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    • 1. 发明授权
    • Precision replenishable grinding tool and manufacturing process
    • 精密补充研磨工具及制造工艺
    • US5762660A
    • 1998-06-09
    • US627166
    • 1996-04-03
    • Daniel M. MakowieckiJohn A. KernsKenneth L. BlaedelNicholas J. ColellaPete J. DavisRobert S. Juntz
    • Daniel M. MakowieckiJohn A. KernsKenneth L. BlaedelNicholas J. ColellaPete J. DavisRobert S. Juntz
    • B24B3/00B24D18/00B24D99/00B24D11/00
    • B24D99/00B24B3/00B24D18/00
    • A reusable grinding tool consisting of a replaceable single layer of abrasive particles intimately bonded to a precisely configured tool substrate, and a process for manufacturing the grinding tool. The tool substrate may be ceramic or metal and the abrasive particles are preferably diamond, but may be cubic boron nitride. The manufacturing process involves: coating a configured tool substrate with layers of metals, such as titanium, copper and titanium, by physical vapor deposition (PVD); applying the abrasive particles to the coated surface by a slurry technique; and brazing the abrasive particles to the tool substrate by alloying the metal layers. The precision control of the composition and thickness of the metal layers enables the bonding of a single layer or several layers of micron size abrasive particles to the tool surface. By the incorporation of an easily dissolved metal layer in the composition such allows the removal and replacement of the abrasive particles, thereby providing a process for replenishing a precisely machined grinding tool with fine abrasive particles, thus greatly reducing costs as compared to replacing expensive grinding tools.
    • 可重复使用的研磨工具由紧密结合到精确配置的工具基底上的可更换单层研磨颗粒组成,以及用于制造研磨工具的方法。 工具衬底可以是陶瓷或金属,并且磨料颗粒优选是金刚石,但是可以是立方氮化硼。 制造过程包括:通过物理气相沉积(PVD)将配置有金属层(例如钛,铜和钛)的工具衬底涂覆; 通过浆料技术将磨料颗粒施加到涂覆表面; 并通过使金属层合金化将磨料颗粒钎焊到工具基底上。 金属层的组成和厚度的精确控制使得能够将单层或几层微米级磨料颗粒结合到工具表面。 通过在组合物中引入容易溶解的金属层可以使磨料颗粒的移除和更换,从而提供了用精细磨料颗粒补充精密加工的磨削工具的方法,从而与替代昂贵的磨具相比大大降低了成本 。
    • 4. 发明授权
    • Apparatus for coating powders
    • 粉末涂装设备
    • US6149785A
    • 2000-11-21
    • US9643
    • 1998-01-20
    • Daniel M. MakowieckiJohn A. KernsCraig S. AlfordMark A. McKernan
    • Daniel M. MakowieckiJohn A. KernsCraig S. AlfordMark A. McKernan
    • B22F1/02C23C14/22C23C14/35
    • C23C14/223B22F1/025C23C14/352
    • A process and apparatus for coating small particles and fibers. The process involves agitation by vibrating or tumbling the particles or fibers to promote coating uniformly, removing adsorbed gases and static charges from the particles or fibers by an initial plasma cleaning, and coating the particles or fibers with one or more coatings, a first coating being an adhesion coating, and with subsequent coatings being deposited in-situ to prevent contamination at layer interfaces. The first coating is of an adhesion forming element (i.e. W, Zr, Re, Cr, Ti) of a 100-10,000 .ANG. thickness and the second coating or final coating of a multiple (0.1-10 microns) being Cu or Ag, for example for brazing processes, or other desired materials that defines the new surface related properties of the particles. An essential feature of the coating process is the capability to deposit in-situ without interruption to prevent the formation of a contaminated interface that could adversely affect the coating adhesion. The process may include screening of the material to be coated and either continuous or intermittent vibration to prevent agglomeration of the material to be coated.
