Abstract: The present subject matter provides a system for allowing controlled access of a tool to all sides of an elevated tissue in body of a patient, the system including: a rail configured to surround the elevated tissue; and at least one vehicle configured to move along the rail and carry at least one tool configured to manipulate the elevated tissue. Also provided is a method for cutting an elevated tissue in a body of a patient, the method including: inserting a rail to a vicinity of the elevated tissue; surrounding the elevated tissue with the rail; placing a vehicle on the rail; connecting a cutting device to the vehicle; and moving the vehicle along the rail while cutting the elevated tissue with the cutting device. Additional embodiments of the system and method are disclosed herein.

Abstract: An apparatus, system and method for providing an image enhancing effect for a photographic image of a target region within an intravascular environment. The image enhancing effects may be a physical process based upon the nature of the detected light or based upon different aspects of expected light reflection behavior, for example, by running predefined image reconstruction algorithms. The apparatus has a plurality of different embodiments, each of which reduces the ambient “noise” detected along with the light reflected from the target region in order to increase the signal/noise ratio, thereby to enhance the quality of the image produced.

Abstract: Systems and methods for use in performing an open surgical procedure on a body of a patient using a working element of a surgical instrument that has a shaft connected proximally to the working element; and capturing an image of an area of the body using a camera that is connected to the shaft.

Abstract: Methods and systems for producing a 3D image representation of an in vivo object that include illuminating the object with at least two separate illumination sources included in a wireless imaging device, the first of the at least two illumination sources for illuminating said object from a first side of the object and the second of the at least two illumination sources for illuminating said object from a second side of the object; obtaining at least a first image and a second image of the object, whereby the first image is obtained using a first illumination source, and the second image is obtained using the second illumination source; comparing between photometry measurements of reflected light intensity in the at least first and second images; and constructing a 3D image representation of the object from the at least first and second images, based on said comparison.

Abstract: A method for assembling an endoscope that includes an imaging subassembly inside an insertion tube having distal and proximal ends. The method includes coupling the imaging subassembly to a plurality of wires, which have respective first and second ends, by fixing the first ends of the wires to the imaging subassembly. A connector is coupled to the wires by fixing the second ends of the wires to the connector. After coupling the imaging subassembly and the connector to the wires, the imaging subassembly is installed in the insertion tube by passing the connector through the insertion tube from the distal end of the insertion tube to the proximal end. After passing the connector through the insertion tube, the connector is inserted in a receptacle.

Abstract: A method for assembling an endoscope that includes an imaging subassembly inside an insertion tube having distal and proximal ends. The method includes coupling the imaging subassembly to a plurality of wires, which have respective first and second ends, by fixing the first ends of the wires to the imaging subassembly. A connector is coupled to the wires by fixing the second ends of the wires to the connector. After coupling the imaging subassembly and the connector to the wires, the imaging subassembly is installed in the insertion tube by passing the connector through the insertion tube from the distal end of the insertion tube to the proximal end. After passing the connector through the insertion tube, the connector is inserted in a receptacle.

Abstract: An endoscope having restricted dimensions and comprising at least one image gatherer, at least one image distorter and at least one image sensor shaped to fit within said limited dimensions, and wherein said image distorter is operable to distort an image received from said image gatherer so that the image is sensible at said shaped image sensor.

Abstract: An endoscope having restricted dimensions and comprising at least one image gatherer, at least one image distorter and at least one image sensor shaped to fit within said limited dimensions, and wherein said image distorter is operable to distort an image received from said image gatherer so that the image is sensible at said shaped image sensor.

Abstract: A method for assembling an endoscope that includes an imaging subassembly inside an insertion tube having distal and proximal ends. The method includes coupling the imaging subassembly to a plurality of wires, which have respective first and second ends, by fixing the first ends of the wires to the imaging subassembly. A connector is coupled to the wires by fixing the second ends of the wires to the connector. After coupling the imaging subassembly and the connector to the wires, the imaging subassembly is installed in the insertion tube by passing the connector through the insertion tube from the distal end of the insertion tube to the proximal end. After passing the connector through the insertion tube, the connector is inserted in a receptacle.

Abstract: An apparatus, system and method for providing a photographic image of a target region within an intravascular environment. The apparatus has a plurality of different embodiments, each of which reduces the ambient “noise” detected along with the light reflected from the target region in order to increase the signal/noise ratio, thereby to enhance the quality of the image produced.

Abstract: An endoscope having restricted dimensions and comprising at least one image gatherer, at least one image distorter and at least one image sensor shaped to fit within said limited dimensions, and wherein said image distorter is operable to distort an image received from said image gatherer so that the image is sensible at said shaped image sensor.