Data Acquisition Service for NAVIS-EX (hereafter referred to as DAS) acquires data from measurement devices and transfers it to NAVIS-EX.In addition to acquisition of measurement data, DAS registers patients newly registered with the ALScan/CEM-530 to NAVIS-EX.

The AL-Scan Viewer for NAVIS-EX software (hereafter referred to as AL-Scan Viewer) is used to handle the AL-Scan data within NAVIS-EX. This function is added to the computer as a plug-in for NAVISEX. The measured value data and waveform can be displayed, the IOL power can be calculated, andthe toric lens assist data can be created. The AL-Scan data is imported to NAVIS-EX using separate software, Data Acquisition Service.

The CEM Viewer for NAVIS-EX software (hereafter referred to as CEM Viewer) is used to view the examination data of the SPECULAR MICROSCOPE CEM-530 or use the data for follow-up within IMAGE FILING SOFTWARE NAVIS-EX. This function is added to the computer as a plug-in for NAVIS-EX. The examination data is displayed, analyzed, and used for follow-up. CEM Viewer can be used to display examination data on the Viewer screen or follow up data on the Follow-Up screen. The examination data is saved and managed within NAVIS-EX. The CEM Viewer data is imported to NAVIS-EX using separate software, Data Acquisition Service for NAVIS-EX.

The Final Fit software receives the measured data from the Refractive Power/Corneal Analyzer OPD-Scan Model ARK-10000 via floppy disk etc. Then the Final Fit software performs a simulation of postoperative corneal shape and generates shot data using the imported data that was measured by the ARK-10000 and amounts of correction that are entered. The Final Fit software has two major functions: 1.Generating shot data to be used with the EC-5000 based on the measured data of the ARK-10000 2.Comparing postoperative data measured by ARK-10000 with the preoperative or target data (Simulated data just before generating shot data)

The delivery unit is used for endophotocoagulation. The photocoagulation system can be easily comprised by connecting the optional sterilized endophotoprobe or optional sterilized coaxial illumination probe to the Green Laser Photocoagulator GYC-1000 and GYC-500, and attaching the protective filter to the main laser device as well as the surgical microscope. This photocoagulation system enables laser endophotocoagulation while observing the affected area through the surgical microscope.

The delivery unit is used for endophotocoagulation. The photocoagulation system can be easily comprised by connecting the optional sterilized endophotoprobe or optional sterilized coaxial illumination probe to the Multicolor Laser Photocoagulator System MC-500, and attaching the protective filter to the main laser device as well as the surgical microscope. This photocoagulation system enables laser endophotocoagulation while observing the affected area through the surgical microscope.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

It is used to deliver the laser beam from the main laser device into the eye. The sterilized endophoto probe comes already sterilized at the factory and is disposable. Sterilized endophoto probes are available in a variety of tip shapes and diameters.

delivery unit is connected to the laser photocoagulator and YAG laser system to comprise the photocoagulation system and to treat affected areas using a slit lamp.The photocoagulation system enables photocoagulation using a green laser beam (532 nm) or photodisruption using a Nd:YAG laser beam (1064 nm, hereafter referred to as “YAG laser beam”) or SLT laser (532 nm, for YC-200 S plus only) while observing the patient’s eye with the slit lamp.

Expansion box is the optional accessory that is used to connect a scan delivery unit and the external devices (LAN cable, barcode scanner, or magnetic card reader) to the GYC-500.

The delivery unit is connected to the Green Laser Photocoagulator GYC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a green laser beam (532 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system that ensures low laser power density on the anterior segment is incorporated.configuration in which the delivery unit comes together with a slit lamp mounted on a motorized optical table so that the photocoagulation system (with the scan function) can be comprised by simply connecting to the main laser device. NIDEK SL-1800 type is available.

The delivery unit is connected to the Green Laser Photocoagulator GYC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a green laser beam (532 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system that ensures low laser power density on the anterior segment is incorporated. A delivery unit to be attached to an existing slit lamp mounted on an existing motorized optical table. The delivery unit is then connected to the main laser device to comprise the photocoagulation system (with the scan function). ZEISS SL130 type is available.

The delivery unit is connected to the Green Laser Photocoagulator GYC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a green laser beam (532 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system that ensures low laser power density on the anterior segment is incorporated. A delivery unit to be attached to an existing slit lamp mounted on an existing motorized optical table. The delivery unit is then connected to the main laser device to comprise the photocoagulation system (with the scan function). HAAG 900 BQ type is available.

