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fitc anti human itga6  (Miltenyi Biotec)


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    Miltenyi Biotec fitc anti human itga6
    Fitc Anti Human Itga6, supplied by Miltenyi Biotec, used in various techniques. Bioz Stars score: 94/100, based on 125 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/cd49f+fitc/CD49f+Antibody%2C+anti-human%2Fmouse%2C+FITC/pm41145463-333-18-21
    Average 94 stars, based on 125 article reviews
    fitc anti human itga6 - by Bioz Stars, 2026-09
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    Related Articles

    Flow Cytometry:

    Article Title: Soluble CD14 produced by bovine mammary epithelial cells modulates their response to full length LPS
    Article Snippet: .. Flow cytometry analysis of pbMEC and PS cells Antibodies used in the present study were CD14-PE-A750 (Bio-Rad, reference MCA1568P750, clone Tük4), CD45-PE (Bio-Rad, reference MCA2220PE, clone 1.11.32) and CD49F-FITC (Miltenyi Biotec, reference 130- 126-008). .. Viability dye eFluor 450 was included in all experiments (eBioscience, reference 65-0863).

    Article Title: Soluble CD14 produced by bovine mammary epithelial cells modulates their response to full length LPS.
    Article Snippet: .. Flow cytometry analysis of pbMEC and PS cells Antibodies used in the present study were CD14PE-AF750 (Bio-Rad, reference MCA1568P750, clone Tük4), CD45-PE (Bio-Rad, reference MCA2220PE, clone 1.11.32) and CD49F-FITC (Miltenyi Biotec, reference 130-126-008). .. Fixable Viability dye eFluor 450 was included in all experiments (eBioscience, reference 65–0863).

    Expressing:

    Article Title: The Role of Cancer and Somatic Stem Cells in the Anti-Inflammatory and Antitumor Effects of Aconitum baicalense Extract on Experimental Breast Cancer.
    Article Snippet: We studied the effects of the extract of the terrestrial part of Aconitum baicalense in BALB/c female mice at the early stages after the injection of N-methyl-N-nitrosourea (MNU).. The extract reduced inflammatory activity and tumor growth in the mammary gland.. The antitumor and anti-inflammatory effects of the extract are based on the inhibition of cancer stem cells, hematopoietic stem cells, and hematopoietic progenitor cells that promote inflammation.

    Membrane:

    Article Title: The Role of Cancer and Somatic Stem Cells in the Anti-Inflammatory and Antitumor Effects of Aconitum baicalense Extract on Experimental Breast Cancer.
    Article Snippet: We studied the effects of the extract of the terrestrial part of Aconitum baicalense in BALB/c female mice at the early stages after the injection of N-methyl-N-nitrosourea (MNU).. The extract reduced inflammatory activity and tumor growth in the mammary gland.. The antitumor and anti-inflammatory effects of the extract are based on the inhibition of cancer stem cells, hematopoietic stem cells, and hematopoietic progenitor cells that promote inflammation.

    Isolation:

    Article Title: The Role of Cancer and Somatic Stem Cells in the Anti-Inflammatory and Antitumor Effects of Aconitum baicalense Extract on Experimental Breast Cancer.
    Article Snippet: We studied the effects of the extract of the terrestrial part of Aconitum baicalense in BALB/c female mice at the early stages after the injection of N-methyl-N-nitrosourea (MNU).. The extract reduced inflammatory activity and tumor growth in the mammary gland.. The antitumor and anti-inflammatory effects of the extract are based on the inhibition of cancer stem cells, hematopoietic stem cells, and hematopoietic progenitor cells that promote inflammation.

    Bioprocessing:

    Article Title: The Role of Cancer and Somatic Stem Cells in the Anti-Inflammatory and Antitumor Effects of Aconitum baicalense Extract on Experimental Breast Cancer.
    Article Snippet: We studied the effects of the extract of the terrestrial part of Aconitum baicalense in BALB/c female mice at the early stages after the injection of N-methyl-N-nitrosourea (MNU).. The extract reduced inflammatory activity and tumor growth in the mammary gland.. The antitumor and anti-inflammatory effects of the extract are based on the inhibition of cancer stem cells, hematopoietic stem cells, and hematopoietic progenitor cells that promote inflammation.

