Abstract: A composition comprising particles formed of poly(diaminosulfide) and one or more leptospiral antigens, and methods of making and using the composition, are provided.

Abstract: A cationic nanoparticle formed of a biodegradable or biocompatible synthetic polymer and a dendrimer having a diameter of about 125 nm to 1000 nm, and methods of using the nanoparticle, e.g., for delivery of an immunogen, are provided.

Abstract: A composition comprising particles formed of poly(diamidosulfide) and one or more leptospiral antigens, and methods of making and using the composition, are provided.

Abstract: The present invention provides three-component compositions comprising microparticles, a tumor antigen, a first immune adjuvant, and a second immune adjuvant. Also provided are chemo-immunotherapeutic compositions comprising microparticles, a chemotherapeutic agent, and an immune adjuvant.

Abstract: The present invention provides three-component compositions comprising microparticles, a tumor antigen, a first immune adjuvant, and a second immune adjuvant. Also provided are chemo-immunotherapeutic compositions comprising microparticles, a chemotherapeutic agent, and an immune adjuvant.

Abstract: A configurable scanner (1), for contactless measurement of the depth and perimeter of a wound on a target body part (9), has a scan head (4), and is configured to be controlled by a processor (3) for controlling a scanning procedure and analyzing the results. The scan head (4) projects a contour line onto a surface the target body part, and captures an image of the projected contour line. A series of captured images are analyzed to create a three dimensional model of the wound, and determine at least one of depth, perimeter and volume of the wound from the three dimensional model.

Abstract: A configurable scanner (1), for contactless measurement of the depth and perimeter of a wound on a target body part (9), has a scan head (4), and is configured to be controlled by a processor (3) for controlling a scanning procedure and analyzing the results. The scan head (4) projects a contour line onto a surface the target body part, and captures an image of the projected contour line. A series of captured images are analyzed to create a three dimensional model of the wound, and determine at least one of depth, perimeter and volume of the wound from the three dimensional model.

Abstract: A configurable scanner (1), adapted for contactless measurement of the depth and perimeter of a wound on a target body part (9), has a scan head (4), and a processor (3) for controlling a scanning procedure and analyzing the results. The scan head is translated along a substantially semicircular path (7) having a configurable radial distance from an imaginary axis, such that the imaginary axis is approximately coincident with an axis of the target (9). The scan head (4) projects a contour line having a calibrated length onto the target surface, and the processor (3) stores an image of the projected contour line captured by an image capturing device (11). The processor (3) analyzes a series of captured images to determine the coordinates in three axes of the projected contour line, creates therefrom a 3D model of the region of interest, and determines a depth and perimeter of the wound from the 3D model.

Abstract: A configurable scanner (1), adapted for contactless measurement of the depth and perimeter of a wound on a target body part (9), has a scan head (4), and a processor (3) for controlling a scanning procedure and analyzing the results. The scan head is translated along a substantially semicircular path (7) having a configurable radial distance from an imaginary axis, such that the imaginary axis is approximately coincident with an axis of the target (9). The scan head (4) projects a contour line having a calibrated length onto the target surface, and the processor (3) stores an image of the projected contour line captured by an image capturing device (11). The processor (3) analyzes a series of captured images to determine the coordinates in three axes of the projected contour line, creates therefrom a 3D model of the region of interest, and determines a depth and perimeter of the wound from the 3D model.