Abstract: A system and method for automatically reducing rigid body motion in a digital simulated model of an object, where the simulated model represents a simulated build of the object using additive manufacturing.

Abstract: The present disclosure relates to fixation devices. Certain embodiments provide a fixation device for insertion into bone. The fixation device includes a body comprising threads along an outer surface of the body. The fixation device includes one or more blades movably coupled to the body. The one or more blades are configured to move between at least a first position and a second position. In the first position, the one or more blades are retracted into the body. In the second position, the one or more blades are deployed out of the body for insertion into the bone.

Abstract: Methods and devices for improving airflow distribution in treatment of respiratory conditions are disclosed. According to various embodiments, blocking devices may be used to redirect air away from healthy portions of the lung to diseased portions so that inhaled medication may be more effectively delivered to the patient.

Abstract: The present disclosure relates to an eyewear assembly that is configured for fast and easy removal or exchange of lenses. The eyewear assembly comprises a connector that may be inserted into a frame front in order to hold the lenses in place, and removed from the frame front in order to release the lenses.

Abstract: Systems and methods of radiograph correction and visualization are disclosed. Certain embodiments provide a method for generating a 3D model of at least part of one anatomical object based on one or more radiographs. The method further includes positioning the 3D model based on information indicative of a normalized projection comprising information indicative of a desired position and orientation of the at least part of one anatomical object with respect to the projection plane. The method further includes generating a 2D projection of the 3D model onto the projection plane. The method further includes generating one or more modified radiographs of the at least part of one anatomical object based on the 2D projection.

Abstract: Systems and methods for generating an energy density map of an object to be built in an additive manufacturing environment are provided. Certain embodiments provide a method for building an object utilizing additive manufacturing, the method including: receiving a job file for building the object, wherein the job file includes a plurality of slices of the object, and wherein a first slice of the object indicates scanning lines for applying an energy source to build material to build the first slice of the object; determining operation parameters of the energy source; and generating a first energy density map of the first slice of the object based on the job file and the operation parameters of the energy source, wherein the first energy density map indicates an amount of energy from the energy source per area of build material applied to the build material for the first slice of the object.

Abstract: Embodiments disclosed herein relate to systems and methods for segmenting 2D images. Certain embodiments provide a method of segmenting a 2D image. The method includes obtaining a 2D mask for the 2D image, wherein the 2D mask comprises a portion of the 2D image. The method includes selecting one or more first voxels of the 2D image not part of the 2D mask and adding the one or more first voxels of the 2D image to the 2D mask. The method includes selecting one or more second voxels of the 2D image and performing a morphological closing on one or more third voxels comprising the one or more second voxels of the 2D image that are part of the 2D mask. The method includes performing an automatic flood-fill operation on at least a portion of the 2D mask.

Abstract: The orthopedic systems are patient-specific and provided with two types of features for positioning and/or fixing the plate to the bone or bone fragments. A method for generating bone plates comprises: generating a model of the bone defect or envisaged osteotomy based on one or more images of the bone and the surgical plan; designing based on said model a model corresponding to the envisioned repair of said bone defect/envisaged result of the osteotomy; generating a bone plate based on the information above, comprising: one or more patient-specific features corresponding to the surface of a bone fragment in the area close to the defect; and one or more fixation features whose position and/or orientation is such that the fixation elements will enter the bone in areas suitable for fixing the bone plate to each bone fragment.

Abstract: The present disclosure relates to identification labels (105). Described herein are designs for 3D identification labels on objects (100), and methods and systems for designing and manufacturing such objects (100) with 3D identification labels (105).

Abstract: The present invention is directed to an improved method for supporting an object made by means of stereo lithography or any other rapid prototype production method. The generation of the support begins by determining the region that requires support in each layer of the object and defines a number of support points in this region. In a next step, a support mesh is generated connected to the object using these support points. The present invention also discloses different techniques that reduce superfluous edges to further optimize the support mesh. Finally, a support is generated from this support mesh. The present invention may facilitate the generation of supports data by employing more automation and less user analysis.

