Abstract: A mechanism for securely transmitting credentials to instantiated virtual machines is provided. A central server is used to turn on a virtual machine. When the virtual machine is turned on, the central server sends it a secret text string. The virtual machine requests the credentials from the central server by transmitting the secret string and its instance ID. The central server validates the secret string and source IP to determine whether they are authentic. Once verified, the central server transmits the credentials to the virtual machine in a secure channel and invalidates the secret string. The credentials can now be used to authenticate API calls.

Abstract: A novel web server farm architecture is provided that combines various cloud components and innovatively maximizes their strengths to achieve a scalable, adaptable, load balanced computing architecture. In one embodiment, this architecture includes a storage host for static content hosting, a cluster of virtual machines (operating as web servers) for dynamic content hosting, and a dedicated application engine for monitoring the load of the virtual machines. A browser or end-application user of a web application is first routed to a static anchor page hosted on the storage host. The browser is subsequently presented with a list of virtual machines and data corresponding to their respective current loads. To access dynamic content, the browser is able to select from the virtual machines based in large part on the reported current loads of the virtual machines. Once a virtual machine is selected, the browser may communicate directly with the selected web server.

Abstract: A novel eco-system is provided which first supplies a standardized template of one or more virtual machine images for software module providers/vendors. A plurality of modules executing on the virtual machine images is selected by a user to comprise a plurality of configurations. A suitable configuration may be determined according to a metric and the determined suitable configuration of software modules is subsequently used to build an end-to-end solution.

Abstract: Methods and apparatuses are provided for storing graph data within a column-oriented data store. Graph data including vertex data describing one or more vertices in the graph and edge data describing one or more edges within the graph may be received. One or more vertex rows within the column-oriented data store may be assigned, whereby each vertex row of the one or more vertex rows is assigned to one vertex of the one or more vertices. One or more edge rows within the column-oriented data store may also be assigned, whereby each edge row of the one or more edge rows is assigned to one edge of the one or more edges. At least one vertex row and at least one edge row may be populated based on the graph data.

Abstract: A mechanism for securely transmitting credentials to instantiated virtual machines is provided. A central server is used to turn on a virtual machine. When the virtual machine is turned on, the central server sends it a secret text string. The virtual machine requests the credentials from the central server by transmitting the secret string and its instance ID. The central server validates the secret string and source IP to determine whether they are authentic. Once verified, the central server transmits the credentials to the virtual machine in a secure channel and invalidates the secret string. The credentials can now be used to authenticate API calls.

Abstract: A mechanism for securely transmitting credentials to instantiated virtual machines is provided. A central server is used to turn on a virtual machine. When the virtual machine is turned on, the central server sends it a secret text string. The virtual machine requests the credentials from the central server by transmitting the secret string and its instance ID. The central server validates the secret string and source IP to determine whether they are authentic. Once verified, the central server transmits the credentials to the virtual machine in a secure channel and invalidates the secret string. The credentials can now be used to authenticate API calls.

Abstract: A novel web server farm architecture is provided that combines various cloud components and innovatively maximizes their strengths to achieve a scalable, adaptable, load balanced computing architecture. In one embodiment, this architecture includes a storage host for static content hosting, a cluster of virtual machines (operating as web servers) for dynamic content hosting, and a dedicated application engine for monitoring the load of the virtual machines. A browser or end-application user of a web application is first routed to a static anchor page hosted on the storage host. The browser is subsequently presented with a list of virtual machines and data corresponding to their respective current loads. To access dynamic content, the browser is able to select from the virtual machines based in large part on the reported current loads of the virtual machines. Once a virtual machine is selected, the browser may communicate directly with the selected web server.

Abstract: A novel web server farm architecture is provided that combines various cloud components and innovatively maximizes their strengths to achieve a scalable, adaptable, load balanced computing architecture. In one embodiment, this architecture includes a storage host for static content hosting, a cluster of virtual machines (operating as web servers) for dynamic content hosting, and a dedicated application engine for monitoring the load of the virtual machines. A browser or end-application user of a web application is first routed to a static anchor page hosted on the storage host. The browser is subsequently presented with a list of virtual machines and data corresponding to their respective current loads. To access dynamic content, the browser is able to select from the virtual machines based in large part on the reported current loads of the virtual machines. Once a virtual machine is selected, the browser may communicate directly with the selected web server.

Abstract: System, methods, and apparatuses are provided for processing incoming data using a plurality of mapper modules and at least one reducer module. Incoming data may be processed to provide mapped data. The mapped data may be processed to provide reduced data. A feedback message may be generated. The feedback message may include data describing a suggestive configuration value to be applied when processing the incoming data.

Abstract: A novel eco-system is provided which first supplies a standardized template of one or more virtual machine images for software module providers/vendors. A plurality of modules executing on the virtual machine images is selected by a user to comprise a plurality of configurations. A suitable configuration may be determined according to a metric and the determined suitable configuration of software modules is subsequently used to build an end-to-end solution.

Abstract: A novel eco-system is provided which first supplies a standardized template of one or more virtual machine images for software module providers/vendors. A plurality of modules executing on the virtual machine images is selected by a user to comprise a plurality of configurations. A suitable configuration may be determined according to a metric and the determined suitable configuration of software modules is subsequently used to build an end-to-end solution.

Abstract: A novel web server farm architecture is provided that combines various cloud components and innovatively maximizes their strengths to achieve a scalable, adaptable, load balanced computing architecture. In one embodiment, this architecture includes a storage host for static content hosting, a cluster of virtual machines (operating as web servers) for dynamic content hosting, and a dedicated application engine for monitoring the load of the virtual machines. A browser or end-application user of a web application is first routed to a static anchor page hosted on the storage host. The browser is subsequently presented with a list of virtual machines and data corresponding to their respective current loads. To access dynamic content, the browser is able to select from the virtual machines based in large part on the reported current loads of the virtual machines. Once a virtual machine is selected, the browser may communicate directly with the selected web server.

Abstract: Methods and apparatuses are provided for storing graph data within a column-oriented data store. Graph data including vertex data describing one or more vertices in the graph and edge data describing one or more edges within the graph may be received. One or more vertex rows within the column-oriented data store may be assigned, whereby each vertex row of the one or more vertex rows is assigned to one vertex of the one or more vertices. One or more edge rows within the column-oriented data store may also be assigned, whereby each edge row of the one or more edge rows is assigned to one edge of the one or more edges. At least one vertex row and at least one edge row may be populated based on the graph data.

Abstract: System, methods, and apparatuses are provided for processing incoming data using a plurality of mapper modules and at least one reducer module. Incoming data may be processed to provide mapped data. The mapped data may be processed to provide reduced data. A feedback message may be generated. The feedback message may include data describing a suggestive configuration value to be applied when processing the incoming data.

Abstract: A novel web server farm architecture is provided that combines various cloud components and innovatively maximizes their strengths to achieve a scalable, adaptable, load balanced computing architecture. In one embodiment, this architecture includes a storage host for static content hosting, a cluster of virtual machines (operating as web servers) for dynamic content hosting, and a dedicated application engine for monitoring the load of the virtual machines. A browser or end-application user of a web application is first routed to a static anchor page hosted on the storage host. The browser is subsequently presented with a list of virtual machines and data corresponding to their respective current loads. To access dynamic content, the browser is able to select from the virtual machines based in large part on the reported current loads of the virtual machines. Once a virtual machine is selected, the browser may communicate directly with the selected web server.

Abstract: A novel eco-system is provided which first supplies a standardized template of one or more virtual machine images for software module providers/vendors. A plurality of modules executing on the virtual machine images is selected by a user to comprise a plurality of configurations. A suitable configuration may be determined according to a metric and the determined suitable configuration of software modules is subsequently used to build an end-to-end solution.

Abstract: A mechanism for securely transmitting credentials to instantiated virtual machines is provided. A central server is used to turn on a virtual machine. When the virtual machine is turned on, the central server sends it a secret text string. The virtual machine requests the credentials from the central server by transmitting the secret string and its instance ID. The central server validates the secret string and source IP to determine whether they are authentic. Once verified, the central server transmits the credentials to the virtual machine in a secure channel and invalidates the secret string. The credentials can now be used to authenticate API calls.

Abstract: A novel web server farm architecture is provided that combines various cloud components and innovatively maximizes their strengths to achieve a scalable, adaptable, load balanced computing architecture. In one embodiment, this architecture includes a storage host for static content hosting, a cluster of virtual machines (operating as web servers) for dynamic content hosting, and a dedicated application engine for monitoring the load of the virtual machines. A browser or end-application user of a web application is first routed to a static anchor page hosted on the storage host. The browser is subsequently presented with a list of virtual machines and data corresponding to their respective current loads. To access dynamic content, the browser is able to select from the virtual machines based in large part on the reported current loads of the virtual machines. Once a virtual machine is selected, the browser may communicate directly with the selected web server.