De Buysser, Klaartje

De Clerck, Karen

Geltmeyer, Jozefien

Hoogenboom, Richard

Schoolaert, Ella

Ghent University Academic Bibliography

 32 INV14.   Advanced colorimetric sensors based on dye-functionalized nanofibers   K. De Clerck1, E. Schoolaert1, J. Geltmeyer1, K. De Buysser3, R. Hoogenboom2  (1)Department of Textiles, Ghent University, Technologiepark 907, 9052 Ghent, Belgium  (2) Department of Organic and Macromolecular Chemistry, Ghent University, (3) Department of Inorganic and Physical Chemistry, Ghent University,  *karen.declerck@ugent.be  The development of smart colorimetric materials that sense the concentration of a specific analyte by a change in absorbance is particularly interesting, since a color change directly visible for the naked eye is obtained [1]. Color changing textiles play a prominent role among these colorimetric sensors due to their high flexibility, reusability, mechanical stability and breathability. Halochromic, i.e. pH-sensitive, textiles may be highly valuable for various applications in the biomedical field, agriculture, safety and technical textiles. Electrospun sensor materials show a great potential due to their unique properties, resulting in improved sensor sensitivity and response time.  Functionalization of these polymer nanofibres can be done by doping the electrospinning solution prior to fibre formation with pH-sensitive dyes. This technique results in easy-to-produce halochromic nanofibres. Dye leaching, however, is a major problem. An alternative approach to reduce dye leaching is a covalent linkage of the dye to the polymer prior to electrospinning resulting in the most efficient immobilization method. Incorporation of the dye-containing polymer into a nanofibrous membrane can subsequently be achieved by blend electrospinning. Using this method robust halochromic nanofibers can be produced without the dye leaching drawbacks. [2, 3] References  [1] P.T Mather, “Responsive materials: Soft answers for hard problems”, Nature Materials, 6 (2007), 93-94  [2] E. Schoolaert, I. Steyaert, G. Vancoillie, J. Geltmeyer, K. Lava, R. Hoogenboom, K. De Clerck, “Blend  electrospinning of dye-functionalized chitosan and polycaprolactone: towards biocompatible pH-sensors”, Journal of Materials Chemistry B, 2016, 4, 4507-4516. [3] J. Geltmeyer, G. Vancoillie, I. Steyaert, B. Breyne, G. Cousins, K. Lava, R. Hoogenboom, K. De Buysser, K. De Clerck, “Dye Modification of Nanofibrous Silicon Oxide Membranes for Colorimetric HCl and NH3 Sensing”, Advanced Functional Materials, accepted.     [Year]Book of AbstractsElectrospinCY_201719th – 21st April 2017 | University of Cyprus, Nicosia, CYPRUS 4 Conference Programme Conference/MP1206 final MC meeting Venue: University of Cyprus, New University Campus,  (1 Panepistimiou Avenue 2109 Aglantzia, Nicosia. P.O. Box 20537, 1678 Nicosia, Cyprus)   Wednesday 19th April 08.00- Registration Session A (Building: ΧΩΔ02, Room B205) Chair: T. Krasia-Chistoforou 9.00-9.10 Welcome and Opening Remarks 9.10-9.50 PLENARY G. L. Bowlin Electrospun Templates: Designing Tools for Directing Endogenous Tissue Regeneration 9.50-10.30 PLENARY E. Zussman Mechanical Stress Induced Drug Delivery from Nanofibers 10.30-11.00 Coffee Break   Session B1  Energy, sensors and actuators (ΧΩΔ02, Β205) Chair: S. Cavaliere Session C1  Biomedical applications (ΧΩΔ02, Β204) Chair: E. Kijeńska 11.00-11.25 INV1  Y. Truong Electrospun nanofibre membranes for energy and biomaterial applications   INV7 A.Jedlovszky-Hajdú Creating silver loaded artificial matrix for biomedical applications 11.25-11.50 INV2  A. Macagnano CdSe/ZnS-TiO2 nanofibers: A suitable combination for a low cost and effective sensor device INV8 B. Mijovic Electrospun composite scaffolds for occular tissue regeneration 11.50-12.15 INV3  D. Pisignano Enhanced photon couplingand transport properties in electrospun nanowires INV9 A. Odysseos Tissue-Engineered Biomimetic Platforms for Signaling Analysis in the Tumor Microenvironment 12.15-12.40 INV4  A. Camposeo Controlling energy migration and emission properties in semiconducting electrospun polymer fibers INV10 M. Järvekülg 3D scaffolds from electrospun gelatin 12.40-12.55 O1  L. Lozzi Near-field electrospinning: an easy method to grow nano-structured systems O5 A. Rinaldi Statistical methods for the design of scaffolds for tissue engineering and cell culturing 13:00-14:30 Lunch Session B2 Energy, sensors and actuators (ΧΩΔ02, Β205) Chair: D. Pisignano Session C2 Biomedical applications (ΧΩΔ02, Β204) Chair: A.Jedlovszky-Hajdú 14.30-14.55       INV5 S. Cavaliere Nanocomposite membranes based on electrospun nanofibers INV11 R.Machado Electrospun silk-elastin fibres functionalized with silver nanoparticles as antibacterial wound dressings  5 14.55-15.20 INV6 L. Persano Piezoelectricity in electrospun polymer nanofibers: Fundamental phenomena and applications INV12 E. Kijeńska NGF loaded bio-composite scaffolds for peripheral nerve tissue regeneration 15.20-15.35 O2 K. Polak-Krasna Electrospinning of polymer of intrinsic microporosity for hydrogen storage applications O6 A. Da Costa Antibacterial protein-based fibres: combining recombinant DNA technology with electrospinning 15.35-15.50 O3 T.Tätte Self-formed metal oxide ceramic microtubes and their applications O7 C. Voniatis Prospects of poly(vinyl)alcohol scaffolds in abdominal hernia treatment. A study of bio-adaptability in small animals 15. 50-16.05 O4 W. Woon-Fong Leung Light harvesting in dye sensitized solar cell based on co-sensitizer in core-shell nanofiber configuration reducing charge recombination   O8 M. Kruse Electro-spun sPEEK Membranes for Oxygenation Applications 16.05-16.20  O9 P. Sajkiewicz The effect of a solvent on structure, biodegradability and cellular response of electrospun PCL/gelatin and PCL/collagen nanofibers 16.20-16.35  O10 I. Wimpenny Co-electrospun biomimetic grafts for regeneration of axons in CNS 16.35-16.50  O11 L. Zajíćková Electrospun PCL/PEG nanofibers with varied biodegradability coated by bioactive amine plasma polymers  17:00-20:00   Poster and photo competition sessions/cocktail buffet  Social Activities Building, Room 010                 6 Thursday 20th April / MP1206 COST Session  Session D (Building: ΧΩΔ02, Room B205) Chair: T. Krasia-Chistoforou 9.00-9.40 PLENARY W. Sigmund Functional Nanomaterials via Electrospinning 9.40-10.05 INV13 S. Agarwal Fibers with special morphologies by electrospinning 10.05-10.30 Coffee Break Session E1 Processing, morphology control and applications (ΧΩΔ02, Β205) Chair: A. Macagnano  Session E2 Processing, morphology control and applications (ΧΩΔ02, Β204) Chair: S. Agarwal 10.30-10.55 INV14 K. De Clerck Advanced colorimetric sensors based on dye-functionalized nanofibers INV18 J.M. Lagaron Development and characterization of novel electrospun biopolyester coatings for barrier paper applications 10.55-11.20 INV15 C. Adlhart Amphiphilic ultralight 3D aerogels from electrospun nanofibers INV19 B. Pilić Nanofiber based intelligent packaging 11.20-11.45 INV16 P.D. Topham Block copolymer self-assembly: Rinse-resistant superhydrophobic fabrics made using a combination of electrospinning and electrospraying INV20 T. Uyar Decoration of metal nanoparticles (Pt-NP and Pd-NP) on electrospun nanofibers via atomic layer deposition for catalytic applications 11.45-12.10 INV17 M.L.Focarete Atmospheric pressure non-equilibrium plasma applied to electrospinning processes and products INV21 K. Pielichowski Surface modification of polylactide by electrospinning of chitosan/nanosilica outer layers to improve flame retardant properties 12.10-12.25 O12  I. Savva Magnetoactive Electrospun fibers: Fabrication, characterization and applications O14 L. Daelemans Nano-engineering highly toughened fibre reinforced polymer composites by interleaving electrospun nanofibres for advanced applications 12.25-12.40 O13 N. Radacsi Temperature effects on the fiber diameter during the fabrication of PVP and PVA nanofibers by needleless electrospinning   O15 P.Heikkilä Electrospun sheet materials from CA, PES and PLLA as supports for ALD coating 13:00-14:30 Lunch     7 Session F1 Environmental and agricultural applications (ΧΩΔ02, Β205) Chair: N. Radacsi  Session C3 Biomedical applications (ΧΩΔ02, Β204) Chair: J.M. Lagaron 14.30-14.55 INV22 H.E. Hummel Electrospun mesofibers in precision viticulture: A new alternative for dispensing sex pheromones in mating disruption schemes for IPM INV26 A. Greiner Release of artemisone from electrospun nonwovens for the treatment of malaria 14.55-15.20 INV23 F. De Cesare Development of smart nanofibrous plant growth promoting rhizobacteria (PGPR) biofilms for agricultural applications INV27 S.K. Bhullar Deformation mechanism of smart nanofibrous stents and drug delivery systems 15.20-15.45 INV24 Y. Truong Large scale preparation and characterization of electrospun carbon particle-nanofibre composites for ammonia adsorption INV28 U. Stachewicz 3D analysis of cell responses to electrospun polymer nanofibers scaffolds   15.45-16.10 INV25 M. Roso Different strategies for enhancing the performance of TiO2 based nanostructured membranes for VOCs abatement INV29 E. Kijeńska PLLA and PCL-based electrospun scaffolds for tissue engineering applications: fabrication and biological characterization 16.10-16.25 O16 Y. Truong Preparation and characterisation of electrospun gelatin-saponin composite nanofibers O22 Ž. Rukuižienė Electrospun web with baltic amber particles 16.25-16.40 O17 M. Maryšková Enzyme-loaded nanofibrous mats by electrospinning for biomedical and environmental applications O23 A.S. Sarac Conductive polyanthranilic acid nanofibers 16.40-17.00 Coffee Break Session F2 Environmental and agricultural applications (ΧΩΔ02, Β205) Chair: K. De Clerck Session C4 Biomedical applications (ΧΩΔ02, Β204) Chair: A. Greiner 17.00-17.15 O18 P. Papaphilippou Electrospun polymer-based fibrous membranes as adsorbents for bacteria and organic compounds removal from water contaminated media O24 S. Metwally Production of charge induced nanofibres scaffolds 17.15-17.30 O19 D.G. Ruzgar Electrospinning of wool keratin/poly(ethylene O25 P. Mikes Complete analysis and comparison of poly(lactic acid-co- 8 oxide) blend nanofibers for air filtration application caprolactone) nanofibers for tissue engineering applications 17.30-17.45 O20 G. Schlatter Hierachical metal@carbon composite hairy nanofibers for catalytic applications O26 K. Molnár Poly(amino acid) based nano gel fibers for tissue engineering  17.45-18.00 O21 W. Woon-Fong Leung Loading and Cleaning of Nanofiber Air Filter After Long-Term Use  18.30:  19.30 -:  Transportation to the conference dinner venue Conference dinner  Friday 21st April / MP1206 COST Session (ΧΩΔ02, Β205) 9.30-11.30 COST MP1206 Management Committee Meeting Session C5 Biomedical applications Chair: T. Krasia-Christoforou 11.30-11.45 O27 J. E. ten Elshof Sol-gel derived ceramic nanofibers and their applications in biomedical engineering and electronics 11.45-12.00 O28 L. Liverani Multilayered scaffolds and graded mineralization for osteochondral tissue engineering applications 12.00-12.15 O29 M. Omastová Conducting polycaprolactone/polypyrrole nanofiber mats prepared by electrospinning 12.15-12.30 O30  I. Safarik Magnetically-modified electrospun chitosan-based fibers: Fabrication, characterization and bioapplications 12.30-12.45 O31 Š. Zupančič Antimicrobial nanofibers for treatment of local infections 12.45-13.00 Closing remarks  13.00-15.00 Lunch   Saturday 22nd April Post-Conference Social Programme: Post-conference Guided Tour  Mountain villages on Troodos Mountains: Kakopetria, Troodos, Omodos (Optional)          9 POSTER SESSION  Wednesday 19th April 2017, 17:00 Social Activities Building, Room 010  POSTER NUMBER PRESENTER’S NAME POSTER TITLE PO.1 E. Schoolaert Waterborne electrospinning of poly(N-Isopropyl Acrylamide) towards stable nanofibers PO.2 J. Dusza Development of Al2O3 electrospun fibers PO.3 T. Meireman Interlaminar toughening of resin transfer moulded laminates by electrospun polycaprolactone: Effect of interleave morphology PO.4 S. Yildirim Electrospun nanofibers as food contact layer for palladium based oxygen scavenging films PO.5 M. Mader Ultralight, biodegradable and highly porous soft polymer sponges based on electrospun fibers PO.6 A. Portone Nanocomposite electrospun fibers embedding 2D-Materials PO.7 N. Radacsi 3D-electrospinning: A novel method to control the structure of nanofibers and its application for nanostructured fuel cells PO.8 S. Reich Highly conductive and flexible nonwovens for application as electrodes PO.9 V. Vassiljeva Electrospinning of SAN conductive reinforced membranes  PO.10 K. Castkova Ceramic fibres for energy applications PO.11 V. Tsigkis Naturally-derived electrospun fibers with potential applications in batteries PO.12 W. Gieparda Flammability and structure of PLA/PHB nanofibers modified with different types of carbon nanotubes.  