Browsing by Author "Steen Redeker, Erik"

An efficient protocol towards site-specifically clickable nanobodies in high yield: cytoplasmic expression in Escherichia coli combined with intein-mediated protein ligation

Clickable nanobodies for the development of improved io-active surfaces

Covalent and uniformly oriented immobilization of the 'clickable' alkynated nanobody targeting the vascular cell adhesion molecule-1 for advanced biosensing applications

CuAAC-mediated protein immobilization towards next genration biosensing devices

Developing an ellipsometry-based biosensor platform viacovalent and oriented coupling of the nanobody targeting the vascular cell adhesu-ion molecule-1 to a silicon wafer

Hydrazin-based expressed protein ligation for site specific modification of maltose binding protein

In situ monitoring and optimization of CuAAC-mediated protein functionalization of biosurfaces

In vivo synthesis of click functionalized nanobodies for advanced biosensing platforms

Maltose binding protein as a model for site-specific modification by hydrazine-based expressed protein ligation for advanced biomaterials

Protein engineering for directed immobilization

Site-specicfic functionalization of nanobodies with unnatural amino acids for uniformly loaded biomaterials

Site-specific functionalization of nanobodies using nonsense suppression for uniformly loaded biosensor surfaces

Site-specific modification and controlled immobilization of the nanobody targeting vascular cell adhesion molecule 1 using sortase A for next-generation surface biofunctionalization

Smart biofunctionalization of substrates with 'click' coupling chemistry

Sortase A -mediated protein ligation for site-specific 'click' functionalization andoriented coupling of nanobodies to biosenseor material surfaces or contrast probes

Sortase A as an enzymatic tool for site-specific modification and oriented surface coupling of nanobodies

Sortase A-medoated functionalization od nanobodies toward surface coupling

Ultrafine biofunctionalized SHG-active BaTiO3 towards biomedical applications