Biofabrication processing / 3D printing
The focus of the research group biofabrication and 3D-printing is on the one hand the analysis of suitable structural proteins to be used as scaffolds for tissue engineering approaches, and on the other hand the development of new, cell-friendly bioinks. In particular, recombinant spider silk proteins are modified dependent on their application and are processed into films, hydrogels, foams, non-woven meshes and nanofibers with defined structure and controlled topography.
Biofabrication is an emerging field in the area of biomaterials, which aims to generate 3D biocompatible constructs using natural materials as building blocks in combination with cells. This approach requires materials recapitulating native tissue properties like in bone, ligament, skin and nerve regeneration. Defined 3D structures, tissue-related hierarchical morphology, and adjusted biochemical composition are important characteristics of a scaffold. To achive this, 3D bioprinting (3DBP) shows particular promise due to precise positioning of scaffold components in three dimensions. Therefore, suitable bioinks are necessary, which are on the one hand printable and on the other hand cytocompatible. Hence, for instance spider silk, collagen, hyaluronic acid, cellulose and alginate are used.
Research Projects
Ng, Xuen
xuen.ng@bm.uni-bayreuth.de
0921-55 6720
Project description needs to be updated.
Claussen, Julia
julia.claussen@bm.uni-bayreuth.de
0921-55 6721
Project description needs to be updated.
Müller, Claudia
claudia.mueller(.at.)bm.uni-bayreuth.de
0921-55 6713
Project description needs to be updated.
Arias Jaramillo, Angela Maria (M.Sc.)
angela.arias-jaramillo(.at)bm.uni-bayreuth.de
0921-55 6714
Tissue engineering has been largely studied in recent years since and has recently profited from the advances within 3D-bioprinting regarding printing materials, deposition platforms and design software. Despite of these advancements, regenerated tissues so far have encountered the problem of poor vascularization during generation of thick tissues, which leads to tissue necrosis. Therefore, efforts have focused on the generation of vascular constructs by means of multiple technologies. This project aims to generate recombinant spider silk protein (eADF4 (C16)) based, 3D-printed vascular constructs with a cellular multilayer and hierarchical structure (macrovessels, microvessels and capillaries) after in-vivo static (incubation) and dynamic (media perfusion) culturing.
Koeck, Kim (M.Sc.)
kim.koeck(.at.)bm.uni-bayreuth.de
0921-55 6715
Tissue engineering of fibrous tissues of the musculoskeletal system, such as tendon, presents a major challenge for biomedical research due to its complex architecture and mechanical behavior. Natural healing of tendon is limited due to a low number of cells and its avascularity. In healing, a hierarchically organized structure is replaced by a disorganized fibrous scar tissue with inferior mechanical properties. To address this problem, fabric-like braided polymer ropes are used as partial tendon replacements, however, these tend to be inferior due to a lack of biological function as well as lack of material/mechanical gradients. This projects aims to create a total tendon replacement based on a gradient fiber-reinforced composite by combining a textile approach with abio-inspired materials approach. The tendon-like replacement tissue will be evaluated based on the mechanical stability and biocompatibility.
Döbl, Annika (M.Sc.)
annika.doebl(.at.)bm.uni-bayreuth.de
0921-55 6711
| So far, preclinical tumor research for identification of possible drugs is based on 2D cell culture methods and xenograft mice. 3D tumor cell cultivation techniques will expand the tools of in vitro cancer models, providing additional insights into cancerous tissue analysis. Hydrogels made of recombinant spider silk proteins are a well-suited material for 3D cell culture due to their suitable mechanical and biochemical properties, and they can be used as bioink to create cell-laden constructs using 3D-printing technologies. The project objective is to develop a 3D in vitro tumor model. |
Trossmann, Vanessa (M.Sc.)
vanessa.trossmann(.at.)bm.uni-bayreuth.de
0921-55 6710
Due to its unique mechanical and biochemical properties spider silk is in the focus of research since decades. Spider silk proteins are biodegradable, biocompatible and show no immune reaction in the human body, thereby representing a suitable material for biomedical applications. The development of recombinant technologies, inspired by the natural occurring gene sequences of the European garden spider Araneus diadematus, enable the biotechnological production of spider silk proteins in high-yields. They can be processed into several different morphologies, such as fibers, films, hydrogels, foams, nonwovens and particles, leading to diverse potential applications. With respect to tissue engineering and regenerative medicine, specific cell adhesion is a decisive factor. Since cell attachment to unmodified silk protein is often low, it is sometimes necessary to develop proteins including cell-interacting ligands. The project objective is thus to modify and functionalize biocompatible spider silk scaffolds for guided cell-substrate-interaction by using genetic or chemical coupling and varying processing methods.
Neubauer, Vanessa (M.Sc.)
vanessa.neubauer(.at.)bm.uni-bayreuth.de
0921-55 6705
Among the great challenges of modern medicine is the regeneration of tissues. One promising approach is the manufacturing of tailor-made tissue scaffolds for regenerative medical approaches, known as tissue engineering. Spider silk is a suitable candidate for biomaterial applications since it shows no immunogenicity, good biocompatibility and biodegradability. By processing recombinant spider silk proteins into hydrogels, 3D scaffolds can be printed for biomedical applications. In this context, specialized scaffold preparation for tissue regeneration applications such as gradient materials for tendon replacement are in the focus. This also includes oriented biomineralization of the gradient material similar to the natural blueprint.
Publications
Haynl, C., Vongsvivut, J., Mayer, K., Bargel, H., Neubauer, V., Tobin, M., Elgar, M. & Scheibel, T.
Free‑standing spider silk webs of the thomisid Saccodomus formivorus are made of composites comprising micro‑ and submicron fibers
Scientific Report, online Oct. 2020
Müller, F., Jokisch, S., Bargel, H. & Scheibel, T.
Centrifugal Electrospinning Enables the Production of Meshes of Ultrathin Polymer Fibers
ASC Applied Polymer Materials, online Oct. 2020
Kumari, S., Lang, G., DeSimone, E., Spengler, C., Trossmann, V., Lücker, S., Hudel , M., Jacobs, K., Krämer, N. & Scheibel, T.
Data for microbe resistant engineered recombinant spider silk protein based 2D and 3D materials
Data in Brief, Vol. 32, Oct. 2020
Neubauer, V., Scheibel, T.
Spider Silk Fusion Proteins for Controlled Collagen Binding and Biomineralization
ACS Biomaterials Science & Engineering 2020 6 (10), 5599-5608
Hopfe, C., Ospina-Jara, B., Scheibel, T., Cabra-Garcia, J.
Ocrepeira klamt sp. n. (Araneae: Araneidae), a novel spider species from an Andean pa´ramo in Colombia
PLOS One
Kumari, S., Lang, G., DeSimone, E., Spengler, C., Trossmann, V., Lücker, S., Hudel, M., Jacobs, K., Krämer, N., Scheibel, T.
Engineered spider silk-based 2D and 3D materials prevent microbial infestation
Mathilde Lefevre, Patrick Flammang , A. Sesilja Aranko , Markus B. Linder , Thomas Scheibel , Martin Humenik , Maxime Leclercq , Mathieu Surin , Lionel Tafforeau, Ruddy Wattiez, Philippe Leclère, Elise Hennebert
Sea star-inspired recombinant adhesive proteins self-assemble and adsorb on surfaces in aqueous environments to form cytocompatible coatings
Scheibel T., Weikl T., Buchner J.
Two chaperone sites in Hsp90 differing in substrate specificity and ATP dependence
Proc. Natl. Acad. Sci. U S A. 4, 1495- 1499.
Scheibel T., Buchner J.
The Hsp90 complex – a super-chaperone machine as a novel drug target
Biochem. Pharmacol. 6, 675-682.
Scheibel T., Siegmund H. I., Jaenicke R., Ganz P., Lilie H., Buchner J.
The charged region of Hsp90 modulates the function of the N-terminal domain
Proc. Natl. Acad. Sci. U S A. 4, 1297-302
Thomas Scheibel
Spider silk-based biomaterials: a new opportunity for product development in many industries
Weiss A. C. G., Herold H. M., Lentz S., Faria M., Besford Q. A., Ang C.-S., Caruso F., Scheibel T.
Surface modification of spider silk particles to direct biomolecular corona formation
Kramer J. P. M., Aigner T. B., Petzold J., Roshanbinfar K., Scheibel T., Engel F. B.
Recombinant spider silk protein eADF4(C16)-RGD coatings are suitable for cardiac tissue engineering
Jokisch, S., Bargel, H., Scheibel, T.
Einsatz von Biomaterialien in Filtersystemen – BioFis
In: Bernotat, A. & Berling, J., Prototype Nature
Mertgen A.-S., Trossmann V., Guex A., Maniura-Weber K., Scheibel T., Rottmar M.
Multifunctional biomaterials – Combining material modification strategies for engineering
ACS Appl. Mater. Interface, online first, 0c01893
Murugesan S., Scheibel T.
Copolymer clay nanocomposites for biomedical applications
Adv. Funct. Mater., online first, 1908101
Humenik M., Preiß T., Goedrich S., Papastavrou G., Scheibel T.
Functionalized DNA spider silk nanohydrogels for controlled protein binding and release
Materials Today Bio, 6, 100045
Aigner T. B., Haynl C., Salehi S., O'Connor A., Scheibel T.
Nerve guidance conduit design based on self-rolling tubes
Materials Today Bio, 5, 100042
Salehi S., Koeck K., Scheibel T.
Spider silk for tissue engineering applications
Molecules, 25, 737-757
Fratzl P., Jacobs K., Möller M., Scheibel T., Sternberg K.
