This present disclosure provides a production line adaptation method, system and medium based on the Industrial Internet of Things. The method comprises: an instruction generation module configured to generate an adaptation instruction based on production item data of a production line required by a production item input by a user; a production adaptation module configured to generate a target adaptation scheme based on the adaptation instruction; and obtain an adaptation result by adapting the plurality of target production lines based on the target adaptation scheme; a feedback module configured to determine feedback results according to the adaptation results; and a process configuration module configured to perform process configuration on the plurality of target production lines to obtain the production line required by the production item in response to the feedback results indicating that the adaptation is successful.

Methods and systems are disclosed for simulating a fabrication process based on real time sensor measurements obtained during the process. In one embodiment, a first simulation of the process computes a set of predicted physical responses based on a first set of assumed boundary conditions, and then, during the fabrication process sensor measurements are obtained and used to compute a second set of boundary conditions. A second simulation, based on the second set of boundary conditions, can then be performed to compute an updated set of predicted physical responses that can be compared to the previously computed set of physical responses. The difference(s) can be used to determine line, surface or volumetric response distribution from point, line or surface boundary conditions respectively, whether and how to modify the fabrication process (or other processes) and how to take additive and other manufacturing process decisions real-time using simulation. Other examples are also described.

A method for employing a plurality of automated machines to deposit composite material includes a first tool located in a first station and a second tool located in a second station. The first station and the second station are located on a production line. The first station includes at least one automated machine of the plurality of automated machines and the second station includes at least two automated machines of the plurality of automated machines. At least one of the automated machines is movable from the second station to the first station. The method includes monitoring machine capacity and workload requirements of the plurality of automated machines. The method further includes determining an efficiency threshold based upon the machine capacity and workload requirements. The method further includes reallocating at least one of the automated machines from the second station to the first station once the efficiency threshold is met.

An electrical system for installation in a building project includes an electrical panel assembly with a chassis and at least one housing and one or more line voltage source connection points mounted to the chassis. The system also includes one or more low voltage power sources mounted to the chassis, wherein the electrical panel assembly is located in a predetermined location in the building project for connection to one or more low voltage components via direct connections and to one or more line voltage outlets.

This present disclosure provides a production line adaptation method, system and medium based on the Industrial Internet of Things. The method comprises: an instruction generation module configured to generate an adaptation instruction based on production item data of a production line required by a production item input by a user; a production adaptation module configured to generate a target adaptation scheme based on the adaptation instruction; and obtain an adaptation result by adapting the plurality of target production lines based on the target adaptation scheme; a feedback module configured to determine feedback results according to the adaptation results; and a process configuration module configured to perform process configuration on the plurality of target production lines to obtain the production line required by the production item in response to the feedback results indicating that the adaptation is successful.

This industrial system is characterized by being provided with: a storage unit that stores design data used when constructing an industrial line; a simulation execution unit that executes a simulation of movement of the industrial line, based on the design data; and a detection unit that compares a result of the simulation with the movement of the industrial line during operation and detects an abnormality in components of the industrial line. With such a configuration and movement, the present invention can be utilized for line operation support and high-resolution abnormality detection.

Proposed is system and method for modular control system providing a dynamically adaptive process control of a process line of a plant in a Machine-to-Machine network. The process line of the plant comprises a plurality of distributed machine control system with one or more elements interlocked to one or more operational unit of the process line. The operation of an operational unit performing a physical function within the process line is controlled by an associated machine control system by means of the elements interlocked to the operational units. The interlocked elements at least comprise IO-interfaces and actor control devices.

A centralized core and node system for use in an integrated component-based construction projects includes a centralized core configured to be positioned on at least one external wall of a building project. The centralized core includes a core frame to support one or more resource distribution mechanisms and a core shell connected to the frame to at least partially enclose the one or more resource distribution mechanisms and form at least one part of the external wall of the building project. The centralized core and node system also includes at least one resource node. The at least one resource node includes a node frame and at least one resource connection point. The resource connection point including a node input for connection to the centralized core and a node output for distributing a resource to a desired location in the building project.

A construction component for use in integrated component-based construction that includes a base member having a predetermined size and a marking fixed to an exterior surface of the base member. The marking including an identifier and at least one indicator, wherein the identifier identifies the base member's location in a centralized building model and the at least one indicator indicates a location of a second construction component relative to the base member.

A method of integrated component-based construction includes receiving construction project input data comprising characteristics of a construction project and preparing a centralized construction model based on the construction project input data and on a component library. The component library includes a plurality of construction components having a plurality of predetermined characteristics. The methods also includes determining a construction plan based on the centralized construction model comprising a plurality of factors and sending fabrication instruction data and factor data based on the centralized construction model. The fabrication instruction data includes fabrication instructions for the construction components in the centralized construction model, and the factor data includes grouping instructions for the grouping of the construction components into each factor of the plurality of factors. The method also includes sending assembly data based on the centralized construction model comprising instructions for completing each factor in the plurality of factors.