会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Pnictide trap for vacuum systems
    • 用于真空系统的Pnictide陷阱
    • US4613485A
    • 1986-09-23
    • US581101
    • 1984-02-17
    • Robert W. ParryJohn A. BaumannRozalie Schachter
    • Robert W. ParryJohn A. BaumannRozalie Schachter
    • B01D8/00F04B37/16F01N3/10
    • B01D8/00B01J2219/0894
    • The present invention provides a trap for a vapor species, particularly a pnictide.sub.4 vapor species, for a vacuum system of the type including a vacuum chamber communicating with a forepump through a vacuum line. The trap may be positioned within the vacuum chamber itself, or in the alternative, the trap may be located between the vacuum chamber and the forepump. The trap includes a housing for a cracker, which may be a heated filament or a plasma, which cracks the pnictide vapor species into pnictide.sub.2. The walls of the housing are cooled so that the trapped pnictide species readily forms a film and adheres to the walls of the housing. The pnictide.sub.4 vapor species, which may be harmful to the operation of a forepump, is prevented from entering the forepump. A removable sleeve can be positioned in the housing so that the cracked species adheres to it. The sleeve may be removed from the housing for maintenance and replacement purposes. When the trap is located within the vacuum chamber itself, it also functions to reduce background pnictide.sub.4 pressure in that chamber.
    • 本发明提供了一种用于真空系统的蒸汽种类,特别是pnictide4蒸气物质的捕集阱,该真空系统包括通过真空管道与前级泵通过的真空室。 捕集器可以定位在真空室本身内,或者可选地,阱可以位于真空室和前级泵之间。 捕集器包括用于裂化器的壳体,其可以是加热的细丝或等离子体,其将pnictide蒸气物质裂解成pnictide2。 壳体的壁被冷却,使得被捕获的pnictide物质容易形成膜并粘附到壳体的壁上。 可能对前排泵的操作有害的pnictide4蒸汽物质被阻止进入前级泵。 可拆卸的套筒可以被定位在壳体中,使得裂纹物质附着在其上。 套管可以从外壳上取下来进行维护和更换。 当陷阱位于真空室本身内时,它也起到减小该室内的背景影响4的作用。
    • 3. 发明授权
    • Doping of catenated phosphorus materials
    • 连接磷材料的掺杂
    • US4713192A
    • 1987-12-15
    • US677911
    • 1984-12-04
    • Christian G. MichelRozalie SchachterMark A. KuckJohn A. BaumannPaul M. Raccah
    • Christian G. MichelRozalie SchachterMark A. KuckJohn A. BaumannPaul M. Raccah
    • C03C17/22H01L29/24H01L51/05H01L21/34H01L21/38
    • C03C17/22H01L29/24C03C2217/28C03C2217/283C03C2217/29C03C2218/15H01L51/0508H01L51/0512
    • High phosphorus polyphosphides, namely MP.sub.x, where M is an alkali metal (Li, Na, K, Rb, and Cs) or metals mimicking the bonding behavior of an alkali metal, and where x=7 to 15 or very much greater than 15 (new forms of phosphorus) are useful semiconductors in their crystalline, polycrystalline and amorphous forms (boules and films). MP.sub.15 appears to have the best properties and KP.sub.15 is the easier to synthesize. P may include other pnictides as well as other trivalent atomic species. Resistance lowering may be accomplished by doping with Ni, Fe, Cr, and other metals having occupied d or f outer electronic levels; or by incorporation of As and other pnictides. Rectifying Schottky junction devices doped with Ni and employing Ni as a back contact comprise Cu, Al, Mg, Ni, Au, Ag, and Ti as junction forming top contacts. Photovoltaic, photoresistive, and photoluminescent devices are also disclosed. All semiconductor applications appear feasible.Single and multiple source vapor transport, condensed phase, melt quench, flash evaporation, chemical vapor deposition, and molecular flow deposition may be employed in synthesizing these materials. Vapor transport may be employed to purify phosphorus.
