2017 Global Conference on Polymer and Composite Materials (PCM 2017)
Invited Speakers
Prof. Ildoo Chung, Department of Polymer Science and Engineering, Pusan National University, Busan 46241, Korea

Professor Ildoo Chung joined the faculty of Department of Polymer Science and Engineering at Pusan National University, Korea in 2005. Prior to that, he completed his postdoctoral training with Professor Jimmy Mays in Department of Chemistry at University of Tennessee, and with Professor Dong Xie in Department of Biomedical Engineering at University of Alabama at Birmingham, USA. He received his Ph. D. at Pusan National University in 2000. He is now serving editor-in-chief of Journal of Adhesion and Interface, and member of board of directors in the Polymer Society of Korea, the Korea Society of Adhesion and Interface, Korea Polyurethane Society, and Asian Cyclodextrin Conference. He had over 70 peer-reviewed publications and over 150 presentations in national and international conferences. His research interests are focused on polymer synthesis such as atom transfer radical polymerization (ATRP), radical addition-fragmentation transfer (RAFT) polymerization and advanced polymeric biomaterials such as drug delivery system, hard/soft tissue compatible polymers, photocurable 3D printing polymer, biodegradable polymer and composite system.
Speech Title: Biodegradable Nanoporous Microspheres by RAFT and UV Irradiation
Abstract: Nanoporous microspheres based on polycaprolactone (PCL), polylactide (PLA) and photodegradable poly(methyl vinyl ketone) (PMVK) were synthesized and characterized. In this study, biodegradable triblock copolymers were first synthesized by ring opening polymerization of lactide followed by RAFT polymerization of methyl vinyl ketone (MVK), and then used to fabricate microsphere by emulsion method. In order to polymerize by RAFT method, macro-CTA (chain transfer agent) was synthesized by reacting carboxylic acid-terminated CTA, S-1-dodecyl-S’-(α,α’-dimethyl-α’’-acetic acid) trithiocarbonate (DDMAT) with hydroxyl terminated PLA-PCL-PLA triblock copolymer, and then used for the synthesis of block copolymer with methyl vinyl ketone (MVK). The synthesized block copolymers were characterized by FT-IR, 1H NMR spectroscopies. Gel permeation chromatography (GPC) was used to evaluate molecular weight and molecular weight distribution and monitor photodegradabilities of block copolymers. The morphology of microparticles before and after UV irradiation confirmed by SEM and TEM images showed that spherical microspheres before UV irradiation were changed to disk-shaped microparticles, owing to collapsing of PMVK moieties by UV irradiation.
Keywords: Biodegradable; Nanoporous; Microsphere; RAFT; UV irradiation


Assoc. Prof. Karine Charlet, University Clermont Auvergne, SIGMA Clermont, Institute Pascal, BP 10448, 63000 Clermont-Ferrand, France

Dr. Karine Charlet is an associate professor at Institute Blaise Pascal, Clermont-Ferrand, France, since 2009. After receiving a master degree in Materials and Processing Science from University Paul Sabatier, Toulouse, France, she received her PhD in Material Chemistry from University of Basse-Normandie, Caen, France. Her work there concerned flax fibre based composites, and especially the relationships between the morphology and the mechanical properties of the fibres used to reinforce polymer matrices. Then she did a post-doctoral fellowship in Louvain-la-Neuve, Belgium, studying the processing of nanocomposites made of cellulose, before joining the French Institute of Advanced Mechanics, now called SIGMA Clermont, as an associate professor. She is currently in charge of the Structure and Mechanics of Materials Department of this engineering school. Her research still deals with composite materials made of flax, wood or other natural fibres, looking for improving their properties through a better understanding of their mechanical behaviour. She participated to more than 30 papers or book chapters on this subject. In 2011 she received the Daniel Valentin prize from the French Association of the Composite Materials, and in 2016 she organized a national conference on natural fibre composites dedicated especially to young researchers of this domain.
Speech Title: Flax fibers based composites
Abstract: In order to develop the use of natural fiber based materials in structural parts, several challenges have to be undertaken. Looking particularly to flax fibers, which are among the strongest natural fibers in the world, the first challenge is the reduction of the scattering of the derived composite properties. It has been shown that the choice of fiber variety or the fiber location in the stem can reduce notably the dispersion of not only mechanical properties but also morphological and chemical characteristics. Also, when processing composites, the reinforcement material occurs under the shape of bundles instead of elementary fibers. This results in a need to find a compromise between an easy handling and an improved mechanical interest. The characterization of the middle lamella enables the modelling of the bundle behaviour, and thus the optimization of the reinforcement size, directly linked to the level of retting. Finally, compared to glass fibers, flax fibers exhibit lower weight and higher damping properties. This may open new opportunities of applications of the derived composites, for instance in areas where dynamic stresses are applied and where lightering is a significant benefit.
Keywords: Flax; Interfaces; Scattering; Processing; Morphology; Mechanical properties.


Prof. Dr. Cosimo Carfagna, Director of the Institute of Polymers, Composites and Biomaterials (IPCB), National Science Council of Italy; full Professor of Chemistry at the University of Naples “Federico II”, Italy

Prof. Cosimo Carfagna is full Professor of Chemistry at the University of Naples “Federico II”. Since 2001 he is Director of the Institute of Polymers, Composites and Biomaterials of C.N.R. From 2008 to 2010 he has been President of Research Area NA3 of C.N.R. He is member of the International Society of Liquid Crystals, member of the Material Research Society, member of the Academy of Science of New York, member of the Italian Society of Liquid Crystals, member of the Italian Society of Macromolecules, member of Italian Chemical Society, member of the Editorial Board of the review: Anti-Corrosion Methods and Materials ISSN 0003-5599, member of the Scientific Committee of POLYCHAR. More...
Speech Title: Electrospun Nanofibers containing Artemisinin: a natural Remedy For Malaria and Cancer
Abstract: The continuous search of new therapy is requested by a growing resistance to major antimalarials. The sesquiterpene endoperoxide Artemisinin (ART) is currently one of the most effective natural treatment against multidrug resistant Plasmodium species, and ART combination treatments (ACTs) can represent an useful approach to fight resistance, as recommended by the WHO. ART relevance is witnessed by the 2015 Nobel Prize in Physiology or Medicine awarded for one half by Professor Youyou Tu. Since seventies, Youyou Tu and her team focused their efforts to the development of new malarial therapies inspired by the traditional Chinese medicine; they discovered that Artemisinin appeared in several ancient recipes to treat the malarial disease.More...


Prof. Dr. Deng-Guang YU, School of Material Science and Engineering, University of Shanghai for Science and Technology, Shanghai 200093, China

Dr. DG Yu is a professor in the School of Material Science and Engineering at the University of Shanghai for Science and Technology. His research interests include electrohydrodynamic atomization (electrospinning, electrospraying and e-jet printing), polymer, biomaterial, and advanced drug delivery systems. He has developed a series of new electrospinning processes for creating nanostructures from multiple working fluids. Dr Yu has authored over 150 peer-reviewed journal papers and has been awarded several national competitive research grants.
Speech Title: Amorphous medicated nanocomposites fabricated using modified coaxial electrospinning
Abstract: The dissolution and absorbance of poorly water-soluble drugs is a long-existing and intractable question in the field of pharmaceutics. Over the past several decades, a series of pharmaceutical polymers and also many advanced nano techniques have been exploited to resolve this problem. New method for providing feasible approaches to improve the dissolution of these drugs is always sought after in both laboratory and industry. In the present job, modified coaxial electrospinning, was explored to create amorphous medicated nanocomposites for a poorly water-soluble drug. The polymer carrier is a hydrophilic polymer hydroxypropyl methylcellulose and the model drug is tamoxifen citrate, an anti-cancer active ingredient. Compared with those fibers fabricated using a traditional single-fluid electrospinning, the nanocomposites from the modified coaxial processes showed higher quality in term of fibers’ morphology, surface smoothness, diameter and size distributions. The nancomposites were able to release the loaded cargoes all at once when they were put into the dissolution media, showing faster dissolution rates than the raw drug particles in double orders of magnitude. The reported protocols not only provided a tool for poorly water-soluble drugs, but also pave a way for developing novel kinds of functional polymeric composites.
Keywords: Nanocomposite; Polymeric composite; Poorly-water soluble drug; Coaxial electrospinning; Amorphous


Prof. Dr. Kaman Singh, Department of Chemistry, Surface Science, Catalysis and Electrochemistry Laboratory, Faculty of Science, University of Lucknow 226 007, India

Dr. Singh received his Ph.D. degree in Physical Chemistry at the National Sugar Institute, Kanpur, India in 1997. Prof. Singh has continuously engrossed himself in frontline research in chosen areas particularly pertaining to the problems of synthesis and characterization of materials for their anticipated critical role in upgrading technology, advance surface chemistry & catalysis and electrocemistry, solid state chemistry and development of non-chemical devices for industrial applications. His principal areas of interest and expertise include functionalization of low density PP, PE polymers and carbon surfaces for their application in adsorption/desorption processes. He is a member of Expert Committee on INSPIRE Awards, Department of Science & Technology, Government of India. Prof. Singh has been selected as INSA visiting scientist under International Collaborative/ Bilateral Exchange Programme-2016. Currently, Prof. Singh is Dean School for Physical Sciences, Babasaheb Bhimrao Ambedkar Central University, Lucknow.
Speech Title: Surfactant-functionalization of polyethylene and polypropylene hydrophobic polymeric supports for adsorption of anti-oxidant polyphenols
Abstract: Coming soon…
Keywords: Coming soon…


Prof. Dr. Yanhong Feng, School of Mechanical & Automotive Engineering, South China University of Technology, Guangzhou, China

Dr. Yanhong Feng is Professor and PhD supervisor in South China University of Technology. She graduated in Material Processing Engineering from South China University of Technology in 2003. She works at the National Engineering Research Center of Novel Equipment for Polymer Processing and the Key Laboratory of polymer engineering ministry of education, and serves as deputy director of the Institute of Advanced Manufacturing Equipment and Technology for Polymer of the College of Mechanical and Automotive Engineering. She was selected as the leading talent of scientific and technological innovation of Guangdong Province, and the New Century Excellent Researcher Award Program from Ministry of Education of China. She is devoted to the novel molding methods & equipment for polymer, and technologies for modification and processing of biomass composites. She presided over a National Key R & D Program, a National Science and Technology Support Project, two National Natural Science Foundation Projects and a Major Project of Guangdong Province. She has devised short processing extrusion technology and equipment for UHMWPE, the green modification and high-value comprehensive utilization technology and equipment of biomass. She has received a second prize of the National Technological Invention Award and a first prize of the Technological Invention Award of the Ministry of Education. She has published more than 90 papers and has been authorized 20 invention patents.
Speech Title: Development on UHMWPE Extrusion Processing Technology Based on Elongation Deformation Mechanism
Abstract: A novel method is presented for preparing Ultra-high molecular weight polyethylene (UHMWPE) and its composites via an eccentric rotor extruder based on elongation deformation. The effects of this processing technology on plasticizing, conveying and extruding of UHMWPE materials of different molecular weight were studied. Rotary rheometer, differential scanning calorimetry, tensile test, scanning electron microscope and Raman spectroscopy were carried out to investigate the effects of processing technique on mechanical properties and microstructure of UHMWPE and its composites. The results indicate that this technology is a novel technique for polymer conveying, plasticizing and mixing, which can greatly improve the processing efficiency of UHMWPE and performance of relevant products.
Keywords: UHMWPE; Processing; Elongation deformation.


Prof. Murat TAŞ, Education Faculty, Department of Science Education, Ondokuz Mayis University, Turkey

Dr. Murat Tas is the Head of the Science Education Department, OndokuzMayis University (OMU), Turkey. He was also affiliated with Karadeniz Technical University and Giresun University in Turkey. Dr. Tas obtained his PhD in Natural Science Institute from OndokuzMayıs University in 2004. Before joining the OndokuzMayıs University, Dr. Tas had worked as a visiting researcher fellow at the University of James cook, Townsville, Australia. The main research areas are synthesis and characterization of nitrogen, phosphorus and sulfur containing organic molecules and their metal complexes. Coordination compounds of some biological active compounds, Heterocyclic ligands, Thermal behaviors of the materials, inorganic polymeric compounds, Porous crystalline materials and MOF’s also works by his groups. The current research interests of his group are in design the controllable porous in the inorganic polymers.
Speech Title: Inorganic Polymers Based on, 3,3ʹ,5,5ʹ-azobenzenetetracarboxylate
Abstract: A large molecule, or macromolecule, composed of many repeated subunits is called as polymer. From familiar synthetic plastics to natural polymers, Polymers are fundamental to biological structure and function. Both synthetic and natural polymers play an essential and ubiquitous role due to their properties and many smaller molecules, called as monomers create the copolymers via polymerization reactions.More...



Dr. L. Balan, CNRS Senior Researcher, Institute of Materials Science of Mulhouse (IS2M), CNRS UMR 7361, 15 rue Jean Starcky, Mulhouse- FRANCE

Lavinia BALAN obtained the PhD degree from the University Henry Poincaré in Nancy, France, in 2005. Her PhD was devoted to the elaboration of an original material for the anode of Li-ion batteries. After a post doctorate in Orleans and then in Mulhouse, she joined the Department of Photochemistry (DPG) of Mulhouse in 2006 as a CNRS Senior Researcher. She opened a new field of research in this laboratory, viz. the photoassisted synthesis of metal nanoparticles and metal-polymer nanocomposite materials. Since December 2009, L. Balan joined the Institute of Materials Science of Mulhouse (IS2M) CNRS-UMR 7361. Her lines of research are concerned with (photo)chemical synthesis of metal/polymer nanocomposites and design, customization and characterization of metal nanoparticles and nanocrystals (quantum dots) suited for advanced applications in the fields of optic, photonics, plasmonics, information storage, imaging or biology.
Speech Title: Coming soon...
Abstract: Coming soon...



Assoc. Prof. Dr. Haşim Pihtili, Department of Mechanical Engineering, Engineering Faculty, Fırat University, Elazig, TURKEY

Dr. Haşim Pihtili was graduated from Firat university the department of mechanical engineering in 1986. Then he started his master science study and became research assistant in the same university. He completed his master study in 1988. He was completed PhD study in 1991 and promoted to assistant professor in 1993. He has been Associate Professor in 2015. He has taught the lectures of machine elements, composite materials and laboratory courses related to construction and manufacturing since 1988. He has numerous publications in national and international journals. Particularly, they are mainly about wear, composite materials and construction of machines. He has a chapter in the book namely Woven fabric engineering. He is still reviewer in various journals, a member of Turkish Composites Manufacturers Association (TCMA) and has a patent at the same time.
Speech Title: Investigation of Torsion Behaviors of Carbon/Epoxy Shafts Which Manufactured From Composite Materials and Different Orientation Angles by Experimental and Finite Element Method
Abstract: The torsional stresses of hollow circular shafts manufactured from composite materials and with different orientation angles were researched in this study. For hollow circular composite shafts; carbon fiber were used as the fiber materials, while epoxy resin was used as the matrix material. 80mm, 200mm and 250mm long composite shafts of different inner diameters were used. The hollow circular composite shafts were manufactured at θ=45°, 60°, 75°, 80°, 88° orientation angles. Filament winding method was preferred when manufacturing the composite shafts. The mechanical torsion tests of hollow circular composite shafts were separately repeated for each sample. The obtained results were evaluated among themselves in terms of the length of the shafts, the diameter of the shafts and the orientation angle, after which they were transferred to the graphics. The obtained results of experimental and numerical analyses were presented in graphs and the necessary considerations were made. The experimental and numerical analysis results were found to be close to each other.
Keywords: Composite shafts; Filament winding; Orientation angle; Torsion test


Assoc. Prof. Vladimir Popok, Department of Physics and Nanotechnology, Aalborg University, Aalborg, Denmark

Vladimir Popok received his master and PhD degrees from Belarusian State University (BSU) in 1990 and 1995, respectively. After that we worked at different positions at BSU, University of Gothenburg in Sweden and Rostock University in Germany. Since 2011 he is an Associate Professor at the Department of Physics and Nanotechnology, Aalborg University in Denmark. Main fields of research interest are related to cluster ion beams, optical and electronic properties of nanoparticles and metal/polymer nanocomposites as well as materials for power electronics. He published over 110 papers in peer-reviewed journals, 3 chapters in books and co-authored 2 books.
Speech Title: Polymer composite films with size-selected metal nanopartciles
Abstract: Polymer composite films with metal nanoparticles (NP) are of high interest for a number of applications. Recently, it has been demonstrated that cluster beam technique is an efficient method for embedment of NPs into polymer substrates. However, the mechanisms of cluster immersion into polymers are not well understood as well as electronic and optical properties of the embedded metal NPs require deeper study.
In the current work, silver and copper cluster are produced using the magnetron sputtering cluster apparatus. They are size-selected and deposited on poly(methyl methacrylate) and polystyrene films prepared by spin-coating. The experiments have shown that immersion of soft-landed NPs into polymers can be driven by thermal annealing. This technically simple treatment opens great capabilities for the formation of polymer films with either partly or fully embedded size-selected particles as well as formation of the composites with controlled filling factor of NPs. The developed methodologies are grounded by physical understanding of main mechanisms driving NP immersion. Optical properties of polymer composites with embedded metal NPs are studied and discussed in the paper.
Keywords: Cluster beam technique; Metal nanoparticles, Composite polymer films; Localised surface plasmon resonance.


Assoc. Prof. Shaojun Chen, College of Materials Science and Engineering, Shenzhen University, Shenzhen, China

Prof. Dr. Shaojun Chen received this PhD degree from the Hong Kong Polytechnic University in 2010. At present, He worked as an associate professor in Shenzhen University. The research interests include smart polymers, biomedical polymers and liquid crystalline polymers. Up to date, He applied more than 15 paper, and published more than 50 SCI papers in many professional journals, such as Journal of Materials Chemistry A, Journal of Materials Chemistry B, Journal of Materials Chemistry C, Polymer Chemistry.
Speech Title: Coming soon...
Abstract: Coming soon...



Prof. Dr. Maina Maringa, Central University of Technology, Free State, Private Bag, X20539, Bloemfontein, 9300, South Africa

Maina Maringa (PhD, CEng and MIMechE) is a Professor of Mechanical Engineering with research specialisation in thermoelastic stress analysis, composite engineering materials and materials characterization; areas in which he is widely published. He has lectured and undertaken research at tertiary level institutes and at universities for 24 years, while an academic member of staff in the Department of Mechanical Engineering at the Jomo Kenyatta University of Agriculture and Technology (JKUAT) in Juja, Kenya; in the Department of Mechanical Engineering of the Kigali Institute of Science and Technology (KIST), Kigali, Rwanda; and in the Department of Mechanical and Mechatronic Engineering of the Technical University of Kenya in Nairobi, Kenya. More...
Speech Title: Developing Analytical Solutions for Transverse, Matrix Stain Magnification and Fibre Strain Reduction, in Uniaxially Aligned Continuous Fibre Reinforced Composites Based on the Reuss Rule and the Principal of Constant Strain Energy
Abstract: Analytical solutions for matrix transverse strain magnification and fiber transverse strain reduction in uniaxially aligned continuous fibre reinforced composites are developed here for a Representative Volume Element (RVE), based on the principle of strain energy and the Reuss rule. The results obtained show respective matrix and fibre transverse strain magnification and reduction that increase with increasing volume fraction of the reinforcing fibre for both square and hexagonal fibre packing geometries. The square arrays register higher values of transverse strain magnification and reduction than hexagonal arrays. The values of transverse stress ratio between the fibre and matrix in the RVE central sub-region, and between the two and the RVE central sub-region composite are seen to vary with the volume fraction of reinforcing fibre. The results obtained here denote dependency of transverse strain magnification and reduction as well a stress ratio on the reinforcing fibre packing geometry and volume fraction.
Keywords: Transverse strain magnification and reduction; Representative volume element


Assoc. Prof. Jianxiong Li, School of Materials Science and Engineering, South China University of Technology, Guangzhou, China

Dr. Jianxiong Li received his BS (Rubber Technology) in 1982 and MPhil (Polymer Materials) in 1986 both from South China Institute of Technology and PhD (Materials) from Hong Kong University in 1997. He joined Chemical Dept., Hong Kong University of Science and Technology as Research Associate in 1998 and worked for ASM Pacific (Hong Kong) as Senior Engineer from 2001 to 2008. Thereafter, he joined South China University of Technology as Associate Professor in polymers. Dr. Li has worked on materials science and engineering for more than 30 years and accumulated extensive experience in academy and industrial. The involved areas include crystalline polymers, advanced engineering plastics, plastic reinforcement and composites, electronic packaging and packaging materials, photochemistry and UV curing, functional materials and sensors, conducting polymers and optoelectronic devices.
Speech Title: Reducing melt viscosity of PP with phthalimide and fabricating long glass fiber reinforced PP
Abstract: Long glass fiber reinforced plastics are normally produced by melt impregnating and it requires the used resins have low melt viscosity. To reduce the melt viscosity of PP and fabricate long glass fiber reinforced PP (LGFR-PP), phthalimide (PTI) was investigated as a phase transition plasticizer of PP. PTI was incorporated to a maleimide modified PP compound on a twin screw Haake Rheometer at 230℃. The phase structures of the PP compound were analyzed with DSC and XRD and the effects of the added PTI on the MFR, impact strength, the heat distortion temperature (HDT) were investigated. The PP compound with high fluidity was used to produce LGFR-PP on melting impregnating device and the microstructure and properties of the composite were examined.
PTI could dissolve in maleimide modified PP melt at processing temperature and enhance the MFR of the melt remarkably at PTI content below 2 phr. But during cooling after molding, the dissolved PTI would precipitate and recrystallize in the PP matrix, therefore, improved the HDT and impact strength. At 1 phr N-PMI, 0.5 phr BMI and 1 phr PTI, the MFR of the modified PP compound could be as 3 times high as that of original PP, while the HDT increased 12 oC and the impact strength increased 20 %. The modified PP compound could be used to produce LGFR-PP by melt impregnating efficiently. SEM revealed that the dispersion of glass filaments became more even with the modified PP compound and PP resin could envelop almost all filaments. After injection molding, the LGFR-PP with 30 % of glass fiber exhibited a flexural modulus of 11 GPa, flexural strength of 180 MPa, impact strength of 240 J/m and HDT of 160 oC.



Assoc. Prof. Cosmin M. Cotrut, Department of Metallic Materials Science, Faculty of Material Science and Engineering, University Politehnica of Bucharest, Physical Metallurgy, 313, Splaiul Independenei street, Building J, 060042 - Bucharest, Romania

Dr. Cosmin M. Cotrut is Associate Professor at the University Politehnica of Bucharest, Romania and Invited Professor at the Tomsk Polytechnic University, Russia. His work is defined by research and development in the fields of surface engineering, corrosion science and biomaterials. Dr. Cotrut published over 50 papers in International Journals and presented over 90 papers at International Conferences. He is a member of Editorial Board of Heliyon Journal, Guest Editor for Frontiers in Materials Journal, reviewer for the following International Journals: Corrosion Science, Materials Chemistry and Physics, Materials Science and Engineering B and also editor or reviewer for international conferences proceedings. In the present he is Head of Electrochemistry and Surface Functionalization Laboratory and his work is focus on biofunctionalization techniques, deposition of calcium phosphates and biomaterials degradation.
Speech Title: Biomedical nanocomposites used for prosthetic restorations
Abstract: In clinical practice, numerous restorations are replaced after the ceramic fracture due to the poor bonding between the metallic alloys and the ceramic layer. For this reason, in the last years, many scientists tried to find a solution for improving the bond strength between metal and dental ceramics in prosthetic restorations. In the present paper, we proposed to add nanocomposite oxynitride coatings as interlayers between the metallic alloys and the ceramic layer. The nanocoatings were deposited on the most common dental alloys (NiCr and CoCr) using the cathodic arc technique. The elemental composition, crystalline structure, mechanical properties, surface roughness, contact angle and corrosion resistance of the coatings were investigated. The bond strength of the metal–nanocomposite-ceramic system, with and without interlayers, was evaluated by using a three-point bending test. The nanocomposite oxynitride coatings deposited on both alloy substrates demonstrated an improvement of bond strength in comparison with the uncoated substrates. All of the coatings had a superior corrosion resistance in artificial saliva (pH =5) than that both uncoated alloys.
The results demonstrate that the application of nanocomposite coatings as interlayer between the metallic and ceramic layer represents an effective alternative to increase the service life of prosthetic restorations.
Keywords: Oxynitride nanocomposites; Cathodic arc; Corrosion resistance; Prosthetic restorations



Assoc. Prof. Qi An, School of materials science and engineering, China University of Geoscience (Beijing), Xueyuan Road 29, Haidian District, Beijing 100083, China

Dr. Qi An joined the faculty of School of Materials Sciences and Technology in China University of Geosciences (Beijing) in 2012. Prior to that, she completed her postdoctoral training with Professor Jurriaan Huskens and Professor Pascal Jonkheijm in MESA+ Institute of Nanotechnology in the University of Twente, the Netherlands. She received her Ph. D. at Tsinghua University in 2010. She had over 50 peer-reviewed publications. Her research interests focused on energy conversion devices, soft material and biocompatible materials.
Speech Title: An all solid flexible energy conversion and storage film for SERS signal up-regulations.
Abstract: Energy conversion and storage flexible device has gained increasing research interest in materials sciences because it tackles with the important energy issue and potentially leads to simpler and more efficient life styles. However, there remains a challenge to systematically design an applicable device which highlights the unique merits of the flexible energy conversion and storage film. In order to address the challenge, we have designed and prepared an all solid flexible polymeric composite that simultaneous generate and store energy. The film was prepared using a piezoelectric PVDF-HFP as the matrices and chemically converted rGO as the fillers. In addition, to fully realize the special merits and application potential of the flexible energy conversion film, we have demonstrated a concept for using the converted and stored energy in a flexible piezoelectric-dielectric film to up-regulate SERS signals. The signal up-regulation is as high as 10 times and is realized by a startling simple polymeric substrate that is only the size of a pH testing paper (40×20×3 mm3).
Keywords: Piezoelectric; rGO; energy conversion; energy storage; SERS.



Assoc. Prof. Akash Mohanty, Department of Design and Automation, School of Mechanical Engineering, VIT University, Vellore, India

Dr. Akash Mohanty had completed his PhD from the Department of Mechanical Engineering, IIT-BHU, Varanasi, India and working as Associate Professor in the Department of Design and Automation, School of Mechanical Engineering, VIT University, Vellore, India since July 2010. He worked upon the fabrication and characterization of laminated and nano composites since last eleven years. His areas of specialization are Solid Mechanics, Fracture and Fatigue, Structural Composites, Preparation and Characterization of Advanced Materials etc. He had published more than 20 peer reviewed Scopus indexed journal papers till date and handled many projects related to his areas of specialization.
Speech Title: Coming soon...
Abstract: Coming soon...



Prof. Dr. Plamen Petkov, Head of Physics Department, Head of Thin Films Technology LAB, University of Chemical Technology & Metallurgy, 1756 Sofia, BULGARIA

Plamen Petkov has received his PhD in physics from University of University of Chemical Technology, Sofia, Bulgaria. He has worked in postdoc position in I.Physicalische Institute, RWTH, Aachen, Germany, University of Odense, Denmark, University of Bonn, Germany. At present he is a full professor of applied physics at the University of Chemical Technology and head of Physics Department and Thin Film Technology Laboratory. His research activity is mainly devoted to electrical and optical properties of semiconductor materials for various application.
Speech Title: Coming soon...
Abstract: Coming soon...



Prof. Dr. Pratima Parashar Pandey, Applied Sciences department, College of engineering, IILM, Greater Noida, India

She is Ph. d., an academician and Scientist in the field of Materials Science and Nanotechnology since last twenty five years. Earlier, she was in the field of polymer blends for twenty years and has published about fourteen papers in cited journals. Since, last seven years in the field of metal nano polymer composites and have eleven research papers in SCI journals. She has also written a chapter ‘Silver particulate films on softened polymer composite’ in the book ‘Applications of Calorimetry in a Wide Context - Differential Scanning Calorimetry, Isothermal Titration Calorimetry and Microcalorimetry’ in Intech Publication. Recently, She has written a chapter ‘Nanobiomaterials in Antimicrobial Therapy’ in a book Recent Biopolymers in Intech Publication.She has been reviewer, technical programme member and invited speakers for many international conferences.
Speech Title: Preparation and Characterization of Polymer Nanocomposites
Abstract: The polymer nanocomposites have been the exponentially growing field of research for developing the materials in last few decades. The remarkable improvement in the polymer nanocomposite is found when a small amount of nanosized particles are added to a polymer matrix. The addition of inorganic solid nanoparticles (typically in the form of fibres, flakes, spheres or fine particles) into polymer matrix increases their physical, structural and mechanical properties. Since the polymer–nanocomposites have been the staple of modern polymer industry, their durability under various environmental conditions and degradability after their service life are also essential fields of research. This leads to focus on preparation & characterization of polymer nanocomposite. This article is intended to review the status of worldwide research in this aspect. The successful application of nanoparticles depends upon both the correct preparation techniques followed by testing through characterization. Surface modification can improve the inherent characteristics of the nanoparticles and serve to prepare nanocomposites inexistent in nature. Therefore, some tools as their various properties like electrical, optical and morphological can be used to optimize the preparation of polymer nanocomposites. This chapter will make an overview about different routes to prepare polymer-based nanocomposites by extrusion, synthesis of nanoparticles by sol-gel reactions, sputtering and mainly by physical evaporation deposition method.



Prof. Anja Mueller, Department of Chemistry and Biochemistry, Central Michigan University, Mt. Pleasant, MI 48859, USA

Dr Mueller is a Professor in the Department of Chemistry and Biochemistry at Central Michigan University. She started her training with a Diplom (MS) in Biology from Regensburg University, Germany. She then came to the US and earned a PhD in Polymer Chemistry from Washington University in St. Louis. In her postdoc at the University of Arizona she worked on research on drug delivery, before she started as an assistant professor at Clarkson University. She moved to Central Michigan University in 2005. Her research interests are polymeric materials for skin scaffolds for burn victims, hydrogen fuel cell membranes, and water treatment. An additional, more recent research interest is interdisciplinary education and assessment as well as active learning in Organic Chemistry.
Speech Title: Coming soon...
Abstract: Coming soon...



Assoc. Prof. Dr. Eng. Alina Vladescu, National Institute for Optoelectronics-INOE 2000, Magurele-Bucharest, Romania

Alina Vladescu, has a B.S. in Materials Science and Engineering from the University Politehnica of Bucharest (2002) and an MS in Biomaterials from the Department of Bioengineering and Biotechnology, University Politehnica of Bucharest (2004). Her PhD however is in Materials Science from University Politehnica of Bucharest (2011). She works at National Institute for Optoelectronics, Department for Advanced Surface Processing and Analysis by Vacuum Technologies. She is also Associate professor in Surface Engineering at University Politehnica of Bucharest. She is also affiliated as research scientist at National Research Tomsk Polytechnic University. She is the Guest Editor of Frontiers in Materials (2016-2017) and Composite Interfaces (2016).
Consequently, she has over 80 technical publications and presentations, 6 patents, 3 books. Most of these articles have involved the surface biofunctionalization of metallic components of the biomedical devices by PVD deposition methods. In general, these articles have primarily proved that both PVD techniques (reactive magnetron sputtering and vacuum cathodic arc) represent a valuable choice for coating the metallic femoral heads, determining the increase of their service-life. Up to date she was involved in the investigation and assessment of various types of coatings, such as: nitrides, carbides, carbonitrides, oxynitrides or oxides, in mono and multilayered structures.
Speech Title: Functionalization of medical implants by biocomposite based hydroxyapatite coatings
Abstract: For enhancing the osseointegration of the metallic implants, the bioactive coatings were frequently used. The hydroxyapatite is one of the most extensively used due to their remarkable osseointegration and bioactivity characteristics. Unfortunately, the hydroxyapatite has low mechanical strength which restricts its use as biomaterial. The goal of this study was to show that the mechanical characteristics of hydroxyapatite could be enhanced by addition of small amount of different elements (Ti, Si, Mg) in its structure, without loss the bioactive compatibilities. All the coatings were prepared by RF magnetron sputtering. The pure HAP coatings were obtained by sputtering of pure HAP target in an Ar atmosphere, at 700 °C substrate temperature. The nanoindentation results show that presence of small amount of all elements has a positive effect on mechanical properties of hydroxyapatite. Also, it was found that the resistance to the SBF attack and biological characteristics of hydroxyapatite were improved by addition of those elements to its structure.
Keywords: hydroxyapatite; magnetron sputtering; bioactive coatings; corrosion resistance


