Abstract: An imaging apparatus for endoscope includes: a coupler; an exterior casing connected to the coupler and extending along a first axis crossing an optical axis of an endoscope, the exterior casing having outer dimensions in a direction along the first axis greater than outer dimensions in a direction along the optical axis of the endoscope; an optical system; and an imaging unit. The exterior casing includes a first exterior part, a second exterior part, and a connector part. The optical system and the imaging unit are housed, in the exterior casing, side by side on the optical axis of the endoscope such that light of an image of a subject guided by the optical system is captured by the imaging unit.

Abstract: An endoscope having a tip part including an exterior housing including a circumferentially extending side wall with a proximal opening, the circumferentially extending side wall defining an interior space with an air volume; a camera assembly positioned in the interior space so that the air volume envelops at least the distal portion of the camera assembly; and an interior housing part including a circumferentially extending closure surface and a circumferentially extending attachment surface, the interior housing part being positioned in the proximal opening; wherein the exterior housing and interior housing part are formed as separate prefabricated components, wherein the closure surface is configured for closing the proximal opening of the exterior housing so as to liquid-seal the air volume in the tip part, and wherein the attachment surface extends proximally from the proximal opening and is configured for attaching the interior housing part to another element of the tip part.

Abstract: An endoscope provides a connector substrate of an endoscope connector to be connected to a processor with a temperature sensor for directly measuring a temperature of the connector substrate, performs control to restrict a power supply (in other words, limit and stop a power supply) from an endoscope power supply circuit according to the measured temperature of the connector substrate (in other words, the endoscope connector), and thereby appropriately manages the temperature of the endoscope connector in the endoscope.

Abstract: A disclosed endoscopic device includes a front cabinet unit including an optical system provided with a phase modulation element which modulates a space distribution of a phase of light; and a rear cabinet unit detachably connected to the front cabinet unit, the rear cabinet unit including an imaging unit which receives light transmitted through the optical system of the front cabinet unit, and converts the light into an electrical signal.

Abstract: Provided are a medical image processing device, an endoscope system, and a method of operating a medical image processing device that can enhance the reliability for recognition results obtained by recognition processing in a case where a lesioned part or the like is diagnosed by recognition processing of artificial intelligence (AI). Comparison between a first medical image and a second medical image to be a comparison target with respect to the first medical image is performed. A specific medical image selected in accordance with a result of the comparison from among the second medical images is acquired. A monitor displays a plurality of recognition results that are obtained from recognition processing that is performed with respect to the specific medical image and performed for recognizing the observation target.

Abstract: In one aspect, a light module is disclosed, which includes a housing providing a hollow chamber extending from a proximal end to a distal end, and a lens positioned in the hollow chamber, where the lens has a lens body comprising an input surface for receiving light from a light source and an output surface through which light exits the lens body, said lens further comprising a collar at least partially encircling said lens body. The light module further includes at least one shoulder on which the lens collar can be seated for positioning the lens within the housing. A light source, e.g., an LED, is coupled to the hollow chamber, e.g., at its proximal end, for providing light to the lens.

Abstract: A receptacle module for detachably connecting a connector of a distal end device coming into contact with or inserted into a subject includes: a receptacle substrate including a first surface on which a receptacle to which the connector is detachably connected is mounted, and a second surface on an opposite side of the first surface; a patient circuit unit conducted to the distal end device via the receptacle; and a conductive shielding member mounted on the second surface and configured to shield the patient circuit unit from the opposite side.

Abstract: An endoscope, including: a handle, a sheath tube, an endoscopic cannula, and a tensioning mechanism. The sheath tube includes a first axial guide hole and a first joint pin disposed in the first axial guide hole. The handle includes a second axial guide hole and a second joint pin disposed in the second axial guide hole. The first joint pin matches and is directly connected to the second joint pin. The sheath tube matches and connects to the handle. The handle includes a cavity and the tensioning mechanism is disposed in the cavity. The endoscopic cannula includes a flexible part extending out of the sheath tube and a rigid part fixed in the sheath tube. The flexible part includes a steering wire. The first joint pin is connected to the steering wire. The tensioning mechanism is connected to the second joint pin.

Abstract: A wireless medical imaging system comprising a head unit is provided. The head unit comprises a head unit case, an integrated light source, an image sensor, a wireless transceiver, a central processing unit, and a user-input component. The head unit case has an external surface defining an external cavity, an internal surface defining an internal cavity, a first aperture, and a second aperture. The integrated light source, the image sensor, the wireless transceiver, and the central processing unit are disposed within the internal cavity. The integrated light source extends from within the internal cavity into the first aperture and is configured to transmit light from the head unit through the first aperture. The image sensor is configured to detect an image transmitted into the head unit through the second aperture. The external cavity is configured to receive an external battery. The user-input component is disposed on the external surface.

Abstract: An optical instrument for capturing stereo images includes two optical devices for producing a real image in each case, two carriages, which are each movable along a predetermined path relative to one of the optical devices, two image sensors, each with a light-sensitive surface for capturing the respective real image, with one of the image sensors in each case being fastened to the carriage, and one reflecting surface in the beam path between the optical device and the image sensor in each case.

Abstract: The invention concerns a handle for a video endoscope for medical or industrial applications, comprising a housing and an interface portion, where the interface portion includes a first connector element at its distal end connected to an electric transmission element that is connectable to a connector element of an associated elongate shaft to form a detachable electrical and/or mechanical connection between the handle and the associated shaft. The includes an electrical connection assembly arranged at an exterior of the interface portion forming an electrical connection between the electric transmission element and a stationary electric and/or electronic component of the handle. The handle also includes at least a first bearing for rotatably supporting the interface portion in and/or at the housing, such that when the shaft and handle are connected the shaft is rotatable via the rotatably supported interface portion relative to the housing of the handle.

Abstract: A surgical cannula includes a camera disposed at the distal end to permit visualization of tissue. A hinge pivotably couples the camera to the cannula and permits the camera to pivot from a first position at the distal end of the cannula to a second position different than the first position at the distal end of the cannula. Some implementations include a pointed distal tip that carries the camera. Some implementations include two cameras posed back to back.

Abstract: A portable endoscopic inspection system comprises an endoscope having a proximal end with a flanged eyepiece for observation and a distal end with a lens assembly for insertion into a region of interest. A light port transports incident light to the region of interest along an lighting pathway, and reflected light is transported along an imaging pathway from the lens assembly to the eyepiece. A wireless imaging unit comprises a light source which detachably couples to the light port for generating the incident light, and an imaging sensor for recording images of the reflected light from the eyepiece. The wireless imaging unit comprises a variable coupling system which mechanically couples the imaging sensor to the flanged eyepiece independent of the shape and/or size of the flange of the eyepiece.

Abstract: An endoscopy device (1) with an endoscope (2) and a camera control unit (12) is provided. The endoscope (2) has an endoscope shaft (3) and an endoscope head (4), and the endoscope shaft (3) is made of a metallic material. Electronics (8) are arranged in the endoscope head (4) and are connected to an attachment cable (10), and the electronics (8) and the attachment cable (10) are shielded by an electronics shield (14). A galvanic barrier (15) is set up between the electronics shield (14) and the endoscope shaft (3) and couples the endoscope shaft (3) capacitively to the electronics shield (14).

Abstract: An eyepiece device for a surgical instrument, the eyepiece device including: an eyepiece frame; and at least one optical unit accommodated in the eyepiece frame, wherein the at least one optical unit comprises at least one first optical element and a second optical element connected with the at least one first optical element, wherein the second optical element is formed from a second material with abnormal dispersion and the first and the second optical elements together correct chromatic aberration; wherein the eyepiece frame comprises an expansion chamber for at least the second optical element, the expansion chamber forming an installation space for at least the second optical element in a radial direction.

Abstract: The present disclosure is directed to a medical device assembly. The medical device assembly described herein may include a medical device and a control unit. The medical device may include an imaging apparatus, an electrical wire coupled to the imaging apparatus, an illumination device, an illumination connector coupled to the illumination device, and a connector coupled to the electrical wire and the illumination connector. The control unit may include an electrical interface, a light source, and a port, wherein the port is configured to receive the connector to operatively couple the electrical wire to the electrical interface, and to operatively couple the illumination connector to the light source, the connector being removably attachable to the port.

