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	<title>plastic components &#8211; EIRI &#8211; eBooks and Project Reports</title>
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	<title>plastic components &#8211; EIRI &#8211; eBooks and Project Reports</title>
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		<title>Modern Technology of Biodegradable Plastics and Polymers with Processes (Bio-Plastic, Starch Plastics, Cellulose Polymers and Others)</title>
		<link>https://projectreports.eiriindia.org/product/modern-technology-biodegradable-plastics-polymers-processes-bio-plastic-starch-plastics-cellulose-polymers-others/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 12 Sep 2014 12:16:49 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=2585</guid>

					<description><![CDATA[<p>The book Modern Technology of biodegradable Plastics and Polymers with Bio-Plastics, Starch Plastic, Cellulose Polymers and Others covers Polymer Biodegradation, Biodegradation of Plastics, Biodegradable Polymers and Their Practical Utility, Practical Applications of Biodegradable Polymers,  Starch Based Packaging Materials, Bio plastics as Green and Sustainable Alternative to Plastics, Disadvantages of Bio plastics Starch Plastics,  Starch based Completely Biodegradable Polymers, Applications of Starch based Biodegradable Polymers in Food Industry,  Synthesis of Bio degradable Plastic from Corn Starch, Biodegradation Nature of Thermoplastic Starch,  Biodegradation of Thermoplastic Starch based Material,  Biodegradable Moldable products and films comprising Blends of Starch Esters and Polyesters, Cellulosic Polymers ,  Production of Cellulose Plastics (including Fibres) Cellulose based Polymers with Excellent Meltprocessibility, Biodegradation of Lignin, Biodegradable Polymeric Films (Novel Lignin Starch and Ligning Gelatin), Lignin Graft Copolymer,  Biodegradable Plastics and Composites from Wood, Process Design and Evaluation of Biobased Polyhydroxy alkanoates (PHA) Production, Transgenic Plants Producing Polyhydroxy alkanoates.</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/modern-technology-biodegradable-plastics-polymers-processes-bio-plastic-starch-plastics-cellulose-polymers-others/">Modern Technology of Biodegradable Plastics and Polymers with Processes (Bio-Plastic, Starch Plastics, Cellulose Polymers and Others)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>The book Modern Technology of biodegradable Plastics and Polymers with Bio-Plastics, Starch Plastic, Cellulose Polymers and Others covers Polymer Biodegradation, Biodegradation of Plastics, Biodegradable Polymers and Their Practical Utility, Practical Applications of Biodegradable Polymers,  Starch Based Packaging Materials, Bio plastics as Green and Sustainable Alternative to Plastics, Disadvantages of Bio plastics Starch Plastics,  Starch based Completely Biodegradable Polymers, Applications of Starch based Biodegradable Polymers in Food Industry,  Synthesis of Bio degradable Plastic from Corn Starch, Biodegradation Nature of Thermoplastic Starch,  Biodegradation of Thermoplastic Starch based Material,  Biodegradable Moldable products and films comprising Blends of Starch Esters and Polyesters, Cellulosic Polymers ,  Production of Cellulose Plastics (including Fibres) Cellulose based Polymers with Excellent Meltprocessibility, Biodegradation of Lignin, Biodegradable Polymeric Films (Novel Lignin Starch and Ligning Gelatin), Lignin Graft Copolymer,  Biodegradable Plastics and Composites from Wood, Process Design and Evaluation of Biobased Polyhydroxy alkanoates (PHA) Production, Transgenic Plants Producing Polyhydroxy alkanoates.</p>
<p><strong>POLYMER BIODEGRADATION</strong></p>
<ul>
<li>Biodegrdation</li>
<li>Aerobic biodegradation</li>
<li>Schema of polymer degradation under aerobic and anaerobic conditions</li>
<li>Anaerobic biodegradation</li>
<li>Xenobiotics Biodegradation</li>
<li>Biodegradation of Aronaatic Compounds</li>
<li>Aerobic benzen biodegradation</li>
<li>Aerobic naphthalene biodegradation</li>
<li>Aerobic toluene biodegradation side group attack</li>
</ul>
<p><strong>BIODEGRADATION OF PLASTICS</strong></p>
<ul>
<li>PVA Biodegradation</li>
<li>Degradation mechanism of polyvinyl alcohol</li>
<li>Polyesters</li>
<li>Poly(e-Caprolactone)</li>
<li>Poly(L-Lactide)</li>
<li>Aliphatic Polyalkylene Dicarboxylic Acids</li>
<li>Polyethylene (PE)</li>
<li>Nylon</li>
<li>Biodegradation of Polymer Blends</li>
<li>Starch/Polyethylene Blends</li>
<li>Starch/Polyester Blends</li>
<li>Starch/PVA Blends</li>
<li>Biodegradable Polymers</li>
<li>Mixtures of Synthetic Polymers and Substances that are Easy Digestible by Microorganisms</li>
