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    • 72. 发明申请
    • Transportation method for a semiconductor device and transportation route selection method for a semiconductor device
    • 半导体装置的运送方法以及半导体装置的运送路径选择方法
    • US20010053617A1
    • 2001-12-20
    • US09800010
    • 2001-03-06
    • Hiroo Shoji
    • H01L021/26H01L021/324H01L021/42H01L021/477B65G049/07
    • G05B19/41865G05B2219/31281G05B2219/32015G05B2219/32187G05B2219/32188Y02P90/20Y02P90/22Y02P90/28Y10S414/135
    • The occurrence of defects of a semiconductor device at the time of transportation is prevented by the present invention relates to a transportation method for a semiconductor device which uses, for transportation of a semiconductor device from the departure point to the arrival point, the transportation route B1nullB2 wherein the cosmic ray concentration is the smallest among a plurality of transportation routes A and B1nullB2 from the departure point to the arrival point. In addition, the invention also relates to a transportation route selection method for a semiconductor device comprising the step of inputting a departure point and an arrival point for the transportation for a semiconductor device, the step of calculating a plurality of transportation routes A and B1nullB2 from the departure point to the arrival point, the step of calculating the cosmic ray concentration in each of the plurality of transportation routes A and B1nullB2 and the step of selecting the transportation route wherein the cosmic ray concentration is the smallest among the plurality of transportation routes A and B1nullB2.
    • 本发明涉及半导体装置的运输方法,该半导体装置用于从出发地到达点运输半导体装置的运输路线B1 + B2,其中宇宙射线浓度在从出发点到到达点的多个运输路线A和B1 + B2中最小。 此外,本发明还涉及一种半导体装置的运输路线选择方法,包括输入半导体装置的运送的出发地点和到达点的步骤,计算多个运送路线A,B1 + 从出发点到到达点的B2,计算多个交通路线A和B1 + B2中的每一个中的宇宙射线浓度的步骤以及选择多个运送路线中的宇宙射线浓度最小的运送路线的步骤 的交通路线A和B1 + B2。
    • 73. 发明申请
    • Method of manufacturing a transistor
    • 制造晶体管的方法
    • US20010024866A1
    • 2001-09-27
    • US09814390
    • 2001-03-21
    • U.S. Philips Corporation
    • Darren T. MurleyMichael J. Trainor
    • H01L021/20H01L021/36H01L021/26H01L021/324H01L021/42H01L021/477H01L021/84
    • H01L29/66757H01L29/78603H01L29/78675
    • A method of manufacturing a TFT (10) is disclosed comprising source (8) and drain (8null) electrodes joined by a semiconductor channel (6) formed from a semiconductor layer (4), a gate insulating layer (7) and a gate electrode (8null). The method comprising the steps of applying a foil (2) comprising a crystallisation enhancing material (CEM) and depositing the semiconductor layer (4) over a supporting substrate (1); and heating the semiconductor layer (4) so as to crystallise the semiconductor layer (4) from regions exposed to the CEM of the foil (2). The method may further comprise the step of providing a patterned barrier layer (3) between the foil (2) and the semiconductor layer (4) wherein the semiconductor layer (4) is crystallised from regions exposed through vias in the barrier layer (3) to the CEM of the foil (2). Also disclosed is a TFT (10) manufactured by the same, and an active matrix device (20) comprising a row and column array of active elements (22) wherein each element (22) is associated with such a TFT (10) connected to corresponding row (24) and column (23) conductors.
    • 公开了一种制造TFT(10)的方法,其包括由半导体层(4),栅极绝缘层(7)和栅极绝缘层(7)形成的半导体沟道(6)连接的源极(8)和漏极(8“ 栅电极(8')。 该方法包括以下步骤:施加包含结晶增强材料(CEM)的箔(2)并将半导体层(4)沉积在支撑衬底(1)上; 以及加热半导体层(4)以使半导体层(4)从暴露于箔(2)的CEM的区域结晶。 该方法还可以包括在箔(2)和半导体层(4)之间提供图案化阻挡层(3)的步骤,其中半导体层(4)从通过阻挡层(3)中的通孔暴露的区域结晶化, 到箔(2)的CEM。 还公开了由其制造的TFT(10)以及包括有源元件(22)的行和列阵列的有源矩阵器件(20),其中每个元件(22)与这样的TFT(10)相关联, 相应的行(24)和列(23)导体。
    • 76. 发明申请
    • Semiconductor manufacturing method using two-stage annealing
    • 半导体制造方法采用两阶段退火
    • US20040248351A1
    • 2004-12-09
    • US10867766
    • 2004-06-16
    • Kabushiki Kaisha Toshiba
    • Takayuki ItoKyoichi Suguro
    • H01L021/336H01L021/3205H01L021/477H01L021/4763H01L021/8234
    • H01L21/324H01L21/2686H01L29/6659
    • A method of semiconductor device manufacture provided includes forming a gate insulating layer upon a single crystal semiconductor substrate, forming a gate electrode made from a polycrystal conductive film upon the gate insulating layer, implanting impurity in the gate electrode and in the surface layer of the semiconductor substrate adjacent to or separate from the gate electrode, performing a first heat treatment, and performing a second heat treatment. The first heat treatment performs heat treatment at a temperature that diffuses the impurity implanted mainly in the gate electrode and controls the diffusion of the impurity implanted in the surface layer of the semiconductor substrate. The second heat treatment performs heat treatment at a higher temperature and for a shorter time than the first heat treatment, and at a temperature that activates the impurity implanted in the semiconductor substrate.
