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flow cytometry analysis software bd facsdiva software v9.4 (Becton Dickinson)

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Becton Dickinson flow cytometry analysis software bd facsdiva software v9.4
Flow Cytometry Analysis Software Bd Facsdiva Software V9.4, supplied by Becton Dickinson, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flow+cytometry+analysis+software/flow+cytometry+analysis+software+bd+facsdiva+software+v9+4/pm39885289-122-10-14
Average 90 stars, based on 1 article reviews

flow cytometry analysis software bd facsdiva software v9.4 - by Bioz Stars, 2026-11

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Flow Cytometry:

Article Title: Immunophenotyping with (phospho)protein profiling and fluorescent cell barcoding for single-cell signaling analysis and biomarker discovery
Article Snippet: .. Import the Flow Cytometry Standard (FCS) data files from the experiment to a flow cytometry analysis software, i.e., FlowJo (Ashland, Oregon, USA) or Cytobank (Mountain View, California, USA) Gating strategy: Identification of lymphocytes and FCB populations Select events collected under consistent flow rate signal by plotting time versus a fluorochrome on the UV laser (e.g. anti-CD3) (Fig. ) Fig. 2 Gating strategy for immunophenotyping of peripheral blood mononuclear cells from healthy donors. a Peripheral blood mononuclear cells (PBMCs) from a healthy donor were stained with surface markers and analysed according to the protocol using a Cytek 5 L Aurora instrument. ..

Article Title: Far-red Fluorescent Senescence-associated β-Galactosidase Probe for Identification and Enrichment of Senescent Tumor Cells by Flow Cytometry
Article Snippet: .. Export the files to a workstation computer equipped with flow cytometry analysis software (e.g., FlowJo). .. Export the files to a workstation computer equipped with flow cytometry analysis software (e.g., FlowJo).

Article Title: The anti-infective and immunologic effect of babassu (Attalea speciosa, Mart. ex Spreng) reduces mortality induced by MRSA-Staphylococcus aureus.
Article Snippet: Ethnopharmacological relevance: Babassu mesocarp, derived from the Attalea speciosa fruits, is used in folk medicine for infections, inflammatory diseases, and skin wounds.. Aim of the study: To investigate the antimicrobial and immunological effect of babassu mesocarp aqueous extract (BAE) in Swiss mice lethally infected with methicillin-resistant Staphylococcus aureus (MRSA).. Materials and methods: The animals (n = 14/group) received an overload of MRSA (3.0 × 108 CFU/mL, via intraperitoneal) and were treated 6 h later with the BAE (125 and 250 mg/kg, subcutaneously).

Article Title: Itaconate inhibits SYK through alkylation and suppresses inflammation against hvKP induced intestinal dysbiosis
Article Snippet: The data analysis and visualization were performed using the flow cytometry analysis software FlowJo. .. The data analysis and visualization were performed using the flow cytometry analysis software FlowJo. ..

Article Title: Multiphoton In Vivo Microscopy of Embryonic Thrombopoiesis Reveals the Generation of Platelets through Budding.
Article Snippet: Flow Cytometry Acquisition and Analysis Samples were analyzed on the flow cytometer (Beckman Coulter, Gallios Flow Cytometer 773231AD, Diva software version 8.0.1). .. Acquired flow cytometry data sets were analyzed with a dedicated flow cytometry analysis software (FlowJo LLC Version 10, Ashland, OR, USA). ..

Article Title: Ultrasound-triggered and Glycosylation Inhibition-enhanced Tumor Piezocatalytic Immunotherapy
Article Snippet: Single-cell suspensions obtained from the lymph node, tumor, spleen, and bone marrow of BALB/c mice were incubated with Fc receptorblocking reagent (BD Biosciences) for 15 min at 4°C and then stained with the following fluorochrome-conjugated antibodies: CD45-PE-Cy5, CD3-PE, CD4-FITC, CD44-Alexa Fluor 647, CD-F4/80-Pacific Blue, CD45-Spark blue 550, CD11c-Pacific Blue, CD80-Alexa Fluor 647, CD86-APC, CD11b-Alexa Fluor 594, CD19-Alexa Fluor 647, CD8-PerCP-Cy5.5 and CD62L-APC and analyzed by FCM. .. All data were processed using the flow cytometry analysis software (FlowJo, version 10). ..

Article Title: Genetically modified genes and cells, and methods of using same for silencing virus gene expression
Article Snippet: All flow cytometry plots and gated cell statistics were generated using flow cytometry analysis software (FlowJo, world wide web at flojo.com). .. All flow cytometry plots and gated cell statistics were generated using flow cytometry analysis software (FlowJo, world wide web at flojo.com). .. For transient promoter activation assays, Jurkat cells (5.0×105 cells per well) were transfected using the Neon electroporation system (Invitrogen) following manufacturer's instructions using 1600 volts, a pulse width of 10 ms and 3 pulses.

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Article Title: Modulating efficacy and cytotoxicity of lipoamino fatty acid nucleic acid carriers using disulfide or hydrophobic spacers.
Article Snippet: Flow cytometry data were analyzed using FlowJoTM v10.8 flow cytometric analysis software by FlowJo, LLC (Becton, 20 Dickinson and Company, U.S.).

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OCDMs promote macrophage phagocytosis and M2 polarization. A‐D) Flow cytometry analysis of the proportion of M2‐type macrophages in tumor tissues and quantitative analysis ( n = 6). E‐H) Representative IHC images and quantitative analysis of CD86 in tumor sections ( n = 6). Scale bars = 100 µm. I‐L) Representative IHC images and quantitative analysis of CD206 in tumor sections ( n = 6). Scale bars = 100 µm. M,N) Heatmaps and volcano plots of DEGs in mRNA‑seq analysis of bone marrow‐derived macrophages (BMDMs) treated with migrasomes or PBS ( n = 3). O) KEGG enrichment analysis of up‐regulated genes in BMDMs treated with migrasomes. P‐S) BMDMs treated with PBS or 10 µg mL −1 migrasomes for 24 h. (P, Q) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Scale bars = 100 µm. (R, S) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). T‐V) BMDMs treated with PBS or 10 µg mL −1 migrasomes for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (T) Quantitative real‐time (qRT)‐PCR analysis of the expression of M1 polarization (TNFα, iNOS and CD86) and M2 polarization markers (CD206, CD163 and IL‐4) in BMDMs ( n = 3). (U, V) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. ns p ≥ 0.05, ** p < 0.01, *** p < 0.001. One‐way ANOVA test or two‐way ANOVA test was used for multivariate analysis. Unpaired t‐tests were used for the comparison of two groups.

Journal: Advanced Science

Article Title: Osteosarcoma Cell‐Derived Migrasomes Promote Macrophage M2 Polarization to Aggravate Osteosarcoma Proliferation and Metastasis

doi: 10.1002/advs.202409870

Figure Lengend Snippet: OCDMs promote macrophage phagocytosis and M2 polarization. A‐D) Flow cytometry analysis of the proportion of M2‐type macrophages in tumor tissues and quantitative analysis ( n = 6). E‐H) Representative IHC images and quantitative analysis of CD86 in tumor sections ( n = 6). Scale bars = 100 µm. I‐L) Representative IHC images and quantitative analysis of CD206 in tumor sections ( n = 6). Scale bars = 100 µm. M,N) Heatmaps and volcano plots of DEGs in mRNA‑seq analysis of bone marrow‐derived macrophages (BMDMs) treated with migrasomes or PBS ( n = 3). O) KEGG enrichment analysis of up‐regulated genes in BMDMs treated with migrasomes. P‐S) BMDMs treated with PBS or 10 µg mL −1 migrasomes for 24 h. (P, Q) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Scale bars = 100 µm. (R, S) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). T‐V) BMDMs treated with PBS or 10 µg mL −1 migrasomes for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (T) Quantitative real‐time (qRT)‐PCR analysis of the expression of M1 polarization (TNFα, iNOS and CD86) and M2 polarization markers (CD206, CD163 and IL‐4) in BMDMs ( n = 3). (U, V) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. ns p ≥ 0.05, ** p < 0.01, *** p < 0.001. One‐way ANOVA test or two‐way ANOVA test was used for multivariate analysis. Unpaired t‐tests were used for the comparison of two groups.

Article Snippet: All the data were analyzed using FLowJo‐v10.8.1 flow cytometry analysis software (TreeStar, USA).

Techniques: Flow Cytometry, Derivative Assay, Immunostaining, Incubation, Quantitative RT-PCR, Expressing, Comparison

Migrasome‐associated nanoparticles (MANPs) promote macrophage phagocytosis and M2 polarization. A) TEM image of OS tissue in BALB/c mice ( n = 3). Red arrow points to MANPs. Low magnification: scale bars = 4 µm; high magnification: scale bars = 250 nm. B) Immunostaining images of RAB8a (red), TSPAN4‐EGFP + OS cells (green) and DAPI (blue) in OS tissue of BALB/c mice ( n = 3). White arrows point to MANPs. Scale bars = 3 µm. C) Immunostaining images of WGA labelled OS cells ( n = 3). Low magnification: scale bars = 10 µm; high magnification: scale bars = 1 µm. D) SEM images of OS cells ( n = 3). Low magnification: scale bars = 50 µm; high magnification: scale bars = 1 µm. E) Representative TEM images of purified migrasome by negative staining ( n = 3). Low magnification: scale bars = 500 nm; high magnification: scale bars = 200 nm. F) Representative TEM images of purified migrasomes by ultra‐thin section ( n = 3). G) Confocal time series images of WGA (green) labelled OS cells ( n = 3). White arrows point to the migrasome releasing the MANPs. Low magnification: scale bars = 10 µm; high magnification: scale bars = 2 µm. H) WB analysis of isolated MANPs with the indicated antibodies ( n = 3). I) Representative TEM images of purified MANPs by negative staining ( n = 3). J) Nanoparticle tracking analysis (NTA) of purified MANPs ( n = 3). K) Representative immunostaining images of BMDMs phagocytosis of MANPs (red) ( n = 3). Low magnification: scale bars = 20 µm; high magnification: scale bars = 10 µm. L‐O) BMDMs treated with PBS or 10 µg mL −1 MANPs for 24 h. (L, M) Representative immunostaining images and quantitative analysis of BMDMs phagocytosis of microbeads ( n = 3). (N, O) Flow cytometry analysis of the proportion of BMDMs that phagocytose apoptotic OS cells and quantitative analysis ( n = 3). P‐R) BMDMs treated with PBS or 10 µg mL −1 MANPs for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (P) qRT‐PCR analysis of the expression of M1 and M2 polarization markers in BMDMs ( n = 3). (Q, R) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. ** p < 0.01, *** p < 0.001. Unpaired t‐tests were used for the comparison of two groups.

Journal: Advanced Science

Article Title: Osteosarcoma Cell‐Derived Migrasomes Promote Macrophage M2 Polarization to Aggravate Osteosarcoma Proliferation and Metastasis

doi: 10.1002/advs.202409870

Figure Lengend Snippet: Migrasome‐associated nanoparticles (MANPs) promote macrophage phagocytosis and M2 polarization. A) TEM image of OS tissue in BALB/c mice ( n = 3). Red arrow points to MANPs. Low magnification: scale bars = 4 µm; high magnification: scale bars = 250 nm. B) Immunostaining images of RAB8a (red), TSPAN4‐EGFP + OS cells (green) and DAPI (blue) in OS tissue of BALB/c mice ( n = 3). White arrows point to MANPs. Scale bars = 3 µm. C) Immunostaining images of WGA labelled OS cells ( n = 3). Low magnification: scale bars = 10 µm; high magnification: scale bars = 1 µm. D) SEM images of OS cells ( n = 3). Low magnification: scale bars = 50 µm; high magnification: scale bars = 1 µm. E) Representative TEM images of purified migrasome by negative staining ( n = 3). Low magnification: scale bars = 500 nm; high magnification: scale bars = 200 nm. F) Representative TEM images of purified migrasomes by ultra‐thin section ( n = 3). G) Confocal time series images of WGA (green) labelled OS cells ( n = 3). White arrows point to the migrasome releasing the MANPs. Low magnification: scale bars = 10 µm; high magnification: scale bars = 2 µm. H) WB analysis of isolated MANPs with the indicated antibodies ( n = 3). I) Representative TEM images of purified MANPs by negative staining ( n = 3). J) Nanoparticle tracking analysis (NTA) of purified MANPs ( n = 3). K) Representative immunostaining images of BMDMs phagocytosis of MANPs (red) ( n = 3). Low magnification: scale bars = 20 µm; high magnification: scale bars = 10 µm. L‐O) BMDMs treated with PBS or 10 µg mL −1 MANPs for 24 h. (L, M) Representative immunostaining images and quantitative analysis of BMDMs phagocytosis of microbeads ( n = 3). (N, O) Flow cytometry analysis of the proportion of BMDMs that phagocytose apoptotic OS cells and quantitative analysis ( n = 3). P‐R) BMDMs treated with PBS or 10 µg mL −1 MANPs for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (P) qRT‐PCR analysis of the expression of M1 and M2 polarization markers in BMDMs ( n = 3). (Q, R) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. ** p < 0.01, *** p < 0.001. Unpaired t‐tests were used for the comparison of two groups.

Article Snippet: All the data were analyzed using FLowJo‐v10.8.1 flow cytometry analysis software (TreeStar, USA).

Techniques: Immunostaining, Purification, Negative Staining, Isolation, Flow Cytometry, Incubation, Quantitative RT-PCR, Expressing, Comparison

OCDMs promote macrophage phagocytosis and M2 polarization via MANPs. A) Representative TEM images of purified migrasomes by ultra‐thin section ( n = 3). Scale bars = 500 nm. B) Immunostaining images of WGA labelled OS cells, with magnified images of migrasome and young migrasome on the right ( n = 3). White arrows point to the migrasome and the young migrasome. Low magnification: scale bars = 10 µm; high magnification: scale bars = 1 µm. C) SEM images of OS cells ( n = 3). Red arrows point to young migrasomes. Low magnification: scale bars = 10 µm; high magnification: scale bars = 500 nm. D) Schematic diagram of migrasomes, MANPs and young migrasomes purification (created with BioRender.com). E) Representative TEM images of purified young migrasomes by negative staining ( n = 3). Scale bars = 200 nm. F) Representative TEM images of purified young migrasomes by ultra‐thin section ( n = 3). Scale bars = 200 nm. G) Representative immunostaining images of BMDMs phagocytosis of young migrasomes (red) ( n = 3). Scale bars = 10 µm. H‐K) BMDMs treated with 10 µg mL −1 migrasomes or young migrasomes for 24 h. (H, I) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Low magnification: scale bars = 100 µm; high magnification: scale bars = 50 µm. (J, K) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). L‐N) BMDMs treated with 10 µg mL −1 migrasomes or young migrasomes for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (L) qRT‐PCR analysis of the expression of M1 polarization and M2 polarization markers in BMDMs ( n = 3). (M, N) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. ** p < 0.01, *** p < 0.001. Unpaired t‐tests were used for the comparison of two groups.

Journal: Advanced Science

Article Title: Osteosarcoma Cell‐Derived Migrasomes Promote Macrophage M2 Polarization to Aggravate Osteosarcoma Proliferation and Metastasis

doi: 10.1002/advs.202409870

Figure Lengend Snippet: OCDMs promote macrophage phagocytosis and M2 polarization via MANPs. A) Representative TEM images of purified migrasomes by ultra‐thin section ( n = 3). Scale bars = 500 nm. B) Immunostaining images of WGA labelled OS cells, with magnified images of migrasome and young migrasome on the right ( n = 3). White arrows point to the migrasome and the young migrasome. Low magnification: scale bars = 10 µm; high magnification: scale bars = 1 µm. C) SEM images of OS cells ( n = 3). Red arrows point to young migrasomes. Low magnification: scale bars = 10 µm; high magnification: scale bars = 500 nm. D) Schematic diagram of migrasomes, MANPs and young migrasomes purification (created with BioRender.com). E) Representative TEM images of purified young migrasomes by negative staining ( n = 3). Scale bars = 200 nm. F) Representative TEM images of purified young migrasomes by ultra‐thin section ( n = 3). Scale bars = 200 nm. G) Representative immunostaining images of BMDMs phagocytosis of young migrasomes (red) ( n = 3). Scale bars = 10 µm. H‐K) BMDMs treated with 10 µg mL −1 migrasomes or young migrasomes for 24 h. (H, I) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Low magnification: scale bars = 100 µm; high magnification: scale bars = 50 µm. (J, K) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). L‐N) BMDMs treated with 10 µg mL −1 migrasomes or young migrasomes for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (L) qRT‐PCR analysis of the expression of M1 polarization and M2 polarization markers in BMDMs ( n = 3). (M, N) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. ** p < 0.01, *** p < 0.001. Unpaired t‐tests were used for the comparison of two groups.

