The embodiments of the present application provide a control system for a conveying line, a conveying line and a control method for a conveying line, the conveying line includes at least one conveying unit, the control system includes: at least one unit controller, a general controller and an upper computer, the unit controller one-to-one corresponds to the conveying unit, the unit controller is fixed in the corresponding conveying unit, the upper computer generates conveying path data according to a material conveying requirement and layout data of the conveying unit, the general controller is configured to receive the conveying path data, and is further configured to receive material location data sent by the unit controller and generate a control instruction for the unit controller according to the material location data and the conveying path data, and the unit controller controls the conveying unit according to the control instruction.

A method for configuring a control unit in a conveyor, wherein a control unit controls one or more conveyor segments comprising a conveyor drive in signal communication with the control unit via a motor connection socket, and a sensor for detecting an object at a position within the conveyor segment. The conveyor is in signal communication with the control unit via a sensor connection socket. The control unit self-configures itself by: (i) activating a configuration mode in the control unit, (ii) receiving a signal from each motor connection socket or sensor connection socket, (iii) comparing the received signal(s) with a comparative value stored in the control unit, and (iv) determining whether a conveyor drive or a sensor is connected to a motor connection socket or a sensor connection socket of the control unit, respectively, based on the comparison of the signal(s) with the comparative value.

Techniques for flexible, on-site additive manufacturing of components or portions thereof for transport structures are disclosed. An automated assembly system for a transport structure may include a plurality of automated constructors to assemble the transport structure. In one aspect, the assembly system may span the full vertically integrated production process, from powder production to recycling. At least some of the automated constructors are able to move in an automated fashion between the station under the guidance of a control system. A first of the automated constructors may include a 3-D printer to print at least a portion of a component and to transfer the component to a second one of the automated constructors for installation during the assembly of the transport structure. The automated constructors may also be adapted to perform a variety of different tasks utilizing sensors for enabling machine-learning.

A substrate transport empiric arm droop mapping apparatus for a substrate transport system of a processing tool, the mapping apparatus including a frame, an interface disposed on the frame forming datum features representative of a substrate transport space in the processing tool defined by the substrate transport system, a substrate transport arm, that is articulated and has a substrate holder, mounted to the frame in a predetermined relation to at least one of the datum features, and a registration system disposed with respect to the substrate transport arm and at least one datum feature so that the registration system registers, in an arm droop distance register, empiric arm droop distance, due to arm droop changes, between a first arm position and a second arm position different than the first arm position and in which the substrate holder is moved in the transport space along at least one axis of motion.

The invention relates to a modular conveyor system, comprising multiple individual conveyor modules, wherein an individual conveyor module comprises at least one conveyor device, at least one power supply, at least one actuator for driving the conveyor device, an output unit for the control of the actuator and an integrated control unit, wherein the integrated control unit has a computing unit for processing information and a communications unit, and wherein the communications unit is designed to carry out the communication of the individual conveyor modules with a central control system, on the one hand, and/or the communication of the individual conveyor modules with one another, on the other hand, in such a way that the communication of the individual conveyor modules with one another is implemented at two logical communication levels. The invention further relates to a method for controlling modular conveyor systems.

A high density, controlled integrated circuits factory having process modules occupying approximately two-thirds of the factory floor space with the remaining one-third of the factory floor space being used for servicing the process modules and for loading and unloading wafers to and from the process modules. A subfloor is provided below the factory floor to allow service lifts to travel across the factory. Service lifts can be raised to the factory floor level to service process modules. Overhead lines are also provided over the process modules to transport service items as well as wafers across the factory.

An example method for simultaneously manufacturing a plurality of objects is described. The method includes simultaneously cycling a plurality of pallets through a conveyor system. The conveyor system is cyclical, and the conveyor system includes an entrance point for each pallet, an exit point, and a plurality of manufacturing points corresponding to a plurality of manufacturing devices. Simultaneously cycling the plurality of pallets includes simultaneously cycling the plurality of pallets past the plurality of manufacturing points for two or more cycles, wherein each pallet is associated with a set of manufacturing instructions for a corresponding object. The method further includes, while simultaneously cycling the plurality of pallets through the conveyor system, using a different combination of the plurality of manufacturing devices to manufacture each object in accordance with the set of manufacturing instructions associated with each pallet, thereby manufacturing different objects for each pallet.

A conveyor controller for being implemented into a conveyor system includes control circuitry and one or more network interfaces for coupling with other conveyor controllers. In one embodiment, the control circuitry configured for detecting whether another conveyor controller is connected and to determine which network interface is used in order to set the direction of the conveyor system. In another embodiment, the control circuitry is configured, to receive configuration data from a conveyor controller connected to a network interface, and to detect if another conveyor controller is and to transmit configuration message to another conveyor controller that includes additional configuration data associated with the conveyor controller. In still another embodiment, the control circuitry transmits configuration data to a replacement conveyor controller upon getting a request from the replacement conveyor controller that has been connected to a network interface.

Systems, methods, and machine-executable coded instruction sets are disclosed for fully- and/or partly automated handling of goods. The disclosure provides improvements in the storage and retrieval of storage and delivery containers in order processing systems.

Methods and systems for assessing a robotic grasping technique. The system in accordance with various embodiments may include a warehouse management system for retrieving and storing items, a robotic manipulator for grasping an item, and analysis module configured to receive data regarding a first grasp attempt by the robotic manipulator and analyze the received data to determine whether the robotic manipulator successfully grasped the item.