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LIVE/DEAD stain of <t>SMCs</t> cocultured with Silk MPs and SIMPs incubated in PBS or digested with Protease XIV showed low cytotoxicity of the particles. SMCs were <t>also</t> <t>cultured</t> with water as a negative control. Green channels (a,c,e, and g) showed confluent live cells in all MP treated groups compared to the negative control (i). Red channels (b,d,f, and h) showed minimal amounts of red (dead) cells compared to the negative control (j). The number of live (green) and dead cells (red) was counted across treatments ( n = 3), and the percentage of live and dead cells was compared to the negative control. There was a significantly higher percentage of live cells (k) and simultaneously a significantly lower percentage of dead cells (l) in the MP groups compared to the negative control. Scale bar = 100 μm ** = p < 0.01, *** = p < 0.001
Human Aortic Vascular Smooth Muscle Cells Smcs, supplied by Cell Applications Inc, used in various techniques. Bioz Stars score: 94/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Average 94 stars, based on 1 article reviews
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Ccn2 deficiency augments the capacity of medial extracellular matrix to retain LDL. ( A ) Experiment design (resulting in data shown in B – E ). The experiment was replicated three independent times obtaining similar results. ( B ) Images of CCN2 -silenced and control <t>HAoSMCs</t> either untreated or treated with diI-conjugated oxidized LDL (diI-oxLDL, red) and nuclei were stained with DAPI (blue). Scale bars = 5 µm. ( C – E ) Histograms showing three examples of flow cytometry data from the four experimental groups ( C ); quantitation of proportion of HAoSMCs with an oxLDL uptake above the defined cut-off (vertical red dotted line in C ) ( D ) and the mean uptake for this population ( E ). ( F , G ) Experiment design ( n = 6/6 for chow-fed Ccn2 wt/wt and Ccn2 SMCΔ/Δ mice used for investigation of endothelial permeability to LDL, and n = 15/20 for chow-fed Ccn2 wt/wt and Ccn2 SMCΔ/Δ mice used for investigation of LDL retention) ( F ) and aorta segments used for analyses in H – Q ( G ). dta, descending thoracic aorta. ( H – J ) Atto-565 LDL signal in the aortic arch and dta 1 h ( H ) and 24 h ( I ) after injection as quantified based on confocal fluorescence microscopy images shown for the 24-h time point in J . Scale bars (top) = 50 µm; scale bars (magnification) = 10 µm. ( K ) Sections adjacent to those analysed in H – J were stained for Lgals3 by immunofluorescence. Arrowheads point to endothelium-associated luminal macrophages (high level of dense Lgals3 signal), whereas arrows point to more diffuse and low levels of Lgals3 staining in the medial layer (presumed to be modulated <t>SMCs).</t> Scale bars = 10 µm. ( L , M ) Quantitation of endothelium-associated luminal Lgals3-positive macrophages ( L ) and medial Lgals3 signal ( M ) based on Lgals3 stainings represented in K . ( N ) Effect of global and SMC-specific Ccn2 knockout on the level of aortic proteoglycans (defined previously ) as assessed by mass spectrometry (full data sets are provided in , ). Blue dots show significantly regulated proteins, and dot size corresponds to the level of significance. Identities of all significantly regulated proteoglycans are shown. ( O , P ) Alcian blue staining of sections adjacent to those shown in J and K ( O ), and quantitation of Alcian blue-positive area ( P ). Scale bars (top) = 100 µm; scale bars (magnification) = 25 µm. ( Q ) Comparison of Atto-565 LDL signal (from analysis in H – J ) and Alcian blue staining (from analysis in O and P ). Scale bars = 25 µm. Data in D , E , H , I , L , M , and P were analysed by unpaired t -test with Welch’s correction or Mann–Whitney U test.
Human Aortic Smcs Haosmcs, supplied by PromoCell, used in various techniques. Bioz Stars score: 95/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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LIVE/DEAD stain of SMCs cocultured with Silk MPs and SIMPs incubated in PBS or digested with Protease XIV showed low cytotoxicity of the particles. SMCs were also cultured with water as a negative control. Green channels (a,c,e, and g) showed confluent live cells in all MP treated groups compared to the negative control (i). Red channels (b,d,f, and h) showed minimal amounts of red (dead) cells compared to the negative control (j). The number of live (green) and dead cells (red) was counted across treatments ( n = 3), and the percentage of live and dead cells was compared to the negative control. There was a significantly higher percentage of live cells (k) and simultaneously a significantly lower percentage of dead cells (l) in the MP groups compared to the negative control. Scale bar = 100 μm ** = p < 0.01, *** = p < 0.001

