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dynamic vapor sorption analyzer  (Surface Measurement Systems Ltd)


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    Surface Measurement Systems Ltd dynamic vapor sorption analyzer
    Dynamic Vapor Sorption Analyzer, supplied by Surface Measurement Systems Ltd, used in various techniques. Bioz Stars score: 97/100, based on 733 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/dynamic/DVS+Adventure/10__1021_slash_acsapm__6c03500-109-17-22
    Average 97 stars, based on 733 article reviews
    dynamic vapor sorption analyzer - by Bioz Stars, 2026-11
    97/100 stars

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    Related Articles

    Dynamic Vapor Sorption:

    Article Title: Tackling the “Stickies” Problem When Recycling Pressure-Sensitive Adhesives with Degradable, Hydrophilic Thioester Copolymer Networks
    Article Snippet: .. Dynamic Vapor Sorption (DVS).Water vapor sorption isotherms of polymers with varying PEGA:MA ratios were conducted using a dynamic vapor sorption analyzer (Adventure, Surface Measurement Systems, London, U.K.) fitted with stainless steel micromesh cone sample pans. .. A copolymer solution was cast into the pan to ensure a dry mass was between 5 and 10 mg after heating in a convection oven (Heratherm Oven, Thermo Scientific) for 3 min at 90 °C.

    Article Title: Optimizing iron-based metal-organic frameworks for adsorption water harvesting: A comparative evaluation of green and conventional MIL-100(Fe) synthesis
    Article Snippet: .. The water adsorption properties of both products (i.e., T-M100Fe and G-M100Fe) were studied by Dynamic Vapor Sorption analysis (DVS) using a DVS Vacuum analyser (Surface Measurement Systems, London, UK), equipped with a microbalance (precision of 0.1 μg) housed in a temperature-controlled chamber. ..

    Article Title: Structure-interaction-performance relationships in quercetin-based co-amorphous systems: insights from molecular simulations and experimental characterization.
    Article Snippet: Quercetin (QUE) has recently attracted increasing interest as a co-former in co-amorphous systems owing to its multiple hydrogen-bonding functionalities.. However, the relationship between its intermolecular interactions and co-amorphous performance remains poorly understood.. This study investigated the influence of co-former chemistry on the molecular interactions, stability, and aqueous performance of quercetin-based co-amorphous systems using arginine (ARG) and glutamic acid (GLU) as model amino acid co-formers.

    Article Title: Joule-heated regenerable carbon dioxide capture filter for demand-controlled ventilation in indoor applications
    Article Snippet: .. The H2O and CO2 co-adsorption behavior was characterized using a DVS-Carbon instrument (Surface Measurement Systems) at 25 °C with a dm/dt threshold of 0.005 % min-1. ..

    Article Title: Compositionally Engineered Carboxymethyl Cellulose‐Based Optical Fibers With Exceptionally Low Optical Loss and Quantitative Humidity Sensing
    Article Snippet: As the white light source has an emission tability of 0.01%/h and the Linkam humidity controller sensor ccuracy is 1.5% RH, the errors in humidity sensitivity were alculated with the propagation of uncertainty to be at most 4.0%. .. .10 Dynamic Vapor Sorption (DVS) Analysis he hygroscopicity of BOFs was measured using DVS with a VS Adventure from Surface Measurement Systems, with a aximum sample weight of 1.5 g and an experimental dynamic ange of 150 mg. ..

    Article Title: Three-fluid spray-drying vs. spray-freeze-drying of crosslinked alginate microspheres: Elucidating multiscale structure-property relationships for rational design.
    Article Snippet: Crosslinked alginate microspheres (CLAMs) are promising drug carriers, but conventional two-fluid atomization is limited by premix clogging and formulation complexity.. To address these limitations, this study employed a three-fluid atomization strategy to fabricate CLAMs via spray-drying and spray-freeze-drying, enabling elucidation of multiscale structure-property relationships.. With a three-fluid nozzle, sodium alginate and CaCl2⋅2H2O solutions were fed separately, enabling in situ crosslinking upon atomization.

    Article Title: Tortuosity-controlled water vapor transport in graphene oxide membranes
    Article Snippet: Graphene oxide (GO) membranes offer exceptional water vapor transport properties, yet their performance is highly sensitive to the structural characteristics of the constituent nanosheets.. We show that GO lateral size can be systematically tuned during Hummers' synthesis by varying the H2O2 quenching temperature.. Increasing the quenching temperature from 10 to 90 °C enlarges the lateral dimension of GO flakes from ~0.8 to ~2.8 m while surface chemistry and defect character show no consistent dependence on quenching temperature.

    Article Title: Upcycling Waste Bamboo Residues into Mechanically Enhanced TOCNF/Quaternized Cellulose Composite Films.
    Article Snippet: .. The moisture sorption behavior of the films was evaluated using a dynamic vapor sorption analyzer (DVS Intrinsic, Surface Measurement Systems, London, UK). ..

