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p bursaria cells  (MedChemExpress)


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    MedChemExpress p bursaria cells
    (A) Pie and bar charts showing the proportion and number of each lipid class identified in isolated lipid droplets. (B) Heatmap of Pearson correlation coefficient matrix of lipidomic profiles showing distinct clustering of four biological replicates from symbiotic and aposymbiotic P. <t>bursaria</t> lipid droplets, G: symbiotic, W: aposymbiotic. (C) Fold-change comparison of total lipid abundance between symbiotic and aposymbiotic P. bursaria lipid droplets. (D) Distribution of lipid class abundance in symbiotic and aposymbiotic P. bursaria lipid droplets, DK2g: symbiotic, DK2w: aposymbiotic. (E) Differential abundance of individual lipid species between symbiotic and aposymbiotic P. bursaria lipid droplets.
    P Bursaria Cells, supplied by MedChemExpress, used in various techniques. Bioz Stars score: 93/100, based on 2 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/hy-n1446s2/Oleic+acid-13C18/bio_rxiv__2025__11__27__690892-222-0-12
    Average 93 stars, based on 2 article reviews
    p bursaria cells - by Bioz Stars, 2026-10
    93/100 stars

    Images

    1) Product Images from "Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis"

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis

    Journal: bioRxiv

    doi: 10.1101/2025.11.27.690892

    (A) Pie and bar charts showing the proportion and number of each lipid class identified in isolated lipid droplets. (B) Heatmap of Pearson correlation coefficient matrix of lipidomic profiles showing distinct clustering of four biological replicates from symbiotic and aposymbiotic P. bursaria lipid droplets, G: symbiotic, W: aposymbiotic. (C) Fold-change comparison of total lipid abundance between symbiotic and aposymbiotic P. bursaria lipid droplets. (D) Distribution of lipid class abundance in symbiotic and aposymbiotic P. bursaria lipid droplets, DK2g: symbiotic, DK2w: aposymbiotic. (E) Differential abundance of individual lipid species between symbiotic and aposymbiotic P. bursaria lipid droplets.
    Figure Legend Snippet: (A) Pie and bar charts showing the proportion and number of each lipid class identified in isolated lipid droplets. (B) Heatmap of Pearson correlation coefficient matrix of lipidomic profiles showing distinct clustering of four biological replicates from symbiotic and aposymbiotic P. bursaria lipid droplets, G: symbiotic, W: aposymbiotic. (C) Fold-change comparison of total lipid abundance between symbiotic and aposymbiotic P. bursaria lipid droplets. (D) Distribution of lipid class abundance in symbiotic and aposymbiotic P. bursaria lipid droplets, DK2g: symbiotic, DK2w: aposymbiotic. (E) Differential abundance of individual lipid species between symbiotic and aposymbiotic P. bursaria lipid droplets.

    Techniques Used: Isolation, Comparison

    Fold-change comparison of the abundance of each lipid class between symbiotic and aposymbiotic P. bursaria lipid droplets.
    Figure Legend Snippet: Fold-change comparison of the abundance of each lipid class between symbiotic and aposymbiotic P. bursaria lipid droplets.

    Techniques Used: Comparison

    (A) Transmission electron microscopy (TEM) images and quantitative analysis showing an increase in lipid droplet size in symbiotic Chlorella cells compared to free-living Chlorella cells. FL: free-living, SM: symbiotic, *** p-value < 0.001, Mann-Whitney U test, n=30 cells (B) Nanoscale secondary ion mass spectrometry (NanoSIMS) images showing incorporation of 13C isotope signals into symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid and quantitative analysis showing an increase in 13C/12C ratio in symbiotic Chlorella cells compared to free-living Chlorella cells. *** p-value < 0.001, Mann-Whitney U test, n=30 cells. (C) Elemental analysis–isotope ratio mass spectrometry (EA–IRMS) results showing a significantly higher 13C atom percentage in symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid. *** p-value < 0.001, Student’s t-tests, 4 biological replicates.
    Figure Legend Snippet: (A) Transmission electron microscopy (TEM) images and quantitative analysis showing an increase in lipid droplet size in symbiotic Chlorella cells compared to free-living Chlorella cells. FL: free-living, SM: symbiotic, *** p-value < 0.001, Mann-Whitney U test, n=30 cells (B) Nanoscale secondary ion mass spectrometry (NanoSIMS) images showing incorporation of 13C isotope signals into symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid and quantitative analysis showing an increase in 13C/12C ratio in symbiotic Chlorella cells compared to free-living Chlorella cells. *** p-value < 0.001, Mann-Whitney U test, n=30 cells. (C) Elemental analysis–isotope ratio mass spectrometry (EA–IRMS) results showing a significantly higher 13C atom percentage in symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid. *** p-value < 0.001, Student’s t-tests, 4 biological replicates.

    Techniques Used: Transmission Assay, Electron Microscopy, MANN-WHITNEY, Mass Spectrometry, Labeling

    Lipid droplet enlargement observed in Paramecium bursaria after feeding with oleic acid, demonstrating incorporation of exogenous fatty acid into host lipid droplets.
    Figure Legend Snippet: Lipid droplet enlargement observed in Paramecium bursaria after feeding with oleic acid, demonstrating incorporation of exogenous fatty acid into host lipid droplets.

    Techniques Used:

    Related Articles

    Isolation:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Comparison:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Transmission Assay:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Electron Microscopy:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    MANN-WHITNEY:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Mass Spectrometry:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Labeling:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Tandem Mass Spectroscopy:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Capsules:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During

    Algae:

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis.

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis
    Article Snippet: PrePrint: for MS1 and 0.05 Da for MS/MS, with a retention-time tolerance of 0.5 min for lipids. A score cutoff of 75 was applied. P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours. For EA-IRMS analysis, algae within Paramecium were dried and weighed to the required mass, then enclosed in tin capsules for subsequent analysis. During



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    (A) Pie and bar charts showing the proportion and number of each lipid class identified in isolated lipid droplets. (B) Heatmap of Pearson correlation coefficient matrix of lipidomic profiles showing distinct clustering of four biological replicates from symbiotic and aposymbiotic P. <t>bursaria</t> lipid droplets, G: symbiotic, W: aposymbiotic. (C) Fold-change comparison of total lipid abundance between symbiotic and aposymbiotic P. bursaria lipid droplets. (D) Distribution of lipid class abundance in symbiotic and aposymbiotic P. bursaria lipid droplets, DK2g: symbiotic, DK2w: aposymbiotic. (E) Differential abundance of individual lipid species between symbiotic and aposymbiotic P. bursaria lipid droplets.
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    Image Search Results


    (A) Pie and bar charts showing the proportion and number of each lipid class identified in isolated lipid droplets. (B) Heatmap of Pearson correlation coefficient matrix of lipidomic profiles showing distinct clustering of four biological replicates from symbiotic and aposymbiotic P. bursaria lipid droplets, G: symbiotic, W: aposymbiotic. (C) Fold-change comparison of total lipid abundance between symbiotic and aposymbiotic P. bursaria lipid droplets. (D) Distribution of lipid class abundance in symbiotic and aposymbiotic P. bursaria lipid droplets, DK2g: symbiotic, DK2w: aposymbiotic. (E) Differential abundance of individual lipid species between symbiotic and aposymbiotic P. bursaria lipid droplets.

    Journal: bioRxiv

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis

    doi: 10.1101/2025.11.27.690892

    Figure Lengend Snippet: (A) Pie and bar charts showing the proportion and number of each lipid class identified in isolated lipid droplets. (B) Heatmap of Pearson correlation coefficient matrix of lipidomic profiles showing distinct clustering of four biological replicates from symbiotic and aposymbiotic P. bursaria lipid droplets, G: symbiotic, W: aposymbiotic. (C) Fold-change comparison of total lipid abundance between symbiotic and aposymbiotic P. bursaria lipid droplets. (D) Distribution of lipid class abundance in symbiotic and aposymbiotic P. bursaria lipid droplets, DK2g: symbiotic, DK2w: aposymbiotic. (E) Differential abundance of individual lipid species between symbiotic and aposymbiotic P. bursaria lipid droplets.

    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.

    Techniques: Isolation, Comparison

    Fold-change comparison of the abundance of each lipid class between symbiotic and aposymbiotic P. bursaria lipid droplets.

    Journal: bioRxiv

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis

    doi: 10.1101/2025.11.27.690892

    Figure Lengend Snippet: Fold-change comparison of the abundance of each lipid class between symbiotic and aposymbiotic P. bursaria lipid droplets.

    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.

    Techniques: Comparison

    (A) Transmission electron microscopy (TEM) images and quantitative analysis showing an increase in lipid droplet size in symbiotic Chlorella cells compared to free-living Chlorella cells. FL: free-living, SM: symbiotic, *** p-value < 0.001, Mann-Whitney U test, n=30 cells (B) Nanoscale secondary ion mass spectrometry (NanoSIMS) images showing incorporation of 13C isotope signals into symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid and quantitative analysis showing an increase in 13C/12C ratio in symbiotic Chlorella cells compared to free-living Chlorella cells. *** p-value < 0.001, Mann-Whitney U test, n=30 cells. (C) Elemental analysis–isotope ratio mass spectrometry (EA–IRMS) results showing a significantly higher 13C atom percentage in symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid. *** p-value < 0.001, Student’s t-tests, 4 biological replicates.

    Journal: bioRxiv

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis

    doi: 10.1101/2025.11.27.690892

    Figure Lengend Snippet: (A) Transmission electron microscopy (TEM) images and quantitative analysis showing an increase in lipid droplet size in symbiotic Chlorella cells compared to free-living Chlorella cells. FL: free-living, SM: symbiotic, *** p-value < 0.001, Mann-Whitney U test, n=30 cells (B) Nanoscale secondary ion mass spectrometry (NanoSIMS) images showing incorporation of 13C isotope signals into symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid and quantitative analysis showing an increase in 13C/12C ratio in symbiotic Chlorella cells compared to free-living Chlorella cells. *** p-value < 0.001, Mann-Whitney U test, n=30 cells. (C) Elemental analysis–isotope ratio mass spectrometry (EA–IRMS) results showing a significantly higher 13C atom percentage in symbiotic Chlorella cells after P. bursaria was fed with 13C-labeled oleic acid. *** p-value < 0.001, Student’s t-tests, 4 biological replicates.

    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.

    Techniques: Transmission Assay, Electron Microscopy, MANN-WHITNEY, Mass Spectrometry, Labeling

    Lipid droplet enlargement observed in Paramecium bursaria after feeding with oleic acid, demonstrating incorporation of exogenous fatty acid into host lipid droplets.

    Journal: bioRxiv

    Article Title: Host-derived lipid transfer and metabolic reprogramming in a ciliate–algal symbiosis

    doi: 10.1101/2025.11.27.690892

    Figure Lengend Snippet: Lipid droplet enlargement observed in Paramecium bursaria after feeding with oleic acid, demonstrating incorporation of exogenous fatty acid into host lipid droplets.

    Article Snippet: P. bursaria cells were fed with 0.1mM 13C-labeled oleic acid (13C18-oleic acid, MedChemExpress, Cat. HY-N1446S2) for 24 hours.

    Techniques: