Abstract: A system, method and apparatus for disinfecting an indoor environment. The system includes a user computer having a user app and a controller operably coupled with the user computer remotely through the user app. The user computer is capable of communicating with the controller through a network. The system further includes a fixture for housing the controller. Within the fixture are at least one UV-C device operably coupled with the controller, at least one motion sensor operably coupled with the controller, at least one fan operably coupled with the controller, and at least one air filter coupled with the at least one fan. The system further includes at least one air quality sensor. The at least one UV-C device and the at least one fan are operable in a plurality of modes controlled remotely by a user via the user app.

Abstract: Systems and methods are described for retexturing portions of surface in a 2-D image, where the surface is an image of a 3-D object. The systems and methods analyze, with user input, the 2-D image and then, in computer memory, generate a 3-D model of the imaged surface. The surface may then be retextured, that is, for example, artwork may be added to the 2-D image in a realistic manner, taking into account a 3-D geometry in the scene of the 2-D image.

Abstract: A system and method for disinfecting an indoor environment. The system includes a user computer having a user app operably coupled with a controller. The user computer communicates with the controller through a network. A UV-C lamp and motion sensor are operably coupled with the controller. The UV-C lamp is operable in a first mode when the indoor environment is occupied to emit ultraviolet radiation to an upper section of the indoor environment at a first level, and a second mode when the indoor environment is unoccupied to emit ultraviolet radiation to sections of the indoor environment beyond the upper section at a level greater than the first level. The method includes the steps of programming parameters for controlling the UV-C lamp remotely, communicating to and storing the parameters on the controller, and controlling the UV-C lamp for operation in the first and second modes.

Abstract: Methods and systems are disclosed, which utilize texture mapping to rapidly map flexible physical objects onto 3D models. The 3D models are represented graphically.

Abstract: A system and a method, the method includes determining or receiving a multiple iteration printing scheme indicative of multiple printing iterations of a coating material to be applied on an electrical circuit that comprises at least one three dimensional structure to be coated by the coating material; wherein the multiple iteration printing scheme is responsive to a shape and size of the at least one three dimensional structure; and performing multiple printing iterations of the coating material, according to the multiple iteration printing scheme; wherein at least one printing iteration is followed by at least partially curing the coating material printed during the at least one printing iteration.

Abstract: Systems and methods are described for retexturing portions of surface in a 2-D image, where the surface is an image of a 3-D object. The systems and methods analyze, with user input, the 2-D image and then, in computer memory, generate a 3-D model of the imaged surface. The surface may then be retextured, that is, for example, artwork may be added to the 2-D image in a realistic manner, taking into account a 3-D geometry in the scene of the 2-D image.

Abstract: A system and a method for printing a desired pattern on a substrate, the method may include: receiving or generating printing instructions for printing multiple patterns during multiple printing iterations, wherein at least two different printing iterations are expected to be executed by different sets of nozzles of an array of nozzles, wherein a superposition of the multiple patterns is expected to differ from the desired pattern by a tolerable difference even when a nozzle of the array of nozzles malfunctions; and printing the multiple patterns during multiple printing iterations, wherein at least two different printing iterations are expected to be executed by different sets of nozzles of the array of nozzles.

Abstract: A system and a method, the method includes determining or receiving a multiple iteration printing scheme indicative of multiple printing iterations of a coating material to be applied on an electrical circuit that comprises at least one three dimensional structure to be coated by the coating material; wherein the multiple iteration printing scheme is responsive to a shape and size of the at least one three dimensional structure; and performing multiple printing iterations of the coating material, according to the multiple iteration printing scheme; wherein at least one printing iteration is followed by at least partially curing the coating material printed during the at least one printing iteration.

Abstract: A system and a method for printing a desired pattern on a substrate, the method may include: receiving or generating printing instructions for printing multiple patterns during multiple printing iterations, wherein at least two different printing iterations are expected to be executed by different sets of nozzles of an array of nozzles, wherein a superposition of the multiple patterns is expected to differ from the desired pattern by a tolerable difference even when a nozzle of the array of nozzles malfunctions; and printing the multiple patterns during multiple during multiple printing iterations, wherein at least two different printing iterations are expected to be executed by different sets of nozzles of the array of nozzles.