Abstract: A method of manufacturing three-dimensional (3D) objects is provided. The method includes generating a plan for printing a plurality of 3D objects in a 3D printing medium at least in part by identifying an unprinted area of the 3D printing medium for insertion of a cooling device and determining where at least some of the plurality of 3D objects are to be printed in the 3D printing medium such that none of the at least some of the plurality of 3D objects, when printed, intersect the identified unprinted area for the insertion of the cooling device. The method further includes printing, using a 3D printer, the at least some of the plurality of 3D objects in accordance with the plan and, after the printing, inserting the cooling device into the unprinted area of the 3D printing medium and cooling the 3D printing medium using the cooling device.

Abstract: As three-dimensional (3D) printing and additive manufacturing becomes a way for individuals and companies to distribute physical goods, there is a growing need for creators of physical goods to enable customers to customize 3D printed objects while protecting core electronic assets in the form of the files used to define and print the objects. Server-side rendering of 3D object images provides an opportunity to protect 3D object files while offering performance advantages. A scripting language may be central to delivering a seamless user experience interacting with 3D object models on client devices. Object creators and vendors may rely on the scripting language to create user interfaces for selling customizable objects. And once the user interface is developed, it may provide the basis for users accessing, viewing, manipulating, selecting materials, rendering, pricing, and printing a range of 3D objects.

Abstract: According to some aspects, a system for identifying a printed object is provided. The system may include an imaging device configured to image a three-dimensional (3D) printed object and a processor coupled to the imaging device. The processor may be configured to receive information generated as a result of imaging the 3D printed object with the imaging device, identify a set of features for the 3D printed object using the received information, compare the set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a plurality of 3D objects, and identify, based at least in part on results of the comparison, a 3D object from the plurality of 3D objects that matches the 3D printed object.

Abstract: According to some aspects, a system for identifying a printed object is provided. The system may include an imaging device configured to image a three-dimensional (3D) printed object and a processor coupled to the imaging device. The processor may be configured to receive information generated as a result of imaging the 3D printed object with the imaging device, identify a set of features for the 3D printed object using the received information, compare the set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a plurality of 3D objects, and identify, based at least in part on results of the comparison, a 3D object from the plurality of 3D objects that matches the 3D printed object.

Abstract: As three-dimensional (3D) printing and additive manufacturing becomes a way for individuals and companies to distribute physical goods, there is a growing need for creators of physical goods to enable customers to customize 3D printed objects while protecting core electronic assets in the form of the files used to define and print the objects. Server-side rendering of 3D object images provides an opportunity to protect 3D object files while offering performance advantages. A scripting language may be central to delivering a seamless user experience interacting with 3D object models on client devices. Object creators and vendors may rely on the scripting language to create user interfaces for selling customizable objects. And once the user interface is developed, it may provide the basis for users accessing, viewing, manipulating, selecting materials, rendering, pricing, and printing a range of 3D objects.

Abstract: A method of manufacturing three-dimensional (3D) objects is provided. The method includes generating a plan for printing a plurality of 3D objects in a 3D printing medium at least in part by identifying an unprinted area of the 3D printing medium for insertion of a cooling device and determining where at least some of the plurality of 3D objects are to be printed in the 3D printing medium such that none of the at least some of the plurality of 3D objects, when printed, intersect the identified unprinted area for the insertion of the cooling device. The method further includes printing, using a 3D printer, the at least some of the plurality of 3D objects in accordance with the plan and, after the printing, inserting the cooling device into the unprinted area of the 3D printing medium and cooling the 3D printing medium using the cooling device.

Abstract: A method of manufacturing three-dimensional (3D) objects is provided. The method includes generating a plan for printing a plurality of 3D objects in a 3D printing medium at least in part by identifying an unprinted area of the 3D printing medium for insertion of a cooling device and determining where at least some of the plurality of 3D objects are to be printed in the 3D printing medium such that none of the at least some of the plurality of 3D objects, when printed, intersect the identified unprinted area for the insertion of the cooling device. The method further includes printing, using a 3D printer, the at least some of the plurality of 3D objects in accordance with the plan and, after the printing, inserting the cooling device into the unprinted area of the 3D printing medium and cooling the 3D printing medium using the cooling device.

