Abstract: A realistic feather generation may be represented via a user interface in a modeling system. To perform the feather generation, a curve defining a spine of a feather is received from input to the user interface of the modeling system. The feather is created in the user interface based at least on the curve, where the feather includes barbs extended away from the spine of the feather in one or more directions. The feather is deformed based on one or more deformation parameters. A feather contour of the barbs along at least one of the one or more directions is generated based on a contour parameter defining the feather contour. A barb density for a number of the barbs along the spine of the feather is established based on a barb density parameter. Thereafter, a data structure representing the feather is generated.

Abstract: A realistic feather growth may be represented between two surface manifolds in a modeling system. To perform the feather growth, a feather groom for a plurality of feathers between an inner shell of a creature and an outer shell of the creature is received. An inner manifold for the inner shell and an outer manifold for the outer shell is determined with a plurality of follicle points and a plurality of tip points. A first surface contour definition for the inner manifold and a second surface contour definition for the outer manifold is determined and used to determine a volumetric vector field between the inner manifold and the outer manifold. Thereafter, the plurality of feathers is generated between the inner manifold and the outer manifold using the follicle points, the tip points, and the volumetric vector fields.

Abstract: A realistic feather generation may be represented via a user interface in a modeling system. To perform the feather generation, a curve defining a spine of a feather is received from input to the user interface of the modeling system. The feather is created in the user interface based at least on the curve, where the feather includes barbs extended away from the spine of the feather in one or more directions. The feather is deformed based on one or more deformation parameters. A feather contour of the barbs along at least one of the one or more directions is generated based on a contour parameter defining the feather contour. A barb density for a number of the barbs along the spine of the feather is established based on a barb density parameter. Thereafter, a data structure representing the feather is generated.

Abstract: A realistic feather growth may be represented between two surface manifolds in a modeling system. To perform the feather growth, a feather groom for a plurality of feathers between an inner shell of a creature and an outer shell of the creature is received. An inner manifold for the inner shell and an outer manifold for the outer shell is determined with a plurality of follicle points and a plurality of tip points. A first surface contour definition for the inner manifold and a second surface contour definition for the outer manifold is determined and used to determine a volumetric vector field between the inner manifold and the outer manifold. Thereafter, the plurality of feathers is generated between the inner manifold and the outer manifold using the follicle points, the tip points, and the volumetric vector fields.

Abstract: A realistic feather generation may be represented via a user interface in a modeling system. To perform the feather generation, a curve defining a spine of a feather is received from input to the user interface of the modeling system. The feather is created in the user interface based at least on the curve, where the feather includes barbs extended away from the spine of the feather in one or more directions. The feather is deformed based on one or more deformation parameters. A feather contour of the barbs along at least one of the one or more directions is generated based on a contour parameter defining the feather contour. A barb density for a number of the barbs along the spine of the feather is established based on a barb density parameter. Thereafter, a data structure representing the feather is generated.

Abstract: A realistic feather growth may be represented between two surface manifolds in a modeling system. To perform the feather growth, a feather groom for a plurality of feathers between an inner shell of a creature and an outer shell of the creature is received. An inner manifold for the inner shell and an outer manifold for the outer shell is determined with a plurality of follicle points and a plurality of tip points. A first surface contour definition for the inner manifold and a second surface contour definition for the outer manifold is determined and used to determine a volumetric vector field between the inner manifold and the outer manifold. Thereafter, the plurality of feathers is generated between the inner manifold and the outer manifold using the follicle points, the tip points, and the volumetric vector fields.

Abstract: The disclosed embodiments relate to a surgical instrument, in particular an electrosurgical instrument. The surgical instrument is configured with a FRAM storage device for individually recognizing or detecting the surgical instrument. The disclosed embodiments further relate to the use of a FRAM storage device.

Abstract: An electrosurgical system and a method for operating an electrosurgical instrument comprises an electrosurgical instrument, a generator which is designed to operate the electrosurgical instrument, a memory element on which is stored at least one piece of operation-relevant information representing at least one operating instruction for the electrosurgical instrument, and a display which is designed to display operation relevant information, wherein the system is designed to transmit the operation relevant information to the display.

Abstract: The invention relates to a bipolar electrosurgical instrument with an elongated shaft and with two coagulation electrodes arranged one after another in the longitudinal direction of the shaft and each forming a surface portion of the shaft, said electrodes being insulated electrically from one another by an insulator. At the distal end, the shaft is blunt, particularly rounded off, and has a cutting electrode for electrosurgical cutting at the distal end.

Abstract: The invention concerns a medical technology device for treatment of the human or animal body, comprising at least one electrical plug connector which is adapted to be connected to a complementary counterpart plug connector of a further medical technology device and which in an active position is arranged projecting upwardly at the top side of the device. To provide a medical technology device which can be used both as an individual device and also in conjunction with a second device as a device arrangement and which in that respect satisfies existing safety and aesthetic demands, it is provided in accordance with the invention that the plug connector is adapted to be movable from the active position into a passive position, wherein in the passive position the plug connector is removed from the top side of the device and the top side is closed in substantially fluid-tight relationship.

Abstract: The invention concerns a medical technology device for treatment of the human or animal body, comprising at least one electrical plug connector which is adapted to be connected to a complementary counterpart plug connector of a further medical technology device and which in an active position is arranged projecting upwardly at the top side of the device. To provide a medical technology device which can be used both as an individual device and also in conjunction with a second device as a device arrangement and which in that respect satisfies existing safety and aesthetic demands, it is provided in accordance with the invention that the plug connector is adapted to be movable from the active position into a passive position, wherein in the passive position the plug connector is removed from the top side of the device and the top side is closed in substantially fluid-tight relationship.

Abstract: The invention concerns a medical technology device for treatment of the human or animal body, comprising at least one electrical plug connector which is adapted to be connected to a complementary counterpart plug connector of a further medical technology device and which in an active position is arranged projecting upwardly at the top side of the device. To provide a medical technology device which can be used both as an individual device and also in conjunction with a second device as a device arrangement and which in that respect satisfies existing safety and aesthetic demands, it is provided in accordance with the invention that the plug connector is adapted to be movable from the active position into a passive position, wherein in the passive position the plug connector is removed from the top side of the device and the top side is closed in substantially fluid-tight relationship.