Abstract: The present disclosure involves systems, software, and computer implemented methods for resolving data location for queries in a multi-system instance landscape. One example method includes receiving a request for data for at least one entity that includes a qualified identifier that includes a system tenant qualifier and a local identifier. The system tenant qualifier identifies a system tenant in a multi-system tenant landscape and the local identifier identifies an entity instance of an entity in the system tenant. A routing policy table configured for the multi-system tenant landscape is identified and a cell is located in the routing policy table that corresponds to the entity and the system tenant. A routing policy is determined for routing the request based on the cell. The routing policy is used to determine a target system tenant to which to route the request and the request is provided to the target system tenant.

Abstract: The present disclosure involves systems, software, and computer implemented methods for resolving data location for queries in a multi-system instance landscape. One example method includes receiving a request for data for at least one entity that includes a qualified identifier that includes a system tenant qualifier and a local identifier. The system tenant qualifier identifies a system tenant in a multi-system tenant landscape and the local identifier identifies an entity instance of an entity in the system tenant. A routing policy table configured for the multi-system tenant landscape is identified and a cell is located in the routing policy table that corresponds to the entity and the system tenant. A routing policy is determined for routing the request based on the cell. The routing policy is used to determine a target system tenant to which to route the request and the request is provided to the target system tenant.

Abstract: The present disclosure involves systems, software, and computer implemented methods for resolving data location for queries in a multi-system instance landscape. One example method includes receiving a request for data for at least one entity that includes a qualified identifier that includes a system tenant qualifier and a local identifier. The system tenant qualifier identifies a system tenant in a multi-system tenant landscape and the local identifier identifies an entity instance of an entity in the system tenant. A routing policy table configured for the multi-system tenant landscape is identified and a cell is located in the routing policy table that corresponds to the entity and the system tenant. A routing policy is determined for routing the request based on the cell. The routing policy is used to determine a target system tenant to which to route the request and the request is provided to the target system tenant.

Abstract: The present disclosure involves systems, software, and computer implemented methods for resolving data location for queries in a multi-system instance landscape. One example method includes receiving a request for data for at least one entity that includes a qualified identifier that includes a system tenant qualifier and a local identifier. The system tenant qualifier identifies a system tenant in a multi-system tenant landscape and the local identifier identifies an entity instance of an entity in the system tenant. A routing policy table configured for the multi-system tenant landscape is identified and a cell is located in the routing policy table that corresponds to the entity and the system tenant. A routing policy is determined for routing the request based on the cell. The routing policy is used to determine a target system tenant to which to route the request and the request is provided to the target system tenant.

Abstract: Various examples are directed to systems and methods for orchestrating a first transaction workflow performed by a plurality of microservices. An orchestration service may write to a first tracking log a first log entry for a first action of the plurality of actions. The first tracking log may be stored at a persistent storage location that, for example, is accessible in the event that the orchestration service crashes. The first log entry may describe an initial state of the first action. The orchestration service may also write a second log entry for a second action of the plurality of actions to the first tracking log. The second log entry may describe an initial state of the second action. The orchestration service may determine that the first microservice successfully completed the first action and that the second microservice failed to complete the second action. The orchestration service may initiate a compensation action to reverse the first action.

Abstract: Disclosed herein are system, method, and computer program product embodiments for extending data models and processes in a cloud platform. An embodiment operates by selecting an entity metadata in the cloud platform. The embodiment defines an extension metadata for the entity metadata. The embodiment defines an extended entity metadata based on the entity metadata and the extension metadata. The embodiment then creates an extended entity instance in the cloud platform based on the extended entity metadata.

Abstract: Disclosed herein are system, method, and computer program product embodiments for extending data models and processes in a cloud platform. An embodiment operates by selecting an entity metadata in the cloud platform. The embodiment defines an extension metadata for the entity metadata. The embodiment defines an extended entity metadata based on the entity metadata and the extension metadata. The embodiment then creates an extended entity instance in the cloud platform based on the extended entity metadata.

Abstract: Various examples are directed to systems and methods for orchestrating a first transaction workflow performed by a plurality of microservices. An orchestration service may write to a first tracking log a first log entry for a first action of the plurality of actions. The first tracking log may be stored at a persistent storage location that, for example, is accessible in the event that the orchestration service crashes. The first log entry may describe an initial state of the first action. The orchestration service may also write a second log entry for a second action of the plurality of actions to the first tracking log. The second log entry may describe an initial state of the second action. The orchestration service may determine that the first microservice successfully completed the first action and that the second microservice failed to complete the second action. The orchestration service may initiate a compensation action to reverse the first action.

