TY - JOUR
T1 - Spatial atlas of diabetic kidney disease reveals a B cell-rich subgroup
AU - TRIDENT consortium
AU - Dumoulin, Bernhard
AU - Levinsohn, Jonathan
AU - Klötzer, Konstantin A.
AU - Li, Chenyu
AU - Mao, Liran
AU - Ha, Eunji
AU - Mohandes, Samer
AU - Nguyen, Thao
AU - Paruzzo, Luca
AU - Hirohama, Daigoro
AU - Fang, Victoria
AU - Bhoj, Vijay G.
AU - Parhiz, Hamideh
AU - Andrade-Silva, Magaiver
AU - Abedini, Amin
AU - Bergeson, Andi
AU - Traum, Daniel
AU - May, Michael J.
AU - Kaestner, Klaus H.
AU - Ruella, Marco
AU - McAllister, Fiona Elizabeth
AU - Hakimi, A. Ari
AU - Li, Mingyao
AU - Palmer, Matthew
AU - Wherry, E. John
AU - Hunter, Christopher A.
AU - Cancro, Michael Paul
AU - Devalaraja-Narashimha, Kishor
AU - Karihaloo, Anil
AU - Hu, Erding
AU - Shang, Ching
AU - Thorley, Andrew
AU - Pullen, Steven S.
AU - Hofherr, Alexis
AU - Schelling, Jeffrey
AU - Kretzler, Matthias
AU - Canetta, Piettro
AU - Kopyt, Nelson
AU - Lenz, Oliver
AU - Mehta, Ankit
AU - Brosius, Frank
AU - Bansal, Shweta
AU - Luciano, Randy
AU - Scialla, Julia
AU - Lafayette, Richard
AU - Avasare, Rupali
AU - Almaani, Salem
AU - Isakova, Tamara
AU - Argyropoulos, Christos
AU - Campbell, Kirk
N1 - Publisher Copyright:
© The Author(s) 2026.
PY - 2026
Y1 - 2026
N2 - Diabetic kidney disease (DKD), the leading cause of kidney failure, is marked by clinical and molecular heterogeneity, making therapeutic development exceedingly difficult1. Here we used Xenium and CosMx single-cell spatial transcriptomics, integrated with single-nucleus RNA sequencing, to build a cross-platform kidney atlas that makes tissue architecture computable for prognosis, non-invasive detection and patient selection. Using this atlas, we defined reproducible tissue niches and injury-linked microenvironments and uncovered a profibrotic context that expands with disease and tracks with worse kidney function. Within this architecture, we identified a B cell-predominant, tertiary lymphoid structure-like immune microenvironment that defines a distinct DKD subset with accelerated progression to renal end-points. We developed tissue biomarkers and a matched plasma protein panel that capture this biology, stratify patients in a population biobank and improve risk prediction beyond clinical models—supporting their potential for biomarker-guided selection in future B cell-targeted DKD trials.
AB - Diabetic kidney disease (DKD), the leading cause of kidney failure, is marked by clinical and molecular heterogeneity, making therapeutic development exceedingly difficult1. Here we used Xenium and CosMx single-cell spatial transcriptomics, integrated with single-nucleus RNA sequencing, to build a cross-platform kidney atlas that makes tissue architecture computable for prognosis, non-invasive detection and patient selection. Using this atlas, we defined reproducible tissue niches and injury-linked microenvironments and uncovered a profibrotic context that expands with disease and tracks with worse kidney function. Within this architecture, we identified a B cell-predominant, tertiary lymphoid structure-like immune microenvironment that defines a distinct DKD subset with accelerated progression to renal end-points. We developed tissue biomarkers and a matched plasma protein panel that capture this biology, stratify patients in a population biobank and improve risk prediction beyond clinical models—supporting their potential for biomarker-guided selection in future B cell-targeted DKD trials.
UR - https://www.scopus.com/pages/publications/105038724485
U2 - 10.1038/s41586-026-10363-4
DO - 10.1038/s41586-026-10363-4
M3 - Article
C2 - 42056516
AN - SCOPUS:105038724485
SN - 0028-0836
JO - Nature
JF - Nature
ER -