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The Low-Profile Optical Probe, as part of the Nvision VLE Imaging System, is indicated for use as an imaging tool in the evaluation of human tissue microstructure, including esophageal and pancreatico-biliary system tissue microstructures, by providing two-dimensional, cross-sectional, real-time depth visualization. The NvisionVLE Imaging System is intended to provide an image of tissue microstructure. The safety and effectiveness of this device for diagnostic analysis (i.e. differentiating normal versus specific abnormalities) in any tissue microstructure or specific disease has not been evaluated.

The NinePoint Medical NvisionVLE® Imaging System subject to this 510(k) is a general imaging system comprised of the NvisionVLE® Console and NvisionVLE® Optical Probe. The NinePoint Medical NvisionVLE® Imaging System is a high-resolution volumetric imaging system based on optical coherence tomography (OCT). In an analogous fashion to ultrasound imagery, OCT images are formed from the time delay and magnitude of the signal reflected from the tissue or organ of interest. The NvisionVLE® Imaging System employs an advanced form of OCT known as swept-source OCT (SS-OCT), or Optical Frequency Domain Imaging (OFDI), in combination with a scanning optical probe to acquire highresolution, cross-sectional, real-time imagery of tissue called Volumetric Laser Endomicroscopy (VLE). The device consists of the following main components and accessories: (i) a mobile NvisionVLE® Console with an integrated computer and two touch-screen interfaces; (ii) proprietary NvisionVLE Software used to acquire, process, and visualize VLE images; (iii) a single-use, sterile NvisionVLE® Optical Probe that is inserted through the working channel of an endoscope: and (iv) a Probe Lock Accessory to prevent longitudinal motion of the Probe within the endoscope.

The NvisionVLE Imaging System is indicated for use as an imaging tool in the evaluation of human tissue microstructure, including esophageal tissue microstructure, by providing two-dimensional, cross-sectional, real-time depth visualization and may be used to mark areas of tissue. The software provides segmentation and display of common imaging features, including hyper-reflective surface, layering, and hypo-reflective structures. The NvisionVLE® Imaging System is intended to provide an image of tissue microstructure. The safety and effectiveness of this device for diagnostic analysis (i.e. differentiating normal versus specific abnormalities) in any tissue microstructure or specific disease has not been evaluated.

The NinePoint Medical NvisionVLE® Imaging System is a high-resolution volumetric imaging system based on optical coherence tomography (OCT). In an analogous fashion to ultrasound imagery, OCT images are formed from the time delay and magnitude of the signal reflected from the tissue of interest. The NvisionVLE Imaging System employs an advanced form of OCT known as sweptsource OCT (SS-OCT), or Optical Frequency Domain Imaging (OFDI), in combination with a scanning optical probe to acquire high-resolution, cross-sectional, real-time imagery of tissue called Volumetric Laser Endomicroscopy (VLE). In addition to the imaging capability, the device provides a means of marking areas of tissue with an additionally integrated 1470nm laser. The ability to create temporary laser marks directly on tissue enables a clinician to place visual reference marks on tissue regions of clinical interest immediately following their identification via VLE. The device consists of the following five main components and accessories: (i) a mobile NvisionVLE Console with an integrated computer and two touch-screen interfaces; (ii) proprietary NvisionVLE Software used to acquire, process, and visualize VLE images; (iii) a single-use, sterile NvisionVLE Marking Probe that is inserted through the working channel of an endoscope; (iv) a single-use, sterile NvisionVLE Inflation System that is used to inflate the Marking Probe's balloon to facilitate placement; and (v) a Probe Lock Accessory to prevent longitudinal motion of the Marking Probe within the endoscope. The purpose of this 510(k) submission is to add an artificial intelligence software tool referred to as Image and Visualization Enhancements (IVE) to the previously cleared, predicate NvisionVLE Imaging System (K153479). The IVE software module allows enhanced visualization (segmentation and colorized display) of the following commonly observed image features (also referred to as IVE features): (1) hyper-reflective surface, (2) layering and (3) hypo-reflective structures. The segmentation algorithm was developed using an artificial intelligence machine learning technique known as deep learning. Here, an artificial neural network was trained with manually labelled examples of each feature and then locked for realtime inference on new image data acquired by the device. Display of each feature can be toggled via the user interface, where a respective color overlay is presented. The default display of the IVE features is disabled and the standard VLE image data displayed per the cleared NvisionVLE Imaging System. Segmentation of these structures are based on existing image features, and IVE simply increases the conspicuity via the color overlays, thus aiding image review. It is a convenience tool and a resource for the clinician and as such, it does not alter the standard of care or the role of the physician in reviewing and assessing images generated by the system.

The NvisionVLE Imaging System is indicated for use as an imaging tool in the evaluation of human tissue microstructure, including esophageal tissue microstructure, by providing two-dimensional, cross-sectional, real-time depth visualization.

