Abstract: A method for producing a parison for a balloon catheter, a method for producing a balloon catheter, and a device for producing a parison for a balloon catheter, by which a shape of the parison can be stably formed by lowering a heating temperature of a tube. A method for producing a parison for a balloon catheter includes: fixing a pair of fixing portions of a thermoplastic tube extending along a major axis direction; heating a pair of heating portions by bringing a heat source close to a surface of the tube or bringing the heat source into contact with the surface of the tube, the pair of heating portions being located between the pair of fixing portions; and pulling the tube in a direction in which the pair of fixing portions are separated from each other, and stretching the pair of heating portions.

Abstract: A method for producing a parison for a balloon catheter, a method for producing a balloon catheter, and a device for producing a parison for a balloon catheter, by which a shape of the parison can be stably formed by lowering a heating temperature of a tube. A method for producing a parison for a balloon catheter includes: fixing a pair of fixing portions of a thermoplastic tube extending along a major axis direction; heating a pair of heating portions located between the pair of fixing portions; cooling at least a part of a portion between the pair of heating portions of the tube during the heating a pair of heating portions located between the pair of fixing portions; and pulling the tube in a direction in which the pair of fixing portions are separated from each other, and stretching the pair of heating portions.

Abstract: A dilator (30) insertable into a catheter (20) includes a tubular shaft part (40), and a tubular flexible part (50) located on a distal end side of the shaft part (40) and formed of a resin more flexible than the shaft part (40), and includes, in the shaft part (40) and/or the flexible part (50), a physical property inclined part (42) in which rigidity gradually decreases from a proximal end side toward a distal end side. The catheter assembly is capable of achieving both stable catheter insertability into a blood vessel and reduction in risk of blood vessel perforation.

Abstract: An imaging module includes: an image-sensing device; a first substrate; a signal cable; a second substrate; and a flexible linear structure. Each of the first substrate and the second substrate includes a wiring and a cable terminal electrically connected to the signal cable on only one surface of the substrate. Each of the wiring of the first substrate and the wiring of the second substrate is electrically connected to the signal line via the cable terminal. The flexible linear structure extends in a direction along the signal cable from a front-end portion of the flexible linear structure supported by a structure-front-end support including the first substrate, and the flexible linear structure is disposed on a side of the signal cable where the first substrate and the second substrate are disposed.

Abstract: An imaging module includes: an image-sensing device; a first substrate including a first insulating substrate main body that includes a plurality of surfaces, an electrode terminal, a first cable terminal disposed on only one of the plurality of surfaces of the first insulating substrate main body; a second substrate including a second insulating substrate main body and a second cable terminal; and a signal cable disposed between the first substrate and the second substrate, that electrically connects the first cable terminal to the second cable terminal. The one of the plurality of surfaces of the first insulating substrate main body where the first cable terminal is connected to the signal cable and a surface of the second insulating substrate main body where the second cable terminal is connected to the signal cable are disposed on a same plane.

Abstract: An imaging module includes: an image-sensing device; a first substrate including a first insulating substrate main body; a second substrate including a second insulating substrate main body; and a signal cable disposed between the first substrate and the second substrate, that electrically connects a first cable terminal to a second cable terminal. In the imaging module, D1 is a length of a first diagonal line on a light-receiving face of the image-sensing device, D2 is a length of a second diagonal line on an end face of the second insulating substrate main body, and D2 is less than or equal to D1.

Abstract: An imaging module includes: an image-sensing device; a first substrate including a first insulating substrate main body; a second substrate including a second insulating substrate main body; and a signal cable disposed between the first substrate and the second substrate, that electrically connects a first cable terminal to a second cable terminal. In the imaging module, D1 is a length of a first diagonal line on a light-receiving face of the image-sensing device, D2 is a length of a second diagonal line on an end face of the second insulating substrate main body, and D2 is less than or equal to D1.

Abstract: An imaging module includes: an image-sensing device; a first substrate; a signal cable; a second substrate; and a flexible linear structure. Each of the first substrate and the second substrate includes a wiring and a cable terminal electrically connected to the signal cable on only one surface of the substrate. Each of the wiring of the first substrate and the wiring of the second substrate is electrically connected to the signal line via the cable terminal. The flexible linear structure extends in a direction along the signal cable from a front-end portion of the flexible linear structure supported by a structure-front-end support including the first substrate, and the flexible linear structure is disposed on a side of the signal cable where the first substrate and the second substrate are disposed.

Abstract: An imaging module includes: an image-sensing device; a first substrate including a first insulating substrate main body that includes a plurality of surfaces, an electrode terminal, a first cable terminal disposed on only one of the plurality of surfaces of the first insulating substrate main body; a second substrate including a second insulating substrate main body and a second cable terminal; and a signal cable disposed between the first substrate and the second substrate, that electrically connects the first cable terminal to the second cable terminal. The one of the plaurality of surfaces of the first insulating substrate main body where the first cable terminal is connected to the signal cable and a surface of the second insulating substrate main body where the second cable terminal is connected to the signal cable are disposed on a same plane.

Abstract: A game apparatus includes multiple stations at each of which at least one player plays a game; multiple screens, at least one of the screens being associated with each of the multiple screens; and a single image projecting device adapted for projecting an image to be displayed on each of the screens. An image to be displayed on each screen is projected from a single image projecting device to each screen, so that it is unnecessary to provide multiple display devices for stations, respectively. Accordingly, the production cost of the game apparatus is low.

