Collections / Integrated single-cell and spatial analysis identifies context-dependent myeloid-T cell interactions in head and neck cancer immune checkpoint blockade response

Integrated single-cell and spatial analysis identifies context-dependent myeloid-T cell interactions in head and neck cancer immune checkpoint blockade response

Background Approximately 15-20% of head and neck cancer squamous cell carcinoma (HNSCC) patients respond favorably to immune checkpoint blockade (ICB). Previous single-cell RNA-Seq (scRNA-Seq) studies identified immune features, including macrophage subset ratios and T-cell subtypes, in HNSCC ICB response. However, the spatial features of HNSCC-infiltrated immune cells in response to ICB treatment need to be better characterized. Methods Here, we perform a systematic evaluation of cell interactions between immune cell types within the tumor microenvironment using spatial omics data using complementary techniques from both 10X Visium spot-based spatial transcriptomics and Nanostring CosMx single-cell spatial omics with RNA gene panel including 435 ligands and receptors. In this study, we used integrated bioinformatics analyses to identify cellular neighborhoods of co-localizing cell types in single-cell spatial transcriptomics and proteomics data. In addition, we used both publicly available scRNA-Seq and in-house spatial RNA-Seq data to identify spatially constrained Ligand-Receptor interactions in Responder patients. Results With 522,399 single cells profiled with both RNA and protein from 26 patients, in addition to spot-resolved spatial RNA-Seq from 8 patients treated with ICB together with bioinformatics analysis of publicly available single-cell and bulk RNA-Seq, we have identified a spatial and cell-type specific context-dependency of myeloid and T cell interaction difference between Responders and Non-Responders. We defined further cellular neighborhood and the sources of chemokine CXCL9/10-CXCR3 interactions in Responders, emerging targets in ICB, as well as CXCL16-CXCR6, CCL4/5-CCR5, and other underappreciated and potential markers and targets for ICB response in HNSCC. In addition, we have contributed a rich data resource of cell-cell Ligand Receptor interactions for the immunotherapy and HNSCC research community. Discussion Our work provides a comprehensive single-cell and spatial atlas of immune cell interactions that correlate with response to ICB in HNSCC. We showcase how integrating multiple technologies and bioinformatics approaches can provide new insights into potential immune-based biomarkers of ICB response. Our results suggested refining future studies using preclinical animal models in a more context-specific manner to elucidate potential underlying mechanisms that lead to improved ICB responses. What is already known on this topic Most cancer patients still do not experience clinical benefits from immune checkpoint blockade (ICB), necessitating the development of response biomarkers and new immunotherapeutic targets. What this study adds Here, we use integrated high-dimensional omics and bioinformatics approaches to identify immune cell-cell interaction markers associated with ICB response in patients with Head and neck squamous cell carcinoma. How this study might affect research, practice or policy We identified spatial and cell-type specificity of Ligand-Receptor interactions between myeloid and T cells in ICB Responder patients that may help inform further mechanistic studies and biomarker development

Datasets8
Size~385 MB
AssayVisium
Samplehuman · multiple
KindComparison
Flag a data issue
PMID:41837744 ↗
Python · sddb client
from sddb import Catalog

cohort = Catalog().collection("geo-gse301720")
cohort.members        # the 8 datasets as a table

print(cohort.licenses())              # check the terms before you download

sdatas = cohort.to_dict()             # {uid: SpatialData}, cached locally
# or keep the .zarr files in a folder of your choice:
# sdatas = cohort.to_dict(dest="data/")
Python · lamindb

Needs pip install lamindb and network access to the Lamin database, which is limited during the alpha. If it fails, use the Client tab.

import lamindb as ln

db = ln.DB("scverse/spatialdata-db")
coll = db.Collection.get(key="geo-gse301720")
coll.ordered_artifacts.to_dataframe()   # the 8 members, ordered

# download every member .zarr to the local cache:
paths = [a.cache() for a in coll.ordered_artifacts.all()]
Shell
# sddb client: download every member .zarr into data/
sddb-cli download --collection geo-gse301720 --dest data/