The NinePoint Medical NvisionVLE® Imaging System is a high-resolution volumetric imaging system based on optical coherence tomography (OCT). In an analogous fashion to ultrasound imagery, OCT images are formed from the time delay and magnitude of the signal reflected from the tissue of interest. The NvisionVLE® Imaging System employs an advanced form of OCT known as swept-source OCT (SS-OCT), or Optical Frequency Domain Imaging (OFDI), in combination with a scanning optical probe to acquire high-resolution, crosssectional, real-time imagery of tissue called Volumetric Laser Endomicroscopy (VLE). The device consists of the following main components and accessories: (i) a mobile NvisionVLE Console with an integrated computer and two touchscreen interfaces; (ii) proprietary NvisionVLE Software used to acquire, process, and visualize VLE images; (iii) a single-use, sterile NvisionVLE Optical Probe that is inserted through the working channel of an endoscope: (iv) a single-use, sterile NvisionVLE Inflation System that is used to inflate the balloon as required, to facilitate placement; and (v) a Probe Lock Accessory to prevent longitudinal motion of the Probe within the endoscope.

The NvisionVLE Imaging System is indicated for use as an imaging tool in the evaluation of human tissue microstructure, including esophageal tissue microstructure, by providing two-dimensional, cross sectional, realtine depth visualization, and may be used to mark areas of tissue. The NvisionVLE Imaging System is intended to provide an image of the tissue microstructure. The safety and effectiveness of this device for diagnostic analysis (i.e. differentiating normal versus specific abnormalities) in any tissue microstructure or specific disease has not been evaluated.

The NinePoint Medical NvisionVLE® Imaging System is a high-resolution volumetric imaging system based on optical coherence tomography (OCT). In an analogous fashion to ultrasound imagery, OCT images are formed from the time delay and magnitude of the signal reflected from the tissue of interest. The NvisionVLE Imaging System employs an advanced form of OCT known as swept-source OCT (SS-OCT), or Optical Frequency Domain Imaging (OFDI), in combination with a scanning optical probe to acquire high-resolution, cross-sectional, real-time imagery of tissue called Volumetric Laser Endomicroscopy (VLE). In addition to the imaging capability, the device provides a means of marking areas of tissue with an additionally integrated 1470nm laser. The ability to create temporary laser marks directly on tissue enables a clinician to place visual reference marks on tissue regions of clinical interest immediately following their identification via VLE. The device consists of the following five main components and accessories: (i) a mobile NvisionVLE Console with an integrated computer and two touch-screen interfaces; (ii) proprietary NvisionVLE Software used to acquire, process, and visualize VLE images; (iii) a single-use, sterile NvisionVLE Marking Probe that is inserted through the working channel of an endoscope; (iv) a single-use, sterile NvisionVLE Inflation System that is used to inflate the Marking Probe's balloon to facilitate placement; and (v) a Probe Lock Accessory to prevent longitudinal motion of the Marking Probe within the endoscope. The first four components provide the previously-cleared (K143678) VLE imaging functionality of the NvisionVLE Imaging System. The device consists of a Laser Marking Unit and a Hand Controller as part of the NvisionVLE Console, and updated NvisionVLE Software for the laser marking functionality. A Probe Lock Accessory is also provided to the user as a convenience to help stabilize the Marking Probe during laser marking.

The Nvision VLE Imaging System is indicated for use as an imaging tool in the evaluation of human tissue microstructure, including esophageal tissue microstructure, by providing two-dimensional, cross-sectional, real-time depth visualization.

The NinePoint Medical NvisionVLE™ Imaging System is a general imaging system comprised of the NvisionVLETM Console, NvisionVLETM Optical Probe and the NvisionVLE™ Inflation Accessory Kit. The NvisionVLE™ Optical Probe is made up of an optical probe subassembly and a quide sheath. The optical probe subassembly is a fiber optic probe assembly secured inside a flexible, stainless steel torque shaft. The distal optics are housed in a stainless steel hypotube which is attached to the torque shaft. The proximal end of the optical fiber and torque shaft terminate in a standard fiber optic connector and catheter connector which interfaces with the system console. The optical probe subassembly transmits the optical signal and detects the reflected optical signal for image reconstruction of the targeted tissue. The guide sheath is a coaxially-designed balloon sheath. The sheath is composed of a PET balloon and a nylon shaft. The inner lumen of the sheath is sealed, enclosing the optical probe subassembly. The guide sheath is positioned within the organ structure of interest and allows the probe to rotate in a helical pattern while positioned in the inner lumen allowing for image reconstruction of the targeted tissue.

The Nvision VLE Imaging System is indicated for use as an imaging tool in the evaluation of human tissue microstructure, including esophageal tissue microstructure, by providing two-dimensional, cross- sectional, real-time depth visualization.

The NinePoint Medical Nvision VLE Imaging System is a general imaging system comprised of the Nvision VLE Console, Nvision VLE Catheter and the Nvision VLE Inflation Accessory Kit.

The Nvision VLETM Imaging System is indicated for use as an imaging tool in the evaluation of human tissue microstructure by providing two-dimensional, crosssectional, real-time depth visualization.

The NinePoint Medical Nvision VLE™ Imaging System is a general imaging system The Niler offit Wediod Nivision VLE TM Console, NVISion VLE™ Catheter and the Nvision VLE™ Inflation Accessory Kit.

The Nvision VLE Imaging System is indicated for use as an imaging tool in the evaluation of human tissue microstructure by providing twodimensional, cross sectional, real-time depth visualization.

The NinePoint Medical Nvision VLE Imaging System is a general imaging system comprised of the Nvision VLE Console, Nvision VLE Catheter and the Nvision VLE Inflation Accessory Kit.