Hannah Pohlit
Forskare vid Institutionen för farmaci; Molekylär galenisk farmaci; Farmaceutisk nanoteknologi
- E-post:
- hannah.pohlit@uu.se
- Besöksadress:
- Biomedicinskt Centrum BMC, Husargatan 3
- Postadress:
- Box 580
751 23 UPPSALA
Biografi
- 2016 - 2017 Postdoktorand i Polymerkemi, Mainz Universitet, Tyskland
- 2012 - 2016, PhD i Polymerkemi med Prof. Holger Frey, Mainz Universitet, Tyskland
- 2006 - 2012, Diplom i Biomedicinsk Kemi, Mainz Universitet, Tyskland
Publikationer
Senaste publikationer
Ingår i Advanced Materials Technologies, 2024
- DOI för A perfusable multi-hydrogel vasculature on-chip engineered by 2-photon 3D printing and scaffold molding to improve microfabrication fidelity in hydrogels
- Ladda ner fulltext (pdf) av A perfusable multi-hydrogel vasculature on-chip engineered by 2-photon 3D printing and scaffold molding to improve microfabrication fidelity in hydrogels
Technology platform for facile handling of 3D hydrogel cell culture scaffolds
Ingår i Scientific Reports, 2023
- DOI för Technology platform for facile handling of 3D hydrogel cell culture scaffolds
- Ladda ner fulltext (pdf) av Technology platform for facile handling of 3D hydrogel cell culture scaffolds
Confocal imaging dataset to assess endothelial cell orientation during extreme glucose conditions
Ingår i Scientific Data, 2022
- DOI för Confocal imaging dataset to assess endothelial cell orientation during extreme glucose conditions
- Ladda ner fulltext (pdf) av Confocal imaging dataset to assess endothelial cell orientation during extreme glucose conditions
Ingår i Scientific Reports, 2021
- DOI för Brain microvasculature endothelial cell orientation on micropatterned hydrogels is affected by glucose level variations
- Ladda ner fulltext (pdf) av Brain microvasculature endothelial cell orientation on micropatterned hydrogels is affected by glucose level variations
Evaluation of biocompatibility of acousticfocusing of cells in hydrogel droplets
2021
Alla publikationer
Artiklar i tidskrift
Ingår i Advanced Materials Technologies, 2024
- DOI för A perfusable multi-hydrogel vasculature on-chip engineered by 2-photon 3D printing and scaffold molding to improve microfabrication fidelity in hydrogels
- Ladda ner fulltext (pdf) av A perfusable multi-hydrogel vasculature on-chip engineered by 2-photon 3D printing and scaffold molding to improve microfabrication fidelity in hydrogels
Technology platform for facile handling of 3D hydrogel cell culture scaffolds
Ingår i Scientific Reports, 2023
- DOI för Technology platform for facile handling of 3D hydrogel cell culture scaffolds
- Ladda ner fulltext (pdf) av Technology platform for facile handling of 3D hydrogel cell culture scaffolds
Confocal imaging dataset to assess endothelial cell orientation during extreme glucose conditions
Ingår i Scientific Data, 2022
- DOI för Confocal imaging dataset to assess endothelial cell orientation during extreme glucose conditions
- Ladda ner fulltext (pdf) av Confocal imaging dataset to assess endothelial cell orientation during extreme glucose conditions
Ingår i Scientific Reports, 2021
- DOI för Brain microvasculature endothelial cell orientation on micropatterned hydrogels is affected by glucose level variations
- Ladda ner fulltext (pdf) av Brain microvasculature endothelial cell orientation on micropatterned hydrogels is affected by glucose level variations
Acoustic focusing of beads and cells in hydrogel droplets
Ingår i Scientific Reports, 2021
- DOI för Acoustic focusing of beads and cells in hydrogel droplets
- Ladda ner fulltext (pdf) av Acoustic focusing of beads and cells in hydrogel droplets
Acid-Cleavable Poly(ethylene glycol) Hydrogels Displaying Protein Release at pH 5
Ingår i Chemistry - A European Journal, s. 2947-2953, 2020
- DOI för Acid-Cleavable Poly(ethylene glycol) Hydrogels Displaying Protein Release at pH 5
- Ladda ner fulltext (pdf) av Acid-Cleavable Poly(ethylene glycol) Hydrogels Displaying Protein Release at pH 5
Ingår i Journal of materials science. Materials in medicine, 2020
- DOI för A simplified approach to control cell adherence on biologically derived in vitro cell culture scaffolds by direct UV-mediated RGD linkage
- Ladda ner fulltext (pdf) av A simplified approach to control cell adherence on biologically derived in vitro cell culture scaffolds by direct UV-mediated RGD linkage
Artiklar, forskningsöversikt
Konferensbidrag
Evaluation of biocompatibility of acousticfocusing of cells in hydrogel droplets
2021
Acoustofluidic Method to Align Polystyrene Beads and Cells in Hydrogels
2021
Alignment of brain endothelial cells on patterned hyaluronic acid hydrogels
2020
Free-hanging hydrogel structures as more in vivo-like barrier model
2020
2020
2D and 3D patterning of biological hydrogels for organ-on-chip applications
2018
Production of hyaluronic acid-acrylamide microgels as potential cell culture scaffolds
Ingår i Micronano System Workshop, May 13-15, 2018, s. 24-24, 2018