    • 提供的半导体器件制造方法包括在单晶半导体衬底上形成栅极绝缘层,在栅极绝缘层上形成由多晶导电膜制成的栅电极,在栅电极和半导体表面层中注入杂质 基板,与栅电极相邻或分离,进行第一热处理,进行第二热处理。 第一热处理在扩散主要在栅电极中注入的杂质的温度下进行热处理,并控制注入在半导体衬底的表面层中的杂质的扩散。 第二热处理在比第一热处理更高的温度和更短的时间进行热处理,并且在激活注入在半导体衬底中的杂质的温度下进行热处理。
    • 77. 发明申请
    • Bismaleimide (BMI) polymer as a sacrificial material for an integrated circuit air gap dielectric
    • 双马来酰亚胺(BMI)聚合物作为集成电路气隙电介质的牺牲材料
    • US20040124495A1
    • 2004-07-01
    • US10330619
    • 2002-12-26
    • Tian-An ChenKevin P. O'Brien
    • H01L021/441H01L021/477
    • H01L21/7682H01L21/02118H01L21/02203H01L21/02282H01L21/02348H01L21/312
    • A method for implementing a bismaleimide (BMI) polymer as a sacrificial material for an integrated circuit air gap dielectric. The method of one embodiment comprises forming a first and second metal interconnect lines on a substrate, wherein at least a portion of the first and second metal interconnect lines extend parallel to one another and wherein a trough is located between the parallel portion of said first and second metal interconnect lines. A layer of bismaleimide is spin coated over the substrate. The layer of bismaleimide is polished with a chemical mechanical polish, wherein the trough remains filled with the bismaleimide. A diffusion layer is formed over the substrate. The substrate is heated to activate a pyrolysis of the bismaleimide. An air gap is formed in the trough in the space vacated by the bismaleimide.
    • 一种用于实现用于集成电路气隙电介质的双马来酰亚胺(BMI)聚合物作为牺牲材料的方法。 一个实施例的方法包括在衬底上形成第一和第二金属互连线,其中第一和第二金属互连线的至少一部分彼此平行延伸,并且其中槽位于所述第一和第二金属互连线的平行部分之间, 第二金属互连线。 将一层双马来酰亚胺旋涂在基材上。 用化学机械抛光剂抛光双马来酰亚胺层,其中槽保持充满双马来酰亚胺。 在衬底上形成扩散层。 加热底物以活化双马来酰亚胺的热解。 在由双马来酰亚胺空出的空间中的槽中形成气隙。
    • 80. 发明申请
    • Method and system for providing a single-scan, continous motion sequential lateral solidification
    • US20040053450A1
    • 2004-03-18
    • US10311485
    • 2003-09-22
    • Robert S. SposiliJames S. Im
    • H01L021/00H01L021/324H01L021/477
    • H01L21/02686B23K26/066B23K26/08B23K26/082B23K2101/40C30B13/00C30B29/06H01L21/02532H01L21/02678H01L21/02691H01L21/2026H01L21/268
    • A method and system for processing a silicon thin film sample on a substrate. The substrate has a surface portion that does not seed crystal growth in the silicon thin film. The film sample has a first edge and a second edge. An irradiation beam generator is controlled to emit successive irradiation beam pulses at a predetermined repetition rate. Each of the irradiation beam pulses is masked to define a first plurality of beamlets and a second plurality of beamlets, the first and second plurality of beamlets of each of the irradiation pulses being provided for impinging the film sample and having an intensity which is sufficient to melt irradiated portions of the film sample throughout their entire thickness. The film sample is continuously scanned, at a constant predetermined speed, so that a successive impingement of the first and second beamlets of the irradiation beam pulses occurs in a scanning direction on the film sample between the first edge and the second edge. During the continuous scanning of the film sample, a plurality of first areas of the film sample are successively irradiated using the first beamlets of the irradiation beam pulses so that the first areas are melted throughout their thickness and leaving unirradiated regions between respective adjacent ones of the first areas. Also during the continuous scanning, each one of the first areas irradiated using the first beamlets of each of the irradiation beam pulses is allowed to re-solidify and crystalize. During resolidification and crystallization of the first areas, a plurality of second areas of the film sample are successively irradiated using the second beamlets of the irradiation beam pulses so that the second areas are melted throughout their thickness. Each of the second areas partially overlaps a respective pair of the re-solidified and crystalized first areas and the respective unirradiated region therebetween.