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The P200TE is a non-contact scanning laser ophthalmoscope and optical coherence tomographer. It is intended for in-vivo viewing, digital imaging, and measurement of posterior ocular structures, including the retinal nerve fiber layer, ganglion cell complex (GCC) and optic disc under mydriatic and nonmydriatic conditions. P200TE is indicated for producing high resolution, ultra-widefield, en face reflectance images, autofluorescence images, axial cross-sectional images, three-dimensional images, retinal layer boundary analysis, optic nerve head analysis and thickness maps. The P200TE includes a Reference Database that enables the results of OCT segmentation analysis to be compared to reference data, including Full retinal thickness, Ganglion Cell Complex thickness, Retina Nerve Fiber Layer thickness and Optic Nerve Head metrics. The P200TE is indicated for use as a device to aid in the detection, diagnosis, documentation and management of retinal health and diseases that manifest in the retina.

The P200TE is a desktop retinal imaging device that can perform ultra-widefield scanning laser ophthalmoscopy and optical coherence tomography. Ultra-widefield images can be captured in less than half a second. The device is intended to be used by ophthalmic and optometry health care professionals. The P200TE delivers images in the following image modes: - . Scanning Laser Ophthalmoscopy - . Reflectance imaging - . Autofluorescence imaging - . Optical Coherence Tomography The P200TE instrument uses red and green laser illumination for reflectance imaging, enabling it to image pathology throughout the layers of the retina, from the sensory retina and nerve fiber layer, through the retinal pigment epithelium (RPE) and down to the choroid. The image can be separated to present the distinct retinal sub-structures associated with the individual imaging wavelengths. The P200TE instrument uses green laser illumination to excite autofluorescence (AF) emission from the naturally occurring lipofuscin in the fundus. The P200TE instrument uses a broadband near-infrared (N-IR) super-luminescent diode (SLD) light source for optical coherence tomography allowing a depth profile of the reflectance of the fundus to be recorded. The P200TE instrument uses N-IR laser illumination for reflectance imaging simultaneously with OCT imaging. Reflectance images are used to track eye position during OCT imaging and are not available to the user. The P200TE images the eye via two ellipsoidal mirrors arranged so that a focal point of one of the mirrors coincides with a focal point of the other mirror; a mirrored scanner is also located at this common focal point. The pupil of the subject's eye is placed at one of the other focal points. A second mirrored scanner is located at the remaining focal point; a laser or SLD reflected off this scanner is relayed onto the second scanner by the first ellipsoidal mirror and from there is reflected through the pupil and into the eve by the second ellipsoidal mirror. The second scanning element is different for OCT and SLO imaging. The energy reflected back from the retina, or emitted by fluorophores, returns through the same path to the detectors; the images are generated from the captured detector data. P200TE OCT images are automatically segmented to identify and annotate retinal layers and structures, enabling practitioners to efficiently assess retinal structures in support of detecting, monitoring and documentation. A Reference Database enables the automatic annotation of OCT segmentation results to provide comparison to a known healthy population. Segmentation outcomes are recorded as annotations and support adjustment as deemed necessary by the clinician. P200TE automatic seqmentation provides comprehensive retinal and optic nerve head information, including: - . Full Retinal Thickness (FRT) - . Ganglion Cell Complex Thickness (GCC) - ONH Analysis - ONH Nerve Fiber Layer Thickness The P200TE refers to the scan head component of the system. together with touchscreen and hand controller. The device is supported by an image server which delivers patient management and image storage, as well as interfacing with the business systems and Electronic Medical Record systems. The images are captured by the scan head under operator control and then automatically saved to the image server that uses a database structure to hold the images and patient information. For subsequent image review, a number of viewing PCs are connected remotely or via a local area network to the image server. The patient records and images are then accessible in a distributed format suited to the physical layout of the eye-care practice. Images can be reviewed through OptosAdvance review software (K162039) either on the image server, or on individual review stations, or other compatible PACS viewers.

The P200TE is a non-contact scanning laser ophthalmoscope and optical coherence tomographer. It is intended for in-vivo viewing, digital imaging, and analysis of posterior ocular structures, including the retinal nerve fiber layer, ganglion cell complex (GCC) and optic disc, under mydriatic and non-mydriatic conditions. It is indicated for producing high resolution, ultra-widefield, en face reflectance images, autofluorescence images, axial cross-sectional images, three-dimensional images, retinal layer boundary analysis, optic nerve head analysis and thickness maps. The P200TE is indicated for use as a device to aid in the detection, diagnosis, documentation and management of retinal health and diseases that manifest in the retina.

P200TE is a desktop retinal imaging device that can perform ultra-widefield scanning laser ophthalmoscopy and optical coherence tomography. Ultra-widefield images can be captured in less than half a second. The device is intended to be used by ophthalmic and optometry health care professionals. The P200TE delivers images in the following image modes: - Scanning Laser Ophthalmoscopy - . Reflectance imaging - Autofluorescence imaging - . Optical Coherence Tomography The P200TE instrument uses red and green laser illumination for reflectance imaging, enabling it to image pathology throughout the layers of the retina, from the sensory retina and nerve fiber layer, through the retinal pigment epithelium (RPE) and down to the choroid. The image can be separated to present the distinct retinal sub-structures associated with the individual imaging wavelengths. The P200TE instrument uses green laser illumination to excite autofluorescence (AF) emission from the naturally occurring lipofuscin in the fundus. The P200TE instrument uses a broadband near-infrared (N-IR) super-luminescent diode (SLD) light source for optical coherence tomography allowing a depth profile of the reflectance of the fundus to be recorded. The P200TE instrument uses N-IR laser illumination for reflectance imaging simultaneously with OCT imaging. Reflectance images are used to track eye position during OCT imaging and are not available to the user. The P200TE images the eye via two ellipsoidal mirrors arranged so that a focal point of one of the mirrors coincides with a focal point of the other mirror; a mirrored scanner is also located at this common focal point. The pupil of the subject's eye is placed at one of the other focal points. A second mirrored scanner is located at the remaining focal point; a laser or SLD reflected off this scanner is relayed onto the second scanner by the first ellipsoidal mirror and from there is reflected through the pupil and into the eye by the second ellipsoidal mirror. The second scanning element is different for OCT and SLO imaging. The energy reflected back from the retina, or emitted by fluorophores, returns through the same path to the detectors; the images are generated from the captured detector data. P200TE OCT images are automatically segmented to identify and annotate retinal layers and structures, enabling practitioners to efficiently assess retinal structures in support of detecting, monitoring and documentation outcomes are recorded as annotations and support adjustment as deemed necessary by the clinician. P200TE automatic segmentation provides comprehensive retinal and optic nerve head information, including: - . Full Retinal Thickness (FRT) - . Ganglion Cell Complex Thickness (GCC) - . ONH Cup and Disc Analysis - . ONH Nerve Fiber Layer Thickness The P200TE refers to the scan head component of the system, together with touchscreen and hand controller. The device is supported by an image server which delivers patient management and image storage, as well as interfacing with the business systems and Electronic Medical Record systems. The images are captured by the scan head under operator control and then automatically saved to the image server that uses a database structure to hold the images and patient information. For subsequent image review, a number of viewing PCs are connected remotely or via a local area network to the image server. The patient records and images are then accessible in a distributed format suited to the physical layout of the eye-care practice. Images can be reviewed through OptosAdvance review software (K162039) either on the image server, or on individual review stations, or other compatible PACS viewers.

The P200TxE is a non-contact scanning laser ophthalmoscope and optical coherence tomographer intended for in-vivo digital imaging of posterior ocular structures, including the vitro-retinal interface, retina, retinal layers, optic disc, choroido-scleral interface. It is indicated for producing high-resolution, wide field, en-face reflectance images, auto fluorescence images, fluorescein angiography images, indocyanine green angiography images, and axial cross-sectional images of the posterior ocular structures. The system enables practitioners to capture multi-modal images in support of detection, investigation and monitoring of retinal conditions.

