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    • 84. 发明授权
    • Silicon based vertical tunneling memory cell
    • 基于硅的垂直隧道存储单元
    • US06448161B1
    • 2002-09-10
    • US09590877
    • 2000-06-09
    • Zoran Krivokapic
    • Zoran Krivokapic
    • H01L2122
    • B82Y10/00H01L27/11H01L29/66772H01L29/882Y10S438/979
    • A method of forming a memory device from a single transistor and a single RTD structure is provided. The method comprises the steps of forming a silicon base, an oxide layer over the base and a top thin silicon layer over the oxide layer. The top silicon layer has a first region and a second region. The second region is masked and a transistor device is formed in the first region of the top silicon layer. Next, the first region is masked and a vertical RTD device is formed in the second region. The step of forming a vertical RTD device in the second region comprises implanting a n+ dopant to form concurrently a source and drain region of the transistor device and a generally horizontal N+ quantum well region of the vertical RTD device. The drain region of the transistor device is coupled to the quantum well region of the vertical RTD. The N+ quantum well region is disposed horizontally below a top surface of the second region.
    • 提供了从单个晶体管和单个RTD结构形成存储器件的方法。 该方法包括以下步骤:在基底上形成硅基底,氧化物层和氧化物层上的顶部薄硅层。 顶部硅层具有第一区域和第二区域。 第二区域被掩蔽,并且晶体管器件形成在顶部硅层的第一区域中。 接下来,第一区域被掩蔽,并且在第二区域中形成垂直的RTD器件。 在第二区域中形成垂直RTD器件的步骤包括注入n +掺杂剂以同时形成晶体管器件的源极和漏极区域以及垂直RTD器件的大致水平的N +量子阱区域。 晶体管器件的漏极区域耦合到垂直RTD的量子阱区域。 N +量子阱区域被设置在第二区域的顶表面之下。
    • 85. 发明授权
    • Self-aligned double gate silicon-on-insulator (SOI) device
    • 自对准双栅极绝缘体上硅(SOI)器件
    • US06396108B1
    • 2002-05-28
    • US09711328
    • 2000-11-13
    • Zoran KrivokapicMatthew Buynoski
    • Zoran KrivokapicMatthew Buynoski
    • H01L21336
    • H01L29/785H01L29/66795
    • A self-aligned double gate transistor, comprising: a first silicon portion on an isolation layer, the silicon portion having formed therein a source region and a drain region separated by a channel region, and having a first side and a second side, the first side and the second side having a first gate oxide and a second gate oxide, respectively, formed thereon; a first silicon gate abutting said first side of said channel region on said insulator; and a second silicon gate abutting said second side of said channel on said insulator. A method for manufacturing a double gate transistor device, comprising: providing a substrate having a buried oxide region; depositing a first nitride mask layer having a pattern overlying a silicon region; forming a trench in said substrate with a depth to said buried oxide; forming a gate oxide in said trench; depositing polysilicon in said trench; depositing a second nitride mask layer having a pattern formed perpendicular to said first nitride mask; etching the portion of said polysilicon not underlying said first or second nitride layers; removing said second nitride layer; and implanting an impurity into exposed portions of polysilicon in said trench and of said silicon-on-insulator substrate underlying said second nitride layer.
    • 一种自对准双栅极晶体管,包括:隔离层上的第一硅部分,所述硅部分中形成有源极区和由沟道区分离的漏极区,并且具有第一侧和第二侧, 并且第二侧分别具有形成在其上的第一栅极氧化物和第二栅极氧化物; 邻接所述绝缘体上的所述沟道区域的第一侧的第一硅栅极; 以及与所述绝缘体上的所述沟道的所述第二侧邻接的第二硅栅极。1.一种制造双栅极晶体管器件的方法,包括:提供具有掩埋氧化物区域的衬底; 沉积具有覆盖硅区域的图案的第一氮化物掩模层; 在所述衬底中形成具有所述掩埋氧化物的深度的沟槽; 在所述沟槽中形成栅极氧化物; 在所述沟槽中沉积多晶硅; 沉积具有垂直于所述第一氮化物掩模形成的图案的第二氮化物掩模层; 蚀刻所述多晶硅的不在所述第一或第二氮化物层下面的部分; 去除所述第二氮化物层; 以及将杂质注入所述沟槽中的多晶硅的暴露部分和所述第二氮化物层下面的所述绝缘体上硅衬底。
    • 86. 发明授权
    • Semiconductor-on-insulator (SOI) tunneling junction transistor SRAM cell
    • 绝缘体上半导体(SOI)隧道结晶体管SRAM单元
    • US06380589B1
    • 2002-04-30
    • US09774138
    • 2001-01-30
    • Zoran Krivokapic
    • Zoran Krivokapic
    • H01L2701
    • H01L27/11
    • A tunneling junction transistor (TJT) SRAM cell device formed on a semiconductor-on-insulator (SOI) substrate with a buried oxide (BOX) layer disposed thereon and an active layer disposed on the BOX layer having active regions defined by isolation trenches. The SOI TJT SRAM cell device includes a first gate and a second gate stacked over one of the active regions. The first gate defines a channel interposed between a source and a drain formed within one of the active regions. The second gate includes a plurality of thin nitride layer interposed between an undoped region and the first gate electrode, a side gate electrode, and a polysilicon layer. The plurality of thin nitride layers form tunneling junctions between the electrodes. The SOI TJT SRAM cell device is electrically coupled respectively to a first and a second node; and a contact plug adjacent and in electrical contact with at least one of the source and the drain.
