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    • 1. 发明申请
    • ULTRAVIOLET IRRADIATION UNIT
    • 超紫外线辐射单元
    • US20120001991A1
    • 2012-01-05
    • US13256934
    • 2009-03-18
    • Yoshiki OnozawaAkifumi SekiNobuyuki Ono
    • Yoshiki OnozawaAkifumi SekiNobuyuki Ono
    • B41J2/01
    • B41J2/1714B41J11/002
    • An ultraviolet irradiation unit (100) is provided with an ultraviolet irradiation device (50) and an ink mist sucking and removing device (60). The ink mist sucking and removing device (60) includes a blower fan (62), an air filter (63) and a device cover (61) for forming an air flow passage whose one end is provided with a suction port (64) located in an upper vicinity of a printing object (80) and whose another end is provided with a ventilation port (58a) facing an LED drive circuit board (55). Air in the upper vicinity of a printing object (80) is sucked through the suction port (64) by the blower fan (62), ink mist included in the air is removed by the air filter (63), and cleaned air discharged through the ventilation port (58a) is blown to an LED circuit board (51), an LED drive circuit board (55).
    • 紫外线照射单元(100)具有紫外线照射装置(50)和墨雾吸引除去装置(60)。 墨雾吸取装置(60)具有鼓风机(62),空气过滤器(63)和装置盖(61),用于形成空气流路,其一端设有吸入口(64) 在打印对象(80)的上部附近,并且其另一端设置有面向LED驱动电路板(55)的通气口(58a)。 在打印对象(80)的上方附近的空气通过吸引口(64)被鼓风机(62)吸入,包含在空气中的墨雾被空气过滤器(63)除去,净化后的空气通过 通风口(58a)吹送到LED电路板(51),LED驱动电路板(55)。
    • 3. 发明授权
    • Ultraviolet irradiation unit
    • 紫外线照射装置
    • US08807732B2
    • 2014-08-19
    • US13256934
    • 2009-03-18
    • Yoshiki OnozawaAkifumi SekiNobuyuki Ono
    • Yoshiki OnozawaAkifumi SekiNobuyuki Ono
    • B41J2/01
    • B41J2/1714B41J11/002
    • An ultraviolet irradiation unit (100) is provided with an ultraviolet irradiation device (50) and an ink mist sucking and removing device (60). The ink mist sucking and removing device (60) includes a blower fan (62), an air filter (63) and a device cover (61) for forming an air flow passage whose one end is provided with a suction port (64) located in an upper vicinity of a printing object (80) and whose another end is provided with a ventilation port (58a) facing an LED drive circuit board (55). Air in the upper vicinity of a printing object (80) is sucked through the suction port (64) by the blower fan (62), ink mist included in the air is removed by the air filter (63), and cleaned air discharged through the ventilation port (58a) is blown to an LED circuit board (51), an LED drive circuit board (55).
    • 紫外线照射单元(100)具有紫外线照射装置(50)和墨雾吸引除去装置(60)。 墨雾吸取装置(60)具有鼓风机(62),空气过滤器(63)和装置盖(61),用于形成空气流路,其一端设有吸入口(64) 在打印对象(80)的上部附近,并且其另一端设置有面向LED驱动电路板(55)的通气口(58a)。 在打印对象(80)的上方附近的空气通过吸引口(64)被鼓风机(62)吸入,包含在空气中的墨雾被空气过滤器(63)除去,净化后的空气通过 通风口(58a)吹送到LED电路板(51),LED驱动电路板(55)。
    • 4. 发明申请
    • THREE-DIMENSIONAL INKJET PRINTER
    • 三维喷墨打印机
    • US20120188303A1
    • 2012-07-26
    • US13392090
    • 2009-08-31
    • Yoshiki OnozawaAkifumi SekiNobuyuki Ono
    • Yoshiki OnozawaAkifumi SekiNobuyuki Ono
    • B41J29/38
    • B41J29/38B29C64/112B33Y40/00B41J3/4073
    • To reduce unevenness in print density. A three-dimensional inkjet printer has a medium holding portion 40 which holds a medium M on which a vibration generator 50 which applies vibrations to the medium holding portion 40 is mounted. Then, vibrations are generated from the vibration generator 50 when ink droplets are ejected from an inkjet head 20 by relatively moving the medium holding portion 40 and inkjet head 20 while rotating the medium holding portion 40. Because of this, the medium M held by the medium holding portion 40 vibrates, and the landing positions of ink droplets ejected from the inkjet head 20 deviate non-uniformly overall. Because of this, the deviation of dot positions becomes visually inconspicuous, and unevenness in print density decreases.
