frame; and, if necessary, retrieving a second set of data rows beginning with the row M+1.

Abstract: A method of optimizing the delivery of a set of data elements from a first device to a second device. The method includes retrieving from a data source the set of data elements, including a first subset of the set of data elements, a second subset of the set of data elements, and a third subset of the set of data elements. The method also includes transferring the first subset of the set of data elements to the second device. The method further includes selecting a fourth subset of the set of data elements wherein the fourth subset can be comprised of data elements from the first subset and the second subset, or wherein the fourth subset can be comprised of data elements from the second subset and the third subset. The method also includes transferring a fourth subset of the set of data elements to the second device.

Abstract: A method of optimizing the delivery of a set of data elements from a first device to a second device. The method includes retrieving from a data source the set of data elements, including a first subset of the set of data elements, a second subset of the set of data elements, and a third subset of the set of data elements. The method also includes transferring the first subset of the set of data elements to the second device. The method further includes selecting a forth subset of the set of data elements, wherein the forth subset can be comprised of data elements from the first subset and the second subset; or wherein the forth subset can be comprised of data elements from the second subset and the third subset. The method also includes transferring a forth subset of the set of data elements to the second device.

Abstract: A method of creating a printable representation of data elements as displayed in a browser, including a set of frames. The method includes determining an optimal height distance X of each frame of the set of frames, wherein the frame can be printed without a page break. The method further includes retrieving from a data source a first set of data rows, from a row 1 to a row N, wherein each row further comprises a set of data elements; determining a row height for each row of the first set of data rows, based in part, on a set of device display configuration indicia; and determining a row M from the first set of data rows, wherein a summation of the row height of the row 1 to the row M is smaller than X, and a summation of the row height of the row 1 to a row M+1 is larger than X. The method also includes discarding from the row M+1 to the row N; rendering the row 1 to the row M in the browser frame; and, if necessary, retrieving a second set of data rows beginning with the row M+1.

Abstract: A method for optimally maintaining the execution of a first application, wherein the first application is further configured to received a set of sequential data elements from a second application, and the set of sequential data elements further includes a first data element and a second data element. The method includes establishing a connection between the first application and the second application. The method further includes transmitting a request to send the set of sequential data elements; receiving the first data element from the second application; and determining if the connection is still active. If not, the method also includes reestablishing the connection; transmitting a request to the second application to resend the first data element; receiving the first data element; and, if necessary, receiving the second data element.

Abstract: A method of optimizing a first set of graphical display elements on a client device. The method also includes coupling a first server to the client device by a first connection; coupling a second server to the client device by a second connection; and generating the first set of graphical display elements on a first server, wherein the first set of graphical display elements further comprises a first graphical display element and a second graphical display element. The method further includes generating a second set of graphical display elements on a second server; transmitting the first set of graphical display elements from the first server to the client device; and transmitting the second set of graphical display elements from the second server to the client device, wherein a third set of graphical display elements is created in a first window comprising the first set of graphical display elements and the second set of graphical display elements.

Abstract: A business intelligence system includes a business activity monitor with a data cache to receive and store enterprise data integrated from a plurality of enterprise applications, the data cache being updated in real-time as the enterprise data changes. A computer coupled with the data cache runs a program that produces a graphical user interface on a display. The graphical user interface provides a user with a real-time report of the enterprise data and a page that allows the user to specify at least one action affecting operation of the enterprise. The page also including a button selection of which causes the computer to send a first message designating one or more selected actions to the BAM. In response, the BAM sends a second message to one or more of the enterprise applications to execute the one or more selected actions in real-time.