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human retinal pericytes  (Innoprot Inc)


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    Innoprot Inc human retinal pericytes
    Human Retinal Pericytes, supplied by Innoprot Inc, used in various techniques. Bioz Stars score: 92/100, based on 10 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/human+retinal+pericytes/Human+Retinal+Pericytes/10__1007_slash_s42114___025___01455___2-92-0-3
    Average 92 stars, based on 10 article reviews
    human retinal pericytes - by Bioz Stars, 2026-09
    92/100 stars

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    Related Articles

    Cell Culture:

    Article Title: Development of a 3D cell-printed RVO model by advancing a retina-on-a-chip with hybrid retinal dECM bioink and an integrated 3D bioprinting system
    Article Snippet: Human retinal cells (Y79 or HTB-18; ATCC, USA) were cultured in Minimum Essential Medium-alpha (MEM-II; Gibco, USA), supplemented with 1% penicillin–streptomycin and 20% FBS. .. Human retinal pericytes (Innoprot, Spain) were cultured using a Complete Pericyte Medium Kit (SciencCell, USA). .. Human umbilical vein endothelial cells (HUVECs; Lonza, Switzerland) were cultured in an endothelial growth medium (EGMTM-MV Medium) supplemented with the SingleQuotTM kit containing growth factors (Lonza, Switzerland) and 1% penicillin–streptomycin.

    Article Title: PARP inhibition promotes endothelial-like traits in melanoma cells and modulates pericyte coverage dynamics during vasculogenic mimicry.
    Article Snippet: Human umbilical vein endothelial cells (HUVECs; Cell Applications, San Diego, CA, USA) were grown in endothelial cell growth medium (Cell Applications/Sigma). .. Human Retinal Pericytes (Innoprot, Derio, Bizkaia, Spain) were cultured in pericyte medium (Innoprot). ..



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    Figure 5. Effects of vasculogenesis inhibitors on interactions between HRMVECs and <t>HRMVPs.</t> a) 3D image analysis routine to quantify cell-cell contacts (Imaris, Oxford Instruments). 1) The relevant channels are filtered (Gaussian), 2) a channel-specific surface algorithm is performed, 3) the Imaris Xtension ‘surface surface contact area’ is applied for creating a surface at the junction of both cell types. 4) Close-up of contacts (yellow) between HRMVECs (CellTracker Orange, green) and HRMVPs (GFP, orange) (scale bar 1–3. 200 μm and 4. 50 μm). Total filament lengths for b) HRMVECs and c) cocultured HRMVPs. d) Percentage of all HRMVECs surfaces in contact with HRMVPs. e) Total number of contacts. f) Total surface area of contacts. Data presented as violin plots with horizontal lines indicating quartiles 1–3 (n = 4–6). Asterisks indicate multiplicity adjusted P values of one-way ANOVA with post hoc Tukey test, comparing inhibitor treatments to respective vehicle controls; *P < 0.05, ** P < 0.01, *** P < 0.001, and **** P < 0.0001.
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    Image Search Results


    Figure 1. a) Schematic summary of precision culture scaling (PCS-X) to customize high-throughput 3D tissue and disease models. PCS-X comprises design of experiments (DOE) methods to systematically adjust the composition and automated and parallelized preparation of cultures, the collection and analysis of quantitative readouts, and multiple linear regression (MLR) modeling of the data to identify individual and interactive effects of the investigated parameters to instruct further adjustment. Exemplifying the approach, high-throughput 3D vasculogenesis models were developed from hydrogel culture-based protocols using human umbilical vein endothelial cells or human retinal microvascular endothelial cells in mono- and cocultures with mesenchymal stromal cells or retinal microvascular pericytes, respectively. The hydrogels were made of multi-armed poly(ethylene glycol) and the sulfated glycosaminoglycan heparin (starPEG-sGAG hydrogels), functionalized with covalently bound cell-adhesive RGDSP peptides (to sGAG) and sGAG-complexed growth factors. b) Parallelized hydrogel culture fabrication: The stock solutions, containing the starPEG-peptide conjugate and the sGAG (heparin-maleimide)/RGDSP peptide/growth factor/cell mixture, respectively, were automatically transferred and mixed in a 96-well plate with V-shaped wells, then transferred into a low-volume 384-well plate. c) Image analysis of vasculogenesis was performed by a dedicated 3D image analysis routine (exemplary shown image displays a HUVEC monoculture stained for F-Actin): Confocal input images were filtered (Gaussian filter) to minimize over-quantification of subcellular features, a 3D rendition of these structures was computed, masked, and subjected to a filament algorithm generating skeletonized trajectories of cellular structures. Scale bar 200 μm. d) DOE methods were used to assess effects of three crucial culturing parameters on vasculogenesis of hydrogel-embedded endothelial cells in balanced experimental designs (central composite designs). The experimental data were analyzed by MLR, generating robust models to predict endothelial cell vasculogenesis across the parameter space studied.

