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    • 11. 发明授权
    • Parameter estimation device
    • 参数估计装置
    • US09207284B2
    • 2015-12-08
    • US13821573
    • 2011-07-08
    • Atsushi BabaKensuke OsamuraShuichi Adachi
    • Atsushi BabaKensuke OsamuraShuichi Adachi
    • G01N27/416G01R31/36
    • G01R31/3606G01R31/3624G01R31/3651
    • A parameter estimation device includes an input signal detecting means 3 that detects an input signal inputted to an object system 1 expressed by an equivalent circuit model 5A containing at least an integrator element COCV, an output signal detecting means 2 that detects an output signal outputted from the object system, an output differentiating means 4 that differentiates the output signal to obtain and output an output differential signal, a modified equivalent circuit model 5B where respective elements of the equivalent circuit model 5A are changed to non-integrator elements in such a way that the output when the input signal is inputted becomes an output differential signal, and an element parameter estimating means 5 that estimates the parameters corresponding to the respective elements based on the modified equivalent circuit model by using the signals.
    • 参数估计装置包括输入信号检测装置3,其检测输入到由至少包含积分元件COCV的等效电路模型5A表示的对象系统1的输入信号;输出信号检测装置2,其检测从 对象系统,区分输出信号以获得和输出输出差分信号的输出微分装置4,将等效电路模型5A的各个元件改变为非积分元件的修改的等效电路模型5B,使得 当输入信号被输入时的输出变为输出差分信号,以及元素参数估计装置5,通过使用这些信号,基于修改的等效电路模型来估计与各个元件对应的参数。
    • 12. 发明申请
    • PARAMETER ESTIMATION DEVICE
    • 参数估计装置
    • US20130169281A1
    • 2013-07-04
    • US13821573
    • 2011-07-08
    • Atsushi BabaKensuke OsamuraShuichi Adachi
    • Atsushi BabaKensuke OsamuraShuichi Adachi
    • G01R31/36
    • G01R31/3606G01R31/3624G01R31/3651
    • A parameter estimation device includes an input signal detecting means 3 that detects an input signal inputted to an object system 1 expressed by an equivalent circuit model 5A containing at least an integrator element COCV, an output signal detecting means 2 that detects an output signal outputted from the object system, an output differentiating means 4 that differentiates the output signal to obtain and output an output differential signal, a modified equivalent circuit model 5B where respective elements of the equivalent circuit model 5A are changed to non-integrator elements in such a way that the output when the input signal is inputted becomes an output differential signal, and an element parameter estimating means 5 that estimates the parameters corresponding to the respective elements based on the modified equivalent circuit model by using the signals.
    • 参数估计装置包括输入信号检测装置3,其检测输入到由至少包含积分元件COCV的等效电路模型5A表示的对象系统1的输入信号;输出信号检测装置2,其检测从 对象系统,区分输出信号以获得和输出输出差分信号的输出微分装置4,将等效电路模型5A的各个元件改变为非积分元件的修改的等效电路模型5B,使得 当输入信号被输入时的输出变为输出差分信号,以及元素参数估计装置5,通过使用这些信号,基于修改的等效电路模型来估计与各个元件对应的参数。
    • 13. 发明授权
    • Water jet peening method and apparatus thereof
    • 喷水喷丸处理方法及装置
    • US08387427B2
    • 2013-03-05
    • US12830169
    • 2010-07-02
    • Yuji MatsuiMasahiro ToomaAtsushi BabaKouichi KurosawaFujio Yoshikubo
    • Yuji MatsuiMasahiro ToomaAtsushi BabaKouichi KurosawaFujio Yoshikubo
    • B21D7/06
    • C21D7/06C21D11/00
    • A high-pressure water jet is injected from a nozzle scanned and a shock wave generated due to the collapse of bubbles included in the water jet is impacted on a WJP execution object. Tensile residual stress close to the surface of the WJP execution object is improved to compressive residual stress. The shock wave is detected by a pressure sensor and a shock wave generation frequency is obtained. Whether the obtained shock wave generation frequency is larger than a set value or not is decided. When the shock wave generation frequency is larger than the set value, a high-pressure pump is stopped and the injection of the water jet from the nozzle is stopped. When the shock wave generation frequency is equal to or smaller than the set value, the operation condition of the high-pressure pump is changed. The pressure of the water jet injected from the nozzle is increased and the WJP is executed for a part of the WJP execution object where the shock wave generation frequency is equal to or smaller than the set value. Improvement effect of the residual stress of the WJP execution object can be confirmed more accurately.