Abstract: Systems, methods and devices are provided for illuminating tissue with monochromatic or broadband light and imaging light that has been reflected back from the tissue. Imaging may be white-light imaging or hyperspectral imaging. The system can be a stand-alone hyperspectral imaging system, integrated as part of an external video scope, or as an auxiliary imaging module on an external videoscope. Various elements of a video scope that is particularly suited for minimally invasive surgery is first presented and then its configurations suitable for hyperspectral imaging are explained.

Abstract: An ocular portion coupling apparatus includes: a stepped pipe on which lock balls which are pressed against an eyepiece, are slidably arranged; and a rotation ring placed turnably on a ring placing surface, the rotation ring including a cam surface, wherein the stepped pipe includes convex pieces protruding outward from an outer circumferential surface of the large diameter portion, the convex pieces including one planes, the one planes and the ring placing surface sandwiching the rotation ring, and the rotation ring includes: axis direction grooves through which the convex pieces can pass; slide planes on which the one planes are slidably arranged; and restriction portions configured to prevent the convex pieces from dropping out through the axis direction grooves.

Abstract: A device for recording an image of an object field on a human or animal body from outside of the body including a shaft and an observation optical system, arranged at a distal end of the shaft, for recording the image of the object field, wherein the observation optical system is embodied as a stereo optical system including an electronic image recorder for recording a stereo image of the object field and wherein the device includes an optical unit, which includes the observation optical system and is rotatable about a first axis of rotation approximately parallel to a direction of view of the observation optical system.

Abstract: A cable includes: a core wire that is electrically conductive; a first inner insulation layer that covers an outer periphery of the core wire and has an exposing portion that exposes the core wire at a distal end side of the first inner insulation layer; and a first latching portion that is fixed to the core wire in the exposing portion, and is latched onto the first inner insulation layer and holds the core wire by coming into contact with the first inner insulation layer.

Abstract: An endoscope system according to the present disclosure includes an apparatus for transferring image data configured to include an image sensor which generates image data and which includes a first image terminal and a second image terminal for transferring at least a portion of the image data, and to include a first optical fiber module and a second optical fiber module which are connected with the first image terminal and the second image terminal respectively; an image data input unit configured to be connected with the apparatus for transferring image data and to transfer the image data output through the apparatus for transferring image data via a set path; and an image processing unit configured to perform an image processing for the image data transferred from the image data input unit under control of CPU.

Abstract: An electronic device and a method for photographing an image in a multi-direction is provided. The electronic device includes a case, including a display, an image sensor, and a processor, and a crown disposed on the case, the crown including a camera window. The crown is rotatable and when the crown is rotated, the camera window is rotated, and light passing through the camera window is transmitted to the image sensor.

Abstract: The present invention relates to a device for three dimensional endoscopic surgery, and more specifically, to a device for three dimensional endoscopic surgery, wherein therapeutic tools including an endoscope can be inserted into the human body through one main tube, and the therapeutic tools can be spread outward to be utilized in the human body, thereby minimizing an incision site in case of surgical operation while allowing various medical operations to be performed using one main tube. The present invention is a device for endoscopic surgery comprising: a main tube which is inserted into the body of a patient; first and second cameras which are inserted in a row into the main tube; a light source portion which is inserted between the first and second cameras; and a therapeutic tool which is located below the second camera to be inserted into the main tube.

Abstract: An endoscope includes a lens unit, a diaphragm for brightness adjustment, a diaphragm for type determination and an image pickup device. The diaphragm for type determination has an image formation portion an image of which is formed in a light receiving section, a position and a number of the image formation portion provided for the diaphragm for type determination differing according to a plurality of adapters. The endoscope further includes a CPU that determines a type of an adapter by determining a position and a number of the image formation portion an image of which is formed in the light receiving section.

Abstract: A control mechanism for an endoscope (1) comprising a Bowden cable. the Bowden cable has an outer guide tube (9) having a first length between a proximal end and a distal end of said outer guide tube (9) and an inner pull-wire (15) having a second length between a proximal end and a distal end of said inner pull-wire (15). The second length is longer than the first length. The outer guide tube (9) comprises a first guide tube section (9?) and a second guide tube section, where said first guide tube section (9?) has plastic and elastic properties, which are different from the plastic and elastic properties of said second guide tube section (9?).

Abstract: A digital diagnostic system with interchangeable lenses includes a host and at least one optical lens module, wherein the host without any optical lens having curved surface includes a focus adjustment module which drives an image capture module to linearly move. Therefore, the optical system of the optical lens module can be designed independently, and no need to include focus adjustment mechanism, so that the optical design of the optical lens module can be greatly simplified, and the system allows a greater mechanism tolerance, thereby reducing manufacturing difficulty and manufacturing cost.

Abstract: An image processing device includes a memory and a processor. The processor acquires an image sequence, calculates deformation information about images, performs a feature area detection process, performs an identicalness determination process on an ith feature area and an (i+1)th feature area based on the deformation information about an ith image and an (i+1)th image, and performs an image summarization process. The processor performs the deformation information calculation process that calculates the deformation information based on an ith deformation estimation target area that includes an area of the ith image other than the ith feature area, and an (i+1)th deformation estimation target area that includes an area of the (i+1)th image other than the (i+1)th feature area.

Abstract: A rotational device for rotating an endoscope having a stationary assembly, a rotatable assembly, which includes a distal coupling means for coupling to an endoscope, a drive means, which is embodied for putting the distal coupling means into rotational motion for rotating an endoscope connected to the distal coupling means, a proximal coupling means at the stationary assembly for coupling to a camera device, and an optical unit for transmitting light from the distal coupling means to the proximal coupling means.

Abstract: A plug connector having a housing and at least four contact elements arranged within the housing to transmit high-frequency signals, wherein two contact elements respectively form a contact element pair, each of which is integrated into an insulating body. In that arrangement, the insulating bodies are each surrounded by a shield.

Abstract: The present invention concerns an endoscope for minimally invasive surgery, especially for use within a surgical robotic system, which comprises a main support device (4), which basically extends over the entire length of the endoscope from the outside to the interior of the body, and which comprises at its distal end at least one illumination unit (15, 16) and two imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c), wherein each of the imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c) is basically arranged in such a way that it can be rotated to the outside on the same level as the main support device (4), a trocar (1), by means of which the endoscope can enter the body, and an additional support device (3), which is provided at the trocar (1) and/or the main support device (4), wherein the additional support device (3) comprises at its distal end an additional imaging device (8, 9, 10, 11), which can be rotated from the additional support device (3) to the outside and wherein the additional imaging device

Abstract: A method of using a scanning microscope to rapidly form a digital image of an area. The method includes performing an initial set of scans to form a guide pixel set for the area and using the guide pixel set to identify regions representing structures of interest in the area. Then, performing additional scans of the regions representing structures of interest, to gather further data to further evaluate pixels in the regions, and not scanning elsewhere in the area.

Abstract: In a processor of a wireless image transmission system that transmits, by radio communication, an image signal obtained by converting an image obtained by an endoscope apparatus, a communication state detection unit monitors a communication state of radio communication. An editing unit edits the image signal according to a mode in which the endoscope apparatus obtains an image when the deterioration of a communication state is detected by the communication state detection unit. A transmission unit transmits the image signal output from the editing unit to a receiver.

Abstract: A multi-function high definition (HD) cable, and more particularly, a multi-function cable having components permitting its interchangeable use with a variety of modules, the modules including endoscopes, cameras input units and display units. The multi-function cable is capable of receiving inputs from multiple different types of modules having diverse data and signal formats and may generate diverse output signals compatible with differing modules. The multi-function cable is used in a medical operating room.

Abstract: An endoscope apparatus has a clamp circuit that clamps an image pickup signal that is obtained by picking up of an image with a CCD at timing that is specified with an optical black pulse, an image processing section that applies various kinds of signal processing to the image pickup signal that is outputted from the clamp circuit to convert the image pickup signal into a video signal, and a timing generator and a control section that change a phase of the optical black pulse in response to a kind of an endoscope or a length of an insertion portion.

Abstract: An endoscope apparatus includes an insertion part which has an imaging mechanism at a distal end portion and which is bendable and elongated; a display part which displays an image acquired by the imaging mechanism; a manipulating part which has a swinging body and which performs curving manipulation of the insertion part; and a housing which provides the display part and the manipulating part to a front face thereof, and which connects the insertion part with a back face opposite to the front face.

Abstract: A scan assisting fixing device and a scanner using the same are provided. The fixing device is for fixing an object to be scanned, which includes a scanning portion and a holding portion. The fixing device includes an accommodation region, a scan window and a protrusion portion. When the holding portion is loaded in the accommodation region, the scanning portion correspondingly disposed in the scan window is retained and fixed by the protrusion portion, and the position of the holding portion in the fixing device is constant, so that the scanning portion is always within the range of the field depth of the scanner regardless of the specification of the positive film holder, and the clarity of the scanned image is assured.

Abstract: A multi-function cable, and more particularly, a multi-function cable having components permitting its interchangeable use with a variety of modules, the modules including endoscopes, cameras input units and display units. The multi-function cable is capable of receiving inputs from multiple different types of modules having diverse data and signal formats and may generate diverse output signals compatible with differing modules. The multi-function cable is used in a medical operating room.

Abstract: A camera system having a camera head with an imaging device and a first connector; a camera control unit with a processor and a second connector configured to removably engage the first connector; and wherein the first connector and the second connector are configured to allow for contactless transfer of data from the camera head to the camera control unit and contactless transfer of power from the camera control unit to the camera head.

Abstract: An endoscope apparatus includes an insertion part which has an imaging mechanism at a distal end portion; a display part which displays an image acquired by an observation mechanism, a manipulating part which performs curving manipulation of the insertion part; and a housing which accommodates the display part and the manipulating part to a front face thereof, and which connects the insertion part with a back face opposite to the front face. The manipulating part has a swingable first joystick; and a curving mechanism having the first joystick and a manipulating member connected thereto. The swinging center of the first joystick is located inside a region specified by a portion where fingers are arranged in a side view of the housing when a user holds the housing, and by a distal end of the first joystick protruding toward the front face.

Abstract: An image processing device includes a special light image acquisition section that acquires an image including an object image that includes information in a specific wavelength band as a special light image, an attention area detection section that detects an attention area based on a feature quantity of each pixel of the special light image, a disappearance determination section that determines whether or not the attention area has disappeared from a display target area based on a detection result for the attention area, the display target area being an area displayed on an output section, a guide information generation section that generates guide information about the attention area that has disappeared based on a determination result of the disappearance determination section, and an output control section that controls output of information including the guide information generated by the guide information generation section.

Abstract: An endoscope with a USB signal transmission includes an exploring tube, a lens, an image sensing element and a USB chip. The image sensing element has an output circuit for outputting a series signal. The USB chip is coupled to an image sensing element. The series-to-universal series unit converts the series signal into a universal series bus signal. The power supply circuit supplies electric power to the image sensing element. The data transmission circuit transmits a universal series bus signal. The USP chip integrates the output circuit into a power supply circuit and a data transmission circuit of a USB specification and converts the series signal into the universal series bus signal.

Abstract: An electronic endoscope apparatus includes an electronic endoscope including an insertion portion, an operation portion, and a universal cord; a plurality of types of signal cables which are selectively placed between the insertion portion and a connection connector of the universal cord, have equal lengths and different diameters, and include overall shields having surface areas corresponding to the diameters; and an electromagnetic covering member which is configured to have a predetermined surface area and covers a small-diameter signal cable to form a shield reinforcing portion, the shield reinforcing portion electrically connected to the overall shield of the small-diameter signal cable causing a sum of the surface area of the shield reinforcing portion and the surface area of the overall shield of the small-diameter signal cable to be set to be equal to or larger than the surface area of the overall shield of a large-diameter signal cable.

Abstract: An electronic endoscope includes an insertion portion including an insulative distal end hard portion main body at a distal end thereof, an operation portion provided at a proximal end portion of the insertion portion and including a connector connection electrically connected to a ground portion, a ground metal member provided between the main body and the operation portion, forming a structure of the insertion portion, and being electrically conductive to the ground portion through the connector connection, an observation optical system including an optical element and a frame member having conductive properties and holding the optical element, and being extended from the distal end of the insertion portion toward the operation portion, and a conductive connecting portion allowing the frame member of the observation optical system to become electrically conductive with respect to the ground metal member.