    Polymers:

    Article Title: Tackling the “Stickies” Problem When Recycling Pressure-Sensitive Adhesives with Degradable, Hydrophilic Thioester Copolymer Networks
    Article Snippet: .. Dynamic Vapor Sorption (DVS).Water vapor sorption isotherms of polymers with varying PEGA:MA ratios were conducted using a dynamic vapor sorption analyzer (Adventure, Surface Measurement Systems, London, U.K.) fitted with stainless steel micromesh cone sample pans. .. A copolymer solution was cast into the pan to ensure a dry mass was between 5 and 10 mg after heating in a convection oven (Heratherm Oven, Thermo Scientific) for 3 min at 90 °C.

    Adsorption:

    Article Title: Optimizing iron-based metal-organic frameworks for adsorption water harvesting: A comparative evaluation of green and conventional MIL-100(Fe) synthesis
    Article Snippet: .. The water adsorption properties of both products (i.e., T-M100Fe and G-M100Fe) were studied by Dynamic Vapor Sorption analysis (DVS) using a DVS Vacuum analyser (Surface Measurement Systems, London, UK), equipped with a microbalance (precision of 0.1 μg) housed in a temperature-controlled chamber. ..

    Analysis:

    Article Title: Optimizing iron-based metal-organic frameworks for adsorption water harvesting: A comparative evaluation of green and conventional MIL-100(Fe) synthesis
    Article Snippet: .. The water adsorption properties of both products (i.e., T-M100Fe and G-M100Fe) were studied by Dynamic Vapor Sorption analysis (DVS) using a DVS Vacuum analyser (Surface Measurement Systems, London, UK), equipped with a microbalance (precision of 0.1 μg) housed in a temperature-controlled chamber. ..

    Article Title: Compositionally Engineered Carboxymethyl Cellulose‐Based Optical Fibers With Exceptionally Low Optical Loss and Quantitative Humidity Sensing
    Article Snippet: As the white light source has an emission tability of 0.01%/h and the Linkam humidity controller sensor ccuracy is 1.5% RH, the errors in humidity sensitivity were alculated with the propagation of uncertainty to be at most 4.0%. .. .10 Dynamic Vapor Sorption (DVS) Analysis he hygroscopicity of BOFs was measured using DVS with a VS Adventure from Surface Measurement Systems, with a aximum sample weight of 1.5 g and an experimental dynamic ange of 150 mg. ..



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    Image Search Results


    a, Time-course analysis of E-cadherin and N-cadherin expression during neural tube formation. E- cadherin was initially broadly distributed but decreased in cells associated with the Matrigel region, whereas N-cadherin expression was initially weak and became apparent in cells on the Matrigel from day 6 onward. By day 10, the initially continuous monolayer had segregated into two distinct tissues corresponding to the surface ectoderm and neural tube. Scale bar, 50 μm. b, Three-dimensional imaging of tissues stained for N-cadherin, E-cadherin and cytokeratin 8. Section A–A′ shows an incompletely closed region, whereas section B–B′ shows a fully closed neural tube. Scale bar, 70 μm. c, Time-lapse imaging of actin dynamics from day 9 of culture (0 h) to day 10 (24 h). White arrows indicate actin-rich structures bridging the opposing tissue edges during closure. Scale bar, 30 μm. d, Myosin II distribution in the cell sheet during neural induction. Myosin II accumulated at the apical side of the cell sheet within the Matrigel-associated region. e, Distribution of SOX10 and ZIC1 before neural tube closure. Both markers were enriched at the boundary region between the neural and non- neural domains.

    Journal: bioRxiv

    Article Title: Engineering developmental transitions during human neurulation through modular integration of multimodal spatial cues

    doi: 10.64898/2026.10.07.757222

    Figure Lengend Snippet: a, Time-course analysis of E-cadherin and N-cadherin expression during neural tube formation. E- cadherin was initially broadly distributed but decreased in cells associated with the Matrigel region, whereas N-cadherin expression was initially weak and became apparent in cells on the Matrigel from day 6 onward. By day 10, the initially continuous monolayer had segregated into two distinct tissues corresponding to the surface ectoderm and neural tube. Scale bar, 50 μm. b, Three-dimensional imaging of tissues stained for N-cadherin, E-cadherin and cytokeratin 8. Section A–A′ shows an incompletely closed region, whereas section B–B′ shows a fully closed neural tube. Scale bar, 70 μm. c, Time-lapse imaging of actin dynamics from day 9 of culture (0 h) to day 10 (24 h). White arrows indicate actin-rich structures bridging the opposing tissue edges during closure. Scale bar, 30 μm. d, Myosin II distribution in the cell sheet during neural induction. Myosin II accumulated at the apical side of the cell sheet within the Matrigel-associated region. e, Distribution of SOX10 and ZIC1 before neural tube closure. Both markers were enriched at the boundary region between the neural and non- neural domains.

    Article Snippet: and Supplementary Video 4 show two-photon time-lapse imaging from day 9 to day 10, allowing visualization of actin dynamics by using SPY-actin (CY-SC202, Cytoskeleton Inc.) during surface ectoderm closure.

    Techniques: Analysis, Expressing, Imaging, Staining, Tissue