Abstract: A system (100) and method for monitoring a recoating mechanism (415A, 415B) in an additive manufacturing environment is provided. Various embodiments involve the use of a control computer (102a-102d) to receive data based on a thermal image of a recoating mechanism (415A, 415B) from an imaging device (436) configured to capture thermal image. The control computer (102a-102d) further determines a value of a property of the thermal image, wherein the property is related to an amount of powder in the recoating mechanism. The control computer (102a-102d) further determines at least one of if the value indicates an error related to the amount of powder in the recoating mechanism (415A, 415B), and an action to take with respect to the recoating mechanism (415A, 415B) that is based on the value.

Abstract: Embodiments of this application relate to systems and methods which allow for 3-D printed objects, such as eyeglasses and wristwatches, for example, to be customized by users according to modification specifications that are defined and constrained by manufacturers based on factors relating to the printability of a modified design.

Abstract: The present disclosure relates to eyewear, such as eyeglasses, configured for receiving a hose, such as a medical gas therapy hose. The eyewear comprises flexible elements and a groove defined in and extending through the flexible elements and other parts of the eyewear. The present disclosure further relates to a flexible element, such as a hinge, which may be used in eyewear to enable bending of parts of the eyewear. An exemplary embodiment of the flexible element is a hinge having a plurality of repeating units.

Abstract: The present disclosure relates to fixation devices. Certain embodiments provide a fixation device for insertion into bone. The fixation device includes a body comprising threads along an outer surface of the body. The fixation device includes one or more blades movably coupled to the body. The one or more blades are configured to move between at least a first position and a second position. In the first position, the one or more blades are retracted into the body. In the second position, the one or more blades are deployed out of the body for insertion into the bone.

Abstract: Systems and methods for designing lattice structures in a way that ensures their buildability when manufactured in an additive manufacturing environment are disclosed.

Abstract: Embodiments of the present invention may relate to supports and methods of manufacturing such supports that reduce the complexity of removing the supports from the object and/or a base plate. In some embodiments, the present invention relates to base plates and methods of manufacturing base plates that reduce the complexity of removing supports from the base plate.

Abstract: A method and system for archiving 3D geometry information for a plurality of subjects, and on a particular part of the body (which may also be the whole body) is described. The method and system allow an organizing and an analyzing step, resulting in scalable characteristic components for the particular part of the body, and an approximation of the geometry of that particular part of the body for a specific subject by a combination of a subset of those characteristic components with corresponding scale factors, which are then stored.

Abstract: A system and method for modifying features in designs of objects to make them physically capable of being manufactured using additive manufacturing techniques and machines is provided, carrying out the following steps: Determine if one or more surfaces of the object have a surface angle below a threshold angle; designate one or more edges including a first edge, the first edge being between a first surface of the one or more surfaces and a second surface of the one or more surfaces, wherein the first surface has a surface angle below the threshold angle and the second surface has a surface angle equal to or above the threshold angle; and generate one or more additional surfaces along the one or more edges in the design file.

Abstract: Methods and apparatuses for distributing slice area of objects more uniformly to optimize the build process of additive manufacturing techniques are disclosed. For example, a slice area distribution of a 3D design is calculated. Further, it is determined if the calculated slice area distribution and/or other aspects of the 3D design meets a criteria based on one or more quality metrics. If the calculated slice area distribution and/or other aspects of the 3D design do not meet the criteria, the 3D design is adjusted. The determination and adjustment may be performed iteratively until the calculated slice area distribution and/or other aspects of the 3D meet the criteria.

Abstract: A two-step approach for image segmentation during the treatment planning process is disclosed. In a first step, an automatic segmentation method can be used to generate a first, provisional segmentation. The first, provisional segmentation may be generated using fast, but less accurate segmentation methods. The first provisional segmentation may be used to generate a default treatment plan for approval. Once the default treatment plan is approved, a more robust, second image segmentation may be performed. The second segmentation may be used to design patient-specific devices that can be used to deliver the patient-specific medical treatment.