Nicholas J. Borys

3.9k total citations
58 papers, 2.6k citations indexed

About

Nicholas J. Borys is a scholar working on Materials Chemistry, Electrical and Electronic Engineering and Biomedical Engineering. According to data from OpenAlex, Nicholas J. Borys has authored 58 papers receiving a total of 2.6k indexed citations (citations by other indexed papers that have themselves been cited), including 39 papers in Materials Chemistry, 28 papers in Electrical and Electronic Engineering and 16 papers in Biomedical Engineering. Recurrent topics in Nicholas J. Borys's work include 2D Materials and Applications (23 papers), Quantum Dots Synthesis And Properties (14 papers) and Perovskite Materials and Applications (13 papers). Nicholas J. Borys is often cited by papers focused on 2D Materials and Applications (23 papers), Quantum Dots Synthesis And Properties (14 papers) and Perovskite Materials and Applications (13 papers). Nicholas J. Borys collaborates with scholars based in United States, Germany and Italy. Nicholas J. Borys's co-authors include John M. Lupton, P. James Schuck, Manfred J. Walter, Edward S. Barnard, Shaul Aloni, Emory M. Chan, Jing Huang, Dmitri V. Talapin, Alexander Weber‐Bargioni and Ayelet Teitelboim and has published in prestigious journals such as Science, Journal of the American Chemical Society and Physical Review Letters.

In The Last Decade

Nicholas J. Borys

58 papers receiving 2.5k citations

Peers

Nicholas J. Borys

EEE

AMPO

RESE

Mikhail Zamkov United States

Xuedan Ma United States

Pierre L. Lévesque Canada

Haiqian Wang China

Joanna L. Casson United States

Roland Gillen Germany

Miri Kazes Israel

James F. Cahoon United States

Marta Quintanilla Spain

Su Xu United States

Mikhail Zamkov United States

Nicholas J. Borys

3.0k ×1.6

2.0k ×1.4

EEE

408 ×0.8

472 ×1.2

AMPO

828 ×2.4

RESE

Citations per year, relative to Nicholas J. Borys Nicholas J. Borys (= 1×) peers Mikhail Zamkov

Countries citing papers authored by Nicholas J. Borys

Since Specialization

Citations

This map shows the geographic impact of Nicholas J. Borys'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 Nicholas J. Borys with the expected number of citations based on a country's size and research output (numbers larger than one mean the country cites Nicholas J. Borys more than expected).

Fields of papers citing papers by Nicholas J. Borys

Since Specialization

Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by Nicholas J. Borys. 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 Nicholas J. Borys. The network helps show where Nicholas J. Borys may publish in the future.

Co-authorship network of co-authors of Nicholas J. Borys

This figure shows the co-authorship network connecting the top 25 collaborators of Nicholas J. Borys. A scholar is included among the top collaborators of Nicholas J. Borys 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 Nicholas J. Borys. Nicholas J. Borys 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

Darlington, Thomas P., Chiara Trovatello, Song Liu, et al.. (2024). Programmable nanowrinkle-induced room-temperature exciton localization in monolayer WSe2. Nature Communications. 15(1). 1543–1543. 22 indexed citations

Li, Xufan, Qing‐Jie Li, Shuang Wu, et al.. (2024). Width-dependent continuous growth of atomically thin quantum nanoribbons from nanoalloy seeds in chalcogen vapor. Nature Communications. 15(1). 10080–10080. 4 indexed citations

Darlington, Thomas P., et al.. (2024). Characterization of quantum dot-like emitters in programmable arrays of nanowrinkles of 1L-WSe2. Journal of Applied Physics. 136(4). 1 indexed citations

Jariwala, Deep, et al.. (2024). Predicting quantum emitter fluctuations with time-series forecasting models. Scientific Reports. 14(1). 6920–6920. 1 indexed citations

Jo, Kiyoung, Emanuele Marino, Jason Lynch, et al.. (2023). Direct nano-imaging of light-matter interactions in nanoscale excitonic emitters. Nature Communications. 14(1). 2649–2649. 12 indexed citations