Journal: ACS Applied Materials & Interfaces

Article Title: Chemical Conjugation of Iron Oxide Nanoparticles for the Development of Magnetically Directable Silk Particles

doi: 10.1021/acsami.4c17536

Figure Lengend Snippet: LIVE/DEAD stain of SMCs cocultured with Silk MPs and SIMPs incubated in PBS or digested with Protease XIV showed low cytotoxicity of the particles. SMCs were also cultured with water as a negative control. Green channels (a,c,e, and g) showed confluent live cells in all MP treated groups compared to the negative control (i). Red channels (b,d,f, and h) showed minimal amounts of red (dead) cells compared to the negative control (j). The number of live (green) and dead cells (red) was counted across treatments ( n = 3), and the percentage of live and dead cells was compared to the negative control. There was a significantly higher percentage of live cells (k) and simultaneously a significantly lower percentage of dead cells (l) in the MP groups compared to the negative control. Scale bar = 100 μm ** = p < 0.01, *** = p < 0.001

Article Snippet: Human aortic vascular smooth muscle cells (SMCs) from Cell Applications (354–05a, San Diego, CA) were cultured at 37 °C and 5% CO 2 (3530, Isotemp, ThermoFisher Scientific) in supplemented basal media (311 K-500, Cell Applications Inc.) between passages 6–10.

Techniques: Staining, Incubation, Cell Culture, Negative Control

Ccn2 deficiency augments the capacity of medial extracellular matrix to retain LDL. ( A ) Experiment design (resulting in data shown in B – E ). The experiment was replicated three independent times obtaining similar results. ( B ) Images of CCN2 -silenced and control HAoSMCs either untreated or treated with diI-conjugated oxidized LDL (diI-oxLDL, red) and nuclei were stained with DAPI (blue). Scale bars = 5 µm. ( C – E ) Histograms showing three examples of flow cytometry data from the four experimental groups ( C ); quantitation of proportion of HAoSMCs with an oxLDL uptake above the defined cut-off (vertical red dotted line in C ) ( D ) and the mean uptake for this population ( E ). ( F , G ) Experiment design ( n = 6/6 for chow-fed Ccn2 wt/wt and Ccn2 SMCΔ/Δ mice used for investigation of endothelial permeability to LDL, and n = 15/20 for chow-fed Ccn2 wt/wt and Ccn2 SMCΔ/Δ mice used for investigation of LDL retention) ( F ) and aorta segments used for analyses in H – Q ( G ). dta, descending thoracic aorta. ( H – J ) Atto-565 LDL signal in the aortic arch and dta 1 h ( H ) and 24 h ( I ) after injection as quantified based on confocal fluorescence microscopy images shown for the 24-h time point in J . Scale bars (top) = 50 µm; scale bars (magnification) = 10 µm. ( K ) Sections adjacent to those analysed in H – J were stained for Lgals3 by immunofluorescence. Arrowheads point to endothelium-associated luminal macrophages (high level of dense Lgals3 signal), whereas arrows point to more diffuse and low levels of Lgals3 staining in the medial layer (presumed to be modulated SMCs). Scale bars = 10 µm. ( L , M ) Quantitation of endothelium-associated luminal Lgals3-positive macrophages ( L ) and medial Lgals3 signal ( M ) based on Lgals3 stainings represented in K . ( N ) Effect of global and SMC-specific Ccn2 knockout on the level of aortic proteoglycans (defined previously ) as assessed by mass spectrometry (full data sets are provided in , ). Blue dots show significantly regulated proteins, and dot size corresponds to the level of significance. Identities of all significantly regulated proteoglycans are shown. ( O , P ) Alcian blue staining of sections adjacent to those shown in J and K ( O ), and quantitation of Alcian blue-positive area ( P ). Scale bars (top) = 100 µm; scale bars (magnification) = 25 µm. ( Q ) Comparison of Atto-565 LDL signal (from analysis in H – J ) and Alcian blue staining (from analysis in O and P ). Scale bars = 25 µm. Data in D , E , H , I , L , M , and P were analysed by unpaired t -test with Welch’s correction or Mann–Whitney U test.