    Software:

    Article Title: The Role of Cancer and Somatic Stem Cells in the Anti-Inflammatory and Antitumor Effects of Aconitum baicalense Extract on Experimental Breast Cancer.
    Article Snippet: We studied the effects of the extract of the terrestrial part of Aconitum baicalense in BALB/c female mice at the early stages after the injection of N-methyl-N-nitrosourea (MNU).. The extract reduced inflammatory activity and tumor growth in the mammary gland.. The antitumor and anti-inflammatory effects of the extract are based on the inhibition of cancer stem cells, hematopoietic stem cells, and hematopoietic progenitor cells that promote inflammation.



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    (A) The diagram shows the experimental design. MSCs were isolated from the bone marrow of non-diabetic (MSC-ND) and diabetic (MSC-DM) mice and then incubated with podocytes pre-exposed to advanced glycosylated end products-bovine serum albumin (AGEs)/vehicle. In selected experiments, MSC-DM were transfected with an adenovirus to overexpress Miro1 or a mock vector. (B) Isolated MSCs were positive for CD44, <t>CD49f,</t> SCA-1, and negative for CD45 as assessed by flow cytometry. (C) MSC were cultured in Mesencult Adipogenic Differentiation Medium for 7 days. Oil Red O staining revealed the presence of fat droplets in the cytosol, proving MSC differentiation into adipocytes. Magnification X400, scale bar 50 µm. (D) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM cells. Cells were stained with Alexa Fluor 488-WGA to reveal TNTs and the percentage of podocytes connected with MSCs via TNTs counted (n=3 *** P <0.001 AGEs-MSC-ND and AGEs-MSC-DM vs. vehicle-MSC-ND). (E) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.001 AGEs-MSC-ND vs. AGEs-MSC-DM and vehicle-MSC-ND). (F,G) Miro1 mRNA and protein expression was assessed in MSC-ND and MSC-DM cells by immunoblotting (internal control: tubulin) (n=3, ** P <0.01 MSC-DM vs. MSC-ND) and real-time PCR (housekeeping gene: GAPDH ) (n=3 ** P <0.01 MSC-DM vs. MSC-ND), respectively. (H) Miro1 mRNA levels were measured in MSC-ND exposed to vehicle, AGEs, and MCP1 for 24 h (n=3 *** P <0.01 MCP1 vs. vehicle, ** P <0.01 AGEs vs. vehicle) (I) MSC-DM were transfected with an adenovirus to overexpress Miro1 (MSC-DM-Miro) or a mock vector (MSC-DM-Mock) and efficiency of transfection assessed by measuring Miro1 mRNA by real-time PCR (n=3 ** P <0.01 DM-Mock vs. ND and DM-Miro1). (J) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND, MSC-DM-Miro or MSC-DM-Mock, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.01 DM-Mock vs. ND and DM-Miro1).
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    (A) The diagram shows the experimental design. MSCs were isolated from the bone marrow of non-diabetic (MSC-ND) and diabetic (MSC-DM) mice and then incubated with podocytes pre-exposed to advanced glycosylated end products-bovine serum albumin (AGEs)/vehicle. In selected experiments, MSC-DM were transfected with an adenovirus to overexpress Miro1 or a mock vector. (B) Isolated MSCs were positive for CD44, <t>CD49f,</t> SCA-1, and negative for CD45 as assessed by flow cytometry. (C) MSC were cultured in Mesencult Adipogenic Differentiation Medium for 7 days. Oil Red O staining revealed the presence of fat droplets in the cytosol, proving MSC differentiation into adipocytes. Magnification X400, scale bar 50 