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    • 1. 发明授权
    • Mode selecting assembly for recording and/or reproducing apparatus
    • 用于记录和/或再现装置的模式选择组件
    • US4194229A
    • 1980-03-18
    • US941090
    • 1978-09-11
    • Yoshinori YamamotoHideo ImaiYoshikazu Ishimatsu
    • Yoshinori YamamotoHideo ImaiYoshikazu Ishimatsu
    • G11B15/02G11B15/10G11B19/00
    • G11B15/10
    • A mode selecting assembly for a recording and/or reproducing apparatus includes at least one operating member, which is displaced to change the apparatus over to an operating mode. The operating member is displaced by the revolution of an operating gear having a toothless portion and the operating gear is driven by a pinion. The engagement of the operating gear with the pinion is triggered by a trigger member responsive to the depression of a corresponding operating push button. The operating gear is prevented from further rotation after the establishment of the selected operating mode by a locking member when the selected operating push-button is continuously depressed. The mode selecting assembly further includes timed recording capability wherein the pinion in engagement with the end of the toothed portion of the operating gear maintains the trigger means in an inactive state to place the apparatus in a preparing mode for timed recording. At the preset time, the preparing mode is released by a releasing member and the operating gear is rotated to its original inoperative position where the toothless portion faces the pinion to disengage the operating gear from the pinion.
    • 用于记录和/或再现装置的模式选择组件包括至少一个操作构件,其被移动以将装置改变为操作模式。 操作构件通过具有无齿部分的操作齿轮的旋转而移位,并且操作齿轮由小齿轮驱动。 操作齿轮与小齿轮的接合由响应于对应的操作按钮的按下的触发构件触发。 当所选择的操作按钮被连续按压时,通过锁定构件建立所选择的操作模式后,防止操作齿轮进一步旋转。 模式选择组件还包括定时记录能力,其中与操作齿轮的齿形部分的端部接合的小齿轮将触发装置保持在非活动状态,以将装置置于用于定时记录的准备模式。 在预设时间,通过释放构件释放准备模式,并且操作齿轮旋转到其无齿部分面向小齿轮的原始非工作位置,从而将操作齿轮与小齿轮分离。
    • 2. 发明授权
    • Fuel cell
    • 燃料电池
    • US09023546B2
    • 2015-05-05
    • US12738669
    • 2008-10-17
    • Yoshinori YamamotoKoichiro YamashitaTakashi WanoRyoichi Matsushima
    • Yoshinori YamamotoKoichiro YamashitaTakashi WanoRyoichi Matsushima
    • H01M8/24H01M8/02H01M8/04H01M8/10
    • H01M8/2475H01M8/0271H01M8/04067H01M8/248H01M2008/1095Y02E60/50
    • There is disclosed a fuel cell in which an insulating material is disposed, whereby the thermal diffusion of the inside and outside of a fuel cell can be suppressed to suppress the deterioration of the performance of the fuel cell due to a temperature drop. Moreover, the physical properties of the insulating material are specified, whereby appropriate insulating properties required in the fuel cell can be obtained, and startup properties are improved. A fuel cell has a cell stack in which a plurality of unit cells are stacked, and terminal plates disposed on both sides of the cell stack in a cell stack direction thereof. The fuel cell comprises an insulating portion having an insulating material and holding plates which hold the insulating material from both the sides of the insulating material in the cell stack direction, the insulating material is held between the holding plates, and the insulating material has a thermal conductivity of 0.1 W/mK or less and a porosity of 70% or more.
    • 公开了一种其中设置有绝缘材料的燃料电池,由此可以抑制燃料电池的内部和外部的热扩散,以抑制由于温度下降导致的燃料电池的性能的劣化。 此外,规定了绝缘材料的物理性质,从而可以获得燃料电池中所需的适当的绝缘性能,并提高启动性能。 燃料电池具有堆叠多个单位电池的电池堆,并且在电池堆叠方向上设置在电池堆的两侧的端子板。 燃料电池包括具有绝缘材料的绝缘部分和在电池堆叠方向上从绝缘材料的两侧保持绝缘材料的保持板,绝缘材料保持在保持板之间,绝缘材料具有热 电导率为0.1W / mK以下,孔隙率为70%以上。
    • 5. 发明授权
    • Separator for fuel cell and fuel cell
    • 燃料电池和燃料电池分离器
    • US08455156B2
    • 2013-06-04
    • US12741803
    • 2008-11-04
    • Yoshinori YamamotoHiroya NakajiHitoshi HamadaToshiyuki SuzukiHaruyuki Aono
    • Yoshinori YamamotoHiroya NakajiHitoshi HamadaToshiyuki SuzukiHaruyuki Aono
    • H01M8/02
    • H01M8/0254H01M8/0258H01M8/0267H01M8/241H01M8/2457H01M2008/1095
    • A separator has a concavo-convex structure formed in mutually reversed shapes on two opposite sides thereof to define flow paths of different fluids on the respective two sides. The concavo-convex structure includes multiple first projections formed and protruded on one side of the two opposite sides and arranged at intervals having a preset regularity. The concavo-convex structure also includes multiple second projections formed and protruded on the other side of the two opposite sides in a specific area corresponding to an area for formation of the multiple first projections on the one side and arranged at intervals having a preset regularity. The concavo-convex structure further includes reinforcing elements protruded on the one side. Each of the reinforcing elements is formed as a convex in a specific shape of connecting multiple positions where the first projections are expected to be formed according to the preset regularity, while avoiding positions corresponding to the second projections formed on the other side. This arrangement effectively prevents a potential trouble caused by deformation of the separator due to a pressure difference between the flow pressures of the respective fluids flowing on the respective sides of the separator.
