Education

Research Description

Jiang is interested in micro/nano-sensors, actuators and transducers and their applications in biomedical and aerospace engineering; ultrasound imaging for medical and industrial NDE/NDT applications; high power ultrasound therapy; sensors and actuators for extreme environment; and micro/nanofabrications with smart materials and structures incorporation. Presently, he is 1) conducting research in high-frequency and broadband ultrasound transducers for biomedical imaging, therapy and NDE, 2) developing electromechanical devices for extreme environments, and 3)  studying new smart materials and micro/nanostructures for energy conversion (harvesting, sensing, actuation).

Publications

A Face-Shear Mode Piezoelectric Array Sensor for Elasticity and Force Measurement

Kim, K., Kim, T., Kim, J., & Jiang, X. (2020), SENSORS, 20(3). https://doi.org/10.3390/s20030604

Advances in Sonothrombolysis Techniques Using Piezoelectric Transducers

Goel, L., & Jiang, X. (2020). [Review of , ]. SENSORS, 20(5). https://doi.org/10.3390/s20051288

Announcing IEEE Nanotechnology Magazine's New Editor-in-Chief and Co-Editor-in-Chief

Sheu, B., & Jiang, X. (2020, June), IEEE NANOTECHNOLOGY MAGAZINE, Vol. 14, pp. 3–4. https://doi.org/10.1109/MNANO.2020.2980092

Dynamic-coupling analyses of cells localization by the negative dielectrophoresis

Ji, J., Wang, J., Wang, L., Zhang, Q., Duan, Q., Sang, S., … Jiang, X. (2020), PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS PART C-JOURNAL OF MECHANICAL ENGINEERING SCIENCE. https://doi.org/10.1177/0954406220929050

EXAMINING THE INFLUENCE OF LOW-DOSE TISSUE PLASMINOGEN ACTIVATOR ON MICROBUBBLE-MEDIATED FORWARD-VIEWING INTRAVASCULAR SONOTHROMBOLYSIS

Goel, L., Wu, H., Kim, H., Zhang, B., Kim, J., Dayton, P. A., … Jiang, X. (2020), ULTRASOUND IN MEDICINE AND BIOLOGY, 46(7), 1698–1706. https://doi.org/10.1016/j.ultrasmedbio.2020.03.012

Multi-layered domain morphology in relaxor single crystals with nano-patterned composite electrode

Luo, C., Chang, W.-Y., Gao, M., Chang, C.-H., Li, J., Viehland, D., … Jiang, X. (2020), ACTA MATERIALIA, 182, 10–17. https://doi.org/10.1016/j.actamat.2019.10.017

Photoflexoelectric effect in halide perovskites

Shu, L., Ke, S., Fei, L., Huang, W., Wang, Z., Gong, J., … Catalan, G. (2020), NATURE MATERIALS. https://doi.org/10.1038/s41563-020-0659-y

Stress Measurement of a Pressurized Vessel Using Ultrasonic Subsurface Longitudinal Wave With 1-3 Composite Transducers

Kim, H., Kim, T., Morrow, D., & Jiang, X. (2020), IEEE TRANSACTIONS ON ULTRASONICS FERROELECTRICS AND FREQUENCY CONTROL, 67(1), 158–166. https://doi.org/10.1109/TUFFC.2019.2941133

Apparent phase stability and domain distribution of PMN-30PT single crystals with nanograted Au/MnOx electrodes

Gao, M., Luo, C., Chang, W.-Y., Leung, C. M., Tian, J., Li, J., … Viehland, D. (2019), ACTA MATERIALIA, 169, 28–35. https://doi.org/10.1016/j.actamat.2019.02.039

Candle-Soot Carbon Nanoparticles in Photoacoustics Advantages and challenges for laser ultrasound transmitters

Kim, J., Kim, H., Chang, W.-Y., Huang, W., Jiang, X., & Dayton, P. A. (2019), IEEE NANOTECHNOLOGY MAGAZINE, 13(3), 13–28. https://doi.org/10.1109/MNANO.2019.2904773

View all publications via NC State Libraries

Grants

Development of a Miniaturized Multidirectional Ultrasound Ablation Array (MiDUSa) for Endobronchoscopic Lung Nodule Ablation

Lineberger Cancer Center(8/01/20 - 8/01/21)

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Development of a Miniaturized Multidirectional Ultrasound Ablation Array (MiDUSa) for Endobronchoscopic Lung Nodule Ablation

Sponsor: Lineberger Cancer Center

Start Date: 8/01/20

End Date: 8/01/21

Abstract

In this project a small aperture high intensity focused ultrasound transducer will be developed for tissue ablations.

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Domain-Engineering Enabled Thermal Switching in Ferroelectric Materials

National Science Foundation (NSF)(7/01/20 - 6/30/24)

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Domain-Engineering Enabled Thermal Switching in Ferroelectric Materials

Sponsor: National Science Foundation (NSF)

Start Date: 7/01/20

End Date: 6/30/24

Abstract

The research goal is to understand how thermal conductivity of ferroelectric materials can be switched with external electric fields and how this switching behavior can be engineered through the reconfigurable ferroelectric domains. This is motivated by the possible new paradigm of energy regulation for harvesting, saving, and management if dynamic control of thermal energy transport can be achieved. Seeking solutions for thermal control in materials are limited by the traditional toolkit of linear, static, and passive thermal components, such as thermal resistors and thermal capacitors. This paucity of thermal options pales in comparison to the rich selection of highly nonlinear, switchable, and active components in the electrical domain. Since switchable and nonlinear thermal components are not nearly as mature as their electrical counterparts, the pursuit of these thermal components remains a motivating interdisciplinary challenge to researchers for years. In this project, we will measure the thermal conductivity- domain structure correlation to reveal the effects of domain walls and domain engineering. The studies on the manipulation of domain walls using domain engineering has translational implications for a range of applications, such as infrared imaging, solid-state cooling, and waste-heat energy conversion due to pyroelectric and electrocaloric effects, and sensors based piezoelectric effects.

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Prevent Unnecessary Carotid Intervention and Stroke using Noninvasive Transcutaneous Ultrasound Thermal Strain Imaging (US-TSI)

National Institutes of Health (NIH)(6/15/20 - 5/31/21)

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Prevent Unnecessary Carotid Intervention and Stroke using Noninvasive Transcutaneous Ultrasound Thermal Strain Imaging (US-TSI)

Sponsor: National Institutes of Health (NIH)

Start Date: 6/15/20

End Date: 5/31/21

Abstract

In this project, a dual mode ultrasound array will be developed for thermal strain imaging.

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Photoacoustic-imaging-guided Intravascular Sonothrombolysis

National Institutes of Health (NIH)(6/01/19 - 3/31/21)

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Photoacoustic-imaging-guided Intravascular Sonothrombolysis

Sponsor: National Institutes of Health (NIH)

Start Date: 6/01/19

End Date: 3/31/21

Abstract

Photoacoustic imaging guided intravascular thrombolysis technique will be developed in this project.

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Forward-viewing Intravascular Transducers for Thrombolysis

UNC - UNC Chapel Hill(12/15/18 - 5/14/20)

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Forward-viewing Intravascular Transducers for Thrombolysis

Sponsor: UNC - UNC Chapel Hill

Start Date: 12/15/18

End Date: 5/14/20

Abstract

Small aperture intravascular ultrasound transducers will be prototyped for thrombolysis applications. In-vitro thrombolysis tests will be conducted to confirm the effectiveness of the developed transducers.

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Effect of AC Poling on Dielectric and Piezoelectric Properties of Relaxor Single Crystals for Acoustic Sensors

US Navy-Office Of Naval Research(7/01/18 - 6/30/21)

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Effect of AC Poling on Dielectric and Piezoelectric Properties of Relaxor Single Crystals for Acoustic Sensors

Sponsor: US Navy-Office Of Naval Research

Start Date: 7/01/18

End Date: 6/30/21

Abstract

Poling induced domain structures play a significant role in relaxor-PT piezoelectric single crystals. In this project, AC poling technology and the associated single crystal domain structures will be studied for novel acoustic sensors.

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ULTRA – Ultrasound for Resource-limited Areas

Bill and Melinda Gates Foundation(5/04/18 - 4/30/20)

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ULTRA – Ultrasound for Resource-limited Areas

Sponsor: Bill and Melinda Gates Foundation

Start Date: 5/04/18

End Date: 4/30/20

Abstract

We will develop low cost sensor arrays that can be attached to an ultrasound probe and collect real-time position, orientation, force (between probe and maternal abdomen) and the probe temperature data that is synchronized with the sonograms. Once developed these sensors will be adopted into a clinical algorithm and this additional data collected on all ultrasound scans. The proposed sensor system can be used for automatic ultrasound scan for medical imaging.

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Forward viewing catheter-delivered microbubble enhanced sonothrombolysis (FV-CAMUS)

National Institutes of Health (NIH)(8/15/18 - 6/30/21)

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Forward viewing catheter-delivered microbubble enhanced sonothrombolysis (FV-CAMUS)

Sponsor: National Institutes of Health (NIH)

Start Date: 8/15/18

End Date: 6/30/21

Abstract

In this project, a forward-viewing catheter delivered microbubble assisted sonothrombolysis system will be developed for rapid and effective treatment of deep vein thrombus. Intravascular transducers will be designed, fabricated and characterized, followed by in-vitro, ex-vivo and in-vivo thrombolysis tests.

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High temperature embedded/integrated sensors (HiTEIS) for remote monitoring of reactor and fuel cycle systems

US Dept. of Energy (DOE)(10/01/17 - 9/30/21)

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High temperature embedded/integrated sensors (HiTEIS) for remote monitoring of reactor and fuel cycle systems

Sponsor: US Dept. of Energy (DOE)

Start Date: 10/01/17

End Date: 9/30/21

Abstract

In this project, we will develop high temperature (> 600 C) embedded/integrated sensors (HiTEIS) for wireless monitoring of reactor and fuel cycle systems. HT pressure sensors, vibration sensors and liquid level sensors will be designed, fabricated, embedded and characterized, followed by nuclear structure integration and evaluations. The proposed technique will likely be used to enhance the safety and efficiency of nuclear power systems.

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Ultrasonic Characterization of Atherosclerotic Plaque using Multiple Scattering

National Institutes of Health (NIH)(9/30/16 - 7/31/19)

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Ultrasonic Characterization of Atherosclerotic Plaque using Multiple Scattering

Sponsor: National Institutes of Health (NIH)

Start Date: 9/30/16

End Date: 7/31/19

Abstract

Atherosclerosis is the leading cause of morbidity and mortality in Western countries, in large part due to plaque rupture. Vulnerable plaques are the most likely to rupture, being the major cause of acute myocardial infarction and sudden cardiac death. Neovascularization of the arterial walls by adventitial vasa vasorum appears to participate in the progression of atherosclerosis and atherosclerotic plaque neovascularization was shown to be one of the strongest predictors of future cardiovascular events. No techniques are currently available for the quantitative assessment of vulnerable plaque, which remains an unmet need. Microbubbles are extremely powerful contrast agents for ultrasonic imaging of the vasculature and Contrast Enhanced IntraVascular UltraSound (CE-IVUS) seems to be one of the most promising imaging modalities for the detection of atherosclerosis and vulnerable plaque. However, although this technique allows the detection of the vasa vasorum, CE-IVUS currently does not provide a quantitative characterization of its micro-architecture. The specificity of CE-IVUS has to be improved. A quantitative assessment of the vasa vasorum network in vivo would strongly predict cardiovascular events yet no such techniques currently exist. We propose using ultrasound multiple scattering to characterize the microstructural properties of neovascular networks. By using ultrasound multiple scattering to characterize the architecture of the neovascularization, we will add a new dimension to CE-IVUS. With the technique we propose to develop here, CE-IVUS will not only be used for the detection of plaque related neo-angiogenesis, but also for its characterization. This will dramatically increase the specificity of CE-IVUS for the assessment of plaque vulnerability. It will enable the ultrasonic assessment of the vasa vasorum to become a widely used clinical tool for screening, diagnosis and monitoring of plaque vulnerability.

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