Abstract: The following provides a method of modifying or deleting existing parts of an API while preventing breaking changes is taught herein. The method comprises assigning unique identifiers (ID) to the data. The unique identifier is a data address comprised of data coordinates and a context. The data coordinates further comprises a network ID, and a dataset ID. With this information, it is possible to identify and recall any data located within a network of data. The context further comprises a time ID and a timeline ID. Any data can be provided with a unique identifier such that the data can be recalled at any moment in time. This allows a user or programmer to make modifications or deletions to an API, interface, or a database without inducing a breaking change. This method allows for transient virtual addressing of data.

Abstract: The following provides a platform for creating a shared network of data nodes. Each data node is self-describing, self-connecting, and self-securing. The data network taught herein can prevent data silo environments. Each node has: a dataset containing version-controlled data; an access controls layer limiting user access to the dataset; a metadata layer defining characteristics of the dataset and connecting to another node. One or more links are created to associate the node with the subsequent node to create the network of data nodes such that a change in the dataset affects a change in the network of data nodes; and the network of data nodes comprises a query layer to interact with the dataset and the subsequent dataset.

Abstract: A solar collector having two axis control and cogeneration capabilities is provided. The solar collector may have a primary collecting mirror, a second reflecting mirror, and a solar collector positioned adjacent to the primary mirror. The collector may realize both direct solar to electricity production via photovoltaic cells or the like, as well as heat collection generated by the collected solar energy. The collected heat may be transferred to a fluid which may be transferred for productive uses such as electricity production, heating, cooling, and the like.

Abstract: A solar collector having two axis control and cogeneration capabilities is provided. The solar collector may have a primary collecting mirror, a second reflecting mirror, and a solar collector positioned adjacent to the primary mirror. The collector may realize both direct solar to electricity production via photovoltaic cells or the like, as well as heat collection generated by the collected solar energy. The collected heat may be transferred to a fluid which may be transferred for productive uses such as electricity production, heating, cooling, and the like.

Abstract: An inspection system for inspecting an interior surface of a pipeline has a frame adapted to travel in the pipeline and an imaging means for imaging a selected portion of the interior surface of the pipeline. The imaging means has a field of view and is mounted in a rotatable manner on the frame. The inspection system has with a two-dimensional pattern generator for generating a two-dimensional pattern projection. The generator is mounted with the imaging means to project the two-dimensional pattern projection in the field of view thereof. The imaging means provide images of the selected portion of the internal surface comprising the two-dimensional pattern projection for monitoring a perpendicularity of the optical axis of the imaging means with respect to the selected portion of the interior surface of the pipeline thanks to a shape of the two-dimensional pattern projection prior to inspection of the internal surface.

Abstract: An inspection system for inspecting an interior surface of a pipeline has a frame adapted to travel in the pipeline and an imaging means for imaging a selected portion of the interior surface of the pipeline. The imaging means has a field of view and is mounted in a rotatable manner on the frame. The inspection system has with a two-dimensional pattern generator for generating a two-dimensional pattern projection. The generator is mounted with the imaging means to project the two-dimensional pattern projection in the field of view thereof. The imaging means provide images of the selected portion of the internal surface comprising the two-dimensional pattern projection for monitoring a perpendicularity of the optical axis of the imaging means with respect to the selected portion of the interior surface of the pipeline thanks to a shape of the two-dimensional pattern projection prior to inspection of the internal surface.

Abstract: A method for assembling a gas turbine engine includes coupling a rotor assembly including a plurality of rotor blades about a rotatable main shaft of the gas turbine engine. The main shaft is aligned in an axial direction of the gas turbine engine. A shroud assembly is coupled to the gas turbine engine. The shroud assembly includes a plurality of shroud segments circumferentially coupled about the rotor assembly such that a shroud spacing gap is formed in the axial direction between adjacent shroud segments. A cooling fluid source is coupled to each shroud segment such that cooling fluid is channeled through each shroud segment into a corresponding shroud spacing gap to facilitate positive purge flow through the shroud spacing gap.

Abstract: A method for assembling a gas turbine engine includes coupling a rotor assembly including a plurality of rotor blades about a rotatable main shaft of the gas turbine engine. The main shaft is aligned in an axial direction of the gas turbine engine. A shroud assembly is coupled to the gas turbine engine. The shroud assembly includes a plurality of shroud segments circumferentially coupled about the rotor assembly such that a shroud spacing gap is formed in the axial direction between adjacent shroud segments. A cooling fluid source is coupled to each shroud segment such that cooling fluid is channeled through each shroud segment into a corresponding shroud spacing gap to facilitate positive purge flow through the shroud spacing gap.