Abstract: Described embodiments provide systems and methods of migrating clients between databases with different schemas. A database migrator may identify a first database accessible by the client including a first data object maintained in accordance with a first schema. The database migrator may generate, using the first database, a second database including the first data object from the first database. The database migrator may store, onto the second database in accordance with a second schema, a second data object received by the first database subsequent to generation of the second database. The database migrator may convert the first data object of the second database from the first schema to the second schema. The database migrator may migrate the client from the first database to the second database responsive to the completion of storing and converting.

Abstract: Aspects described herein are directed to the concealment of customer sensitive data in virtual computing arrangements. A local computing platform may receive an object including a customer sensitive object name from a user computing device operating on a same internal domain as the local computing platform. The local computing platform may conceal the customer sensitive object name from a virtual computing platform operating on a domain external from the internal domain. The local computing platform may provide the concealed object name to the virtual computing platform for facilitating object enumeration requests from the user computing device during virtual computing sessions. During a virtual computing session between the user computing device and virtual computing platform, the local computing platform may receive the concealed object name from the user computing device and may perform one or more operations to reveal the object name to the user computing device.

Abstract: Aspects described herein are directed to the concealment of customer sensitive data in virtual computing arrangements. A local computing platform may receive an object including a customer sensitive object name from a user computing device operating on a same internal domain as the local computing platform. The local computing platform may conceal the customer sensitive object name from a virtual computing platform operating on a domain external from the internal domain. The local computing platform may provide the concealed object name to the virtual computing platform for facilitating object enumeration requests from the user computing device during virtual computing sessions. During a virtual computing session between the user computing device and virtual computing platform, the local computing platform may receive the concealed object name from the user computing device and may perform one or more operations to reveal the object name to the user computing device.

Abstract: Aspects described herein are directed to the concealment of customer sensitive data in virtual computing arrangements. A local computing platform may receive an object including a customer sensitive object name from a user computing device operating on a same internal domain as the local computing platform. The local computing platform may conceal the customer sensitive object name from a virtual computing platform operating on a domain external from the internal domain. The local computing platform may provide the concealed object name to the virtual computing platform for facilitating object enumeration requests from the user computing device during virtual computing sessions. During a virtual computing session between the user computing device and virtual computing platform, the local computing platform may receive the concealed object name from the user computing device and may perform one or more operations to reveal the object name to the user computing device.

Abstract: Aspects described herein are directed to the concealment of customer sensitive data in virtual computing arrangements. A local computing platform may receive an object including a customer sensitive object name from a user computing device operating on a same internal domain as the local computing platform. The local computing platform may conceal the customer sensitive object name from a virtual computing platform operating on a domain external from the internal domain. The local computing platform may provide the concealed object name to the virtual computing platform for facilitating object enumeration requests from the user computing device during virtual computing sessions. During a virtual computing session between the user computing device and virtual computing platform, the local computing platform may receive the concealed object name from the user computing device and may perform one or more operations to reveal the object name to the user computing device.

Abstract: Described embodiments provide systems and methods of migrating clients between databases with different schemas. A database migrator may identify a first database accessible by the client including a first data object maintained in accordance with a first schema. The database migrator may generate, using the first database, a second database including the first data object from the first database. The database migrator may store, onto the second database in accordance with a second schema, a second data object received by the first database subsequent to generation of the second database. The database migrator may convert the first data object of the second database from the first schema to the second schema. The database migrator may migrate the client from the first database to the second database responsive to the completion of storing and converting.

Abstract: Systems and methods for response monitoring are described. A method of generating a measurement for use in calculating an end-user experience metric in a server-based computing environment includes, transmitting a message from a client of the server-based computing environment to an application executing in a user space provided by an operating system of the server, receiving a graphic response for execution by the client from the application, and determining an amount of time elapsed between the transmission of the message and the conclusion of the execution of the graphic response.

Abstract: A computer system which includes a plurality of threads and a garbage collector that traces memory objects and identifies memory objects according to a three-color abstraction. The computer system also includes two methods of deleting compiled code in a self-modifying multi-threaded computer system. The computer system also utilizes a method of handling links between fragments of code in a self-modifying multi-threaded computer system. The computer system also handles patches between two pieces of code.

Abstract: A solution to avoid performance degradation associated with load-object independence by arranging interface source code, particurlarly JNI source code, in a stylized form, and then preprocessing the stylized interface source code into a Virtual Machine (“VM”) specific form. The stylized source code allows a preprocessor to identify and track field and method identifiers, and to match up the field and method uses with the specification of the field or method. The source code is stylized by substituting stylized variable names, each with a native element identifier, for non-stylized variables.

Abstract: A solution to avoid performance degradation associated with load-object independence by arranging interface source code, particurlarly JNI source code, in a stylized form, and then preprocessing the stylized interface source code into a Virtual Machine (“VM”) specific form. The stylized source code allows a preprocessor to identify and track field and method identifiers, and to match up the field and method uses with the specification of the field or method. The source code is stylized by substituting stylized variable names, each with a native element identifier, for non-stylized variables.