Licenses: 8 NCBI GEO policy

Open in Vitessce
Visium
Human oropharynx
GSM9087753
human oropharynx head and neck squamous cell carcinoma 27.3 MB 1,526 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissueoropharynx
Conditionhead and neck squamous cell carcinoma
Size27.3 MB
Spots1,526
Magnificationother · 3.753 µm/px
bronze H&E NCBI GEO policy Open in Vitessce
Open in Vitessce
Visium
Human oropharynx
GSM9087747
human oropharynx head and neck squamous cell carcinoma 68.9 MB 2,261 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissueoropharynx
Conditionhead and neck squamous cell carcinoma
Size68.9 MB
Spots2,261
Magnificationother · 3.512 µm/px
bronze H&E NCBI GEO policy Open in Vitessce
Open in Vitessce
Visium
Human oral cavity
GSM9087754
human oral cavity head and neck squamous cell carcinoma 36.5 MB 2,608 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissueoral cavity
Conditionhead and neck squamous cell carcinoma
Size36.5 MB
Spots2,608
Magnificationother · 3.827 µm/px
bronze H&E NCBI GEO policy Open in Vitessce
Open in Vitessce
Visium
Human oropharynx
GSM9087748
human oropharynx head and neck squamous cell carcinoma 65.1 MB 2,948 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissueoropharynx
Conditionhead and neck squamous cell carcinoma
Size65.1 MB
Spots2,948
Magnificationother · 3.491 µm/px
bronze H&E NCBI GEO policy Open in Vitessce
Open in Vitessce
Visium
Human oropharynx
GSM9087750
human oropharynx head and neck squamous cell carcinoma 45.9 MB 2,511 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissueoropharynx
Conditionhead and neck squamous cell carcinoma
Size45.9 MB
Spots2,511
Magnificationother · 3.828 µm/px
bronze H&E NCBI GEO policy Open in Vitessce
Open in Vitessce
Visium
Human oropharynx
GSM9087749
human oropharynx head and neck squamous cell carcinoma 46.1 MB 2,606 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissueoropharynx
Conditionhead and neck squamous cell carcinoma
Size46.1 MB
Spots2,606
Magnificationother · 3.753 µm/px
bronze H&E NCBI GEO policy Open in Vitessce
Open in Vitessce
Visium
Human oropharynx
GSM9087752
human oropharynx head and neck squamous cell carcinoma 38.0 MB 1,642 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissueoropharynx
Conditionhead and neck squamous cell carcinoma
Size38.0 MB
Spots1,642
bronze H&E NCBI GEO policy Open in Vitessce
Open in Vitessce
Visium
Human nasal cavity
GSM9087751
human nasal cavity head and neck squamous cell carcinoma 56.7 MB 2,945 spots bronze H&E NCBI GEO policy
TechnologyVisium
Organismhuman
Tissuenasal cavity
Conditionhead and neck squamous cell carcinoma
Size56.7 MB
Spots2,945
bronze H&E NCBI GEO policy Open in Vitessce

Cite this collection

doi.org/10.1158/1078-0432.ccr-25-2300 ↗
BibTeX
@article{Golfinos_Owens_2026,
  title = {Integrated Single-Cell and Spatial Analysis Reveals Context-Dependent Myeloid–T Cell Interactions in Response to Immune Checkpoint Blockade in Head and Neck Cancer},
  volume = {32},
  ISSN = {1557-3265},
  url = {http://dx.doi.org/10.1158/1078-0432.ccr-25-2300},
  DOI = {10.1158/1078-0432.ccr-25-2300},
  number = {12},
  journal = {Clinical Cancer Research},
  publisher = {American Association for Cancer Research (AACR)},
  author = {Golfinos-Owens, Athena E. and Lozar, Taja and Khatri, Parth and Johns, Evan D. and Hu, Rong and Harari, Paul M. and Lambert, Paul F. and Fitzpatrick, Megan B. and Dinh, Huy Q.},
  year = {2026},
  month = Mar,
  pages = {2494–2507}
}