Material Science – Inspired by Nature
acatech Diskussion, 2020
Bruns N., Scheibel T.
Biomimetic Polymers – Editorial
Europ. Polym. J., 122, 109370
Humenik M., Pawar K., Scheibel T.
Nanostructured, self-assembled spider silk materials for biomedical applications
In: S. Perrett et al. (eds.), Biological and Bio-inspired Nanomaterials, (Advances in Experimental Medicine and Biology 1174), 187-221
Borkner C. B., Lentz S., Müller M., Fery A., Scheibel T.
Ultra-thin spider silk films: Insights into spider silk assembly on surfaces
ACS Appl. Polym. Mater., 1, 3366-3374
Kumari S., Bargel H., Scheibel T.
Recombinant spider silk silica hybrid scaffolds with drug releasing properties
Macromol. Rapid Commun., 41, 1900426
Pawar K., Welzel G., Haynl C., Schuster S., Scheibel T.
Recombinant spider silk and collagen-based nerve guidance conduits
ACS Appl. Bio Mater., 2, 4872−4880
DeSimone E., Aigner T. B., Humenik M., Lang G., Scheibel T.
Aqueous electrospinning of recombinant spider silk proteins
Mater. Sci. Eng. C, 106, 110145
Saric M., Scheibel T.
Engineering of silk proteins for materials applications
Curr. Opin. Biotechnol., 60, 213–220
Steiner D., Lang G., Fischer L., Winkler S., Fey T., Greil P., Scheibel T., Horch R. E., Arkudas A.
Intrinsic vascularisation of recombinant eADF4(C16) spider silk matrices in the arteriovenous loop model
Tissue Eng. Part A, 25, 21-22
Aigner T. B., Scheibel T.
Self-rolling refillable tubular enyme containers
ACS Appl. Mater. Interfaces 2019, 11, 15290-15297
Wang J., Suhre M. H., Scheibel, T.
A mussel polyphenol oxidase-like protein shows thiol-mediated antioxidant activity
Europ. Polym. J., 113, 305–312
Nichtl A., Buchner J., Jaenicke R., Rudolph R., Scheibel T.
Folding and association of β-galactosidase
J. Mol.Biol. 282, 5, 1083-1091
Scheibel T., Buchner J.
Hsp90 proteins – The Hsp90 Family
Guideb. Mol. Chaperones Protein-Folding Catal. 151.
Scheibel T., Neuhofen S., Weikl T., Mayr C., Reinstein J., Vogel P. D., Buchner J.
ATP binding properties of human Hsp90
J. Biol. Chem. 272, 18608-18613
Jakob U., Scheibel T., Bose S., Reinstein J., Buchner J.
Assessment of the ATP binding properties of Hsp90
J. Biol. Chem. 271, 10035–10041
Scheibel T., Bell S., Walke S.
S. cerevisiae and sulfur – a unique way to deal with the environment
FASEB J. 11, 917-921
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Scheibel T., Parthasarathy R., Sawicki G., Lin X-M., Jaeger H., Lindquist S.
Conducting nanowires built by controlled self assembly of amyloid fibers and selective metal deposition
Proc. Natl. Acad. Sci. USA 100, 4527-4532
Scheibel T
Amyloid formation of a yeast prion determinant
J. Mol. Neurosci. 23, 13-22
Scheibel T., Buchner J.
Book Review: Methods in Molecular Biology, Vol. 232: Protein Misfolding and Disease: Principles and Methods.
Chem.Bio.Chem. 5, 1153-1154
Scheibel T.
Spider silks: recombinant synthesis, assembly, spinning, and engineering of synthetic proteins
Microb. Cell Fact. 3, 14-21
Scheibel T., Bloom J., Lindquist S L.
The elongation of yeast prion fibers involves separable steps of association and conversion
Proc. Natl. Acad. Sci. USA 101, 2287-2292
Huemmerich D., Helsen C W., Quedzuweit S., Oschmann J., Rudolph R., Scheibel T.
Primary structure elements of dragline silks and their contribution to protein solubility and assembly
Biochemistry 43, 13604-13612
Huemmerich D., Scheibel T., Vollrath F., Cohen S., Gat U., Ittah S.
Novel assembly properties of recombinant spider dragline silk protein
Curr. Biol. 14, 2070-2074
Scheibel T., Serpell L.
Methods to study fibril formation
Protein Folding Handb.Vol. II, pp. 193-249
Scheibel T.
Protein fibers as performance proteins: new technologies and applications
Curr. Opin. Biotech. 16, 427-433
Junger A., Kaufmann D., Scheibel T., Weberskirch R.
Biosynthesis of an elastin-mimetic polypeptide with two different chemical functional groups within the repetitive elastin fragment
Macromol. Biosciences 5, 494-501
Zbilut J P., Scheibel T., Huemmerich D., Webber C L., Colafranceschi M., Giuliani A.
Spatial stochastic resonance in protein hydrophobicity
Phys. Lett. A. 346, 33-41
Scheibel T., Vendrely C.
Mammalian Versus Yeast Prions – Biophysical Insights in Structure and Assembly Mechanisms
Prions: New Res. pp. 251-284
Scheibel T., Buchner J.
Protein Aggregation as a Cause for Disease
Handb. Exp. Pharmacol. 199-219
Scheibel T.
Editorial: Silk–a biomaterial with several facets
Appl. Phys. A 82, 191-192
Huemmerich D., Slotta U., Scheibel T.
Processing and modification of films made from recombinant spider silk proteins
Appl. Phys. A 82, 219-222
Zbilut J P., Scheibel T., Huemmerich D., Webber C L., Colafranceschi M., Giuliani A.
Statistical approaches for investigating silk properties
App. Phy. A . 82, 2, 243–251
Junghans F., Morawietz M., Conrad U., Scheibel T., Heilmann A., Spohn U.
Preparation and mechanical properties of layers made of recombinant spider silk proteins and silk from silk worm
Appl. Phys. A. 82, 253-260
Rammensee S., Huemmerich D., Hermanson K., Scheibel T., Bausch A.
Rheological characterisation of recombinant spider silk nanofiber networks
Appl. Phys. A 82, 261-264
Slotta U., Tammer M., Kremer F., Koelsch P., Scheibel T.
Structural analysis of films cast from recombinant spider silk proteins
Supramol. Chem. 18, 465-471
Sen Gupta S., Scheibel T.
Folding, self-assembly and conformational switches of proteins.
Protein Folding-Misfolding: Some Current Concepts of Protein Chemistry, 1-33
Scheibel T., Roemer L.
Herstellung und Anwendung von Spinnenseide
Bionik: Patente aus der Natur, 3, 130-139
Vendrely C., Scheibel T.
Biotechnological production of spider silk proteins enables new applications
Macromol Biosci. 7, 4, 401-409.
Römer L., Scheibel T.
Grundlagen für neue Materialien – Seidenproteine
Chemie i. u. 41, 306-314
Lodderstedt G., Hess S., Hause G., Scheuermann T., Scheibel T., Schwarz E.
Effect of OPMD-associated extension of seven alanines on the fibrillation properties of the N-terminal domain of PABPN1
FEBS. J.274, 2, 346-355.
Slotta U., Hess S., Spiess K., Stromer T., Serpell L., Scheibel T.
Spider silk and amyloid fibrils – a structural comparison
Macromol. Biosci. 7, 183-188
Exler J H., Hümmerich D., Scheibel T.
The amphiphilic properties of spider silks are important for spinning
Angew. Chem. Int. Edit. 46, 3559-3562
Hermanson K D., Huemmerich D., Scheibel T., Bausch A R.
Engineered microcapsules made of reconstituted spider silk
Adv. Mater. 19, 1810-1815
Schmidt M., Romer L., Strehle M., Scheibel T.
Conquering isoleucine auxotrophy of Escherichia coli BLR(DE3) to recombinantly produce spider silk proteins in minimal media
Biotechnol. Lett. 29, 1741-1744
Metwalli E., Slotta U., Darko C., Roth S V., Scheibel T., Papadakis C M.
Structural changes of thin films from recombinant spider silk proteins upon post treatment
Appl. Phys. A. 89, 655-661
Dong J., Bloom D J., Goncharov V., Chattopadhyay M., Millhauser L G., Lynn G D., Scheibel T., Susan L.
Probing the role of PrP repeats in conformational conversion and amyloid assembly of chimeric yeast prions
J. Biol. Chem. 282, 47, 34204–34212
Scheibel T, Römer L., Spieß K., Slotta U.
Transparente Folien aus Spinnenseide – Ein Hocheistungsmaterial aus der Natur in neuem Gewand
GIT Labor-Fachz. 11, 928-931
Hess S., Lindquist S., Scheibel T.
Alternate assembly pathways of the amyloidogenic yeast prion determinant Sup35p-NM
EMBO Rep. 8,1196-1201
Hermanson K D., Harasim M B., Scheibel T., Bausch A R.
Permeability of silk microcapsules made by the interfacial adsorption of protein
Phys. Chem. Chem. Phys. 9, 6442-6446
Vendrely C., Ackerschott C., Römer L., Scheibel T.
Molecular design of performance proteins with repetitive sequences: Recombinant flagelliform spider silk as basis for biomaterials
Methods. Mol. Biol. 474, 3-14.
Lammel A., Keerl D., Römer L., Scheibel T.
Proteins: Polymers of natural origin
In: J. Hu (Ed.), Recent Advances in Biomaterials Research, 1-22
Scheibel T., Weidenauer U.
Spinnenseidenproteine als pharmazeutischer Hilfsstoff
Dtsch. Apoth. Ztg. 48, 29.
