CN102341907A - 使用先介电键合后通孔形成的三维集成电路的集成 - Google Patents

使用先介电键合后通孔形成的三维集成电路的集成 Download PDF

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CN102341907A
CN102341907A CN2010800103402A CN201080010340A CN102341907A CN 102341907 A CN102341907 A CN 102341907A CN 2010800103402 A CN2010800103402 A CN 2010800103402A CN 201080010340 A CN201080010340 A CN 201080010340A CN 102341907 A CN102341907 A CN 102341907A
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group
bonding
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M·G·法鲁
R·汉侬
S·S·伊耶
E·R·金瑟
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Abstract

一种实现多个集成电路(IC)器件的三维(3D)集成的方法,包括在第一IC器件之上形成第一绝缘层(120);在第二IC器件之上形成第二绝缘层(220);通过使第一绝缘层与第二绝缘层对准并键合以便将第一键合界面(302)界定于它们之间来形成3D键合的IC器件,将第一组通孔(306)界定于该3D键合的IC器件之内,第一组通孔着落在位于第一IC器件之内的导电焊盘(110)之上,以及将第二组通孔(306)界定于该3D键合的IC器件之内,第二组通孔着落在位于第二器件之内的导电焊盘(210)之上,使得第二组通孔穿过键合界面(302);以及以导电材料(310)填充第一和第二组通孔。

Description

使用先介电键合后通孔形成的三维集成电路的集成
技术领域
本发明一般地涉及半导体器件制造技术,并且更特别地,涉及实现多个集成电路(IC)器件的三维集成。
背景技术
在电子工业中的封装密度持续增加以便将更多的电子器件容纳于封装之内。在这点上,三维(3D)晶片-晶片堆叠技术显著有助于器件集成工艺。典型地,半导体晶片包括被构建于硅衬底之上的若干层的集成电路(例如,处理器,可编程器件、存储器器件等)。晶片的顶层可以通过硅互连或通孔与晶片的底层连接。为了形成3D晶片叠层,两个或更多的晶片一个叠一个地布置并被键合。
3D晶片堆叠技术提供了许多潜在的优点,包括,例如,改进的形状因子、更低的成本、增强的性能以及通过片上系统(SOC)解决方案的更大的集成度。另外,3D晶片堆叠技术可以给芯片提供其他的功能。例如,在形成之后,3D晶片叠层可以被切割成堆叠的管芯或芯片,其中每个堆叠的芯片具有集成电路的多个层(即,分层)。由3D晶片堆叠所形成的SOC架构能够使产品(例如,逻辑电路和动态随机存取存储器(DRAM))的高带宽连通性成为可能,除非所述产品具有不兼容的工艺流程。目前,3D晶片堆叠技术有许多应用,包括高性能的处理器器件、视频和图形处理器、高密度和高带宽的存储芯片,以及其他SOC解决方案。
发明内容
在一种示例性的实施例中,一种实现多个集成电路(IC)器件的三维(3D)集成的方法包括:在第一IC器件之上形成第一绝缘层;在第二IC器件之上形成第二绝缘层;通过使第一IC器件的第一绝缘层与第二IC器件的第二绝缘层对准并键合以便将键合界面界定于它们之间来形成3D键合的IC器件,其中键合界面不含导电材料;在键合之后,将第一组通孔界定于3D键合的IC器件之内,第一组通孔着落(land)在位于第一IC器件之内的导电焊盘之上,以及将第二组通孔界定于3D键合的IC器件之内,第二组通孔着落在位于第二器件之内的导电焊盘之上,使得第二组通孔穿过键合界面;以及以导电材料填充第一和第二组通孔,以及将第一组通孔中的至少一个通孔电连接至第二组通孔中的至少一个通孔,由此建立在3D键合的IC器件的第一和第二IC之间的电通信。
在另一种实施例中,一种实现多个集成电路(IC)器件的三维(3D)集成的方法包括:形成具有半导体衬底、前段工艺(FEOL)结构、中段工艺(MOL)结构和后段工艺(BEOL)结构的第一IC器件,在第一IC器件的BEOL结构之上具有第一绝缘层;形成具有半导体衬底、FEOL结构、MOL结构和BEOL结构的第二IC器件,在第二IC器件的BEOL结构之上具有第二绝缘层;通过使第一IC器件的第一绝缘层与第二IC器件的第二绝缘层对准并键合以便将第一键合界面界定于它们之间来形成3D键合的IC器件,其中第一键合界面不含导电材料;在键合之后,将第一组通孔界定于3D键合的IC器件之内,第一组通孔着落在位于第一IC器件之内的导电焊盘之上,以及将第二组通孔界定于3D键合的IC器件之内,第二组通孔着落在位于第二器件之内的导电焊盘之上,使得第二组通孔穿过第一键合界面;以及以导电材料填充第一和第二组通孔,以及将第一组通孔中的至少一个通孔电连接至第二组通孔中的至少一个通孔,由此建立在3D键合的IC器件的第一和第二IC之间的电通信。
在另一种实施例中,三维(3D)集成电路(IC)器件包括第一IC器件,该第一IC器件与第二IC器件键合于它们之间的第一键合界面处,由此界定3D键合的IC器件,第一键合界面界定于第一IC器件的第一绝缘层与第二IC器件的第二绝缘层之间,其中第一键合界面不含导电材料;界定于3D键合的IC器件之内的第一组通孔,第一组通孔着落在位于第一IC器件之内的导电焊盘之上,以及界定于3D键合的IC器件之内的第二组通孔,第二组通孔着落在位于第二器件之内的导电焊盘之上,使得第二组通孔穿过第一键合界面;以及第一和第二组通孔以导电材料来填充,以及将第一组通孔中的至少一个通孔电连接至第二组通孔中的至少一个通孔,由此建立在3D键合的IC器件的第一和第二IC之间的电通信。
附图说明
参考示例性的附图,其中相同的元件在这几个附图中编号相同:
图1到16是示出根据本发明的一种实施例实现多个集成电路(IC)器件的三维集成的方法的一系列截面图。
与当前的3D晶片堆叠技术相关的一个缺点涉及键合晶片的粘合剂的使用。此类粘合剂由于所不希望的固有的聚合物粘合剂的性质(例如热稳定性)限制了实际的、工厂内(in-fab)加工的数量以及可靠性提高的问题。另外,实现在一对晶片的整个直径之上的预先存在的硅穿孔(TSV)的可接受的对准同样是困难的,这还造成了可靠性的问题。
因此,在此公开了一种用于3D晶片集成键合的方法以及所产生的结构,在该方法中TSV在键合之后形成。以这种方式,实际键合仅涉及晶片的氧化物-氧化物键合(或者更一般地涉及绝缘体-绝缘体键合),因为TSV没有在键合之前形成于个体晶片之上,所以在它们之间不存在关于通孔的对准问题。
应当意识到,虽然在此描述了具体的晶片衬底键合的工艺流程,但是此类描述只是示例性的,并且在此所公开的原理同样适用于各种类型的TSV导电材料、电介质和粘合剂界面材料,以及多种类型的半导体晶片和衬底。
具体实施方式
首先参考图1(a),图中示出了将要与一个或更多个另外的晶片集成并键合的第一晶片100的截面图。在所示出的示例性实施例中,晶片100表示本技术领域所已知的具有形成于其上的前段工艺(FEOL)、中段工艺(MOL)和后段工艺(BEOL)结构的存储器晶片。另外,示例性的存储器晶片100被示出具有厚的牺牲基层102(例如,重掺杂的P+层),以及形成于牺牲基层之上的轻掺杂的外延层104。牺牲基层102可以具有例如为外延层104的掺杂浓度的1000倍的掺杂质浓度。FEOL结构形成于外延层104之内,该FEOL结构用作存储器层的衬底。如以上所指出的,该外延层104能够由半导电材料的块体衬底或绝缘体上半导体(SOI)衬底来实现。
