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matrix biology --- proteoglycan --- extracellular matrix --- fibronectin --- collagens --- hyaluronan --- Collagen --- Connective tissues --- Collagen. --- Extracellular Matrix. --- Connective Tissue. --- Connective tissues. --- Areolar tissue --- Elastic tissue --- Musculoskeletal system --- Tissues --- Collogen --- Extracellular matrix proteins --- Matrix, Extracellular --- Extracellular Matrices --- Matrices, Extracellular --- Avicon --- Avitene --- Collagen Felt --- Collagen Fleece --- Collagenfleece --- Collastat --- Dermodress --- Microfibril Collagen Hemostat --- Pangen --- Zyderm --- alpha-Collagen --- Collagen Hemostat, Microfibril --- alpha Collagen --- Connective Tissue --- Connective Tissues --- Tissue, Connective --- Tissues, Connective

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Brucellosis, caused by the facultative intracellular bacteria Brucella species, is one the most prevalent zoonosis worldwide. • The articles described in this book report several aspects of host-Brucella interactions. • The findings described here will help to advance in the comprehension of bacterial pathogenesis and contribute to the future development of drugs or vaccines to control brucellosis.

Research & information: general --- Recombinant vaccine --- divalent vaccine --- brucellosis --- Omp25 --- L7/L12 --- Brucella abortus 544 --- ST2 receptor --- Brucella abortus --- oral infection --- human endometrial cells --- internalization --- intracellular replication --- decidualization --- chemokines --- macrophages --- Brucella --- HSC --- MHC --- IL-10 --- cell cycle --- (p)ppGpp --- rsh --- neurobrucellosis --- platelets --- brain microvascular endothelial cells --- endothelial cells --- adhesins --- Ig-like domain --- monomeric autotransporters --- trimeric autotransporters --- extracellular matrix --- polar localization --- virulence factors --- vaccine candidates --- fibronectin --- canonical inflammasome --- non-canonical inflammasome --- NLR --- pyroptosis --- ASC --- caspase-11 --- caspase-1 --- IL-1β --- gDNA --- replication niche --- reservoir --- persistence --- survival --- chronic infection --- n/a

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The analysis of circulating tumor cells (CTCs) as a real-time liquid biopsy approach can be used to obtain new insights into metastasis biology, and as companion diagnostics to improve the stratification of therapies and to obtain insights into the therapy-induced selection of cancer cells. In this book, we will cover all the different facets of CTCs to assemble a huge corpus of knowledge on cancer dissemination: technologies for their enrichment, detection, and characterization; their analysis at the single-cell level; their journey as CTC microemboli; their clinical relevance; their biology with the epithelial-to-mesenchymal transition (EMT); their stem-cell properties; their potential to initiate metastasis at distant sites; their ex vivo expansion; and their escape from the immune system.

n/a --- FOLFIRINOX --- immunofluorescence imaging --- AR-V7 --- circulating tumour cells --- chemoradioresistance --- CTC-based treatment decisions --- rVAR2 --- immunophenotyping --- immune system --- CellSearch® --- flow cytometry --- clinical trials --- circulating tumor DNA --- synaptophysin --- stem cells --- colorectal cancer --- melanoma --- CTC biology --- platelets --- AR --- CTC capture technology --- castration resistant prostate cancer (CRPC) --- PD-L1 expression --- rovalpituzumab tesirine --- HMB-45 --- thymidylate synthase --- ctDNA --- tumor cell dissemination --- solid cancers --- metastasis --- locally advanced rectal cancer --- miRNA --- epithelial-to-mesenchymal transition (EMT) --- NSCLC --- tumor biomarkers --- tumor stem cells --- circulating tumor cells --- major histocompatibility complex class I (MHCI) --- bone marrow --- heterogeneity --- cerebrospinal liquid biopsy --- fish --- glioma --- in vivo flow cytometry --- colorectal surgery --- CellSearch --- single-cell analysis --- disseminated tumor cells --- EasyCount slides --- microsatellite instability --- circulating plasma cells --- circulating leukemia cells --- ARV7 --- SLUG --- androgen receptor --- metastatic colorectal cancer --- leukocyte-derived extracellular vesicles --- prostate cancer (PCa) --- neutrophils --- liquid biopsy --- enzalutamide --- CD133 --- enrichment and detection technologies --- biomarkers --- immune checkpoint inhibitors --- biomarker --- RAD23B --- microbiome --- integrin B1 --- ACCEPT --- emboli --- small-cell lung carcinoma --- EPISPOT --- microfluidics --- early breast cancer --- circulating tumor cells (CTC) --- tumor-initiating cells (TICs) --- immunomodulation --- xenograft models --- CTC-derived xenografts --- malaria --- circulating tumor cells (CTCs) --- clinical utility --- exosomes --- liquid surgery --- ctRNA --- CTCs --- epithelial–mesenchymal transition --- targeted therapy --- hematological cells --- gene expression analysis --- hepatocellular carcinoma (HCC) --- breast cancer --- EpCAM enrichment --- prostate cancer --- CTC --- abiraterone --- fibronectin --- CTC-derived ex vivo models --- CTMat --- chromogranin A --- CTM --- exosome --- epithelial-mesenchymal transition

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Even today, cardiovascular diseases are the main cause of death worldwide, and therapeutic approaches are very restricted. Due to the limited regenerative capabilities of terminally differentiated cardiomyocytes post injury, new strategies to treat cardiac patients are urgently needed. Post myocardial injury, resident fibroblasts begin to generate the extracellular matrix, resulting in fibrosis, and finally, cardiac failure. Recently, preclinical investigations and clinical trials raised hope in stem cell-based approaches, to be an effective therapy option for these diseases. So far, several types of stem cells have been identified to be promising candidates to be applied for treatment: cardiac progenitor cells, bone marrow derived stem cells, embryonic and induced pluripotent stem cells, as well as their descendants. Furthermore, the innovative techniques of direct cardiac reprogramming of cells offered promising options for cardiovascular research, in vitro and in vivo. Hereby, the investigation of underlying and associated mechanisms triggering the therapeutic effects of stem cell application is of particular importance to improve approaches for heart patients. This Special Issue of Cells provides the latest update in the rapidly developing field of regenerative medicine in cardiology.

