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    • 124. 发明授权
    • Method of synthetically engineering alloys formed of high melting point
and high vapor pressure materials
    • 由高熔点和高蒸气压材料组成合成工程合金的方法
    • US06143373A
    • 2000-11-07
    • US584642
    • 1996-01-11
    • Stanford R. Ovshinsky
    • Stanford R. Ovshinsky
    • D01D5/00D01F9/08C23C14/08
    • D01D5/088D01F9/08
    • A process for fabricating synthetic materials by atomic alloying of a host material. Energetic high vapor pressure modifier elements or species are introduced into the host matrix of a fluidic precursor high metling point material so as to obtain an engineered material characterized by a range of controllable optical electrical, thermal, chemical or mechanical properties not exhibited by either the modifier or the precursor material. The method for forming a synthetically engineered material by forming a fluid host matrix material on a moving substrate surface, such as a wheel; directing a plurality of discrete fluid modifier materials, activated or unactivated, in a stream, as from a nozzle, toward the substrate surface in a direction such that it converges with the host matrix material to produce a ribbon of modified material.
    • 通过主体材料的原子合金化制造合成材料的方法。 能量高的蒸汽压力调节剂元件或物质被引入到流体前驱体高熔点材料的主体基质中,以获得工程材料,其特征在于一系列可控光学电学,热学,化学或机械性能, 或前体材料。 通过在移动的基底表面(例如轮子)上形成流体宿主基质材料来形成合成工程材料的方法; 将多个活化或未活化的离散流体调节剂材料沿流动方向从主体基质材料向主体基质材料收敛,从而从喷嘴流向基底表面,以产生改性材料带。
    • 126. 发明授权
    • Compositionally and structurally disordered multiphase nickel hydroxide
positive electrode containing modifiers
    • US5948564A
    • 1999-09-07
    • US782863
    • 1997-01-13
    • Stanford R. OvshinskyMichael A. FetcenkoSrinivasan VenkatesanArthur Holland
    • Stanford R. OvshinskyMichael A. FetcenkoSrinivasan VenkatesanArthur Holland
    • H01M4/26H01M4/28H01M4/32H01M4/52H01M4/80H01M10/34
    • H01M10/345H01M4/26H01M4/28H01M4/32H01M4/52H01M4/80
    • A positive electrode for use in alkaline rechargeable electrochemical cells comprising: a material comprising a compositionally and structurally disordered multiphase nickel hydroxide host matrix which includes at least one modifier chosen from the group consisting of F, Li, Na, K, Mg, Ba, La, Se, Nd, Pr, Y, Co, Al, Cr, Mn, Fe, Cu, Zn, Sc, Sn, Sb, Te, Bi, Ru, and Pb. A process for forming a high loading uniformly distributed multiphase substantially nitrate free sintered positive electrode for use in an alkaline rechargeable electrochemical cell, the process comprising: (1) fabricating sintered electrode material by forming a slurry of nickel powder, water, carboxymethylcellulose binder, methyl cellulose binder, and a poly(ethylene oxide) polymer; spreading the slurry on a preoxidized perforated nickel substrate; drying the slurry; and sintering the slurry; (2) impregnating the sintered electrode material using multiple impregnation cycles to attain high loading, where each impregnation cycle comprises the steps of: placing the sintered electrode material on a rack; dipping the rack into nickel nitrate; allowing the rack to drip dry; dipping the dried rack into NaOH solution; spraying the rack in a first tank with deionized water overflowing from a second tank; dipping the rack in the second tank filled with deionized water overflowing from a third tank; dipping the rack in the third tank filling with deionized water at a rate of 8-10 gpm; drying the rack; and flipping the rack to attain uniform deposition of material; where in the median dip cycle and in the final dip cycle of the multiple impregnation cycles, the step of dipping the rack into nickel nitrate is replaced by a step of dipping the rack into cobalt nitrate to produce an enriched cobalt surface; and (3) forming the impregnated sinter into positive electrode material by presoaking the impregnated sinter in NaOH presoak tanks to substantially eliminate nitrates; brushing the presoaked impregnated sinter in a surface brushing station; charging the brushed impregnated sinter; discharging the charged impregnated sinter; rinsing the discharged impregnated sinter; and drying the rinsed impregnated sinter to complete the formation of positive electrode material.
    • 129. 发明授权
    • Method and apparatus for the improved microwave deposition of thin films
    • 改进薄膜微波沉积的方法和装置
    • US5567241A
    • 1996-10-22
    • US442146
    • 1995-05-16
    • David V. TsuRosa YoungStanford R. Ovshinsky
    • David V. TsuRosa YoungStanford R. Ovshinsky
    • C23C16/511C23C16/517H01J37/32C23C16/00
    • H01J37/32211C23C16/511C23C16/517H01J37/321H01J37/32192H01J37/32678H01J2237/3321
    • A first aspect of the present invention is an improved microwave vacuum feed-through device for coupling microwave energy from a microwave wave guide in a substantially atmospheric pressure region into an elongated linear microwave applicator in a sub-atmospheric pressure region. The improved feed-through is designed to match the impedance of the microwave wave guide in the atmospheric pressure region and the improved linear microwave applicator. A second aspect of the present invention is an improved linear microwave applicator for uniformly coupling 95% or more of the microwave energy input thereto into an elongated plasma zone. The applicator includes curved microwave reflector panels which are used to tune the uniformity of the radiated microwave energy along the length of the linear applicator. A third aspect of the present invention is a microwave enhanced chemical vapor deposition method for depositing thin film material. The method includes a step of intensifying the kinetic/thermal energy of the electrically neutral species in the plasma by intensifying the kinetic/thermal energy of the ions in the plasma and thereby, through ion-neutral collisions, intensifying the kinetic/thermal energy of the electrically neutral species. The step of intensifying the kinetic/thermal energy of the ions in the plasma includes subjecting the plasma to either a very low frequency alternating current electrical bias or an alternating polarity magnetic field, the frequency of thereof being less than about 100 kHz.
    • 本发明的第一方面是一种改进的微波真空馈通装置,用于将微波能量从大气压力区域中的微波波导耦合到亚大气压区域中的细长线性微波施加器。 改进的馈通被设计成匹配大气压区域中的微波波导的阻抗和改进的线性微波施加器。 本发明的第二方面是一种改进的线性微波施加器,用于将输入到其中的95%或更多的微波能量均匀地耦合到细长的等离子体区域中。 施加器包括弯曲的微波反射器面板,其用于调节辐射的微波能量沿着线性施加器的长度的均匀性。 本发明的第三方面是用于沉积薄膜材料的微波增强化学气相沉积方法。 该方法包括通过增强等离子体中的离子的动能/热能来增强等离子体中的电中性物质的动力学/热能,从而通过离子中性碰撞强化其中的动能/热能 电中性物种。 增强等离子体中离子的动能/热能的步骤包括使等离子体经受非常低频的交流电偏压或交替极性磁场,其频率小于约100kHz。