公开(公告)号：US4278318A

公开(公告)日：1981-07-14

申请号：US970439

申请日：1978-12-18

Applicant: Yoshikazu Nakayama ,  Fumikazu Tateishi ,  Katsuyuki Fujito

Inventor： Yoshikazu Nakayama ,  Fumikazu Tateishi ,  Katsuyuki Fujito

IPC: G03H1/26 ,  G11C13/04 ,  G03H1/30

CPC classification number: G11C13/042 ,  G03H1/26

Abstract: Holographic reconstructing apparatus capable of exchanging a hologram memory plate and having a large memory capacity, wherein the position of the memory plate relative to an irradiating laser beam can be accurately controlled. A beam irradiated from a laser source is deflected by a light deflector and is selectively directed to a selected hologram to be read or directed intermittently to a region for dividing the laser beam into a plurality of laser beams. The intensity of each divided laser beam is detected by a light detector, and the detection signal is fed back to control the working point of the light deflector such that the center of the laser beam irradiates the center of the luminous laser beam dividing region. The working point is held until the light deflector again directs the laser beam to the dividing region so that the laser beam radiates a selected hologram on the hologram plate accurately.

Abstract translation: 能够更换全息存储板并具有大的存储容量的全息重建装置，其中可以精确地控制存储板相对于照射激光束的位置。 从激光源照射的光束被光偏转器偏转，并且被选择性地导向选定的全息图以被间断地读取或定向到用于将激光束分成多个激光束的区域。 通过光检测器检测各分割激光的强度，反馈检测信号，控制光偏转器的工作点，使激光束的中心照射到发光激光束分割区域的中心。 工作点保持直到光偏转器再次将激光束引导到分割区域，使得激光束精确地辐射全息图板上的选定的全息图。

公开(公告)号：US09309123B2

公开(公告)日：2016-04-12

申请号：US12733771

申请日：2008-09-19

Applicant: Takeshi Nagasaka ,  Masahiro Yamamura ,  Yoshito Watanabe ,  Masaki Kondo ,  Yoshikazu Nakayama

Inventor： Takeshi Nagasaka ,  Masahiro Yamamura ,  Yoshito Watanabe ,  Masaki Kondo ,  Yoshikazu Nakayama

IPC: C23C16/00 ,  C01B31/02 ,  B01J23/745 ,  B01J35/00 ,  B01J37/02 ,  B82Y30/00 ,  B82Y40/00

CPC classification number: C01B31/0233 ,  B01J23/745 ,  B01J35/002 ,  B01J37/0215 ,  B01J37/0219 ,  B82Y30/00 ,  B82Y40/00 ,  C01B32/162 ,  C01B2202/20 ,  C01B2202/34

Abstract: This invention provides a method for forming a catalyst layer for carbon nanostructure growth, which can eliminate the influence of water in a liquid for catalyst layer formation, can grow homogeneous and highly oriented carbon nanostructures over the whole area of a substrate and can realize mass production of the carbon nanostructures, and a liquid for catalyst layer formation for use in the method, and a process for producing carbon nanostructures using the catalyst layer formed by the method. The catalyst layer for use in the production of CNTs is formed by preparing a catalyst metal salt solution of a catalyst metal-containing metal compound (a catalyst metal salt) dispersed or dissolved in a solvent having an ample wettability towards the substrate and coating the catalyst metal salt solution onto the substrate to a form a thin film. The thin film is then heat treated to form a catalyst layer. The substrate with the dried catalyst layer formed thereon is introduced into a carbon nanostructure synthetic device, and CNTs are grown by a thermal CVD method.