The AUTO REFRACTOMETER AR-F is a medical device which measures objective refractive errors of the patient’s eye. This device also offers retroillumination mode for observing the condition of the ocular media, and measures the amplitude of accommodation.

The AUTO REF/KERATOMETER ARK-F is a medical device which measures objective refractive errors and corneal curvature radius of the patient’s eye. This device also offers retroillumination mode for observing the condition of the ocular media, and measures the amplitude of accommodation.

The Nidek CHART PROJECTOR CP-9 is a chart presenting device that can achieve refraction at a distance of 2.9 m to 6.1 m (standard 5 m).The main unit is operated by a wireless remote control or the control box on a motorized refractor (RT).

The assembly system (control unit & DS-10EA Adapter & existing endoscope in the market) can be used to record digital photographs and video ofthe body.

DS-10A is a digital hand-held anterior scope used to record digital photographs and video of anterior area of the human eye and surrounding area.

DS-10D is a digital hand-held dermatoscope used to record digital photographs and video of the human skin.

DS-10E is a digital hand-held otoscope used to record digital photographs and video of the human ear’s canal and tympanic membrane.

DS-10EA Adapter is designed to connect the control unit of DS-10 and the existing endoscope in the market. The assembly system (control unit & DS-10EA Adapter & existing endoscope in the market) can be used to record digital photographs and video of the body.

NIDEK DS-10F is a digital hand-held eye-fundus camera used to record digital photographs and video of fundus (including retina, macula and optic disc) of the human eye and surrounding area.

DS-10G is a digital hand-held camera used to record digital photographs and video of the human body.

NIDEK DS-20 is a digital hand-held eye-fundus camera used to record digital photographs and video of fundus (including retina, macula and optic disc) of the human eye and surrounding area. DS-20 consists of control unit and optical lens DS-20F (Digital Eye Fundus Camera).

NIDEK DS-20 is a digital hand-held eye-fundus camera used to record digital photographs and video of fundus (including retina, macula and optic disc) of the human eye and surrounding area.

The delivery unit is connected to the YELLOW LASER PHOTOCOAGULATOR YLC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a yellow laser beam (577 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system (SOLIC *1) that ensures low laser power density on the anterior segment is incorporated. The ZEISS SL130 type is available.*1 Safety Optics with Low Impact on Cornea

The delivery unit is connected to the YELLOW LASER PHOTOCOAGULATOR YLC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a yellow laser beam (577 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system (SOLIC *1) that ensures low laser power density on the anterior segment is incorporated.*1 Safety Optics with Low Impact on Cornea

The delivery unit is connected to the Yellow Laser Photocoagulator YLC-500 to comprise the photocoagulation system and to treat affected areas using a binocular indirect ophthalmoscope. The photocoagulation system enables photocoagulation using a yellow laser beam (577 nm) while observing the patient’s eye with the binocular indirect ophthalmoscope.

The delivery unit is connected to the YELLOW LASER PHOTOCOAGULATOR YLC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a yellow laser beam (577 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system (SOLIC *1) that ensures low laser power density on the anterior segment is incorporated. The ZEISS SL130 type is available.A delivery unit to be attached to an existing slit lamp mounted on an existing motorized optical table. The delivery unit is then connected to the main laser device to comprise the photocoagulation system (with the scan function). The ZEISS SL130 type is available: *1 Safety Optics with Low Impact on Cornea

The delivery unit is connected to the YELLOW LASER PHOTOCOAGULATOR YLC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a yellow laser beam (577 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system (SOLIC *1) that ensures low laser power density on the anterior segment is incorporated.*1 Safety Optics with Low Impact on Cornea

The delivery unit is connected to the YELLOW LASER PHOTOCOAGULATOR YLC-500 to comprise the photocoagulation system and to treat affected areas using a slit lamp. The photocoagulation system enables photocoagulation using a yellow laser beam (577 nm) while observing the patient’s eye with the slit lamp. In order to reduce damages to the ocular media, the optical system (SOLIC *1) that ensures low laser power density on the anterior segment is incorporated. The ZEISS SL130 type is available.A delivery unit to be attached to an existing slit lamp mounted on an existing motorized optical table. The delivery unit is then connected to the main laser device to comprise the photocoagulation system (with the scan function). The HAAG BQ900 type type is available: *1 Safety Optics with Low Impact on Cornea

The NIDEK AUTO LENSMETER LM-7/LM-7P measures the optical performance of spectacle lenses such as single vision, bifocal (trifocal), and progressive power lenses or contact lenses.

