A camera head includes: a mount detachably connected to an eyepiece of an endoscope; an imager configured to capture a subject image emitted from the eyepiece; and a housing configured to house the imager, the housing including an interior portion including the imager thereinside, and an exterior portion arranged on an outer side of the interior portion, wherein the interior portion and the exterior portion are separated from each other in at least a part of an outer surface.

An arrangement for sterile handling of a non-sterile endoscope in a sterile environment. The arrangement includes a sterile endoscope sheath, and the non-sterile endoscope. The sterile endoscope sheath has an optical element arranged at a distal end of the sterile endoscope sheath. The non-sterile endoscope has an endoscope shaft with an optical element arranged at a distal end of the endoscope shaft.

Anti-fogging system for an endoscope including an endoscope having an outer housing, an imaging arrangement, and a distal window. A filter lens is located at the distal window, with the filter lens allowing a first portion of electromagnetic light to pass therethrough while absorbing a second portion of electromagnetic light in order to heat the filter lens.

A video endoscope including: an outer cladding tube, a fiber tube accommodated in the outer cladding tube, wherein the fiber tube has a housing bounding a closed space with a distal end and a proximal end, wherein a front-side window is provided at the distal end of the fiber tube, the fiber tube having an inner tube (for accommodating an imaging sensor , and a heating foil provided between the fiber tube and the inner tube. Where, the heating foil is adapted to heat the front-side window at the distal end of the fiber tube.

An image pickup apparatus includes a stacked device in which a plurality of semiconductor devices respectively including a plurality of through electrodes are stacked, a first semiconductor device, among the plurality of semiconductor devices, in which thermal resistance of a through electrode is highest among the plurality of through electrodes, is disposed in front of a first surface on which a first circuit that is one of the semiconductor circuits having a largest heat generation amount is formed, the plurality of through electrodes of the first semiconductor device are conformal vias, and the plurality of through electrodes of semiconductor devices other than the first semiconductor device are filled vias.

The present disclosure relates to an image capturing device configured to capture an image of a target. The image capturing device includes a probe and a housing. The probe includes an optical component and is configured to receive light from the target. The housing includes electronic components each configured to process the light received from the probe. Moreover, the housing includes an air sending unit, and a controller configured to control driving of the air sending unit. The air sending unit is provided at a position above the electronic components in the housing when a user holds the housing during utilization of the image capturing device, and is configured to supply air to the optical component provided in the probe.

An intraoral measurement device includes: a device main body that holds a base end side of a prism by a housing, the housing accommodating an illumination member and an imaging member, a cover member that is attached to the device main body in a state of covering, with a space part interposed in between, a distal end side of the prism arranged to face a measurement target, in which a part arranged to face the measurement target is formed by a light transmission window; and a heat transfer member that extends from the device main body along a non-optical surface of the prism, and transfers heat of the device main body to the light transmission window through abutment of a protruding end provided to protrude from the prism against the light transmission window of the cover member.

Provided is a cooling device of an endoscope device. The cooling device includes: a box; a first communicating hole that is a hole provided in the box; a second communicating hole that is a hole provided in the box; a second fan that is provided at the second communicating hole, the second fan being configured to guide gas to an exterior of the box through the second communicating hole to generate an airflow in the box, the gas having introduced into the box from the first communicating hole; and a duct configured to house a heat generator to be cooled, the duct being positioned in the box to allow the airflow to pass through an inside of the duct.

The present disclosure provides systems and methods for thermal management of an imaging device that is placed within a body of an individual during a medical procedure or a surgical procedure. In an aspect, the present disclosure provides an imaging device configured for use in a medical procedure or a surgical procedure while the imaging device is within a body of an individual undergoing the medical procedure or the surgical procedure. The imaging device may comprise a coating on at least a portion of an exterior of the imaging device, wherein the coating comprises a high thermal emissivity. The imaging device may comprise a set of thermal fins disposed on an exterior of the imaging device. The imaging device may comprise an endoscope.

One or more camera lenses used for robotic surgery can be cleaned without the need to remove and reinsert one or more cameras. The approaches described herein facilitate cleaning the one or more lenses or one or more protective windows on demand and without the need to remove and reinsert the one or more cameras. Cleaning can include one or more of washing or wiping the one or more lenses or one or more protective windows.