P200TxE is a desktop retinal imaging device that can perform ultra-widefield scanning laser ophthalmoscopy and targeted navigated optical coherence tomography. The device is intended to be used by ophthalmic and optometry health care professionals, most commonly in a hospital environment. The P200TxE delivers images in the following image modes: - Scanning Laser Ophthalmoscopy - Red and green reflectance - Green-pumped autofluorescence - Fluorescein Angiography - Indo-Cyanine Green Angiography - Optical Coherence Tomography The P200TxE instrument uses red and green laser illumination for reflectance imaging, enabling it to image pathology throughout the layers of the retina, from the sensory retina and nerve fiber layer, through the retinal pigment epithelium (RPE) and down to the choroid. The image can be separated to present the distinct retinal sub-structures associated with the individual imaging wavelengths. The P200TxE instrument uses green laser illumination to excite autofluorescence (AF) emission from the naturally occurring lipofuscin in the human fundus. The P200TxE instrument uses infrared laser illumination for reflectance imaging simultaneously with OCT imaging. Infra-red reflectance images are used to track eye position during OCT imaging and are not available to the user. The P200TxE instrument uses infrared swept-source laser illumination for optical coherence tomography allowing a depth profile of the reflectance of the human fundus to be recorded. The P200TxE instrument uses blue laser illumination to excite emission from Sodium Fluorescein dye which is injected into the patient's bloodstream in a separate medical procedure as part of a Fluorescein angiography (FA) examination. The P200TxE instrument uses Infra-red (IR) laser illumination to excite emission from Indocyanine Green dye which is injected into the patient's bloodstream in a separate medical procedure as part of an Indocyanine Green anqiography (ICG) examination. Images can be reviewed through OptosAdvance review software (K162039) either on the image server, or on individual review stations, or other DICOM compliant PACS viewers.

The P200TE is a non-contact scanning laser ophthalmoscope and optical coherence tomographer intended for in-vivo viewing and digital imaging of posterior ocular structures, including the retinal nerve fiber layer and optic disc. It is indicated for producing high-resolution, widefield, en face reflectance images, autofluorescence images, and axial, cross-sectional images of the posterior ocular structures.

The P200TE is based on Scanning Laser Ophthalmoscope (SLO) technology which scans in two dimensions over the retina. Light reflected from the retina is detected and transformed into a digital image. Images may be stored and subsequently reviewed. The P200TE allows images to be captured in the following imaging modes: Reflectance imaging, Autofluorescence imaging, Optical coherence tomography imaging. The P200TE instrument uses red and green laser illumination for reflectance imaging, enabling it to image pathology throughout the layers of the retina, from the sensory retina and nerve fiber layer, through the retinal pigment epithelium (RPE) and down to the choroid. The image can be separated to present the distinct retinal sub-structures associated with the individual imaging wavelengths. The P200TE instrument uses green laser illumination to excite autofluorescence (AF) emission from the naturally occurring lipofuscin in the human fundus. The P200TE instrument uses infrared laser illumination for reflectance imaging simultaneously with OCT imaging. Infra-red reflectance images are used to track eye position during OCT imaging and are not available to the user. The P200TE instrument uses infrared superluminescent diode (SLD) illumination for optical coherence tomography allowing a depth profile of the reflectance of the human fundus to be recorded. The P200TE images the eye via two ellipsoidal mirrors arranged so that a focal point of one of the mirrors coincides with a focal point of the other mirror; a mirrored scanner is also located at this common focal point. The pupil of the subject's eye is placed at one of the other focal points. A second mirrored scanner is located at the remaining focal point; a laser or SLD reflected off this scanner is relayed onto the second scanner by the first ellipsoidal mirror and from there is reflected through the pupil and into the eye by the second ellipsoidal mirror. The second scanning element is different for OCT and SLO imaging. The energy reflected back from the retina, or emitted by fluorophores returns through the same path to the detectors; the images are generated from the captured detector data. This is operationally installed to be networked with computer peripherals and proprietary software that facilitate the storage, management and viewing of the retinal images. The images are captured by the scan head under operator control and then automatically saved to the image server that uses a database structure to hold the images and patient information. For subsequent image review, a number of viewing PC's are connected via a local area network to the image server. The patient records and images are then accessible in a distributed format suited to the physical layout of the eye-care practice.

