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dvs intrinsic plus  (Surface Measurement Systems Ltd)


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    Surface Measurement Systems Ltd dvs intrinsic plus
    Dvs Intrinsic Plus, supplied by Surface Measurement Systems Ltd, used in various techniques. Bioz Stars score: 97/100, based on 670 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/dynamic/DVS+Intrinsic+PLUS/custom%40c-mc-14336%4042528214
    Average 97 stars, based on 670 article reviews
    dvs intrinsic plus - by Bioz Stars, 2026-10
    97/100 stars

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    Software:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Dynamic Vapor Sorption:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Adsorption:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Nuclear Magnetic Resonance:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Ubiquitin Proteomics:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    X-ray Diffraction:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Pore Size:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Infant Formula:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Saline:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °

    Evaporation:

    Article Title: Benchmarking CO2 Adsorbents for Direct Air Capture with an Amine-Grafted Metal–Organic Framework
    Article Snippet: arbon of glycine at 176.2 ppm relative to TMS. Dynamic Vapor Sorption (DVS) Measurements Dynamic CO2 uptake isotherms were gravimetrically recorded using a dynamic vapor sorption analyzer (DVS Carbon, Surface Measurement Systems) at 25 °C. Prior to measurements, ca. 10−20 mg samples were activated under high vacuum (<10−5 Torr) for 12 h, transferred to the DVS chamber, and further activated at 80 °



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    Spatiotemporally controlled tumor cell ablation in vitro. (A) Design of adenoviral vector for all‐in‐one delivery of PyroRACS. Expression cassettes for RACS and GSDMD NT were incorporated into a single adenoviral vector. ITR, inverted terminal repeat; pCMV, cytomegalovirus promoter; pCBH, CBH promoter; IRES, internal ribosome entry site. (B) Titer determination of the adenovirus encoding PyroRACS. Data are presented as mean ± SD; unpaired t ‐test, n = 3 independent replicates. PFU, plaque‐forming units. (C,D) Pyroptosis induction in bladder cancer cells. Bladder cancer cells 5637 and BIU87 were transduced with adenovirus at specified multiplicity of infection (MOI). Pyroptotic cells were stained with Annexin V‐FITC/PI 24 h post‐illumination (660 nm, 1 mW/cm 2 , 30 s). Cell death was quantified by flow cytometry. Representative fluorescence images of pyroptotic 5637 and BIU87 cells (C), scale bar: 20 µm. Flow cytometry quantification of pyroptotic cells (D); data are presented as mean ± SD, unpaired t ‐test, n = 4 biological replicates. (E,F) DAMPs release kinetics during pyroptosis. ATP (E) and LDH (F) levels in culture supernatants were quantified at indicated time points post‐illumination, with non‐illuminated cells serving as negative controls. Data are presented as mean ± SD (F); unpaired t ‐test, n = 4 biological replicates. RLU, relative luminescence units; LDH, lactate dehydrogenase. (G,H) Assessment of cytotoxicity under non‐induced conditions. Following adenoviral transduction, 5637 or BIU87 cells were cultured in the dark for 48 h. The levels of ATP (G) and LDH (H) in the culture supernatant were quantified, with non‐transduced cells (UT) as negative controls. Data: mean ± SD, n = 3 (5637) or 4 (BIU87) biological replicates. (I) Spatio‐specific pyroptosis induction. 5637 cells transduced with adenovirus at a MOI of 50. At 48 h post‐transduction, cells were illuminated through a custom‐designed striped photomask to induce localized cell death, followed by SYTOX Green staining 24 h post‐illumination (660 nm, 50 µW/cm 2 , 3 min). The upper panel shows the custom‐designed striped photomask used for patterned illumination. Scale bar: 1 mm; n = 2 independent experiments. (J) Light dose‐dependent pyroptosis induction. 5637 cells transduced with adenovirus at a MOI of 100. At 48 h post‐transduction, cells were illuminated (660 nm, 1 mW/cm 2 ) for the indicated durations. Cell death was quantified by flow cytometry 24 h after illumination. Data: mean ± SD; unpaired t ‐test, n = 3 biological replicates; * p < 0.05, ** p < 0.01, **** p < 0.0001.

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    Figure Lengend Snippet: Spatiotemporally controlled tumor cell ablation in vitro. (A) Design of adenoviral vector for all‐in‐one delivery of PyroRACS. Expression cassettes for RACS and GSDMD NT were incorporated into a single adenoviral vector. ITR, inverted terminal repeat; pCMV, cytomegalovirus promoter; pCBH, CBH promoter; IRES, internal ribosome entry site. (B) Titer determination of the adenovirus encoding PyroRACS. Data are presented as mean ± SD; unpaired t ‐test, n = 3 independent replicates. PFU, plaque‐forming units. (C,D) Pyroptosis induction in bladder cancer cells. Bladder cancer cells 5637 and BIU87 were transduced with adenovirus at specified multiplicity of infection (MOI). Pyroptotic cells were stained with Annexin V‐FITC/PI 24 h post‐illumination (660 nm, 1 mW/cm 2 , 30 s). Cell death was quantified by flow cytometry. Representative fluorescence images of pyroptotic 5637 and BIU87 cells (C), scale bar: 20 µm. Flow cytometry quantification of pyroptotic cells (D); data are presented as mean ± SD, unpaired t ‐test, n = 4 biological replicates. (E,F) DAMPs release kinetics during pyroptosis. ATP (E) and LDH (F) levels in culture supernatants were quantified at indicated time points post‐illumination, with non‐illuminated cells serving as negative controls. Data are presented as mean ± SD (F); unpaired t ‐test, n = 4 biological replicates. RLU, relative luminescence units; LDH, lactate dehydrogenase. (G,H) Assessment of cytotoxicity under non‐induced conditions. Following adenoviral transduction, 5637 or BIU87 cells were cultured in the dark for 48 h. The levels of ATP (G) and LDH (H) in the culture supernatant were quantified, with non‐transduced cells (UT) as negative controls. Data: mean ± SD, n = 3 (5637) or 4 (BIU87) biological replicates. (I) Spatio‐specific pyroptosis induction. 5637 cells transduced with adenovirus at a MOI of 50. At 48 h post‐transduction, cells were illuminated through a custom‐designed striped photomask to induce localized cell death, followed by SYTOX Green staining 24 h post‐illumination (660 nm, 50 µW/cm 2 , 3 min). The upper panel shows the custom‐designed striped photomask used for patterned illumination. Scale bar: 1 mm; n = 2 independent experiments. (J) Light dose‐dependent pyroptosis induction. 5637 cells transduced with adenovirus at a MOI of 100. At 48 h post‐transduction, cells were illuminated (660 nm, 1 mW/cm 2 ) for the indicated durations. Cell death was quantified by flow cytometry 24 h after illumination. Data: mean ± SD; unpaired t ‐test, n = 3 biological replicates; * p < 0.05, ** p < 0.01, **** p < 0.0001.

    Article Snippet: Cytotoxic lactate dehydrogenase (LDH) release dynamics were quantified using a commercial LDH assay kit (MCE, Cat. HY‐K1090) according to the manufacturer's instructions.

    Techniques: In Vitro, Plasmid Preparation, Expressing, Transduction, Infection, Staining, Flow Cytometry, Fluorescence, Cell Culture

    Molecular dynamics–based analyses of DPP4 and SGLT2: (a) root mean square fluctuation (RMSF), (b) dynamic cross-correlation matrix (DCCM), and (c) principal component analysis (PCA).

    Journal: Journal of Taibah University Medical Sciences

    Article Title: Computational discovery of fenugreek–paitan–turmeric (FPT) bioactive compounds targeting SGLT2 and DPP-4 for glucose homeostasis regulation

    doi: 10.1016/j.jtumed.2026.05.008

    Figure Lengend Snippet: Molecular dynamics–based analyses of DPP4 and SGLT2: (a) root mean square fluctuation (RMSF), (b) dynamic cross-correlation matrix (DCCM), and (c) principal component analysis (PCA).

    Article Snippet: Molecular dynamics–based analyses of DPP4 and SGLT2: (a) root mean square fluctuation (RMSF), (b) dynamic cross-correlation matrix (DCCM), and (c) principal component analysis (PCA).

    Techniques: