Abstract: A computer system (110) for part production using additive design receives a computer-aided design (CAD) file that describes physical dimensions of a target object (120). The computer system (110) identifies a physical boundary portion (300) of the target object within the CAD file. The computer system determines a target flow rate to infill the physical boundary portion (300) with the infill material. Additionally, the computer system (110) generates a first tool path to flow infill material into the physical boundary portion (300). Further, the computer system (110) sends instructions to a computer system in communication with a dispenser (100) that cause the dispenser to implement the first tool path while flowing the infill material into the physical boundary portion (300).

Abstract: A computer system for part production using flow infill design receives a computer-aided design file that describes physical dimensions of a target object (120). The computer system identifies a physical boundary portion (300) of the target object within the CAD file. The computer system generates a first tool path to additively manufacture the physical boundary portion (300). Additionally, the computer system sends instructions to a computer system in communication with a dispenser (130) that cause the dispenser to implement the first tool path while dispensing a boundary material. Further, the computer system generates a command to dispense the coreactive infill material (310) within the physical boundary portion.

Abstract: Disclosed herein is an article of manufacture made by ambient reactive extrusion, the article includes a) a hardenable composition; and b) a pigment component that includes a pigment and/or a particle. The pigment component can be applied to at least a portion of a surface of the article when the hardenable composition is at least partially unhardened, such that the pigment and/or the particle becomes embedded upon hardening.

Abstract: Disclosed are computer systems for color matching a printed layer of a thermoset three-dimensional printer according to a received indication of a desired final color property. A color material having a color property may be mixed with a thermoset coreactive composition such that the target object resulting from the extrusion of the thermoset coreactive composition of the thermoset three-dimensional printer obtains the desired final color property upon curing. The desired final color property may be obtained from color measurement of a reference object or may be selected by a user of the computer system. A dispensing machine may dispense and/or mix color material components according to a formulation for the desired final color property to generate a color material for mixing with the thermoset coreactive composition.

Abstract: A computer system for dynamically controlling printing parameters within a three-dimensional printer receives an indication for printing a target object by the three-dimensional printer. The computer system accesses a materials attribute dataset. The materials attribute dataset describes different material properties of a plurality of thermoset materials or mixtures thereof. Based upon the materials attribute dataset, for each of the plurality of extruders, the computer system selects one or more thermoset materials among the plurality of thermoset materials for each of the plurality of extruder to form an extrudate and determines an extrusion configuration for the selected one or more thermoset materials. The computer system then generates a command to cause the plurality of extruders of the thermoset three-dimensional printer to implement the extrusion configurations for the plurality of extruders while printing the target object.

Abstract: A computer system for dynamically controlling a thermoset printer (100) may comprise one or more processors (210) and one or more computer-readable media having stored thereon executable instructions that when executed by the one or more processors, configure the computer system to perform various acts. The computer system may receive a thermoset printing data packet that comprises an indication of a desired final material property of the target object to be printed. The computer system may also receive an indication of one or more thermoset materials (250a,250b) that are available to the thermoset three-dimensional printer and access a material attribute dataset that describes different material properties. Based upon the material attribute dataset, the computer system may determine a particular mixture configuration for the one or more thermoset materials and generate a command to cause the thermoset three-dimensional printer to implement the particular mixture configuration.

Abstract: A computer system (110) for controlling a thermoset printer (100) to create desired material attributes comprises one or more processors (210) and one or more computer-readable media (220) having stored thereon executable instructions that when executed by the one or more processors configure the computer system to perform various acts. The computer system may receive an indication of one or more thermoset materials that are to be used by the thermoset printer (100) to print a target object (120). The computer system (110) may also access a material attribute dataset that describes different material properties of the one or more thermoset materials during printing. Based upon the material attribute dataset, the computer system determines a particular extrusion configuration for the one or more thermoset materials and generates a command to cause the thermoset printer to implement the particular extrusion configuration while printing the target object (120).

Abstract: A computer system for dynamically controlling a three-dimensional printer may comprise one or more processors and one or more computer-readable media having stored thereon executable instructions that, when executed by the one or more processors, configure the computer system to perform various acts. The computer system may receive an indication to cause a three-dimensional printer to print a non-planar surface. Additionally, the computer system may calculate multiple different bead sizes for creating the non-planar surface using components of the three-dimensional printer. The computer system may also create a command to generate the multiple different bead sizes at locations within a printing area.

Abstract: A computer system for part production using flow infill design receives a computer-aided design file that describes physical dimensions of a target object (120). The computer system identifies a physical boundary portion (300) of the target object within the CAD file. The computer system generates a first tool path to additively manufacture the physical boundary portion (300). Additionally, the computer system sends instructions to a computer system in communication with a dispenser (130) that cause the dispenser to implement the first tool path while dispensing a boundary material. Further, the computer system generates a command to dispense the coreactive infill material (310) within the physical boundary portion.

Abstract: A computer system (110) for part production using additive design receives a computer-aided design (CAD) file that describes physical dimensions of a target object (120). The computer system (110) identifies a physical boundary portion (300) of the target object within the CAD file. The computer system determines a target flow rate to infill the physical boundary portion (300) with the infill material. Additionally, the computer system (110) generates a first tool path to flow infill material into the physical boundary portion (300). Further, the computer system (110) sends instructions to a computer system in communication with a dispenser (100) that cause the dispenser to implement the first tool path while flowing the infill material into the physical boundary portion (300).