Abstract: Methods, systems, and apparatus provide efficient and complex database functionality for an electronic device, e.g. a mobile device. These mechanisms and methods for providing efficient and complex database functionality to an electronic device can enable embodiments to provide quick access to certain data using a local application and seamless access within the local application to other data and complex presentation formats that are supplied by a server. The ability of embodiments to provide this hybrid functionality can enable users of the electronic devices to be more productive.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for applying a group of instructions to metadata in the context of an on-demand database service. These mechanisms and methods for applying a group of instructions to metadata can enable embodiments that ensure that “all or none” of the operations corresponding to the grouped instructions are performed. The ability of embodiments to provide such feature can prevent a scenario where only a portion of a desired effect is accomplished which, in turn, may complicate any effort to undo the same.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for saving multiple rows together through an object relational mapping layer to a database. These mechanisms and methods for saving multiple rows together can enable embodiments to detect faults in the save operation(s) and recover. The ability of embodiments to detect faults in the save operation(s) and recover can enable embodiments to provide a robust forgiving published API that saves a set of rows together whenever possible.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for selecting amongst a plurality of processes to send a message (e.g. a message for updating an endpoint system, etc.). These mechanisms and methods for selecting amongst a plurality of processes to send a message can enable embodiments to utilize more than one queue for sending such message. The ability of embodiments to provide such multi-process feature can, in turn, prevent latency that typically accompanies a mounting number of messages.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for saving multiple rows together through an object relational mapping layer to a database. These mechanisms and methods for saving multiple rows together can enable embodiments to detect faults in the save operation(s) and recover. The ability of embodiments to detect faults in the save operation(s) and recover can enable embodiments to provide a robust forgiving published API that saves a set of rows together whenever possible.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for saving multiple rows together through an object relational mapping layer to a database. These mechanisms and methods for saving multiple rows together can enable embodiments to detect faults in the save operation(s) and recover. The ability of embodiments to detect faults in the save operation(s) and recover can enable embodiments to provide a robust forgiving published API that saves a set of rows together whenever possible.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for applying a group of instructions to metadata in the context of an on-demand database service. These mechanisms and methods for applying a group of instructions to metadata can enable embodiments that ensure that “all or none” of the operations corresponding to the grouped instructions are performed. The ability of embodiments to provide such feature can prevent a scenario where only a portion of a desired effect is accomplished which, in turn, may complicate any effort to undo the same.

Abstract: Embodiments may recover from faults by forming a new set of rows by removing rows associated with faulting save operations and repeating the saving and forming operations using the new set of rows until a set of rows that can be saved from the known start state without fault is determined. When the subset of successful rows is found, embodiments are able to provide assurance that no side effects (i.e., code or operations triggered by saving of a data to a particular location) have been executed on behalf of any of the failed rows (side effects from custom PL/SOQL code included) by deferring execution of triggers until an entire set of rows can be saved and committed.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for applying a group of instructions to metadata in the context of an on-demand database service. These mechanisms and methods for applying a group of instructions to metadata can enable embodiments that ensure that “all or none” of the operations corresponding to the grouped instructions are performed. The ability of embodiments to provide such feature can prevent a scenario where only a portion of a desired effect is accomplished which, in turn, may complicate any effort to undo the same.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for selecting amongst a plurality of processes to send a message (e.g. a message for updating an endpoint system, etc.). These mechanisms and methods for selecting amongst a plurality of processes to send a message can enable embodiments to utilize more than one queue for sending such message. The ability of embodiments to provide such multi-process feature can, in turn, prevent latency that typically accompanies a mounting number of messages.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for selecting amongst a plurality of processes to send a message (e.g. a message for updating an endpoint system, etc.). These mechanisms and methods for selecting amongst a plurality of processes to send a message can enable embodiments to utilize more than one queue for sending such message. The ability of embodiments to provide such multi-process feature can, in turn, prevent latency that typically accompanies a mounting number of messages.

Abstract: Embodiments may recover from faults by forming a new set of rows by removing rows associated with faulting save operations and repeating the saving and forming operations using the new set of rows until a set of rows that can be saved from the known start state without fault is determined. When the subset of successful rows is found, embodiments are able to provide assurance that no side effects (i.e., code or operations triggered by saving of a data to a particular location) have been executed on behalf of any of the failed rows (side effects from custom PL/SOQL code included) by deferring execution of triggers until an entire set of rows can be saved and committed.

Abstract: Embodiments may recover from faults by forming a new set of rows by removing rows associated with faulting save operations and repeating the saving and forming operations using the new set of rows until a set of rows that can be saved from the known start state without fault is determined. When the subset of successful rows is found, embodiments are able to provide assurance that no side effects (i.e., code or operations triggered by saving of a data to a particular location) have been executed on behalf of any of the failed rows (side effects from custom PL/SOQL code included) by deferring execution of triggers until an entire set of rows can be saved and committed.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for asynchronously performing an operation on metadata in the context of an on-demand database service. These mechanisms and methods for asynchronously performing an operation on metadata can enable embodiments to allow a subscriber to perform other database service operations, while the aforementioned operation is being performed on the metadata. The ability of embodiments to provide such feature can enable the performance of a larger number of operations on metadata without necessarily interrupting the ability of the subscriber to perform other operations using the on-demand database service.

Abstract: Methods, systems, and apparatus provide efficient and complex database functionality for an electronic device, e.g. a mobile device. These mechanisms and methods for providing efficient and complex database functionality to an electronic device can enable embodiments to provide quick access to certain data using a local application and seamless access within the local application to other data and complex presentation formats that are supplied by a server. The ability of embodiments to provide this hybrid functionality can enable users of the electronic devices to be more productive.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for asynchronously performing an operation on metadata in the context of an on-demand database service. These mechanisms and methods for asynchronously performing an operation on metadata can enable embodiments to allow a subscriber to perform other database service operations, while the aforementioned operation is being performed on the metadata. The ability of embodiments to provide such feature can enable the performance of a larger number of operations on metadata without necessarily interrupting the ability of the subscriber to perform other operations using the on-demand database service.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for saving multiple rows together through an object relational mapping layer to a database. These mechanisms and methods for saving multiple rows together can enable embodiments to detect faults in the save operation(s) and recover. The ability of embodiments to detect faults in the save operation(s) and recover can enable embodiments to provide a robust forgiving published API that saves a set of rows together whenever possible.

Abstract: Embodiments may recover from faults by forming a new set of rows by removing rows associated with faulting save operations and repeating the saving and forming operations using the new set of rows until a set of rows that can be saved from the known start state without fault is determined. When the subset of successful rows is found, embodiments are able to provide assurance that no side effects (i.e., code or operations triggered by saving of a data to a particular location) have been executed on behalf of any of the failed rows (side effects from custom PL/SOQL code included) by deferring execution of triggers until an entire set of rows can be saved and committed.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for selecting amongst a plurality of processes to send a message (e.g. a message for updating an endpoint system, etc.). These mechanisms and methods for selecting amongst a plurality of processes to send a message can enable embodiments to utilize more than one queue for sending such message. The ability of embodiments to provide such multi-process feature can, in turn, prevent latency that typically accompanies a mounting number of messages.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for applying a group of instructions to metadata in the context of an on-demand database service. These mechanisms and methods for applying a group of instructions to metadata can enable embodiments that ensure that “all or none” of the operations corresponding to the grouped instructions are performed. The ability of embodiments to provide such feature can prevent a scenario where only a portion of a desired effect is accomplished which, in turn, may complicate any effort to undo the same.