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    • 1. 发明授权
    • Auger-type icemaker
    • 螺旋式制冰机
    • US4467622A
    • 1984-08-28
    • US418192
    • 1982-09-15
    • Shigeyuki TakahashiNobuyuki YoshidaMasahiro Kobayashi
    • Shigeyuki TakahashiNobuyuki YoshidaMasahiro Kobayashi
    • F25C1/14F25C5/14
    • F25C1/147
    • An auger-type icemaker for producing hard chip ice of high quality comprises a refrigerated cylinder for forming ice grown on an inner wall surface thereof, a scraper auger rotatably mounted in the refrigerated cylinder for scraping off the ice on the inner wall surface of the refrigerated cylinder, and upper and lower bearing by which said scraper auger is rotatably supported in the refrigerated cylinder. The upper bearing has standard peripheral surfaces and a plurality of axial ribs projecting radially outwardly from the standard peripheral surfaces into abutment against the inner wall surface of the refrigerated cylinder. The standard surfaces include slant surfaces extending upwardly and radially outwardly progressively toward the inner wall surface of the refrigerated cylinder, and parallel surfaces extending upwardly contiguously from the slant surface and substantially parallel to the inner wall surface of the refrigerated cylinder.
    • 用于生产高品质的硬芯片冰的螺旋式制冰机包括:用于形成在其内壁表面上生长的冰的冷藏筒;可旋转地安装在冷藏筒中的刮刀螺旋推运器,用于刮去冷藏的冰箱的内壁表面上的冰 气缸和上下轴承,所述刮刀螺旋钻可旋转地支撑在冷藏筒中。 上轴承具有标准周边表面和从标准周边表面径向向外突出的多个轴向肋,以抵靠冷藏圆筒的内壁表面。 标准表面包括朝向冷却缸的内壁表面向上且径向向外延伸的倾斜表面,以及从倾斜表面连续地大致平行于冷藏圆筒的内壁表面向上延伸的平行表面。
    • 3. 发明申请
    • EGR COOLING STRUCTURE
    • EGR冷却结构
    • US20130206120A1
    • 2013-08-15
    • US13880600
    • 2011-10-12
    • Nobuyuki YoshidaHiroshi TakemotoTaichi Yoshikawa
    • Nobuyuki YoshidaHiroshi TakemotoTaichi Yoshikawa
    • F02M25/07
    • F02M26/13F02M26/15F02M26/28
    • An EGR cooling structure is provided. The EGR cooling structure (1) comprising: a cylinder block (11) having cylinders (11a); a cylinder head (12) (exhaust gas manifold section) into which exhaust gas exhausted from the cylinders (11a) is collected; an exhaust emission control device (20) for purifying the exhaust gas exhausted from the cylinder head (12); an EGR pipe (50) through which EGR gas of a part of the purified exhaust gas is introduced into an intake system r intake system from second exhaust gas piping (32) downstream of the exhaust gas purification device (20); and an EGR cooler (60) provided in the EGR pipe (50) and cooling the EGR gas with the cooling liquid. An exhaust gas passage leading from the cylinders (11a) to the exhaust gas purification device (20) is curved when seen from a side, and the EGR cooler (60) is disposed in the space (5) surrounded by the cylinder block (11), the cylinder head (12), and the exhaust gas purification device (20).
    • 提供EGR冷却结构。 EGR冷却结构(1)包括:具有气缸(11a)的气缸体(11); 收集从气缸(11a)排出的废气的气缸盖(12)(排气歧管部) 用于净化从气缸盖(12)排出的废气的废气排放控制装置(20); 一个EGR管(50),一部分净化废气中的EGR气体从排气净化装置(20)下游的第二排气管道(32)引入到进气系统r进气系统中; 以及EGR冷却器(60),其设置在所述EGR管(50)中,并且利用所述冷却液冷却所述EGR气体。 从气缸(11a)到排气净化装置(20)的排气通道从侧面看时是弯曲的,并且EGR冷却器(60)设置在由气缸体(11)包围的空间(5)中 ),气缸盖(12)和排气净化装置(20)。
    • 8. 发明授权
    • Difference correcting method for posture determining instrument and motion measuring instrument
    • 姿态测定仪和运动测量仪的差分校正方法
    • US07233872B2
    • 2007-06-19
    • US10545388
    • 2004-02-16
    • Ryosuke ShibasakiYusuke KonishiHiroshi KanasugiNobuyuki Yoshida
    • Ryosuke ShibasakiYusuke KonishiHiroshi KanasugiNobuyuki Yoshida
    • G01C17/38G01P21/00G06F19/00
    • G01C19/5607A61B5/11A61B5/1116A61B5/6814A61B5/6824A61B5/6828A61B2560/0223A61B2562/0219G06F19/00
    • The error of a sensor in motion capture system is corrected. An acceleration sensor determines the direction of gravity (G1) in a still initial state. The direction G1 will never change always if a drift dose not occur. However, actually if an object to which an acceleration sensor is attached moves along a coordinate axis, the direction gradually changes due to a drift with time. According to the invention, after a given time has passed, the acceleration sensor is stopped to determine the direction of gravity. Referring to the data on this determination, the true direction of gravity to be judged is compared with the direction of gravity G1 influenced by the drift. The difference between them is assumed to be an error due to a drift, and the error is subtracted from the determined value to correct the error of the measurement value. Similarly to the direction of gravity, assuming that there is an error in any direction in the coordinate system, the errors are corrected, and more accurate motion determination is possible.
    • 纠正了运动捕捉系统中传感器的误差。 一个加速度传感器决定了在初始状态下的重力方向(G 1)。 如果不发生漂移剂量,方向G 1永远不会改变。 然而,实际上如果附加有加速度传感器的物体沿坐标轴移动,则随着时间的推移,方向逐渐变化。 根据本发明,在给定时间过去之后,停止加速度传感器以确定重力方向。 参照该确定的数据,将要判断的真实重力方向与受漂移影响的重力G 1的方向进行比较。 它们之间的差异被认为是由于漂移引起的误差,并且从确定的值中减去误差以校正测量值的误差。 与重力方向类似,假设在坐标系中存在任何方向的误差,校正误差,可以进行更准确的运动确定。