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figid: PMC11385095__jciinsight-9-177729-g215 | ||
pmcid: PMC11385095 | ||
image_filename: jciinsight-9-177729-g215.jpg | ||
figure_link: /pmc/articles/PMC11385095/figure/F5/ | ||
number: Figure 5 | ||
figure_title: Comparison of NP- and tonsil-derived ASCs | ||
caption: (A) Violin plots of genes upregulated in NP- and tonsil-derived ASCs. (B) | ||
GO biological process performed on most variable genes in ASCs derived from NPs | ||
and tonsils. Wilcoxon’s test was used for gene comparisons. (C) GSEA was performed | ||
on the top 2,000 most variable features in ASCs derived from NPs and tonsils. NF-κB | ||
ranked as the most-enriched signaling pathway in NPs | ||
article_title: Increased autoreactivity and maturity of EBI2+ antibody-secreting cells | ||
from nasal polyps | ||
citation: Junqin Bai, et al. JCI Insight. 2024 Sep 10;9(17). | ||
year: '2024' | ||
pub_date: 2024-9-10 | ||
epub_date: 2024-9-10 | ||
doi: 10.1172/jci.insight.177729 | ||
journal_title: JCI Insight | ||
journal_nlm_ta: JCI Insight | ||
publisher_name: American Society for Clinical Investigation | ||
keywords: | ||
- Immunology | ||
- Inflammation | ||
- Adaptive immunity | ||
- Immunoglobulins | ||
- Respiration | ||
--- |
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figid: PMC11387088__CRP2024-1905996.004 | ||
pmcid: PMC11387088 | ||
image_filename: CRP2024-1905996.004.jpg | ||
figure_link: /pmc/articles/PMC11387088/figure/F4/ | ||
number: Figure 4 | ||
figure_title: Inhibiting H2AX can suppress the expression of p-JNK and mitochondrial | ||
autophagy and fusion, as well as attenuate apoptosis in cardiac myocytes through | ||
the P53/SHP2 signaling pathway. | ||
caption: Inhibiting H2AX can suppress the expression of p-JNK and mitochondrial autophagy | ||
and fusion, as well as attenuate apoptosis in cardiac myocytes through the P53/SHP2 | ||
signaling pathway. (a) Western blotting and relative expression of p-H2AX, P53, | ||
p-JNK, SHP, p-SHP2, and p-RAS. (b) Western blotting and relative expression of parkin, | ||
Drp1, Cyt-C, Caspase-3, and Caspase-8. ∗∗P < 0.001. (c) Western blot grayscale statistics | ||
article_title: Inhibiting H2AX Can Ameliorate Myocardial Ischemia/Reperfusion Injury | ||
by Regulating P53/JNK Signaling Pathway | ||
citation: Ziyang Yu, et al. Cardiol Res Pract. 2024;2024(NA). | ||
year: '2024' | ||
pub_date: 2024-- | ||
epub_date: 2024-9-3 | ||
doi: 10.1155/2024/1905996 | ||
journal_title: Cardiology Research and Practice | ||
journal_nlm_ta: Cardiol Res Pract | ||
publisher_name: Wiley | ||
keywords: [] | ||
--- |
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figid: PMC11387088__CRP2024-1905996.005 | ||
pmcid: PMC11387088 | ||
image_filename: CRP2024-1905996.005.jpg | ||
figure_link: /pmc/articles/PMC11387088/figure/F5/ | ||
number: Figure 5 | ||
figure_title: Inhibiting H2AX Can Ameliorate Myocardial Ischemia/Reperfusion Injury | ||
by Regulating P53/JNK Signaling Pathway | ||
caption: H2AX mediates myocardial ischemia/reperfusion injury by regulating P53 and | ||
JNK signaling pathways | ||
article_title: Inhibiting H2AX Can Ameliorate Myocardial Ischemia/Reperfusion Injury | ||
by Regulating P53/JNK Signaling Pathway | ||