Article Snippet: All the data were analyzed using FLowJo‐v10.8.1 flow cytometry analysis software (TreeStar, USA).

Techniques: Purification, Immunostaining, Negative Staining, Flow Cytometry, Incubation, Quantitative RT-PCR, Expressing, Comparison

MANPs promote macrophage phagocytosis and M2 polarization via Milk fat globule‐EGF factor 8 (MFGE8). A‐H) 4D proteome sequencing analysis of cell body, migrasome and MANP. (A‐D) Heatmaps and volcano plots of DEGs in protein‑seq analysis of cell body, migrasome and MANP ( n = 3). (E, F) Heatmaps of TSPAN proteins, integrin proteins, and histones in cell body, migrasome and MANP ( n = 3). (G) Venn diagram showing proteins co‐enriched by migrasomes and MANPs. (H) Relative expression of MFGE8 in cell body, migrasome and MANP ( n = 3). I) Immunostaining images of WGA (green) and MFGE8 (red) in OS cells ( n = 3). Magnified images of migrasomes and MANPs are shown on the right. Low magnification: scale bars = 10 µm; high magnification: scale bars = 1 µm. J,K) qRT‐PCR and WB analysis of MFGE8 knockdown efficiency in K7M2 wt cells ( n = 3). L,M) WB analysis of MFGE8 knockdown efficiency in migrasomes and MANPs ( n = 3). N‐Q) BMDMs treated with 10 µg mL −1 sh‐NC MANPs or sh‐MFGE8 MANPs for 24 h. (N, O) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Low magnification: scale bars = 100 µm; high magnification: scale bars = 50 µm. (P, Q) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). R‐T) BMDMs treated with 10 µg mL −1 sh‐NC MANPs or sh‐MFGE8 MANPs for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (R) qRT‐PCR analysis of the expression of M1 polarization and M2 polarization markers in BMDMs ( n = 3). (S, T) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. * p < 0.05, ** p < 0.01, *** p < 0.001. One‐way ANOVA test or two‐way ANOVA test was used for multivariate analysis. Unpaired t‐tests were used for the comparison of two groups.

Journal: Advanced Science

Article Title: Osteosarcoma Cell‐Derived Migrasomes Promote Macrophage M2 Polarization to Aggravate Osteosarcoma Proliferation and Metastasis

doi: 10.1002/advs.202409870

Figure Lengend Snippet: MANPs promote macrophage phagocytosis and M2 polarization via Milk fat globule‐EGF factor 8 (MFGE8). A‐H) 4D proteome sequencing analysis of cell body, migrasome and MANP. (A‐D) Heatmaps and volcano plots of DEGs in protein‑seq analysis of cell body, migrasome and MANP ( n = 3). (E, F) Heatmaps of TSPAN proteins, integrin proteins, and histones in cell body, migrasome and MANP ( n = 3). (G) Venn diagram showing proteins co‐enriched by migrasomes and MANPs. (H) Relative expression of MFGE8 in cell body, migrasome and MANP ( n = 3). I) Immunostaining images of WGA (green) and MFGE8 (red) in OS cells ( n = 3). Magnified images of migrasomes and MANPs are shown on the right. Low magnification: scale bars = 10 µm; high magnification: scale bars = 1 µm. J,K) qRT‐PCR and WB analysis of MFGE8 knockdown efficiency in K7M2 wt cells ( n = 3). L,M) WB analysis of MFGE8 knockdown efficiency in migrasomes and MANPs ( n = 3). N‐Q) BMDMs treated with 10 µg mL −1 sh‐NC MANPs or sh‐MFGE8 MANPs for 24 h. (N, O) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Low magnification: scale bars = 100 µm; high magnification: scale bars = 50 µm. (P, Q) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). R‐T) BMDMs treated with 10 µg mL −1 sh‐NC MANPs or sh‐MFGE8 MANPs for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (R) qRT‐PCR analysis of the expression of M1 polarization and M2 polarization markers in BMDMs ( n = 3). (S, T) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). Results were shown as mean ± SD. * p < 0.05, ** p < 0.01, *** p < 0.001. One‐way ANOVA test or two‐way ANOVA test was used for multivariate analysis. Unpaired t‐tests were used for the comparison of two groups.

