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    • 32. 发明授权
    • Method for surface treatment of an internal combustion piston and an internal combustion piston
    • 内燃活塞和内燃活塞的表面处理方法
    • US07767033B2
    • 2010-08-03
    • US11826818
    • 2007-07-18
    • Nobuyuki FujiwaraYoshio Miyasaka
    • Nobuyuki FujiwaraYoshio Miyasaka
    • C23C8/00F02F3/00B23P15/10B41N1/24
    • F02F3/10Y10T29/49261Y10T29/49263
    • A method for surface treatment capable of easily improving a mechanical strength of an internal combustion piston at a reasonable cost is provided. A modified surface layer is formed by injecting injection powders containing a reinforcing element to be collided with an Al—Si alloy-based piston obtained by casting and forging by injecting under predetermined conditions, the reinforcing element being diffused and penetrated in the piston to improve the strength thereof. When a function, such as fuel modification, is imparted to the modified surface layer, an element exhibiting a photocatalytic function by oxidation, such as Ti, Sn, Zn, Zr, or W, is selected as the reinforcing element. By locally heating and cooling performed on the piston surface by the collision with the injection powders, alloy elements are fine-grained by recrystallization, the reinforcing element in the injection powders is diffused and penetrated in the piston surface by activated adsorption, and a modified layer having a uniformly fine-grained microstructure containing the alloy elements and the reinforcing element is formed. As a result, besides improvement in strength of the piston, by the selection of the above element, such as Ti, the photocatalytic function, such as fuel modification, can also be obtained.
    • 提供了能够以合理的成本容易地提高内燃活塞的机械强度的表面处理方法。 改性表面层是通过注射含有增强元素的注入粉末而形成的,所述注入粉末与预定条件下注射铸造和锻造而获得的Al-Si合金基活塞碰撞,所述增强元件被扩散并渗透到活塞中以改善 的强度。 当对改性表面层赋予燃料改性等功能时,可以选择Ti,Sn,Zn,Zr或W等氧化作用的光催化剂作为增强元素。 通过与注射粉末的碰撞对活塞表面进行局部加热和冷却,合金元素通过重结晶细粒化,注入粉末中的增强元件通过活化吸附扩散并渗入活塞表面,并且改性层 形成含有合金元素和增强元件的均匀细粒度的微结构。 结果,除了提高活塞的强度之外,通过选择Ti等上述元素,也可以获得燃料改性等光催化功能。
    • 35. 发明授权
    • Method for generating nanostructures and device for generating nanostructures
    • 用于产生纳米结构的方法和用于产生纳米结构的装置
    • US07691211B2
    • 2010-04-06
    • US10343009
    • 2001-07-27
    • Jian LuKe Lu
    • Jian LuKe Lu
    • C23C8/00B24B39/00
    • C23C8/02C21D7/06C21D2201/03Y10T29/479
    • The present invention concerns a method for generating nanostructures in order to obtain in an area on the surface of a metal piece (10) a nanostructured layer of defined thickness, characterized in that it comprises: a step for projecting onto an impact point in the area of the surface of the piece (10) to be treated, for a given duration, at a given speed and at variable incidences at the same impact point, a given quantity of perfectly spherical balls (22) of given dimensions, reused continuously during the projection; repetition of the preceding step with a shift of the impact point so that the impact points as a group cover the entire surface of the piece to be treated; a step for treatment by diffusion of chemical compounds into the nanostructured layer generated during the step for implementing the method for generating nanostructures.
