Neural signaling contributes to heart formation and growth in the invertebrate chordate, Ciona robusta.

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Autores principales: Gruner, Hannah N, Pickett, C J, Bao, Jasmine Yimeng, Garcia, Richard, Hozumi, Akiko, Scully, Tal D, Popsuj, Sydney, Ning, Shaoyang, Gao, Mavis, Bautista, Gia, Maze, Keren, Lim, HaEun Karissa, Osugi, Tomohiro, Collins-Doijode, Mae, Cairns, Ofubofu, Levis, Gabriel, Chen, Shu Yi, Gong, TaiXi, Satake, Honoo, Moshe Klein, Allon, Sasakura, Yasunori, Davidson, Bradley
Formato: Artículo científico
Lenguaje:en
Publicado: PLoS biology 2026
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author Gruner, Hannah N
Pickett, C J
Bao, Jasmine Yimeng
Garcia, Richard
Hozumi, Akiko
Scully, Tal D
Popsuj, Sydney
Ning, Shaoyang
Gao, Mavis
Bautista, Gia
Maze, Keren
Lim, HaEun Karissa
Osugi, Tomohiro
Collins-Doijode, Mae
Cairns, Ofubofu
Levis, Gabriel
Chen, Shu Yi
Gong, TaiXi
Satake, Honoo
Moshe Klein, Allon
Sasakura, Yasunori
Davidson, Bradley
author_facet Gruner, Hannah N
Pickett, C J
Bao, Jasmine Yimeng
Garcia, Richard
Hozumi, Akiko
Scully, Tal D
Popsuj, Sydney
Ning, Shaoyang
Gao, Mavis
Bautista, Gia
Maze, Keren
Lim, HaEun Karissa
Osugi, Tomohiro
Collins-Doijode, Mae
Cairns, Ofubofu
Levis, Gabriel
Chen, Shu Yi
Gong, TaiXi
Satake, Honoo
Moshe Klein, Allon
Sasakura, Yasunori
Davidson, Bradley
Gruner, Hannah N
Pickett, C J
Bao, Jasmine Yimeng
Garcia, Richard
Hozumi, Akiko
Scully, Tal D
Popsuj, Sydney
Ning, Shaoyang
Gao, Mavis
Bautista, Gia
Maze, Keren
Lim, HaEun Karissa
Osugi, Tomohiro
Collins-Doijode, Mae
Cairns, Ofubofu
Levis, Gabriel
Chen, Shu Yi
Gong, TaiXi
Satake, Honoo
Moshe Klein, Allon
Sasakura, Yasunori
Davidson, Bradley
collection PubMed - marine biology
contents Neural signaling contributes to heart formation and growth in the invertebrate chordate, Ciona robusta. Gruner, Hannah N Pickett, C J Bao, Jasmine Yimeng Garcia, Richard Hozumi, Akiko Scully, Tal D Popsuj, Sydney Ning, Shaoyang Gao, Mavis Bautista, Gia Maze, Keren Lim, HaEun Karissa Osugi, Tomohiro Collins-Doijode, Mae Cairns, Ofubofu Levis, Gabriel Chen, Shu Yi Gong, TaiXi Satake, Honoo Moshe Klein, Allon Sasakura, Yasunori Davidson, Bradley Animals Heart Myocytes, Cardiac Wnt Signaling Pathway Cell Proliferation Tachykinins Ciona Cell Differentiation Stem Cells Signal Transduction Neurons Ciona intestinalis Neurons contribute to the complex interplay of signals that mediate heart development and homeostasis. Although a limited set of studies suggest that neuronal peptides impact vertebrate heart growth, the specific contributions of these peptides to cardiomyocyte progenitor differentiation or proliferation have not been elucidated. Here, we show that the neuropeptide tachykinin along with canonical Wnt signaling regulate cardiomyocyte progenitor proliferation in the chordate model Ciona robusta. In C. robusta, the heart continues to grow throughout adulthood and classic histological studies indicate that a line of undifferentiated cells may serve as a reserve progenitor lineage. We found that this line of cardiomyocyte progenitors consists of distinct distal and midline populations. Our analysis indicates that distal progenitors divide asymmetrically to produce distal and midline daughters while midline progenitors divide asymmetrically to produce myocardial precursors. Through single-cell RNA sequencing (scRNA-seq) of adult C. robusta hearts, we delineated the cardiomyocyte progenitor expression profile. Based on this data, we investigated the role of Wnt signaling in cardiomyocyte progenitor proliferation and found that canonical Wnt signaling is required to suppress excessive progenitor proliferation. The scRNA-seq data also identified a number of presumptive cardiac neural-like cells. Strikingly, we found that a subset of these neuronal cells appears to innervate the distal cardiomyocyte progenitors. Based on tachykinin receptor expression in these neural-like cells, we blocked tachykinin signaling using pharmacological inhibitors and found that this led to reduced proliferation in the distal progenitor pool. Through targeted CRISPR-Cas9 knockdown, we then demonstrated that both extrinsic tachykinin and intrinsic cardiac tachykinin receptors are required for formation of the myocardial heart tube. This work provides valuable insights regarding the deployment of neural signals to regulate organ growth in response to environmental or homeostatic inputs.
format Artículo científico
id pubmed_41980010
institution PubMed
language en
publishDate 2026
publisher PLoS biology
record_format pubmed
spellingShingle Neural signaling contributes to heart formation and growth in the invertebrate chordate, Ciona robusta.
Gruner, Hannah N
Pickett, C J
Bao, Jasmine Yimeng
Garcia, Richard
Hozumi, Akiko
Scully, Tal D
Popsuj, Sydney
Ning, Shaoyang
Gao, Mavis
Bautista, Gia
Maze, Keren
Lim, HaEun Karissa
Osugi, Tomohiro
Collins-Doijode, Mae
Cairns, Ofubofu
Levis, Gabriel
Chen, Shu Yi
Gong, TaiXi
Satake, Honoo
Moshe Klein, Allon
Sasakura, Yasunori
Davidson, Bradley
Animals
Heart
Myocytes, Cardiac
Wnt Signaling Pathway
Cell Proliferation
Tachykinins
Ciona
Cell Differentiation
Stem Cells
Signal Transduction
Neurons
Ciona intestinalis
Neural signaling contributes to heart formation and growth in the invertebrate chordate, Ciona robusta. Gruner, Hannah N Pickett, C J Bao, Jasmine Yimeng Garcia, Richard Hozumi, Akiko Scully, Tal D Popsuj, Sydney Ning, Shaoyang Gao, Mavis Bautista, Gia Maze, Keren Lim, HaEun Karissa Osugi, Tomohiro Collins-Doijode, Mae Cairns, Ofubofu Levis, Gabriel Chen, Shu Yi Gong, TaiXi Satake, Honoo Moshe Klein, Allon Sasakura, Yasunori Davidson, Bradley Animals Heart Myocytes, Cardiac Wnt Signaling Pathway Cell Proliferation Tachykinins Ciona Cell Differentiation Stem Cells Signal Transduction Neurons Ciona intestinalis Neurons contribute to the complex interplay of signals that mediate heart development and homeostasis. Although a limited set of studies suggest that neuronal peptides impact vertebrate heart growth, the specific contributions of these peptides to cardiomyocyte progenitor differentiation or proliferation have not been elucidated. Here, we show that the neuropeptide tachykinin along with canonical Wnt signaling regulate cardiomyocyte progenitor proliferation in the chordate model Ciona robusta. In C. robusta, the heart continues to grow throughout adulthood and classic histological studies indicate that a line of undifferentiated cells may serve as a reserve progenitor lineage. We found that this line of cardiomyocyte progenitors consists of distinct distal and midline populations. Our analysis indicates that distal progenitors divide asymmetrically to produce distal and midline daughters while midline progenitors divide asymmetrically to produce myocardial precursors. Through single-cell RNA sequencing (scRNA-seq) of adult C. robusta hearts, we delineated the cardiomyocyte progenitor expression profile. Based on this data, we investigated the role of Wnt signaling in cardiomyocyte progenitor proliferation and found that canonical Wnt signaling is required to suppress excessive progenitor proliferation. The scRNA-seq data also identified a number of presumptive cardiac neural-like cells. Strikingly, we found that a subset of these neuronal cells appears to innervate the distal cardiomyocyte progenitors. Based on tachykinin receptor expression in these neural-like cells, we blocked tachykinin signaling using pharmacological inhibitors and found that this led to reduced proliferation in the distal progenitor pool. Through targeted CRISPR-Cas9 knockdown, we then demonstrated that both extrinsic tachykinin and intrinsic cardiac tachykinin receptors are required for formation of the myocardial heart tube. This work provides valuable insights regarding the deployment of neural signals to regulate organ growth in response to environmental or homeostatic inputs.
title Neural signaling contributes to heart formation and growth in the invertebrate chordate, Ciona robusta.
topic Animals
Heart
Myocytes, Cardiac
Wnt Signaling Pathway
Cell Proliferation
Tachykinins
Ciona
Cell Differentiation
Stem Cells
Signal Transduction
Neurons
Ciona intestinalis
url https://pubmed.ncbi.nlm.nih.gov/41980010/