Research group: Department of Textiles Department of Textiles Prof. Dr. Paul KIEKENS, dr. h. c. Prof. Dr. ir. Lieva VAN LANGENHOVE, dr. h. c. Prof. Dr.

Slides:



Advertisements
Similar presentations
Dipartimento di Chimica, Materiali e Ingegneria Chimica “Giulio Natta” (CMIC) Materials for Energy and Environment Group Mat4En2 Laboratory.
Advertisements

CALL FOR EUROPEAN PARTNERS Research and Innovation on the Wood - Coating Interface and Modified Wood for Prolonged Service Life of Wooden Components in.
Presented by MSc. Ir. Sheilla A. Odhiambo PhD student, Gent University, Department of Textiles,& Moi.
Filippo Parodi /Paolo Capobianco (Ansaldo Fuel Cells S.p.A.)
CETEC SENAI Mission: Technological Solutions for the Industry Challenges Total area (m 2 ): Built area (m 2 ): Technical depts.:11 Laboratories:54.
Review on Week 6 Lecture Particle Based Drug Delivery System.
Dr. Hooshang Nosraty ( Associate Professor ) Head of Textile Engineering Department.
The integration of smart textiles enabling a non- invasive approach in monitoring the user’s vitals and activities Prof. Lieva Van Langenhove Department.
Application: A novel, non-destructive method which provides characterization of the three-phase interface in both catalyst and diffusion layers, between.
Biomedical Engineering- What is it? 9/10/14. Announcements  CBSA Mentoring program is still looking for Juniors and Seniors.
Degradation Profile of Electrospun PLGA Matrix
R.E.J. Sladek, R. Walraven, E. Stoffels, P.J.A. Tielbeek, R.A. Koolhoven Department of Biomedical Engineering, Eindhoven University of Technology, P.O.
Dr. Xia Wang Assistant Professor Department of Mechanical Engineering Tel: Fax: Contact.
R·I·T Kate Gleason College of Engineering Design of a Tensile Load Frame for a Scanning Electron Microscope Senior Design Project Project Manager.
Smart and Technical Textiles
Group 4 Derek Sheesley Sunil Shah Michael Iskhakov Marina Louis Anthony Jones.
More with Less An Introduction to Revolution Fibres.
Electrospinning Technique University of Technology
 Deborah Ohiani-Jegede Partners: Nkele Davis and Nick Xydis Group 24, Client :Brad Clay, bio Merieux.
Tsung-Chan “Cliff” Tsai Dr. David Staack  4 th state of matter: ionized gas  Most abundant in the cosmos  Made of electrons and ions  Electrically.
Characterisation of Textile Structures Julian Ellis OBE Ellis Developments Ltd Nottinghamshire.
Centre for Materials Science and Engineering. Coordinating organisation of departments and research groups at Ghent University. Grouping the broad expertise.
Prof. Dušan Galusek Vice-rector for research, science, and international relations.
Nanotechnologies for Textiles, Clothing and Footwear Dr. Jimmy Lam Institute of Textiles & Clothing.
CPD and other imaging technics for gas sensor Mizsei, János 18-28/05/2006 Ustron Budapest University of Technology and Economics, Department of Electron.
PREPARATION OF ZnO NANOWIRES BY ELECTROCHEMICAL DEPOSITION
Figure 12, Greatly enhanced total calcium deposition on CAP modified nHA/Chitosan scaffold after 3 weeks of culture. Data are mean ±SEM; n=9. *p
CHAPTER1 Materials for Biomedical Applications Biomaterials: Material intended to interface with biological systems to evaluate, treat, augment, or replace.
Artificial & BioArtificial Organs Ecole supérieure d’Ingénieurs de Luminy Julien Cucurella Maud Bonnard Biomedical 2008.
Artificial Tendon Artificial Skin Artificial Ligament Artificial Cornea Soft Tissues Implants Different Products Constitute This Sector Cosmetic Lens.
CEAS REU Project 4 Synthesis of Solar Cell Materials, and Fabrication of Novel Polymer-Based Solar Cells Nathan Duderstadt, Chemical Engineering, University.
Developing Novel Drug Delivery Systems for the Treatment of Epilepsy