Römer L., Scheibel T.
Spinnen wie die Spinnen
Nachrichten a. d. Chem. 56, 516-519
Hardy J., Römer L ., Scheibel T.
Polymeric materials based on silk proteins
Polymer 49, 4309-4327
Krammer C., Suhre M.H., Kremmer E., Diemer C., Hess S., Schätzl H.M., Scheibel T., Vorberg I.
Prion protein/protein interactions: Fusion with yeast Sup35p-NM modulates cytosolic PrP aggregation in mammalian cells
FASEB J. 22, 762-773
Geisler M., Pirzer T., Ackerschott C., Lud S., Garrido A.J., Scheibel T., Hugel T.
Hydrophobic and Hofmeister effects on the adhesion of spider silk proteins onto solid substrates: An AFM-based single-molecule study
Langmuir 24, 1350-1355
Horinek D., Serr A., Geisler M., Pirzer T., Slotta U.K., Lud S.Q., Garrido J.A., Scheibel T., Hugel T., Netz R.R.
Peptide adsorption on a hydrophobic surface results from an interplay of solvation, surface, and intrapeptide forces
Proc. Natl. Acad. Sci. USA. 105, 2842-2847
Scheibel T, S. Rammensee, U. Slotta, A. R. Bausch
Assembly mechanism of recombinant spider silk proteins
Proc. Natl. Acad. Sci. USA. 105, 6590-6595
Lammel A., Schwab M., Slotta U.K., Winter G., Scheibel T.
Processing conditions for spider silk microsphere formation
ChemSusChem 5, 413-416
Slotta U.K., Rammensee S., Gorb S., Scheibel T.
An engineered spider silk protein forms microspheres
Angew. Chem. Int. Ed. 47, 4592-459
Liebmann B., Hümmerich D., Scheibel T., Fehr M.
Formulation of poorly water-soluble substances using self-assembling spider silk protein
Colloids Surf., A 331, 126-132
Heim M., Keerl D., Scheibel T.
Spider Silk: From Soluble Protein to Extraordinary Fibers
Angew. Chem. Int. Edit. 48, 3584-3596
Scheibel T
Spinnenseide: Was Spiderman wissen sollte
Biospektrum
Römer L., Scheibel T.
The elaborate structure of spider silk: Structure and function of a natural high performance fiber
Prion 2, 154-161
Heim M., Römer L., Scheibel T.,
Hierarchical structures made of protein. The complex architecture of spider webs and their constituent silk protein
Chem. Soc. Rev. 39, 156–164
Grunwald I., Rischka K., Kast S M., Scheibel T., Bargel H.
Mimicking biopolymers on a molecular scale: Nano(bio)technology based on engineered protein
Phil. Trans. Roy. Soc. London: A 367, 1727-1747
Hardy J G., Scheibel T.
Production and processing of spider silk proteins
J. Polymer. Sci.Part A: Polymer .Chem. 47, 3957–3963
Hardy J G., Scheibel T.
Silk-inspired polymers and proteins
Biochem. Soc. Trans. 37, 677–681
Smith A M., Scheibel T.
Functional amyloids used by organisms: A lesson in controlling assembly
Macromol. Chem. Phys. 210, 127-135
Hagenau A., Scheidt H A., Serpell L., Huster D., Scheibel T.
Structural analysis of proteinaceous components in byssal threads of the mussel Mytilus galloprovincialis
Macromol. Biosciences 9, 162-168
Krammer C., Kryndushkin D., Suhre M H., Kremmer E., Hofmann A., Pfeifer A., Scheibel T., Wickner R B., Schätzl H M., Vorberg I.
The yeast Sup35NM domain propagates as a prion in mammalian cells
Proc. Natl. Acad. Sci. USA 106, 462-467
Pirzer T., Geisler M., Scheibel T., Hugel T.
Single molecule force measurements delineate salt, pH and surface effects on biopolymer adhesion
Physical Biol. J. 6, 025004
Vézy C., Hermanson.D K., Scheibel T., Bausch A R.
Interfacial rheological properties of recombinant spider-silk proteins
Biointerphases 4, 43-46
Suhre M H., Hess S., Golser A V., Scheibel T.
Influence of divalent copper, manganese and zinc ions on fibril nucleation and elongation of the amyloid-like yeast prion determinant Sup35p-NM
J. Inorg. Biochem. 120, 1711-1720
Heim M., Römer L., Scheibel T.
Hierarchical structures made of protein.The complex architecture of spider webs and their constituent silk proteins
Chem. Soc. Rev.39, 156–164
Egaña-L A., Scheibel T.
Silk-based materials for biomedical applications
Biotechnol. Appl. Biochem. 55, 155–167
Hardy J G., Scheibel T.
Composite materials based on silk proteins
Progr. Polymer Sci. 35, 1093-1115
Spiess K., Lammel A., Scheibel T.