Abstract translation: 本发明提供一种用于形成碳纳米结构生长催化剂层的方法，其可以消除用于催化剂层形成的液体中的水的影响，可以在基材的整个区域上生长均匀且高度取向的碳纳米结构，并且可以实现批量生产 的碳纳米结构体，以及用于该方法的催化剂层形成用液体，以及使用该方法形成的催化剂层制造碳纳米结构体的方法。 用于生产CNT的催化剂层是通过制备分散或溶解在具有充分润湿性的溶剂中的含催化剂金属的金属化合物（催化剂金属盐）的催化剂金属盐溶液形成于底物上并涂覆催化剂 金属盐溶液形成薄膜。 然后将该薄膜热处理以形成催化剂层。 将其上形成有干燥催化剂层的基板引入碳纳米结构合成装置中，并通过热CVD法生长CNT。

公开(公告)号：US08203347B2

公开(公告)日：2012-06-19

申请号：US12377791

申请日：2007-08-24

Applicant: Yoshikazu Nakayama ,  Takao Kawahara ,  Masato Haruta

Inventor： Yoshikazu Nakayama ,  Takao Kawahara ,  Masato Haruta

IPC: G01R35/00 ,  G01R27/04 ,  G01R27/32 ,  G01R27/28

CPC classification number: G01R27/28 ,  G01R35/005

Abstract: A reflection element determination device derives error factors in a first signal source and a second signal source based on measurement results of a signal in respective states in which reflection elements are respectively connected to the first signal source and the second signal source, and measurement results of a signal in a state in which the first signal source and the second signal source are connected with each other via a transmission element, derives transmission characteristics of the transmission element based on the measurement results of a signal in the state in which the first signal source and the second signal source are connected with each other via the transmission element and the derived error factors, and determines whether the reflection elements realize predetermined reflection states based on the derived transmission characteristics of the transmission element and transmission characteristics of the transmission element which have been known before the derivation, where the transmission characteristic of the transmission element in a direction from a first terminal to a second terminal, and the transmission characteristic of the transmission element in the opposite direction are equal to each other.

Abstract translation: 反射元件确定装置基于反射元件分别连接到第一信号源和第二信号源的各自状态下的信号的测量结果，在第一信号源和第二信号源中导出误差因子，以及测量结果 在第一信号源和第二信号源经由传输元件彼此连接的状态下的信号基于第一信号源的状态下的信号的测量结果导出传输元件的传输特性 并且第二信号源经由传输元件和导出的误差因子彼此连接，并且基于导出的传输元件的传输特性和传输元件的传输特性来确定反射元件是否实现预定的反射状态 在衍生之前已知 其中传输元件在从第一端子到第二端子的方向上的传输特性以及传输元件在相反方向上的传输特性彼此相等。

公开(公告)号：US20110319260A1

公开(公告)日：2011-12-29

申请号：US13224115

申请日：2011-09-01

Applicant: Yoshikazu Nakayama ,  Toru Sakai ,  Takeshi Nagasaka

Inventor： Yoshikazu Nakayama ,  Toru Sakai ,  Takeshi Nagasaka

IPC: B01J23/745 ,  B01J35/02

CPC classification number: B01J37/0244 ,  B01J21/08 ,  B01J23/745 ,  B01J35/006 ,  B01J35/023 ,  B01J37/0238 ,  B01J37/14 ,  B82Y30/00 ,  B82Y40/00 ,  C01B32/162 ,  C01B2202/34 ,  Y10S502/524

Abstract: It is intended to highly efficiently produce a high-density brush shaped carbon nanostructure useful in the production of CNT assembly, such as rope-shaped CNTs, and provide a catalyst body for production of brush-shaped carbon nanostructure that enables the production. The catalyst body for production of brush-shaped carbon nanostructure is one comprising a substrate (32), an aggregation suppressive layer (34) superimposed on a surface thereof and a catalyst layer superimposed on the aggregation suppressive layer (34). The catalyst layer is a catalyst particle layer (44) consisting of metallic catalyst particles (42) composed mainly of a catalytic metal. The metallic catalyst particles (42) have an average particle diameter, D, satisfying the relationship 0.5 nm≦D≦80 nm, and individual particles of the metallic catalyst particles (42) have a diameter, d, falling within the range of the above average particle diameter (D). Further, there are disclosed a process for producing the catalyst body, a brush-shaped carbon nanostructure and a process for producing the same.

