This profile is built from public research funding records (CIHR, NSERC and SSHRC). We have not imported them from a University of Alberta directory, so their publications, courses and email address may be missing. Find their university profile.
Research
Latest funding
- $340,000
Developing single-molecule mass photometry as a tool for discovering and characterising protein aggregation inhibitors
NSERC · 2023 · Principal investigator
- $956,250
Using engineered heterodimers to probe prion-like propagation of misfolding in SOD1
CIHR · 2022 · Nominated PI
- $940,950
Probing the role of mechanical rigidity in viral xrRNAs as the key to preventing their degradation by host RNases
CIHR · 2022 · Nominated PI
Developing single-molecule mass photometry as a tool for discovering and characterising protein aggregation inhibitors
Principal investigators: Woodside, Michael MT
Keywords: antibodies; drug discovery; kinetic modeling; light scattering; mass photometry; neurodegenerative disease; peptide inhibitors; protein aggregation; single-molecule biophysics; small-molecule inhibitors
Using engineered heterodimers to probe prion-like propagation of misfolding in SOD1
Principal investigators: Woodside, Michael T
Keywords: Amyotrophic Lateral Sclerosis (Als); Enzymatic Activity; Fluorescence Spectroscopy And Microscopy Of Aggregation; Misfolding Inhibitors; Pathogenic Mutations; Prion-Like Conversion; Protein Misfolding; Sandwich Elisa; Single-Molecule Force Spectroscopy; Superoxide Dismutase-1
Probing the role of mechanical rigidity in viral xrRNAs as the key to preventing their degradation by host RNases
Principal investigators: Woodside, Michael T
Keywords: Exoribonuclease-Resistant Rnas; Flaviviruses; Mechanical Resistance; Mutagenesis; Rna Folding; Rna Knots; Rnase Dynamics; Single-Molecule Force Spectroscopy; Subgenomic Rnas; Viral Pathogenicity
COVID-19 Variant Supplement - Targeting programmed ribosomal frameshifting as a therapeutic strategy against 2019-nCoV
Principal investigators: Woodside, Michael T; Tuszynski, Jack A
Keywords: Computational Ligand Docking; Coronavirus; Force Spectroscopy; High-Throughput In Silico Screening; Programmed Ribosomal Frameshifting; Rna Pseudoknot; Rna Structure; Rna-Ligand Binding; Structural Modeling
Single-molecule mass photometry to probe the competition between protein aggregation and native folding
Principal investigators: Woodside, Michael
Probing the conformational dynamics of the frameshift-stimulatory pseudoknot of SARS-CoV-2 at the single-molecule level.
Principal investigators: Munshi, Sneha
Keywords: -1 Programmed Frameshift In Virus; Binding Studies- Surface Plasmon Resonance; Enzymatic Assay; Single Molecule Studies - Optical Tweezers
Targeting programmed ribosomal frameshifting as a therapeutic strategy against 2019-nCoV
Principal investigators: Woodside, Michael T; Tuszynski, Jack A
Keywords: Computational Ligand Docking; Coronavirus; Force Spectroscopy; High-Throughput In Silico Screening; Programmed Ribosomal Frameshifting; Rna Pseudoknot; Rna Structure; Rna-Ligand Binding; Structural Modeling
Towards more effective therapeutics for neurodegeneration by understanding the mechanisms of prion strain adaptation
Principal investigators: Woodside, Michael
Keywords: protein folding and misfolding; neurodegeneration; prion strains; glycoproteins; single-molecule biophysics; chemical synthesis; force spectroscopy; prion propagation; post-translational modifications
Direct measurements of transition paths in the folding of single biomolecules using force spectroscopy
Principal investigators: Woodside, Michael
Understanding how incorrect structures form and propagate in the protein SOD1 linked ALS
Principal investigators: Scholl, Zackary N
Keywords: Als; Protein Folding; Sod1
From CIHR, NSERC and SSHRC funding decisions: CIHR since 2008, NSERC since 1991 and SSHRC since 1998, including their latest published competition results.
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