应当意识到,在晶片的MOL和BEOL区中示出的布线层(例如,106和108)只是示例性的。在实际的器件中,可以有若干绝缘体材料层关于以及形成于其中的相关布线。同样如图1(a)所示,在布线层中形成了一个或更多个条带/着落焊盘110。为了例示起见,在M1(第一)布线层中示出了焊盘,尽管此类焊盘能够形成于器件之内的各个层中。
现在参考图1(b),图中示出了将要与图1(a)所示的第一晶片100集成并键合的第二晶片200的截面图。在所示出的示例性实施例中,晶片200表示本技术领域所已知的具有形成于其上的FEOL、MOL和BEOL结构的处理器晶片。另外,示例性的存储器晶片200被示出具有衬底基层202(例如,P型层),该衬底基层202可以由半导电材料(例如,硅)块体衬底或SOI衬底来实现。再者,在晶片200的MOL和BEOL区中所示出的布线层(例如,206和208)只是示例性的。与存储器晶片100的情形一样,处理器晶片200同样包括形成于一个或更多个布线层内的金属条带/着落焊盘210。
图2(a)和2(b)分别示出了在准备晶片键合时晶片100、200以氧化物层120、220或者其他适合类型的绝缘体材料(包括任意粘合剂材料)进行的钝化。钝化的晶片100、200两者然后共同示出于图3中,特别地,在图3中存储器晶片100被翻转并与处理器晶片200对准。该对准可以通过任何已知的技术(例如,红外(IR)对准)或其他适合的方法来实现。应当指出,由于至此还没有TSV形成于晶片100、200中的任一晶片之内,因而没有必要使晶片之间的任意导体材料对准。
如图4所示,晶片100、200被键合到一起以形成集成晶片,现在总体上图示于300。在将氧化物用作个体晶片的钝化材料的情况下,键合可以是,例如,氧化物-氧化物键合(例如,通过退火)、氧化物/粘合剂键合,或者本技术领域所已知的引起电绝缘层之间的强键合的任意其他适合的技术。因而键合的集成晶片300在层120和220之间具有键合界面302,其中该界面完全由绝缘体材料组成,而没有导电材料(例如,通孔)。
应当意识到,在这点上,被键合形成集成晶片300的示例性的晶片100、200不需要是以上实例所给出的具体类型的晶片。例如,处理器晶片同样可以被“翻转”并与存储器晶片键合。另外,一种存储器晶片能够被翻转并且按照以上所描述的方式与另一个存储器晶片键合。甚至更一般地,晶片100、200可以表示形成于衬底上的任意类型的集成电路器件,在该衬底上希望以3D的方式来集成相同或其他类型的集成电路器件。
在任何情况下,图5示出了在形成晶片300的存储器部分时所使用的厚的牺牲基层的去除。该去除可以通过半导体领域中任意适合的方法来实现,包括,例如,诸如磨削、化学机械抛光(CMP)、蚀刻等技术,以及这些技术的结合。通过高浓度掺杂牺牲基层(相对于外延层104),在这两个层之间产生了强蚀刻选择性。因而,蚀刻变成一种适用于去除牺牲基层的技术。一旦去除牺牲基层,集成晶片300的存储器部分的外延层104就露出用于进一步处理。
现在参考图6,开始进行用于“后通孔”TSV形成的处理步骤。这可以包括,例如,在外延层104上形成钝化层304(例如,氧化物)。然后,第一和第二组TSV通过通孔的图形化和蚀刻来界定。更具体而言,“浅的”那组TSV 306被形成穿过钝化层304、外延层104以及布线层106、108中对应于晶片300的存储器部分的着落焊盘110的特定位置的一个或更多个。另外,“深的”那组TSV 308被形成穿过晶片300的整个存储器部分,以及钝化层120和220,一直到在晶片300的处理器部分中的着落焊盘210。与存储器部分中的着落焊盘110的情形一样,在处理器部分中的着落焊盘210同样可以位于各个布线层内,并且因而在着落焊盘210存在于这些层中的情况下,则深的TSV的蚀刻可以继续进行穿过布线层206、208中的一个或更多个。
