Gregory L. Whiting

2.8k total citations
56 papers, 2.2k citations indexed

About

Gregory L. Whiting is a scholar working on Electrical and Electronic Engineering, Biomedical Engineering and Mechanical Engineering. According to data from OpenAlex, Gregory L. Whiting has authored 56 papers receiving a total of 2.2k indexed citations (citations by other indexed papers that have themselves been cited), including 28 papers in Electrical and Electronic Engineering, 26 papers in Biomedical Engineering and 15 papers in Mechanical Engineering. Recurrent topics in Gregory L. Whiting's work include Advanced Sensor and Energy Harvesting Materials (18 papers), Conducting polymers and applications (13 papers) and Organic Electronics and Photovoltaics (10 papers). Gregory L. Whiting is often cited by papers focused on Advanced Sensor and Energy Harvesting Materials (18 papers), Conducting polymers and applications (13 papers) and Organic Electronics and Photovoltaics (10 papers). Gregory L. Whiting collaborates with scholars based in United States, United Kingdom and Denmark. Gregory L. Whiting's co-authors include Richard H. Friend, Ana Claudia Arias, Abhinav M. Gaikwad, Daniel A. Steingart, A. Paul Alivisatos, Wendy U. Huynh, Janke J. Dittmer, J.J.M. Halls, Neil C. Greenham and David E. Schwartz and has published in prestigious journals such as Advanced Materials, SHILAP Revista de lepidopterología and Nano Letters.

In The Last Decade

Gregory L. Whiting

54 papers receiving 2.2k citations

Peers — A (Enhanced Table)

Peers by citation overlap · career bar shows stage (early→late) cites · hero ref

Name	h						Papers	Cites
Gregory L. Whiting United States	22	1.6k	827	687	566	218	56	2.2k
Youngjin Jeong South Korea	25	880 0.5×	520 0.6×	866 1.3×	753 1.3×	416 1.9×	94	2.1k
Woo Jin Hyun United States	23	1.5k 0.9×	746 0.9×	1.6k 2.3×	624 1.1×	446 2.0×	52	2.6k
Dipti Gupta India	31	2.0k 1.2×	1.2k 1.4×	1.1k 1.5×	788 1.4×	224 1.0×	103	2.9k
Jianing An Singapore	22	1.0k 0.6×	509 0.6×	1.3k 1.9×	719 1.3×	646 3.0×	44	2.3k
Sunghwan Lee United States	25	1.6k 1.0×	717 0.9×	662 1.0×	974 1.7×	228 1.0×	87	2.1k
Shuo Li China	25	1.3k 0.8×	416 0.5×	1.1k 1.6×	775 1.4×	631 2.9×	60	2.5k
Koo Hyun Nam South Korea	10	1.3k 0.8×	551 0.7×	1.4k 2.1×	1.0k 1.8×	346 1.6×	14	2.6k
Dong Hae Ho South Korea	22	865 0.5×	659 0.8×	1.4k 2.0×	570 1.0×	163 0.7×	39	2.0k
Suzhu Yu China	27	652 0.4×	790 1.0×	929 1.4×	888 1.6×	356 1.6×	96	2.4k

Countries citing papers authored by Gregory L. Whiting

Since Specialization

Citations

This map shows the geographic impact of Gregory L. Whiting's research. It shows the number of citations coming from papers published by authors working in each country. You can also color the map by specialization and compare the number of citations received by Gregory L. Whiting with the expected number of citations based on a country's size and research output (numbers larger than one mean the country cites Gregory L. Whiting more than expected).

Fields of papers citing papers by Gregory L. Whiting

Since Specialization

Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by Gregory L. Whiting. Nodes represent research fields, and links connect fields that are likely to share authors. Colored nodes show fields that tend to cite the papers produced by Gregory L. Whiting. The network helps show where Gregory L. Whiting may publish in the future.

Co-authorship network of co-authors of Gregory L. Whiting

This figure shows the co-authorship network connecting the top 25 collaborators of Gregory L. Whiting. A scholar is included among the top collaborators of Gregory L. Whiting based on the total number of citations received by their joint publications. Widths of edges represent the number of papers authors have co-authored together. Node borders signify the number of papers an author published with Gregory L. Whiting. Gregory L. Whiting is excluded from the visualization to improve readability, since they are connected to all nodes in the network.

All Works

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20 of 20 papers shown

Goodrich, P.J., Sung‐Cheol Koh, Carol Baumbauer, et al.. (2025). Fully‐Printed Ion Sensor Arrays for Measuring Agricultural Nitrogen and Potassium Concentrations Using Nernstian and AI Models. Advanced Sensor Research. 4(4).

