Abstract: A receiving apparatus is for receiving radio signals including image information transmitted by a mobile transmitting device through a plurality of receiving antennas. The receiving apparatus includes a plurality of frequency converters for outputting modulated signals obtained by converting respective radio signal received through the plurality of receiving antennas by different modulation frequencies; a superposing unit for superposing each of the modulated signals generated by the plurality of frequency converters on a frequency axis; a cable with a single coaxial cable where each of the modulated signals superposed by the superposing unit is transmitted; and a receiving unit for demodulating each modulated signal input through the cable to receive and output the image information.

Abstract: A capsule-type medical apparatus includes a capsule-shape sealed container accommodating an electric component for executing a predetermined function; and a switch unit arranged in a substantially center of the sealed container, and controlling supply of electric power for driving the electric component according to action of a magnetic field from outside of the sealed container.

Abstract: A body-insertable apparatus including a capsule-like casing, an illuminating unit, an imaging unit, and an antenna is provided. The capsule-like casing is formed in a capsule-like shape and includes a transparent imaging dome. The illuminating unit is arranged in the capsule-like casing and illuminates an examined site of a subject through the imaging dome. The imaging unit is arranged in the capsule-like casing and takes an image of the examined site illuminated by the illuminating unit. The antenna is arranged in the imaging dome at a position outside an imaging field of view of the imaging dome to transmit image information obtained through imaging by the imaging unit to an outside of the subject.

Abstract: According to the present invention, a capsular endoscope having at least an image pickup optical system, an illumination unit, an image pickup portion, and a circuit board comprises a marker shooting unit that indwells a marker member in a body cavity. Consequently, a predetermined marker is indwelled in a desired region such as a lesion discovered using the capsular endoscope so that the region can be readily rediscovered during reexamination.

Abstract: An endoscopic imaging includes an image sensor having a polygonal outline; a lens for focusing an image onto the image sensor; a lens support member abutting on the image sensor, and supporting the lens; and an abutting portion formed while extending from a lower edge portion of the lens support member, the abutting portion abutting on at least two sides of an outline of the image sensor to position the lens support member so that the lens is positioned at a predetermined position of the image sensor.

Abstract: A capsule endoscope 3 as an example of a body-insertable apparatus includes a battery 100, a control information detecting circuit 31 to which driving power is supplied from the battery 100, a system control circuit 32, and a driving controller 34 that is arranged between the battery 100 and the control information detecting circuit 31 and the system control circuit 32. The driving controller 34 controls driving of the control information detecting circuit 31, the system control circuit 32 or the like based on a temperature detected by a temperature sensor unit 33, thereby preventing actuation of the capsule endoscope 3 outside the body of a subject.

Abstract: An endoscopic imaging includes an image sensor having a polygonal outline; a lens for focusing an image onto the image sensor; a lens support member abutting on the image sensor, and supporting the lens; and an abutting portion formed while extending from a lower edge portion of the lens support member, the abutting portion abutting on at least two sides of an outline of the image sensor to position the lens support member so that the lens is positioned at a predetermined position of the image sensor.

Abstract: A plurality of LEDs 72, which includes a power unit including two electrodes 72a connected to an illuminating board 71 and includes an irradiation unit 72b formed on a top portion of the power unit, with a stair-shaped structure in which an end surface 72b1 in a longitudinal side of the irradiation unit 72b is shorter than an end surface 72a1 of the power unit, is arranged so that a longitudinal side is to be along a direction of a circumference “A” having a radius larger a field of view determined by an optical quality of the imaging lens 83, with an imaging lens 83 of an imaging unit 8 as a center. As a result, an optical flare is prevented from being generated and a capsule endoscope is downsized.

Abstract: In a capsule endoscope that functions as one example of a body insertable apparatus, a first imaging mechanism, a second imaging mechanism, a data generator, and a timing controller are provided on a same imaging board. The first imaging mechanism and the second imaging mechanism are arranged inside an outer casing member that determines an outer shape of the capsule endoscope. The data generator generates image data based on electric signals obtained by the imaging mechanisms. The timing controller controls driving timings of the first imaging mechanism, the second imaging mechanism, and the data generator. Since the aforementioned elements are formed on the same board, increase in number of the board can be suppressed.

Abstract: In a capsule endoscope illuminating units are disposed around an image capturing unit in such a manner that an optical axis of the illuminating units do not intersect with an optical axis of the observation unit, and illumination areas of the illuminating units overlap at substantially a central portion of an image capturing area of the image capturing unit.

Abstract: To achieve a body-insertable apparatus such as a capsule endoscope that moves in a subject at a low speed at which acquisition of in-vivo information is sufficiently possible, the body-insertable apparatus is inserted into the subject and moves in the subject. The body-insertable apparatus includes an in-vivo information acquiring unit that acquires the in-vivo information, an external case member accommodating the in-vivo information acquiring unit, and a moving-speed suppressing unit positioned inside or outside of the external case member to generate a predetermined suppressing force for suppressing the moving speed between an inner wall of a passage route in the subject and the external case member.

Abstract: To provide a capsule endoscope in which a degree of appearance of a sting-like member in a captured image is reduced, a capsule endoscope (2) includes an optical system (18) having a predetermined principal point, an imaging unit (19) which captures light focused by the optical system (18), and an attachment member (28) which is arranged at a predetermined position on a window portion (17a) having optical transparency and forming a portion of an outer casing member (17) housing the optical system (18) and the imaging unit (19). The capsule endoscope (2) further includes a traction member (29) having one end secured to the attachment member (28) and extending by a predetermined distance in a direction from the optical system (18) toward a position of the attachment member (28). Since the traction member (29) has such a structure, an appearance of an image of the traction member (29) can be reduced at the imaging unit (19).

Abstract: An object of the present invention is to make it possible to closely examine a specific region by making most use of an advantage of a compound-eye capsule endoscope that picks up images of an interior of a body cavity forward and backward in a movement direction of a capsule casing. By disposing imaging devices of respective imaging blocks in a capsule casing while having a relationship between arrangement directions of the imaging devices, e.g., making upward and downward directions U and D coincident with each other, a correspondence/positional relationship between the images picked up by the imaging devices is clear when the specific region such as an affected part in the body cavity is to be observed using the respective images forward and backward in the movement direction, thereby facilitating close examination on the specific region using the both images.

Abstract: An object of the present invention is to readily initiate an operation of a capsule medical apparatus which is inserted into a subject and executes a predetermined function. In a capsule endoscope 3 according to the present invention, a reed switch 14 connected to a power supply unit and a function executing unit is arranged parallel to a direction of a longitudinal axis t of a capsule-like casing 16 in the substantially cylindrical capsule-like casing 16 of the capsule endoscope 3. A pair of movable electrodes of the reed switch 14 operates according to magnetic induction of a magnetic field of a magnet 6 applied substantially parallel to the direction t of the longitudinal axis of the capsule-like casing 16, and come into contact with each other. As a result, power supply from the power supply unit to the function executing unit is allowed.

Abstract: An object of the present invention is to easily start to operate a body-insertable apparatus which is introduced into a subject and executes a predetermined function. In a capsule endoscope 3 of the invention, a magnetic switch 14 is arranged in a tubular capsule casing 16 of the capsule endoscope 3 in a direction substantially perpendicular to a longitudinal axis t direction of the capsule casing 16. A movable electrode of the magnetic switch 14 is brought into contact with a fixed electrode of the magnetic switch by a magnetic induction action by a magnetic field generated by a magnet 6, which is applied to the magnetic switch 14 from the outside of the capsule endoscope 3 in a direction substantially parallel to the longitudinal axis t direction of the capsule casing 16. As a result, electric power can be supplied from a power source unit to a function executing unit.

Abstract: According to the present invention, a capsular endoscope having at least an image pickup optical system, an illumination unit, an image pickup portion, and a circuit board comprises a marker shooting unit that indwells a marker member in a body cavity. Consequently, a predetermined marker is indwelled in a desired region such as a lesion discovered using the capsular endoscope so that the region can be readily rediscovered during reexamination.

Abstract: Provided is an in-vivo information acquiring apparatus including a plurality of illuminating units, a plurality of imaging units, and a transmission unit. The plurality of illuminating units are disposed within the apparatus and illuminate a body cavity. The plurality of imaging units pair up with the illuminating units, respectively, and sequentially captures images of the body cavity illuminated by the illumination units. The transmission unit transmits information on the images obtained by the imaging units, in a communication mode capable of identifying the imaging units.

Abstract: An imaging apparatus includes a solid-state imaging sensor. The sensor includes a semiconductor chip receiving light from an object through a light receiving surface and performing photoelectric conversion of the received light; a translucent member provided on an upper surface of the chip to protect the chip; and plural electrode terminals provided on a lower surface of the chip. The apparatus also includes an optical system which is provided on a light receiving region, which is on a surface of the translucent member and is arranged at a position facing with the light receiving surface to focus the light from the object on the light receiving surface; and a resin material which reinforces a bonding strength between a circuit board on which the sensor is mounted and the electrode terminals of the sensor, and shields a region outside the light receiving region of the translucent member from light.

Abstract: An capsule-type medical apparatus includes a sealed container; and a wiring board which is housed in the sealed container and on which a functional circuit performing a predetermined function while the capsule-type medical apparatus is inserted into a subject is mounted. The wiring board includes a plurality of comparatively rigid wiring board sections on which parts constituting the functional circuit are mounted, and a comparatively flexible wiring board section that connects the plurality of the rigid wiring board sections. The flexible wiring board is extended from a straight-line portion formed on the rigid wiring board sections, and the flexible wiring board section is folded so that the adjacent rigid wiring board sections oppose to each other.

Abstract: An capsule-type medical apparatus includes an sealed container; a power supply battery housed in the sealed container; and a wiring board, housed in the sealed container, on which a functional circuit for implementing a predetermined function is mounted and which includes an external power supply terminal. The functional circuit is driven by electric power supplied from the power supply battery through the external power supply terminal to implement the predetermined function when the capsule-type medical apparatus is inserted into a subject.