Abstract: Technical solutions are described for generating a secured system snapshot of a system. An example computer-implemented method includes receiving an instruction to generate a system snapshot. The system snapshot captures data from a computer executable object loaded in a memory. The method also includes accessing metadata that is associated with the computer executable object from a mapping list. The method also includes capturing the secured system snapshot by. Capturing the secured system snapshot includes determining sensitivity of the computer executable object by comparing the metadata with a predetermined criteria, and excluding a capture of sensitive data from the computer executable object into the system snapshot in response to the metadata of the computer executable object matching the predetermined criteria. The method also includes storing the secured system snapshot.

Abstract: Technical solutions are described for generating a secured system snapshot of a system. An example computer-implemented method includes receiving an instruction to generate a system snapshot. The system snapshot captures data from a computer executable object loaded in a memory. The method also includes accessing metadata that is associated with the computer executable object from a mapping list. The method also includes capturing the secured system snapshot by. Capturing the secured system snapshot includes determining sensitivity of the computer executable object by comparing the metadata with a predetermined criteria, and excluding a capture of sensitive data from the computer executable object into the system snapshot in response to the metadata of the computer executable object matching the predetermined criteria. The method also includes storing the secured system snapshot.

Abstract: A method for building a scalable system dump facility is provided. The method includes loading a component into system memory. The component includes a plurality of program modules. A component text range table entry is created for each component, whereby the component text range table entry includes: an address range, a component identifier, a data collection function, and a link to one or more related components. Upon invoking a system dump facility, a failing function instruction is determined, based on an address of the failing instruction. The component text range table is searched for an address of a failing function that is in the address range. Memory regions that are associated with the address range are transferred to a storage device first. Memory regions that are associated with related components are transferred next. Remaining memory regions are then transferred.

Abstract: A computer program product and a computer system for building a scalable system dump facility is provided. The method includes loading a component into system memory. The component includes a plurality of program modules. A component text range table entry is created for each component, whereby the component text range table entry includes: an address range, a component identifier, a data collection function, and a link to one or more related components. Upon invoking a system dump facility, a failing function instruction is determined, based on an address of the failing instruction. The component text range table is searched for an address of a failing function that is in the address range. Memory regions that are associated with the address range are transferred to a storage device first. Memory regions that are associated with related components are transferred next. Remaining memory regions are then transferred.

Abstract: A computer program product and a computer system for building a scalable system dump facility is provided. The method includes loading a component into system memory. The component includes a plurality of program modules. A component text range table entry is created for each component, whereby the component text range table entry includes: an address range, a component identifier, a data collection function, and a link to one or more related components. Upon invoking a system dump facility, a failing function instruction is determined, based on an address of the failing instruction. The component text range table is searched for an address of a failing function that is in the address range. Memory regions that are associated with the address range are transferred to a storage device first. Memory regions that are associated with related components are transferred next. Remaining memory regions are then transferred.

Abstract: A method for building a scalable system dump facility is provided. The method includes loading a component into system memory. The component includes a plurality of program modules. A component text range table entry is created for each component, whereby the component text range table entry includes: an address range, a component identifier, a data collection function, and a link to one or more related components. Upon invoking a system dump facility, a failing function instruction is determined, based on an address of the failing instruction. The component text range table is searched for an address of a failing function that is in the address range. Memory regions that are associated with the address range are transferred to a storage device first. Memory regions that are associated with related components are transferred next. Remaining memory regions are then transferred.

Abstract: Disclosed is a computer implemented method and apparatus to secure a routing path. A local node receives a request for secure route identification from an upstream node. Responsive to receiving a request for secure route identification, the local node transmits a local node security level and an authentication key to the upstream node. The local node determines whether at least one downstream node is authentic and has sufficient security level from a second-level downstream node. The local node may then establish a socket to the upstream node.

Abstract: Disclosed is a computer implemented method and apparatus to secure a routing path. A local node receives a request for secure route identification from an upstream node. Responsive to receiving a request for secure route identification, the local node transmits a local node security level and an authentication key to the upstream node. The local node determines whether at least one downstream node is authentic and has sufficient security level from a second-level downstream node. The local node may then establish a socket to the upstream node.