Article Snippet: All the data were analyzed using FLowJo‐v10.8.1 flow cytometry analysis software (TreeStar, USA).

Techniques: Sequencing, Expressing, Immunostaining, Quantitative RT-PCR, Knockdown, Flow Cytometry, Incubation, Comparison

OCDMs promote OS progression through MFGE8. A‐D) BMDMs treated with 10 µg mL −1 sh‐NC migrasomes or sh‐MFGE8 migrasomes for 24 h. (A, B) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Low magnification: scale bars = 100 µm; high magnification: scale bars = 50 µm. (C, D) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). E‐G) BMDMs treated with 10 µg mL −1 sh‐NC migrasomes or sh‐MFGE8 migrasomes for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (E) qRT‐PCR analysis of the expression of M1 polarization and M2 polarization markers in BMDMs ( n = 3). (F, G) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). H‐W) After tibia injection of OS cells, mice were treated with sh‐NC migrasomes or sh‐MFGE8 migrasomes. (H) Schematic diagram of animal experiment (created with BioRender.com). (I) Representative images of tumors ( n = 6). (J) Quantification of tumor volumes ( n = 6). (K) Quantification of tumor and bone weight ( n = 6). (L, M) Representative HE staining images and quantitative analysis of pulmonary metastatic nodules ( n = 6). Scale bars = 500 µm. (N‐W) Representative IHC images and quantitative analysis of Ki67, Vimentin and E‐cadherin in tumor sections ( n = 6). Scale bars = 100 µm. Results were shown as mean ± SD. ** p < 0.01, *** p < 0.001. One‐way ANOVA test or two‐way ANOVA test was used for multivariate analysis. Unpaired t‐tests were used for the comparison of two groups.

Journal: Advanced Science

Article Title: Osteosarcoma Cell‐Derived Migrasomes Promote Macrophage M2 Polarization to Aggravate Osteosarcoma Proliferation and Metastasis

doi: 10.1002/advs.202409870

Figure Lengend Snippet: OCDMs promote OS progression through MFGE8. A‐D) BMDMs treated with 10 µg mL −1 sh‐NC migrasomes or sh‐MFGE8 migrasomes for 24 h. (A, B) Representative immunostaining images and quantitative analysis of BMDMs (red) phagocytosis of microbeads (green) ( n = 3). Low magnification: scale bars = 100 µm; high magnification: scale bars = 50 µm. (C, D) Flow cytometry analysis of the proportion of BMDMs (APC) that phagocytose apoptotic OS cells (CFSE) and quantitative analysis ( n = 3). E‐G) BMDMs treated with 10 µg mL −1 sh‐NC migrasomes or sh‐MFGE8 migrasomes for 24 h, followed by co‐incubation with apoptotic OS cells for 24 h. (E) qRT‐PCR analysis of the expression of M1 polarization and M2 polarization markers in BMDMs ( n = 3). (F, G) Flow cytometry analysis of the proportion of M2‐type macrophages and quantitative analysis ( n = 3). H‐W) After tibia injection of OS cells, mice were treated with sh‐NC migrasomes or sh‐MFGE8 migrasomes. (H) Schematic diagram of animal experiment (created with BioRender.com). (I) Representative images of tumors ( n = 6). (J) Quantification of tumor volumes ( n = 6). (K) Quantification of tumor and bone weight ( n = 6). (L, M) Representative HE staining images and quantitative analysis of pulmonary metastatic nodules ( n = 6). Scale bars = 500 µm. (N‐W) Representative IHC images and quantitative analysis of Ki67, Vimentin and E‐cadherin in tumor sections ( n = 6). Scale bars = 100 µm. Results were shown as mean ± SD. ** p < 0.01, *** p < 0.001. One‐way ANOVA test or two‐way ANOVA test was used for multivariate analysis. Unpaired t‐tests were used for the comparison of two groups.