<li>Chemically Modified Starch</li>
<li>Starch Polymer Composites</li>
<li>Thermoplastic Starch</li>
<li>Biodegradable Packing Materials</li>
<li>The Synthetic Materials with Groups Susceptible to Hydrolytic Micrbial Attack</li>
<li>Polycaprolactone</li>
<li>The Biopolyesters</li>
<li>Polyhydroxyalkanoates</li>
<li>Poly-B-Hydroxyalkanoates</li>
<li>Aliphatic Polyester Blends</li>
<li>Poly(Hydroxyalkanoate)</li>
<li>Blends of Poly(d.i) Lactide Family</li>
<li>Conclusion</li>
</ul>
<p><strong>BIODEGRADABLE POLYMERS AND THEIR PRACTICAL UTILITY</strong></p>
<ul>
<li>Polymers directly extracted/removed from natural materials (mainly plants)</li>
<li>Polymers produced by classical chemical synthesis from renewable bio-derived monomers</li>
<li>Polymers produced by microorganisms or genetically transformed bacteria</li>
<li>Natural Polymers</li>
<li>Amylose structure</li>
<li>Structure of amylpectin</li>
<li>Structure of bacterial polyester</li>
<li>Polymers with Hydrolyzable Backbones</li>
<li>Polyglycolic acid</li>
<li>Polycaprolactone (PCL)</li>
<li>Polyamies</li>
<li>Natural protein</li>
<li>Structure of polyglycolic acid (PGA)</li>
<li>Polyurethanes</li>
<li>Polymers with Carbon Backbones</li>
</ul>
<p><strong>PRACTICAL APPLICATIONS OF BIODEGRADABLE POLYMERS</strong></p>
<ul>
<li>Medical Applications</li>
<li>Surgical Sutures</li>
<li>Dexon</li>
<li>Polygalactin 910</li>
<li>Mexon</li>
<li>Monocryl</li>
<li>Polydioxanone (PDS)</li>
<li>Bone Fixation Devices</li>
<li>Vascular Grafts</li>
<li>Adhesion Prevention</li>
<li>Artificial Skin</li>
<li>Drug Delivery Systems</li>
<li>Agricultural Applications</li>
<li>Agricultural Mulches</li>
<li>Controlled Release of Agricultural Chemicals</li>
<li>Packaging</li>
</ul>
<p><strong>STARCH BASED  PACKAGING MATERIALS</strong></p>
<ul>
<li>Ingeo TM compostable bottles</li>
<li>PLA Based Packaging Materials</li>
<li>BioWare products</li>
<li>NatureFlex film for vegetable wrapping</li>
<li>Cellulose Based Packaging Materials</li>
<li>Pullulan Based Packaging Mateials</li>
<li>Other Bio-Packaging Solutions</li>
<li>Partially Biodegradable Packaging Materials</li>
<li>Profile Extrusion</li>
</ul>
<p><strong>BIO-PLASTICS AS GREEN AND SUSTAINABLE ALTERNATIVE TO PLASTICS</strong></p>
<ul>
<li>Why Bioplastics</li>
<li>Composition</li>
<li>Classification</li>
<li>Poly-iactic Acid</li>
<li>Synthesis of PLA</li>
<li>The flow chart of PLA</li>
<li>Poly iactic acid (PLA) for Plastic Production</li>
<li>Physical and Chemical Properties</li>
<li>Some of the properties of PLA</li>
<li>Unique Characteristics</li>
<li>Some of the unique characteristics of PLA</li>
<li>Special Case of Bioplastics</li>
<li>Water Hyacinth</li>
<li>Production of  PHB</li>
<li>Water hyacinth</li>
<li>Advantages</li>
<li>Bio-Degradation of Bio-Plastic</li>
<li>Applications/Uses of Bioplastics</li>
<li>Advantages of Bio-plastics</li>
<li>Petro plastic Bottle (70% petro/30% plantbased (sugarcane) PET bottle</li>
<li>Bio plastic Bottle-100% plant based (food waste)</li>
</ul>
<p><strong>DISADVANTAGES OF BIOPLASTICS</strong></p>
<ul>
<li>Viability of Bio plastics</li>
<li>Land required for renewable resources</li>
<li>Renewable resources for food, feed and bioplastics</li>
<li>Carbon Cycle of Bioplastics</li>
<li>Bioplastic cycle</li>
<li>End of life</li>
<li>Cycle Time</li>
<li>Bio-plastics vs oil based plastics</li>
<li>Market and Price of Bioplastics</li>
<li>Typical Bio plastic cycle</li>
<li>Conclusions and Discussions</li>
</ul>
<p><strong>STARCH PLASTICS</strong></p>
<ul>
<li>A section of the amylose molecule showing the repeating anhydroglucose unit</li>
<li>A section of the amylopectin molecule showing the two different types of chain Linkages</li>
<li>Starch polymers for nonplastic applications</li>
<li>Overview of starch use for food and non-food purposes in Europe</li>
<li>Starch plastics-Types and importance</li>
<li>Starch plastic production technologies</li>
<li>Production of starch plastics</li>
<li>Partially fermented starch</li>
<li>Native Starch</li>
<li>Destructurised starch (Thermoplastic starch, TPS)</li>
<li>Chemically modified starch</li>
<li>Starch Blends</li>
<li>Properties and uses of various chemical modified corn starch</li>
<li>Common Non-bio based and biodegradable copolymers used in starch blends</li>
<li>Biodegradability and biocontent of starch blends</li>
<li>A scheme for synthesizing reactive starch blends</li>
<li>Starch composites</li>
<li>Conversion technologies</li>
<li>Chemical and physical properties</li>
<li>Mechanical and thermal properties</li>
<li>Technical substitution potential</li>