在一种示例性的实施例中,浅的TSV 306可以具有大约2-3微米(μm)的直径,大约8-15μm的总深度,以及大约10μm或更大的间距(间隔)。深的TSV 308可以具有大约5-10μm的直径,大约25-40μm的总深度,以及大约10μm或更大的间距。在两组TSV的初始蚀刻之后,氧化物内衬被形成于TSV的侧壁之上以便防止导电性的通孔填充材料后来的扩散。在薄的氧化物内衬的沉积之后紧接着是各向异性的蚀刻以从水平表面(例如,金属着落焊盘110、210)上去除内衬。然后,可以执行标准的处理以形成通孔内衬层(例如,钽、氮化钽等)、金属籽晶层和金属填充物310(例如,铜),其后使过量的材料平坦化,例如通过CMP,如图7所示。
在工艺中的这点上,可以形成在浅的和深的TSV之间所需要的任何连接条带(由此界定在集成晶片300的处理器和储存器部分之间的电通信),如图8所示。如图所示,在图形化蚀刻、内衬层、籽晶层、金属电镀和CMP以形成浅/深TSV对之间的连接条带314之后,形成另一钝化(例如,氧化物)层312。虽然所示出的实施例是单镶嵌处理的实例,但是应当理解,同样能够使用双镶嵌处理来同时界定和填充通孔和条带结构。
在所形成的3D集成结构在这点基本上完成了的情况下,那么然后将实施最后的处理步骤,例如形成顶钝化层(没有示出),图形化钝化层以及形成导电捕获焊盘(capture pad)(没有示出)或者用于外部连接的其他冶金物(例如,C4焊料球)。但是,为了例示起见,应当假定,进一步的3D晶片集成是所希望的,诸如(例如)增添更多的存储器芯片。因此,如图9所示,另一个钝化层320被形成于晶片之上。例如,层320可以是氧化物层,例如层120、220所使用的,或者在准备晶片键合时包括任何粘合剂材料的其他适合类型的绝缘体材料。
图10示出第二存储器晶片400与集成晶片300的对准。第二存储器晶片400在构造上与图3所示的第一存储器晶片100相似,因为晶片400包括厚的牺牲基层402(例如,重掺杂的P+层),形成于牺牲基层402上的轻微掺杂的外延层404,在MOL和BEOL区之内的一个或更多个布线层406、408,以及形成于布线层内的一个或更多个条带/着落焊盘410。然后如图11所示,晶片300和400被键合到一起以形成单一集成晶片,现在总体上图示于500。同样,在将氧化物用作个体晶片的钝化材料的情况下,键合可以是,例如,氧化物-氧化物键合(例如,通过退火)、氧化物/粘合剂键合,或者本技术领域所已知的引起电绝缘层之间的强键合的任意其他适合的技术。因而键合的集成晶片500在层320和520之间具有键合界面502,其中(与第一键合界面302类似)第二键合界面502完全由绝缘体材料组成,而没有导电材料(例如,通孔)。
在处理序列中的后续步骤与图5-8所示的步骤相似。例如,在图12中,用来形成第二存储器晶片400的厚的牺牲基层402通过半导体领域中的任意适合的方法(例如磨削、CMP、蚀刻等)来去除。一旦去除了牺牲基层,集成晶片500的第二存储器部分的外延404就露出用于进一步处理。图13然后示出了另一组TSV的形成,包括在外延层404上形成钝化层504(例如,氧化物)。同样,浅的那组TSV 506被形成穿过钝化层504、外延层404,以及布线层406、408中对应于晶片500的第二存储器部分的着落焊盘410的特定位置的一个或更多个。另外,深的那组TSV 508被形成穿过晶片500的整个第二存储器部分,以及钝化层420和320。在所示出的示例性实施例中,深的TSV 508之一着落于条带314之上,该条带314连接在晶片500的处理器和第一存储器部分之间的电路。深的TSV 508中的另一个被示出以连接至早先形成的TSV,由此使TSV 508的总深度从器件的顶部向下延伸至处理器部分中的着落条带210。
