Research groups
- NUCREG: Mechanisms of gene regulation and molecular interactions
- Systems Biology and Translational Cell Signaling
- Molecular signaling and bioenergetics
- Translational Cell Signaling and Metabolism
Publications
Academic article
- Yang Lu; Li Tang; Øyvind Strømland et al. (2026). Reversible RNA ADP-ribosylation on uracil bases. (external link)
- Nina Đukić; Øyvind Strømland; Jonas Damgaard Elsborg et al. (2023). PARP14 is a PARP with both ADP-ribosyl transferase and hydrolase activities. (external link)
- Øyvind Strømland; Ørjan S. Handegård; Morten Andreas Govasli Larsen et al. (2017). Spectroscopic and AFM characterization of polypeptide-surface interactions: Controls and lipid quantitative analyses. (external link)
- Eugenio Ferrario; Juha Pekka Kallio; Mahdi Emdadi et al. (2024). Evolution of fungal tuberculosis necrotizing toxin (TNT) domain-containing enzymes reveals divergent adaptations to enhance NAD cleavage. (external link)
- Lena Elise Høyland; Magali R Van Linden; Marc Niere et al. (2024). Subcellular NAD+ pools are interconnected and buffered by mitochondrial NAD+. (external link)
- Olena Dobrovolska; Maxim Brilkov; Noëlly Madeleine et al. (2020). The Arabidopsis (ASHH2) CW domain binds monomethylated K4 of the histone H3 tail through conformational selection. (external link)
- Kang Zhu; Marcin J. Suskiewicz; Chatrin Chatrin et al. (2024). DELTEX E3 ligases ubiquitylate ADP-ribosyl modification on nucleic acids. (external link)
- Marcin J. Suskiewicz; Deeksha Munnur; Øyvind Strømland et al. (2023). Updated protein domain annotation of the PARP protein family sheds new light on biological function. (external link)
- Maxim Bril'kov; Olena Dobrovolska; Øyvind Ødegård-Fougner et al. (2022). Binding Specificity of ASHH2 CW Domain Toward H3K4me1 Ligand Is Coupled to Its Structural Stability Through Its α1-Helix. (external link)
- Eugenio Ferrario; Juha Pekka Kallio; Øyvind Strømland et al. (2023). Novel Calcium-Binding Motif Stabilizes and Increases the Activity of Aspergillus fumigatus Ecto-NADase. (external link)
- Olena Dobrovolska; Øyvind Strømland; Ørjan Sele Handegård et al. (2021). Investigating the Disordered and Membrane-Active Peptide A-Cage-C Using Conformational Ensembles. (external link)
- Suraj Sharma; Yin-Chen Hsieh; Jørn Dietze et al. (2022). Early Evolutionary Selection of NAD Biosynthesis Pathway in Bacteria. (external link)
- Hanzhen Wen; Øyvind Strømland; Øyvind Halskau (2015). α-lactalbumin: oleic acid complex spontaneously delivers oleic acid to artificial and erythrocyte membranes. (external link)
- Øyvind Strømland; Juha Pekka Kallio; Annica Pschibul et al. (2021). Discovery of fungal surface NADases predominantly present in pathogenic species. (external link)
- Henriette Aksnes; Marianne Goris; Øyvind Strømland et al. (2017). Molecular determinants of the N-Terminal acetyltransferase Naa60 anchoring to the Golgi membrane. (external link)
- Øyvind Strømland; Ørjan Sele Handegård; Morten Andreas Govasli Larsen et al. (2017). Peptides derived from α-lactalbumin membrane binding helices oligomerize in presence of lipids and disrupt bilayers. (external link)
Academic literature review
- Øyvind Strømland; Martin Jakubec; Samuel Robert Furse et al. (2016). Detection of Misfolded Protein Aggregates from a Clinical Perspective. (external link)
- Martin Jakubec; Øyvind Strømland; Samuel Robert Furse et al. (2016). Detection of misfolded protein aggregates from a clinical perspective. (external link)
- Øyvind Strømland; Joseph Diab; Eugenio Ferrario et al. (2021). The balance between NAD + biosynthesis and consumption in ageing. (external link)
- Øyvind Strømland; Marc Niere; Andrey Nikiforov et al. (2019). Keeping the balance in NAD metabolism. (external link)