Annealing investigations for high-k first n-channel In0.53Ga0.47As MOSFET development

V. Djara, K. Cherkaoui, K. Thomas, E. Pelucchi, D. O'Connell, L. Floyd, P. Hurley
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Abstract

We present the development of a high-k first n-channel InGaAs metal-oxide-semiconductor field effect transistors (MOSFETs) and the effect of annealing on the source/drain (S/D) sheet resistance (Rs) and the high-k gate oxide. Test structures based on the transfer length method (TLM) were used as part of a design of experiment (DOE) to optimize the S/D implant activation process. The optimized process was 715°C for 32 s, leading to a minimum Rs of (195.6 ± 3.4) Ω/d. Metal-oxide-semiconductor capacitors (MOSCAPs) with a 2 nm Al2O3 / 8 nm HfO2 gate oxide were annealed at 675°C, 700°C and 725°C for 30 s. Leakage current lower than 2.1×10−8 A/cm2 were obtained for electric fields of ∼3 MV/cm and low frequency dispersion of capacitance in accumulation (<1.7%) were obtained. Densities of interface states (DIT) were estimated using the conductance method. The output characteristics of a 5-μm gate length MOSFET annealed at 650°C is presented.
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高k第一n沟道In0.53Ga0.47As MOSFET的退火研究
我们提出了一种高k优先n沟道InGaAs金属氧化物半导体场效应晶体管(mosfet)的开发,以及退火对源/漏极(S/D)片电阻(Rs)和高k栅极氧化物的影响。基于传递长度法(TLM)的测试结构作为实验设计(DOE)的一部分,以优化S/D种植体激活过程。优化后的工艺温度为715℃,时间为32 s,最小Rs为(195.6±3.4)Ω/d。采用2nm Al2O3 / 8nm HfO2栅极氧化物制备金属氧化物半导体电容器(MOSCAPs),分别在675℃、700℃和725℃下退火30 s。在~ 3 MV/cm的电场下,获得了小于2.1×10−8 A/cm2的泄漏电流,并利用电导法估计了电容在积累中的低频色散(IT)。给出了一种5 μm栅极长MOSFET在650℃退火后的输出特性。
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