在这两组TSV 506、508的蚀刻之后,氧化物内衬被形成于其侧壁之上以便防止导电性的通孔填充材料后来的扩散。在薄的氧化物内衬的沉积之后紧接着是各向异性的蚀刻以从水平表面上去除内衬。然后,可以执行标准的处理以形成通孔内衬层(例如,钽、氮化钽等)、金属籽晶层和金属填充物510(例如,铜),其后使过量的材料平坦化,例如通过CMP,如图14所示。在图15中形成了在浅的和深的TSV之间的连接条带。特别地,在图形化蚀刻、内衬层、籽晶层、金属电镀和CMP以形成浅/深TSV对之间的连接条带514之后,形成另一钝化(例如,氧化物)层512。同样,虽然所示出的实施例是单镶嵌处理的实例,但是应当理解,同样能够使用双镶嵌处理来同时界定和填充通孔和条带结构。
最后,图16示出了形成于晶片500之上用于提供3D集成的晶片500的外部电接触的捕获焊盘516(例如,C4)。可以形成捕获焊盘516使之具有或不具有另一钝化层(没有示出)。再者,在形成任何外部的捕获焊盘之前,在使键合晶片电互连的“后通孔”的界定之前,还可以按照以上所描述的方式来堆叠并键合另外的晶片层。这样做时,所有键合工艺在本质上都是绝缘体-绝缘体的键合工艺,因为该集成不需要进行导电性结构的对准/键合。应当指出,虽然深的TSV最终穿过了晶片键合界面,但是通孔本身并不包括该界面的一部分,因为金属填充在键合之后进行。
应当理解,在此所描述的示例性的工艺流程可以具有许多变化,包括,但不限于,使用关于直的、“只有通孔”的晶片,仅具有布线再分布和晶片连接TSV的晶片,以及具有诸如电容器、电压调节模块(VRM)等的具体特征的晶片。另外,各种晶片(例如,处理器,晶片)在其内还可以包括埋置氧化物(BOX)层,以用于SOI应用。
虽然本发明已经参考一种或更多种优选的实施例进行了描述,但是本领域技术人员应当理解,在不脱离本发明的范围的情况下可以进行各种改变以及元件可以用其等价物来替代。另外,在不脱离本发明的本质范围的情况下,还可以进行许多修改以使特定的情况或材料适合于本发明的教导。因此,希望本发明不受限于作为为实施本发明而构想出的最好的模式来公开的具体实施例,而是本发明将包括属于所附权利要求的范围之内的所有实施例。

Claims (20)

1.一种实现多个集成电路(IC)器件的三维(3D)集成的方法,所述方法包括:
在第一IC器件之上形成第一绝缘层(120);
在第二IC器件之上形成第二绝缘层(220);
通过使所述第一IC器件的所述第一绝缘层(120)与所述第二IC器件的所述第二绝缘层(220)对准并键合以便将第一键合界面(302)界定于它们之间来形成3D键合的IC器件,其中所述第一键合界面不含导电材料;
在所述键合之后,将第一组通孔(306)界定于所述3D键合的IC器件之内,所述第一组通孔着落在位于所述第一IC器件之内的导电焊盘(110)之上,以及将第二组通孔(308)界定于所述3D键合的IC器件之内,所述第二组通孔着落在位于所述第二IC器件之内的导电焊盘(210)之上,使得所述第二组通孔穿过所述第一键合界面(302);以及
以导电材料(310)填充所述第一和第二组通孔,并将所述第一组通孔中的至少一个通孔电连接(314)至所述第二组通孔中的至少一个通孔,由此建立在所述3D键合的IC器件的所述第一和第二IC之间的电通信。
2.根据权利要求1所述的方法,还包括:
在所述3D键合的IC器件之上形成第三绝缘层(320);
在第三IC器件之上形成第四绝缘层(420);
通过使所述第三IC器件的所述第四绝缘层(420)与所述3D键合的IC器件的所述第三绝缘层(320)对准并键合以便将第二键合界面(502)界定于它们之间来将所述第三IC器件附接于所述3D键合的IC器件,其中所述第二键合界面(502)不含导电材料;
将第三组通孔(506)界定于所述3D键合的IC器件之内,所述第三组通孔着落在位于所述第三IC器件之内的导电焊盘(410)之上,以及将第四组通孔(508)界定于所述3D键合的IC器件之内,所述第四组通孔着落在所述3D键合的IC器件之内的所述第二组通孔(308)中的一个或更多个通孔以及在所述3D键合的IC器件之内的所述第一和第二组通孔之间的电连接(314)之上,使得所述第四组通孔穿过所述第二键合界面(502);以及
以导电材料(510)填充所述第三和第四组通孔,并将所述第三组通孔中的至少一个通孔电连接(514)至所述第四组通孔中的至少一个通孔,由此建立在所述3D键合的IC器件的所述第一、第二和第三IC之间的电通信。
3.根据权利要求1所述的方法,其中所述第一IC器件包括形成于牺牲基层(102)之上的外延生长的半导体层(104),以及其中所述牺牲基层在使所述第一和第二IC器件键合之后且在所述第一和第二组通孔的形成之前被去除。
4.根据权利要求2所述的方法,其中所述第一IC器件的所述牺牲基层(102)相对于所述外延生长的半导体层(104)具有实质上更高的掺杂浓度以便在它们之间产生蚀刻选择性。
5.根据权利要求1所述的方法,其中所述第一绝缘层(120)和第二绝缘层(220)包括氧化物层,以及所述键合包括氧化物-氧化物键合和氧化物/粘合剂键合中的一种或更多种。
6.根据权利要求1所述的方法,其中所述第一IC器件包括存储器器件,并且所述第二IC器件包括处理器器件。
7.根据权利要求2所述的方法,其中所述第一IC器件包括存储器器件,所述第二IC器件包括处理器器件,并且所述第三IC器件包括另一存储器器件。
8.一种实现多个集成电路(IC)器件的三维(3D)集成的方法,所述方法包括:
形成具有半导体衬底、前段工艺(FEOL)结构、中段工艺(MOL)结构和后段工艺(BEOL)结构的第一IC器件(100),在所述第一IC器件的所述BEOL结构之上具有第一绝缘层(120);
形成具有半导体衬底、FEOL结构、MOL结构和BEOL结构的第二IC器件(200),在所述第二IC器件的所述BEOL结构之上具有第二绝缘层(220);
通过使所述第一IC器件的所述第一绝缘层(120)与所述第二IC器件的所述第二绝缘层(220)对准并键合以便将第一键合界面(302)界定于它们之间来形成3D键合的IC器件(300),其中所述第一键合界面不含导电材料;
在所述键合之后,将第一组通孔(306)界定于所述3D键合的IC器件之内,所述第一组通孔着落在位于所述第一IC器件之内的导电焊盘(110)之上,以及将第二组通孔(308)界定于所述3D键合的IC器件之内,所述第二组通孔着落在位于所述第二器件之内的导电焊盘(210)之上,使得所述第二组通孔穿过所述第一键合界面(302);以及
以导电材料(310)填充所述第一和第二组通孔,并将所述第一组通孔中的至少一个通孔电连接(314)至所述第二组通孔中的至少一个通孔,由此建立在所述3D键合的IC器件的所述第一和第二IC之间的电通信。
9.根据权利要求8所述的方法,还包括:
在所述3D键合的IC器件之上形成第三绝缘层(320);
形成具有半导体衬底、FEOL结构、MOL结构和BEOL结构的第三IC器件(400),在所述第三IC器件的所述BEOL结构之上具有第四绝缘层(420);
通过使所述第三IC器件的所述第四绝缘层(420)与所述3D键合的IC器件的所述第三绝缘层(320)对准并键合以便将第二键合界面(502)界定于它们之间来将所述第三IC器件(400)附接于所述3D键合的IC器件(300),其中所述第二键合界面(502)不含导电材料;
将第三组通孔(506)界定于所述3D键合的IC器件之内,所述第三组通孔着落在位于所述第三IC器件之内的导电焊盘(410)之上,以及将第四组通孔(508)界定于所述3D键合的IC器件之内,所述第四组通孔着落在所述3D键合的IC器件之内的所述第二组通孔(308)中的一个或更多个通孔以及在所述3D键合的IC器件之内的所述第一和第二组通孔之间的电连接(314)之上,使得所述第四组通孔穿过所述第二键合界面;以及
