Duong Bui
@duongtbui.bsky.social
native mass spectrometry, glycobiology, SLOMO
Reposted by Duong Bui
Save the date for #GIA2026 (Nov. 5-6, 2026) which will feature free #glycotime talks by @carolynbertozzi.bskyverified.social , Dr. Mia Huang and more!
November 8, 2025 at 12:38 AM
Save the date for #GIA2026 (Nov. 5-6, 2026) which will feature free #glycotime talks by @carolynbertozzi.bskyverified.social , Dr. Mia Huang and more!
Inspired by Gary Van Berkel's work (DOI: 10.1016/S1044-0305(01)00264-1), we visualized flow using dyes, recorded videos with a smartphone camera, and analyzed grayscale intensity using MATLAB scripts.
July 15, 2025 at 4:47 PM
Inspired by Gary Van Berkel's work (DOI: 10.1016/S1044-0305(01)00264-1), we visualized flow using dyes, recorded videos with a smartphone camera, and analyzed grayscale intensity using MATLAB scripts.
Key findings:
Diffusion is the dominant force for mixing and, together with advection, drives bulk transport.
Differential electrophoretic motion contributes negligibly at typical nanoESI voltages.
Diffusion is the dominant force for mixing and, together with advection, drives bulk transport.
Differential electrophoretic motion contributes negligibly at typical nanoESI voltages.
July 15, 2025 at 4:47 PM
Key findings:
Diffusion is the dominant force for mixing and, together with advection, drives bulk transport.
Differential electrophoretic motion contributes negligibly at typical nanoESI voltages.
Diffusion is the dominant force for mixing and, together with advection, drives bulk transport.
Differential electrophoretic motion contributes negligibly at typical nanoESI voltages.
Using a custom dual-emitter setup and a panel of dyes varying in size and charge, our talented undergrad researcher, Simar Dhillon, dissected these processes.
July 15, 2025 at 4:47 PM
Using a custom dual-emitter setup and a panel of dyes varying in size and charge, our talented undergrad researcher, Simar Dhillon, dissected these processes.
While rooted in glycobiology, the concepts and workflows apply broadly to all types of biomolecular interactions.
🟢 We’re especially grateful to the University of Alberta for supporting open access, making this work freely available to the community.
🟢 We’re especially grateful to the University of Alberta for supporting open access, making this work freely available to the community.
June 30, 2025 at 4:57 PM
While rooted in glycobiology, the concepts and workflows apply broadly to all types of biomolecular interactions.
🟢 We’re especially grateful to the University of Alberta for supporting open access, making this work freely available to the community.
🟢 We’re especially grateful to the University of Alberta for supporting open access, making this work freely available to the community.
This paper outlines the fundamentals, challenges, and solutions for using nMS to study non-covalent biomolecular interactions. From basic binding assays to advanced troubleshooting strategies, we aimed to make this a go-to reference for the field.
June 30, 2025 at 4:57 PM
This paper outlines the fundamentals, challenges, and solutions for using nMS to study non-covalent biomolecular interactions. From basic binding assays to advanced troubleshooting strategies, we aimed to make this a go-to reference for the field.