A system for ablating biological tissue to create a pattern of pores that improves biomechanics, comprising: a laser for generating a beam of laser radiation in a goniometric motion to create the pattern of pores; a lens configured to focus the beam of laser radiation on a region of a patient's eye tissue while the patient's eye is focused on an off-axis fixation target; a controller within a housing and in communication with the laser; a scanning system for the laser configured to scan the beam over the region of the patient's eye tissue; the scanning system further comprising: a biofeedback loop which provides real-time feedback on characteristics of the patient's eye tissue including one or more of thickness, topography, focus and hydration, and which adjusts the laser beam based on the characteristics of the patient's eye tissue; a camera for use in a camera-based eye tracker subsystem for monitoring eye motion; wherein, during a medical treatment to improve biomechanics, the scanning system is operable to perform an ablating procedure on the area of the patient's eye tissue in a complete circumferential treatment, using a golden spiral pattern, the pattern having one of clockwise direction, counterclockwise direction, or combination thereof, by using the controller to control the beam of laser radiation applied to the region of the patient's eye tissue in a goniometric motion through the lens, wherein the scanning system senses and monitors tissue characteristics within the patient's eye tissue, including thickness, topography, and focus to identify biological features, and wherein the scanning system extracts biological features, performs real-time position feedback to the controller and, upon identification of a pre-set eye motion threshold, controls or ceases laser operation intraoperatively. a laser for generating a beam of laser radiation in a goniometric motion to create the pattern of pores; a lens configured to focus the beam of laser radiation on a region of a patient's eye tissue while the patient's eye is focused on an off-axis fixation target; a controller within a housing and in communication with the laser; a scanning system for the laser configured to scan the beam over the region of the patient's eye tissue; the scanning system further comprising: a biofeedback loop which provides real-time feedback on characteristics of the patient's eye tissue including one or more of thickness, topography, focus and hydration, and which adjusts the laser beam based on the characteristics of the patient's eye tissue; a camera for use in a camera-based eye tracker subsystem for monitoring eye motion; a biofeedback loop which provides real-time feedback on characteristics of the patient's eye tissue including one or more of thickness, topography, focus and hydration, and which adjusts the laser beam based on the characteristics of the patient's eye tissue; a camera for use in a camera-based eye tracker subsystem for monitoring eye motion; wherein, during a medical treatment to improve biomechanics, the scanning system is operable to perform an ablating procedure on the area of the patient's eye tissue in a complete circumferential treatment, using a golden spiral pattern, the pattern having one of clockwise direction, counterclockwise direction, or combination thereof, by using the controller to control the beam of laser radiation applied to the region of the patient's eye tissue in a goniometric motion through the lens, wherein the scanning system senses and monitors tissue characteristics within the patient's eye tissue, including thickness, topography, and focus to identify biological features, and wherein the scanning system extracts biological features, performs real-time position feedback to the controller and, upon identification of a pre-set eye motion threshold, controls or ceases laser operation intraoperatively.