    • 本发明涉及一种用于产生纳米结构的方法,以便在金属片(10)的表面上获得具有规定厚度的纳米结构层的区域,其特征在于,其包括:用于投影到该区域中的冲击点上的步骤 (10)的待处理表面,给定的持续时间,给定的速度和相同的冲击点处的可变的发生量,给定量的具有给定尺寸的完美球形球(22)在 投影; 以冲击点的移动重复前一步骤,使得作为一组的冲击点覆盖待处理的整个表面; 通过化学化合物扩散到在实施用于产生纳米结构的方法的步骤期间产生的纳米结构层中进行处理的步骤。
    • 36. 发明申请
    • Combustion deposition of metal oxide coatings deposited via infrared burners
    • 通过红外线燃烧器沉积的金属氧化物涂层的燃烧沉积
    • US20090155493A1
    • 2009-06-18
    • US12000784
    • 2007-12-17
    • Mark A. LewisDavid D. McLeanMaximo Frati
    • Mark A. LewisDavid D. McLeanMaximo Frati
    • C23C8/00
    • C23C16/402C03C17/002C03C17/007C03C2217/732C03C2218/15C23C16/453F23D14/125F23D14/14F23D91/02
    • Certain example embodiments of this invention relate to a method of forming a coating on a glass substrate using combustion deposition. A glass substrate having at least one surface to be coated is provided. A reagent is selected. A precursor to be combusted with the reagent is introduced. Using at least one infrared burner, at least a portion of the reagent and the precursor are combusted to form a combusted material, with the combusted material including non-vaporized material. The glass substrate is provided in an area so that the glass substrate is heated sufficiently to allow the combusted material to form the coating, directly or indirectly, on the glass substrate. The coating may be substantially uniform. In certain example embodiments, a silicon oxide coating may be deposited, which increases visible transmission of the glass substrate by at least about 1.7%.
    • 本发明的某些示例性实施方案涉及使用燃烧沉积在玻璃基底上形成涂层的方法。 提供具有至少一个待涂覆表面的玻璃基板。 选择试剂。 引入与试剂一起燃烧的前体。 使用至少一个红外线燃烧器,至少一部分试剂和前体被燃烧以形成燃烧的材料,燃烧的材料包括非汽化材料。 玻璃基板设置在一个区域中,使得玻璃基板被充分加热,以允许燃烧的材料直接或间接地在玻璃基板上形成涂层。 涂层可以是基本均匀的。 在某些示例性实施例中,可以沉积氧化硅涂层,这增加玻璃基板的可见透射率至少约1.7%。
    • 38. 发明授权
    • Functionalization of carbon nanotubes
    • 碳纳米管的功能化
    • US07473436B1
    • 2009-01-06
    • US10828524
    • 2004-04-05
    • Bishun N. KhareMeyya Meyyappan
    • Bishun N. KhareMeyya Meyyappan
    • C23C16/00H05H1/00H05H1/24B05D3/14B05D3/00C23C8/00C23C14/00
    • B82Y30/00B82Y40/00C01B32/174H05H3/02Y10S427/102
    • Method and system for functionalizing a collection of carbon nanotubes (CNTs). A selected precursor gas (e.g., H2 or F2 or CnHm) is irradiated to provide a cold plasma of selected target species particles, such as atomic H or F, in a first chamber. The target species particles are directed toward an array of CNTs located in a second chamber while suppressing transport of ultraviolet radiation to the second chamber. A CNT array is functionalized with the target species particles, at or below room temperature, to a point of saturation, in an exposure time interval no longer than about 30 sec. *Discrimination against non-target species is provided by (i) use of a target species having a lifetime that is much greater than a lifetime of a non-target species and/or (2) use of an applied magnetic field to discriminate between charged particle trajectories for target species and for non-target species.
    • 用于功能化碳纳米管(CNT)集合的方法和系统。 照射所选择的前体气体(例如H2或F2或CnHm),以在第一室中提供所选靶物质颗粒的冷等离子体,例如原子H或F。 目标物质颗粒指向位于第二室中的CNT阵列,同时抑制紫外线辐射传递到第二室。 在不超过约30秒的曝光时间间隔内,CNT阵列在室温或室温下被靶物种颗粒功能化到饱和点。 *对非目标物种的歧视是通过以下方式提供的:(i)使用具有远远大于非目标物种的寿命的寿命的目标物种和/或(2)使用施加的磁场来区分带电的 目标物种和非目标物种的粒子轨迹。