    Journal: Advanced healthcare materials

    Article Title: Precision Culture Scaling to Establish High-Throughput Vasculogenesis Models.

    doi: 10.1002/adhm.202400388

    Figure Lengend Snippet: Figure 1. a) Schematic summary of precision culture scaling (PCS-X) to customize high-throughput 3D tissue and disease models. PCS-X comprises design of experiments (DOE) methods to systematically adjust the composition and automated and parallelized preparation of cultures, the collection and analysis of quantitative readouts, and multiple linear regression (MLR) modeling of the data to identify individual and interactive effects of the investigated parameters to instruct further adjustment. Exemplifying the approach, high-throughput 3D vasculogenesis models were developed from hydrogel culture-based protocols using human umbilical vein endothelial cells or human retinal microvascular endothelial cells in mono- and cocultures with mesenchymal stromal cells or retinal microvascular pericytes, respectively. The hydrogels were made of multi-armed poly(ethylene glycol) and the sulfated glycosaminoglycan heparin (starPEG-sGAG hydrogels), functionalized with covalently bound cell-adhesive RGDSP peptides (to sGAG) and sGAG-complexed growth factors. b) Parallelized hydrogel culture fabrication: The stock solutions, containing the starPEG-peptide conjugate and the sGAG (heparin-maleimide)/RGDSP peptide/growth factor/cell mixture, respectively, were automatically transferred and mixed in a 96-well plate with V-shaped wells, then transferred into a low-volume 384-well plate. c) Image analysis of vasculogenesis was performed by a dedicated 3D image analysis routine (exemplary shown image displays a HUVEC monoculture stained for F-Actin): Confocal input images were filtered (Gaussian filter) to minimize over-quantification of subcellular features, a 3D rendition of these structures was computed, masked, and subjected to a filament algorithm generating skeletonized trajectories of cellular structures. Scale bar 200 μm. d) DOE methods were used to assess effects of three crucial culturing parameters on vasculogenesis of hydrogel-embedded endothelial cells in balanced experimental designs (central composite designs). The experimental data were analyzed by MLR, generating robust models to predict endothelial cell vasculogenesis across the parameter space studied.

    Article Snippet: Human telomerase reverse transcriptase (hTert) immortalized human retinal microvascular cells (HRMVECs) and hTert immortalized GFPexpressing human retinal microvascular pericytes (HRMVPs), as well as non-fluorescent hTert immortalized HRMVPs (Angio-Proteomie, US), were cultured on tissue culture flasks pre-coated with quick coating solution (Angio-Proteomie, US) in endothelial growth medium and pericyte growth medium (Angio-Proteomie, US) at 37 °C and 5% CO2 in a humidified incubator, respectively.

    Techniques: High Throughput Screening Assay, Adhesive, Staining

    Figure 5. Effects of vasculogenesis inhibitors on interactions between HRMVECs and HRMVPs. a) 3D image analysis routine to quantify cell-cell contacts (Imaris, Oxford Instruments). 1) The relevant channels are filtered (Gaussian), 2) a channel-specific surface algorithm is performed, 3) the Imaris Xtension ‘surface surface contact area’ is applied for creating a surface at the junction of both cell types. 4) Close-up of contacts (yellow) between HRMVECs (CellTracker Orange, green) and HRMVPs (GFP, orange) (scale bar 1–3. 200 μm and 4. 50 μm). Total filament lengths for b) HRMVECs and c) cocultured HRMVPs. d) Percentage of all HRMVECs surfaces in contact with HRMVPs. e) Total number of contacts. f) Total surface area of contacts. Data presented as violin plots with horizontal lines indicating quartiles 1–3 (n = 4–6). Asterisks indicate multiplicity adjusted P values of one-way ANOVA with post hoc Tukey test, comparing inhibitor treatments to respective vehicle controls; *P < 0.05, ** P < 0.01, *** P < 0.001, and **** P < 0.0001.