Recombinant spider silk proteins for applications in biomaterials
Macromol. Biosciences. 10, 998-1007
Scheibel T.
Advanced Biomaterials
Macromol. Biosciences. 10, 674
Scheibel T.
Spider silk from nature to bio-inspired materials
Chem. Fiber. Int. 3, 15-16
Heim M., Ackerschott C B., Scheibel T.
Characterization of recombinantly produced spider flagelliform silk domains
J. Struct. Biol. 170, 420–425
Eisoldt L., Hardy J G., Heim M., Scheibel T.
The role of salt and shear on the storage and assembly of spider silk proteins.
J. Struct. Biol. 170, 413–419
Hagenau A., Scheibel T.
Towards the recombinant production of mussel byssal collagens
J. Adhesion. 86, 10-24
Lammel A S., Hu X., Park S H., Kaplan D L., Scheibel T.
Controlling silk fibroin particle features for drug delivery
Biomaterials. 31, 4583-4591
Hagn F., Eisoldt L., Hardy J G., Vendrely C., Coles M., Scheibel T., Kessler H.
A conserved spider silk domain acts as a molecular switch that controls fibre assembly
Nature 365, 239-242
Keerl D., Hardy J G., Scheibel T.
Biomimetic spinning of recombinant silk proteins
Mater. Res. Soc. Symp. Proc. 07-20,1239
Spieß K., Wohlrab S., Scheibel T.
Structural characterization and functionalization of engineered spider silk films
Soft Matter. 6, 4168–4174
Humenik M., Scheibel T., Smith A.
Spider Silk: Understanding the Structure–Function Relationship of a Natural Fiber
Prog. Mol. Biol. Transl. Sci. 103, 131-185.
Eisoldt L., Smith A., Scheibel T.
Decoding the secrets of spider silk
Materials Today 14, 80–86
Spiess K., Lammel A., Scheibel T.
Recombinant spider silk proteins for applications in biomaterials
Macromol.Biosci.2011, S32-S41
Humenik M., Smith A., Scheibel T.
Recombinant spider silks – biopolymers with potential for future applications
Polymers 3, 640–661
Hagn F., Thamm C., Scheibel T., Kessler H.
pH-dependent dimerization and salt-dependent stabilization of the N-terminal domain of spider dragline silk – Implications for fiber formation
Angew. Chem. Int. Ed. 50, 310-313
Lammel A., Schwab M., Hofer M., Winter G., Scheibel T.
Recombinant spider silk particles as drug delivery vehicles
Biomaterials 32, 2233–2240
Hagenaua A., Papadopoulos P., Kremer F., Scheibel T.
Mussel collagen molecules with silk-like domains as load-bearing elements in distal byssal threads
J. Structural Biol. 175, 339-347
Schacht K., Scheibel T.
Controlled hydrogel formation of a recombinant spider silk protein
Biomacromol. 12, 2488–2495
Spiess K., Ene R., Keenan C D., Senker J., Kremerb F., Scheibel T.
Impact of initial solvent on thermal stability and mechanical properties of recombinant spider silk films
J. Mater. Chem. 21, 13594-13604
Slotta U., Hess S., Spieß K., Stromer T., Serpell L., Scheibel T.
Spider silk and amyloid fibrils: A structural comparison
Macromol. Biosci. 7, 73-90
Eisoldt L., Thamm C., Scheibel T.
The role of terminal domains during storage and assembly of spider silk proteins
Biopolymers 97, 355-361
Claussen K U., Scheibel T., Schmidt H W., Giesa R.
Polymer gradient materials: can nature teach us new tricks?
Macromol. Mater. Eng. 297, 938–957
Claussen K U., Giesa R., Scheibel T., Schmidt H W.
Learning from nature: synthesis and characterization of longitudinal polymer gradient materials inspired by mussel byssus threads
Macromol. Rapid Commun. 33, 206-211
Bluem C., Scheibel T.
Control of drug loading and release properties of spider silk sub-microparticles
BioNanoSci. 2, 67-74
Egaña-L A., Lang G., Mauerer C., Wickinghoff J., Weber M., Geimer S., Scheibel T.
Interactions of fibroblasts with different morphologies made of an engineered spider silk protein
Adv. Eng. Mater. 14, B67-B75
Keerl D., Scheibel T.
Characterization of natural and biomimetic spider silk fibers
Bioinspired, Biomimetic Nanobiomater.1, 83-94
Bauer F., Scheibel T.
Artificial egg stalks made of a recombinantly produced lacewing silk protein
Ang. Chemie Intl. Edit. 124, 6627-6630
Egañaa-L A., Scheibel T.
Interactions of cells with silk surfaces
J. Mater. Chem. 22, 14330-14336
Wohlrab S., Müller S., Schmidt A., Neubauer S., Kessler H., Egaña-L A., Scheibel T.
Cell adhesion and proliferation on RGD-modified recombinant spider silk proteins
Biomaterials 33, 6650-6659
Young L S., Gupta M., Hanske C., Fery A., Scheibel T., Tsukruk V V.
Utilizing conformational changes for patterning thin films of recombinant spider silk proteins
Biomacromol. 13, 10, 3189-3199
Wohlrab S., Spießa K., Scheibel T.
Varying surface hydrophobicities of coatings made of recombinant spider silk proteins
J. Mater. Chem. 22, 22050-22054
Bauer F., Bertinetti L., Masic A., Scheibel T.
Dependence of mechanical properties of lacewing egg stalks on relative humidity
Biomacromolecules. 13, 3730-3735
Smith A., Scheibel T.
Hierarchical Protein Assemblies as a Basis for Materials
In: Materials Design Inspired by Nature: Function Through Inner Architecture (Eds. Fratz P., Dunlop J. W. C., Weinkamer R.), 256-281
Lauterbach A. Y., Scheibel T.
Determining the Environmental Benefit of Artificial Spider Silk Products
NSTI-Nanotech., 3, 108-111
Wohlrab S., Thamm C., Scheibel T.
The Power of Recombinant Spider Silk Proteins
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Macromol. BioSci., 13, 1431–1437
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Biomater. Sci., 1, 1166-1171
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Biomater. Sci., 1, 1244-1249
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Biomacromolecules, 14, 3238-3245
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Nature as a blueprint for polymer material concepts: protein fiber-reinforced composits as holdfasts of mussels
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Self-assembly of nucleic acids, silk and hybrid materials thereof
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Spionik – Biotech Spinnenseide und ihre Einsatzgebiete
GIT Bioforum 2, 20-22
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Nanomaterial building blocks based on spider silk–oligonucleotide conjugates
ACS Nano 8, 1342-1349
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Structural and functional features of a collagen-binding matrix protein from the mussel byssus
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Glycopolymer functionalization of engineered spider silk protein based materials for improved cell adhesion
Macromol. Biosci., 14, 936-42
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Crystallization and preliminary X-ray diffraction analysis os PTMP1
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Controlled hierarchical assembly ofspider silk-DNA chimeras into ribbons and raft-like morphologies
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Green Materials., 3: 15-24
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Verbesserung der Biokompatibilität von Silikonimplantaten
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To spin or not to spin: spider silk fibers and more
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Enhanced cellular uptake of engineered spider silk particles
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Biofabrication of cell-loaded 3D spider silk constructs
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Enzymatic degradation of films, particles and non-woven meshes
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Ion and seed dependent fibril assembly of a spidroin core domain
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Data for ion and seed dependent fibril assembly of a spidroin core domain
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Zellgewebe aus dem Drucker
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Strategies and molecular design criteria for 3D printable hydrogels
Chem. Rev., 116: 1496–1539
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Zukunftsfeld Bionik
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Die Schwarze Witwe und ihre Künste
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Recombinant Silk Production in Bacteria
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Two-in-one composite fibers with side-by-side arrangement of silk fibroin and poly(L-lactide) by electrospinning
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Resonance assignment of an engineered amino-terminal domain of a major ampullate spider silk with neutralized charge cluster
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Foams made of engineered recombinant spider silk proteins
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Cations influence the crosslinking of hydrogels made of recombinant, polyanionic spider silk proteins
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Microfluidics-produced collagen fibers show extraordinary mechanical properties
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Surface modification of polymeric biomaterials using recombinant spider silk proteins
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Cellular uptake of drug loaded spider silk particles
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Structural insights into water-based spider silk protein-nanoclay composites with excellent gas and water vapor barrier properties
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Probing the adhesion properties of alginate hydrogels: a new approach towards the preparation of soft colloidal probes for direct force measurement
Soft Matter. 13: 578 – 589
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Mechanical testing of engineered spider silk filaments
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Conformational stability and interplay of N- and C-terminal domains
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Recombinant production, characterization, and fiber spinning of an engineered short Major Ampullate Spidroin (MaSp1s)
Biomacromolecules, 18: 1365 – 1372
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Sequence identification, recombinant production, and analysis of the self-assembly of egg stalk silk proteins from lacewing Chrysoperla carnea
Biomolecules, 7: 43
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Dimerization of the conserved N-terminal domain of a spider silk protein controls the self-assembly of the repetitive core domain
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Characterization of hydrogels made of a novel spider spilk protein eMaSp1s and evaluation for 3D printing
Macromol. Biosci., 11: 1700141
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Biotechnological production of the mussel byssus derived collagen preColD
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Surface features of recombinant spider silk protein eADF4(κ16)-made materials are well-suited for cardiac tissue engineering
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Applicability of biotechnologically produced insect silks
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Silk-based fine dust filters for air filtration
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Foundation of the outstanding toughness in biomimetic and natural spider silk
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Recombinant spider silk-based bioinks
Biofabrication 9, 4, 044104
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Nanoengineered biomaterials for corneal regeneration
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Einsatz von Biomaterialien in Filtersystemen
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Bio-inspirierte Materialien
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Inspirationen für mechanisch stabile Materialien aus der Natur – Von Gräsern über Spinnenseide bis zu Kieselalge
MNU Journal, 1: 37 – 44
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Silk nanofibril self-assembly versus electrospinning
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The MyoRobot: A novel automated biomechatronics system to assess voltage/Ca2+ biosensors and ctive/passive biomechanics in muscle and biomaterials
Biosens. Bioelectron., 102: 589 – 599
Mickoleit F., Borkner C. B., Toro-Nahuelpan M., Herold, H. M., Maier D. S., Plitzko J. M., Schüler D., Scheibel T.