µm. (D) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM cells. Cells were stained with Alexa Fluor 488-WGA to reveal TNTs and the percentage of podocytes connected with MSCs via TNTs counted (n=3 *** P <0.001 AGEs-MSC-ND and AGEs-MSC-DM vs. vehicle-MSC-ND). (E) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.001 AGEs-MSC-ND vs. AGEs-MSC-DM and vehicle-MSC-ND). (F,G) Miro1 mRNA and protein expression was assessed in MSC-ND and MSC-DM cells by immunoblotting (internal control: tubulin) (n=3, ** P <0.01 MSC-DM vs. MSC-ND) and real-time PCR (housekeeping gene: GAPDH ) (n=3 ** P <0.01 MSC-DM vs. MSC-ND), respectively. (H) Miro1 mRNA levels were measured in MSC-ND exposed to vehicle, AGEs, and MCP1 for 24 h (n=3 *** P <0.01 MCP1 vs. vehicle, ** P <0.01 AGEs vs. vehicle) (I) MSC-DM were transfected with an adenovirus to overexpress Miro1 (MSC-DM-Miro) or a mock vector (MSC-DM-Mock) and efficiency of transfection assessed by measuring Miro1 mRNA by real-time PCR (n=3 ** P <0.01 DM-Mock vs. ND and DM-Miro1). (J) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND, MSC-DM-Miro or MSC-DM-Mock, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.01 DM-Mock vs. ND and DM-Miro1).
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    (A) The diagram shows the experimental design. MSCs were isolated from the bone marrow of non-diabetic (MSC-ND) and diabetic (MSC-DM) mice and then incubated with podocytes pre-exposed to advanced glycosylated end products-bovine serum albumin (AGEs)/vehicle. In selected experiments, MSC-DM were transfected with an adenovirus to overexpress Miro1 or a mock vector. (B) Isolated MSCs were positive for CD44, <t>CD49f,</t> SCA-1, and negative for CD45 as assessed by flow cytometry. (C) MSC were cultured in Mesencult Adipogenic Differentiation Medium for 7 days. Oil Red O staining revealed the presence of fat droplets in the cytosol, proving MSC differentiation into adipocytes. Magnification X400, scale bar 50 µm. (D) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM cells. Cells were stained with Alexa Fluor 488-WGA to reveal TNTs and the percentage of podocytes connected with MSCs via TNTs counted (n=3 *** P <0.001 AGEs-MSC-ND and AGEs-MSC-DM vs. vehicle-MSC-ND). (E) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.001 AGEs-MSC-ND vs. AGEs-MSC-DM and vehicle-MSC-ND). (F,G) Miro1 mRNA and protein expression was assessed in MSC-ND and MSC-DM cells by immunoblotting (internal control: tubulin) (n=3, ** P <0.01 MSC-DM vs. MSC-ND) and real-time PCR (housekeeping gene: GAPDH ) (n=3 ** P <0.01 MSC-DM vs. MSC-ND), respectively. (H) Miro1 mRNA levels were measured in MSC-ND exposed to vehicle, AGEs, and MCP1 for 24 h (n=3 *** P <0.01 MCP1 vs. vehicle, ** P <0.01 AGEs vs. vehicle) (I) MSC-DM were transfected with an adenovirus to overexpress Miro1 (MSC-DM-Miro) or a mock vector (MSC-DM-Mock) and efficiency of transfection assessed by measuring Miro1 mRNA by real-time PCR (n=3 ** P <0.01 DM-Mock vs. ND and DM-Miro1). (J) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND, MSC-DM-Miro or MSC-DM-Mock, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.01 DM-Mock vs. ND and DM-Miro1).
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    A) Schematic of the strategy to test the effects of DDR1i on breast TDLU organogenesis. Inhibition during induction began with DDR1i treatment starting at day 0 and concluded when control structures were fully formed no later than day 28. Inhibition during patterning started with DDR1i beginning day 7 and concluding around day 28. B) Quantification of the types of organoids that formed following DDR1i treatment during induction. Data presented as Mean ± SD (n= 4 gels/primary patient samples). C) Representative immunofluorescence staining of organoids from control or DDR1 inhibitor-treated gels, with treatment initiated during the induction phase of organoid formation. CK14 (green), and E-Cadherin (orange), and DAPI (blue) staining. Scale bar = 200 μm. D) Quantification of the types of organoids formed in DDR1i treated cultures beginning during patterning. Data presented as Mean ± SD (n= 4 gels/primary patient samples). E) Representative immunofluorescence staining of organoids from control or DDR1i treated gels initiated during the patterning phase of organoid formation. CK14 (green), and E-Cadherin (orange), DAPI (blue) staining. Scale bar = 200 μm. F) Representative flow cytometry plot analysis of basal <t>(CD49f)</t> and luminal (Epcam) cells (FACS) (i) and quantification of mean fluorescent intensity (ii) from primary patient samples cultured in 3D, treated with DDR1i during patterning (n=3 primary samples, and values are expressed as Mean ± SD). Statistical significance was determined via multiple t-tests, with significance levels indicated as follows: *p-value < 0.05, **p-value < 0.01, ***p-value < 0.001, ****p-value < 0.0001.
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    (A) The diagram shows the experimental design. MSCs were isolated from the bone marrow of non-diabetic (MSC-ND) and diabetic (MSC-DM) mice and then incubated with podocytes pre-exposed to advanced glycosylated end products-bovine serum albumin (AGEs)/vehicle. In selected experiments, MSC-DM were transfected with an adenovirus to overexpress Miro1 or a mock vector. (B) Isolated MSCs were positive for CD44, CD49f, SCA-1, and negative for CD45 as assessed by flow cytometry. (C) MSC were cultured in Mesencult Adipogenic Differentiation Medium for 7 days. Oil Red O staining revealed the presence of fat droplets in the cytosol, proving MSC differentiation into adipocytes. Magnification X400, scale bar 50 µm. (D) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM cells. Cells were stained with Alexa Fluor 488-WGA to reveal TNTs and the percentage of podocytes connected with MSCs via TNTs counted (n=3 *** P <0.001 AGEs-MSC-ND and AGEs-MSC-DM vs. vehicle-MSC-ND). (E) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.001 AGEs-MSC-ND vs. AGEs-MSC-DM and vehicle-MSC-ND). (F,G) Miro1 mRNA and protein expression was assessed in MSC-ND and MSC-DM cells by immunoblotting (internal control: tubulin) (n=3, ** P <0.01 MSC-DM vs. MSC-ND) and real-time PCR (housekeeping gene: GAPDH ) (n=3 ** P <0.01 MSC-DM vs. MSC-ND), respectively. (H) Miro1 mRNA levels were measured in MSC-ND exposed to vehicle, AGEs, and MCP1 for 24 h (n=3 *** P <0.01 MCP1 vs. vehicle, ** P <0.01 AGEs vs. vehicle) (I) MSC-DM were transfected with an adenovirus to overexpress Miro1 (MSC-DM-Miro) or a mock vector (MSC-DM-Mock) and efficiency of transfection assessed by measuring Miro1 mRNA by real-time PCR (n=3 ** P <0.01 DM-Mock vs. ND and DM-Miro1). (J) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND, MSC-DM-Miro or MSC-DM-Mock, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.01 DM-Mock vs. ND and DM-Miro1).

    Journal: Clinical Science (London, England : 1979)

    Article Title: Protective effect of mesenchymal stromal cells in diabetic nephropathy: the In vitro and In vivo role of the M-Sec-tunneling nanotubes

    doi: 10.1042/CS20242064

    Figure Lengend Snippet: (A) The diagram shows the experimental design. MSCs were isolated from the bone marrow of non-diabetic (MSC-ND) and diabetic (MSC-DM) mice and then incubated with podocytes pre-exposed to advanced glycosylated end products-bovine serum albumin (AGEs)/vehicle. In selected experiments, MSC-DM were transfected with an adenovirus to overexpress Miro1 or a mock vector. (B) Isolated MSCs were positive for CD44, CD49f, SCA-1, and negative for CD45 as assessed by flow cytometry. (C) MSC were cultured in Mesencult Adipogenic Differentiation Medium for 7 days. Oil Red O staining revealed the presence of fat droplets in the cytosol, proving MSC differentiation into adipocytes. Magnification X400, scale bar 50 µm. (D) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM cells. Cells were stained with Alexa Fluor 488-WGA to reveal TNTs and the percentage of podocytes connected with MSCs via TNTs counted (n=3 *** P <0.001 AGEs-MSC-ND and AGEs-MSC-DM vs. vehicle-MSC-ND). (E) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND and MSC-DM, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.001 AGEs-MSC-ND vs. AGEs-MSC-DM and vehicle-MSC-ND). (F,G) Miro1 mRNA and protein expression was assessed in MSC-ND and MSC-DM cells by immunoblotting (internal control: tubulin) (n=3, ** P <0.01 MSC-DM vs. MSC-ND) and real-time PCR (housekeeping gene: GAPDH ) (n=3 ** P <0.01 MSC-DM vs. MSC-ND), respectively. (H) Miro1 mRNA levels were measured in MSC-ND exposed to vehicle, AGEs, and MCP1 for 24 h (n=3 *** P <0.01 MCP1 vs. vehicle, ** P <0.01 AGEs vs. vehicle) (I) MSC-DM were transfected with an adenovirus to overexpress Miro1 (MSC-DM-Miro) or a mock vector (MSC-DM-Mock) and efficiency of transfection assessed by measuring Miro1 mRNA by real-time PCR (n=3 ** P <0.01 DM-Mock vs. ND and DM-Miro1). (J) Podocytes labelled with CellTracker Blue were pre-exposed to AGEs/vehicle and then co-cultured with MSC-ND, MSC-DM-Miro or MSC-DM-Mock, carrying RFP-labelled mitochondria. The percentage of blue podocytes containing MSC-derived RFP-mitochondria (dually labelled podocytes) was quantified by flow cytometry (n=3 *** P <0.01 DM-Mock vs. ND and DM-Miro1).

    Article Snippet: Cells were subcultured until passage three and then characterised by flow cytometry using the following markers: FITC-CD44, FITC-SCA-1, FITC-CD49f, PE-CD45 (Thermo Fisher Scientific).

    Techniques: Isolation, Incubation, Transfection, Plasmid Preparation, Flow Cytometry, Cell Culture, Staining, Derivative Assay, Expressing, Western Blot, Control, Real-time Polymerase Chain Reaction

    A) Schematic of the strategy to test the effects of DDR1i on breast TDLU organogenesis. Inhibition during induction began with DDR1i treatment starting at day 0 and concluded when control structures were fully formed no later than day 28. Inhibition during patterning started with DDR1i beginning day 7 and concluding around day 28. B) Quantification of the types of organoids that formed following DDR1i treatment during induction. Data presented as Mean ± SD (n= 4 gels/primary patient samples). C) Representative immunofluorescence staining of organoids from control or DDR1 inhibitor-treated gels, with treatment initiated during the induction phase of organoid formation. CK14 (green), and E-Cadherin (orange), and DAPI (blue) staining. Scale bar = 200 μm. D) Quantification of the types of organoids formed in DDR1i treated cultures beginning during patterning. Data presented as Mean ± SD (n= 4 gels/primary patient samples). E) Representative immunofluorescence staining of organoids from control or DDR1i treated gels initiated during the patterning phase of organoid formation. CK14 (green), and E-Cadherin (orange), DAPI (blue) staining. Scale bar = 200 μm. F) Representative flow cytometry plot analysis of basal (CD49f) and luminal (Epcam) cells (FACS) (i) and quantification of mean fluorescent intensity (ii) from primary patient samples cultured in 3D, treated with DDR1i during patterning (n=3 primary samples, and values are expressed as Mean ± SD). Statistical significance was determined via multiple t-tests, with significance levels indicated as follows: *p-value < 0.05, **p-value < 0.01, ***p-value < 0.001, ****p-value < 0.0001.

    Journal: bioRxiv

    Article Title: DDR1 regulates RUNX1-CBFβ to control breast stem cell differentiation

    doi: 10.1101/2024.02.21.581255

    Figure Lengend Snippet: A) Schematic of the strategy to test the effects of DDR1i on breast TDLU organogenesis. Inhibition during induction began with DDR1i treatment starting at day 0 and concluded when control structures were fully formed no later than day 28. Inhibition during patterning started with DDR1i beginning day 7 and concluding around day 28. B) Quantification of the types of organoids that formed following DDR1i treatment during induction. Data presented as Mean ± SD (n= 4 gels/primary patient samples). C) Representative immunofluorescence staining of organoids from control or DDR1 inhibitor-treated gels, with treatment initiated during the induction phase of organoid formation. CK14 (green), and E-Cadherin (orange), and DAPI (blue) staining. Scale bar = 200 μm. D) Quantification of the types of organoids formed in DDR1i treated cultures beginning during patterning. Data presented as Mean ± SD (n= 4 gels/primary patient samples). E) Representative immunofluorescence staining of organoids from control or DDR1i treated gels initiated during the patterning phase of organoid formation. CK14 (green), and E-Cadherin (orange), DAPI (blue) staining. Scale bar = 200 μm. F) Representative flow cytometry plot analysis of basal (CD49f) and luminal (Epcam) cells (FACS) (i) and quantification of mean fluorescent intensity (ii) from primary patient samples cultured in 3D, treated with DDR1i during patterning (n=3 primary samples, and values are expressed as Mean ± SD). Statistical significance was determined via multiple t-tests, with significance levels indicated as follows: *p-value < 0.05, **p-value < 0.01, ***p-value < 0.001, ****p-value < 0.0001.

    Article Snippet: Samples were washed and stained with the antibodies CD49f-FITC (555736, BD Biosciences, GoH3, 1:20) and EPCAM-PE (347198, BD Biosciences, 1:20).

    Techniques: Inhibition, Immunofluorescence, Staining, Flow Cytometry, Cell Culture

    A) Quantification of the types of organoids that formed following RUNXi treatment during induction. Data presented as Mean ± SD (n= 4 gels/primary patient samples). B) Representative immunofluorescence staining of organoids from control or RUNX inhibitor-treated gels, with treatment initiated during the induction phase of organoid formation. CK14 (green), and E-Cadherin (orange), and DAPI (blue) staining. Scale bar = 200 μm. C) Quantification of the types of organoids that formed following RUNXi treatment during patterning (n= 4 gels/primary patient samples). Data presented as Mean ± SD. D) Representative immunofluorescence staining of organoids from control or RUNX inhibitor-treated gels, with treatment initiated during the induction phase of organoid formation. CK14 (green), and E-Cadherin (orange), and DAPI (blue) staining. Scale bar = 200 μm. E) Representative flow cytometry plot analysis of basal (CD49f) and luminal (Epcam) cells (FACS) (i) and quantification of mean fluorescent intensity (ii) from primary patient samples cultured in 3D, treated with RUNX inhibitor during patterning (n=3 primary samples). values are expressed as Mean ± SD. Statistical significance was assessed using multiple t-tests, with significance levels indicated as follows: *p-value < 0.05, **p-value < 0.01, ***p-value < 0.001, ****p-value < 0.0001.

    Journal: bioRxiv

    Article Title: DDR1 regulates RUNX1-CBFβ to control breast stem cell differentiation

    doi: 10.1101/2024.02.21.581255

    Figure Lengend Snippet: A) Quantification of the types of organoids that formed following RUNXi treatment during induction. Data presented as Mean ± SD (n= 4 gels/primary patient samples). B) Representative immunofluorescence staining of organoids from control or RUNX inhibitor-treated gels, with treatment initiated during the induction phase of organoid formation. CK14 (green), and E-Cadherin (orange), and DAPI (blue) staining. Scale bar = 200 μm. C) Quantification of the types of organoids that formed following RUNXi treatment during patterning (n= 4 gels/primary patient samples). Data presented as Mean ± SD. D) Representative immunofluorescence staining of organoids from control or RUNX inhibitor-treated gels, with treatment initiated during the induction phase of organoid formation. CK14 (green), and E-Cadherin (orange), and DAPI (blue) staining. Scale bar = 200 μm. E) Representative flow cytometry plot analysis of basal (CD49f) and luminal (Epcam) cells (FACS) (i) and quantification of mean fluorescent intensity (ii) from primary patient samples cultured in 3D, treated with RUNX inhibitor during patterning (n=3 primary samples). values are expressed as Mean ± SD. Statistical significance was assessed using multiple t-tests, with significance levels indicated as follows: *p-value < 0.05, **p-value < 0.01, ***p-value < 0.001, ****p-value < 0.0001.

    Article Snippet: Samples were washed and stained with the antibodies CD49f-FITC (555736, BD Biosciences, GoH3, 1:20) and EPCAM-PE (347198, BD Biosciences, 1:20).

    Techniques: Immunofluorescence, Staining, Flow Cytometry, Cell Culture