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    • 41. 发明申请
    • TUNGSTEN PLUG DEPOSITION QUALITY EVALUATION METHOD BY EBACE TECHNOLOGY
    • EBACE技术的TUNGSTEN PLUG沉积质量评估方法
    • US20090010526A1
    • 2009-01-08
    • US11622793
    • 2007-01-12
    • Yehiel GotkisSergey LopatinMehran Nasser-Ghodsi
    • Yehiel GotkisSergey LopatinMehran Nasser-Ghodsi
    • G06K9/00G01R31/26H01L23/58
    • H01L22/12H01L22/34
    • A first embodiment of the invention relates to a method for evaluating the quality of structures on an integrated circuit wafer. Test structures formed on either on the integrated or on a test wafer are exposed to an electron beam and an electron-beam activated chemical etch. The electron-beam activated etching gas or vapor etches the test structures, which are analyzed after etching to determine a measure of quality of the test structures. The measure of quality may be used in a statistical process control to adjust the parameters used to form device structures on the integrated circuit wafer. The test structures are formed on an integrated circuit wafer having two or more die. Each die has one or more integrated circuit structures. The test structures are formed on scribe lines between two or more adjacent die. Each test structure may correspond in dimensions and/or composition to one or more of the integrated circuit structures.
    • 本发明的第一实施例涉及一种用于评估集成电路晶片上的结构质量的方法。 在集成的或在测试晶片上形成的测试结构暴露于电子束和电子束激活的化学蚀刻。 电子束活化的蚀刻气体或蒸气蚀刻测试结构,其在蚀刻后分析以确定测试结构的质量的度量。 可以在统计过程控制中使用质量测量来调整用于在集成电路晶片上形成器件结构的参数。 测试结构形成在具有两个或更多个管芯的集成电路晶片上。 每个管芯具有一个或多个集成电路结构。 测试结构形成在两个或更多相邻模具之间的划线上。 每个测试结构可以在尺寸和/或组成上与一个或多个集成电路结构相对应。
    • 42. 发明申请
    • PRECISION PRINTING ELECTROPLATING THROUGH PLATING MASK ON A SOLAR CELL SUBSTRATE
    • 精密印刷通过太阳能电池基板上的电镀掩模进行电镀
    • US20080132082A1
    • 2008-06-05
    • US11566205
    • 2006-12-01
    • Sergey LopatinJohn O. DukovicDavid EagleshamNicolay Y. KovarskyRobert BachrachJohn BuschCharles Gay
    • Sergey LopatinJohn O. DukovicDavid EagleshamNicolay Y. KovarskyRobert BachrachJohn BuschCharles Gay
    • H01L21/469B05C13/02
    • H01L31/022425H01L31/02008Y02E10/50
    • Embodiments of the invention contemplate the formation of a low cost solar cell using a novel electroplating apparatus and method to form a metal contact structure having metal lines formed using an electrochemical plating process. The apparatus and methods described herein remove the need to perform the often costly processing steps of performing a mask preparation and formation steps, such as screen printing, lithographic steps and inkjet printing steps, to form a contact structure. The resistance of interconnects formed in a solar cell device greatly affects the efficiency of the solar cell. It is thus desirable to form a solar cell device that has a low resistance connection that is reliable and cost effective. Therefore, one or more embodiments of the invention described herein are adapted to form a low cost and reliable interconnecting layer using an electrochemical plating process containing a common metal, such as copper. Embodiments of the invention may provide an apparatus and method of forming a solar cell device that utilizes a reusable masking device during one or more electrochemical deposition steps.
    • 本发明的实施例考虑使用新型电镀设备和方法形成低成本太阳能电池,以形成具有使用电化学电镀工艺形成的金属线的金属接触结构。 本文描述的装置和方法不需要执行经常昂贵的处理步骤来执行掩模准备和形成步骤,例如丝网印刷,光刻步骤和喷墨印刷步骤,以形成接触结构。 在太阳能电池器件中形成的互连的电阻极大地影响太阳能电池的效率。 因此,希望形成具有可靠和成本有效的低电阻连接的太阳能电池装置。 因此,本文描述的本发明的一个或多个实施例适用于使用包含普通金属(例如铜)的电化学电镀工艺形成低成本且可靠的互连层。 本发明的实施例可以提供一种形成在一个或多个电化学沉积步骤期间利用可重复使用的掩模装置的太阳能电池装置的装置和方法。
    • 44. 发明授权
    • Semiconductor device having copper lines with reduced electromigration using an electroplated interim copper-zinc alloy film on a copper surface
    • 具有在铜表面上使用电镀的中间铜 - 锌合金膜的具有减少的电迁移的铜线的半导体器件
    • US06936925B1
    • 2005-08-30
    • US10626371
    • 2003-07-23
    • Sergey LopatinAlexander H. Nickel
    • Sergey LopatinAlexander H. Nickel
    • C25D3/58C25D5/18C25D7/12H01L21/288H01L21/768H01L21/31H01L21/469
    • H01L21/76846C25D3/58C25D5/18C25D7/123C25D17/001H01L21/2885H01L21/76858H01L21/76864H01L21/76873H01L2221/1089
    • The present invention relates to the semiconductor device fabrication industry. More particularly a semiconductor device, having an interim reduced-oxygen Cu—Zn alloy thin film (30) electroplated on a blanket Cu surface (20) disposed in a via (6) by electroplating, using an electroplating apparatus, the Cu surface (20) in a unique chemical solution containing salts of Zn and Cu, their complexing agents, a pH adjuster, and surfactants; and annealing the interim electroplated Cu—Zn alloy thin film (30); filling the via (6) with further Cu (26); annealing and planarizing the interconnect structure (35). The reduction of electromigration in copper interconnect lines (35) is achieved by decreasing the drift velocity in the copper line (35)/via (6), thereby decreasing the copper migration rate as well as the void formation rate, by using an interim conformal Cu-rich Cu—Zn alloy thin film (30) electroplated on a Cu surface (20) from a stable chemical solution, and by controlling the Zn-doping thereof, which improves also interconnect reliability and corrosion resistance.
    • 本发明涉及半导体器件制造业。 更具体地说,一种半导体器件,具有通过使用电镀设备电镀Cu,Cu表面(20)上电镀在布置在通孔(6)上的铜箔表面(20)上的临时还原氧Cu-Zn合金薄膜(30) )在一种独特的含有Zn和Cu盐的化学溶液,它们的络合剂,pH调节剂和表面活性剂; 并对中间电镀Cu-Zn合金薄膜进行退火; 用另外的Cu(26)填充通孔(6); 退火和平坦化互连结构(35)。 通过降低铜线(35)/通孔(6)中的漂移速度,可以实现铜互连线(35)中电迁移的减少,从而通过使用中间保形来降低铜迁移率以及空隙形成速率 从稳定的化学溶液电镀在Cu表面(20)上的富Cu Cu-Zn合金薄膜(30),并且通过控制其Zn掺杂,这也提高了互连可靠性和耐腐蚀性。
    • 46. 发明授权
    • Selective deposition process for allowing damascene-type Cu interconnect lines
    • 选择性沉积工艺允许镶嵌型Cu互连线
    • US06689689B1
    • 2004-02-10
    • US09477821
    • 2000-01-05
    • Paul R. BesserDarrell M. ErbSergey Lopatin
    • Paul R. BesserDarrell M. ErbSergey Lopatin
    • H01L2144
    • H01L21/76846H01L21/76849H01L21/76867H01L21/76888
    • The reliability and electromigration resistance of planarized, in-laid metallization patterns, e.g., of copper, are enhanced by a process comprising selectively depositing on the planarized, upper surfaces of the metallization features at least one thin layer with at least one alloying element for the metal of the feature, and then uniformly diffusing at least a minimum amount of the at least one alloying element of the at least one thin layer for a predetermined minimum depth below the upper surface of the features to effect alloying therewith. The alloyed portions of the metallization features advantageously reduce electromigration therefrom. Planarization, as by CMP, may be performed subsequent to diffusion/alloying to remove any remaining elevated, alloyed or unalloyed portions of the at least one thin layer. The invention finds particular utility in “back-end” metallization processing of high-density integrated circuit semiconductor devices having sub-micron dimensioned metallization features.
    • 通过包括在金属化特征的平坦化的上表面上选择性地沉积至少一个具有至少一个合金元素的薄层的方法来增强例如铜的平坦化在线金属化图案(例如铜)的可靠性和电迁移阻力, 金属的特征,然后将至少一个薄层的至少一种合金元素的至少最少量均匀地扩散到特征的上表面下方的预定最小深度以实现与其的合金化。 金属化特征的合金化部分有利地减少了电迁移。 通过CMP,可以在扩散/合金化之后进行平面化,以去除至少一个薄层的任何剩余的升高,合金化或非合金化部分。 本发明特别适用于具有亚微米尺寸金属化特征的高密度集成电路半导体器件的“后端”金属化处理。
    • 47. 发明授权
    • Method of reducing electromigration in a copper line by electroplating an interim copper-zinc alloy thin film on a copper surface and a semiconductor device thereby formed
    • 通过在铜表面上电镀临时铜 - 锌合金薄膜和由此形成的半导体器件来减少铜线中的电迁移的方法
    • US06660633B1
    • 2003-12-09
    • US10083809
    • 2002-02-26
    • Sergey LopatinAlexander H. Nickel
    • Sergey LopatinAlexander H. Nickel
    • H01L2144
    • H01L21/76846C25D3/58C25D5/18C25D7/123C25D17/001H01L21/2885H01L21/76858H01L21/76864H01L21/76873H01L2221/1089
    • A method of fabricating a semiconductor device, having an interim reduced-oxygen Cu-Zn alloy thin film (30) electroplated on a blanket Cu surface (20) disposed in a via (6) by electroplating, using an electroplating apparatus, the Cu surface (20) in a unique chemical solution containing salts of Zn and Cu, their complexing agents, a pH adjuster, and surfactants; and annealing the interim electroplated Cu—Zn alloy thin film (30); filling the via (6) with further Cu (26); annealing and planarizing the interconnect structure (35); and a semiconductor device thereby formed. The reduction of electromigration in copper interconnect lines (35) is achieved by decreasing the drift velocity in the copper line (35)/via (6), thereby decreasing the copper migration rate as well as the void formation rate, by using an interim conformal Cu-rich Cu—Zn alloy thin film (30) electroplated on a Cu surface (20) from a stable chemical solution, and by controlling the Zn-doping thereof, which improves also interconnect reliability and corrosion resistance.
