Abstract: A method and a system for maintaining immutability of evidence that relates to software development life cycle data and that is protected from tampering in order to guarantee data integrity and consistency are provided. The method includes: receiving an evidence item that relates to a software development; encrypting the evidence item; storing the encrypted evidence item in a memory; computing a hash value based on the evidence item; and combining the hash value with a hash tree that relates to the software development. The hash tree includes a set of hash values for which there is a one-to-one correspondence with a set of evidence items that are represented in the hash tree. When tampering, such as content alteration or deletion, occurs with respect to an evidence item, the hash values in the hash tree may be used to determine the evidence item for which the tampering has occurred.

Abstract: Methods, apparatus, systems and articles of manufacture are disclosed to allocate hardware in virtualized computing architectures. An example apparatus to manage a virtual server rack comprises a drift analyzer to determine that hardware resources assigned to a virtualized workload domain exceed the resources requested for the virtualized workload domain; and a rebalancer to reassign one or more of the hardware resources in response to an indication from the drift analyzer.

Abstract: Methods, apparatus, systems and articles of manufacture are disclosed to allocate hardware in virtualized computing architectures. An example apparatus to manage a virtual server rack comprises a drift analyzer to determine that hardware resources assigned to a virtualized workload domain exceed the resources requested for the virtualized workload domain; and a rebalancer to reassign one or more of the hardware resources in response to an indication from the drift analyzer.

Abstract: A system includes a network interface configured to communicate with a plurality of components across a network. The system also includes a memory system configured to store a plurality of instructions to implement a monitoring system and a processing system configured to communicate with the network interface. The processing device is further configured to execute the instructions to result in accessing one or more monitoring rules that define monitoring criteria associated with the components and monitoring the components to determine whether the monitoring criteria are met. The processing device can also trigger a notification to one or more user systems based on determining that at least one of the monitoring criteria has been met and provide a customization interface to allow user customization of the one or more monitoring rules.

Abstract: Methods, apparatus, systems and articles of manufacture are disclosed to allocate hardware in virtualized computing architectures. An example apparatus to manage a virtual server rack comprises a drift analyzer to determine that hardware resources assigned to a virtualized workload domain exceed the resources requested for the virtualized workload domain; and a rebalancer to reassign one or more of the hardware resources in response to an indication from the drift analyzer.

Abstract: Methods, apparatus, systems and articles of manufacture are disclosed to allocate hardware in virtualized computing architectures. An example apparatus to manage a virtual server rack comprises a drift analyzer to determine that hardware resources assigned to a virtualized workload domain exceed the resources requested for the virtualized workload domain; and a rebalancer to reassign one or more of the hardware resources in response to an indication from the drift analyzer.

Abstract: Disclosed are various examples for network management in hyper-converged infrastructures. In one example, tagged data is received by a switch. The tagged data includes a header that identifies that the tagged data is for replication. The switch generates replicated versions of the tagged data. The replicated versions of the tagged data can include modified header data. The replicated versions of the tagged data are transmitted to a plurality of hosts within the hyper-converged infrastructure.

Abstract: Disclosed are various aspects of replication management. A first set of resources is identified based on resources used by a virtual machine group executed by a first workload domain comprising at least one host within a rack. The first set of resources comprises a rack network resource of a rack. A property graph is generated to include configuration data for the first set of resources utilized by the virtual machine group. The configuration data includes settings for the rack network resource. A second set of resources of a second workload domain is configured using the property graph for the virtual machine group. The second set of resources is configured to include the settings for the rack network resource.

Abstract: When a network host (110H.1) requests an IP address (via DHCP for example), and a candidate IP address is generated, the candidate IP address and the host's MAC address are installed in the ARP table(s) of at least one router present in the host's LAN. If installation is unsuccessful, e.g. due to the ARP table being full or due to a hash collision, the candidate IP address is declined, and another IP address is generated. Other features are also provided.

Abstract: Disclosed are various examples for network management in hyper-converged infrastructures. In one example, network traffic is monitored. Available bandwidth of a switch is determined using the network traffic. A host that is connected to a port of the switch is assigned to a workload domain based on the available bandwidth of the switch and expected bandwidth for the workload domain.

Abstract: Disclosed are various aspects of replication management. A first set of resources is identified based on resources used by a virtual machine group executed by a first workload domain comprising at least one host within a rack. The first set of resources comprises a rack network resource of a rack. A property graph is generated to include configuration data for the first set of resources utilized by the virtual machine group. The configuration data includes settings for the rack network resource. A second set of resources of a second workload domain is configured using the property graph for the virtual machine group. The second set of resources is configured to include the settings for the rack network resource.

Abstract: Methods, apparatus, systems and articles of manufacture are disclosed to allocate hardware in virtualized computing architectures. An example apparatus to manage a virtual server rack comprises a drift analyzer to determine that hardware resources assigned to a virtualized workload domain exceed the resources requested for the virtualized workload domain; and a rebalancer to reassign one or more of the hardware resources in response to an indication from the drift analyzer.

Abstract: Disclosed are various examples of replication management for hyper-converged infrastructures. Virtual machine groups are generated using k-means grouping based on a process list of a respective virtual machine of a plurality of virtual machines within a hyper-converged infrastructure. Virtual machines in a respective group are analyzed to determine a first set of resources. A property graph that includes configuration data including a storage resource configuration and a network resource configuration is generated for the first set of resources of the respective virtual machine group. A second set of resources is configured within a second workload domain using the storage resource configuration and the network resource configuration.

Abstract: When a network host (110H.1) requests an IP address (via DHCP for example), and a candidate IP address is generated, the candidate IP address and the host's MAC address are installed in the ARP table(s) of at least one router present in the host's LAN. If installation is unsuccessful, e.g. due to the ARP table being full or due to a hash collision, the candidate IP address is declined, and another IP address is generated. Other features are also provided.

Abstract: Disclosed are various examples for network management in hyper-converged infrastructures. In one example, network traffic is monitored. Available bandwidth of a switch is determined using the network traffic. A host that is connected to a port of the switch is assigned to a workload domain based on the available bandwidth of the switch and expected bandwidth for the workload domain.

Abstract: Disclosed are various examples of replication management for hyper-converged infrastructures. Virtual machine groups are generated using k-means grouping based on a process list of a respective virtual machine of a plurality of virtual machines within a hyper-converged infrastructure. Virtual machines in a respective group are analyzed to determine a first set of resources. A property graph that includes configuration data including a storage resource configuration and a network resource configuration is generated for the first set of resources of the respective virtual machine group. A second set of resources is configured within a second workload domain using the storage resource configuration and the network resource configuration.