Abstract translation: 旨在高效地生产可用于生产CNT组件（例如绳状CNT）的高密度刷状碳纳米结构，并且提供用于生产能够生产的刷状碳纳米结构的催化剂体。 用于生产刷状碳纳米结构的催化剂体是包括基板（32），叠加在其表面上的聚集抑制层（34）和叠加在聚集抑制层（34）上的催化剂层的催化剂体。 催化剂层是由主要由催化金属组成的金属催化剂颗粒（42）组成的催化剂颗粒层（44）。 金属催化剂粒子（42）的平均粒径D满足0.5nm＆nlE; D＆nlE; 80nm的关系，金属催化剂粒子（42）的各个粒子的直径d落在上述范围内 平均粒径（D）。 此外，公开了一种催化剂体的制造方法，刷状碳纳米结构体及其制造方法。

公开(公告)号：US08076947B2

公开(公告)日：2011-12-13

申请号：US12377430

申请日：2007-08-15

Applicant: Yoshikazu Nakayama ,  Masato Haruta ,  Hiroyuki Sekine

Inventor： Yoshikazu Nakayama ,  Masato Haruta ,  Hiroyuki Sekine

IPC: G01R15/00

CPC classification number: G01R27/28 ,  G01R35/00

Abstract: An error factor determination device includes an error factor recording unit which records error factors Eija in a signal generation system which includes a signal generation unit for generating a signal and an output terminal for outputting the signal, a reflection coefficient deriving unit which derives a reflection coefficient Xm of the output terminal based on measurement results R1 and R2 of the signal while the signal is being output from the output terminal and the error factors Eija recorded in the error factor recording unit, and a true/false determination unit which determines whether the recorded error factors Eija are true or false based on the derived reflection coefficient Xm, and a true value of the reflection coefficient.

Abstract translation: 误差因子确定装置包括误差因子记录单元，其将误差因子Eija记录在包括用于产生信号的信号生成单元和用于输出信号的输出端子的信号生成系统中，反射系数导出单元导出反射系数 输出端子的Xm根据测量结果R1和R2的信号，以及输出端子输出的信号和误差因子记录单元中记录的误差因子Eija，以及确定是否记录的 基于导出的反射系数Xm和反射系数的真值，误差因子Eija为真或假。

公开(公告)号：US07996184B2

公开(公告)日：2011-08-09

申请号：US12501792

申请日：2009-07-13

Applicant: Yoshikazu Nakayama ,  Takeshi Tanabe

Inventor： Yoshikazu Nakayama ,  Takeshi Tanabe

IPC: G06F3/00 ,  G06F13/00 ,  G06F11/00 ,  G06C17/00

CPC classification number: G01R35/005 ,  G01R27/28

Abstract: Errors of a measuring system are corrected by acquiring the phases of transmission tracking errors. A network analyzer includes a measuring system error factor recording unit which records measuring system error factors generated independently of frequency conversion carried out by a DUT, and an error factor acquiring unit which measures first coefficients and second coefficients of a correction mixer where a signal output from a terminal is a sum of a product of a signal input to the terminal and the first coefficient, and a product of a signal input to the other terminal and the second coefficient, and the ratio of magnitudes of the second coefficients is constant, and acquires the transmission tracking errors caused by the frequency conversion based on the measuring system error factors recorded in the measuring system error factor recording unit, the first coefficients, and the second coefficients.

Abstract translation: 通过获取传输跟踪误差的相位来校正测量系统的错误。 网络分析器包括测量系统误差因子记录单元，其记录独立于DUT进行的频率转换的测量系统误差因子，以及误差因子获取单元，其测量校正混合器的第一系数和第二系数，其中从 终端是输入到终端的信号与第一系数的乘积的和，以及输入到另一个终端的信号与第二系数的乘积，并且第二系数的大小的比率是恒定的，并且获取 基于记录在测量系统误差因子记录单元中的测量系统误差因子的频率变换引起的传输跟踪误差，第一系数和第二系数。

公开(公告)号：US20110133135A1

公开(公告)日：2011-06-09

申请号：US13058236

申请日：2009-06-19

Applicant: Youhei Maeno ,  Yoshikazu Nakayama ,  Kaori Hirahara

Inventor： Youhei Maeno ,  Yoshikazu Nakayama ,  Kaori Hirahara

IPC: H01B1/24

CPC classification number: H01B1/04 ,  B82Y30/00 ,  B82Y40/00 ,  C01B32/168 ,  C01B2202/04 ,  C01B2202/20 ,  H01B1/24 ,  Y10S977/742 ,  Y10S977/752 ,  Y10S977/753 ,  Y10T428/26 ,  Y10T428/28 ,  Y10T428/2913 ,  Y10T428/2973 ,  Y10T428/2975

Abstract: Provided is a composite material useful as a material for a thermal contact surface in a microprocessor which can express extremely high thermal diffusion property and extremely high conductivity, can express a sufficient adhesive strength in its surface, and is excellent in reworking property at the time of a bonding operation. The carbon nanotube aggregate of the present invention is a carbon nanotube aggregate where a plurality of carbon nanotubes each having a plurality of walls penetrate a resin layer in a thickness direction of the resin layer, in which both terminals of the carbon nanotube aggregate each have a shear adhesive strength for glass at 25° C. of 15 N/cm2 or more.

Abstract translation: 本发明提供一种复合材料，其可用作微处理器中的热接触表面的材料，其能够表现出极高的热扩散性和极高的导电性，能够在其表面上表现出足够的粘合强度，并且在工作性能方面优异 接合操作。 本发明的碳纳米管集合体是碳纳米管集合体，其中，具有多个壁的多个碳纳米管沿着树脂层的厚度方向贯穿树脂层，其中碳纳米管集合体的两端均具有 25℃下玻璃的剪切粘合强度为15N / cm 2以上。

公开(公告)号：US20100303675A1

公开(公告)日：2010-12-02

申请号：US12805528

申请日：2010-08-04

Applicant: Osamu Suekane ,  Toshikazu Nosaka ,  Yoshikazu Nakayama ,  Lujun Pan ,  Takeshi Nagasaka ,  Toru Sakai ,  Hiroyuki Tsuchiya ,  Toshiki Goto ,  Xu Li

Inventor： Osamu Suekane ,  Toshikazu Nosaka ,  Yoshikazu Nakayama ,  Lujun Pan ,  Takeshi Nagasaka ,  Toru Sakai ,  Hiroyuki Tsuchiya ,  Toshiki Goto ,  Xu Li

IPC: B01J19/00

CPC classification number: B82Y30/00 ,  B82Y40/00 ,  C01B32/162 ,  C01B2202/30

Abstract: Developed is high-efficiency synthesis method and apparatus capable of promoting the initial growth of carbon nanostructure by eliminating the initial fluctuation time and rising time in raw gas flow quantity.A high-efficiency synthesis method of carbon nanostructure according to the present invention is a high-efficiency synthesis method of carbon nanostructure, the method comprising: bringing raw material gas and a catalyst into contact with each other under reactive conditions so as to produce a carbon nanostructure, wherein: the initiation of contact of the raw material gas with the catalyst is carried out instantaneously. Reaction conditions such as temperature and raw material gas concentration are set so as to meet those for catalyst growth, and under the reaction conditions, the initiation of contact of raw material gas G with catalyst 6 is carried out instantaneously. Consequently, the initial growth of carbon nanostructure is positively carried out, and the height growth and thickness growth thereof can be effected in high efficiency. Further, high-density growth and short-time high-speed growth can be realized. The catalyst includes any forms of catalyst such as catalyst substrate, catalyst structure, catalyst powders and catalyst pellet. It is especially preferred to employ a system wherein the feed and interruption of the raw material gas G are intermittently controlled by means of an electromagnetic three-way valve 24.

