Abstract: A 2D camera is used to create a 3D full body image. A camera takes one 2D image, an accelerometer is used to calculate camera position, and several computer systems are employed to construct a 3D body model. This may be performed in a non-controlled environment and by the user alone. An automatic segmentation of the 2D image creates special information for 3D model reconstruction. Once the 3D model measurements are extracted, the user has the option to further specify measurements. In one embodiment, the 3D model is shared via cloud and social media, and also used to assist in shopping while ensuring accurate measurements for the user. In another embodiment, the digital model of products designed for the target consumer body is automatically adjusted and shown as a 3D image on the user's body. The 3D model may be shared with businesses for manufacturing using 3D morphology.

Abstract: A 2D camera is used to create a 3D full body image. A camera takes 3 or more 2D images, an accelerometer is used to calculate camera position, and a CPU is employed to construct a 3D body model. This may be performed in a non-controlled environment and by the user alone. An automatic segmentation of the 2D images creates special information for 3D model reconstruction. Once the 3D model measurements are extracted, the user has the option to further specify measurements. In one embodiment, the 3D model is shared via cloud and social media, and also used to assist in shopping while ensuring accurate measurements for the user. In another embodiment, the digital model of products designed for the target consumer body is automatically adjusted and shown as a 3D image on the user's body. The 3D model may be shared with businesses for manufacturing using 3D morphology.

Abstract: A 2D camera is used to create a 3D full body image. A camera takes 3 or more 2D images, an accelerometer is used to calculate camera position, and a CPU is employed to construct a 3D body model. This may be performed in a non-controlled environment and by the user alone. An automatic segmentation of the 2D images creates special information for 3D model reconstruction. Once the 3D model measurements are extracted, the user has the option to further specify measurements. In one embodiment, the 3D model is shared via cloud and social media, and also used to assist in shopping while ensuring accurate measurements for the user. In another embodiment, the digital model of products designed for the target consumer body is automatically adjusted and shown as a 3D image on the user's body. The 3D model may be shared with businesses for manufacturing using 3D morphology.

Abstract: A 2D camera is used to create a 3D full body image. A camera takes 3 or more 2D images, an accelerometer is used to calculate camera position, and a CPU is employed to construct a 3D body model. This may be performed in a non-controlled environment and by the user alone. An automatic segmentation of the 2D images creates special information for 3D model reconstruction. Once the 3D model measurements are extracted, the user has the option to further specify measurements. In one embodiment, the 3D model is shared via cloud and social media, and also used to assist in shopping while ensuring accurate measurements for the user. In another embodiment, the digital model of products designed for the target consumer body is automatically adjusted and shown as a 3D image on the user's body. The 3D model may be shared with businesses for manufacturing using 3D morphology.

Abstract: Methods, program products and systems for preparing a mechanical model for a dynamic simulation. A first plurality of bodies in a mechanical model are identified including at least one grounded body and at least one free body, each of the bodies in the first plurality of bodies being related to at least one other body in the plurality of bodies by at least one constraint that removes or limits at least one degree of freedom for that body in relation to another body. The bodies in the first plurality of bodies are merged into a minimum number of rigid groups needed for a dynamic simulation where the minimum number of rigid groups includes at least one grounded group and at least one mobile group. Constraints that relate bodies within a group are removed from each of the rigid groups.

Abstract: One embodiment of the invention sets forth a CAD application configured to receive an instruction to process a first rigid body in a CAD model and to create a graphic style table that includes a listing of available graphic styles to apply to the rigid bodies in the CAD model. The CAD application is further configured to analyze assembly data associated with the first rigid body to determine if the first rigid body includes any user-defined characteristics. The CAD application is configured to select a first graphic style and apply the first graphic style to each of the geometric bodies included in the first rigid body. Advantageously, embodiments of the invention provide users with a better visual understanding of each rigid body in an assembly and the dynamic relationships between those rigid bodies.

Abstract: One embodiment of the invention sets forth a CAD application configured to receive an instruction to process a first rigid body in a CAD model and to create a graphic style table that includes a listing of available graphic styles to apply to the rigid bodies in the CAD model. The CAD application is further configured to analyze assembly data associated with the first rigid body to determine if the first rigid body includes any user-defined characteristics. The CAD application is configured to select a first graphic style and apply the first graphic style to each of the geometric bodies included in the first rigid body. Advantageously, embodiments of the invention provide users with a better visual understanding of each rigid body in an assembly and the dynamic relationships between those rigid bodies.

Abstract: Methods, program products and systems for preparing a mechanical model for a dynamic simulation. A first plurality of bodies in a mechanical model are identified including at least one grounded body and at least one free body, each of the bodies in the first plurality of bodies being related to at least one other body in the plurality of bodies by at least one constraint that removes or limits at least one degree of freedom for that body in relation to another body. The bodies in the first plurality of bodies are merged into a minimum number of rigid groups needed for a dynamic simulation where the minimum number of rigid groups includes at least one grounded group and at least one mobile group. Constraints that relate bodies within a group are removed from each of the rigid groups.