Abstract: This is an endoscope apparatus which has an endoscope which picks up an image of a sample using a solid state image pickup element and outputs an image pickup signal, and a processor which processes the above-mentioned image pickup signal, generates HDTV and SDTV serial digital video signals, switches one side of those selectively, and performs a serial output, in which the serial digital video signal switched selectively by the above-mentioned processor is output through a first connector, the above-mentioned processor is equipped with a discrimination signal generating section which is linked with selection switching of the above-mentioned HDTV or SDTV serial digital video signal to generate an HDTV/SDTV discrimination signal which can discriminate the above-mentioned HDTV or SDTV serial digital video signal, and the discrimination signal is output through a second connector different from the above-mentioned first connector.

Abstract: A camera adaptor (19) is provided for connecting a camera (21) to an interface (13) of a medical-optical observation instrument (1) with a parallel beam path. The interface (13) is situated in the parallel beam path (9a, 9b) of the medical-optical observation instrument (1). The camera adaptor (19) has an instrument connector part (41) for connection to the interface (13) of the medical-optical observation instrument (1) and a camera connector part (43, 143) for connection to a camera (21). The beam path (43) runs through the camera adaptor (19) along a linear optical axis. The camera adaptor (19) has an objective-lenses combination (47) with a total focal length between 40 mm and 120 mm. A lens with a positive partial focal length leading on the instrument side in the objective-lenses combination (47) and is followed, on the side toward the camera, by a lens with a negative partial focal length.

Abstract: An endoscope apparatus includes: an endoscope that generates an image of an object; a display portion that displays the image and a cursor that designates a position on an image based on the image; a characteristic quantity calculating portion that calculates, based on the image, a characteristic quantity of the image on the basis of the position designated by the cursor; and a control portion that controls movement of the cursor in accordance with the characteristic quantity.

Abstract: In an image pickup unit, a first optical system holding frame has a hole axis orthogonal to an optical axis of photographing light made incident on a first object lens group, and a through-hole portion through which a second optical system holding frame can be inserted and arranged is formed in the first optical system holding frame and the first optical system holding frame and the second optical system holding frame are set relatively movable in a direction orthogonal to the optical axis of the photographing light made incident on the first object lens group and the second optical system holding frame and a third optical system holding frame are set relatively movable in a direction along the optical axis of the photographing light made incident on a solid-state image pickup device such that predetermined optical performance adjustment can be performed during assembly.

Abstract: An electronic endoscope includes an insertion portion including an insulative distal end hard portion main body at a distal end thereof, an operation portion provided at a proximal end portion of the insertion portion and including a connector connection electrically connected to a ground portion, a ground metal member provided between the main body and the operation portion, forming a structure of the insertion portion, and being electrically conductive to the ground portion through the connector connection, an observation optical system including an optical element and a frame member having conductive properties and holding the optical element, and being extended from the distal end of the insertion portion toward the operation portion, and a conductive connecting portion allowing the frame member of the observation optical system to become electrically conductive with respect to the ground metal member.

Abstract: An endoscope adapter including a light emitting diode includes: a detachable portion to be attached to an adapter attaching portion provided on a distal end portion of an insertion portion, the insertion portion including inside thereof at least one image-forming optical system; an adapter main body including an adapter side observation optical system whose optical axis is coincident with an optical axis of the image-forming optical system; a contact pin which enables power supply to the light emitting diode to be turned on when the detachable portion is attached to the adapter attaching portion; and a resistor arranged in a space formed in the endoscope adapter to determine a type of the endoscope adapter.

Abstract: A medical apparatus of the present invention includes an image pickup apparatus provided for a medical instrument to pick up an image of a region to be examined in a body, a fixing section that keeps the image pickup apparatus indwelling in and fixed to a body wall in the body, a transmission section that extends from the image pickup apparatus and transmits a power or an electric signal to/from a device outside the body, and a shake absorption section that absorbs and suppresses shaking of the transmission section by means of a movable member connected to the transmission section and freely movable with respect to the image pickup apparatus and a holding member connected to the transmission section for holding the movable member in a freely movable manner, wherein when a treatment is applied to a subject in the body while observing the subject, the apparatus can suppress shaking of the image pickup apparatus left indwelling in the body, acquire an excellent observed image and prevent damage to a cable extend