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    • 7. 发明申请
    • TRANSISTOR CONNECTED DIODES AND CONNECTED III-N DEVICES AND THEIR METHODS OF FABRICATION
    • 晶体管连接二极管和连接III-N器件及其制造方法
    • WO2018063386A1
    • 2018-04-05
    • PCT/US2016/054964
    • 2016-09-30
    • INTEL CORPORATION
    • THEN, Han WuiDASGUPTA, SansaptakRADOSAVLJEVIC, Marko
    • H01L29/49H01L21/768H01L21/764H01L29/78
    • A transistor connected diode structure is described. In an example, the transistor connected diode structure includes a group III-N semiconductor material disposed on substrate. A raised source structure and a raised drain structure are disposed on the group III-N semiconductor material. A mobility enhancement layer is disposed on the group III-N semiconductor material. A polarization charge inducing layer is disposed on the mobility enhancement layer, the polarization charge inducing layer having a first portion and a second portion separated by a gap. A gate dielectric layer disposed on the mobility enhancement layer in the gap. A first metal electrode having a first portion disposed on the raised drain structure, a second portion disposed above the second portion of the polarization charge inducing layer and a third portion disposed on the gate dielectric layer in the gap. A second metal electrode disposed on the raised source structure.
    • 描述了晶体管连接的二极管结构。 在一个示例中,晶体管连接的二极管结构包括设置在衬底上的III-N族半导体材料。 升高的源极结构和升高的漏极结构设置在III-N族半导体材料上。 迁移率增强层设置在III-N族半导体材料上。 极化电荷感应层设置在迁移率增强层上,极化电荷感应层具有由间隙隔开的第一部分和第二部分。 设置在间隙中的迁移率增强层上的栅极电介质层。 第一金属电极具有设置在升高的漏极结构上的第一部分,设置在极化电荷感应层的第二部分上方的第二部分和设置在间隙中的栅极电介质层上的第三部分。 设置在凸起的源结构上的第二金属电极。
    • 9. 发明申请
    • GROUP III-N TRANSISTORS INCLUDING SOURCE TO CHANNEL HETEROSTRUCTURE DESIGN
    • III-N族晶体管,包括通道异质结构设计的源
    • WO2018004654A1
    • 2018-01-04
    • PCT/US2016/040690
    • 2016-07-01
    • INTEL CORPORATION
    • DASGUPTA, SansaptakTHEN, Han WuiRADOSAVLJEVIC, Marko
    • H01L29/778H01L29/66H01L21/8238H01L29/78
    • Techniques are disclosed for forming group III-N transistors including a source to channel heterostructure design. As will be apparent in light of this disclosure, the source to channel heterostructure design may include inserting a relatively high bandgap material layer (e.g., relative to the bandgap of the channel material) between the source and channel of the III-N transistor. In some such embodiments, the relatively high bandgap material layer may be a portion of the polarization charge inducing layer formed over the III-N layer including the channel (e.g., to form a heterojunction/2DEG configuration) that is purposefully left in the source region when forming the source/drain trenches. The source to channel heterostructure design can be used to enhance the high frequency performance of the III-N transistor. Other embodiments may be described and/or disclosed.
    • 公开了用于形成包括源到沟道异质结构设计的III-N族晶体管的技术。 根据本公开内容显而易见的是,沟道异质结构设计的源可以包括在III-N晶体管的源极和沟道之间插入相对高带隙材料层(例如,相对于沟道材料的带隙)。 在一些这样的实施例中,相对高带隙材料层可以是在III-N层上方形成的包括沟道(例如,以形成异质结/ 2DEG配置)的极化电荷感应层的一部分,其有目的地留在源极区中 当形成源极/漏极沟槽时。 通道异质结构设计的来源可用于增强III-N晶体管的高频性能。 其他实施例可以被描述和/或公开。
    • 10. 发明申请
    • CO-INTEGRATION OF GAN AND SELF-ALIGNED THIN BODY GROUP IV TRANSISTORS
    • 甘与自对准薄型第IV族晶体管的集成
    • WO2018004607A1
    • 2018-01-04
    • PCT/US2016/040443
    • 2016-06-30
    • INTEL CORPORATION
    • DASGUPTA, SansaptakTHEN, Han WuiRADOSAVLJEVIC, MarkoGARDNER, Sanaz K.AGABABOV, Pavel M.
    • H01L27/06H01L29/45H01L21/8252H01L21/8238
    • H01L27/1207H01L21/8258H01L27/092H01L29/2003H01L29/7786
    • Techniques are disclosed for forming integrated circuits configured with co-integrated group III-N transistors and group IV transistors. The diverse transistors can be formed in a neighboring fashion or otherwise adjacent to one another on a common substrate. The substrate is a semiconductor-on-insulator configuration. According to an embodiment, structural features of neighboring III-N transistors are used to define structural features of an intervening group IV transistor. So, for example, features of the III-N transistor structures are initially used as a mask to pattern the intervening group IV transistor structure and subsequently are later used as part of the III-N transistor structures, in some cases. In other cases, the III-N transistor structures are sacrificial in nature, in that they are removed after formation of the IV transistor feature. The self-aligned co-location techniques can be used to significantly reduce integration processing needed to form mixed transistor technology (e.g., silicon-containing transistors between GaN transistors).
    • 公开了用于形成配置有共同集成的III-N族晶体管和IV族晶体管的集成电路的技术。 不同的晶体管可以以相邻的方式形成或以其他方式在共同的衬底上彼此相邻。 衬底是绝缘体上半导体结构。 根据一个实施例,使用相邻III-N晶体管的结构特征来定义居间IV族晶体管的结构特征。 因此,例如,在一些情况下,III-N晶体管结构的特征最初被用作掩模来图案化插入的IV族晶体管结构,并随后被用作III-N晶体管结构的一部分。 在其他情况下,III-N晶体管结构本质上是牺牲的,因为它们在形成IV晶体管特征之后被去除。 自对准协同定位技术可用于显着减少形成混合晶体管技术(例如,GaN晶体管之间的含硅晶体管)所需的集成处理。