    • 高磷多磷化物,即MPx,其中M是碱金属(Li,Na,K,Rb和Cs)或模拟碱金属的键合行为的金属,并且其中x = 7至15或非常远大于15( 新形式的磷)是其晶体,多晶和无定形形式(晶粒和膜)中的有用半导体。 MP15似乎具有最好的性能,KP15更容易合成。 P可以包括其他三价物以及其它三价原子物种。 电阻降低可以通过掺杂Ni,Fe,Cr和其他具有d或f外电子水平的金属来实现; 或通过并入As和其他pnictides。 用Ni掺杂并采用Ni作为背面接触的整流肖特基结结器件包括Cu,Al,Mg,Ni,Au,Ag和Ti作为接合形成顶部触头。 还公开了光电,光致抗蚀剂和光致发光器件。 所有半导体应用似乎都是可行的。 可以在合成这些材料时采用单源和多源蒸气输送,冷凝相,熔融淬火,闪蒸,化学气相沉积和分子流沉积。 可以使用蒸气传输来净化磷。
    • 4. 发明授权
    • Monoclinic phosphorus formed from vapor in the presence of an alkali
metal
    • 在碱金属存在下由蒸气形成单斜磷
    • US4620968A
    • 1986-11-04
    • US419537
    • 1982-09-17
    • Christian G. MichelRozalie SchachterMark A. KuckJohn A. BaumannPaul M. Raccah
    • Christian G. MichelRozalie SchachterMark A. KuckJohn A. BaumannPaul M. Raccah
    • C01B25/00C01B25/02C01B25/04C01B25/08C03C17/22C09K21/04C23C14/06C23C14/54C30B23/02C30B25/02H01L29/24H01L51/05C01B25/01C04B35/00
    • H01L29/24C01B25/003C01B25/02C01B25/04C01B25/08C01B25/081C01B25/088C03C17/22C09K21/04C23C14/06C23C14/541C30B23/02C30B25/02C30B29/10C03C2217/28C03C2217/283C03C2217/29C03C2218/15H01L51/0508H01L51/0512
    • Monoclinic phosphorus is produced in a single source vapor transport apparatus comprising a sealed evacuated ampoule containing a mixture or compound of phosphorus and an alkali metal with the phosphorus to alkali metal ratio being 11 or greater. The charge is heated to 550.degree.-560.degree. C. and the monoclinic phosphorus crystals are formed on the cooler surface at the top of the ampoule over the temperature range of 500.degree.-560.degree. C. The preferred heating temperature is in the neighborhood of 555.degree. C. and the preferred deposition temperature is in the neighborhood of 539.degree. C. Alkali metals that may be employed include sodium, potassium, rubidium and cesium. The monoclinic phosphorus crystals form in two habits. Those formed in the presence of sodium and cesium are in the form of flat square platelets up to 4 mm on a side and 2 mm thick. These platelets may be easily cleaved into thinner platelets, like mica. The other habit formed in the presence of potassium and rubidium is in the form of a truncated pyramid up to 4 mm.times.3 mm.times.2 mm high. This habit is hard to cleave. The crystals are semiconductors with a band gap, indicated by photoluminescence, of about 2.1 eV at room temperature. Powder X-ray diffraction, and differential thermal analysis are consistent with that reported for Hittorf's phosphorus prepared according to the prior art. The crystals are a deep red on transmission and birefringent, rotating the plane of polarization in a polarizing microscope. They contain from 50 to 2000 parts per million of alkali metal and therefore may be utilized as a form of very pure phosphorus as well as for their semiconducting and birefringent qualities and as phosphors.
    • 在单源蒸气输送装置中制备单斜磷,其包括含有磷与碱金属的比例为11以上的磷和碱金属的混合物或化合物的密闭的真空安瓿。 将电荷加热至550〜-560℃,在500〜-560℃的温度范围内,在安瓿顶部的较冷的表面形成单斜晶磷晶体。优选的加热温度在 555℃,优选的沉积温度在539℃附近。可以使用的碱金属包括钠,钾,铷和铯。 单斜磷晶体形成两种习惯。 在钠和铯存在下形成的那些是平面方形血小板的形式,一侧高达4毫米,2mm厚。 这些血小板可以容易地切割成更薄的血小板,如云母。 在钾和铷存在下形成的另一个习惯是高达4毫米×3毫米×2毫米高的截顶棱锥的形式。 这种习惯很难解剖。 晶体是在室温下具有约2.1eV的光致发光带隙的半导体。 粉末X射线衍射和差示热分析与根据现有技术制备的Hittorf磷报道的一致。 晶体是透射和双折射的深红色,在偏光显微镜中旋转偏振平面。 它们含有50至2000ppm的碱金属,因此可以用作非常纯的磷以及它们的半导体和双折射性质以及作为荧光体的形式。
    • 6. 发明授权
    • Catenated phosphorus materials and their preparation
    • US4822581A
    • 1989-04-18
    • US677845
    • 1984-12-04
    • Christian G. MichelRozalie SchachterMark A. KuckJohn A. BaumannPaul M. Raccah
    • Christian G. MichelRozalie SchachterMark A. KuckJohn A. BaumannPaul M. Raccah
    • C03C17/22H01L29/24H01L31/032H01L51/05C01B25/08
    • H01L29/24C03C17/22H01L31/032C03C2217/28C03C2217/283C03C2217/29C03C2218/15H01L51/0508H01L51/0512
    • High phosphorus polyphosphides, namely MP.sub.x, where M is an alkali metal (Li, Na, K, Rb, and Cs) or metals mimicking the bonding behavior of an alkali metal, and x=7 to 15 or very much greater than 15 (new forms of phosphorus) are useful semiconducutors in their crystalline, polycrystalline and amorphous forms (boules and films). MP.sub.15 appears to have the best properties and KP.sub.15 is the easier to synthesize. P may include other pnictides as well as other trivalent atomic species. Resistance lowering may be accomplished by doping with Ni, Fe, Cr, and other metals having occupied d or f outer electronic levels; or by incorporation of As and other pnictides. Top contacts forming junction devices doped with Ni and employing Ni as a back contact comprise Cu, Al, Mg, Ni, Au, Ag, and Ti. Photovoltaic, photoresistive, and photoluminescent devices are also disclosed. All semiconductor applications appear feasible.These semiconductors belong to the class of polymer forming, trivalent atomic species forming homatomic, covalent bonds having a coordination number slightly less than 3. The predominant local order appears to be all parallel pentagonal tubes in all forms, including amorphous, except for the monoclinic and twisted fiber allotropes of phosphorus.Large crystal monoclinic phosphorus (a birefringent material) in two habits, a twisted fiber phosphorus allotrope and a star shaped fibrous high phosphorus material are also disclosed.Single and multiple source vapor transport, condensed phase, melt quench, flash evaporation, chemical vapor deposition, and molecular flow deposition may be employed in synthesizing these materials. Vapor transport may be employed to purify phosphorus.The materials may be employed as protective coatings, optical coatings, fire retardants, fillers and reinforcing fillers for plastics and glasses, antireflection coatings for infrared optics, infrated transmitting windows, and optical rotators.