<li>Applications today and tomorrow</li>
<li>Partially Fermented Starch Plastic</li>
<li>Destructurized starch</li>
<li>Chemically modified starch</li>
<li>Technical substitution potential for starch plastics (the table below gives the views of the companies questioned)</li>
<li>Starch Blends</li>
<li>Main applications for starch blends share of interviewed company&#8217;s total production by market sector</li>
</ul>
<p><strong>STARCH BASED COMPLETELY BIODEGRADABLE POLYMERS</strong></p>
<ul>
<li>Structure and properties of starch</li>
<li>Molecular structure of starch</li>
<li>Preparation of starch based biodegradable polymers</li>
<li>Physical blends</li>
<li>Blend with synthetic degradable polymers</li>
<li>Thermal and mechanical properties of thermoplastics starch/polylacide (TPS/PLA) blends</li>
<li>Blend with biopolymers</li>
<li>Chemical derivatives</li>
</ul>
<p><strong>APPLICATIONS OF STARCHBASED  BIODEGRADABLE POLYMERS IN FOOD INDUSTRY</strong></p>
<ul>
<li>In agriculture</li>
<li>SEM photograph of strachs PVA/HA hydrogel (scale bar 3 um)</li>
<li>In medical field</li>
<li>Conclusions</li>
</ul>
<p><strong>SYNTHESIS OF BIO-DEGRADABLE PLASTIC FROM CORN STARCH</strong></p>
<ul>
<li>Process Overview</li>
<li>Properties</li>
<li>Effciency</li>
<li>Methods</li>
<li>Hydrolysis of Corn Starch</li>
<li>Bacterial Fermentation</li>
<li>Purification of Lactic Acid</li>
<li>Polymerization</li>
<li>Results</li>
<li>Discussion</li>
</ul>
<p><strong>BIODEGRADATION NATURE OF THERMOPLASTIC STARCH</strong></p>
<ul>
<li>Fabrication of thermoplastic starch</li>
<li>Properties of thermoplastic starch</li>
<li>Morphology</li>
<li>SEM micrographs of native wheat starch</li>
<li>SEM of extruded wheat starch based thermoplastic film</li>
<li>Conformation of inclusion model of a fatty acid in an amylose helix (Structure)</li>
<li>Conformation of inclusion model of a fatty acid in an amylose helix (Structure of Vhtype)</li>
<li>Maximum diffraction angle and average intermolecular distance observed from XRD</li>
<li>Mechanical behavior</li>
<li>Tensile properties of wheat flour based TPS having different glycerol content</li>
<li>Thermal stability</li>
<li>Glass transition temperature</li>
<li>Dynamic mechanical analysis of wheat flour based TPS of glycerol</li>
<li>Dynamic mechanical analysis of wheat flour based TPS of silicon dioxide</li>
</ul>
<p><strong>BIODEGRADATIN OF THERMOPLASTIC STARCH BASED MATERIALS</strong></p>
<ul>
<li>Mineralization of a ground starch film in liquid and solid media</li>
<li>Scheme of DIN/CEN test used to determine compostability of materials</li>
<li>Mineralization in liquid and solid media</li>
<li>Mineralization of co-extruded starch/PLA films in liquid (norm ASTM D-5209-92)</li>
<li>vermiculture and compost (norm ASTM D-5338-92) media</li>
<li>Mineralization of co extruded starch/PLA films in liquid (norm ISO/CEN 14852), vermiculture and compost (norm ISO/CEN 14855) media</li>
</ul>
<p><strong>BIODEGRADABLE MOLDABLE  PRODUCTS AND FILMS COMPRISING BLENDS OF STARCH ESTERS AND POLYESTERS </strong></p>
<ul>
<li>Bar graph showing  water absorption determined by cobb Test Method for  Polyethylene</li>
<li>Graph of DSC of Films prepared from blends of acetate/propionate modified starch &amp; body</li>
<li>Graph showing DSC Thermal analysis of an entrnded blend of propionate modified starch</li>
<li>Graph showing the composition of relative water absorption of unmodified starch, starch ester, and starch ester blend compositions</li>
<li>Methods (Examples)</li>
</ul>
<p><strong>CELLULOSIC POLYMERS</strong></p>
<ul>
<li>The structure of cellulose</li>
<li>Major fields of application in which the individual product groups of cellulose ethers are used</li>
<li>World fibre production 1920-2006</li>
<li>Cellulosic polymers for non plastic applications</li>
<li>Inorganic cellulose esters</li>
<li>World fibre production 1920-2006 (kton)</li>
<li>Cellulose ethers</li>
<li>Cellulosic plastics (including fibres)-Types and importance</li>
<li>Organic cellulose esters</li>
<li>Regenerated cellulose</li>
<li>Man made cellulose fibres</li>
<li>Man made cellulose films</li>
<li>Rigid cellulose acetate plastics</li>
</ul>
<p><strong>PRODUCTION OF CELLULOSE PLASTICS (INCLUDING FIBRES)</strong></p>
<ul>
<li>Cellulose  acetate</li>
<li>(CH2COOC2H5) is made by reacting cellulose with acetic anhydride</li>
<li>Regenerated  Cellulosic Fibres</li>
<li>The Viscose Process and Lyocell process</li>
<li>Pulp</li>
<li>The Viscose Process</li>
<li>Lyocell process</li>
<li>Recent R&amp;D on regenerated cellulose</li>
<li>Pulp</li>
<li>Fibre designation according to ISO/TC 38</li>