citation: Ziyang Yu, et al. Cardiol Res Pract. 2024;2024(NA). | ||
year: '2024' | ||
pub_date: 2024-- | ||
epub_date: 2024-9-3 | ||
doi: 10.1155/2024/1905996 | ||
journal_title: Cardiology Research and Practice | ||
journal_nlm_ta: Cardiol Res Pract | ||
publisher_name: Wiley | ||
keywords: [] | ||
--- |
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figid: PMC11387119__ijo-65-04-05687-g02 | ||
pmcid: PMC11387119 | ||
image_filename: ijo-65-04-05687-g02.jpg | ||
figure_link: /pmc/articles/PMC11387119/figure/F3/ | ||
number: Figure 3 | ||
figure_title: Inflammasome sensors have diverse roles in tumorigenesis. | ||
caption: Inflammasome sensors have diverse roles in tumorigenesis. The NLRP1b, NLRP3 | ||
and NLRP6 inflammasomes facilitate the production of IL-18, which helps protect | ||
against colorectal cancer associated with colitis. IL-18 also triggers the anticancer | ||
activity of natural killer cells against metastatic colonic tumor cells, reduces | ||
the levels of IL-22BP and may prevent the establishment of colitis-inducing microbiota, | ||
potentially through its impact on MUC2 secretion by goblet cells. The NLRP3 inflammasome, | ||
along with the IL-1β/IL-1 receptor signaling pathway, drives a T-cell response against | ||
transplantable tumor cells. In mice, NAIP1-6 proteins regulate STAT3 phosphorylation | ||
and the transcription of genes involved in anti-apoptotic and cell proliferation | ||
mechanisms. NLRC4 inhibits melanoma growth by enhancing macrophage inflammation | ||
and increasing IFNγ production in T cells. AIM2 suppresses AKT and cMyc phosphorylation, | ||
limiting stem cell proliferation and preventing colonization by colitis-promoting | ||
microbiota (83). AIM2, absent in melanoma 2; IL-22BP, IL-22 binding protein; MUC2, | ||
mucin 2; NLRC4, Nod-like receptor C4; NOD, nucleotide-binding oligomerization domain; | ||
NLRP, NLR family pyrin domain containing | ||
article_title: NLRC4, inflammation and colorectal cancer (Review) | ||
citation: Guojun Tong, et al. Int J Oncol. 2024 Oct;65(4). | ||
year: '2024' | ||
pub_date: 2024-10- | ||
epub_date: 2024-9-04 | ||
doi: 10.3892/ijo.2024.5687 | ||
journal_title: International Journal of Oncology | ||
journal_nlm_ta: Int J Oncol | ||
publisher_name: D.A. Spandidos | ||
keywords: | ||
- Nod-like receptor C4 | ||
- colorectal cancer | ||
- prognosis | ||
- mechanism of action | ||
- signaling pathway | ||
--- |
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--- | ||
figid: PMC11387478__41420_2024_2169_Figa_HTML | ||
pmcid: PMC11387478 | ||
image_filename: 41420_2024_2169_Figa_HTML.jpg | ||
figure_link: /pmc/articles/PMC11387478/figure/FNA/ | ||
number: .na.character | ||
figure_title: HIRI is a thorny problem after liver surgery such as liver transplantation. | ||
caption: HIRI is a thorny problem after liver surgery such as liver transplantation. | ||
In a murine model of HIRI, MSC-EVs enriched GAS6 effectively enhance macrophage | ||
efferocytosis both in vivo and in vitro through the GAS6/MerTK/ERK/COX2 signaling | ||
pathway and significantly mitigate liver injury. This image was drawn by the authors | ||
article_title: Extracellular vesicles containing GAS6 protect the liver from ischemia-reperfusion | ||
injury by enhancing macrophage efferocytosis via MerTK-ERK-COX2 signaling | ||
citation: Longyu Miao, et al. Cell Death Discov. 2024;10(NA). | ||
year: '2024' | ||
pub_date: 2024-- | ||
epub_date: 2024-9-10 | ||
doi: 10.1038/s41420-024-02169-y | ||
journal_title: Cell Death Discovery | ||
journal_nlm_ta: Cell Death Discov | ||
publisher_name: Nature Publishing Group UK | ||
keywords: | ||
- Mesenchymal stem cells | ||
- Protein-protein interaction networks | ||
- Liver fibrosis | ||
--- |
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figid: PMC11391519__mmr-30-05-13321-g01 | ||
pmcid: PMC11391519 | ||
image_filename: mmr-30-05-13321-g01.jpg | ||
figure_link: /pmc/articles/PMC11391519/figure/F2/ | ||
number: Figure 2. | ||
figure_title: I/R injury inhibited the expression of the PI3K/AKT signaling pathway. | ||
caption: I/R injury inhibited the expression of the PI3K/AKT signaling pathway. (A) | ||
The protein expression of PI3K and AKT and the activity of phosphorylated AKT in | ||
rat myocardium was detected by western blotting. (B) The protein expression of PI3K | ||
and AKT and the activity of phosphorylated AKT in H9C2 cells was detected by western | ||
blotting. *P<0.05, **P<0.01, n=3. PI3K, phosphatidylinositol-3-hydroxykinase; AKT, | ||
serine/threonine kinase; NC, negative control; H/R, hypoxia and reoxygenation | ||
article_title: Effects of STAT4 on myocardial ischemia‑reperfusion injury and the | ||
underlying mechanisms | ||
citation: Mei He, et al. Mol Med Rep. 2024 Nov;30(5). | ||
year: '2024' | ||
pub_date: 2024-11- | ||
epub_date: 2024-9-02 | ||
doi: 10.3892/mmr.2024.13321 | ||
journal_title: Molecular Medicine Reports | ||
journal_nlm_ta: Mol Med Rep | ||
publisher_name: D.A. Spandidos | ||
keywords: | ||
- signal transducer and activator of transcription 4 | ||
- myocardium | ||
- ischemia-reperfusion | ||
- apoptosis | ||
--- |
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figid: PMC11391519__mmr-30-05-13321-g04 | ||
pmcid: PMC11391519 | ||
image_filename: mmr-30-05-13321-g04.jpg | ||
figure_link: /pmc/articles/PMC11391519/figure/F5/ | ||
number: Figure 5. | ||
figure_title: Overexpression of STAT4 can activate the PI3K/AKT signaling pathway | ||
in H9C2 cells. | ||
caption: Overexpression of STAT4 can activate the PI3K/AKT signaling pathway in H9C2 | ||
cells. Western blotting results for PI3K and AKT after lentivirus infection and | ||
H/R treatment. *P<0.05, n=3. PI3K, phosphatidylinositol-3-hydroxykinase; AKT, serine/threonine | ||
kinase; H/R, hypoxia and reoxygenation; NC, negative control | ||
article_title: Effects of STAT4 on myocardial ischemia‑reperfusion injury and the | ||
underlying mechanisms | ||
citation: Mei He, et al. Mol Med Rep. 2024 Nov;30(5). | ||
year: '2024' | ||
pub_date: 2024-11- | ||
epub_date: 2024-9-02 | ||
doi: 10.3892/mmr.2024.13321 | ||
journal_title: Molecular Medicine Reports | ||
journal_nlm_ta: Mol Med Rep | ||
publisher_name: D.A. Spandidos | ||
keywords: | ||
- signal transducer and activator of transcription 4 | ||
- myocardium | ||
- ischemia-reperfusion | ||
- apoptosis | ||
--- |
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--- | ||
figid: PMC11393989__cells-13-01493-g001 | ||
pmcid: PMC11393989 | ||
image_filename: cells-13-01493-g001.jpg | ||
figure_link: /pmc/articles/PMC11393989/figure/F1/ | ||
number: Figure 1 | ||
figure_title: Molecular and cellular mechanisms of TGF-β signaling pathway in GO. | ||
caption: Molecular and cellular mechanisms of TGF-β signaling pathway in GO. TGF-β | ||
exerts its multifaceted effects on fibrosis and inflammation through both canonical | ||
and non-canonical signaling pathways. It binds to TGFR2, subsequently activating | ||
TGFR1. In the canonical pathway, TGFR1 phosphorylates Smad2 and Smad3, enabling | ||
their complex formation with Smad4. This complex then translocates to the nucleus, | ||
initiating transcription of fibrogenic genes. In non-canonical signaling pathways, | ||
TGF-β promotes fibrosis and ECM deposition by activating mitogen-activated protein | ||
kinase (MAPK) pathways, phosphoinositide 3-kinase (PI3K) pathways, RhoA-GTPase pathways, | ||
Wnt/β-catenin pathways, and NOX4 pathways. In the MAPK pathways, phosphorylated | ||
p38/JNK also interacts with the canonical pathway by activating Smad2 and Smad3, | ||
c-Jun, and AP-1. Additionally, in the Wnt/β-catenin pathway, Wnt ligands bind to | ||
the FZD and LRP5/6 receptors, leading to increased levels of β-catenin. β-catenin | ||
then translocates to the nucleus to induce target gene expression. The blue arrow | ||
indicates an activating effect, while the red T-bar signifies an inhibitory effect | ||
article_title: A Review of Pathophysiology and Therapeutic Strategies Targeting TGF-β | ||
in Graves’ Ophthalmopathy | ||
citation: Hsin-Ho Chang, et al. Cells. 2024 Sep;13(17). | ||
year: '2024' | ||
pub_date: 2024-9- | ||
epub_date: 2024-9-05 | ||
doi: 10.3390/cells13171493 | ||
journal_title: Cells | ||
journal_nlm_ta: Cells | ||
publisher_name: MDPI | ||
keywords: | ||
- Graves’ ophthalmopathy (GO) | ||
- transforming growth factor-β (TGF-β) | ||
- orbital fibrosis | ||
- extracellular matrix (ECM) | ||
- orbital fibroblast | ||
--- |
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--- | ||
figid: PMC11394487__cells-13-01474-g001 | ||
pmcid: PMC11394487 | ||
image_filename: cells-13-01474-g001.jpg | ||
figure_link: /pmc/articles/PMC11394487/figure/F1/ | ||
number: Figure 1 | ||
figure_title: The tumor microenvironment pathway is predicted to be altered (z-score | ||
= −2. | ||
caption: 'The tumor microenvironment pathway is predicted to be altered (z-score = | ||
−2.77) and closely associated [−log(p-value) = 8.83] with breast cancer. Description: | ||
AKT activates NFκB and SLC2 and inhibits BAD and FOXO via phosphorylation, where | ||
BAD and FOXO induce the apoptosis of tumor cells. ARG1 contributes to CD8 T-cell | ||
immunity; BCL2 promotes the survival of tumor cells; CCL2, CSF1, CSF2, and CSF3 | ||
enhance myeloid-derived suppressor cell accumulation and the proliferation of tumor-associated | ||
macrophages; CCND1 stimulates the proliferation of tumor cells; CD274 is responsible | ||
for the adaptive immune response of CD8+ T cells; CTL promotes apoptosis; and PD-1 | ||
is involved in the PD-L1 cancer immunotherapy pathway. CXCL12, CFCL8, FGF, MMP9, | ||
OSM, and VEGF are causative for angiogenesis. STAT3 regulates the expression of | ||
BCL2, CCND1, CD274, FAS, HIF1A, MMP2, MYC, PTGS2, SPP1, and VEGF, whereas NFκB regulates | ||
the expression of AP1, BCL2, CD274, CFLAR, and PLAU, which are responsible for tumor | ||
cell proliferation, viability, angiogenesis, and metastasis' | ||
article_title: Unraveling the Mystery of Energy-Sensing Enzymes and Signaling Pathways | ||
in Tumorigenesis and Their Potential as Therapeutic Targets for Cancer | ||
citation: Zeenat Mirza, et al. Cells. 2024 Sep;13(17). | ||
year: '2024' | ||
pub_date: 2024-9- | ||
epub_date: 2024-9-02 | ||
doi: 10.3390/cells13171474 | ||
journal_title: Cells | ||
journal_nlm_ta: Cells | ||
publisher_name: MDPI | ||
keywords: | ||
- cancer | ||
- energy-sensing enzymes | ||
- genes and signaling pathways | ||
- Warburg effect | ||
- anticancer drug | ||
--- |
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--- | ||
figid: PMC11394487__cells-13-01474-g002 | ||
pmcid: PMC11394487 | ||
image_filename: cells-13-01474-g002.jpg | ||
figure_link: /pmc/articles/PMC11394487/figure/F2/ | ||
number: Figure 2 | ||
figure_title: Mitochondrial biogenesis pathways. | ||
caption: Mitochondrial biogenesis pathways. Downregulation of differentially expressed | ||
genes ACSS2, CHD9, IDH2, SOD2, MEF2C, PPARA, PPARGC1A, and PPARGC1B causes inhibition | ||
of the mitochondrial biogenesis process in breast cancer | ||
article_title: Unraveling the Mystery of Energy-Sensing Enzymes and Signaling Pathways | ||
in Tumorigenesis and Their Potential as Therapeutic Targets for Cancer | ||
citation: Zeenat Mirza, et al. Cells. 2024 Sep;13(17). | ||
year: '2024' | ||
pub_date: 2024-9- | ||
epub_date: 2024-9-02 | ||
doi: 10.3390/cells13171474 | ||
journal_title: Cells | ||
journal_nlm_ta: Cells | ||
publisher_name: MDPI | ||
keywords: | ||
- cancer | ||
- energy-sensing enzymes | ||
- genes and signaling pathways | ||
- Warburg effect | ||
- anticancer drug | ||
--- |
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--- | ||
figid: PMC11394487__cells-13-01474-g003 | ||
pmcid: PMC11394487 | ||
image_filename: cells-13-01474-g003.jpg | ||
figure_link: /pmc/articles/PMC11394487/figure/F3/ | ||
number: Figure 3 | ||
figure_title: Unraveling the Mystery of Energy-Sensing Enzymes and Signaling Pathways | ||
in Tumorigenesis and Their Potential as Therapeutic Targets for Cancer | ||
caption: Integration of energy metabolism includes multiple events and pathways such | ||
as glucagon signaling in metabolic pathways, PKA-mediated phosphorylation, insulin | ||
stimulating increased expression of xylulose-5-phosphate (Xy-5-P), the AMP kinase | ||
(AMPK)-mediated response to elevated AMP, dephosphorylation of key metabolic factors | ||
by PP2A, and the transcriptional activation of metabolic genes by ChREBP | ||
article_title: Unraveling the Mystery of Energy-Sensing Enzymes and Signaling Pathways | ||
in Tumorigenesis and Their Potential as Therapeutic Targets for Cancer | ||
citation: Zeenat Mirza, et al. Cells. 2024 Sep;13(17). | ||
year: '2024' | ||
pub_date: 2024-9- | ||
epub_date: 2024-9-02 | ||
doi: 10.3390/cells13171474 | ||
journal_title: Cells | ||
journal_nlm_ta: Cells | ||
publisher_name: MDPI | ||
keywords: | ||
- cancer | ||
- energy-sensing enzymes | ||
- genes and signaling pathways | ||
- Warburg effect | ||
- anticancer drug | ||
--- |
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