Cloche is a pro-regenerative platelet factor during zebrafish heart regeneration [bulk RNA-seq]
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PROVIDER: PRJNA925434 | ENA |
REPOSITORIES: ENA
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Project description:Cloche is a pro-regenerative platelet factor during zebrafish heart regeneration
| PRJNA929937 | ENA
Project description:Zebrafish heart regeneration is a complex process consisting of tempo-spatial coordination of cardiomyocyte (CM) and endothelial cell (EC) regeneration, fibrosis and inflammation. While myocardial, endocardial, and epicardial signaling have been reported to modulate this process, little is known about how leukocyte especially platelet signaling is involved in this regenerative process. Here we report that cloche/npas4l (neuronal PAS domain protein 4 like) is a pro-regenerative platelet factor for adult zebrafish heart regeneration. We found that injury triggered npas4l expression as early as 1 h post ventricular amputation, and haploinsufficiency of npas4l disrupted CM and EC proliferation and heart regeneration in clofv087b/+ and clom39/+ mutants after ventricular resection or nitroreductase (NTR)-mediated CM ablation. By constructing a single-cell transcriptomic atlas, we discovered that npas4l was dynamically expressed in platelets in response to heart injury with robust platelet-CM or -EC interactions via ligand-receptor activity analysis. Decreasing platelets in NTR-mediated depletion or mpl mutants impaired CM and EC proliferation, and over-expression of npas4l in platelets sufficiently made uninjured and injured CM reentry into the cell-cycle and rescued CM and EC proliferation in clofv087b/+ mutants. Furthermore, Npas4l positively regulated Bmp6 expression in platelets and either BMP6 inhibitors or siRNAs decreased CM proliferation and heart regeneration. This work demonstrates, for the first time, that injury-induced platelets are essential for zebrafish heart regeneration and Npas4l is a core platelet transcription factor for fine-tuning heart regeneration partially via Bmp6 signaling.
2025-04-22 | GSE275789 | GEO
Project description:Zebrafish heart regeneration is a complex process consisting of tempo-spatial coordination of cardiomyocyte (CM) and endothelial cell (EC) regeneration, fibrosis and inflammation. While myocardial, endocardial, and epicardial signaling have been reported to modulate this process, little is known about how leukocyte especially platelet signaling is involved in this regenerative process. Here we report that cloche/npas4l (neuronal PAS domain protein 4 like) is a pro-regenerative platelet factor for adult zebrafish heart regeneration. We found that injury triggered npas4l expression as early as 1 h post ventricular amputation, and haploinsufficiency of npas4l disrupted CM and EC proliferation and heart regeneration in clofv087b/+ and clom39/+ mutants after ventricular resection or nitroreductase (NTR)-mediated CM ablation. By constructing a single-cell transcriptomic atlas, we discovered that npas4l was dynamically expressed in platelets in response to heart injury with robust platelet-CM or -EC interactions via ligand-receptor activity analysis. Decreasing platelets in NTR-mediated depletion or mpl mutants impaired CM and EC proliferation, and over-expression of npas4l in platelets sufficiently made uninjured and injured CM reentry into the cell-cycle and rescued CM and EC proliferation in clofv087b/+ mutants. Furthermore, Npas4l positively regulated Bmp6 expression in platelets and either BMP6 inhibitors or siRNAs decreased CM proliferation and heart regeneration. This work demonstrates, for the first time, that injury-induced platelets are essential for zebrafish heart regeneration and Npas4l is a core platelet transcription factor for fine-tuning heart regeneration partially via Bmp6 signaling.
2025-04-22 | GSE223226 | GEO
Project description:Zebrafish heart regeneration is a complex process consisting of tempo-spatial coordination of cardiomyocyte (CM) and endothelial cell (EC) regeneration, fibrosis and inflammation. While myocardial, endocardial, and epicardial signaling have been reported to modulate this process, little is known about how leukocyte especially platelet signaling is involved in this regenerative process. Here we report that cloche/npas4l (neuronal PAS domain protein 4 like) is a pro-regenerative platelet factor for adult zebrafish heart regeneration. We found that injury triggered npas4l expression as early as 1 h post ventricular amputation, and haploinsufficiency of npas4l disrupted CM and EC proliferation and heart regeneration in clofv087b/+ and clom39/+ mutants after ventricular resection or nitroreductase (NTR)-mediated CM ablation. By constructing a single-cell transcriptomic atlas, we discovered that npas4l was dynamically expressed in platelets in response to heart injury with robust platelet-CM or -EC interactions via ligand-receptor activity analysis. Decreasing platelets in NTR-mediated depletion or mpl mutants impaired CM and EC proliferation, and over-expression of npas4l in platelets sufficiently made uninjured and injured CM reentry into the cell-cycle and rescued CM and EC proliferation in clofv087b/+ mutants. Furthermore, Npas4l positively regulated Bmp6 expression in platelets and either BMP6 inhibitors or siRNAs decreased CM proliferation and heart regeneration. This work demonstrates, for the first time, that injury-induced platelets are essential for zebrafish heart regeneration and Npas4l is a core platelet transcription factor for fine-tuning heart regeneration partially via Bmp6 signaling.
2025-04-22 | GSE224111 | GEO
Project description:Cloche is a pro-regenerative platelet factor during zebrafish heart regeneration [CUT&Tag]
| PRJNA1152975 | ENA
Project description:Cloche is a pro-regenerative platelet factor during zebrafish heart regeneration [10x scRNA-seq]
| PRJNA929922 | ENA
Project description:This SuperSeries is composed of the SubSeries listed below.
2025-04-22 | GSE224125 | GEO
Project description:Salamanders have the remarkable ability to functionally regenerate after spinal cord transection. In response to injury, GFAP+ glial cells in the axolotl spinal cord proliferate and migrate to replace the missing neural tube and create a permissive environment for axon regeneration. Molecular pathways that regulate the pro-regenerative axolotl glial cell response are poorly understood. Here we show axolotl glial cells up-regulate AP-1cFos/JunB after injury, which promotes a pro-regenerative glial cell response. Axolotl glial cells directly repress c-Jun expression via up-regulation of miR-200a. Inhibition of miR-200a during regeneration causes defects in axonal regrowth and transcriptomic analysis revealed that miR-200a inhibition leads to differential regulation of genes involved with reactive gliosis, the glial scar, ECM remodeling and axon guidance. This work identifies a novel role for miR-200a in inhibiting reactive gliosis in glial cell in axolotl during spinal cord regeneration
2019-03-19 | GSE122939 | GEO
Project description:Purpose: To study the requirement of Osr1 expression for FAP function during skeletal muscle regeneration. Methods: We sequenced total mRNAs isolated from adult FAPs FACS sorted from 3 and 7 day post injured hindlimb skeletal muscle of Ctrl (Osr1flox/+ CAGG Cre+) and Osr1 cKO (Osr1flox/flox CAGG Cre+) mice. Results: Loss of Osr1 leads to pro-fibrotic orientation of FAPs and impairs both FAP-macrophage and FAP-MuSCs communication network resulting in impaired regenerative myogenesis and persistent fibrosis. Conclusions: Osr1 is a key transcriptional regulator of FAP regenerative function protecting FAPs from assuming a detrimental pro-fibrotic and anti-myogenic state.
2023-03-13 | GSE226683 | GEO
Project description:Variability of regenerative potential among animals has long perplexed biologists. Based on their amazing regenerative abilities, planarians have become important models for understanding the molecular basis of regeneration; however, planarian species with limited regenerative abilities are also found. Despite the importance of understanding the differences between closely related, regenerating and non-regenerating organisms, few studies have focused on the evolutionary loss of regeneration, and the molecular mechanisms leading to such regenerative loss remain obscure. Here we examine Procotyla fluviatilis, a planarian with restricted ability to replace missing tissues, utilizing next-generation sequencing to define the gene expression programs active in regeneration-permissive and regeneration-deficient tissues. We found that Wnt signaling is aberrantly activated in regeneration-deficient tissues. Remarkably, down-regulation of canonical Wnt signaling in regeneration-deficient regions restores regenerative abilities: blastemas form and new heads regenerate in tissues that normally never regenerate. This work reveals that manipulating a single signaling pathway can reverse the evolutionary loss of regenerative potential. RNA-seq experiments to identify gene expression changes following amputation in body regions with variable regenerative potential. Adult Procotyla fluviatilis were amputated at sites either anterior or posterior to the pharynx. After 24 hours post-amputation, tissues near the amputation site were excised and RNA was extracted. Similar tissues were excised from uncut control animals. Samples were processed for RNA-seq using Illumina procedures. We generated a de novo P. fluviatilis transcriptome and used RNA sequencing (RNA-seq) to characterize transcripts from excised tissue fragments in Reg+ and Reg- body regions 24 hours post-amputation. We performed parallel analyses on tissues excised from intact animals at identical body regions to account for regional differences in transcripts, thereby identifying changes resulting from amputation. Samples A1-A3 = Regeneration-proficient (Reg+) tissue excision 24 hours after amputation. Samples B1-B3 = Tissue excision from regeneration-proficient (Reg+) region but not amputated. Samples C1-C3 = Tissue excision from regeneration-deficient (Reg-) tissues 24 hours after amputation. Samples D1, D3-D4 = Tissue excision from regeneration-deficient (Reg-) region that was not amputated.
2013-07-04 | E-GEOD-48497 | biostudies-arrayexpress