    • 减少打印浓度不均匀。 三维喷墨打印机具有保持介质M的介质保持部40,在介质M上安装有对介质保持部40施加振动的振动发生器50。 然后,当通过相对地移动介质保持部分40和喷墨头20同时旋转介质保持部分40时从喷墨头20喷射墨滴时,从振动发生器50产生振动。因此,由 介质保持部分40振动,并且从喷墨头20喷射的墨滴的着陆位置总体上不均匀地偏离。 因此,点位置的偏差在视觉上不显眼,并且印刷密度的不均匀性降低。
    • 5. 发明授权
    • 3D inkjet printer
    • 3D喷墨打印机
    • US08308271B2
    • 2012-11-13
    • US12948787
    • 2010-11-18
    • Kazutomo SekiYoshiki OnozawaSo InukaiNobuyuki Ono
    • Kazutomo SekiYoshiki OnozawaSo InukaiNobuyuki Ono
    • B41J23/00B29C67/00
    • B41J23/00B33Y30/00B41J3/4073
    • A 3D inkjet printer includes an inkjet head and a medium holder configured to hold a medium having a three-dimensional shape. A Y-axial driving mechanism is capable of moving the inkjet head along a Y-axial. A Z-axial supporting mechanism supports the medium holder so as to be movable along a Z-axial direction. An X-axial driving mechanism is capable of moving the Z-axial supporting mechanism along an X-axial direction. A Z-axial driving mechanism is capable of moving the medium holder along the Z-axial direction. The medium holder includes an A-axial driving mechanism capable of swinging the medium along an A-axial direction. The A-axial direction is a rotational direction about a shaft disposed along the Y-axial direction. A B-axial driving mechanism is capable of rotating the medium along a B-axial direction. The B-axial direction is a rotational direction about a shaft disposed perpendicular to the Y-axial direction.
    • 3D喷墨打印机包括喷墨头和被配置为保持具有三维形状的介质的介质保持器。 Y轴驱动机构能够沿着Y轴移动喷墨头。 Z轴支撑机构支撑介质保持器,以便沿Z轴方向可移动。 X轴驱动机构能够沿着X轴方向移动Z轴支承机构。 Z轴驱动机构能够沿着Z轴方向移动介质保持架。 介质保持器包括能够沿A轴方向摆动介质的A轴驱动机构。 A轴方向是围绕沿着Y轴方向设置的轴的旋转方向。 B轴驱动机构能够沿B轴方向旋转介质。 B轴方向是围绕垂直于Y轴方向设置的轴的旋转方向。
    • 6. 发明申请
    • 3D INKJET PRINTER
    • US20110115849A1
    • 2011-05-19
    • US12948787
    • 2010-11-18
    • Kazutomo SekiYoshiki OnozawaSo InukaiNobuyuki Ono
    • Kazutomo SekiYoshiki OnozawaSo InukaiNobuyuki Ono
    • B41J23/00
    • B41J23/00B33Y30/00B41J3/4073
    • A 3D inkjet printer includes an inkjet head and a medium holder configured to hold a medium having a three-dimensional shape. A Y-axial driving mechanism is capable of moving the inkjet head along a Y-axial. A Z-axial supporting mechanism supports the medium holder so as to be movable along a Z-axial direction. An X-axial driving mechanism is capable of moving the Z-axial supporting mechanism along an X-axial direction. A Z-axial driving mechanism is capable of moving the medium holder along the Z-axial direction. The medium holder includes an A-axial driving mechanism capable of swinging the medium along an A-axial direction. The A-axial direction is a rotational direction about a shaft disposed along the Y-axial direction. A B-axial driving mechanism is capable of rotating the medium along a B-axial direction. The B-axial direction is a rotational direction about a shaft disposed perpendicular to the Y-axial direction.
    • 3D喷墨打印机包括喷墨头和被配置为保持具有三维形状的介质的介质保持器。 Y轴驱动机构能够沿着Y轴移动喷墨头。 Z轴支撑机构支撑介质保持器,以便沿Z轴方向可移动。 X轴驱动机构能够沿着X轴方向移动Z轴支承机构。 Z轴驱动机构能够沿着Z轴方向移动介质保持架。 介质保持器包括能够沿A轴方向摆动介质的A轴驱动机构。 A轴方向是围绕沿着Y轴方向设置的轴的旋转方向。 B轴驱动机构能够沿B轴方向旋转介质。 B轴方向是围绕垂直于Y轴方向设置的轴的旋转方向。
    • 8. 发明授权
    • Device for continuously measuring the skin local sweating rate
    • 用于连续测量皮肤局部施放率的装置
    • US5131390A
    • 1992-07-21
    • US580564
    • 1990-09-11
    • Masao SakaguchiNobuyuki OnoToshio OhhashiTomoya Kamei
    • Masao SakaguchiNobuyuki OnoToshio OhhashiTomoya Kamei
    • A61B5/00
    • A61B5/4261A61B5/4266
    • A device for continuously measuring the skin local sweating rate includes a capsule used for applying on a human skin at a measuring point and an air supply element for supplying dehumidified air to the capsule. A first chamber is formed between the capsule and the skin for receiving water vapor perspired from the skin and the dehumidified air supplied from the air supply element to produce the mixture of perspiration oriented water vapor through the skin and the dehumidified air. A second chamber is also formed within the capsule and connected with the first chamber through a communicating hole. The device further includes a humidity detecting element disposed in the second chamber. The humidity detecting element varies its electrical circuit constant according to the relative humidity of the mixture. A temperature detecting element is disposed in the second chamber for detecting the temperature in the second chamber and for outputting signals corresponding to the temperature. A humidity detecting signal output element is mounted on the capsule and is electrically connected with the humidity detecting element for outputting a humidity detecting signal corresponding to the circuit constant of the humidity detecting element. A calculation circuit calculates the sweating rate which is independent of the temperature of the mixture, based on the signals from the humidity detecting signal output element and the temperature detecting element. An element is provided for continuously recording the data of the sweating rate obtained by the calculation circuit.
    • 10. 发明申请
    • PRODUCTION METHOD OF WATER GLASS
    • 水玻璃的生产方法
    • US20110038777A1
    • 2011-02-17
    • US12736324
    • 2009-04-03
    • Jiro KondoNobuyuki OnoHiroshi OnoderaTsutomu Saito
    • Jiro KondoNobuyuki OnoHiroshi OnoderaTsutomu Saito
    • C01B33/32
    • C01B3/06C01B33/32Y02E60/36
    • The present invention relates to a production method, of water glass, comprising dissolving a sodium-based byproduct which is by-produced in the process of enhancing the purity of silicone and not only contains silicon but also contains sodium silicate as a main component, in water to produce crude water glass, at the same time, dissolving the silicon to generate a hydrogen gas, and then filtering the crude water glass to produce water glass.An object of the present invention is to provide a production method of water glass, ensuring that in utilizing, as water glass, a sodium-based byproduct which is by-produced in the process of enhancing the purity of silicon and not only contains silicon but also contains sodium silicate as a main component, the problem of hydrogen gas generation attributable to silicon contained in the byproduct can be solved, a safe and stable operation is possible, and effective utilization as transparent water glass can be achieved.
    • 水玻璃的制造方法技术领域本发明涉及一种水玻璃的制造方法,其特征在于,在提高硅氧烷的纯度的方法中,将含有副产物的钠系副产物溶解,不仅含有硅,而且还含有硅酸钠作为主要成分 水生产原水玻璃,同时溶解硅产生氢气,然后过滤粗水玻璃制成水玻璃。 本发明的一个目的是提供一种水玻璃的制造方法,其确保在水玻璃中使用在提高硅纯度的过程中副产生的钠基副产物,而不仅含有硅, 也含有硅酸钠作为主要成分,可以解决副产物中含有的硅的氢气产生问题,可以实现安全稳定的操作,可以实现透明水玻璃的有效利用。