Chemical Vapor Deposition A Simple method of bottom up Fabrication.
Functionalized Polymeric Electrospun Nanoscaffolds for Bone regeneration and Tissue Healing Anand Gadre, Ph.D., MBA Director Nanofabrication and Stem Cell.
1 New Materials, Surfaces and Sensing Applications Novel Functional Materials Intelligent Materials Surface Functionalisation Nanomaterials and Nanocoatings.
XINAN ZHOU DEC Review on nanofiber and applications.
Real-Time Polarized Raman Spectroscopy of an Electrospun Polymer Nanofiber John F. Rabolt, University of Delaware, DMR Shown in Figure 1 is the.
Bio-Based Materials in Medicine Johnathan Marks and Blake Morell.
Nanotechnology foundation & applications
Narrowing the Diameter of Electrospun Nanofibres
 To create a polycaprolactone mesh which enables cell activity and seeks to eventually provide an application in the field of tissue engineering toward.
Theories of Electrochemical Processes on Disordered Electrodes R bulk O’ O’ surf O’ ads R’ e-e- Rough Electrode Mass transferChemical ReactionAdsorptionElectron.
Dustin Borg, ME Patrick Henley, BME Ali Husain, BME Nick Stroeher, BME Advisor: Dr. Paul King.
A SMART FABRIC IS A FABRIC THAT HAS BEEN DESIGNED TO REACT AUTOMATICALLY TO CHANGES IN ITS SURROUNDINGS. THEY CAN BE PRODUCED IN A VARIETY OF WAYS FOR.
School of Mechanical, Materials and Manufacturing Engineering About this course Biomedical industries provide a rich diversity.
 A PCB is printed circuit board, also known as a printed wiring board. It is used in electronics to build electronic devices. A PCB serves 2 purposes.
Smart Wound Patch A Smart Patch Promoting Improved Wound Healing Anna Hristoskova Department of Information Technology.
Effect Of Applied High Voltage And Flow Rate Parameters On Nanofibers Diameter Determined From Electrospininng Technique Assist .Prof . Dr. Akram R. Jabur,
Husam M. Younes, PhD Associate Professor of Bio-Pharmaceutics
Coating Techniques and Their Applications
Dr. Piotr Piszczek, Associate Professor Chair of Inorganic and Coordination Chemistry Faculty of Chemistry, Nicolaus Copernicus University in Toruń, Poland.
Laurea Magistrale in Ingegneria dei Materiali
Dr. Aleksandra Radtke Chair of Inorganic and Coordination Chemistry Faculty of Chemistry, Nicolaus Copernicus University in Toruń, Poland Nano-implant.
COMPARISON OF INFLUENCE OF PLASMA TREATMENT BY DSCBD AND INFRARED LASER RADIATION ON KEVLAR AND NOMEX FIBERS  *Marie Štěpánková, Jakub Wiener  Department.
Table 1. Fibre for Implantable Medical Textile [9]
Engineering of the electronically functional yarn
Rolf Wüthrich Department of Mechanical and Industrial Engineering
Effect Of Applied High Voltage And Flow Rate Parameters On Nanofibers Diameter Determined From Electrospininng Technique Assist .Prof . Dr. Akram R. Jabur,
بسم الله الرحمن الرحيم membrane characterization methods Mohammed Fuseini Chemical and Petrochemical Engineering Department Egypt-Japan University of Science.
Electrospinning Nanofiber Filtration Tubes using Quadrupole Design
Electrospinning is a remarkably robust and versatile method for fabricating fibers with diameters down to the nano meter length scale Figure : Electrospun.
Design a novel 3-layered nanofibrous mat for wound healing
Graduate School of Engineering, Shinshu University
Protonic-Electronic Mixed-Conducting Nanofibers for Energy Conversion
Catalyst coated membrane for zero-gap alkaline water electrolyzer
Inverse Phase Transition
EUROPEAN UNION EUROPEAN SOCIAL FUND OPERATIONAL PROGRAMME
Protonic-Electronic Mixed-Conducting Nanofibers for Energy Conversion
Proton Exchange Membrane Fuel Cell: How Does It Work?
Electrochemical Impedance Spectroscopy Mr.Halavath Ramesh 16-MCH-001 Department of Chemistry Loyola College –Chennai. University of Madras.
Presentation transcript:

research group: Department of Textiles Department of Textiles Prof. Dr. Paul KIEKENS, dr. h. c. Prof. Dr. ir. Lieva VAN LANGENHOVE, dr. h. c. Prof. Dr. ir. Gustaaf SCHOUKENS number of researchers: 20 contact person: Prof. Dr. Paul KIEKENS telephone: , website adres:

research group: Department of Textiles research themes and infrastructure main research themes Textile Processing & Production Technology Polymer & Fibre Technology Physical & Chemical Textile Technology

research group: Department of Textiles Textile Processing & Production Technology: Weaving Basic and applied research Main industrial partner : PICANOL NV  Modelling of yarn behaviour during insertion  Modelling of fabric formation  Self-learning setting of machine

research group: Department of Textiles Textile Processing & Production Technology: Biomimetics Finding inspiration in nature Insect repellent textiles UV protective textiles Embedding of natural organisms in polymers

research group: Department of Textiles Textile Processing & Production Technology: Spider silk for tissue engineering Araneus diadematus cocoon silk Porous silk matrix Cartilage wound / implant Human knee cartilage Cell growth Cells for tissue regeneration

research group: Department of Textiles Textile Processing & Production Technology: Intelligent Textiles Textile electrodes for heart monitoring (Textrodes) Textile strain sensor for respiration monitoring (Respibelt) Intelligent textiles: integration in baby suit

research group: Department of Textiles Polymer & Fibre Technology: Artificial Turf Research and development of an optimal grass fibre and an alternative field construction Higher performance of artificial turf with FIFA quality mark Higher level of acceptance of artificial turf Worldwide breakthrough of artificial turf fields for football

research group: Department of Textiles Polymer & Fibre Technology: Biomedical textiles from chitin Development of chitin derivates Study of the spinning technology Performance as wound dressing: anti-bacterial, hemostatic, biocompatible

research group: Department of Textiles Physical & Chemical Textile Technology: Electrospinning Spinning in high voltage electrical field generates nanofibres Research themes: - Study of nanofibre nonwoven web - Research on impact of process conditions Polymer solution Electrical field Other

research group: Department of Textiles Physical & Chemical Textile Technology: Electrochemistry 1.PVC plates 2.Rubber fittings 3.PVC Tube 4.Electrolyte solution 5.Screws 6.Textile electrodes 7.Membranes Electrochemical impedance test cell as objective method to evaluate textile electrodes

research group: Department of Textiles Physical & Chemical Textile Technology: Fibre characterisation Optimisation of characterisation techniques to provide high resolution research tools to the textile industry Microscopy (SEM, CLSM, OM) Fibres Thermal analysis (DSC, MDSC, TMA) A (a. u.) CHCl 3 KBr (cm -1 ) fibre Molecular electronic and vibrational spectroscopy Bulk polymer

research group: Department of Textiles Physical & Chemical Textile Technology: Plasma treatment of textiles GENERIC RESEARCH : Results useful for development of both theory and industrial applications ENVISAGED EFFECTS : Deeper and brighter colour, hydrophilicity, hydrophobicity,… PARAMETERS LOOKED AT : effect penetration (figure), surface (im)purity, effect of porous character of textiles EFFECT CHARACTERISATION : In view of production control in industrial environment and taking into account industrial reality subtle influence of 7-layer textile structure on effect penetration