Multiscale Spatial Mapping of Microbial Communities for Biotherapeutic Development

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The paper studied how to characterize live biotherapeutic products (LBPs) as complete, spatially organized microbial consortia, noting that conventional sequencing approaches lack sensitivity, specificity, and spatial context. It introduces a high-phylogenetic-resolution spatial mapping platform (HiPR-Map) using spectral imaging to enumerate and spatially localize microbial cells at species level within complex communities, and applies it to an LBP intended to complement immune checkpoint therapy. Using HiPR-Map, the authors profiled over 1.8 million microbial cells engrafted in the murine gut and found distinctive spatial organization of the microbial community. The paper does not explicitly state limitations in the provided text, but it is closely tied to LBP discovery and development and reports results in a mouse gut context; This paper does not explicitly discuss endometriosis or adenomyosis; it was included in the corpus via a keyword match in the upstream search index.

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ABSTRACT Live biotherapeutic products (LBPs) are emerging as powerful tools to modulate the microbiome using well-defined microbial communities. Yet, designing, manufacturing, and delivering LBPs remains challenging, in part due to a lack of technologies capable of analyzing LBPs as complete, spatially organized consortia. Conventional sequencing-based methods lack sensitivity and specificity and do not provide critical spatial information. To address this, we present high-phylogenetic-resolution spatial mapping platform (HiPR-Map), a state-of-the-art spectral imaging technology that enables precise enumeration and spatial localization of microbial cells at species-level within complex communities. Through these advantages, HiPR-Map provides unique insights for LBP discovery and development. Applying HiPR-Map to an LBP designed to complement immune checkpoint therapy, we profiled over 1.8 million microbial cells engrafted in the murine gut. Our analysis revealed distinctive microbial spatial organization, underscoring the power of imaging-based microbiome profiling to optimize LBP design and characterization. This work highlights the transformative potential of spatial microbiome analysis for next-generation LBP development. Competing Interest Statement Kanvas Biosciences, Inc. has filed patent applications for several of the technologies described in this work. AB and JP are members of the board of directors for Kanvas Biosciences.

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last seen: 2026-05-20T01:45:00.602351+00:00