Abstract: Disclosed are examples of systems, apparatus, methods, and computer program products for processing offline updates to records of a database system. In some implementations, a first update to a record is processed, and the record is modified according to a first action and first data of the first update. A second update to the record from a device with an offline status is processed. It can be determined that the second update and the first update are associated with a same portion of the record. It can be determined that the second timestamp is prior to the first timestamp. A notification can be provided to the device. The record can be modified according to a second action and second data of the second update.

Abstract: Disclosed herein are apparatus, system and method embodiments for sending an interactive customized push notifications with customized actions. An embodiment operates by determining occurrence of an event associated with an object, forming a notification and a list of actions defined by a customer using fields from the object associated with the event, and presenting the notification and the actions to a user device that's associated to the object. Further, the action is executed in response to the user's selection.

Abstract: Disclosed herein are apparatus, system and method embodiments for sending an interactive customized push notifications with customized actions. An embodiment operates by determining occurrence of an event associated with an object, forming a notification and a list of actions defined by a customer using fields from the object associated with the event, and presenting the notification and the actions to a user device that's associated to the object. Further, the action is executed in response to the user's selection.

Abstract: Disclosed are examples of systems, apparatus, methods, and computer program products for processing offline updates to records of a database system. In some implementations, a first update to a record is processed, and the record is modified according to a first action and first data of the first update. A second update to the record from a device with an offline status is processed. It can be determined that the second update and the first update are associated with a same portion of the record. It can be determined that the second timestamp is prior to the first timestamp. A notification can be provided to the device. The record can be modified according to a second action and second data of the second update.

Abstract: Mechanisms and methods are provided for optimizing data synchronization between clients and database systems. These mechanisms and methods provide optimizations for synchronization requests, by either breaking a synchronization request into multiple smaller requests, or by executing different code routines for differing client types, or by pre-caching data that a user is anticipated to want at a future point. Such optimization techniques can enable clients with varying capacities (e.g., mobile client vs. full desktop client) to optimally utilize their respective device capabilities.

Abstract: Mechanisms and methods are provided for optimizing data synchronization between clients and database systems. These mechanisms and methods provide optimizations for synchronization requests, by either breaking a synchronization request into multiple smaller requests, or by executing different code routines for differing client types, or by pre-caching data that a user is anticipated to want at a future point. Such optimization techniques can enable clients with varying capacities (e.g., mobile client vs. full desktop client) to optimally utilize their respective device capabilities.

Abstract: Mechanisms and methods are provided for optimizing data synchronization between clients and database systems. These mechanisms and methods provide optimizations for synchronization requests, by either breaking a synchronization request into multiple smaller requests, or by executing different code routines for differing client types, or by pre-caching data that a user is anticipated to want at a future point. Such optimization techniques can enable clients with varying capacities (e.g., mobile client vs. full desktop client) to optimally utilize their respective device capabilities.

Abstract: Mechanisms and methods are provided for optimizing data synchronization between clients and database systems. These mechanisms and methods provide optimizations for synchronization requests, by either breaking a synchronization request into multiple smaller requests, or by executing different code routines for differing client types, or by pre-caching data that a user is anticipated to want at a future point. Such optimization techniques can enable clients with varying capacities (e.g., mobile client vs. full desktop client) to optimally utilize their respective device capabilities.

Abstract: Mechanisms and methods are provided for optimizing data synchronization between clients and database systems. These mechanisms and methods provide optimizations for synchronization requests, by either breaking a synchronization request into multiple smaller requests, or by executing different code routines for differing client types, or by pre-caching data that a user is anticipated to want at a future point. Such optimization techniques can enable clients with varying capacities (e.g., mobile client vs. full desktop client) to optimally utilize their respective device capabilities.

Abstract: Mechanisms and methods are provided for optimizing data synchronization between clients and database systems. These mechanisms and methods provide optimizations for synchronization requests, by either breaking a synchronization request into multiple smaller requests, or by executing different code routines for differing client types, or by pre-caching data that a user is anticipated to want at a future point. Such optimization techniques can enable clients with varying capacities (e.g., mobile client vs. full desktop client) to optimally utilize their respective device capabilities.