    • 一种用于涂覆小颗粒和纤维的方法和装置。 该方法包括通过振动或翻转颗粒或纤维以促进涂层均匀地移动,通过初始等离子体清洁从颗粒或纤维去除吸附的气体和静电荷并用一个或多个涂层涂覆颗粒或纤维进行搅拌,第一涂层为 粘合涂层,并且随后的涂层原位沉积,以防止层界面处的污染。 第一涂层是具有100-10,000安格姆厚度的粘合形成元件(即W,Zr,Re,Cr,Ti),并且多个(0.1-10微米)为Cu或Ag的第二涂层或最终涂层为Cu或Ag,用于 或用于限定颗粒的新表面相关性质的其它所需材料的例子。 涂覆过程的一个基本特征是能够不中断地原位沉积,以防止污染界面的形成,这可能会对涂层附着力产生不利影响。 该方法可以包括筛选待涂覆的材料和连续或间歇振动,以防止待涂覆的材料的附聚。
    • 5. 发明授权
    • Sputtering process and apparatus for coating powders
    • 喷涂工艺和粉末涂装设备
    • US06355146B1
    • 2002-03-12
    • US08627162
    • 1996-04-03
    • Daniel M. MakowieckiJohn A. KernsCraig S. AlfordMark A. McKernan
    • Daniel M. MakowieckiJohn A. KernsCraig S. AlfordMark A. McKernan
    • C23C1434
    • C23C14/223B22F1/025C23C14/352
    • A process and apparatus for coating small particles and fibers. The process involves agitation by vibrating or tumbling the particles or fibers to promote coating uniformly, removing adsorbed gases and static charges from the particles or fibers by an initial plasma cleaning, and coating the particles or fibers with one or more coatings, a first coating being an adhesion coating, and with subsequent coatings being deposited in-situ to prevent contamination at layer interfaces. The first coating is of an adhesion forming element (i.e. W, Zr, Re, Cr, Ti) of a 100-10,000 Å thickness and the second coating or final coating of a multiple (0.1-10 microns) being Cu or Ag, for example for brazing processes, or other desired materials that defines the new surface related properties of the particles. An essential feature of the coating process is the capability to deposit in-situ without interruption to prevent the formation of a contaminated interface that could adversely affect the coating adhesion. The process may include screening of the material to be coated and either continuous or intermittent vibration to prevent agglomeration of the material to be coated.
    • 一种用于涂覆小颗粒和纤维的方法和装置。 该方法包括通过振动或翻转颗粒或纤维以促进涂层均匀地移动,通过初始等离子体清洁从颗粒或纤维去除吸附的气体和静电荷并用一个或多个涂层涂覆颗粒或纤维进行搅拌,第一涂层为 粘合涂层,并且随后的涂层原位沉积,以防止层界面处的污染。 第一涂层是厚度为100-10,000埃的粘合形成元件(即W,Zr,Re,Cr,Ti),并且多重(0.1-10微米)的第二涂层或最终涂层是Cu或Ag,用于 或用于限定颗粒的新表面相关性质的其它所需材料的例子。 涂覆过程的一个基本特征是能够不中断地原位沉积,以防止污染界面的形成,这可能会对涂层附着力产生不利影响。 该方法可以包括筛选待涂覆的材料和连续或间歇振动,以防止待涂覆的材料的附聚。
    • 6. 发明授权
    • Magnetic shielding
    • 磁屏蔽
    • US4698197A
    • 1987-10-06
    • US701010
    • 1985-02-12
    • John A. KernsRoger R. StoneJoseph Fabyan
    • John A. KernsRoger R. StoneJoseph Fabyan
    • G21B1/00H01F27/36
    • G21B1/00H01F27/365
    • A magnetically-conductive filler material bridges the gap between a multi-part magnetic shield structure which substantially encloses a predetermined volume so as to minimize the ingress or egress of magnetic fields with respect to that volume. The filler material includes a heavy concentration of single-magnetic-domain-sized particles of a magnetically conductive material (e.g. soft iron, carbon steel or the like) dispersed throughout a carrier material which is generally a non-magnetic material that is at least sometimes in a plastic or liquid state. The maximum cross-sectional particle dimension is substantially less than the nominal dimension of the gap to be filled. An epoxy base material (i.e. without any hardening additive) low volatility vacuum greases or the like may be used for the carrier material. The structure is preferably exposed to the expected ambient magnetic field while the carrier is in a plastic or liquid state so as to facilitate alignment of the single-magnetic-domain-sized particles with the expected magnetic field lines.
    • 磁导电填充材料桥接基本上包围预定体积的多部分磁屏蔽结构之间的间隙,以便最小化相对于该体积的磁场的进入或流出。 填充材料包括分散在整个载体材料中的导电材料(例如软铁,碳钢等)的单重磁畴尺寸的大颗粒,其通常是至少有时是非磁性的材料 处于塑料或液体状态。 最大截面颗粒尺寸基本上小于待填充间隙的标称尺寸。 环氧基材(即没有任何硬化添加剂)低挥发性真空润滑脂等可用于载体材料。 该结构优选暴露于期望的环境磁场,同时载体处于塑料或液体状态,以便于单磁畴尺寸的颗粒与预期的磁场线的对准。