A portable laparoscope is disclosed. In implementations, the portable laparoscope includes a housing and an elongated tube coupled to the housing. A lighting source and a camera are disposed proximate to an end of the elongated tube opposite the housing. The camera is configured to capture an image in a viewing area that is illuminated by light provided by the lighting source. The portable laparoscope includes an image display apparatus configured to display the images acquired by the camera and/or to transmit the images to a remote display device. The housing may be configured to hold and position an insufflator.

A surgical light source system for cooling high-powered arthroscopic light emitters. The surgical light source system includes a housing having a proximal end and a distal end with a tube connected to the proximal end. The system also includes a light source at the distal end of the housing which is connected to a remote power source. The system has a plurality of fins extending around the light source within the housing and a remote fan connected to the tube. The remote fan is adapted to draw air across the fins, forming a heatsink within the housing.

An endoscope system includes an endoscope, a video processor, and a parameter control device. The parameter control device causes the endoscope and the video processor to execute predetermined processing by controlling a plurality of parameters used by the endoscope and the video processor. The parameter control device includes a data collection unit, an operation mode determination unit, and a parameter determination unit. The operation mode determination unit selects one or more operation modes from among an electric power consumption reducing mode, a wireless transmission amount reducing mode, a high image quality achieving mode, and a standard mode by determining the plurality of pieces of information acquired by the data collection unit. The parameter determination unit determines the plurality of parameters based on one or more operation modes selected by an operation mode selection unit.

A device for attaching an optical element, such as an otoscope, to a smart phone for diagnosing and/or identifying problems of an outer ear, a middle ear, and/or an ear canal of a patient. The device may comprise a main body. The main body may comprise an aperture and a first engagement member configured to engage with a second engagement structure that belongs to the optical element. A first surface may be connected to the main body and configured may be to contact a first smart phone surface. A piston may be provided that may comprises a second surface that may be parallel to the first surface and may be configured to contact a second smart phone surface. A threaded knob may be provided and may be connected to the piston through the aperture.

In a method of generating a virtual 3D model of a dental site, scan data comprising an intraoral image is received during an intraoral scan of a dental site. A representation of a foreign object is identified in the intraoral image based on a color analysis of the scan data. The intraoral image is modified by removing the representation of the foreign object from the intraoral image. Additional scan data comprising a plurality of additional intraoral images of the dental site is received during the intraoral scan. A 3D surface of the dental site is then generated using the modified intraoral image and the plurality of additional intraoral images.

The present disclosure relates to visualizing an operative field in the context of a dental operating theater, and more specifically, to a portable, modular, multifunctional intraoral imaging system to assist a practitioner in performing a medical or dental procedure in a confined space (e.g., intraoral cavity or mouth of a patient). The system may include an intraoral camera apparatus having a camera unit equipped with a wireless transmitter, and a viewscreen mounted to an articulated stand or dental delivery unit, wherein the camera wirelessly may transmit an image to a viewscreen located directly in front of a dental practitioner. The practitioner may look directly ahead at a high-definition screen to view the operative field. A dental practitioner may use the apparatus to perform micro-surgical procedures in a confined operative area with less-than-ideal visibility and access, without the present, though generally accepted, physical difficulties and limitations.

A system for wirelessly transmitting data from an endoscope, comprising an endoscope having a control body, an insertion tube extending from the control body, the distal end of the insertion tube containing an image sensor and a light source, and a control head connected to the control body, which comprises a battery; a light source amplifier connected to the battery, the light source amplifier operable to boost the intensity of the light source; a video processor configured to create compressed video data from a video stream captured via the image sensor; and a wireless communication module configured to negotiate a wireless connection with a mobile device, wherein the wireless communication module is further configured to transmit the compressed video data to the mobile device over the wireless connection, and wherein the wireless communication module comprises a channel discriminator configured to automatically avoid RF interference.

A system for intraoral scanning comprises a scanner to generate image data of a dental site and a computing device. The computing device receives the image data of the dental site, the image data comprising a representation of the dental site and a representation of a reference object at the dental site. The computing device selects library data for the reference object from library data for a plurality of reference objects in a library. The computing device aligns the library data for the reference object with the image data.

Endoscope systems with detachable scopes in accordance with embodiments of the invention are disclosed. In one embodiment of the invention, an endoscope system comprises an endoscope body and a detachable scope. The endoscope body comprises a cable capable of transmitting image data to a computing system, and a body connector. The detachable scope comprises a scope connector configured to couple with the body connector, and a tip, comprising an illumination module and an image sensor, wherein image data produced by the image sensor is transmitted to the endoscope body via the scope connector.

One embodiment provides a device, method, and wireless endoscope. The wireless endoscope includes a light integrated in a first portion. The wireless endoscope also includes a lens positioned proximate the light in the first portion. The light and the lens are inserted into a body. The wireless endoscope also includes a connector physically securing the first portion to the second portion. The second portion is not inserted into the body. The wireless endoscope also includes a camera capturing video content received through the lens. The wireless endoscope also includes a wireless transmitter transmits the video content to a receiver associated with a displaying device. The first portion and the second portion are cylindrically shaped and flexible for shaping the wireless endoscope.