Abstract translation: 开发了通过消除原始气体流量的初始波动时间和上升时间，可以促进碳纳米结构初始生长的高效合成方法和装置。 根据本发明的碳纳米结构的高效合成方法是碳纳米结构的高效合成方法，该方法包括：使原料气体和催化剂在反应条件下彼此接触，以产生碳 纳米结构，其中：原料气体与催化剂的接触开始立即进行。 反应条件如温度和原料气体浓度设定为满足催化剂生长的条件，在反应条件下，原料气体G与催化剂6的接触开始立即进行。 因此，积极地进行碳纳米结构的初始生长，并且可以高效率地实现其高度生长和厚度生长。 此外，可以实现高密度生长和短时高速生长。 催化剂包括任何形式的催化剂，如催化剂底物，催化剂结构，催化剂粉末和催化剂颗粒。 特别优选采用通过电磁三通阀24间歇地控制原料气体G的进料和中断的系统。

公开(公告)号：US20100042347A1

公开(公告)日：2010-02-18

申请号：US12377791

申请日：2007-08-24

Applicant: Yoshikazu Nakayama ,  Takao Kawahara ,  Masato Haruta

Inventor： Yoshikazu Nakayama ,  Takao Kawahara ,  Masato Haruta

IPC: G06F19/00

CPC classification number: G01R27/28 ,  G01R35/005

Abstract: A reflection element determination device derives error factors in a first signal source and a second signal source based on measurement results of a signal in respective states in which reflection elements are respectively connected to the first signal source and the second signal source, and measurement results of a signal in a state in which the first signal source and the second signal source are connected with each other via a transmission element, derives transmission characteristics of the transmission element based on the measurement results of a signal in the state in which the first signal source and the second signal source are connected with each other via the transmission element and the derived error factors, and determines whether the reflection elements realize predetermined reflection states based on the derived transmission characteristics of the transmission element and transmission characteristics of the transmission element which have been known before the derivation, where the transmission characteristic of the transmission element in a direction from a first terminal to a second terminal, and the transmission characteristic of the transmission element in the opposite direction are equal to each other.

Abstract translation: 反射元件确定装置基于反射元件分别连接到第一信号源和第二信号源的各自状态下的信号的测量结果，在第一信号源和第二信号源中导出误差因子，以及测量结果 在第一信号源和第二信号源经由传输元件彼此连接的状态下的信号基于第一信号源的状态下的信号的测量结果导出传输元件的传输特性 并且第二信号源经由传输元件和导出的误差因子彼此连接，并且基于导出的传输元件的传输特性和传输元件的传输特性来确定反射元件是否实现预定的反射状态 在衍生之前已知 其中传输元件在从第一端子到第二端子的方向上的传输特性以及传输元件在相反方向上的传输特性彼此相等。

公开(公告)号：US20090326140A1

公开(公告)日：2009-12-31

申请号：US12308765

申请日：2007-06-25

Applicant: Yasuhito Shimada ,  Yasuo Kita ,  Toshikazu Nosaka ,  Yoshikazu Nakayama ,  Toshiyuki Okuda

Inventor： Yasuhito Shimada ,  Yasuo Kita ,  Toshikazu Nosaka ,  Yoshikazu Nakayama ,  Toshiyuki Okuda

IPC: C08K7/06

CPC classification number: C08L63/00 ,  B82Y30/00 ,  C08J5/005 ,  C08J5/042 ,  C08J5/24 ,  C08J2363/00 ,  C08K3/043 ,  C08K2201/003 ,  C08K2201/004

Abstract: An object is to provide a resin material having high strength and high vibration-damping property. A resin material includes a matrix resin and carbon nanocoils contained therein. The carbon nanocoils have electrical conductivity, so that the matrix resin containing them can easily convert a vibration energy generated in the resin material into heat and thereby damp the vibration energy in a short time. In addition, since the carbon nanocoil is in a coiled form, vibration-damping property can be enhanced in comparison with that of conductive materials such as carbon nanotube and graphite.

Abstract translation: 目的在于提供具有高强度和高振动阻尼性能的树脂材料。 树脂材料包括基质树脂和其中所含的碳纳米薄膜。 碳纳米薄膜具有导电性，因此含有它们的基体树脂可以容易地将树脂材料中产生的振动能量转换成热量，从而在短时间内抑制振动能量。 此外，由于碳纳米线圈为卷绕形状，与碳纳米管和石墨等导电材料相比，可以提高阻尼性能。