Abstract: The present disclosure relates to generation of forming instructions to form one or more three-dimensional (3D) objects and/or analyzing any failure. The failure may comprise a failure of one or more apparatuses utilized during the forming process (or any components of the apparatuses). The failure may comprise a failure in at least a portion of the 3D object during and/or after its formation. The failure may be analyzed before, during, and/or after generation of the forming instructions.

Abstract: Provided herein are apparatuses, and non-transitory computer readable media regarding data assurance for instructions data utilized in forming at least one requested 3D object, and methods associated therewith. Data assurance may comprise (i) security, (ii) certification, (iii) validation, (iv) integrity, or (v) authentication. Data assurance may be implemented in a pre-formation environment and/or by a manufacturing device that forms the requested 3D object(s). The pre-formation environment may include one or more stages, and/or modules of a pre-formation environment (e.g., application).

Abstract: The present disclosure relates to generation of forming instructions to form one or more three-dimensional (3D) objects. Generation of the forming instructions may include selection of one or more formation variables to form at least a portion of the one or more 3D objects. Generation of the forming instructions may include selection of a speed, feature, and/or an effect manifested in at least a portion of the formed one or more 3D objects. The forming variable(s) may be associated with a patch of a model of the 3D object.

Abstract: Provided herein are apparatuses, and non-transitory computer readable media regarding data assurance for instructions data utilized in forming at least one requested 3D object, and methods associated therewith. Data assurance may comprise (i) security, (ii) certification, (iii) validation, (iv) integrity, or (v) authentication. Data assurance may be implemented in a pre-formation environment and/or by a manufacturing device that forms the requested 3D object(s). The pre-formation environment may include one or more stages, and/or modules of a pre-formation environment (e.g., application).

Abstract: The present disclosure relates to generation of forming instructions to form one or more three-dimensional (3D) objects. Generation of the forming instructions may include selection of one or more formation variables to form at least a portion of the one or more 3D objects. Generation of the forming instructions may include selection of a speed, feature, and/or an effect manifested in at least a portion of the formed one or more 3D objects. The forming variable(s) may be associated with a patch of a model of the 3D object.

Abstract: Specifying a dataflow graph includes: rendering, in a first user interface, a representation of a first dataflow graph. At least one component represents a computation associated with at least one of data flowing into an input port or data flowing out of an output port. A link between components is rendered based on user input indicating a flow of data. In a second user interface, a representation of a sub-graph of the first dataflow graph is rendered. A first flow junction represents a connection between: (1) a flow of data outside the sub-graph interface, and (2) a flow of data inside the sub-graph interface. A link is rendered between the first flow junction and a second flow junction based on user input indicating a relationship between a first descriptor and a second descriptor.

Abstract: Specifying a dataflow graph includes: rendering, in a first user interface, a representation of a first dataflow graph. At least one component represents a computation associated with at least one of data flowing into an input port or data flowing out of an output port. A link between components is rendered based on user input indicating a flow of data. In a second user interface, a representation of a sub-graph of the first dataflow graph is rendered. A first flow junction represents a connection between: (1) a flow of data outside the sub-graph interface, and (2) a flow of data inside the sub-graph interface. A link is rendered between the first flow junction and a second flow junction based on user input indicating a relationship between a first descriptor and a second descriptor.

Abstract: Specifying a dataflow graph includes: rendering, in a first user interface, a representation of a first dataflow graph. At least one component represents a computation associated with at least one of data flowing into an input port or data flowing out of an output port. A link between components is rendered based on user input indicating a flow of data. In a second user interface, a representation of a sub-graph of the first dataflow graph is rendered. A first flow junction represents a connection between: (1) a flow of data outside the sub-graph interface, and (2) a flow of data inside the sub-graph interface. A link is rendered between the first flow junction and a second flow junction based on user input indicating a relationship between a first descriptor and a second descriptor.

Abstract: Specifying a dataflow graph includes: rendering, in a first user interface, a representation of a first dataflow graph. At least one component represents a computation associated with at least one of data flowing into an input port or data flowing out of an output port. A link between components is rendered based on user input indicating a flow of data. In a second user interface, a representation of a sub-graph of the first dataflow graph is rendered. A first flow junction represents a connection between: (1) a flow of data outside the sub-graph interface, and (2) a flow of data inside the sub-graph interface. A link is rendered between the first flow junction and a second flow junction based on user input indicating a relationship between a first descriptor and a second descriptor.