Microfluidic And Bio-Sensing Technologies
25 researchers across 6 institutions
Researchers in microfluidic and bio-sensing technologies develop miniaturized systems for analyzing biological and chemical samples. This work involves designing and fabricating microscale devices that precisely control fluid flow, enabling high-throughput screening, precise sample manipulation, and sensitive detection of target molecules. Areas of focus include the development of novel microfluidic architectures, the integration of sensing elements such as electrochemical or optical transducers, and the application of these technologies to diagnostics, drug discovery, environmental monitoring, and fundamental biological research. Investigations often explore new materials for device fabrication and explore advanced analytical techniques for sample preparation and detection.
This research holds particular relevance for Arkansas. Advancements in bio-sensing can support the state's agricultural sector through improved crop and livestock disease detection and monitoring. In public health, microfluidic devices offer potential for more accessible and rapid point-of-care diagnostics, addressing healthcare needs across diverse communities. Furthermore, the ability to monitor environmental samples with high sensitivity can aid in the stewardship of Arkansas's natural resources, from water quality to air pollution.
This field thrives on interdisciplinary collaboration, drawing upon expertise in materials science, nanotechnology, electrochemistry, analytical chemistry, and biomedical engineering. Researchers across multiple Arkansas institutions contribute to this dynamic area, fostering innovation in areas such as advanced biosensing, neuroscience, and 3D printing for biomedical applications.
Top Researchers
| Name | Institution | h-index | Citations | Career Stage | Badges |
|---|---|---|---|---|---|
| Yanbin Li | University of Arkansas | 80 | 22,655 | High Impact | |
| J. Talbot | University of Central Arkansas | 39 | 5,232 | High Impact | |
| Huidan Zhang | Harding University Main Campus | 31 | 3,327 | High Impact | |
| Steve Tung | University of Arkansas | 28 | 3,055 | Grant PI High Impact | |
| Ingrid Fritsch | University of Arkansas | 26 | 1,929 | ||
| Julie A. Stenken | University of Arkansas | 23 | 1,804 | Grant PI High Impact | |
| László Kékedy‐Nagy | University of Arkansas | 18 | 830 | ||
| Y. Q. Tang | University of Arkansas | 10 | 197 | ||
| Sathyakumar S. Kuntaegowdanahalli | University of Arkansas | 8 | 2,310 | ||
| Ayesha Arefin | NCTR | 8 | 214 | ||
| Naiwen Cui | Harding University Main Campus | 8 | 838 | ||
| Raad A. Alawajji | UA Little Rock | 6 | 139 | ||
| Foysal Z. Khan | University of Arkansas | 4 | 73 | ||
| David N. Parette | University of Arkansas | 3 | 14 | ||
| Alexis P. Applequist | University of Arkansas | 3 | 26 | ||
| Julia K. Hoskins | University of Arkansas | 3 | 31 | ||
| Swastika Tandon | University of Arkansas | 3 | 28 | ||
| Patrick M. Pysz | University of Arkansas | 2 | 15 | ||
| Jazlynn C. Sikes | University of Arkansas | 2 | 30 | ||
| Aaron Nicholson | University of Arkansas | 2 | 28 |
Related Research Areas
Strategic Outlook
Global signals from OpenAlex for this research area: where the field is growing, how concentrated leadership is, and where Arkansas sits relative to the world's top-100 institutions. Descriptive only — surfaced as input to the conversation about where to place bets, not a recommendation. Signal confidence: LOW
Top US institutions in this area
- 1 Massachusetts Institute of Technology 1,290
- 2 University of Michigan 1,061
- 3 University of California, Berkeley 1,006
- 4 Stanford University 923
- 5 Harvard University 913
Cross-Institution Connections
Researchers at different institutions with overlapping expertise in Microfluidic And Bio-Sensing Technologies.