    • 从扫描的喷嘴喷射高压水射流,并且由于包含在水射流中的气泡的崩溃而产生的冲击波被冲击到WJP执行对象上。 靠近WJP执行物体表面的拉伸残余应力提高到压缩残余应力。 通过压力传感器检测冲击波,获得冲击波产生频率。 确定获得的冲击波产生频率是否大于设定值。 当冲击波产生频率大于设定值时,停止高压泵并停止喷嘴的喷射。 当冲击波产生频率等于或小于设定值时,改变高压泵的运行状态。 从喷嘴喷射的喷水的压力增加,对于冲击波产生频率等于或小于设定值的WJP执行对象的一部分执行WJP。 可以更准确地确认WJP执行对象的残余应力的改善效果。
    • 15. 发明授权
    • Residual stress measuring method and system
    • 残余应力测量方法和系统
    • US07884924B2
    • 2011-02-08
    • US11935673
    • 2007-11-06
    • Shohei NumataAtsushi BabaTetsuya Matsui
    • Shohei NumataAtsushi BabaTetsuya Matsui
    • G01L1/24
    • G01L5/0047G01L1/241
    • A residual stress measuring method capable of measuring residual stress of the surface of an object to be inspected rapidly in a non-destructive non-contact manner, as well as a residual stress measuring system having such characteristics and being high in portability, are provided. The residual stress measuring system comprises a heating laser for heating an inspection area of an object to be inspected, a laser interferometer for irradiating the inspection area interferometric with laser light and measuring a deformation quantity within an elastic deformation range upon stress relief by heating in accordance with a laser interferometric method, and a data processor for measuring residual stress from the deformation quantity within the elastic deformation range upon stress relief of the object to be inspected.
    • 提供了能够以非破坏性的非接触方式快速地测量待检查物体的表面的残余应力的残余应力测量方法,以及具有这种特性并且携带性高的残余应力测量系统。 残余应力测量系统包括用于加热被检查物体的检查区域的加热激光器,用于用激光照射干涉检查区域的激光干涉仪,并且根据按照加热的应力消除来测量弹性变形范围内的变形量 采用激光干涉测量方法,以及数据处理器,用于根据待检测物体的应力释放来测量弹性变形范围内的变形量的残余应力。
    • 16. 发明授权
    • Heat exchange device
    • 换热装置
    • US07281380B2
    • 2007-10-16
    • US10496078
    • 2002-11-01
    • Masashi ShinoharaTsuneo EndohAtsushi Baba
    • Masashi ShinoharaTsuneo EndohAtsushi Baba
    • F01K23/10
    • F02D41/3005F01N3/043F01N5/02F01N2240/02F01P3/12F01P3/22F01P2060/16F02D41/1454F02G5/02F22B1/1807Y02E20/363Y02T10/16Y02T10/166Y02T10/20
    • A heat exchange system is provided that includes an evaporator (11) that carries out heat exchange between exhaust gas discharged from an exhaust port (16B) and water, exhaust gas passages (87, 88) on the upstream side in the direction of flow of the exhaust gas being disposed on the radially inner side, an exhaust gas passage (89) on the downstream side being disposed on the radially outer side, and an oxygen concentration sensor cooling portion (92) for cooling a mounting section of an oxygen concentration sensor (91) facing the exhaust gas passage (87) on the most upstream side being positioned on the radially outer side of the exhaust gas passage (87). Water is supplied separately to a water passage (W3) of the evaporator (11) and a water passage (W4) of the oxygen concentration sensor cooling portion (92), and the water passage (W3) of the evaporator (11) is arranged so that the direction of flow of the water is opposite to the direction of flow of the exhaust gas. It is thereby possible to improve the waste heat recovery efficiency of the evaporator (11) that carries out heat exchange between the exhaust gas of an internal combustion engine and water and, in particular, to minimize the escape of heat via the oxygen concentration sensor (91) for detecting the condition of the exhaust gas.