OptosAdvance 4.0 is a standalone, browser-based software application intended for use by healthcare professionals to import, store, manage, display, analyze and measure data from ophthalmic diagnostic instruments, including: patient data, clinical images and information, reports, videos, and measurement of DICOM-compliant images.

The OA4 software application provides multi-dimensional visualization of digital images to aid clinicians in their analysis of anatomy and pathology. The OptosAdvance user interface follows typical clinical workflow patterns to process, review, and analyze digital images. The key features of OptosAdvance 4.0 include the ability to: - Acquire, store, retrieve and display DICOM image data; - Access patient data securely: - Search patient studies and select images for closer examination: - Interactively manipulate an image to visualize anatomy and pathology; - Select multiple images for comparison; - Annotate, tag and record selected views; - Measure distance (linear) and area of DICOM images; - Manage, backup and archive data; - Import and export data to network storage devices; - Securely access and transfer data: and - Output selected views to printers. The software relies on images being provided to a specified network path on the OptosAdvance Server by the connected ophthalmic device (Scanning Laser Ophthalmoscope, Fundus Camera, Optical Coherence Tomography unit, etc.) in a DICOM-compliant format. The software will then place the image and associated data on the network storage unit in a format which will allow the image to be available via a securely connected web browser. Locally archived studies will be securely pushed to the remote archive server for storage. The archive in the remote secure server serves as disaster recovery storage as well as access to the patient history.

The P200DTx scanning laser ophthalmoscope is indicated for use as a widefield and retinal fluorescence and autofluorescence imaging ophthalmoscope to aid in the diagnosis and monitoring of diseases and disorders that manifest in the retina.It is also indicated for use as a widefield scanning laser ophthalmoscope for viewing choroidal circulation patterns that are illuminated using Indocyanine Green dye and for aiding in both the assessment of choroidal circulation and in the diagnosis of choroiditis or choroidal diseases.

The Optos P200DTx is a scanning laser ophthalmoscope that uses lasers as a light source to illuminate the eye. The device consists of the following components and accessories: - . A scanhead which houses the lasers, the scanning elements of the light input path and the light return path including the detectors which convert light into electronic signal. The scanhead with its integral head and chin rest forms the key patient interface in conjunction with a facepad and associated aperture where the eye is placed. The image capture is controlled by a computer and associated embedded software including a safety module within the scanhead. This software runs on a Linux operating system. - . A touchscreen is attached by a cable to the scanhead to assist the operator in optimal patient positioning and to initiate an image capture. An image is displayed on the screen to allow the operator to confirm a suitable image has been taken. Patient positioning and image capture can also be conducted via a hand control. - o A personal computer with a monitor to allow image review and storage in a Windows environment.

The Daytona ICG scanning laser ophthalmoscope is indicated for use as a wide field scanning laser ophthalmoscope for viewing choroidal circulation patterns that are illuminated using indocyanine green dye and for aiding both in the assessment of choroidal circulation and in the diagnosis of choroiditis or choroidal diseases.

The Optos P200TICG is a scanning laser ophthalmoscope that uses a laser as a light source to illuminate the eye. The device consists of the following components and accessories: - A scanhead which houses the lasers, the scanning elements of the light input path and the . light return path including the detectors which convert light into electronic signal. With the exception of the chin support, the scanhead forms the key patient interface with a facepad and associated aperture where the eye is placed and a griphandle at each side of the scanhead. The image capture is controlled by a computer and associated embedded software including a safety module within the scanhead. This software runs on a Linux operating system. - A chin support is juxta-positioned to the scanhead to support the patient head and reduce . patient movement when the eye is placed at the aperture of the scanhead. - · A touchscreen is attached by a cable to the scanhead to assist the operator in ootimal patient positioning and to initiate an image capture. An image is displayed on the screen to allow the operator to confirm a suitable image has been taken. - A personal computer with a monitor to allow image review and storage in a Windows . environment.