Abstract: An upgrade procedure for an application system without downtime is presented. The upgrade procedure includes a mix of a rolling upgrade of application servers, shadow systems, and record and replay mechanisms that employ transformation and locking, for the upgrade of the applications on the application system. Application servers are upgraded one after another. A target version of the system is simultaneously added to the original system and a shadow, or target, system. Data changes are not only carried out in the original system, but are also carried out in the target system, so that a customer realizes no downtime for their data requests to the applications.

Abstract: Disclosed herein are system, method, and computer program product embodiments for generating an optimal development infrastructure. An embodiment operates by decomposing a development process into one or more functional requirements, mapping each functional requirement of the decomposed development process to the one or more corresponding functional capabilities, and selecting one or more services operable to implement each mapped functional capability, wherein each service comprises one or more functional capabilities.

Abstract: Systems, methods and techniques relating to publishing mobile applications are described. A described technique includes identifying, at a second component container contained in a first component container, a first component container profile associated with the first component container, translating at least a portion of the first component container profile to a second component container profile associated with the second component container, and initializing the second component container based, at least in part, on the second component container profile.

Abstract: Disclosed herein are system, method, and computer program product embodiments for providing an adaptive application development environment (ADE). An embodiment operates by receiving a selection of either a simple or complex project type corresponding to an application development environment (ADE). One or more development tools for generating executable code are selected used on the project type. A project view, corresponding to the project type, is generated.

Abstract: The present disclosure involves systems, software, and computer implemented methods for providing selection and assessment of software components. One process includes operations for identifying a software component for assessment. Dependencies associated with the software component are analyzed, wherein analyzing dependencies includes identifying at least one relevant perspective associated with the software component, identifying a scope associated with the at least one relevant perspective, and determining whether the software component is associated with at least one related infrastructure component based on the scope or at least one other software component that the software component depends on based on the scope. The software component and each of the at least one related infrastructure component or the at least one other software component are assessed against a set of criteria.

Abstract: Disclosed herein are system, method, and computer program product embodiments for providing an adaptive application development environment (ADE). An embodiment operates by receiving a selection of either a simple or complex project type corresponding to an application development environment (ADE). One or more development tools for generating executable code are selected used on the project type. A project view, corresponding to the project type, is generated.

Abstract: An upgrade procedure for an application system without downtime is presented. The upgrade procedure includes a mix of a rolling upgrade of application servers, shadow systems, and record and replay mechanisms that employ transformation and locking, for the upgrade of the applications on the application system. Application servers are upgraded one after another. A target version of the system is simultaneously added to the original system and a shadow, or target, system. Data changes are not only carried out in the original system, but are also carried out in the target system, so that a customer realizes no downtime for their data requests to the applications.

Abstract: Disclosed herein are system, method, and computer program product embodiments for generating an optimal development infrastructure. An embodiment operates by decomposing a development process into one or more functional requirements, mapping each functional requirement of the decomposed development process to the one or more corresponding functional capabilities, and selecting one or more services operable to implement each mapped functional capability, wherein each service comprises one or more functional capabilities.

Abstract: Systems, methods and techniques relating to publishing mobile applications are described. A described technique includes identifying, at a second component container contained in a first component container, a first component container profile associated with the first component container, translating at least a portion of the first component container profile to a second component container profile associated with the second component container, and initializing the second component container based, at least in part, on the second component container profile.

Abstract: The present disclosure involves systems, software, and computer implemented methods for providing selection and assessment of software components. One process includes operations for identifying a software component for assessment. Dependencies associated with the software component are analyzed, wherein analyzing dependencies includes identifying at least one relevant perspective associated with the software component, identifying a scope associated with the at least one relevant perspective, and determining whether the software component is associated with at least one related infrastructure component based on the scope or at least one other software component that the software component depends on based on the scope. The software component and each of the at least one related infrastructure component or the at least one other software component are assessed against a set of criteria.

Abstract: The present disclosure involves systems, software, and computer implemented methods for providing self-documentation of development systems. One process includes operations for identifying at least one software component for deployment on a client device. An installation package is received from a source server, the installation package including the at least one software component and at least one artifact associated with the software component. Source documentation is generated for the at least one software component based on the at least one artifact.

Abstract: Methods and systems, including computer program products, implementing techniques for upgrading pattern configurations. The techniques include receiving configuration for a pattern, determining whether the configuration is current with respect to the pattern, automatically upgrading the configuration if the configuration is not current, and using the configuration to modify one or more predefined elements of an application.