<li>Cellulose Acetate fibres</li>
<li>Cellulose Hydrate and Cellulose  Ester Films</li>
<li>Properties</li>
<li>Mechanical, thermal and water retention properties of selected staple fibres</li>
<li>Mechanical, thermal and permeability properties of selected films</li>
<li>Technical substitution potential</li>
<li>Applications today and tomorrow</li>
</ul>
<p><strong>CELLULOSE BASED POLYMERS WITH EXCELLENT MELT PROCESSABILITY</strong></p>
<ul>
<li>Thermoplasticity and mechanical properties of new cellulose based polymers</li>
<li>Properties of cellulose Based Polymers Denatured With a Single Substituent</li>
<li>Properties of Cellulose Based Polymers Denatured with Multiple Substituents</li>
<li>Impact Resistance Factors of New Cellulose Based Polymers</li>
<li>Molding with Test Molds</li>
<li>Characteristics of the Development Material</li>
<li>Conclusion</li>
</ul>
<p><strong>BIODEGRADATION OF LIGNIN</strong></p>
<ul>
<li>Lignocellulose</li>
<li>Lignin in biodegradation studies</li>
<li>Global carbon cycle</li>
<li>Microorganisms  during composting</li>
<li>Compost environment</li>
<li>Commonly utilized methods for analyzing, isolating, and synthesizing  lignin</li>
<li>The composting process</li>
<li>Temperature and pH variation during natural composting process</li>
<li>Bacteria</li>
<li>Fungi</li>
<li>Biodegradation of lignin</li>
<li>Lignin degrading fungi</li>
<li>Lignin degrading organisms</li>
<li>Lignin degrading Bacteria</li>
<li>Studies in the compost environment</li>
<li>Studies in which lignin degradation during composting or in soil incubation has not been reported</li>
<li>Studies in which lignin degradation during composting or in soil has been reported</li>
<li>Conclusions and comments</li>
</ul>
<p><strong>BIODEGRADABLE POLYMERIC FILMS (NOVEL LIGNIN STARCH AND LIGNIN GELATIN)</strong></p>
<ul>
<li>Experimental</li>
<li>Materials and methods</li>
<li>Extraction of lignin from wood chips</li>
<li>Preparation of Starch Lignin polymer</li>
<li>Preparation of Gelatin Lignin films</li>
<li>Preparation of Starch Gelatin Ligninfilms</li>
<li>Mechanical Testing</li>
<li>Water absorption Test</li>
<li>Results and Discussions</li>
<li>Lists the important properties obtained from the tensile test of various starch lignin films</li>
<li>Lists the important properties obtained from the tensile test of various gelatin lignin films</li>
<li>Tensile test of starch gelatin lignin films</li>
<li>Water absorption test</li>
<li>Percentage of swelling of 90-10% starchlignin films at various pH</li>
<li>Percentage of swelling of 80-20% starch lignin films at varius pH</li>
<li>Percentage of swelling of 90-10% gelatin lignin films at various pH</li>
<li>Conclusions</li>
</ul>
<p><strong>LIGNIN GRAFT COPOLYMER</strong></p>
<ul>
<li>Experiment</li>
<li>Isolation and Purification of Soda Lignin</li>
<li>Graft Copolymerisation</li>
<li>Fourier Transform Infrared (FTIR)Analysis</li>
<li>Differential Scanning Calorimety (DSC) Analysis</li>
<li>Mud Property Test</li>
<li>Results and Discussion</li>
<li>FTIR Spectrs</li>
<li>DSC Thermogram</li>
<li>Infrared spectra of soda lignin, itaconic acid and LGC.</li>
<li>Thermogram of soda lignin</li>
<li>Mud Properties</li>
<li>Base mud rheological properties at different  concentrations of LGC</li>
<li>Base mud rheological properties before and after the thermal aging test (before and after rolling at 190 Degree for 16 h)</li>
<li>Base mud rheological properties before and after the thermal aging test (before and after rolling at 190 Degree for 16 h)</li>
<li>Conclusion</li>
</ul>
<p><strong>BIODEGRADABLE PLASTICS AND COMPOSITES FROM WOOD </strong></p>
<ul>
<li>Structure 1</li>
<li>The Drawings</li>
<li>Chemical structure of the ester or thisester</li>
<li>Lignin-Containing material of a vasular plant</li>
<li>Element &amp; Bonding pattern of Lignin</li>
<li>Bar graphs of weight loss for each consultant of a blend of grafted &amp; lignin containing material</li>
<li>Description</li>
<li>Lignins and Woods Grafted with this Chemistry</li>
<li>Hydroperoxides Useful in Polymerization of Lignin containing materials</li>
<li>Some Halides Useful in Polymerization of Lignin containing Materials</li>
<li>Use of Different Salts with Hydrogen Peroxide to Initiate the Grafting Reaction</li>
<li>Poly (Lignin-G(1-Amidoethylene) Formed From Various Lignins and with Different Coinitiators</li>
<li>Synthesis of Polylignin</li>
<li>Synthesis Data and Physical Chracteristics of Graft Terpolymer</li>
<li>Synthesis of Poly(lignin-g-(2-propenamide-copolyol) a (Five or Ten oxyethylene units er properoic repeat unit)</li>
<li>Copolymerization Reactions of Lignin and phenylethylene</li>
<li>Copolymerization Reactions of Lignin and 1-Phenylethylene</li>
</ul>
<p><strong>PROCESS DESIGN AND EVALUATION OF BIOBASED POLYHYDROXYALKANOATES (PHA) PRODUCTION</strong></p>
<ul>
<li>Process Design and Assessment</li>
<li>Process Index (SPI) methodology</li>
<li>Process Intensification (PI)</li>
<li>Sustainable Process Index (SPI)</li>
<li>Slaughtering Waste Utilization for Biobased Polyester Production</li>
<li>Rendering</li>
<li>Process flowchart</li>
<li>Hydrolysis</li>
<li>Biodiesel</li>
<li>PHA Production</li>
<li>Biogas</li>
<li>Conclusions</li>
</ul>
<p><strong>TRANSGENIC PLANTS PRODUCING POLYHYDROXYALKANOATES</strong></p>
<ul>
<li>Polyhydroxyalkanoates (PHAs)</li>
<li>Polyhydroxybutyrate (PHB) and Polyhydroxy-co-valerate (PHBV)</li>
<li>Biosynthesis of Polyhydroxybutyrate (PHB) and Polyhydroxy co-valerate (PHBV)</li>
<li>Commercialization of PHBV by Bacterial Fermentation</li>
<li>Production of Polyhydroxyalkanoates (PHAS) in Plants</li>
<li>Arabidopsis thaliana</li>
<li>Tobacco (Nicotiana tabacum)</li>
<li>Rapeed (Brassica napus)</li>
<li>Cotton (Gossypium hirsutum)</li>
<li>Alfalfa (Medicago sativa)</li>
<li>Flax(Linium usitatissimum)</li>
<li>Oil palms (Elaeis guineensis and E.oleifera)</li>
<li>Construction of PHB and PHBV transformation vectors</li>
<li>Transformation of PHB and PHBV transformation vectors into oil palm</li>
<li>Conclusions and future prospects</li>
</ul>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/modern-technology-biodegradable-plastics-polymers-processes-bio-plastic-starch-plastics-cellulose-polymers-others/">Modern Technology of Biodegradable Plastics and Polymers with Processes (Bio-Plastic, Starch Plastics, Cellulose Polymers and Others)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></content:encoded>
					
		
		
			</item>
		<item>
		<title>Complete Technology Book on Identification of Plastics and Plastic Products Materials (Additives, Applications, Biodegradation, Biomedical, Bulk Moulding Compound, Chemical Analysis, XLPE, Drip Irrigation, Expanded Polyethylene, Polystyrene &#038; HDPE)</title>
		<link>https://projectreports.eiriindia.org/product/complete-technology-book-identification-plastics-plastic-products-materials/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Sat, 26 Apr 2014 12:27:53 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1868</guid>

					<description><![CDATA[<p>The book covers Identification of Plastics, Additives for Polyolefins, Various Plastics Applications, Biodegradation of Plastics and Polymers, Biomedical Applications of Polymers and Plastics, Bulk Moulding Compounds (BMC), Chemical Analysis of Plastics and Polymers, Chemical Analysis of Additives in Plastics and polymers, Cross Linked Polyethylene Compound, Drip Irrigation, Biodegradable Polymer Systems, Electrically Conducting Polymers, Expanded Polyethylene, Expanded Polystyrene, HDPE Tarpaulins as Sacks for Fruits &#38; Vegetables, High Density Polyethylene (HDPE)</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/complete-technology-book-identification-plastics-plastic-products-materials/">Complete Technology Book on Identification of Plastics and Plastic Products Materials (Additives, Applications, Biodegradation, Biomedical, Bulk Moulding Compound, Chemical Analysis, XLPE, Drip Irrigation, Expanded Polyethylene, Polystyrene &#038; HDPE)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>IDENTIFICATION OF PLASTICS</p>
<p>Beginning<br />
Inhouse identification facilities<br />
Laboratory<br />
Equipments to be used<br />
Glasswares and other Accessories<br />
Optional accessories<br />
Chemicals<br />
Solvents<br />
Organic reagents<br />
Inorganic chemicals<br />
Acids and bases<br />
Miscellaneous<br />
Identification of Plastics (Simple Methods)<br />
Physical Identification<br />
Visual appearance<br />
Method of fabrication<br />
Penetration to hot rod and cutting with a knife<br />
Floatation test<br />
Colour<br />
Odour<br />
Burning test<br />
Bending test<br />
Film tear test<br />
Chemical Identification<br />
Pyrolysis test<br />
Solubility test<br />
Softening and melting points<br />
Detection of elements<br />
Preparation of sodium fusion extract<br />
Nitrogen<br />
Chlorine and Bromine<br />
Fluorine<br />
Sulphur<br />
Detection of phosphorus<br />
Preparation of ammonium molybdate solution<br />
Confirmation tests<br />
Tests for Polyolefins<br />
Test for Chlorine Containing Polymers<br />
Test for Caprolactum in Nylon 6<br />
Test for Adipic acid in Nylon 6.6<br />
Test for Polycarbonate<br />
Test for PMMA<br />
Test for Polyacetals<br />
Tests for PET and PBT<br />
Test for Polyurethane<br />
Test for Cellulose in Cellulosics (Molisch Reaction)<br />
Test for acetates and propionates<br />
Test for cellulose ethers<br />
Detection of methyl cellulose<br />
Reaction to heating and burning<br />
Detection of ethyl cellulose<br />
Tests for phenol formaldehyde (PF), urea formaldehyde (UF) and melamine formaldehyde (MF)<br />
Test for epoxy resin<br />
Foucry test<br />
Test for alkyd resins<br />
Test for phthalate<br />
Identification of plastics materials<br />
Thermoplastics<br />
ABS<br />
Acetal<br />
Acrylic<br />
Cellulose acetate<br />
Cellulose acetate butyrate<br />
Cellulose propionate<br />
Fluorocarbons (FEP,CTFE, PTFE, PVF)<br />
Nylons<br />
Polycarbonate<br />
Thermoplastic polyester<br />
PVC<br />
Polyethylene<br />
Polypropylene<br />
Polystyrene<br />
Polyphenylene oxide (PPO)<br />
Polysulphone<br />
Polyurethane (Thermoplastic)<br />
Thermosetting Plastics<br />
Diallyphthalate (DAP)<br />
Epoxy<br />
Phenol formaldehyde<br />
Urea formaldehyde<br />
Melamine formaldehyde<br />
Polyesters<br />
Silicones<br />
Identification of plastics (instrumental methods)Infrared Spectroscopy<br />
Sample preparation<br />
Capillary films<br />
Solutions<br />
Films<br />
Pellets<br />
Mulls<br />
Identification<br />
Monomer content studies<br />
Crystallisation of polymers<br />
Compatibility of polymers<br />
Copolymer composition analysis<br />
Polymer degradation<br />
Thermal Analysis<br />
Differential scanning calorimetry<br />
Thermogravimetric analyser<br />
Pyrolysis Gas Chromatography<br />
Applications<br />
Nuclear Magnetic Resonance Spectroscopy (NMR)<br />
Applications of NMR to polymers</p>
<p>ADDITIVES FOR POLYOLEFINS</p>
<p>Introduction<br />
Types of Additives<br />
Incorporation of Additives<br />
Antioxidants<br />
Types<br />
U.V.Stabilizers<br />
Antiblocking agents<br />
Slip agents<br />
Antistatic agents<br />
Metal deactivators<br />
Colourants<br />
Nucleating Agents<br />
Crosslinking<br />
Flame retardants<br />
Fillers and reinforcing agents<br />
Impact modifiers<br />
Blowing agents<br />
Cling agents<br />
Lubricants &amp; processing aids<br />
masterbatches</p>
<p>VARIOUS PLASTICS APPLICATIONS</p>
<p>Introduction<br />
Plastics for space application<br />
Materials for space<br />
Materials for structural and related applications<br />
Thermal control Materials<br />
Materials for lubricated system<br />
Electronic Components Materials<br />
Materials for adhesion/sealing etc.<br />
Adhesives<br />
Sealant<br />
Plastics Engineering in automobiles<br />
Safety and Economy in Automobiles<br />
Engineering Plastics in Electronics<br />
Properties<br />
Modification of Engineering Plastics<br />
Application in Electronics Industry<br />
Engineering Plastics vs Metals<br />
Capacitors<br />
Plastic Encapsulation of Semi Conductors<br />
Covers and Enclosures<br />
Mechanical and Electrical Parts<br />
Printed Circuit Boards (PCB)<br />
Newer Plastics<br />
High temperature PES<br />
Polyether ether ketone (PEEK)<br />
Engineering Thermoplastics for Mechanical Engineering Applications<br />
Nylon Polyamide<br />
Excellent mechanical load bearing capacity<br />
Favourable friction and abrasion properties<br />
Self lubrication<br />
Vibration and sound damping<br />
Applications in mechanical components<br />
Thermoplastic Polyester<br />
Specific properties<br />
Typical applications in mechanical engineering Polyacetal (POM)<br />
Applications<br />
Polytetrafluoroethylene (PTFE)<br />
Properties<br />
Applications<br />
Ultra High Molecular Weight Polyethylene (UHMWPE)<br />
Properties<br />
Applications<br />
Thermoplastic Polyurethanes<br />
Applications<br />
Polyethylene terephathalate and polybutylene terephthalate in engineering applications<br />
Properties<br />
Processing<br />
Sensitivity to hydrolytic degradation<br />
Low melt viscosity<br />
Precise temperature control<br />
Mould heating<br />
Applications<br />
Electrical<br />
Electronics<br />
Automotives<br />
Domestic applications<br />
Lamps<br />
Mechanical<br />
Building<br />
Plastics in buildings<br />
Plastic Materials<br />
Construction aids<br />
Wall panel<br />
Thermal insulation<br />
Sealants<br />
Adhesives in buildings<br />
Advantages and Disadvantages<br />
Advantages<br />
Disadvantages<br />
Applications of recycled plastics<br />
Recycled LDPE<br />
Recycled PVC<br />
Recycled Polystyrene (PS)<br />
Domestic<br />
Recycled Polyethylene Tetrephthalate (PET)<br />
Recycled Commingied Plastics Waste</p>
<p>BIODEGRADATION OF PLASTICS AND POLYMERS</p>
<p>Mechanisms of degradation in polymers<br />
Photodegradation<br />
Thermal degradation<br />
Chemical degradation<br />
Biological degradation<br />
Factors affecting biodegradability<br />
Effect of Polymer structure, chemical composition and properties<br />
Effect of Environmental factors<br />
Soil texture and structure<br />
Soil temperature<br />
Cation exchange capacity<br />
Soil organic matter (SOM)<br />
Water<br />
Soil pH</p>
<p>BIOMEDICAL APPLICATIONS OF POLYMERS AND PLASTICS</p>
<p>Classification of Biopolymers<br />
Polyester<br />
Polycaprolactone<br />
Poly(b-hydroxybutyrate)<br />
Poly(phosphoesters)<br />
Polycarbonates<br />
Poly(amides)<br />
Polyphosphazenes<br />
Poly(orthoesters)<br />
Polyanhydrides<br />
Factor Affecting Biodegradation<br />
Effect of Polymer Structures<br />
Effect of Polymer Morphology<br />
Effect of Molecular Weight<br />
Effect of Radiation and Chemical Treatment<br />
Biomedical Applications<br />
Surgical Sutures<br />
Bone Fixation Devices</p>
<p>BULK MOULDING COMPOUNDS (BMC)</p>
<p>Overview<br />
Bulk Moulding Compounds<br />
What are bulk Moulding Compounds<br />
Characteristics of Bulk Moulding Compounds<br />
Thermal stability<br />
Flame Retardance<br />
Electrical Properties<br />
Colours<br />
Resistance to Chemicals and Stains<br />
Cost<br />
Storage and Shelf life<br />
Processability<br />
Recyclability<br />
Conclusion<br />
Common uses of BMC in automotive industry</p>
<p>CHEMICAL ANALYSIS OF PLASTICS AND POLYMERS</p>
<p>Introduction<br />
Preparation for Analysis<br />
Preliminary examination<br />
Nitrogen<br />
Chlorine<br />
Sulphur<br />
Phosphorus<br />
Saponification Number<br />
Phenols<br />
Methyl Alcohol<br />
Ethyl Alcohol<br />
Phthalic Acid<br />
Colophony Resins<br />
Other Resins<br />
Nitro groups<br />
Aidehydes<br />
Furfural<br />
Coumarone<br />
Aniline<br />
Glycerol<br />
Carbohydrate (Cellulose)<br />
Acetic Acid<br />
Quantitative analysis<br />
Cellulose Ethers<br />
Methylcellulose<br />
Ethylcellulose<br />
Benzylcellulose<br />
Cellulose Esters<br />
Cellulose acetate<br />
Cellulose acetobutyrate<br />
Nitrocellulose<br />
Polyvinyl Esters<br />
Polyvinyl acetate<br />
Polyvinyl chloride<br />
Polyvinyl chloride acetate<br />
Polystyrene<br />
Polymethacrylic and Polyacrylic Esters<br />
Phenol formaldehyde Condensation Products<br />
Aminoplastis<br />
Proteinoplasts<br />
Aniline formaldehyde<br />
Urea resins<br />
Melamine formaldehyde resin<br />
Thiourea resin<br />
Sulphonemide formaldehyde resins<br />
Nylon<br />
Analysis of aminoplasts<br />
Chlorinated Plastics<br />
Chlorinated rubber<br />
Chlorinated diphenyl<br />
Chlorinated naphthalene<br />
Chloroprene<br />
Natural and synthetic rubber<br />
Plasticizers</p>
<p>CHEMICAL ANALYSIS OF ADDITIVES IN PLASTICS AND POLYMERS</p>
<p>Beginning<br />
Direct spectroscopy of polymer films<br />
Apparatus<br />
Procedure<br />
Preparation of sample film<br />
Recording the infrared spectrum<br />
Measurement of Absorbance<br />
Calibration<br />
Preliminary solvent extraction<br />
Solvent Extraction Procedures<br />
Determination of tinuvin 326 in polypropylene<br />
Apparatus<br />
Reagents<br />
Procedure<br />
Calibration<br />
Polymer Extraction<br />
Determination of phenolic antioxidants<br />
Determination of amine antioxidants<br />
Apparatus<br />
Reagents<br />
Methanol hydrochloric acid solvent<br />
Procedure &#8220;A&#8221;<br />
Alternate Procedure &#8220;B&#8221; for PBNA<br />
Determination of plasticizers<br />
Extraction with Single Solvents<br />
Extraction with Mixed Solvents<br />
Multiple Extractions<br />
Improvement of Extractions<br />
Determination of ultra violet absorbers<br />
Method<br />
Apparatus<br />
Reagents<br />
Calibration<br />
Cetting up the fluorimeter<br />
Console controls<br />
Dynode supply<br />
Filter<br />
Recorder<br />
Analysis of Polystyrene<br />
Calculations<br />
Determination of Polygard<br />
Determination of organic peroxides<br />
Determination of p-tert butyl Perbenzoate in Polystyrene<br />
Apparatus<br />
Reagents<br />
Procedure<br />
Calculations<br />
Valuation of styrene, acrylonitrile and methacrylonitrile monomers<br />
Direct Ultra violet Spectroscopic Method for Styrene<br />
Distillation/Ultra violet Spectroscopic Method for Styrene<br />
Polarographic Method for Acrylonitrile<br />
Apparatus<br />
Reagents<br />
Acrylonitrile and styrene monomers Re-distill the monomers immediately before use<br />
Hydrogen or nitrogen extremely low oxygen content<br />
Procedure</p>
<p>CROSS LINKED POLYETHYLENE COMPOUND</p>
<p>Introduction<br />
Plant &amp; Machinery<br />
Radiation crosslinking<br />
Compounding<br />