PO.13 I. Ristić Elecrospun conductive nano-fibres based on poly(lactide)  PO.14 C. Sofroniou NSAD drug release from electrospun polymer nanofibers PO.15 C. Voniatis Prospects of poly(vinyl)alcohol scaffolds In abdominal hernia treatment. A study of mechanical properties. PO.16 M. Kokonou Electrospun PEO/PLLA Fibrous Membranes for Sustained Tyrosine Kinase Inhibitors Delivery in Situ PO.17 K.  Christodoulou Anthracene-containing electrospun fibers for ammonia gas sensing  10 PO.18 G. Papaparaskeva Synthetic strategies towards the combination of hydrogels with electrospun fibers PO.19 A. Christofi,  C. Christou Lime-based composites reinforced with electrospun fibers PO.20 M. Nikolaou Effect of UV irradiation and sonication on the morphology of electrospun polymer-based nanocomposite fibers PO.21 A. Rinaldi Cross-cutting opportunities in  Europe for technologies foe extreme applications and low or null critical raw material content PO.22 I. Savva Chitosan-based electrospun nanocomposite fibrous mats and their bioapplications   11Short Biographies of Plenary Speakers Professor Gary L. Bowlin Department of Biomedical Engineering, University of Memphis,  330 Engineering Technology Bldg., Memphis, TN, 38152, USA   * glbowlin@memphis.edu  Dr. Bowlin is a Professor and Herbert Herff Chair of Excellence at The University of Memphis in the Department of Biomedical Engineering.  Dr. Bowlin’s collaborative research has and continues to focus on the application of electrospun templates for tissue engineering and tissue regenerative applications as well as developing hemostatic products, all in the pursuit of saving lives and improving the quality of life.  Dr. Bowlin’s laboratory has published extensively in these areas with over 125 peer-reviewed manuscripts.  Google Scholar data shows his group’s published works have been cited over 12,000 times, resulting in an H-index of 48.  To date, Dr. Bowlin has been granted 11 U.S. Patents and 32 foreign patents.  These patents have helped to start five different companies and several commercially available and regulatory agency cleared products.  One of the most recent technologies being developed by St. Teresa Medical, Inc. has completed clinical trials for CE Marking.  The latest company, Sweetbio, Inc., is Memphis based and developing novel guided tissue regeneration membranes for dental reconstruction procedures.  As a result of this inventiveness and impact, he was recently inducted as a Fellow into the National Academy of Inventors.  He is also the Inaugural and current President of the International Society for Biomedical Polymers and Polymeric Biomaterials. Dr. Bowlin received his Ph.D. from the University of Akron in Biomedical Engineering and subsequently completed an American Heart Association sponsored post-doctoral fellowship in the Department of Surgery at Akron City Hospital.  In 1997, Dr. Bowlin started his first faculty appointment at Virginia Commonwealth University and rose to the rank of Professor and held the Louis and Ruth Harris Exceptional Scholar Professorship.  In August 2013, he relocated to The University of Memphis to continue his research and entrepreneurial endeavors and continued training of the next generation of Biomedical Engineers. Professor Eyal Zussman Department of Mechanical Engineering,  Technion – Israel Institute of Technology,   Haifa 32000, Israel   meeyal@technion.ac.il  Dr. Eyal Zussman is the Winograd Professor in the Department of Mechanical Engineering at the Technion – Israel institute of Technology. He holds a DSc degree from the Technion in mechanical engineering. He held postdoctoral appointment at Technical University in Berlin, Germany. Since joining the faculty at the Technion, he has served as Director of the NanoEngineering Group. His group research is in the area of molecular engineering of soft matter, in particular the development of process-structure-property relationships, through the use of simulations and experiments, and the development of functional electrospun fibers. He was Visiting Professor at the Northwestern University (2003), and at the National University of Singapore (2010-2015). He has published over 130 peer-reviewed journal articles. 

Advanced colorimetric sensors based on dye-functionalized nanofibers

https://biblio.ugent.be/publication/8556807/file/8556808

Advanced colorimetric sensors based on dye-functionalized nanofibers

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Ghent University Academic Bibliography