Abstract: Disclosed are systems and methods for application builders for offline-capable applications. In some embodiments, a method for generating an offline-capable application includes the steps of: accessing an ontology associated with the offline-capable application; accessing one or more application assets associated with the offline-capable application; determining a cache strategy for the offline-capable application, the cache strategy comprising one or more caching rules, at least one caching rule of the one or more caching rules comprising one or more parameters, the one or more parameters comprising a specification of cached data and a cache condition; and building the offline-capable application using the ontology and the one or more application assets based at least in part upon the caching strategy.

Abstract: In some embodiments, a method comprises obtaining a pipeline of operations, the pipeline of operations including a plurality of functions providing any of one or more modification operations or visualization operations for a plurality of datasets. A first dynamic visualization of the pipeline of operations at a first level of granularity is generated. A second dynamic visualization of the pipeline of operations at a second level of granularity is generated in response to user input.

Abstract: Systems, methods, and non-transitory computer readable media are provided for providing parameterized states. Resource customization information may be obtained. The resource customization information may identify a resource and define a customized view of the resource. A parameterized state may be generated based on the resource customization information. Activation of the parameterized state may cause the customized view of the resource to be presented. An interface through which the parameterized state is accessible may be provided.

Abstract: In some embodiments, a method comprises obtaining a pipeline of operations, the pipeline of operations including a plurality of functions providing any of one or more modification operations or visualization operations for a plurality of datasets. A first dynamic visualization of the pipeline of operations at a first level of granularity is generated. A second dynamic visualization of the pipeline of operations at a second level of granularity is generated in response to user input.

Abstract: In some embodiments, a method comprises obtaining a pipeline of operations, the pipeline of operations including a plurality of functions providing any of one or more modification operations or visualization operations for a plurality of datasets. A first dynamic visualization of the pipeline of operations at a first level of granularity is generated. A second dynamic visualization of the pipeline of operations at a second level of granularity is generated in response to user input.

Abstract: Systems, methods, and non-transitory computer readable media are provided for providing parameterized states. Resource customization information may be obtained. The resource customization information may identify a resource and define a customized view of the resource. A parameterized state may be generated based on the resource customization information. Activation of the parameterized state may cause the customized view of the resource to be presented. An interface through which the parameterized state is accessible may be provided.

Abstract: Systems, methods, and non-transitory computer readable media are provided for providing parameterized states. Resource customization information may be obtained. The resource customization information may identify a resource and define a customized view of the resource. A parameterized state may be generated based on the resource customization information. Activation of the parameterized state may cause the customized view of the resource to be presented. An interface through which the parameterized state is accessible may be provided.

Abstract: Systems, methods, and non-transitory computer readable media are provided for presenting a user interface for fault analysis. Fault information may be accessed. The fault information may identify faults for one or more machines. A fault analysis interface may be provided. The fault analysis interface may include an organization view, an instance view, a subsystem view, or a map view. The fault analysis interface may enable presentation of the organization view, the instance view, the subsystem view, and the map view. The fault analysis interface may display correlations of the faults using visuals and spatial locations of the visuals.

Abstract: Systems, methods, and non-transitory computer readable media are provided for presenting a user interface for fault analysis. Fault information may be accessed. The fault information may identify faults for one or more machines. A fault analysis interface may be provided. The fault analysis interface may include an organization view, an instance view, a subsystem view, or a map view. The fault analysis interface may enable presentation of the organization view, the instance view, the subsystem view, and the map view. The fault analysis interface may display correlations of the faults using visuals and spatial locations of the visuals.

Abstract: Systems, methods, and non-transitory computer readable media are provided for providing parameterized states. Resource customization information may be obtained. The resource customization information may identify a resource and define a customized view of the resource. A parameterized state may be generated based on the resource customization information. Activation of the parameterized state may cause the customized view of the resource to be presented. An interface through which the parameterized state is accessible may be provided.