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    • 7. 发明申请
    • METAL-INSULATOR-METAL (MIM) SWITCHING DEVICES
    • 金属绝缘子金属(MIM)开关器件
    • US20090128221A1
    • 2009-05-21
    • US12261865
    • 2008-10-30
    • Hei KamTsu-Jae King
    • Hei KamTsu-Jae King
    • H01L27/092H03K17/687
    • G11C23/00B82Y10/00H01H1/0094
    • A gated nano-electro-mechanical (NEM) switch employing metal-insulator-metal (MIM) technology and related devices and methods which can facilitate implementation of low-power, radiation-hardened, high-temperature electronic devices and circuits. In one example embodiment a gate electrode is configured as a cantilever beam whose free end is coupled to a MIM stack. The stack moves into bridging contact across a source and drain region when the applied gate voltage generates a sufficient electrostatic force to overcome the mechanical biasing of the cantilever beam. A second set of contacts can be added on the cantilever beam to form a complementary switching structure, or to a separate cantilever beam. The switching can be configured as non-volatile in response to stiction forces. NEM circuits provide a number of advantages within a variety of circuit types, including but not limited to: logic, memory, sleep circuits, pass circuits, and so forth.
    • 采用金属 - 绝缘体 - 金属(MIM)技术的门控纳米机电(NEM)开关及相关设备和方法,可以促进低功耗,辐射硬化,高温电子器件和电路的实现。 在一个示例实施例中,栅电极被配置为悬臂梁,其自由端耦合到MIM堆叠。 当施加的栅极电压产生足够的静电力以克服悬臂梁的机械偏置时,堆叠移动跨越源极和漏极区域的桥接接触。 可以在悬臂梁上添加第二组触点以形成互补的开关结构,或者形成单独的悬臂梁。 响应于静力,可以将开关配置为非易失性。 NEM电路在各种电路类型中提供了许多优点,包括但不限于:逻辑,存储器,睡眠电路,通过电路等。
    • 9. 发明申请
    • FINFET-BASED SRAM WITH FEEDBACK
    • 具有反馈功能的基于FINFET的SRAM
    • US20070183185A1
    • 2007-08-09
    • US11622305
    • 2007-01-11
    • Zheng GuoSriram BalasubramanianRadu ZlatanoviciTsu-Jae KingBorivoje Nikolic
    • Zheng GuoSriram BalasubramanianRadu ZlatanoviciTsu-Jae KingBorivoje Nikolic
    • G11C11/00
    • G11C11/412H01L27/11H01L27/1104H01L27/1108H01L29/785
    • Intrinsic variations and challenging leakage control in current bulk-Si MOSFETs force undesired tradeoffs to be made and limit the scaling of SRAM circuits. Circuits and mechanisms are taught herein which improve leakage and noise margin in SRAM cells, such as those comprising either six-transistor (6-T) SRAM cell designs, or four-transistor (4-T) SRAM cell designs. The inventive SRAM cells utilize a feedback means coupling a portion of the storage node to a back-gate of an access transistor. Preferably feedback is coupled in this manner to both access transistors. SRAM cells designed with this built-in feedback achieve significant improvements in cell static noise margin (SNM) without area penalty. Use of the feedback scheme also results in the creation of a practical 4-T FinFET-based SRAM cell that achieves sub-100 pA per-cell standby current and offers similar improvements in SNM as the 6-T cell with feedback.
    • 当前体硅Si MOSFET中的固有变化和具有挑战性的泄漏控制迫使不需要的折衷,并限制了SRAM电路的缩放。 本文教导了改善SRAM单元中的泄漏和噪声容限的电路和机构,例如包括六晶体管(6-T)SRAM单元设计或四晶体管(4-T)SRAM单元设计)的那些。 本发明的SRAM单元利用将存储节点的一部分耦合到存取晶体管的后栅极的反馈装置。 反馈优选以这种方式耦合到两个存取晶体管。 使用这种内置反馈设计的SRAM单元实现了细胞静态噪声容限(SNM)的显着改进,无区域损失。 反馈方案的使用还导致创建了实用的基于4-T FinFET的SRAM单元,其实现了每个100pA的每个电池的待机电流,并且具有与具有反馈的6-T电池相似的SNM改进。