@misc{DinterJurischkaWeissetal., author = {Dinter, Franziska and Jurischka, Christoph and Weiss, Romano and R{\"o}diger, Stefan}, title = {Multiparametrische Antik{\"o}rperdetektion f{\"u}r die Diagnostik}, series = {BIOspektrum}, volume = {26}, journal = {BIOspektrum}, number = {3}, issn = {1868-6249}, doi = {10.1077/s12268-020-1375-5}, pages = {265 -- 267}, language = {de} } @misc{DinterBurdukiewiczSchieracketal., author = {Dinter, Franziska and Burdukiewicz, Michał and Schierack, Peter and Lehmann, Werner and Nestler, J{\"o}rg and Dame, Gregory and R{\"o}diger, Stefan}, title = {Simultaneous detection and quantification of DNA and protein biomarkers in spectrum of cardiovascular diseases in a microfluidic microbead chip}, series = {Analytical and Bioanalytical Chemistry}, volume = {411}, journal = {Analytical and Bioanalytical Chemistry}, number = {29}, issn = {1618-2650}, doi = {10.1007/s00216-019-02199-x}, pages = {7725 -- 7735}, language = {en} } @misc{JurischkaDinterEfimovaetal., author = {Jurischka, Christoph and Dinter, Franziska and Efimova, Anastasia and Weiss, Romano and Schiebel, Juliane and Schulz, Christian and Fayziev, Bekzodjon and Schierack, Peter and Fischer, Thomas and R{\"o}diger, Stefan}, title = {An explorative study of polymers for 3D printing of bioanalytical test systems}, series = {Clinical Hemorheology and Microcirculation}, volume = {75}, journal = {Clinical Hemorheology and Microcirculation}, number = {1}, issn = {1875-8622}, doi = {10.3233/CH-190713}, pages = {57 -- 84}, abstract = {Background: The 3D printing is relevant as a manufacturing technology of functional models for forensic, pharmaceutical and bioanalytical applications such as drug delivery systems, sample preparation and point-of-care tests. Objective: Melting behavior and autofluorescence of materials are decisive for optimal printing and applicability of the product which are influenced by varying unknown additives. Methods: We have produced devices for bioanalytical applications from commercially available thermoplastic polymers using a melt-layer process. We characterized them by differential scanning calorimetry, fluorescence spectroscopy and functional assays (DNA capture assay, model for cell adhesion, bacterial adhesion and biofilm formation test). Results: From 14 tested colored, transparent and black materials we found only deep black acrylonitrile-butadiene-styrene (ABS) and some black polylactic acid (PLA) useable for fluorescence-based assays, with low autofluorescence only in the short-wave range of 300-400 nm. PLA was suitable for standard bioanalytical purposes due to a glass transition temperature of approximately 60°C, resistance to common laboratory chemicals and easy print processing. For temperature-critical methods, such as hybridization reactions up to 90°C, ABS was better suited. Conclusions: Autofluorescence was not a disadvantage per se but can also be used as a reference signal in assays. The rapid development of individual protocols for sample processing and analysis required the availability of a material with consistent quality over time. For fluorescence-based assays, the use of commercial standard materials did not seem to meet this requirement.}, language = {en} } @misc{DeutschmannDinterRoedigeretal., author = {Deutschmann, Claudia and Dinter, Franziska and R{\"o}diger, Stefan and Roggenbuck, Dirk and Schierack, Peter}, title = {Comparison of Lab and Point of Care (POC) technologies - case study for CHI3L1, Potsdam Days on Bioanalysis}, pages = {1}, language = {en} } @misc{DinterDeutschmannSchieracketal., author = {Dinter, Franziska and Deutschmann, Claudia and Schierack, Peter and Dame, Gregory and R{\"o}diger, Stefan}, title = {Integration of Cardiovascular Disease Biomarkers in a Microfluidic Microbead Chip}, pages = {1}, language = {en} }