In the present disclosure, systems and apparatuses for enabling modular attachment of a plurality of devices are described. In one aspect, an apparatus may include a center rail having a distal end and a proximal end. The apparatus may further include a first flange coupled with the proximal end and a second flange coupled with the distal end. The apparatus may further include a collar disposed around the center rail and between the first flange and the second flange. The apparatus may further include at least one arm connected with the collar, and the at least one arm may be configured to connect with a modular attachment.

One or more embodiments of the present disclosure relate to partitioning of objects for additive manufacture. A method may include defining one or more partition lines in an object of a build file. The build file may comprise instructions for additively manufacturing the object. The method may also include generating part build files based on the build file and the one or more partition lines. The part build files may comprise instructions for additively manufacturing parts of the object. The method may also include generating a physical instance of each part of the object according to the part build files. The method may also include assembling the physical instances of the parts into a physical instance of the object. The method may also include applying heat to the physical instance of the object. Related devices, systems and methods are also disclosed.

Systems, apparatus and methods for producing objects with cryogenic 3D printing with controllable micro and macrostructure with potential applications in tissue engineering, drug delivery, and the food industry. The technology can produce complex structures with controlled morphology when the printed 3D object is immersed in a liquid coolant, whose upper surface is maintained at the same level as the highest deposited layer of the object. This ensures that the computer-controlled process of freezing is controlled precisely and already printed frozen layers remain at a constant temperature. The technology controls the temperature, flow rate and volume of the printed fluid emitted by the dispenser that has X-Y positional translation and conditions at the interface between the dispenser and coolant surface. The technology can also control the temperature of the pool of liquid coolant and the vertical position of the printing surface and pool of coolant liquid.

Systems, apparatus and methods for producing objects with cryogenic 3D printing with controllable micro and macrostructure with potential applications in tissue engineering, drug delivery, and the food industry. The technology can produce complex structures with controlled morphology when the printed 3D object is immersed in a liquid coolant, whose upper surface is maintained at the same level as the highest deposited layer of the object. This ensures that the computer-controlled process of freezing is controlled precisely and already printed frozen layers remain at a constant temperature. The technology controls the temperature, flow rate and volume of the printed fluid emitted by the dispenser that has X-Y positional translation and conditions at the interface between the dispenser and coolant surface. The technology can also control the temperature of the pool of liquid coolant and the vertical position of the printing surface and pool of coolant liquid.

A system and method for autonomously creating subsequent physical objects using a 3-dimensional printer. The system includes a build platform which is ejected with a printed object adhered to it, with a replenishing mechanism to place a blank build platform into the expected build area such that printing a subsequent object may occur autonomously. The replenishing mechanism may draw from a plurality of stored blank build platforms which may be reusable in some embodiments and disposable in others.

A system and method for autonomously creating subsequent physical objects using a 3-dimensional printer. The system includes a build platform which is ejected with a printed object adhered to it, with a replenishing mechanism to place a blank build platform into the expected build area such that printing a subsequent object may occur autonomously. The replenishing mechanism may draw from a plurality of stored blank build platforms which may be reusable in some embodiments and disposable in others.

In one example in accordance with the present disclosure, a build material volume transportation device is described. The build material volume transportation device includes a shuttle to transport a build material volume. The shuttle includes an opening therethrough to receive the build material volume. The build material volume transportation device also includes a build tray to raise the build volume into the opening in the shuttle. The build material volume transportation device further includes a latch assembly to releasably secure the build tray to the shuttle. A tip of the latch assembly extends to interface with the aperture to secure the build tray to the shuttle. The tip rotates independently of the piston.

A system for transporting a carrying plate may include a lifting assembly comprising a carriage, and a carrying assembly. The lifting assembly may include a carriage having one or more lifting arms configured to lift the carrying assembly at least in part by one or more carrying arms of the carrying assembly. A carrying assembly may include a perimeter frame surrounding a perimeter of a carrying plate, one or more carrying arms attached to the perimeter frame, and one or more indexing pins extending or extensible inwardly from the perimeter frame. The one or more indexing pins may detachably secure the carrying plate to the perimeter frame. A method of transporting a carrying plate may include detachably securing a carrying plate to a perimeter frame of a carrying assembly and transporting the carrying assembly with a lifting assembly.

A system for transporting a carrying plate may include a lifting assembly comprising a carriage, and a carrying assembly. The lifting assembly may include a carriage having one or more lifting arms configured to lift the carrying assembly at least in part by one or more carrying arms of the carrying assembly. A carrying assembly may include a perimeter frame surrounding a perimeter of a carrying plate, one or more carrying arms attached to the perimeter frame, and one or more indexing pins extending or extensible inwardly from the perimeter frame. The one or more indexing pins may detachably secure the carrying plate to the perimeter frame. A method of transporting a carrying plate may include detachably securing a carrying plate to a perimeter frame of a carrying assembly and transporting the carrying assembly with a lifting assembly.

A supported product manufactured using additive manufacturing, wherein the supported product provides a simplified post processing. The supported product contains a product and a support structure, wherein the supported product has been manufactured using additive manufacturing as a whole, wherein the support structure is adapted to be removed to provide the product, wherein the support structure provides an interface adapted to interact with a counterpart of a tool for removing the support structure.