Abstract: Some embodiments of the invention include a method for analyzing spatial measuring data. The method may include an evaluation process with a multitude of measurement processes that are timely and/or spatially distributed over the elements of a set of one, two or a multitude of basically identical items, the items each having one or more features. In some embodiments, the multitude of measurement processes include at least a first and a second measurements of spatial data by means of at least one sensor system comprising at least one sensor. In some embodiments, each measurement of spatial data comprises providing a sensor reference system for each sensor, and measuring and/or extrapolating one or more spatial values of the features of an item of the set of items by means of the at least one sensor.

Abstract: Some embodiments of the invention include a method for analyzing spatial measuring data. The method may include an evaluation process with a multitude of measurement processes that are timely and/or spatially distributed over the elements of a set of one, two or a multitude of basically identical items, the items each having one or more features. In some embodiments, the multitude of measurement processes include at least a first and a second measurements of spatial data by means of at least one sensor system comprising at least one sensor. In some embodiments, each measurement of spatial data comprises providing a sensor reference system for each sensor, and measuring and/or extrapolating one or more spatial values of the features of an item of the set of items by means of the at least one sensor.

Abstract: A system and device for treating a target tissue is provided herein. The treating device and system is based on a fractional treatment of an incision edge prior to closure of the incision to prevent scar formation.

Abstract: A system for monitoring and visualizing the output of a production process, whose output materials or items are inspected by one or more inspection units, may include a communication module to receive data from the one or more inspection units. The received data may be associated with a measured or extrapolated value of at least one parameter of the inspected materials or items. A comparator module may compare at least one of the measured or extrapolated values against a corresponding stored value to determine a difference value, and a visualization module may generate an image representing the inspected items or materials. An area or section of the image corresponding to an area or section of the item or material associated with the at least one of the measured or extrapolated values which was compared to the stored value may be visually coded to indicate a corresponding difference value.

Abstract: A system for monitoring and visualizing the output of a production process, whose output materials or items are inspected by one or more inspection units, may include a communication module to receive data from the one or more inspection units. The received data may be associated with a measured or extrapolated value of at least one parameter of the inspected materials or items. A comparator module may compare at least one of the measured or extrapolated values against a corresponding stored value to determine a difference value, and a visualization module may generate an image representing the inspected items or materials. An area or section of the image corresponding to an area or section of the item or material associated with the at least one of the measured or extrapolated values which was compared to the stored value may be visually coded to indicate a corresponding difference value.

Abstract: Systems and methods are provided for imaging and reconstructing topographical features of an object, in which an illumination system illuminates the object and images may be acquired by an image acquisition system, and wherein at least two components including the object, the illumination system, and the image acquisition system are mounted to or otherwise associated with independently controllable motion inducing mechanisms, in particular robotic arms, such as to enable at least two of the components to be independently moved, to provide optimum illumination and viewing conditions wherein to obtain image data. The image data is configured to enable topographical features of the object to be reconstructed.

Abstract: A method for reconstructing 3D surface structure of an object uses a two stage approach. In the first stage, a first set of images is obtained, and a spatial coding technique, such as a random grid, is used for correspondence mapping of coordinates from a first image to a second image of an object, and the images are obtained at different angles with respect to the object. In the second stage, a second structured illumination, typically comprising a striped grid, is used to obtain a second set of images, typically comprising two further images of the object. The mapping provided by the first stage provides proper labeling of the grid between these two images of the second set, and enables accurate matching of elements between these images. Triangulation or epipole methods can then be used for obtaining the 3D coordinates of the surface being reconstructed.

Abstract: A system for monitoring and visualizing the output of a production process, whose output materials or items are inspected by one or more inspection units, may include a communication module to receive data from the one or more inspection units. The received data may be associated with a measured or extrapolated value of at least one parameter of the inspected materials or items. A comparator module may compare at least one of the measured or extrapolated values against a corresponding stored value to determine a difference value, and a visualization module may generate an image representing the inspected items or materials. An area or section of the image corresponding to an area or section of the item or material associated with the at least one of the measured or extrapolated values which was compared to the stored value may be visually coded to indicate a corresponding difference value.

Abstract: A digital imaging system is described that facilitates the location of anchors or targets in images of a scene. In one aspect, the digital imaging system makes use of differences as between the properties of the surfaces of the targets and the properties of the surfaces of the objects that are to be mensurated, reconstructed, etc., to facilitate providing uniform illumination of the targets when recording a set of images of the scene, thereby reducing noise that may arise in connection with determining the locations of the targets if they were illuminated by structured illumination, while contemporaneously providing that the objects can be illuminated by structured illumination when the images are recorded. In this aspect, the digital imaging system can use the positions of the targets in the images to relate a local coordinate system associated with the image set to a global coordinate system.

Abstract: A digital imaging system is described that facilitates the location of anchors or targets in images of a scene. In one aspect, the digital imaging system makes use of differences as between the properties of the surfaces of the targets and the properties of the surfaces of the objects that are to be mensurated, reconstructed, etc., to facilitate providing uniform illumination of the targets when recording a set of images of the scene, thereby reducing noise that may arise in connection with determining the locations of the targets if they were illuminated by structured illumination, while contemporaneously providing that the objects can be illuminated by structured illumination when the images are recorded. In this aspect, the digital imaging system can use the positions of the targets in the images to relate a local coordinate system associated with the image set to a global coordinate system.

Abstract: A system for reconstructing the surface geometry of an object includes a three-view optic head, a mechanical manipulator, a local 3D surface geometry reconstruction unit and a surface geometry stitching unit. The three-view optic head is operative to generate at least three views of at least a portion of the object. The mechanical manipulator is operative to vary the relative orientation of the object and the optic head, at a precision less than the a predetermined degree of precision, from a first relative orientation in which a first portion of the object is visible to at least one second relative orientation in which a second portion of the object, which overlaps the first portion, is visible. The local 3D surface geometry reconstruction unit is operative to generate local reconstructions of the surface geometries of the first and second portions of the object, based on at least two of three views of the first and second portions generated by the optic head.

Abstract: A system for reconstructing the surface geometry of an object includes a three-view optic head, a mechanical manipulator, a local 3D surface geometry reconstruction unit and a surface geometry stitching unit. The three-view optic head is operative to generate at least three views of at least a portion of the object. The mechanical manipulator is operative to vary the relative orientation of the object and the optic head, at a precision less than the a predetermined degree of precision, from a first relative orientation in which a first portion of the object is visible to at least one second relative orientation in which a second portion of the object, which overlaps the first portion, is visible. The local 3D surface geometry reconstruction unit is operative to generate local reconstructions of the surface geometries of the first and second portions of the object, based on at least two of three views of the first and second portions generated by the optic head.

Abstract: A system for reconstructing the surface geometry of an object includes a three-view optic head, a mechanical manipulator, a local 3D surface geometry reconstruction unit and a surface geometry stitching unit. The three-view optic head is operative to generate at least three views of at least a portion of the object. The mechanical manipulator is operative to vary the relative orientation of the object and the optic head, at a precision less than the a predetermined degree of precision, from a first relative orientation in which a first portion of the object is visible to at least one second relative orientation in which a second portion of the object, which overlaps the first portion, is visible. The local 3D surface geometry reconstruction unit is operative to generate local reconstructions of the surface geometries of the first and second portions of the object, based on at least two of three views of the first and second portions generated by the optic head.

Abstract: A simple and inexpensive, preferably disposable, medication package which is capable of reminding a user when it is time to take the medication. In one embodiment the package is an ordinary medicine bottle with the cap modified so as to include a timer, a battery, a buzzer or display light and a means for closing a circuit. When the cap is closed, the circuit is automatically closed through contact with a conducting material on the upper edge of the bottle. In another embodiment, the container is of the foil pack variety. A receptacle is provided. When the foil pack is inserted into the receptacle, the circuit is closed energizing the timer and related mechanisms. In a third embodiment, the container is again of the foil pack variety where the foil has a suitable resistivity. No receptacle is included. Rather, the timer mechanism is activated through the sensing of a resistance change as the foil is ruptures whenever each of the pills is removed.