Research & information: general --- Biology, life sciences --- Fabry disease --- human embryonic stem cells --- CRISPR/Cas9 genomic editing --- Mass spectrometry proteomic analysis --- hypertrophic cardiomyopathy --- disease model --- physical exercise --- cardiac cellular regeneration --- microRNA (miR) --- Akt signaling --- cardiomyocyte proliferation --- cardiac hypertrophy --- cardioprotection --- myocarditis --- inflammation --- leukocytes --- cardiomyocytes --- multi-electrode-array --- micro-electrode-array --- MEA --- drug/toxicity screening --- field potential --- arrhythmia --- electrocardiography --- cardiac regeneration --- stem cells --- iPSC --- PSC --- ESC --- cardiovascular disease --- regeneration --- cardiac progenitor cells --- induced pluripotent stem cells --- transdifferentiation --- direct reprogramming --- genetic engineering --- cardiac tissue engineering --- biomaterials --- 18F-FDG PET --- cardiac induced cells --- cardiac function --- non-invasive imaging --- human pluripotent stem cell --- ventricular --- maturation --- bone marrow stem cells --- angiogenesis --- myocardial infarction --- human induced pluripotent stem cell-derived cardiomyocytes (hiPSC-CMs) --- iPS cells --- big conductance calcium activated potassium channel (BK) --- Maxi-K --- slo1 --- KCa1.1 --- iberiotoxin --- long QT syndrome --- mesenchymal stromal cells (MSC) --- mRNA --- miRNA --- cardiac reprogramming --- cardiac differentiation --- cardiovascular diseases --- adult stem cells --- myocardial infraction --- 3D printing --- 3D model --- bioprinting --- cardiovascular medicine --- heart --- myocardium --- heart valves --- vascular graft --- endothelialization --- tissue engineering --- decorin --- fibronectin --- electrospinning --- endothelial progenitor cells --- bioreactor --- biostable polyurethane --- MicroRNA --- Mir-133 --- coronary heart disease --- biomarker --- meta-analysis

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Even today, cardiovascular diseases are the main cause of death worldwide, and therapeutic approaches are very restricted. Due to the limited regenerative capabilities of terminally differentiated cardiomyocytes post injury, new strategies to treat cardiac patients are urgently needed. Post myocardial injury, resident fibroblasts begin to generate the extracellular matrix, resulting in fibrosis, and finally, cardiac failure. Recently, preclinical investigations and clinical trials raised hope in stem cell-based approaches, to be an effective therapy option for these diseases. So far, several types of stem cells have been identified to be promising candidates to be applied for treatment: cardiac progenitor cells, bone marrow derived stem cells, embryonic and induced pluripotent stem cells, as well as their descendants. Furthermore, the innovative techniques of direct cardiac reprogramming of cells offered promising options for cardiovascular research, in vitro and in vivo. Hereby, the investigation of underlying and associated mechanisms triggering the therapeutic effects of stem cell application is of particular importance to improve approaches for heart patients. This Special Issue of Cells provides the latest update in the rapidly developing field of regenerative medicine in cardiology.

Research & information: general --- Biology, life sciences --- Fabry disease --- human embryonic stem cells --- CRISPR/Cas9 genomic editing --- Mass spectrometry proteomic analysis --- hypertrophic cardiomyopathy --- disease model --- physical exercise --- cardiac cellular regeneration --- microRNA (miR) --- Akt signaling --- cardiomyocyte proliferation --- cardiac hypertrophy --- cardioprotection --- myocarditis --- inflammation --- leukocytes --- cardiomyocytes --- multi-electrode-array --- micro-electrode-array --- MEA --- drug/toxicity screening --- field potential --- arrhythmia --- electrocardiography --- cardiac regeneration --- stem cells --- iPSC --- PSC --- ESC --- cardiovascular disease --- regeneration --- cardiac progenitor cells --- induced pluripotent stem cells --- transdifferentiation --- direct reprogramming --- genetic engineering --- cardiac tissue engineering --- biomaterials --- 18F-FDG PET --- cardiac induced cells --- cardiac function --- non-invasive imaging --- human pluripotent stem cell --- ventricular --- maturation --- bone marrow stem cells --- angiogenesis --- myocardial infarction --- human induced pluripotent stem cell-derived cardiomyocytes (hiPSC-CMs) --- iPS cells --- big conductance calcium activated potassium channel (BK) --- Maxi-K --- slo1 --- KCa1.1 --- iberiotoxin --- long QT syndrome --- mesenchymal stromal cells (MSC) --- mRNA --- miRNA --- cardiac reprogramming --- cardiac differentiation --- cardiovascular diseases --- adult stem cells --- myocardial infraction --- 3D printing --- 3D model --- bioprinting --- cardiovascular medicine --- heart --- myocardium --- heart valves --- vascular graft --- endothelialization --- tissue engineering --- decorin --- fibronectin --- electrospinning --- endothelial progenitor cells --- bioreactor --- biostable polyurethane --- MicroRNA --- Mir-133 --- coronary heart disease --- biomarker --- meta-analysis