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<dublin_core schema="dc">
<dcvalue element="contributor" qualifier="author">Kim,&#x20;Jong-Hyun</dcvalue>
<dcvalue element="contributor" qualifier="author">Kim,&#x20;Seung-Geun</dcvalue>
<dcvalue element="contributor" qualifier="author">Kim,&#x20;Seung-Hwan</dcvalue>
<dcvalue element="contributor" qualifier="author">Han,&#x20;Kyu-Hyun</dcvalue>
<dcvalue element="contributor" qualifier="author">Kim,&#x20;Jiyoung</dcvalue>
<dcvalue element="contributor" qualifier="author">Yu,&#x20;Hyun-Yong</dcvalue>
<dcvalue element="date" qualifier="accessioned">2024-01-19T09:04:35Z</dcvalue>
<dcvalue element="date" qualifier="available">2024-01-19T09:04:35Z</dcvalue>
<dcvalue element="date" qualifier="created">2023-07-13</dcvalue>
<dcvalue element="date" qualifier="issued">2023-07</dcvalue>
<dcvalue element="identifier" qualifier="issn">1944-8244</dcvalue>
<dcvalue element="identifier" qualifier="uri">https:&#x2F;&#x2F;pubs.kist.re.kr&#x2F;handle&#x2F;201004&#x2F;113529</dcvalue>
<dcvalue element="description" qualifier="abstract">Negative&#x20;differential&#x20;resistance&#x20;(NDR)&#x20;based&#x20;on&#x20;the&#x20;band-to-bandtunneling&#x20;(BTBT)&#x20;mechanism&#x20;has&#x20;recently&#x20;shown&#x20;great&#x20;potential&#x20;in&#x20;improvingthe&#x20;performance&#x20;of&#x20;various&#x20;electronic&#x20;devices.&#x20;However,&#x20;the&#x20;applicabilityof&#x20;conventional&#x20;BTBT-based&#x20;NDR&#x20;devices&#x20;is&#x20;restricted&#x20;by&#x20;their&#x20;insufficientperformance&#x20;due&#x20;to&#x20;the&#x20;limitations&#x20;of&#x20;the&#x20;NDR&#x20;mechanism.&#x20;In&#x20;this&#x20;study,we&#x20;develop&#x20;an&#x20;insulator-to-metal&#x20;phase&#x20;transition&#x20;(IMT)-based&#x20;NDRdevice&#x20;that&#x20;exploits&#x20;the&#x20;abrupt&#x20;resistive&#x20;switching&#x20;of&#x20;vanadium&#x20;dioxide(VO2)&#x20;to&#x20;achieve&#x20;a&#x20;high&#x20;peak-to-valley&#x20;current&#x20;ratio&#x20;(PVCR)and&#x20;peak&#x20;current&#x20;density&#x20;(J&#x20;(peak))&#x20;as&#x20;wellas&#x20;controllable&#x20;peak&#x20;and&#x20;valley&#x20;voltages&#x20;(V&#x20;(peak&#x2F;valley)).&#x20;When&#x20;a&#x20;phase&#x20;transition&#x20;is&#x20;induced&#x20;in&#x20;VO2,&#x20;the&#x20;effectivevoltage&#x20;bias&#x20;on&#x20;the&#x20;two-dimensional&#x20;channel&#x20;is&#x20;decreased&#x20;by&#x20;the&#x20;reductionin&#x20;the&#x20;VO2&#x20;resistance.&#x20;Accordingly,&#x20;the&#x20;effective&#x20;voltageadjustment&#x20;induced&#x20;by&#x20;the&#x20;IMT&#x20;results&#x20;in&#x20;an&#x20;abrupt&#x20;NDR.&#x20;This&#x20;NDR&#x20;mechanismbased&#x20;on&#x20;the&#x20;abrupt&#x20;IMT&#x20;results&#x20;in&#x20;a&#x20;maximum&#x20;PVCR&#x20;of&#x20;71.1&#x20;throughits&#x20;gate&#x20;voltage&#x20;and&#x20;VO2&#x20;threshold&#x20;voltage&#x20;tunability&#x20;characteristics.Moreover,&#x20;V&#x20;(peak&#x2F;valley)&#x20;is&#x20;easily&#x20;modulatedby&#x20;controlling&#x20;the&#x20;length&#x20;of&#x20;VO2.&#x20;In&#x20;addition,&#x20;a&#x20;maximum&#x20;J&#x20;(peak)&#x20;of&#x20;1.6&#x20;x&#x20;10(6)&#x20;A&#x2F;m(2)&#x20;is&#x20;achieved&#x20;through&#x20;light-tunable&#x20;characteristics.&#x20;The&#x20;proposedIMT-based&#x20;NDR&#x20;device&#x20;is&#x20;expected&#x20;to&#x20;contribute&#x20;to&#x20;the&#x20;developmentof&#x20;various&#x20;NDR&#x20;devices&#x20;for&#x20;next-generation&#x20;electronics.</dcvalue>