Assoc. Prof. Gongping Liu, Membrane Science & Technology Research Center, State Key Laboratory of Materials-Oriented Chemical Engineering, Nanjing Tech University, 5 Xinmofan Road, Nanjing, China

Dr. Gongping Liu is an associate professor in Chemical Engineering at Nanjing Tech University since 2016. After receiving his PhD under the supervision of Professor Wanqin Jin from Nanjing University of Technology in 2013, he joined Nanjing Tech University as an assistant professor. He has been a postdoctoral fellow in Dr. William Koros lab at Georgia Institute of Technology (03/2015~03/2017). His current research focuses on rational designing and engineering of advanced membranes mainly derived from inorganic-polymer composite materials (e.g., MOFs-, zeolite- and silica- filled mixed matrix membranes), two-dimensional materials (e.g., graphene) and asymmetric hollow fibers, which are applied for energy and environment based on molecular separations including CO2 removal/capture, organic compounds recovery and purification, and membrane-intensified processes. Dr. Liu had more than 40 journal papers with over 1000 citations and H-index 18 (Google Scholar), and 10 presentations in international conferences and 8 granted patents.
Speech Title: Coming soon...
Abstract: Coming soon...



Prof. Dr. Tamara Petkova, Head of Solid state electrolytes department, Institute of electrochemistry and energy systems, Bulgarian Academy of sciences, Acad.G.Bonchev str.Bl.10, 1113 Sofia, BULGARIA

Tamara Petkova completed her PhD in physical chemistry at Central Laboratory of Optical Storage & Processing of Information of the Bulgarian Academy of Sciences. Her doctoral thesis involved the investigation of new chalcogenide materials as optical storage media. She became Research Associate of the Institute of electrochemistry and Energy Systems -BAS. After a postdoctoral appointment at the University of Patra, Greece in the field of solid state physics, she has been promoted and currently is Head of Solid State Electrolytes department in IEES. Her research interests include investigation of amorphous and crystalline materials for application in energy conversation and storage.
Speech Title: Coming soon...
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Prof. Dr.-Ing. Hairul Abral, Mechanical Engineering, Andalas University, Padang 25163, Indonesia

Prof. Dr.-Ing. Hairul Abral, graduated in 1991 in Mechanical Engineering, Andalas University, Indonesia. He finished his doctorate from University of Erlangen-Nuremberg in 1999 in research area of Material Science. He got full professor in 2011 at Mechanical Engineering, Andalas University, Indonesia. His field of interest in research is biomaterial focused on natural fibers.
Speech Title: Study Moisture Absorption of Starch Based Biocomposites Reinforced With Water Hyacinth Fibers
Abstract: Bioplastic based on starch was very sensitive on moisture, meanwhile this substance may be used to replace synthetic plastic. In order to increase moisture resistance, the biopolymer was mixed with natural fibers of water hyacinth plants. Volume fraction of water hyacinth fibers (WHF) in matrix of tapioca starch (TSB) was varied of 1%, 3%, 5%, and 10% respectively. The samples were placed in closed room with high relative humidity (RH) of 99% at 250C. The result showed that moisture absorption was decreased as increasing volume fraction of the WHF in TSB matrix. However, the studied composite samples cannot keep an equilibrium of moisture content as different duration in the moist chamber.



Prof. Dr. Wu Yuzhou,School of Chemistry and Chemical Engineering, Huazhong University of Science and Technology, 1037 Luoyu Road, 430074, Wuhan, China

Prof. Dr. Wu Yuzhou, obtained her B.Sc from Zhejiang University, China in 2008. She was awarded the Medicinal Chemistry research scholarship and completed her Masters degree at the National University of Singapore (NUS). She obtained her doctorate from Ulm University in 2013 in the research area of design protein derived biopolymers for biomedical applications. Since 2013, she is a group leader in the Institute of Organic Chemistry III in Ulm University where she undertakes and develops her research interest in protein-DNA hybrids nanomaterials. In 2016, she was promoted to be full professor at Huazhong University of Science and Technology, China and project leader at Max-Planck Institute for Polymer Research, Germany. Her current research area includes bionanotechnology, nanomedicine and biomaterials.
Speech Title: Programming Biomacromolecules as Functional Nanomaterials
Abstract: Chemical programming of macromolecular structures to instill a set of defined chemical propertiesdesigned to behave in a sequential and precise manner is a characteristic vision for creating nextgeneration nanomaterials. In this context, biopolymers such as proteins and nucleic acids provide anattractive platform for the integration of complex chemical design due to their sequence specificity andgeometric definition, which allows accurate translation of chemical functionalities tobiological activity. More...


Assoc. Prof. Chunling Xin, College of Mechanical & Electrical Engineering, Beijing University of Chemical Technology, Beijing , 100029, China

Chunling Xin is an associate professor at Beijing University of Chemical Technology, Beijing, China. She received her PhD in Material Science from Beijing University of Chemical Technology. She worked as a visiting scholar at the Microcellular Plastic Manufacturing Laboratory (MPML) in University of Toronto during the second half of 2013. Her research interests are thermoplastics foaming mechanism, extrusion foaming technology and long-fiber reinforced thermoplastics composites. She has been the author/co-author of over 50 journal papers.
Speech Title: Coming soon...
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Prof. Dr. Maria Giovanna Buonomenna, National Chemists Council of Italy (CNC), Rome, Italy

M. G. Buonomenna, born in 1975, obtained her degree in Chemistry (110/110) from the University of Salerno (Italy) in 1998. She holds a Master in Membrane Materials and Operations from Institute on Membrane and Technology (ITM) (former IRMERC)-National Research Council of Italy (CNR) and a doctorate (Ph.D.) in Chemical Engineering and Materials from the University of Calabria. In 2014 she obtained the qualification of Associate Professor in Chemical Fundamentals of Technologies from the Italian Ministry for Instruction, University and Research (MIUR). She has been an Invited Speaker in numerous international conferences and Expert Evaluator for international Research Agencies. M. G. Buonomenna is author of more than 60 papers in peer-reviewed international journals, 100 publications in congress proceedings, 9 chapters of scientific books. She is editor of 1 book on advanced membrane materials and guest-editor of 8 Special Issues on materials science in peer-reviewed international journals. Her research interests are focused on membrane science and technology for sustainable processes.
Speech Title: Coming soon...
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Assoc. Prof. Xiangdong Bi, Charleston Southern University - Integrating Faith in Learning, Leading and Serving, P.O. Box 118087, Charleston, South Carolina 29423, USA