Abstract: A medical device in which a part to be secondarily shaped comprises a molded silicone rubber article is subjected to heatless shaping by irradiation with electron-rays. The irradiation with electron-rays enables shaping and, furthermore, sterilization under some conditions. In a medical device comprising a part in which at least a silicone rubber is used and the mechanical properties of the silicone rubber preferentially appear, the shape of the above-described part upon molding is deformed with the use of a correcting member to a level exceeding the desired deformed shape and maintained in this state. Next, electron-ray irradiation is conducted in this state and then the correcting member is eliminated. Thus, the desired deformed shape intermediate between the shape upon the molding and the shape upon the electron-ray irradiation can be obtained.

Abstract: A medical device in which a part to be secondarily shaped comprises a molded silicone rubber article is subjected to heatless shaping by irradiation with electron-rays. The irradiation with electron-rays enables shaping and, furthermore, sterilization under some conditions. In a medical device comprising a part in which at least a silicone rubber is used and the mechanical properties of the silicone rubber preferentially appear, the shape of the above-described part upon molding is deformed with the use of a correcting member to a level exceeding the desired deformed shape and maintained in this state. Next, electron-ray irradiation is conducted in this state and then the correcting member is eliminated. Thus, the desired deformed shape intermediate between the shape upon the molding and the shape upon the electron-ray irradiation can be obtained.

Abstract: A valve body is formed from an elastic member in the form of an elliptic or circular film (disk shape) having an upper face and a lower face. The valve body has an opening and closing section which is opened and closed in response to insertion and pulling out of a dilator and is formed from a first slit, a second slit, a second concave portion and two third concave portions. A pair of ribs and six projections are formed on the lower face side of the valve body. The ribs are disposed in opposing relationship to each other with the second slit interposed therebetween and extend along the lower face. Further, the projections are disposed such that they are positioned on the inner side of the ribs and are opposed to each other with the second slit interposed therebetween.

Abstract: A valve body formed from an elastic member in the form of an elliptical or circular film (disk shape) has upper and lower surfaces. A first concave portion is formed on the upper surface side of the valve body. The valve body further has an opening and closing section which is opened and closed in response to insertion and pulling out of a dilator and is formed from a first slit, a second slit, a second concave portion and two third concave portions. The second concave portion is formed at a portion of the concave surface side of the valve body corresponding to an intersecting portion, and the third concave portions are formed at the opposite end portions of the first slit. The second concave portion extends, in a thickness wise direction of the valve body, to an intermediate portion of the first slit but not to the second slit.

Abstract: A medical device in which a part to be secondarily shaped comprises a molded silicone rubber article is subjected to heatless shaping by irradiation with electron-rays. The irradiation with electron-rays enables shaping and, furthermore, sterilization under some conditions. In a medical device comprising a part in which at least a silicone rubber is used and the mechanical properties of the silicone rubber preferentially appear, the shape of the above-described part upon molding is deformed with the use of a correcting member to a level exceeding the desired deformed shape and maintained in this state. Next, electron-ray irradiation is conducted in this state and then the correcting member is eliminated. Thus, the desired deformed shape intermediate between the shape upon the molding and the shape upon the electron-ray irradiation can be obtained.

Abstract: A valve body is formed from an elastic member in the form of an elliptic or circular film (disk shape) having an upper face and a lower face. The valve body has an opening and closing section which is opened and closed in response to insertion and pulling out of a dilator and is formed from a first slit, a second slit, a second concave portion and two third concave portions. A pair of ribs and six projections are formed on the lower face side of the valve body. The ribs are disposed in opposing relationship to each other with the second slit interposed therebetween and extend along the lower face. Further, the projections are disposed such that they are positioned on the inner side of the ribs and are opposed to each other with the second slit interposed therebetween.

Abstract: A valve body formed from an elastic member in the form of an elliptical or circular film (disk shape) has upper and lower surfaces. A first concave portion is formed on the upper surface side of the valve body. The valve body further has an opening and closing section which is opened and closed in response to insertion and pulling out of a dilator and is formed from a first slit, a second slit, a second concave portion and two third concave portions. The second concave portion is formed at a portion of the concave surface side of the valve body corresponding to an intersecting portion, and the third concave portions are formed at the opposite end portions of the first slit. The second concave portion extends, in a thickness wise direction of the valve body, to an intermediate portion of the first slit but not to the second slit.

Abstract: A game machine comprises a physical lottery system and a control unit, the physical lottery system imparting a physical motion to a ball on a bingo stage having a plurality of winning prize pockets corresponded to at least one option respectively, and determining a selected option depending on which of the winning prize pockets the ball has been taken in; the control unit executing a predetermined game in association with the lottery result by the physical lottery system and delivering to a player amusement value of the amount depending on the game result, wherein a probability to select each option is calculated based on the lottery result within a predetermined sampling period, and in reference to the calculated probabilities the payout rate of amusement value in the game is controlled.

Abstract: A medical appliance-coating composition contains a solvent-based silicone rubber, and in addition, carbon nanotubes, and fine particles of silicone resin. A medical appliance having a slidable coating film formed thereon moves in contact with an inner surface of a medical member or an inner surface of a lumen. The slidable coating film is disposed at a portion, of the medical appliance, which contacts the medical member or the lumen. The slidable coating film is comprised of silicone rubber, the carbon nanotubes and the fine particles of the silicone resin.