Abstract: A system for planning printing of three-dimensional (3D) objects. The system comprises at least one computer hardware processor, and at least one non-transitory computer-readable storage medium storing processor-executable instructions that, when executed by the at least one computer hardware processor, cause the at least one computer hardware processor to perform acts of: accessing information specifying a plurality of 3D objects to be printed using at least one 3D printer, the at least one 3D printer including a first 3D printer; determining a priority for each of at least some of the plurality 3D objects to obtain determined 3D object priorities; assigning, based on the determined 3D object priorities, a subset of the plurality of 3D objects to a first printer tray adapted for use with the first 3D printer; and obtaining a packing plan indicating an arrangement of the subset of the 3D objects within the first printer tray.

Abstract: A system for post-print processing of 3D printed parts includes an automated breakout system for separating 3D printed parts from printing media in a tray and a vibratory media cleaning system for removing printing media from the 3D printed parts. The automated breakout system includes a tray input mechanism, a bed including a first end disposed adjacent the tray input mechanism, the bed including one or more passageways configured to pass printing media through the bed, a vibration generator coupled to the bed and configured to vibrate the bed, and a part terminator disposed adjacent a second end of the bed. The vibratory media cleaning system include a vibratory bin, a vibration generator coupled to the vibratory bin and configured to vibrate the vibratory bin, an automated parts loader configured to introduce 3D printed parts to be cleaned into the bin, and an automated parts removal mechanism.

Abstract: As three-dimensional (3D) printing and additive manufacturing becomes a way for individuals and companies to distribute physical goods, there is a growing need for creators of physical goods to enable customers to customize 3D printed objects while protecting core electronic assets in the form of the files used to define and print the objects. Server-side rendering of 3D object images provides an opportunity to protect 3D object files while offering performance advantages. A scripting language may be central to delivering a seamless user experience interacting with 3D object models on client devices. Object creators and vendors may rely on the scripting language to create user interfaces for selling customizable objects. And once the user interface is developed, it may provide the basis for users accessing, viewing, manipulating, selecting materials, rendering, pricing, and printing a range of 3D objects.

Abstract: As three-dimensional (3D) printing and additive manufacturing becomes a way for individuals and companies to distribute physical goods, there is a growing need for creators of physical goods to enable customers to customize 3D printed objects while protecting core electronic assets in the form of the files used to define and print the objects. Server-side rendering of 3D object images provides an opportunity to protect 3D object files while offering performance advantages. A scripting language may be central to delivering a seamless user experience interacting with 3D object models on client devices. Object creators and vendors may rely on the scripting language to create user interfaces for selling customizable objects. And once the user interface is developed, it may provide the basis for users accessing, viewing, manipulating, selecting materials, rendering, pricing, and printing a range of 3D objects.

Abstract: As three-dimensional (3D) printing and additive manufacturing becomes a way for individuals and companies to distribute physical goods, there is a growing need for creators of physical goods to enable customers to customize 3D printed objects while protecting core electronic assets in the form of the files used to define and print the objects. Server-side rendering of 3D object images provides an opportunity to protect 3D object files while offering performance advantages. A scripting language may be central to delivering a seamless user experience interacting with 3D object models on client devices. Object creators and vendors may rely on the scripting language to create user interfaces for selling customizable objects. And once the user interface is developed, it may provide the basis for users accessing, viewing, manipulating, selecting materials, rendering, pricing, and printing a range of 3D objects.