Bihar, Eloïse, P.J. Goodrich, Ana Claudia Arias, et al.. (2025). Ultrathin Screen‐Printed Plant Wearable Capacitive Sensors for Environmental Monitoring. Advanced Sensor Research. 4(3). 3 indexed citations

Whiting, Gregory L., et al.. (2024). Additive manufacturing of scalable jet impingement and radial taper enhancements for improved flow boiling performance. Applied Thermal Engineering. 249. 123355–123355. 4 indexed citations

Thompson, Jamie F., Jorge Osio‐Norgaard, Carson J. Bruns, et al.. (2024). Direct ink writing of viscous inks in variable gravity regimes using parabolic flights. Acta Astronautica. 219. 569–579. 5 indexed citations

Baumbauer, Carol, et al.. (2024). Polycaprolactone‐Based Zinc Ink for High Conductivity Transient Printed Electronics and Antennas. Advanced Electronic Materials. 10(4). 9 indexed citations

Aage, Niels, et al.. (2023). Topology optimization for structural mass reduction of direct drive electric machines. Sustainable Energy Technologies and Assessments. 57. 103254–103254. 7 indexed citations

Whiting, Gregory L., et al.. (2023). An OpenFOAM framework to model thermal bubble-driven micro-pumps. Physics of Fluids. 35(6). 4 indexed citations

Bihar, Eloïse, Tai T. Tran, Adrian Gestos, et al.. (2023). Self-healable stretchable printed electronic cryogels for in-vivo plant monitoring. npj Flexible Electronics. 7(1). 21 indexed citations

Qiu, Ye, Zhanan Zou, Gregory L. Whiting, et al.. (2023). Deep-learning-assisted printed liquid metal sensory system for wearable applications and boxing training. npj Flexible Electronics. 7(1). 23 indexed citations

10.

Smith, Lawrence C., et al.. (2022). Rapid Fabrication of Low-Cost Thermal Bubble-Driven Micro-Pumps. Micromachines. 13(10). 1634–1634. 13 indexed citations

11.

Ding, Yifu, et al.. (2022). Particulate ECM biomaterial ink is 3D printed and naturally crosslinked to form structurally-layered and lubricated cartilage tissue mimics. Biofabrication. 14(2). 25021–25021. 22 indexed citations

12.

Williams, Evan R., Shangshi Liu, Eloïse Bihar, et al.. (2022). A Transient Printed Soil Decomposition Sensor Based on a Biopolymer Composite Conductor. Advanced Science. 10(5). e2205785–e2205785. 12 indexed citations

13.

Whiting, Gregory L., et al.. (2022). Simulating Electrohydraulic Soft Actuator Assemblies Via Reduced Order Modeling. 21–28. 2 indexed citations

14.

Whiting, Gregory L., et al.. (2021). Modeling of contactless bubble–bubble interactions in microchannels with integrated inertial pumps. Physics of Fluids. 33(4). 7 indexed citations

15.

Dahal, Subash, et al.. (2020). Degradability of Biodegradable Soil Moisture Sensor Components and Their Effect on Maize (Zea mays L.) Growth. Sensors. 20(21). 6154–6154. 16 indexed citations

16.

Ready, Steven, et al.. (2013). 3D Printed Electronics. Technical programs and proceedings. 29(1). 9–12. 6 indexed citations

17.

Ng, Tse Nga, David E. Schwartz, Lawrence A. Lavery, et al.. (2012). Scalable printed electronics: an organic decoder addressing ferroelectric non-volatile memory. Scientific Reports. 2(1). 585–585. 105 indexed citations

18.

Gaikwad, Abhinav M., Gregory L. Whiting, Daniel A. Steingart, & Ana Claudia Arias. (2011). Highly Flexible, Printed Alkaline Batteries Based on Mesh‐Embedded Electrodes. Advanced Materials. 23(29). 3251–3255. 212 indexed citations

19.

Tenbroek, B.M., Gregory L. Whiting, W. Redman-White, et al.. (1999). Measurement of buried oxide thermal conductivity for accurate electrothermal simulation of SOI device. IEEE Transactions on Electron Devices. 46(1). 251–253. 22 indexed citations

20.

Tenbroek, B.M., et al.. (1997). Experimental investigations of thermal conductivity of buried oxides in SIMOX and BESOI wafers. ePrints Soton (University of Southampton). 22(4). 254–63. 1 indexed citations

Rankless uses publication and citation data sourced from OpenAlex, an open and comprehensive bibliographic database. While OpenAlex provides broad and valuable coverage of the global research landscape, it—like all bibliographic datasets—has inherent limitations. These include incomplete records, variations in author disambiguation, differences in journal indexing, and delays in data updates. As a result, some metrics and network relationships displayed in Rankless may not fully capture the entirety of a scholar's output or impact.

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