Abstract: Distribution information of examination results of eye fundus is displayed. An imaging part carries out movie imaging of fundus. A tomographic image forming part comprises an optical system that generates and detects interference light by superposing signal light from fundus on reference light and a scanner that scans fundus with signal light, and forms tomographic image of fundus based on detection results of interference light acquired by the scanning. A setting part sets scan-target location of signal light on distribution information. A specifying part specifies image region in fundus image obtained by the movie imaging that corresponds to the scan-target location. A controller controls the scanner based on the specified image region to carry out scanning of signal light. The tomographic image forming part forms tomographic image from the detection results of interference light acquired by the scanning of signal light based on the control.

Abstract: According to one embodiment, an ophthalmic examination system includes a plurality of ophthalmic examination apparatuses and a management apparatus that manages the operational status of the ophthalmic examination apparatuses. The ophthalmic examination system includes a receiver, a counting unit, a storage device, and a storage controller. The receiver receives first identification information for identifying a subject. The counting unit includes a counter provided for each apparatus group including at least one ophthalmic examination apparatus, and counts the number of times of use of the apparatus group in units of the first identification information of the subject examined with the ophthalmic examination apparatus included in the apparatus group. The storage controller acquires a counter value indicated by the counter from the counting unit, associates the counter value with second identification information for identifying the apparatus group, and stores them in the storage device.

Abstract: According to one embodiment, an ophthalmic examination apparatus includes an examination unit and an analyzer. The examination unit is used to optically examine a subject's eye. The analyzer is configured to analyze examination data obtained by the examination unit, and thereby generate risk information indicating the risk of a specific disease.

Abstract: Distribution information of examination results of eye fundus is displayed. An imaging part carries out movie imaging of fundus. A tomographic image forming part comprises an optical system that generates and detects interference light by superposing signal light from fundus on reference light and a scanner that scans fundus with signal light, and forms tomographic image of fundus based on detection results of interference light acquired by the scanning. A setting part sets scan-target location of signal light on distribution information. A specifying part specifies image region in fundus image obtained by the movie imaging that corresponds to the scan-target location. A controller controls the scanner based on the specified image region to carry out scanning of signal light. The tomographic image forming part forms tomographic image from the detection results of interference light acquired by the scanning of signal light based on the control.

Abstract: According to one embodiment, an ophthalmic examination apparatus includes an examination unit and an analyzer. The examination unit is used to optically examine a subject's eye. The analyzer is configured to analyze examination data obtained by the examination unit, and thereby generate risk information indicating the risk of a specific disease.

Abstract: Distribution information of examination results of eye fundus is displayed. An imaging part carries out movie imaging of fundus. A tomographic image forming part comprises an optical system that generates and detects interference light by superposing signal light from fundus on reference light and a scanner that scans fundus with signal light, and forms tomographic image of fundus based on detection results of interference light acquired by the scanning. A setting part sets scan-target location of signal light on distribution information. A specifying part specifies image region in fundus image obtained by the movie imaging that corresponds to the scan-target location. A controller controls the scanner based on the specified image region to carry out scanning of signal light. The tomographic image forming part forms tomographic image from the detection results of interference light acquired by the scanning of signal light based on the control.

Abstract: According to one embodiment, an ophthalmic examination system includes a plurality of ophthalmic examination apparatuses and a management apparatus that manages the operational status of the ophthalmic examination apparatuses. The ophthalmic examination system includes a receiver, a counting unit, a storage device, and a storage controller. The receiver receives first identification information for identifying a subject. The counting unit includes a counter provided for each apparatus group including at least one ophthalmic examination apparatus, and counts the number of times of use of the apparatus group in units of the first identification information of the subject examined with the ophthalmic examination apparatus included in the apparatus group. The storage controller acquires a counter value indicated by the counter from the counting unit, associates the counter value with second identification information for identifying the apparatus group, and stores them in the storage device.

Abstract: Distribution information of examination results of eye fundus is displayed. An imaging part carries out movie imaging of fundus. A tomographic image forming part comprises an optical system that generates and detects interference light by superposing signal light from fundus on reference light and a scanner that scans fundus with signal light, and forms tomographic image of fundus based on detection results of interference light acquired by the scanning. A setting part sets scan-target location of signal light on distribution information. A specifying part specifies image region in fundus image obtained by the movie imaging that corresponds to the scan-target location. A controller controls the scanner based on the specified image region to carry out scanning of signal light. The tomographic image forming part forms tomographic image from the detection results of interference light acquired by the scanning of signal light based on the control.