Abstract: As three-dimensional (3D) printing and additive manufacturing becomes a way for individuals and companies to distribute physical goods, there is a growing need for creators of physical goods to enable customers to customize 3D printed objects while protecting core electronic assets in the form of the files used to define and print the objects. Server-side rendering of 3D object images provides an opportunity to protect 3D object files while offering performance advantages. A scripting language may be central to delivering a seamless user experience interacting with 3D object models on client devices. Object creators and vendors may rely on the scripting language to create user interfaces for selling customizable objects. And once the user interface is developed, it may provide the basis for users accessing, viewing, manipulating, selecting materials, rendering, pricing, and printing a range of 3D objects.

Abstract: According to one aspect, embodiments herein provide a 3D printing system comprising an interface, a database, a production planning system configured to receive a model provided by a user, and a multi-part counting system configured to receive, from the production planning system, the user-provided model, calculate a bounds of the user-provided model, perform a first test on each of the plurality of pieces of the model to determine if each piece can escape the bounds of the model individually in relation to each other piece of the model, perform a second test on each of the plurality of pieces of the model to determine if each piece can escape the bounds of the model simultaneously in relation to all other pieces of the model, and output, based on the first test and the second test, a determination of different discrete and interlocking parts in the model.

Abstract: According to some aspects, a system for identifying a printed object is provided. The system may include an imaging device configured to image a three-dimensional (3D) printed object and a processor coupled to the imaging device. The processor may be configured to receive information generated as a result of imaging the 3D printed object with the imaging device, identify a set of features for the 3D printed object using the received information, compare the set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a plurality of 3D objects, and identify, based at least in part on results of the comparison, a 3D object from the plurality of 3D objects that matches the 3D printed object.

Abstract: A system for planning printing of three-dimensional (3D) objects. The system comprises at least one computer hardware processor, and at least one non-transitory computer-readable storage medium storing processor-executable instructions that, when executed by the at least one computer hardware processor, cause the at least one computer hardware processor to perform acts of: accessing information specifying a plurality of 3D objects to be printed using at least one 3D printer, the at least one 3D printer including a first 3D printer; determining a priority for each of at least some of the plurality 3D objects to obtain determined 3D object priorities; assigning, based on the determined 3D object priorities, a subset of the plurality of 3D objects to a first printer tray adapted for use with the first 3D printer; and obtaining a packing plan indicating an arrangement of the subset of the 3D objects within the first printer tray.

Abstract: According to one aspect, embodiments herein provide a 3D printing system comprising an interface, a database, a production planning system configured to receive a model provided by a user, and a multi-part counting system configured to receive, from the production planning system, the user-provided model, calculate a bounds of the user-provided model, perform a first test on each of the plurality of pieces of the model to determine if each piece can escape the bounds of the model individually in relation to each other piece of the model, perform a second test on each of the plurality of pieces of the model to determine if each piece can escape the bounds of the model simultaneously in relation to all other pieces of the model, and output, based on the first test and the second test, a determination of different discrete and interlocking parts in the model.

Abstract: Methods and systems for weight-based identification of three dimensional (3D) printed parts. Various embodiments disclosed herein may permit reliable processing of 3D printed parts to effectively scale a 3D printing service to large volumes of orders for 3D printed parts.

Abstract: Methods and systems for weight-based identification of three dimensional (3D) printed parts. Various embodiments disclosed herein may permit reliable processing of 3D printed parts to effectively scale a 3D printing service to large volumes of orders for 3D printed parts.

Abstract: A system for post-print processing of 3D printed parts includes an automated breakout system for separating 3D printed parts from printing media in a tray and a vibratory media cleaning system for removing printing media from the 3D printed parts. The automated breakout system includes a tray input mechanism, a bed including a first end disposed adjacent the tray input mechanism, the bed including one or more passageways configured to pass printing media through the bed, a vibration generator coupled to the bed and configured to vibrate the bed, and a part terminator disposed adjacent a second end of the bed. The vibratory media cleaning system include a vibratory bin, a vibration generator coupled to the vibratory bin and configured to vibrate the vibratory bin, an automated parts loader configured to introduce 3D printed parts to be cleaned into the bin, and an automated parts removal mechanism.