In-vivo coating of bacterial magnetic nanoparticles by magnetosome expression of spider silk-inspired peptides
Biomacromolecules, 19: 962 – 972
Salehi S., Scheibel T.
Biomimetic spider silk fibres: from vision to reality
The Biochemist, 40: 4 – 7
Aigner T. B., DeSimone E., Scheibel T.
Biomedical Applications of Recombinant Silk-Based Materials
Adv. Mater., 30: 1704636
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Altering silk film surface properties through Lotus-like mechanisms
Macromol. Mater. Eng., 303: 1700637
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Routes towards novel collagen-like biomaterials
Fibers, 6: 21
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Recombinant spider silk hydrogels for sustained release of biologicals
ACS Biomater., 4: 1750 – 1759
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Engineered spider silk hybrid particles as delivery system for peptide vaccines
Biomaterials, 172, 105 – 115
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Engineered Collagen: A redox switchable framework for tunable assembly and fabrication of biocompatible surfaces
ACS Biomater. Sci. Eng., 4: 2106 – 2114
Hofmann E., Krüger K., Haynl C., Scheibel T., Trebbind M., Förster S.
Microfluidic nozzle device for ultrafine fiber solution blow spinning with precise diameter contro
LabChip,18, 2225-2234
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Recombinant production of mussel byssus inspired proteins
Biotechnol. J., 13: 1800146
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Nanoscale patterning of surfaces via DNA directed spider silk assembly
Biomacromol., 20, 347-352
Zha H. R., Delparastan P., Fink D. T., Bauer J., Messersmith P. B., Scheibel T.
Universal nanothin silk coatings via controlled spidroin self-assembly
Biomater. Sci., 2019, 7, 683-69
Röber M., Laroque S., Scheibel T., Börner H.-G.
Modulating the collagen triple helix formation by switching: Positioning effects of depsi-defects on the assembly of [Gly-Pro-Pro]7 collagen mimetic peptides
Euro. Polym. J., 112, 301 – 305
Herold H. M., Aigner T. B., Grill C., Krüger S., Taubert A., Scheibel T.
Spider-MAEN recombinant spider silk based hybrid materials
Bioinspired, Biomimetic Nanobiomater., 8, 99-108
Suhre H M., Scheibel T.
A mussel polyphenol oxidase-like protein shows thiol-mediated antioxidant_supplement
Europolymj. 113, 305 – 331
Humenik M., Mohrand M., Scheibel T.
Self-assembly of spider silk-fusion proteins comprising enzymatic and fluorescence activity.
Bioconjugate Chem., 29: 898 – 904.
Scheibel T
Herstellung und Anwendung von Spinnenseide
Bionik. Patente aus der Natur 3. Bionik Konferenz. 130-139
Smith M A., Scheibel T.
Functional amyloids used by organisms: A lesson in controlling assembly
Macromol. Chem. Phys. 210, 127-135
Spieß K., Wohlrab S., Scheibel T.
Structural characterization and functionalization of engineered spider silk films
Soft Matter 6, 4168–4174
Lang G., Herold H., Scheibel T.
Properties of engineered and fabricated silks
Fibrous Proteins. Structures and Mechanisms. Subcell. Biochem., 82: 527-573
DeSimone E., Pellert A., Schacht K., Scheibel T.
Recombinant spider silk-based bioinks
Biofabrication, 9: 044104
Wang J., Scheibel T.
Coacervation of the recombinant Mytilus galloprovincialis foot protein-3b
Biomacromolecules, 19: 3612 – 3619
Roshanbinfar K., Vogt L., Greber B., Diecke S., Boccaccini A. R., Scheibel T., Engel F. B.
Electroconductive biohybrid hydrogel for enhanced maturation and beating properties of engineered cardiac tissues
Adv. Funct. Mat., 28: 1803951
Hardy J. G., Bertin A., Torres‐Rendon J. G., Leal‐Egaña A., Humenik M., Bauer, F., Walther A., Cölfen H., Schlaad H., Scheibel T.
Facile photochemical modification of silk protein-based biomaterials
Macromol. Biosci., 28: 1800216