Xiangdong Bi is currently a tenured associate professor at Charleston Southern University in Charleston, South Carolina, USA. He received his Ph.D. degree in organic/polymer chemistry from University of Missouri-Kansas City in 2001. After he pursued a postdoctoral fellow in medicinal chemistry for two years at Wayne State University, he started working at Michigan Nanotechnology Institute for Medicine and Biological Sciences (M-NIMBS) at University of Michigan in 2004. In 2007, he took the teaching position at Charleston Southern University which is an undergraduate teaching university. While teaching general and organic chemistry classes, he supervises numerous undergraduate students in chemical research. His research interest includes organic synthesis and bioconjugation of macromolecules for biomedical applications. Specifically, his focuses on poly(amidoamine) (PAMAM) dendrimer medicated drug delivery, cancer targeting and treatment, and fast crosslinking hydrogels for tissue engineering, bioprinting and other biofabrications. Since 2009, he has received multiple research grant from Department of Defense (DoD) and South Carolina EPSCoR.
Speech Title: Development of Polyamidoamine Dendrimer-Hyaluronic Acid In Situ-Forming Hydrogel Systems for Biomedical Applications
Abstract: Hydrogels are a class of three dimensional (3D) crosslinked polymeric structures capable of holding large amounts of water or biological fluids in their swollen state. They possess great potential in biomedical applications including tissue engineering, drug delivery, 3D bioprinting because they allow cell encapsulation and proliferation in a highly hydrated three-dimensional environment, and they provide biologically relevant chemical and physical signals. However, development of hydrogel systems that mimic the complexity of natural extracellular matrix (ECM) remains a challenge. In this research, a series of alkene functionalized polyamidoamine (PAMAM) dendrimers were synthesized to prepare in situ forming hydrogels with varied gelation time and mechanical properties through crosslinking with thiolated hyaluronic acid (HS-HA). By varying the alkenyl groups on the dendrimers, the gelation time displayed a large range from 8 seconds to 18 hours, and the modulus of the hydrogels ranged from 36 to 183 Pa under experimental conditions. Investigation by 1 H-NMR spectroscopy revealed that the gelation time and the stiffness of the hydrogels were governed by the degree of electron deficiency of alkenyl groups on the dendrimers. This research provided a systematic study on the relationship between chemical structures versus gelation time and mechanical properties of hydrogels, which could guide the way to synthesize in situ forming hydrogels with designated gelation time and stiffness for biomedical applications. Further, a RGD peptide was attached to the PAMAM dendrimers to enhance cell attachment and proliferation. Viability assays of Human Umbilical Vein Endothelial Cells (HUVEC) in the synthesized hydrogels demonstrated the biocompatibility of the hydrogels after 48 hours of culturing, and the RGD peptide improved the viability of HUVEC cells in hydrogels. We believe the PAMAM/HA hydrogel system is a tuneable and biocompatible system for diverse biomedical applications.



Prof. Dr. Sadriten Tleukenov, L.N.Gumilyov Eurasian National University, Astana, Republic of Kazakhstan

The scientific activity of S. Tleukenov started at the Academy of Sciences of the Kazakh SSR. In 1981 he defended his thesis on the problems of seismology. S. Tleukenov in 1995 became a doctor of physical and mathematical sciences, in 1997 he was awarded the title of professor of physics.
He has published more than 100 scientific papers, some of which are translated and published in English in journals in the USA, India and Germany (Springler). 4 monographs were published: "Seismic waves in an inhomogeneous medium" (1985), "A study of electromagnetic fields in anisotropic media" (2001), "Method of matricant" (2004), "The solution of certain problems in physics by method of matricant" (2011).
He is the recipient of the Gold Medal named after Academician Yerzhanov (National Committee on Theoretical and Applied Mechanics, 2005), Badge for merits in development of science in Kazakhstan (MES 2002), Gold Medal named after Academician U.A. Dzholdasbekov (National Engineering Academy of Kazakhstan, 2006), Medals for the preparation of highly qualified personnel (S.Toraigyrov Pavlodar State University, 2010), Medals from Pavlodar administration (2012). Tleukenov is a member of the Presidium of theoretical and applied mechanics.
Speech Title: Method of matricant, unified description of wave processes in media with the mutual transformation of elastic and electromagnetic fields
Abstract: Method of marticant allows to create a unified description of wave processes in mediums with mutual transformation of elastic and electromagnetic waves. Classic models of media established the structure matrix coefficients and structure matricant: normalized matrix of fundamental solutions. In the case of periodic structures the author obtained generalizations of the results of the work of Brillouin and Paradis, famous for discrete periodic structures. Also were constructed the matrix of boundary conditions and analytical solutions of reflection problems and refraction at the boundary of anisotropic media with different physical and mechanical properties. In this paper were identified the laws of refraction at the boundaries of anisotropic media, generalized Snell's law for an isotropic case. The author developed a unified description of surface Lamb-type waves in anisotropic elastic, dielectric, piezoelectric, piezomagnetic media and in media with magnetoelectric effect, obtained the limit speed of elastic and electromagnetic waves in thin layers (plates).
Method of marticant allows to establish that for two-dimensional inhomogeneous locally isotropic media appropriate model is a homogeneous anisotropic medium of orthorhombic symmetry. Meanwhile, the average parameters of media are defined clearly. These results are important for problems of Geophysics, Mechanics of Composite Materials, Tomography.



Prof. Dr. Jianhong XU, The State Key Lab of Chemical Engineering, Department of Chemical Engineering, Tsinghua University, Beijing, 100084, China

Prof. Dr. Jianhong XU received his B.Sc. and Ph.D. at Tsinghua University in 2002 and 2007 respectively. He continued his research in Tsinghua University as a postdoctor after graduation. He finished the postdoctoral program in May 2009, and became a formal faculty of the Department of Chemical Engineering, Tsinghua University. He had studied as a visiting scholar at Prof. David Weitz lab in Harvard University during 2012.7~2013.6. At present, his research areas are focusing on the multiphase microfluidics and functional materials synthesis. He has more than 100 peer-reviewed publications. He got the “Excellent Young Scientists Fund” from the National Natural Science Foundation of China (NSFC) in 2013.
Speech Title: Coming soon...
Abstract: Coming soon...



Prof. Yanen Wang, School of Mechanical Engineering, Northwestern Polytechnical University, Xi'an, Shaanxi, China

Professor Yanen Wang joined the Mechanical Engineering School at Northwestern Polytechnical University, China, 2010. He is responsible for biological additive manufacturing lab in the Northwestern Polytechnical University. This laboratory focuses on 3D bionics artificial bone and skin design and fabrication based on medical images consists of 3D external reconstruction and internal microstructure bionics design that are based on the digital disposal and analysis on medical image. He has secured publication of 70 articles of which most of them are journal and several refereed conference papers, 15 patents, and one book.
Speech Title: Study on the polyvinyl alcohol formulations for low temperature 3D printing bioceramics artificial bone scaffolds
Abstract: A key requirement for three dimensional (3D) printing in room temperature of medical implants is the availability of printable and biocompatible binder-powder systems. Many studies have regarded acid solutions as binder, which preclude the incorporation of growth factors into the scaffolds. Considering that the incorporation of growth factors into the scaffolds to stimulate bone regeneration in future bone implant surgeries, this study explored neutral polyvinyl alcohol solution concentration formulations. Compared with the other acid solution binder making bone scaffolds, polyvinyl alcohol binder solution scaffolds had better mechanical properties. Though both scaffolds support well the cell proliferation, the absorbance of the polyvinyl alcohol scaffolds was higher than other acid binder scaffolds. The artificial stents with a HA /β-TCP weight ratios of 60:40 possessed good biocompatibilities for both scaffolds. Given the incorporation of growth factors into the scaffolds, the polyvinyl alcohol scaffold with a HA /β-TCP weight ratios of 60:40 may be a suitable for bone tissue engineering.
Keywords: Three dimensional printing; Scaffolds; Polyvinyl alcohol; Binder-powder formulathion.


Assoc. Prof. Martinho Machado Junior, Universidade Federal da Fronteira Sul, BR 158, km 405, POBox 106, Laranjeiras do Sul-PR, Brazil

Graduate in Physics from the Federal University of Santa Catarina (1998), where he won the Summa Cum Laude. He is received his Master and PhD degree in Chemical Engineering from Department from the Chemical Engineering at Federal University of Santa Catarina in 2009 and 2015, respectively. He is currently Associate Professor of Mathematics at Federal University of Southern Frontier, Campus Laranjeiras do Sul / PR. Recently, he has been developing research in the polymers characterization with atomic force microscopy, tribological characterization of cellulosic structures in nanoscale from kraft paper used in packaging, papermaking and applied mathematics. He is member of a research group entitled “Food processing and by-products utilization” for food packaging development.
Speech Title: Friction Forces in Cellulose Fibers
Abstract: Friction is an important parameter for quality control of papers surfaces. It influences the movement of paper in industrial machines, printers, and prevents sliding of paper sheets in shipping. Their origins in paper are still obscure and difficult to understand once cellulosic structures with sizes ranging from micro- to nanoscale may have different contributions to the friction forces. Micron sized fibers, randomly oriented in paper surfaces may contribute to friction via fiber interlocking, while cellulosic structures may contribute to friction via intermolecular interactions. To better understand the contribution of friction forces of intermolecular nature and of mechanical locking we have measured the friction forces in cellulose fibers using a friction force microscope. Our results shows that the friction between the microscope tip and cellulose fibers and fibrils can be attributed to intermolecular interaction observed at point contacts on-top of macro- and microfibrils, and mechanical tip tripping at extended contact at the lateral of the cellulose fibers. The friction forces at the top of the cellulose fibrils were observed to be much smaller than friction due to tripping at the lateral of the fibers. The latter is comparable to friction forces measured in macroscale and interfiber experiments suggesting that tripping and fiber interlocking is one of the main physical mechanisms responsible for the friction forces during the relative motion of paper sheets.
Keywords: Cellulose; Fibers; Fibrils; Friction; Atomic Force Microscopy.



Prof. Sarani Zakaria, Materials Science Programme School of Applied Physics, Faculty of Science and Technology, Universiti Kebangsaan Malaysia


Assoc. Prof. Yong Liu, College of Mechanical and Electrical Engineering,Beijing University of Chemical Technology, China


Prof. Do Sung Huh,Department of Chemistry and Nanoscience and Nanoengineering, Center for Nanomanufacturing, Inje University, Kimhae, Kyungnam 621-749, South Korea


Assoc. Prof. Lee D. Wilson, Department of Chemistry,110 Science Place, Room 156, University of Saskatchewan, Saskatoon, SK.S7N 5C9, CANADA


Prof. M. M. Singh, Department of Chemistry, Indian Institute of Technology (BHU), Varanasi VARANASI-221005,India


Prof. Weimin Yang, College of Mechanical and Electrical Engineering, Beijing University of Chemical Technology, Beijing 100029, China


Assoc. Prof. Prashant Prabhakar Parhad, Dept. of Mechanical Engineering, Kavikulguru Institute of Technology & Science Ramtek, Nagpur, 441106, India


Prof. Dezhen WU, College of Material Science and Engineering, Beijing university of Chemical Technology, Beijing, China


Prof. Deepak Srivastava, Department of Plastic Technology, School of Chemical Technology, H. B. Technical University, Kanpur - 208 002 (U.P.), India


Dr. S. Packirisamy, Former Deputy Director & Scientist H, Propellants, Chemicals & Materials Entity, Vikram Sarabhai Space Centre, Indian Space Research Organization,Trivandrum-695022, India


Prof. Ehsan Gomaa, Physics Department, Faculty of Science, Ain Shams University, Abbassia, 11566 Cairo, Egypt


Assoc.Prof. Qiu Zhongjun, College of Precision Instrument & Opto-Electronics Engineering,Research Centre of MicroNano Manufacturing Technology,Tianjin University,92 Weijin Road, Tianjin, China 300072


Assoc. Prof. Jun Liu, School of Materials Science and Engineering, Beijing University of Chemical Technology, Beijing 100029, China


Assoc. Prof. Xufeng Dong, School of Materials Science and Engineering, Dalian University of Technology, Dalian 116024, China


Prof. Ye XU, Beihang University, School of Mechanical Engineering and Automation, 37 Xueyuan Road, Main Building B107, Haidian District, Beijing 100191, China


Assoc. Prof. Ariful Rahaman, School of Mechanical Engineering, VIT University, Vellore-632014, Tamil Nadu, India


Assoc. Prof. Hongcun Bai, State Key Laboratory of Coal Clean Utilization and Ecological Chemical Engineering, Ningxia University, China


2017 Global Conference on Polymer and Composite Materials (PCM 2017)
Conference Secretary: Yajun Ye
Email: pcm@cpcmconf.org   Tel: +86-17740690637
Skype ID: pcmconf2016