    • 一种制造半导体器件的方法,其具有通过使用电镀设备通过电镀设置在通孔(6)中的铜箔表面(20)上电镀的临时还原氧Cu-Zn合金薄膜,所述Cu表面 (20)在独特的含有Zn和Cu盐的化学溶液,它们的络合剂,pH调节剂和表面活性剂; 并对中间电镀Cu-Zn合金薄膜进行退火; 用另外的Cu(26)填充通孔(6); 退火和平坦化互连结构(35); 并由此形成半导体器件。 通过降低铜线(35)/通孔(6)中的漂移速度,可以实现铜互连线(35)中电迁移的减少,从而通过使用中间保形来降低铜迁移率以及空隙形成速率 从稳定的化学溶液电镀在Cu表面(20)上的富Cu Cu-Zn合金薄膜(30),并且通过控制其Zn掺杂,这也提高了互连可靠性和耐腐蚀性。
    • 50. 发明授权
    • Formation without vacuum break of sacrificial layer that dissolves in acidic activation solution within interconnect
    • 在互连中溶解在酸性活化溶液中的牺牲层无真空破裂的形成
    • US06498093B1
    • 2002-12-24
    • US10052133
    • 2002-01-17
    • Krishnashree AchuthanSergey Lopatin
    • Krishnashree AchuthanSergey Lopatin
    • H01L214763
    • H01L21/76874H01L21/288H01L21/32134H01L21/76802H01L21/76843H01L2221/1089Y10S977/715
    • For filling an interconnect opening of an integrated circuit formed on a semiconductor substrate, an underlying material is formed at any exposed walls of the interconnect opening. A sacrificial layer of protective material is formed on the underlying material at the walls of the interconnect opening. The underlying material and the sacrificial layer of protective material are formed without a vacuum break. The protective material of the sacrificial layer is soluble in an acidic catalytic solution used for depositing a catalytic seed layer. The semiconductor substrate having the interconnect opening is placed within an acidic catalytic solution for depositing a catalytic seed layer. The sacrificial layer of protective material is dissolved away from the underlying material by the acidic catalytic solution such that the underlying material is exposed to the acidic catalytic solution. A catalytic seed layer formed from the acidic catalytic solution is deposited on the exposed underlying material at the walls of the interconnect opening. The conductive fill for filling the interconnect opening is grown from the catalytic seed layer by electroless deposition. The present invention may be used to particular advantage when the underlying material is comprised of tantalum as a diffusion barrier material, and when the protective material of the sacrificial layer is comprised of magnesium. In that case, the acidic catalytic solution includes palladium chloride and/or tin chloride with hydrochloric acid for dissolving the sacrificial layer of protective material.
    • 为了填充形成在半导体衬底上的集成电路的互连开口,底层材料形成在互连开口的任何暴露的壁处。 在互连开口的壁上的下层材料上形成保护材料的牺牲层。 保护材料的下层材料和牺牲层在没有真空断裂的情况下形成。 牺牲层的保护材料可溶于用于沉积催化种子层的酸性催化溶液中。 具有互连开口的半导体衬底被放置在用于沉积催化种子层的酸性催化溶液中。 保护材料的牺牲层通过酸性催化溶液从基底材料中溶解,使得下面的材料暴露于酸性催化溶液中。 由酸性催化溶液形成的催化种子层沉积在互连开口壁上的暴露的下层材料上。 用于填充互连开口的导电填料通过无电沉积从催化种子层生长。 当底层材料由钽作为扩散阻挡材料构成时,并且当牺牲层的保护材料由镁构成时,本发明可被用于特别有利的方面。 在这种情况下,酸性催化剂溶液包括氯化钯和/或氯化锡与盐酸溶解保护材料的牺牲层。