Journal profile

Nanoscale horizons

Publisher: Royal Society of Chemistry
ISSN2055-6764 | 2055-6756 FormatOnline StatusCurrently indexed

Journal Citation Impact

Estimated influence, citation density, publishing volume, and citation integrity from the analytics table.

Impact Factor
4.04
Citation rate 5.34 2,270 total citations
h5-index 55 h5 depth signal
Cited share 68.4% 295 of 431
Total citations 2,270 Citation footprint
Metric signal 5.80 External metric anchor
Self-citation 1.9% 43 self-citations

Citations Trend

Monthly Publications Cadence

Citing Geographic Demographics

China 647
United States 224
South Korea 118
Germany 99
United Kingdom 86

Citing Fields of Research

Nanoparticles 417
2D Materials 285
Electrochemistry 181
Drug Delivery Systems 105
Microelectromechanical Systems 99

Publishing Activity & Reach

Volume, recency, access pattern, and citing-community signals from the journal analytics record.

All-time article footprint 1,864 Articles tracked across the journal lifetime
Indexed publication set 431 295 cited publications
Last 12 months 255 21.3 publications/month
Open access share 35.3% 90 OA publications in the last year
Leading citing country China 647 citing publications
Leading citing field Nanoparticles 417 citing publications
Latest tracked publication 12 October 2026 10 recent records available

Coverage & Indexing History

MEDLINE
v4n1, Jan. 2019-
PubMed
v4n1, Jan. 2019- ; Selected citations only before this date

Research Focus & Classification

Indexed Subjects

Electrochemistry Nanoparticles 2D Materials Nucleic Acids Chemistry Drug Delivery Systems Resistive Switching

Issuing & Sponsoring Bodies

issuing body
Royal Society of Chemistry (Great Britain)
issuing body
Guo jia na mi ke xue zhong xin (China)

Broad Categories

2D Materials Nanoparticles Electrochemistry Resistive Switching Semiconductor Physics

MeSH Descriptors

Nanotechnology

Latest Publications

Recent article records with DOI-first linking and condensed abstracts.

08
Soorya Koymeth, Marian Paluch, Riccardo Casalini et al.
High-pressure studies reveal that rigid POSS nanoparticles shift ion transport from free-volume to thermally activated control, enabling density-scaling predictions of conductivity across 12 decades for extreme-environment electrolytes.

Bibliographical & Catalog Notes

Print issues ceased with v. 4 (2019).

Also issued in print.

"A collaborative venture between the Royal Society of Chemistry and ... the National Center for Nanoscience and Technology (NCNST) in Beijing, China."--Editorial.

Sister journal to: Nanoscale.