Abstract:
Biocompatible nanoparticles 1 which entrap a bioactive substance and whose surface is positive-charge-modified are electrically adhered to a balloon portion 9 of a catheter main body 5 through a negatively charged resin layer 11, and thus a nanoparticle layer 12 is formed. After the catheter main body 5 is indwell in vivo, the nanoparticles 1 are gradually eluted from the nanoparticle layer 12 and are effectively delivered to cells.
Abstract:
A mobile terminal device includes a case that forms a storage space for storing a component and that includes an open section at a first surface, a display module that is stored in the open section of the case and that includes a display surface for allowing information to be displayed thereon adjacent to the first surface, a plate that is fixed to an inner surface of the case and that partitions the storage space into a space for storing the display module and a space for storing a component other than the display module, a panel that covers the open section of the case and that supports the display module such that the display module is sandwiched between the panel and the plate, and an adhesive that adheres the panel and a surrounding region of the open section of the case.
Abstract:
The fuel cell system of the present invention includes: (A) a fuel cell stack including at least one unit fuel cell including a cathode, an anode, and a polymer electrolyte membrane interposed therebetween; (B) a detecting device for detecting lack of humidification in the fuel cell stack; (C) a water supplying device for supplying moisture to the fuel cell stack when lack of humidification is detected by the detecting device; (D) a heating device for heating the supplied moisture; and (E) a cooling device for cooling the supplied moisture. In the fuel cell system of the present invention, the fuel cell stack is humidified by repeating heating and cooling of the supplied moisture by the heating device and the cooling device, respectively.
Abstract:
A direct oxidation fuel cell of the invention includes at least one unit cell, the unit cell including a membrane-electrode assembly including an electrolyte membrane and an anode and a cathode sandwiching the electrolyte membrane, an anode-side separator being in contact with the anode, and a cathode-side separator being in contact with the cathode. The anode includes an anode catalyst layer and an anode diffusion layer, the anode catalyst layer containing an anode catalyst. The cathode includes a cathode catalyst layer and a cathode diffusion layer, the cathode catalyst layer containing a cathode catalyst. The anode-side separator has a fuel flow channel for supplying fuel to the anode. A portion of the cathode catalyst layer facing the upstream of the fuel flow channel has an effective reaction area per unit area larger than that of a portion of the cathode catalyst layer facing the downstream of the fuel flow channel.
Abstract:
The direct oxidation fuel cell of the invention includes at least one unit cell, the unit cell including: a membrane-electrode assembly including an anode, a cathode, and an electrolyte membrane interposed therebetween; an anode-side separator; and a cathode-side separator. The cathode includes a first cathode catalyst layer, a diffusion layer being in contact with the cathode-side separator, and an intermediate layer disposed therebetween. The intermediate layer includes a second cathode catalyst layer and a porous composite layer, the porous composite layer containing a hydrophobic material and an electron-conductive material. The anode-side separator has a fuel flow channel, and the cathode-side separator has an oxidant flow channel. At least a portion of the intermediate layer facing the upstream portion of the fuel flow channel includes the second cathode catalyst layer, and at least portions of the intermediate layer facing the midstream and downstream portions of the fuel flow channel include the porous composite layer.
Abstract:
A mobile device includes a trigger having a molded component defining the outer shape of the mobile device, and a rod-like body fixed to the molded component at one end. A housing has a hole into which the rod-like body is inserted. Guide walls guide movement of the rod-like body in the direction in which the rod-like body is inserted into or pulled from the hole. A sensor detects that the trigger has been operated in the direction in which the rod-like body is pulled from the hole. An alarm device is activated in response to detection of the operation of the trigger by the sensor. The trigger has sheet-metal members fixed to the molded component and guided by the guide walls by their being moved in contact with the guide walls in the direction in which the rod-like body is inserted or pulled.
Abstract:
A mobile terminal device includes a housing formed with an opening, a base plate provided inside the housing and having an audio component attached thereon, a cushion part provided around the opening of an inside wall surface of the housing, a frame part that includes a face near a surface of the audio component and forms an audio path between the audio component and the opening, one end portion near the face of the frame part being attached to the base plate, and another end portion abutting the inside wall surface of the housing via the cushion part.
Abstract:
A mobile terminal device includes a display unit having a first engaging latch, a case having a slide groove that allows the first engaging latch to slide therein and a second engaging latch that engages the first engaging latch that slides in the slide groove, and a component located in a gap that appears between the case and the display unit as a result of sliding the first engaging latch in the slide groove.
Abstract:
A direct oxidation fuel cell includes at least one cell. The cell includes a membrane electrode assembly including an anode, a cathode, and an electrolyte membrane disposed between the anode and the cathode. The cell also includes: an anode-side separator being in contact with the anode and having a fuel flow channel for supplying a fuel to the anode; and a cathode-side separator being in contact with the cathode and having an oxidant flow channel for supplying an oxidant to the cathode. The electrolyte membrane includes an ion exchange resin and has an ion exchange capacity per unit volume which is smaller upstream of the fuel flow channel than downstream thereof.
Abstract:
A direct oxidation fuel cell including at least one cell, the cell being a stacked body including: a membrane electrode assembly including an anode, a cathode, and an electrolyte membrane disposed between the anode and the cathode; an anode-side separator having a fuel flow channel for supplying a liquid fuel to the anode; and a cathode-side separator having an oxidant flow channel for supplying an oxidant to the cathode, in which the anode-side separator includes a first region including an upstream half of the fuel flow channel and a second region including a downstream half of the fuel flow channel, the anode includes an anode catalyst layer in contact with the electrolyte membrane and an anode diffusion layer in contact with the anode-side separator, the anode catalyst layer includes an anode catalyst and a polymer electrolyte, the anode catalyst layer includes an upstream-side region facing the first region and a downstream-side region facing the second region, and the content of the polymer electrolyte in the anode catalyst layer is higher at the upstream-side region than at the downstream-side region.