A surgical system, comprising: a surgical laser source operable to emit a surgical laser comprising at one optical element; an OCT engine operable to emit an OCT beam; an endoprobe optically coupled to the surgical laser source and the OCT engine, the endoprobe comprising: an OCT fiber for transmitting the OCT beam; a surgical laser fiber for transmitting the surgical laser beam; the surgical laser beam passing through the at least one optical element of the surgical laser source; a cannula comprising a first and a second counter-rotating internal cannulae (112,114), respectively having first scanning optics and second scanning optics, said cannula enclosing the OCT fiber and the surgical laser fiber, optically coupled to the first and second scanning optics such that the OCT beam and the surgical laser beam each pass through the first and second scanning optics, counter rotation of the first and second scanning optics causing simultaneously scanning of both the OCT beam and the surgical laser beam; and a processor programmed to control the scanning optics to scan the OCT beam and the surgical laser beam over a targeted tissue area and to detect an OCT signal from the targeted tissue area, characterized in that the at least one optical element is configured to produce multiple spots from the surgical laser beam. a surgical laser source operable to emit a surgical laser comprising at one optical element; an OCT engine operable to emit an OCT beam; an endoprobe optically coupled to the surgical laser source and the OCT engine, the endoprobe comprising: an OCT fiber for transmitting the OCT beam; a surgical laser fiber for transmitting the surgical laser beam; the surgical laser beam passing through the at least one optical element of the surgical laser source; a cannula comprising a first and a second counter-rotating internal cannulae (112,114), respectively having first scanning optics and second scanning optics, said cannula enclosing the OCT fiber and the surgical laser fiber, optically coupled to the first and second scanning optics such that the OCT beam and the surgical laser beam each pass through the first and second scanning optics, counter rotation of the first and second scanning optics causing simultaneously scanning of both the OCT beam and the surgical laser beam; and an OCT fiber for transmitting the OCT beam; a surgical laser fiber for transmitting the surgical laser beam; the surgical laser beam passing through the at least one optical element of the surgical laser source; a cannula comprising a first and a second counter-rotating internal cannulae (112,114), respectively having first scanning optics and second scanning optics, said cannula enclosing the OCT fiber and the surgical laser fiber, optically coupled to the first and second scanning optics such that the OCT beam and the surgical laser beam each pass through the first and second scanning optics, counter rotation of the first and second scanning optics causing simultaneously scanning of both the OCT beam and the surgical laser beam; and a processor programmed to control the scanning optics to scan the OCT beam and the surgical laser beam over a targeted tissue area and to detect an OCT signal from the targeted tissue area,