Unraveling cell-cell communication with NicheNet by inferring active ligands from transcriptomics data
- Author
- Chananchida Sang-aram (UGent) , Robin Browaeys (UGent) , Ruth Seurinck (UGent) and Yvan Saeys (UGent)
- Organization
- Project
-
- Modelling intercellular communication in time and space
- Unravelling cellular heterogeneity and dynamics in normal and malignant hematopoiesis using singlecell bioinformatics
- iPSC-based parenchymal and sinusoidal liver cell mimics for DILI and NAFLD studies (iPSC-LiMic)
- Flanders Artificial Intelligence Research program (FAIR) – second cycle - 2025
- Abstract
- Ligand-receptor interactions constitute a fundamental mechanism of cell-cell communication and signaling. NicheNet is a well-established computational tool that infers ligand-receptor interactions that potentially regulate gene expression changes in receiver cell populations. Whereas the original publication delves into the algorithm and validation, this paper describes a best practices workflow cultivated over four years of experience and user feedback. Starting from the input single-cell expression matrix, we describe a 'sender-agnostic' approach that considers ligands from the entire microenvironment and a 'sender-focused' approach that considers ligands only from cell populations of interest. As output, users will obtain a list of prioritized ligands and their potential target genes, along with multiple visualizations. We include further developments made in NicheNet v2, in which we have updated the data sources and implemented a downstream procedure for prioritizing cell type-specific ligand-receptor pairs. Although a standard NicheNet analysis takes <10 min to run, users often invest additional time in making decisions about the approach and parameters that best suit their biological question. This paper serves to aid in this decision-making process by describing the most appropriate workflow for common experimental designs like case-control and cell-differentiation studies. Finally, in addition to the step-by-step description of the code, we also provide wrapper functions that enable the analysis to be run in one line of code, thus tailoring the workflow to users at all levels of computational proficiency.
Downloads
-
(...).pdf
- full text (Published version)
- |
- UGent only
- |
- |
- 2.07 MB
-
SangAram AAM.pdf
- full text (Accepted manuscript)
- |
- open access
- |
- |
- 1.29 MB
Citation
Please use this url to cite or link to this publication: http://hdl.handle.net/1854/LU-01JVY49NYEWYTVH0WHNPPNTQ3Q
- MLA
- Sang-aram, Chananchida, et al. “Unraveling Cell-Cell Communication with NicheNet by Inferring Active Ligands from Transcriptomics Data.” NATURE PROTOCOLS, vol. 20, 2025, pp. 1439–67, doi:10.1038/s41596-024-01121-9.
- APA
- Sang-aram, C., Browaeys, R., Seurinck, R., & Saeys, Y. (2025). Unraveling cell-cell communication with NicheNet by inferring active ligands from transcriptomics data. NATURE PROTOCOLS, 20, 1439–1467. https://doi.org/10.1038/s41596-024-01121-9
- Chicago author-date
- Sang-aram, Chananchida, Robin Browaeys, Ruth Seurinck, and Yvan Saeys. 2025. “Unraveling Cell-Cell Communication with NicheNet by Inferring Active Ligands from Transcriptomics Data.” NATURE PROTOCOLS 20: 1439–67. https://doi.org/10.1038/s41596-024-01121-9.
- Chicago author-date (all authors)
- Sang-aram, Chananchida, Robin Browaeys, Ruth Seurinck, and Yvan Saeys. 2025. “Unraveling Cell-Cell Communication with NicheNet by Inferring Active Ligands from Transcriptomics Data.” NATURE PROTOCOLS 20: 1439–1467. doi:10.1038/s41596-024-01121-9.
- Vancouver
- 1.Sang-aram C, Browaeys R, Seurinck R, Saeys Y. Unraveling cell-cell communication with NicheNet by inferring active ligands from transcriptomics data. NATURE PROTOCOLS. 2025;20:1439–67.
- IEEE
- [1]C. Sang-aram, R. Browaeys, R. Seurinck, and Y. Saeys, “Unraveling cell-cell communication with NicheNet by inferring active ligands from transcriptomics data,” NATURE PROTOCOLS, vol. 20, pp. 1439–1467, 2025.
@article{01JVY49NYEWYTVH0WHNPPNTQ3Q,
abstract = {{Ligand-receptor interactions constitute a fundamental mechanism of cell-cell communication and signaling. NicheNet is a well-established computational tool that infers ligand-receptor interactions that potentially regulate gene expression changes in receiver cell populations. Whereas the original publication delves into the algorithm and validation, this paper describes a best practices workflow cultivated over four years of experience and user feedback. Starting from the input single-cell expression matrix, we describe a 'sender-agnostic' approach that considers ligands from the entire microenvironment and a 'sender-focused' approach that considers ligands only from cell populations of interest. As output, users will obtain a list of prioritized ligands and their potential target genes, along with multiple visualizations. We include further developments made in NicheNet v2, in which we have updated the data sources and implemented a downstream procedure for prioritizing cell type-specific ligand-receptor pairs. Although a standard NicheNet analysis takes <10 min to run, users often invest additional time in making decisions about the approach and parameters that best suit their biological question. This paper serves to aid in this decision-making process by describing the most appropriate workflow for common experimental designs like case-control and cell-differentiation studies. Finally, in addition to the step-by-step description of the code, we also provide wrapper functions that enable the analysis to be run in one line of code, thus tailoring the workflow to users at all levels of computational proficiency.}},
author = {{Sang-aram, Chananchida and Browaeys, Robin and Seurinck, Ruth and Saeys, Yvan}},
issn = {{1754-2189}},
journal = {{NATURE PROTOCOLS}},
language = {{eng}},
pages = {{1439--1467}},
title = {{Unraveling cell-cell communication with NicheNet by inferring active ligands from transcriptomics data}},
url = {{http://doi.org/10.1038/s41596-024-01121-9}},
volume = {{20}},
year = {{2025}},
}
- Altmetric
- View in Altmetric
- Web of Science
- Times cited: