Abstract: The present disclosure is directed to systems and methods including providing a data structure stored in computer-readable memory at a first location, monitoring a first work surface provided at the first location, determining that a first physical medium has been manipulated on the first work surface, and, in response, generating a first operation based on a manipulation of the first physical medium, applying the first operation to the data structure. Systems and methods can further include receiving operation and object data from a server system, the operation and object data corresponding to a second operation generated in response to manipulation of a second physical medium on a second work surface provided at a second location, applying the second operation to the data structure, processing the object data, and projecting a first virtual medium on the first work surface, the first virtual medium corresponding to the second physical medium.

Abstract: A computer-implemented smart recovery system for dynamic workflows addresses a change to a data object during execution of an instance of a workflow by selectively re-executing workflow tasks that are affected by the change, without cancelling the instance and restarting a new instance of the workflow. A determination of whether a task is to be re-executed during the smart recovery process may include examining a re-evaluation label assigned to the task.

Abstract: A computer-implemented method for automatically and dynamically composing and executing workflow-based service processes may include receiving a request, the request including a user-selected service type, guided by one or more rules for questionnaire creation, dynamically generating a sequence of one or more electronic inquiries in accordance with the user-selected service type, receiving information based on the sequence of the one or more electronic inquiries, based on the information received, creating a goal for the request by constructing logical state representations of a current state constituting a pre-condition of the goal and of a target state constituting a post-condition of the goal and generating a service process by determining a sequence of services which together fulfill the goal, where the services are selected from a plurality of services such that pre-conditions and post-conditions associated with the selected services together match the pre-condition and the post-condition of the goal.

Abstract: The subject matter disclosed herein provides methods and apparatus, including computer program products, for providing a weak dependency linking two tasks of a workflow of task. In one aspect, there is provided a computer-implemented method. The method receives, from a user interface, an indication representing a link between a first task and a second task. The link being a weak dependency linking the first and second task. The weak dependency representing that one or more tasks may be inserted between the first and second tasks. The first and second tasks including the link representing the weak dependency may be provided to the user interface. The link presented at the user interface to enable identification of the weak dependency. Related apparatus, systems, methods, and articles are also described.

Abstract: An occurrence of a workflow re-evaluation event during execution of tasks in a workflow is identified. In response to the workflow re-evaluation event, it is determined for each task previously executed in the workflow whether such task needs to be executed again. Those tasks in the workflow for which it was determined that the corresponding task needs to be executed again are executed again, while the tasks in the workflow that were previously executed and for which it was not determined that the corresponding task needs to be executed again are skipped. Related apparatus, systems, techniques and articles are also described.

Abstract: A method includes providing a baseline workflow as an electronic representation of an actual workflow, the baseline workflow including baseline tasks, data items, and baseline data scopes, and providing a fragment workflow as an electronic representation of an actual fragment workflow, the fragment workflow including at least one fragment task, and at least one fragment data scope. A baseline data scope is identified as an affected data scope based on a structural change operation, the baseline workflow and the fragment workflow, and the affected data scope is compared to the at least one fragment data scope to identify at least one change operation. The fragment and baseline workflows are integrated based on the structural change operation to provide an integrated workflow, and the at least one data scope change operation is executed to provide at least one integrated data scope in the integrated workflow.

Abstract: A system may include a composition engine that is configured to include a receiving engine that is configured to receive a series of states and transitions from an object lifecycle. The composition engine may include a computation engine that is configured to compute actions from the transitions and to compute preconditions and effects for the actions from the states. The composition engine may include a relations engine that is configured to compute relations between the actions and a parallel process engine that is configured to generate a parallel process fragment that includes at least two of the actions based on the relations between the actions.

Abstract: The present disclosure is directed to systems and methods including providing a data structure stored in computer-readable memory at a first location, monitoring a first work surface provided at the first location, determining that a first physical medium has been manipulated on the first work surface, and, in response, generating a first operation based on a manipulation of the first physical medium, applying the first operation to the data structure. Systems and methods can further include receiving operation and object data from a server system, the operation and object data corresponding to a second operation generated in response to manipulation of a second physical medium on a second work surface provided at a second location, applying the second operation to the data structure, processing the object data, and projecting a first virtual medium on the first work surface, the first virtual medium corresponding to the second physical medium.

Abstract: A computer-implemented smart recovery system for dynamic workflows addresses a change to a data object during execution of an instance of a workflow by selectively re-executing workflow tasks that are affected by the change, without cancelling the instance and restarting a new instance of the workflow. A determination of whether a task is to be re-executed during the smart recovery process may include examining a re-evaluation label assigned to the task.

Abstract: A method includes providing a baseline workflow as an electronic representation of an actual workflow, the baseline workflow including baseline tasks, data items, and baseline data scopes, and providing a fragment workflow as an electronic representation of an actual fragment workflow, the fragment workflow including at least one fragment task, and at least one fragment data scope. A baseline data scope is identified as an affected data scope based on a structural change operation, the baseline workflow and the fragment workflow, and the affected data scope is compared to the at least one fragment data scope to identify at least one change operation. The fragment and baseline workflows are integrated based on the structural change operation to provide an integrated workflow, and the at least one data scope change operation is executed to provide at least one integrated data scope in the integrated workflow.

Abstract: A computer-implemented method for automatically and dynamically composing and executing workflow-based service processes may include receiving a request, the request including a user-selected service type, guided by one or more rules for questionnaire creation, dynamically generating a sequence of one or more electronic inquiries in accordance with the user-selected service type, receiving information based on the sequence of the one or more electronic inquiries, based on the information received, creating a goal for the request by constructing logical state representations of a current state constituting a pre-condition of the goal and of a target state constituting a post-condition of the goal and generating a service process by determining a sequence of services which together fulfill the goal, where the services are selected from a plurality of services such that pre-conditions and post-conditions associated with the selected services together match the pre-condition and the post-condition of the goal.

Abstract: Disclosed is a method that includes providing tasks associated with a process, one or more of the tasks having a corresponding undetermined inter-dependency between the one or more of the tasks and other of the tasks, associating with the process one or more constraints specifying requirements regarding use of at least one of the tasks, the one or more constraints having corresponding graphical representations, and generating an instance of the process based on the one or more constraints to determine the corresponding undetermined inter-dependency between at least one of the one or more of the tasks and the other tasks.

Abstract: A system may include a composition engine that is configured to include a receiving engine that is configured to receive a series of states and transitions from an object lifecycle. The composition engine may include a computation engine that is configured to compute actions from the transitions and to compute preconditions and effects for the actions from the states. The composition engine may include a relations engine that is configured to compute relations between the actions and a parallel process engine that is configured to generate a parallel process fragment that includes at least two of the actions based on the relations between the actions.

Abstract: An occurrence of a workflow re-evaluation event during execution of tasks in a workflow is identified. In response to the workflow re-evaluation event, it is determined for each task previously executed in the workflow whether such task needs to be executed again. Those tasks in the workflow for which it was determined that the corresponding task needs to be executed again are executed again, while the tasks in the workflow that were previously executed and for which it was not determined that the corresponding task needs to be executed again are skipped. Related apparatus, systems, techniques and articles are also described.