    • 分离器具有在其两个相对侧上以相互反转的形状形成的凹凸结构,以限定相应两侧上不同流体的流动路径。 凹凸结构包括在两个相对侧的一侧上形成和突出的多个第一突起并以预定的规则间隔布置。 凹凸结构还包括在对应于一侧上形成多个第一突起的区域的特定区域中在两个相对侧的另一侧上形成和突出的多个第二突起,并且以预定的规则间隔布置。 凹凸结构还包括在一侧突出的增强元件。 每个加强元件形成为具有预定规则性地预期形成第一突起的多个位置的特定形状的凸起,同时避免与形成在另一侧上的第二突起相对应的位置。 这种布置有效地防止了由于在分离器的各个侧面上流动的各个流体的流动压力之间的压力差引起的分离器变形引起的潜在故障。
    • 8. 发明授权
    • Air conditioner and coating composition
    • 空调和涂料组成
    • US08171750B2
    • 2012-05-08
    • US12490880
    • 2009-06-24
    • Reiji MoriokaYoshinori YamamotoYasuhiro Yoshida
    • Reiji MoriokaYoshinori YamamotoYasuhiro Yoshida
    • F25D17/06
    • C09D5/1625C08K3/36C08L27/12C09D7/62C09D7/67C09D7/68F24F1/0007F24F2003/1664F28F19/04F28F21/067
    • Disclosed is an air conditioner coated by the coating composition to the resin-made components where due formation occurs upon the cooling operation, provides the antifouling performance against various stains, restrains enlargement of droplet, and provides an excellent long-term durability (sticking property and peeling off property) all at the same time. The air conditioner of the present embodiment forms a coating film 103 to surfaces of resin-made components and resin-made components installed to a rear flow side of the heat exchanger, includes the silica ultrafine particles 101 and the fluororesin particles 102, and provides, within the coating film 103, a silica film 104 comprising the silica ultrafine particles and the fluororesin particles 102 partially exposed from a surface of the silica film 104 in dots, and an exposed area of the silica film 104 is greater than an exposed area of the fluororesin particles 102.
    • 本发明公开了一种由涂料组合物涂布到制冷部件上的空调机,在冷却运转时发生适当形成,提供防污性能,抑制液滴的扩大,提供优异的长期耐久性(粘着性和 剥离财产)全部在同一时间。 本实施方式的空调装置在安装于热交换器的后流侧的树脂成分和树脂成分的表面上形成涂膜103,其包含二氧化硅超微粒子101和氟树脂粒子102, 在涂膜103内,包含二氧化硅超细颗粒的二氧化硅膜104和从二氧化硅膜104的表面部分露出的氟树脂颗粒102,并且二氧化硅膜104的暴露面积大于 氟树脂颗粒102。
    • 10. 发明授权
    • Optical glass for precision molding having high refractive index
    • 具有高折射率的精密模塑用光学玻璃
    • US07943540B2
    • 2011-05-17
    • US11905925
    • 2007-10-05
    • Yoshinori Yamamoto
    • Yoshinori Yamamoto
    • C03C3/253C03C3/14C03C3/15C03C3/155C03C3/068
    • C03C3/253C03C3/155
    • An optical glass for precision molding having a high refractive index (nd) and a low yield temperature (At). The optical glass comprises, as glass components in wt %, 64 to 83% of Bi2O3; 4 to 17% of B2O3; 0 to 12% of GeO2 (wherein the total of B2O3 and GeO2 is 10 to 20%); 0 to 7% of La2O3; 0 to 7% of Gd2O3 (wherein the total of La2O3 and Gd2O3 is 1 to 13%); 0 to 4% of ZrO2; 0 to 5% of Ta2O5; 0 to 15% of ZnO; 0 to 2% of Sb2O3; and 0 to 1% of In2O3. The optical glass has optical constants, that is, a refractive index (nd) of 2.05 to 2.25 and an Abbe number (vd) of 15 to 22, and a yield temperature (At) of 510° C. or less.
    • 具有高折射率(nd)和低屈服温度(At)的精密模塑用光学玻璃。 光学玻璃包含以重量%计的玻璃组分为64%至83%的Bi 2 O 3; 4〜17%的B2O3; 0〜12%的GeO2(其中B2O3和GeO2的总量为10〜20%); 0〜7%的La2O3; 0〜7%的Gd2O3(其中La2O3和Gd2O3的总量为1〜13%); 0〜4%的ZrO2; 0〜5%Ta2O5; 0〜15%的ZnO; 0〜2%的Sb2O3; 和0〜1%的In2O3。 光学玻璃的光学常数,即折射率(nd)为2.05〜2.25,阿贝数(vd)为15〜22,屈服温度(At)为510℃以下。