The Optos spectral OCT/SLO with Microperimetry is indicated for use for in vivo viewing, axial cross section, and three dimensional imaging and measurement of posterior ocular structures including retina, macula, retinal nerve fiber layer and optic disk. It is used as a diagnostic device to aid in the detection and management of ocular diseases affecting the posterior of the eye. In addition, cornea sclera and conjunctiva can be imaged with the system by changing the focal position. The additional microperimetry functionality is indicated for use as a fixation examiner locating the patient's fixation site and by using the patient's subjective answer to light stimuli, generating a sensitivity map of the inspected retinal region.

The Optos OCT/SLO Microperimeter is a non-contact, non-invasive, high-resolution device that is an add-on module to the FDA-cleared Optos Optical Coherence Tomography/Scanning Laser Ophthalmoscope (OCT/SLO). The OCT/SLO is a computerized instrument that employs non-invasive, low-coherence interferometry to acquire simultaneous high-resolution cross-sectional OCT and confocal images of ocular structure, including retinal nerve fiber layer, macula and optic disc of the eye. The light source used for this is a super luminescent diode (SLD). The microperimetry test runs simultaneously with the confocal ophthalmoscope (SLO) and provides real-time tracking of retinal motion and patient fixation during the exam. Additionally, the patient's subjective response by depressing a button to light stimuli generates a sensitivity map for the inspected retinal region. The variable light stimuli are generated by an organic light emitting diode (OLED).

The Optos Advance Software is a web-based software system application intended for use in storing, managing, and displaying patient data, diagnostic data, videos and images from computerized diagnostic instruments or video documentation systems.

The Optos Advance Software is a web-based software system application intended for use in storing, managing, and displaying patient data, diagnostic data, videos and images from computerized diagnostic instruments or video documentation systems. The Optos Advance Software is an image review application that allows the user to view DICOM compatible images. The Optos Advance Software organizes the digitized images into studies and sessions. The digitized studies and sessions may be viewed by using an overall or bilateral display (i.e., display provides comparisons between old and new images). The software also allows physicians or technicians to create on-line notes with the ability to zoom in or out (i.e., enlarge or decrease magnification of images) and annotate such images with arrows or text boxes to highlight areas the user determines by training and experience to be of interest. The Optos Advance Software does not automatically highlight, annotate, or otherwise alter the images. In addition, the digitized studies and sessions and on-line notes may be viewed, archived on a central file server, or electronically shared in a secure manner with other health care professionals. The Optos Advance Software allows the user to interface a Scanning Laser Ophthalmoscope, Fundus Camera, OCT or other DICOM compliant diagnostic camera with the Optos Advanced Software via a secure network connection to the Optos Advance Server. The server has a watchdog service which processes the DICOM information sent via the network. The information is then processed and placed in local storage on the Optos Advance Server. The data is obfuscated at the server side to protect any patient information transferred. The Optos Advance Software does not require any customized software installed on the client PC. The images, annotations and DICOM data are all stored on the Optos Advance Server, which handles the archiving, reporting, and retrieval of the data. This server can be set up remotely over an HTTPS connection which allows secure remote transfer of the stored data for archive purposes.

The Panoramic 200T scanning laser ophthalmoscope is intended to be used as a wide field and retinal autofluorescence imaging ophthalmoscope to aid in the diagnosis and monitoring of diseases or disorders that manifest in the retina.

The Optos P200T is a scanning laser ophthalmoscope that uses lasers as a light source that is scanned by a deflection system in two axes across the retina to generate an image. The returned light then travels back along the same path to a light detector that converts the light to an electrical signal. This electrical signal is digitized and used to build up an electronic picture in a computer and displayed either on a cathode ray tube or a liquid crystal display.