    Journal: Advanced healthcare materials

    Article Title: Precision Culture Scaling to Establish High-Throughput Vasculogenesis Models.

    doi: 10.1002/adhm.202400388

    Figure Lengend Snippet: Figure 5. Effects of vasculogenesis inhibitors on interactions between HRMVECs and HRMVPs. a) 3D image analysis routine to quantify cell-cell contacts (Imaris, Oxford Instruments). 1) The relevant channels are filtered (Gaussian), 2) a channel-specific surface algorithm is performed, 3) the Imaris Xtension ‘surface surface contact area’ is applied for creating a surface at the junction of both cell types. 4) Close-up of contacts (yellow) between HRMVECs (CellTracker Orange, green) and HRMVPs (GFP, orange) (scale bar 1–3. 200 μm and 4. 50 μm). Total filament lengths for b) HRMVECs and c) cocultured HRMVPs. d) Percentage of all HRMVECs surfaces in contact with HRMVPs. e) Total number of contacts. f) Total surface area of contacts. Data presented as violin plots with horizontal lines indicating quartiles 1–3 (n = 4–6). Asterisks indicate multiplicity adjusted P values of one-way ANOVA with post hoc Tukey test, comparing inhibitor treatments to respective vehicle controls; *P < 0.05, ** P < 0.01, *** P < 0.001, and **** P < 0.0001.

    Article Snippet: Human telomerase reverse transcriptase (hTert) immortalized human retinal microvascular cells (HRMVECs) and hTert immortalized GFPexpressing human retinal microvascular pericytes (HRMVPs), as well as non-fluorescent hTert immortalized HRMVPs (Angio-Proteomie, US), were cultured on tissue culture flasks pre-coated with quick coating solution (Angio-Proteomie, US) in endothelial growth medium and pericyte growth medium (Angio-Proteomie, US) at 37 °C and 5% CO2 in a humidified incubator, respectively.

    Techniques:

    Figure 5. Effects of vasculogenesis inhibitors on interactions between HRMVECs and HRMVPs. a) 3D image analysis routine to quantify cell-cell contacts (Imaris, Oxford Instruments). 1) The relevant channels are filtered (Gaussian), 2) a channel-specific surface algorithm is performed, 3) the Imaris Xtension ‘surface surface contact area’ is applied for creating a surface at the junction of both cell types. 4) Close-up of contacts (yellow) between HRMVECs (CellTracker Orange, green) and HRMVPs (GFP, orange) (scale bar 1–3. 200 μm and 4. 50 μm). Total filament lengths for b) HRMVECs and c) cocultured HRMVPs. d) Percentage of all HRMVECs surfaces in contact with HRMVPs. e) Total number of contacts. f) Total surface area of contacts. Data presented as violin plots with horizontal lines indicating quartiles 1–3 (n = 4–6). Asterisks indicate multiplicity adjusted P values of one-way ANOVA with post hoc Tukey test, comparing inhibitor treatments to respective vehicle controls; *P < 0.05, ** P < 0.01, *** P < 0.001, and **** P < 0.0001.

    Journal: Advanced healthcare materials

    Article Title: Precision Culture Scaling to Establish High-Throughput Vasculogenesis Models.

    doi: 10.1002/adhm.202400388

    Figure Lengend Snippet: Figure 5. Effects of vasculogenesis inhibitors on interactions between HRMVECs and HRMVPs. a) 3D image analysis routine to quantify cell-cell contacts (Imaris, Oxford Instruments). 1) The relevant channels are filtered (Gaussian), 2) a channel-specific surface algorithm is performed, 3) the Imaris Xtension ‘surface surface contact area’ is applied for creating a surface at the junction of both cell types. 4) Close-up of contacts (yellow) between HRMVECs (CellTracker Orange, green) and HRMVPs (GFP, orange) (scale bar 1–3. 200 μm and 4. 50 μm). Total filament lengths for b) HRMVECs and c) cocultured HRMVPs. d) Percentage of all HRMVECs surfaces in contact with HRMVPs. e) Total number of contacts. f) Total surface area of contacts. Data presented as violin plots with horizontal lines indicating quartiles 1–3 (n = 4–6). Asterisks indicate multiplicity adjusted P values of one-way ANOVA with post hoc Tukey test, comparing inhibitor treatments to respective vehicle controls; *P < 0.05, ** P < 0.01, *** P < 0.001, and **** P < 0.0001.

    Article Snippet: Human telomerase reverse transcriptase (hTert) immortalized human retinal microvascular cells (HRMVECs) and hTert immortalized GFPexpressing human retinal microvascular pericytes (HRMVPs), as well as non-fluorescent hTert immortalized HRMVPs (Angio-Proteomie, US), were cultured on tissue culture flasks pre-coated with quick coating solution (Angio-Proteomie, US) in endothelial growth medium and pericyte growth medium (Angio-Proteomie, US) at 37 °C and 5% CO2 in a humidified incubator, respectively.

    Techniques: