The invention relates to a device for acquiring personal health information and a method therefor, the device: easily and periodically acquiring, anytime and anywhere or without regard to place and time, information on ambient temperature/humidity and health information of an individual, such as the state of skin (including hair), a nose, ears, and a mouth associated with an ENT clinic, the teeth associated with a dental clinic, skin moisture, and body temperature, through image information having multiple functions and a multifunctional health care sensor; enabling the acquired health information to be accumulated over in a personal terminal or computer by analyzing, storing, and making the same into data, and continuously managing the periodically accumulated personal health information such that the personal health information can be used as critical information by which a disease cause and the like can be fundamentally understood during an incidence of disease in the future.

An endoscope includes an insertion portion, an operation portion, a power transmission unit, a power relay unit, a power generation unit configured to apply power to the power relay unit in a second power transmission shaft direction which is non-parallel to a first power transmission shaft direction, an elastic member configured to perform either one of urging the power relay unit against the power generation unit or urging the power generation unit against the power relay unit, and a cable configured to extend from the operation portion in the second power transmission shaft direction which is a direction different from a longitudinal direction, wherein the power generation device is attached such that the power generation device is disposed to extend in an extending direction of the cable after being mounted.

An image pickup apparatus for an endoscope includes: a light emitting element configured to emit an optical signal; an optical fiber configured to transmit the optical signal; metal cables configured to transmit an electric signal; a ferrule including an insertion hole into which the optical fiber is inserted; and a molded interconnect device to which core wires of the metal cables and the light emitting element are electrically connected, and which is integrally molded, the molded interconnect device including a recess in which the light emitting element and the ferrule are accommodated.

A holding frame for an imaging unit arranged at a distal end of an endoscope includes a cylindrical three-dimensional molded interconnect device; a housing configured to house the imaging unit, the housing being formed of a notch; at least one cut face formed on the side face of the holding frame and obtained by cutting a support portion which is a gate portion into which a resin is injected when the holding frame is resin-molded; a connection terminal formed on a bottom face of the housing portion and configured to be connected to the imaging unit; a cable connection electrode arranged on a face where a proximal end side of the holding frame is notched; and a wiring pattern formed on a surface area of the holding frame excluding the cut face and configured to electrically connect the connection terminal and the cable connection electrode.

A medical apparatus and a method of manufacturing the medical apparatus, which have an advantage in cost performance, are provided even if optical fibers are used therein. The medical apparatus includes, therein, a first optical fiber 6322 configured to transmit an optical signal, a second optical fiber 651 configured to transmit an optical signal, and a first optical connector 66 configured to connect the first optical fiber 6322 and the second optical fiber 651.

A connector ring includes a retention portion; an intermediate portion; and a plug hood made of a flexible material, the intermediate portion connecting the retention portion to the plug hood, wherein the retention portion and the plug hood are larger in cross-section than the intermediate portion in at least one radial extent. The connector ring can be removably attached to a video processing apparatus through an aperture in a wall of the video processing apparatus.

Provided herein are systems, methods and apparatuses for an integrated system and architectures comprising a central processing unit (CPU) located a substantial physical distance from a sample.

An in-body image capturing device (camera unit) with high reliability is suggested. A camera unit (11) includes an image capturing unit that includes a lens (26) and a first illumination unit (27a) and is capable of being introduced into a body. The first illumination unit (27a) and the image capturing unit are housed in a casing (22) that is integrally molded with an integral light-transmitting body (22x) and an integral light shielding body (22y).

The present disclosure provides in a first aspect of the invention a device for scanning a human intra-cavity, comprising a housing comprising a part connected to the housing, the part dimensioned for being inserted into said human intra-cavity, a single mounting-interface on the housing, the single mounting-interface configured to removably mount an internal power supply unit for powering the device from an internal power supply within the internal power supply unit, or an external power supply unit for powering the device from an external power supply outside the external power supply unit, the device configured for being changed between two power-operation modes.

An endoscope distal end structure includes: an imaging unit; a signal cable; and a distal end frame including a housing portion, and a cable connection portion configured to connect the signal cable. The housing portion is a recess formed on a distal end side of the distal end frame. The housing portion includes a side surface and a bottom surface provided with a connection terminal. At least a part of the cable connection portion is provided with a cable connection electrode that connects a core wire of the signal cable on a distal end side from a bottom surface of the housing portion with reference to the optical axis direction of the imaging unit. The connection terminal and the cable connection electrode are connected by a wiring pattern formed in the housing portion, an outer periphery of the distal end frame, and the cable connection portion.