A device may obtain, from one or more cameras, an image that depicts one or more encoded decals positioned on a body of a vehicle. The device may process the image and may identify, based on processing the image, one or more characteristics of the one or more encoded decals. The device may determine, based on the one or more characteristics of the one or more encoded decals, positioning information to be used to position a loading bridge relative to the body of the vehicle. The device may determine one or more control signals based on the positioning information. The device may provide the one or more control signals to one or more actuators to automatically position the loading bridge relative to the body of the vehicle.

A device may obtain, from one or more cameras, an image that depicts one or more encoded decals positioned on a body of a vehicle. The device may process the image and may identify, based on processing the image, one or more characteristics of the one or more encoded decals. The device may determine, based on the one or more characteristics of the one or more encoded decals, positioning information to be used to position a loading bridge relative to the body of the vehicle. The device may determine one or more control signals based on the positioning information. The device may provide the one or more control signals to one or more actuators to automatically position the loading bridge relative to the body of the vehicle.

A numerical controller stores tool data (including information on an inclination and length of a linear blade of a tool), reads an instruction block from a program, analyzes the instruction block, and generates instruction data indicating a movement amount of the tool on each axis instructed by the instruction block. Further, when performing taper machining, the numerical controller calculates a compensating amount for compensating an instructed path, based on the stored tool data, such that an actually-machined taper angle matches a taper angle instructed by the instruction block, compensates the generated instruction data based on the calculated compensating amount, and outputs the compensated instruction data.

A numerical controller stores tool data (including information on an inclination and length of a linear blade of a tool), reads an instruction block from a program, analyzes the instruction block, and generates instruction data indicating a movement amount of the tool on each axis instructed by the instruction block. Further, when performing taper machining, the numerical controller calculates a compensating amount for compensating an instructed path, based on the stored tool data, such that an actually-machined taper angle matches a taper angle instructed by the instruction block, compensates the generated instruction data based on the calculated compensating amount, and outputs the compensated instruction data.

A method for automated manufacturing strategy generation can include: identifying features of a desired part from a virtual model; and determining a tactic strategy based on the identified features. The method can additionally include: determining a toolpath primitive for each tactic; combining the toolpath primitives for the tactics to generate a master toolpath; and translating the master toolpath into machine code.

A method for automated manufacturing strategy generation can include: identifying features of a desired part from a virtual model; and determining a tactic strategy based on the identified features. The method can additionally include: determining a toolpath primitive for each tactic; combining the toolpath primitives for the tactics to generate a master toolpath; and translating the master toolpath into machine code.

A pick-and-place machine module is provided. The pick-and-place machine module includes a nozzle and a collet disk. The nozzle includes a body, a head and a tubular element extending between the body and the head such that the head is communicative with the body via the tubular element to enable a pick-up of a component by the head. The collet disk is affixed to a surface of the body facing the head about the tubular element and is configured to reflect light incident thereon toward an area of the base surrounding the component.

A pick-and-place machine module is provided. The pick-and-place machine module includes a nozzle and a collet disk. The nozzle includes a body, a head and a tubular element extending between the body and the head such that the head is communicative with the body via the tubular element to enable a pick-up of a component by the head. The collet disk is affixed to a surface of the body facing the head about the tubular element and is configured to reflect light incident thereon toward an area of the base surrounding the component.

An automated method for generating toolpaths in double sided incremental forming (DSIF) operations is disclosed which uses a geometrically constructed map to build a structure of all the geometric features that is capable of tracking and forming the features in the correct order while simultaneously keeping track of the location of the virgin material. The aforementioned method allows toolpaths for complex. geometries in the DSIF process to be generated automatically.

An automated method for generating toolpaths in double sided incremental forming (DSIF) operations is disclosed which uses a geometrically constructed map to build a structure of all the geometric features that is capable of tracking and forming the features in the correct order while simultaneously keeping track of the location of the virgin material. The aforementioned method allows toolpaths for complex. geometries in the DSIF process to be generated automatically.