    • 在绝缘体上半导体(SOI)衬底上形成有埋置氧化物(BOX)层的隧道结结晶体管(TJT)SRAM单元器件,以及设置在BOX层上的有源层,该有源层具有由隔离沟槽限定的有源区。 SOI TJT SRAM单元器件包括堆叠在一个有源区上的第一栅极和第二栅极。 第一栅极限定介于源极和漏极之间的通道,其形成在一个有源区域内。 第二栅极包括介于未掺杂区域和第一栅极电极,侧栅极电极和多晶硅层之间的多个薄氮化物层。 多个薄氮化物层在电极之间形成隧道结。 SOI TJT SRAM单元器件分别电耦合到第一和第二节点; 以及与源极和漏极中的至少一个相邻并与其接触的接触塞。
    • 88. 发明授权
    • Worst case design parameter extraction for logic technologies
    • 最恶劣案例设计参数提取逻辑技术
    • US06304836B1
    • 2001-10-16
    • US09112606
    • 1998-07-09
    • Zoran KrivokapicWilliam D. Heavlin
    • Zoran KrivokapicWilliam D. Heavlin
    • G06F1750
    • G06F17/5036
    • The present invention provides for more realistic worst case extreme determinations for an integrated circuit as compared to conventional techniques. In particular, the present invention provides a framework which affords for improved linkage between semiconductor manufacturing process parameters and an integrated circuit designed based on the electrical properties of cells making up the integrated circuit. The present invention divides an integrated circuit into simple standard cells and more complex cells. For simple standard cells (e.g., XOR, NAND, NOR, inverter), a pre-modeling step is performed to model the simple standard cell as a circuit in order to obtain gate delay and power consumption distributions related thereto. Such pre-modeling affords for more accurate semiconductor physical parameters to be employed to generate the normalized distribution of the integrated circuit which in turn provides for better worst case extremes. More complex cells are modeled with I/V curves distributions for understanding the effects of semiconductor device attribute choices, such as channel length, effects of “guard band” or manufacturability of such devices. As a result of the present invention, IC circuits may be manufactured with more realistic or practical worst case extreme parameters and thus, more densely designed and manufactured without substantially sacrificing operability.
    • 与常规技术相比,本发明提供了对于集成电路的更实际的最坏情况极限确定。 特别地,本发明提供了一种框架,其提供了半导体制造工艺参数之间的改进的连接以及基于构成集成电路的电池的电特性而设计的集成电路。 本发明将集成电路分为简单的标准单元和更复杂的单元。 对于简单的标准单元(例如,XOR,NAND,NOR,逆变器),执行预建模步骤以将简单标准单元建模为电路,以便获得与其相关的门延迟和功耗分布。 这种预建模提供了用于产生集成电路的归一化分布的更准确的半导体物理参数,其进而提供了更好的最坏情况极限。 通过I / V曲线分布对更复杂的单元进行建模,以了解半导体器件属性选择的影响,例如通道长度,“保护带”的影响或这些器件的可制造性。 作为本发明的结果,IC电路可以制造成具有更现实或实际的最坏情况的极限参数,并且因此更加密集地设计和制造而基本上不牺牲可操作性。
    • 90. 发明授权
    • Resonant tunneling diode latch
    • 谐振隧道二极管锁存器
    • US06291832B1
    • 2001-09-18
    • US09557679
    • 2000-04-25
    • Zoran Krivokapic
    • Zoran Krivokapic
    • H01L2106
    • B82Y10/00H01L29/66151H01L29/882
    • A method/system for forming a resonant tunneling diode latch is disclosed. The method/system comprises the steps of forming a gate on a silicon substrate, the silicon substrate having at least one SOI layer disposed therein, providing an oxide spacer over the gate, providing a first ion implant in a first region of the silicon substrate, and then providing an oxide layer. The method further comprises polishing the oxide back to the gate, removing the gate, providing a second ion implant in a second region of the silicon substrate wherein the first and second regions have an undoped portion of silicon there between. According to the present invention, the method/system for forming a resonant tunneling diode latch in an SOI substrate that is easily implemented and results in an increased throughput of resonant tunneling diode devices.
    • 公开了一种用于形成谐振隧穿二极管锁存器的方法/系统。 所述方法/系统包括以下步骤:在硅衬底上形成栅极,所述硅衬底具有设置在其中的至少一个SOI层,在所述栅极上提供氧化物间隔物,在所述硅衬底的第一区域中提供第一离子注入, 然后提供氧化物层。 该方法还包括将氧化物抛光回到栅极,去除栅极,在硅衬底的第二区域中提供第二离子注入,其中第一和第二区域之间具有未掺杂的硅部分。 根据本发明,在SOI衬底中形成谐振隧穿二极管锁存器的方法/系统容易实现,并且导致谐振隧道二极管器件的吞吐量增加。