The NIDEK AUTO LENSMETER LM-7/LM-7P measures the optical performance of spectacle lenses such as single vision, bifocal (trifocal), and progressive power lenses or contact lenses. LM-7P is equipped with a printer.

The NIDEK MICROPERIMETER, MP-3 measures the visual sensitivity of a specified area on the fundus according to the patient’s response, and captures color fundus images. The fundus image overlaid with the retinal sensitivity mapping is displayed on the screen for fundus-image-correlated evaluation.

The RT-6100 is a motorized refractor for subjective refraction designed to be connected with other Nidek products such as the Auto Refractometer and/or Lensmeter to import their measurement data. Measurement of refractive errors (spherical power, cylindrical power, and cylinder axis) and binocular visual function testing are performed according to the patient’s response.

The NIDEK SLIT LAMP SL-2000 is used to magnify the eyeball, eyelid, and eyelash of patients for observation, using slit illumination light.

The Nidek Space Saving Chart SSC-100 is a refraction device used in combination with the refractor head of the RT-6100 or RT-3100.

The ST-600 is the system table on which the Nidek Refractor RT-6100, RT-3100, or a manually operated refractor such as the RT-600 or SLY-100 is installed. The system table allows chart presenting devices (SSC-370, CP-770, SC-1600 series), auto refractometers, lensmeters (LM-1800 series, LM-7 series) to be combined into an ophthalmic workstation. The system table consists of a refractor head lift arm equipped with a refractor head and a motorized main table. While compact, it includes a motorized table with a stroke up to 200 mm for the up-and-down movement, a one-touch swingable refractor head lift arm, and a drawer that can hold 35 types of triallenses.

The ST-6100 is the system table on which the Nidek Refractor RT-6100, RT-3100, or a manually operated refractor such as the RT-600 or SLY-100*1 is installed. The system table allows chart presenting devices (SSC-370, CP-770, SC-1600 series), auto refractometers, lensmeters (LM-1800 series, LM-7 series), and slit lamp (SL-1800 TAKAGI M2/M4) to be combined into an ophthalmic workstation. The system table consists of a refractor head lift arm equipped with a refractor head and a motorizedmain table. While compact, it includes a motorized table with a stroke up to 180 mm for the up-and-down movement, a one-touch swingable refractor head lift arm, and a drawer that can hold 40 types of trial lenses. Trays for mounting an auto refractometer, or for mounting a slit lamp and auto refractometer are also available.

The TS-310 is a space-saving automated refraction system that uses a combination of the refractor head of the RT-3100 and a control box.• With the high precision LCD, visual acuity of 5 m as well as near visual acuity of 40 cm can be measured with the same accuracy as a standard refraction using actual distances.• The objective data measured by a NIDEK auto refractometer and the lensometry data measured by a NIDEK lensmeter can be imported and used in this device.

The OPHTHALMIC YAG LASER SYSTEM YC-200 is an ophthalmic pulsed-laser system consisting of a main body containing the laser, a head rest, a control box, and a connector box. The device uses a 1,064 nm pulsed Nd: YAG laser as the treatment beam source. Laser pulses are generated using a method called passive Q-switching. With this method, short high-power pulses can be emitted. At the target, the emitted pulses cause photodisruption, which is fragmentation of tissue using light energy.

The NIDEK YELLOW LASER PHOTOCOAGULATOR YLC-500 is an ophthalmic laser photocoagulator consisting of a main laser device, a control box, and a power supply. With various types of laser delivery units, it comprises a photocoagulation system. The YLC-500 uses a 577 nm optically pumped semiconductor laser (yellow laser beam) as the treatment beam source. The pumped yellow laser beam (treatment beam) and the aiming beam (635 nm, red laser beam) are fed coaxially into the fiber optic cable. The output terminal of the fiber optic cable is connected to a delivery unit. The laser beam is formed into the desired spot size by the optical system, then the laser beam is emitted to the target area. The delivery units are equipped with a protective filter that protects the physician’s eyes from exposure to the treatment beam reflected from the patient’s eye or contact lens.