以导电材料(510)填充所述第三和第四组通孔,并将所述第三组通孔中的至少一个通孔电连接(514)至所述第四组通孔中的至少一个通孔,由此建立在所述3D键合的IC器件的所述第一、第二和第三IC之间的电通信。
10.根据权利要求8所述的方法,其中形成所述第一IC器件包括:使其所述半导体层(104)外延生长于牺牲基层(102)之上,以及其中在使所述第一和第二IC器件键合之后且在所述第一和第二组通孔的形成之前去除所述牺牲基层。
11.根据权利要求9所述的方法,其中所述第一IC器件的所述牺牲基层(102)相对于所述外延生长的半导体层(104)具有实质上更高的掺杂浓度以便在它们之间产生蚀刻选择性。
12.根据权利要求8所述的方法,其中所述第一(120)和第二(220)绝缘层包括氧化物层,并且所述键合包括氧化物-氧化物键合和氧化物/粘合剂键合中的一种或更多种。
13.根据权利要求8所述的方法,其中所述第一IC器件包括存储器器件,并且所述第二IC器件包括处理器器件。
14.根据权利要求9所述的方法,其中所述第一IC器件包括存储器器件,所述第二IC器件包括处理器器件,并且所述第三IC器件包括另一存储器器件。
15.一种三维(3D)集成电路(IC)器件,包括:
第一IC器件(100),与第二IC器件(200)键合于它们之间的第一键合界面(302)处,由此界定3D键合的IC器件,所述第一键合界面(302)界定于所述第一IC器件的第一绝缘层(120)与所述第二IC器件的第二绝缘层(220)之间,其中所述第一键合界面不含导电材料;
界定于所述3D键合的IC器件之内的第一组通孔(306),所述第一组通孔着落在位于所述第一IC器件之内的导电焊盘(110)之上,以及界定于所述3D键合的IC器件之内的第二组通孔(308),所述第二组通孔着落在位于所述第二器件之内的导电焊盘(210)之上,使得所述第二组通孔穿过所述第一键合界面(302);以及
所述第一和第二组通孔填充有导电材料(310),并且所述第一组通孔中的至少一个通孔电连接(314)至所述第二组通孔中的至少一个通孔,由此建立在所述3D键合的IC器件的所述第一和第二IC之间的电通信。
16.根据权利要求15所述的器件,还包括:
第三IC器件(400),与所述3D键合的IC器件(300)附接于它们之间的第二键合界面(502),所述第二键合界面界定于形成于所述3D键合的IC器件之上的第三绝缘层(320)与由所述第三IC器件形成的第四绝缘层(420)之间;
界定于所述3D键合的IC器件之内的第三组通孔(506),所述第三组通孔着落在位于所述第三IC器件之内的导电焊盘(410)之上,以及界定于所述3D键合的IC器件之内的第四组通孔(508),所述第四组通孔着落在所述3D键合的IC器件之内的所述第二组通孔(308)中的一个或更多个通孔以及在所述3D键合的IC器件之内的所述第一和第二组通孔之间的电连接(314)之上,使得所述第四组通孔穿过所述第二键合界面(502);以及
所述第三和第四组通孔填充有导电材料(510),并且所述第三组通孔中的至少一个通孔电连接(514)至所述第四组通孔中的至少一个通孔,由此建立在所述3D键合的IC器件的所述第一、第二和第三IC之间的电通信。
17.根据权利要求15所述的器件,其中所述第一绝缘层(120)和第二绝缘层(220)包括氧化物层。
18.根据权利要求15所述的器件,其中所述第二组通孔(308)中的通孔比所述第一组通孔(306)中的通孔深。
19.根据权利要求18所述的器件,其中所述第二组通孔(308)中的通孔与所述第一组通孔(306)中的通孔相比具有更大的直径。
20.根据权利要求15所述的方法,其中所述第一IC器件包括存储器器件,并且所述第二IC器件包括处理器器件。
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