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  <title><![CDATA[Ph.D. Dissertation Defense - Wenjing Su]]></title>
  <body><![CDATA[<p><strong>Title</strong><em>:&nbsp; </em><em>Additively Manufactured Reconfigurable Microwave Components based on Microfluidics for Wireless Sensing and Internet-of-things Applications</em></p>

<p><strong>Committee:</strong></p>

<p>Dr. Manos Tentzeris, ECE, Chair , Advisor</p>

<p>Dr. Fatih Sarioglu, ECE</p>

<p>Dr. Andrew Peterson, ECE</p>

<p>Dr. Benjamin Cook, TI</p>

<p>Dr. Jiang Zhu, Google</p>

<p>Dr. Luca Roselli, Univ of Perugia</p>

<p><strong>Abstract: </strong></p>

<p>This&nbsp;research combines additive manufacturing and microfluidics with microwave&nbsp;and radio frequency (RF) electronics to provide a novel low-cost flexible and reconfigurable&nbsp;solution&nbsp;for Internet-of-Things (IoT). Microfluidics, an emerging technology which allows&nbsp;the precise control of an extremely small amount of liquid within tiny channels, can be used&nbsp;in IoT applications to achieve Lab-on-Chip (LoC) functionality and an extraordinary reconfigurability. Microwave structures are&nbsp;very sensitive to the surrounding environment and&nbsp;thus excellent sensors, while passive radio frequency identification (RFIDs) provide&nbsp;low-cost&nbsp;zero-power solutions for wireless liquid sensing. This work has developed various&nbsp;proof-of-concept disposable wireless liquid sensors and RFID-based sensing platforms for&nbsp;LoC applications. To realize excellent reconfigurability low-costly and compactly, this&nbsp;research also has studied new reconfigurable RF integration topologies by integrating microfluidic&nbsp;channels and dielectric or conducting liquids. In order to significantly decrease&nbsp;the production time and cost, and thus to enhance the ubiquitous smart items, this research&nbsp;studied additive manufacturing (AM) in IoT applications. This research has been exploring&nbsp;the possibility of replacing the conventional electronics and microfluidics fabrication&nbsp;methods with cost-effective additive manufacturing methods such as inkjet-printing and 3D&nbsp;printing. This work presents first-of-its-kind, cost-effective, rapid, low-temperature, and&nbsp;environmental-friendly AM fabrication methods for various reconfigurable antennas or microwave components, wearable sensors, and sensing platforms. In summary, this research&nbsp;focuses on utilizing new AM fabrication techniques and novel microfluidics topologies to&nbsp;provide a low-cost, flexible, and scalable solution for wireless sensing and IoT applications.</p>
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