Full-in-cell(FIC)产品信号线SD层结构为Mo-Al-Mo结构,使用Reactive Ion Etching(RIE)模式干法刻蚀设备进行N+Etch时,氯的化合物会吸附在信号线中的Al线侧壁及光刻胶的表面,当玻璃基板离开刻蚀腔体接触到空气,遇到水分发生水解反应,对A...Full-in-cell(FIC)产品信号线SD层结构为Mo-Al-Mo结构,使用Reactive Ion Etching(RIE)模式干法刻蚀设备进行N+Etch时,氯的化合物会吸附在信号线中的Al线侧壁及光刻胶的表面,当玻璃基板离开刻蚀腔体接触到空气,遇到水分发生水解反应,对Al线造成腐蚀,严重影响产品特性。本文在RIE刻蚀模式腔体内采用刻蚀条件变更改善Al腐蚀现象,通过对刻蚀的前处理步骤,后处理步骤以及去静电步骤的参数包括压强、功率和时间以及气体流量比进行实验设计并对数据进行分析。实验结果表明当后处理步骤2 000 W,O_2/SF_6比例为2 000mL·min^(-1)/50mL·min^(-1),压强为200mt(1mt=0.133Pa),Time为15s为最优条件,可以彻底改善Al腐蚀现象。此条件TFT特性方面更加优越,Dark I_(on)为1.91μA,Photo I_(off)为4.1pA。展开更多
High throughput experimental methods are known to accelerate the rate of research,development,and deployment of electronic materials.For example,thin films with lateral gradients in composition,thickness,or other para...High throughput experimental methods are known to accelerate the rate of research,development,and deployment of electronic materials.For example,thin films with lateral gradients in composition,thickness,or other parameters have been used alongside spatially-resolved characterization to assess how various physical factors affect the material properties under varying measurement conditions.Similarly,multi-layer electronic devices that contain such graded thin films as one or more of their layers can also be characterized spatially in order to optimize the performance.In this work,we apply these high throughput experimental methods to thin film transistors(TFTs),demonstrating combinatorial channel layer growth,device fabrication,and semi-automated characterization using sputtered oxide TFTs as a case study.We show that both extrinsic and intrinsic types of device gradients can be generated in a TFT library,such as channel thickness and length,channel cation compositions,and oxygen atmosphere during deposition.We also present a semi-automated method to measure the 44 devices fabricated on a 50 mm×50 mm substrate that can help to identify properly functioning TFTs in the library and finish the measurement in a short time.Finally,we propose a fully automated characterization system for similar TFT libraries,which can be coupled with high throughput data analysis.These results demonstrate that high throughput methods can accelerate the investigation of TFTs and other electronic devices.展开更多
This paper reports the physical realization of the Bipolar Field-Effect Transistor （BiFET） and its onetransistor basic building block circuits. Examples are given for the one and two MOS gates on thin and thick, pur...This paper reports the physical realization of the Bipolar Field-Effect Transistor （BiFET） and its onetransistor basic building block circuits. Examples are given for the one and two MOS gates on thin and thick, pure and impure base, with electron and hole contacts, and the corresponding theoretical current-voltage characteristics previously computed by us, without generation-recombination-trapping-tunneling of electrons and holes. These examples include the one-MOS-gate on semi-infinite thick impure base transistor （the bulk transistor） and the impurethin-base Silicon-on-Insulator （SOI） transistor and the two-MOS-gates on thin base transistors （the FinFET and the Thin Film Transistor TFF）. Figures are given with the cross-section views containing the electron and hole concentration and current density distributions and trajectories and the corresponding DC current-voltage characteristics.展开更多
基金the National Renewable Energy Laboratory, operated by Alliance for Sustainable Energy, LLC, for the U.S. Department of Energy (DOE) under Contract No. DE-AC36-08GO28308Funding provided by Laboratory Directed Research and Development (LDRD) program at NREL. Y. H+1 种基金support from Science and Technology Commission of Shanghai Municipality (Grant No. 16JC1400603)a grant from the National Natural Science Foundation of China (Grant No. 61471126)
文摘High throughput experimental methods are known to accelerate the rate of research,development,and deployment of electronic materials.For example,thin films with lateral gradients in composition,thickness,or other parameters have been used alongside spatially-resolved characterization to assess how various physical factors affect the material properties under varying measurement conditions.Similarly,multi-layer electronic devices that contain such graded thin films as one or more of their layers can also be characterized spatially in order to optimize the performance.In this work,we apply these high throughput experimental methods to thin film transistors(TFTs),demonstrating combinatorial channel layer growth,device fabrication,and semi-automated characterization using sputtered oxide TFTs as a case study.We show that both extrinsic and intrinsic types of device gradients can be generated in a TFT library,such as channel thickness and length,channel cation compositions,and oxygen atmosphere during deposition.We also present a semi-automated method to measure the 44 devices fabricated on a 50 mm×50 mm substrate that can help to identify properly functioning TFTs in the library and finish the measurement in a short time.Finally,we propose a fully automated characterization system for similar TFT libraries,which can be coupled with high throughput data analysis.These results demonstrate that high throughput methods can accelerate the investigation of TFTs and other electronic devices.
基金This investigation and Jie Binbin have been supported by the CTSAH Associates (CTSA)founded by the late Linda Su-Nan Chang Sah,in memory of her 70th year.
文摘This paper reports the physical realization of the Bipolar Field-Effect Transistor （BiFET） and its onetransistor basic building block circuits. Examples are given for the one and two MOS gates on thin and thick, pure and impure base, with electron and hole contacts, and the corresponding theoretical current-voltage characteristics previously computed by us, without generation-recombination-trapping-tunneling of electrons and holes. These examples include the one-MOS-gate on semi-infinite thick impure base transistor （the bulk transistor） and the impurethin-base Silicon-on-Insulator （SOI） transistor and the two-MOS-gates on thin base transistors （the FinFET and the Thin Film Transistor TFF）. Figures are given with the cross-section views containing the electron and hole concentration and current density distributions and trajectories and the corresponding DC current-voltage characteristics.