<dcvalue element="language" qualifier="none">English</dcvalue>
<dcvalue element="publisher" qualifier="none">American&#x20;Chemical&#x20;Society</dcvalue>
<dcvalue element="title" qualifier="none">Highly&#x20;Tunable&#x20;Negative&#x20;Differential&#x20;Resistance&#x20;Device&#x20;Based&#x20;on&#x20;Insulator-to-Metal&#x20;Phase&#x20;Transition&#x20;of&#x20;Vanadium&#x20;Dioxide</dcvalue>
<dcvalue element="type" qualifier="none">Article</dcvalue>
<dcvalue element="identifier" qualifier="doi">10.1021&#x2F;acsami.3c03213</dcvalue>
<dcvalue element="description" qualifier="journalClass">1</dcvalue>
<dcvalue element="identifier" qualifier="bibliographicCitation">ACS&#x20;Applied&#x20;Materials&#x20;&amp;&#x20;Interfaces,&#x20;v.15,&#x20;no.26,&#x20;pp.31608&#x20;-&#x20;31616</dcvalue>
<dcvalue element="citation" qualifier="title">ACS&#x20;Applied&#x20;Materials&#x20;&amp;&#x20;Interfaces</dcvalue>
<dcvalue element="citation" qualifier="volume">15</dcvalue>
<dcvalue element="citation" qualifier="number">26</dcvalue>
<dcvalue element="citation" qualifier="startPage">31608</dcvalue>
<dcvalue element="citation" qualifier="endPage">31616</dcvalue>
<dcvalue element="description" qualifier="isOpenAccess">N</dcvalue>
<dcvalue element="description" qualifier="journalRegisteredClass">scie</dcvalue>
<dcvalue element="description" qualifier="journalRegisteredClass">scopus</dcvalue>
<dcvalue element="identifier" qualifier="wosid">001016728900001</dcvalue>
<dcvalue element="relation" qualifier="journalWebOfScienceCategory">Nanoscience&#x20;&amp;&#x20;Nanotechnology</dcvalue>
<dcvalue element="relation" qualifier="journalWebOfScienceCategory">Materials&#x20;Science,&#x20;Multidisciplinary</dcvalue>
<dcvalue element="relation" qualifier="journalResearchArea">Science&#x20;&amp;&#x20;Technology&#x20;-&#x20;Other&#x20;Topics</dcvalue>
<dcvalue element="relation" qualifier="journalResearchArea">Materials&#x20;Science</dcvalue>
<dcvalue element="type" qualifier="docType">Article</dcvalue>
<dcvalue element="subject" qualifier="keywordPlus">HETEROJUNCTION</dcvalue>
<dcvalue element="subject" qualifier="keywordPlus">CONDUCTANCE</dcvalue>
<dcvalue element="subject" qualifier="keywordAuthor">negative&#x20;differential&#x20;resistance</dcvalue>
<dcvalue element="subject" qualifier="keywordAuthor">insulator-to-metaltransition</dcvalue>
<dcvalue element="subject" qualifier="keywordAuthor">vanadium&#x20;dioxide</dcvalue>
<dcvalue element="subject" qualifier="keywordAuthor">peak-to-valley&#x20;currentratio</dcvalue>
<dcvalue element="subject" qualifier="keywordAuthor">peak&#x20;current&#x20;density</dcvalue>
</dublin_core>