Luong, Dinh Hoa, Krishna P. Dhakal, Duhee Yoon, et al.. (2023). Incommensurate Antiferromagnetic Order in Weakly Frustrated Two-Dimensional van der Waals Insulator CrPSe₃. Inorganic Chemistry. 62(32). 12674–12682. 5 indexed citations

Borys, Nicholas J., et al.. (2023). Automatic detection of multilayer hexagonal boron nitride in optical images using deep learning-based computer vision. Scientific Reports. 13(1). 1595–1595. 17 indexed citations

Marmolejo‐Tejada, Juan M., et al.. (2022). Theoretical quantum model of two-dimensional propagating plexcitons. The Journal of Chemical Physics. 157(12). 124103–124103. 2 indexed citations

Trovatello, Chiara, Florian Katsch, Nicholas J. Borys, et al.. (2020). The ultrafast onset of exciton formation in 2D semiconductors. Nature Communications. 11(1). 5277–5277. 88 indexed citations

10.

Maserati, Lorenzo, Sivan Refaely‐Abramson, Christoph Kastl, et al.. (2020). Anisotropic 2D excitons unveiled in organic–inorganic quantum wells. Materials Horizons. 8(1). 197–208. 40 indexed citations

11.

Schuler, Bruno, Junho Lee, Christoph Kastl, et al.. (2019). How Substitutional Point Defects in Two-Dimensional WS₂ Induce Charge Localization, Spin–Orbit Splitting, and Strain. ACS Nano. 13(9). 10520–10534. 107 indexed citations

12.

Miscuglio, Mario, Nicholas J. Borys, Davide Spirito, et al.. (2019). Planar Aperiodic Arrays as Metasurfaces for Optical Near-Field Patterning. ACS Nano. 13(5). 5646–5654. 10 indexed citations

13.

Kastl, Christoph, Roland J. Koch, Christopher T. Chen, et al.. (2019). Effects of Defects on Band Structure and Excitons in WS₂ Revealed by Nanoscale Photoemission Spectroscopy. ACS Nano. 13(2). 1284–1291. 64 indexed citations

14.

Tian, Bining, Ángel Fernández-Bravo, Nicole A. Torquato, et al.. (2018). Low irradiance multiphoton imaging with alloyed lanthanide nanocrystals. Nature Communications. 9(1). 3082–3082. 131 indexed citations

15.

Xiao, Liangang, Bo He, Qin Hu, et al.. (2018). Multiple Roles of a Non-fullerene Acceptor Contribute Synergistically for High-Efficiency Ternary Organic Photovoltaics. Joule. 2(10). 2154–2166. 86 indexed citations

16.

Yao, Kaiyuan, Aiming Yan, Salman Kahn, et al.. (2017). Optically Discriminating Carrier-Induced Quasiparticle Band Gap and Exciton Energy Renormalization in MonolayerMoS2. Physical Review Letters. 119(8). 87401–87401. 80 indexed citations

17.

Calafiore, Giuseppe C., Thomas P. Darlington, Nicholas J. Borys, et al.. (2017). Campanile Near-Field Probes Fabricated by Nanoimprint Lithography on the Facet of an Optical Fiber. Scientific Reports. 7(1). 1651–1651. 23 indexed citations

18.

Chan, Emory M., Christian Monachon, Nicholas J. Borys, et al.. (2016). Far-field optical nanothermometry using individual sub-50 nm upconverting nanoparticles. Nanoscale. 8(22). 11611–11616. 30 indexed citations

19.

Liu, Su, Nicholas J. Borys, Sameer Sapra, Alexander Eychmüller, & John M. Lupton. (2015). Localization and Dynamics of Long‐Lived Excitations in Colloidal Semiconductor Nanocrystals with Dual Quantum Confinement. ChemPhysChem. 16(8). 1663–1669. 11 indexed citations

20.

McCamey, Dane R., Seoyoung Paik, Manfred J. Walter, et al.. (2008). Spin Rabi flopping in the photocurrent of a polymer light-emitting diode. Nature Materials. 7(9). 723–728. 128 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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