Article Snippet: All the data were analyzed using FLowJo‐v10.8.1 flow cytometry analysis software (TreeStar, USA).

Techniques: Immunostaining, Flow Cytometry, Incubation, Quantitative RT-PCR, Expressing, Injection, Staining, Comparison

Functional analyses of the ancestral and variant genotypes of the CTLA-4 c.-1577G>A. Analysis of CTLA-4 gene expression in peripheral blood of patients with cutaneous melanoma ( A ). Gene expression was higher in patients with AA genotype than in those with GG genotype. Relative luciferase activity in SK-MEL-28 and A-375 melanoma cell lines transfected with the ancestral plasmid (GG genotype) or with the variant plasmid (AA genotype) ( B ). Luciferase activity was higher in cells with AA genotype than in cells with GG genotype. Assessment of the cell cycle in strains modified to present ancestral and variant genotypes ( C ). Cells were identified in the G1, S, and G2 phases using flow cytometry. A higher percentage of SK-MEL-28 cells with the GG genotype was found in the G1 phase compared to those with the AA genotype *, and a higher percentage of SK-MEL-28 cells with the AA genotype was found in S phase compared to those with GG genotype **; a similar percentage of A-375 cells were seen in the G1, S, and G2 phases. Cell proliferation in SK-MEL-28 and A-375 melanoma cell lines ( D ). A higher percentage of SK-MEL-28 and A-375 cells with AA genotype was found in proliferation when compared to those with the GG genotype. Analysis of the assessment of apoptosis and necrosis by flow cytometry with stimulation of the immunotherapy drug ipilimumab ( E ). A higher percentage of SK-MEL-28 cells with GG genotype was found in necrosis compared to those with the AA genotype *; a higher percentage of cells with the AA genotype were alive compared to those with the GG genotype **; the A-375 cells with the GG genotype were in initial apoptosis when compared to cells with the AA genotype.

Journal: International Journal of Molecular Sciences

Article Title: Association of Cytotoxic T-Lymphocyte Antigen-4 ( CTLA-4 ) Genetic Variants with Risk and Outcome of Cutaneous Melanoma

doi: 10.3390/ijms252212327

Figure Lengend Snippet: Functional analyses of the ancestral and variant genotypes of the CTLA-4 c.-1577G>A. Analysis of CTLA-4 gene expression in peripheral blood of patients with cutaneous melanoma ( A ). Gene expression was higher in patients with AA genotype than in those with GG genotype. Relative luciferase activity in SK-MEL-28 and A-375 melanoma cell lines transfected with the ancestral plasmid (GG genotype) or with the variant plasmid (AA genotype) ( B ). Luciferase activity was higher in cells with AA genotype than in cells with GG genotype. Assessment of the cell cycle in strains modified to present ancestral and variant genotypes ( C ). Cells were identified in the G1, S, and G2 phases using flow cytometry. A higher percentage of SK-MEL-28 cells with the GG genotype was found in the G1 phase compared to those with the AA genotype *, and a higher percentage of SK-MEL-28 cells with the AA genotype was found in S phase compared to those with GG genotype **; a similar percentage of A-375 cells were seen in the G1, S, and G2 phases. Cell proliferation in SK-MEL-28 and A-375 melanoma cell lines ( D ). A higher percentage of SK-MEL-28 and A-375 cells with AA genotype was found in proliferation when compared to those with the GG genotype. Analysis of the assessment of apoptosis and necrosis by flow cytometry with stimulation of the immunotherapy drug ipilimumab ( E ). A higher percentage of SK-MEL-28 cells with GG genotype was found in necrosis compared to those with the AA genotype *; a higher percentage of cells with the AA genotype were alive compared to those with the GG genotype **; the A-375 cells with the GG genotype were in initial apoptosis when compared to cells with the AA genotype.

Article Snippet: The intensity of 7-AAD labeling and separation of cell cycle phases G1, S, and G2 were analyzed by the FCS Express Flow software Cytometry Analysis ( https://denovosoftware.com/ ) (Thermo Fisher Scientific, Waltham, MA, USA).

Techniques: Functional Assay, Variant Assay, Gene Expression, Luciferase, Activity Assay, Transfection, Plasmid Preparation, Modification, Flow Cytometry

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