Journal: Cardiovascular Research

Article Title: Smooth muscle-specific deletion of cellular communication network factor 2 causes severe aorta malformation and atherosclerosis

doi: 10.1093/cvr/cvae174

Figure Lengend Snippet: Ccn2 deficiency augments the capacity of medial extracellular matrix to retain LDL. ( A ) Experiment design (resulting in data shown in B – E ). The experiment was replicated three independent times obtaining similar results. ( B ) Images of CCN2 -silenced and control HAoSMCs either untreated or treated with diI-conjugated oxidized LDL (diI-oxLDL, red) and nuclei were stained with DAPI (blue). Scale bars = 5 µm. ( C – E ) Histograms showing three examples of flow cytometry data from the four experimental groups ( C ); quantitation of proportion of HAoSMCs with an oxLDL uptake above the defined cut-off (vertical red dotted line in C ) ( D ) and the mean uptake for this population ( E ). ( F , G ) Experiment design ( n = 6/6 for chow-fed Ccn2 wt/wt and Ccn2 SMCΔ/Δ mice used for investigation of endothelial permeability to LDL, and n = 15/20 for chow-fed Ccn2 wt/wt and Ccn2 SMCΔ/Δ mice used for investigation of LDL retention) ( F ) and aorta segments used for analyses in H – Q ( G ). dta, descending thoracic aorta. ( H – J ) Atto-565 LDL signal in the aortic arch and dta 1 h ( H ) and 24 h ( I ) after injection as quantified based on confocal fluorescence microscopy images shown for the 24-h time point in J . Scale bars (top) = 50 µm; scale bars (magnification) = 10 µm. ( K ) Sections adjacent to those analysed in H – J were stained for Lgals3 by immunofluorescence. Arrowheads point to endothelium-associated luminal macrophages (high level of dense Lgals3 signal), whereas arrows point to more diffuse and low levels of Lgals3 staining in the medial layer (presumed to be modulated SMCs). Scale bars = 10 µm. ( L , M ) Quantitation of endothelium-associated luminal Lgals3-positive macrophages ( L ) and medial Lgals3 signal ( M ) based on Lgals3 stainings represented in K . ( N ) Effect of global and SMC-specific Ccn2 knockout on the level of aortic proteoglycans (defined previously ) as assessed by mass spectrometry (full data sets are provided in , ). Blue dots show significantly regulated proteins, and dot size corresponds to the level of significance. Identities of all significantly regulated proteoglycans are shown. ( O , P ) Alcian blue staining of sections adjacent to those shown in J and K ( O ), and quantitation of Alcian blue-positive area ( P ). Scale bars (top) = 100 µm; scale bars (magnification) = 25 µm. ( Q ) Comparison of Atto-565 LDL signal (from analysis in H – J ) and Alcian blue staining (from analysis in O and P ). Scale bars = 25 µm. Data in D , E , H , I , L , M , and P were analysed by unpaired t -test with Welch’s correction or Mann–Whitney U test.

Article Snippet: Human aortic SMCs (HAoSMCs) (C-12533, PromoCell) were grown in Smooth Muscle Cell Growth Medium 2 (C-22062, PromoCell).

Techniques: Control, Staining, Flow Cytometry, Quantitation Assay, Permeability, Injection, Fluorescence, Microscopy, Immunofluorescence, Knock-Out, Mass Spectrometry, Comparison, MANN-WHITNEY