Thin Body Doping-free Bipolar Transistors: A Performance Projection at Circuits Level

A. Sahu, Abhishek Kumar, Anurag Dwivedi, S. P. Tiwari
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Abstract

The performance of thin body doping-free bipolar transistors on SOI are demonstrated for logic gates circuit using differential pass transistor logic. Charge carriers are induced inside the lightly doped SOI layer by using charge plasma (CP) and polarity control (PC) approaches. The study analyzes the transient, power, and noise margins of logic gates i.e., AND, OR and XOR gates designed using four device configurations i.e., CP based npn, CP based pnp, PC based npn, and PC based pnp. The results of these analyses are compared to prior studies of doping-free device-based circuits. The transient analysis indicates rise and fall time less than 50 ps and average switching power less than 5 µ W. The worstcase noise margin observed for 1 V input level is 0.28 V. Additionally, a 2:1 multiplexer is also designed and examined for response time and output voltage levels. For high logic, worst case output was 0.88 V, while for low logic, it was 0.05 V. The multiplexer took less than 1.8 ns to produce the output.
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薄体无掺杂双极晶体管:电路级的性能投影
采用差分通型晶体管逻辑,证明了薄体无掺杂双极晶体管在SOI上的性能。采用电荷等离子体(CP)和极性控制(PC)两种方法在轻掺杂SOI层内诱导载流子。该研究分析了使用四种器件配置(基于CP的npn、基于CP的pnp、基于PC的npn和基于PC的pnp)设计的逻辑门(即与、或和异或门)的瞬态、功率和噪声余量。这些分析结果与先前无掺杂器件电路的研究结果进行了比较。暂态分析表明,上升和下降时间小于50ps,平均开关功率小于5µw,在1 V输入电平时观察到的最坏情况噪声裕度为0.28 V。此外,还设计了2:1多路复用器,并检查了响应时间和输出电压水平。对于高逻辑,最坏情况输出为0.88 V,而对于低逻辑,它是0.05 V。多路复用器的输出时间小于1.8 ns。
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