    • 提供了一种热交换系统,其包括在排气口(16B)排出的废气与水之间进行热交换的蒸发器(11),在流动方向上游侧的排气通路(87,88) 的排气在径向内侧配置,下游侧的排气通路(89)配置在径向外侧,氧浓度传感器冷却部(92),用于冷却氧浓度的安装部 位于排气通道(87)的径向外侧上的最上游侧的排气通路(87)的传感器(91)。 水分别供给蒸发器(11)的水通道(W 3)和氧浓度传感器冷却部分(92)的水通道(W 4)和蒸发器(11)的水通道(W 3) )被布置成使得水的流动方向与废气的流动方向相反。 由此,能够提高在内燃机的废气与水之间进行热交换的蒸发器(11)的废热回收效率,特别是通过氧浓度传感器使热量逸出最小化 91),用于检测废气的状况。
    • 17. 发明授权
    • Internal combustion engine
    • 内燃机
    • US07069884B2
    • 2006-07-04
    • US10495453
    • 2002-10-23
    • Atsushi BabaTsuneo EndohMasashi Shinohara
    • Atsushi BabaTsuneo EndohMasashi Shinohara
    • F02F1/36
    • F01K23/065F01P3/02F01P3/14F01P3/22F01P2060/16F02B75/02F02F1/38F02G5/02F22B1/1807Y02E20/363Y02T10/166
    • An internal combustion engine is provided in which an exhaust port communicating with a combustion chamber formed in a cylinder head is formed from independent exhaust ports, which are positioned on the upstream side, and a grouped exhaust port, in which the plurality of independent exhaust ports are combined. Water supplied from a supply pump passes through a water passage of the grouped exhaust port and a water passage of the independent exhaust ports while cooling the exhaust port, and a valve seat and valve guide on the periphery of the exhaust port, which have high temperatures, thus heating the water itself and thereby recovering waste heat of the internal combustion engine. The heated water carries out heat exchange with exhaust gas in an evaporator provided in an exhaust passage and turns into high temperature, high pressure steam, which drives an expander of a Rankine cycle system. It is thereby possible to maximize the recovery of heat transferred from the exhaust port to the cylinder head of the internal combustion engine.
    • 提供了一种内燃机,其中与形成在气缸盖中的燃烧室连通的排气口由位于上游侧的独立排气口形成,并且分组排气口具有多个独立排气口 被组合。 从供给泵供给的水通过分组排气口的水通道和独立排气口的水通道同时冷却排气口,并且在排气口的外围具有高温的阀座和阀导向件 从而加热水本身,从而回收内燃机的废热。 加热的水在设置在排气通道中的蒸发器中与废气进行热交换,并且变成高温高压蒸汽,其驱动兰金循环系统的膨胀器。 由此,能够使从内燃机的排气口向汽缸盖传递的热量的回收最大化。
    • 20. 发明授权
    • Ultrasonic inspection method and ultrasonic inspection device
    • 超声波检测方法和超声波检测装置
    • US09140670B2
    • 2015-09-22
    • US12975414
    • 2010-12-22
    • So KitazawaNaoyuki KonoAtsushi Baba
    • So KitazawaNaoyuki KonoAtsushi Baba
    • G06F19/00G01N29/06G01N29/26G01N29/44
    • G01N29/0663G01N29/262G01N29/4409G01N2291/105
    • An ultrasonic inspection method and an ultrasonic inspection device allow three-dimensional inspection data and three-dimensional shape data to be appropriately positioned on a display screen and allow a defect echo and a shape echo to be quickly identified even when information on the relative positions of a probe and an object to be inspected is not provided. The ultrasonic inspection data that is generated from the waveforms of ultrasonic waves received by an ultrasonic probe is compared with a plurality of ultrasonic propagation data pieces calculated by a ray tracing method on the basis of the three-dimensional shape data on an object to be inspected. The position of the three-dimensional inspection data or the three-dimensional shape data is moved relative to the other data position on the basis of the comparison results, thereby displaying the three-dimensional inspection data and the three-dimensional shape data while overlapping each other.
    • 超声波检查方法和超声波检查装置允许三维检查数据和三维形状数据适当地定位在显示屏幕上,并且即使当关于相对位置的信息的信息也可以快速识别缺陷回波和形状回波 不提供探针和被检查物体。 将由超声波探头接收的超声波的波形产生的超声波检查数据与通过光线追踪方法计算出的多个超声波传播数据进行比较,并根据对被检体的三维形状数据 。 基于比较结果,三维检查数据或三维形状数据的位置相对于其他数据位置移动,从而显示三维检查数据和三维形状数据,同时重叠每个 其他。