Applications of radiation crosslinking<br />
Preference of XLPE in cables<br />
Uses of radiation crosslinked polyethylene<br />
Formulations &amp; Processing parameters</p>
<p>DRIP IRRIGATION</p>
<p>What is Drip Irrigation?<br />
Typical setup of Drip Irrigation System<br />
Why Drip Irrigation?<br />
Gvernment Initiative for Popularisation of Irrigation System<br />
Micro Irrigation Scheme<br />
Indian Business<br />
RR+DRTS Together<br />
Important Features of Drip Line Pipe Plant Supplied by R.R.<br />
Drip Emitters DRTS PC Dripper<br />
Why pressure compensating (PC) drippers?<br />
Advantages in slopes<br />
Precision<br />
Lower project cost<br />
Simple Design<br />
Fertilizer advantages</p>
<p>BIODEGRADABLE POLYMER SYSTEMS</p>
<p>Introduction<br />
New tissues using function cells and bio degradable polymer scafffolds<br />
Polymers serve severa Ipurposes<br />
Effective as scaffolds for cell delivery in the generation of new tissue<br />
Some disadvantages of these polymers<br />
Poly (glycolic acid), PGA and poly (lactic acid), PLA and their copolymers<br />
Medical application of PGA<br />
Concerns about degradation<br />
Cross linkable PPF, poly (propylene fumarate)<br />
Polyanhydrides<br />
Polyanhydride for drug delivery applications<br />
Photo cross linkable polyanhydride<br />
Poly carbonates<br />
Polyphosphazene<br />
Poly orthoesters<br />
Polyurethanes<br />
Development of injectable and biodegradable polymer for tissue engineering<br />
Requirements in orthopedic tissue engineering</p>
<p>ELECTRICALLY CONDUCTING POLYMERS</p>
<p>Introduction<br />
Structural features<br />
The band theory of solids and the electrical conductivity of p-conjugated polymers<br />
Doping of organic conjugated polymers<br />
General methods of preparationof conducting polymers<br />
Chemical routes<br />
Electrochemical synthesis<br />
Photochemical synthesis<br />
Attempts to improve the processability of conducting polymers<br />
Electrically conducting polyaniline<br />
Chemical synthesis of emeraldine base<br />
Electrochemical synthesis of polyaniline<br />
Earlier doping studies on polyaniline<br />
Use of Polymer functionalized dopants<br />
Influence of organic sulphonic acids<br />
Polyanilline camphor sulphonic acid/dodpcyl benzene sulphonic acid systems<br />
Secondary doping in polyaniline<br />
Organic phosphonic acids as the dopants<br />
Naturally available organic compound as dopants<br />
Applications of conducting polymers<br />
Conducting plastics in devices<br />
Coaxial cable<br />
Electromagnetic shielding<br />
Thin film trqansistors<br />
Flexible display<br />
Smart windows<br />
Solder<br />
Batteries<br />
Artificial muscle<br />
Biological Sensors<br />
Camouflage coatings<br />
Electroluminescence Lightemitting diode (LED)<br />
Electrostatic materials<br />
Conducting adhesives<br />
Printed circuit boards<br />
Aircraft structures<br />
Molecular electronics<br />
Electrochemical actators<br />
Smart structures</p>
<p>EXPANDED POLYETHYLENE</p>
<p>Beginning<br />
Process<br />
Raw materials<br />
Blowing Agents<br />
Chemical Blowing Agents (CBA)<br />
Physical blowing agents (PBA)<br />
CFC<br />
Butane<br />
Other additives<br />
Open and closed cell foamed plastics<br />
Non-crossedlinked foam<br />
Crosslinked foam<br />
Mouldable Foam beads<br />
properties<br />
Antistatic property<br />
Fire retardant property<br />
Density<br />
Size of cells<br />
Thermal conductivity<br />
Temperature range<br />
Fabrication versatility<br />
Laminate products<br />
Applications<br />
Cushion packaging<br />
Automotive use<br />
Shoes/sports gods<br />
Carpet underlay<br />
Construction<br />
Conclusion</p>
<p>EXPANDED POLYSTYRENE</p>
<p>Introduction<br />
Manufacturing process<br />
Diffusion of blowing agent into Polystyrene<br />
The Quenched Pellet Process<br />
Extrusion process<br />
Processing temperature<br />
Effect of cell nucleating agent<br />
General processing parameters of polystyrene<br />
Some Properties of Polystyrene<br />
properties are to be measured (After foaming)<br />
Applications</p>
<p>HDPE TARPAULINS AS SACKS FOR FRUITS &amp; VEGETABLES</p>
<p>Introduction<br />
11th Plant aimed at doubleing the annual growth rate in the agriculture sector to 4 percent<br />
Growth<br />
Plastics in Agribusiness<br />
Tarpaulin<br />
Advantages of HDPE Tarpaulin<br />
Polyethylene Tarpaulins<br />
Manufacturing Process<br />
Lamination<br />
Sealing<br />
Border making<br />
Machinery<br />
Transportation<br />
Storage<br />
Plastics for Entrepreneurs<br />
HDPE Eyeleted Tarpaulins as sacks for packaging of fruits &amp; vegetales with more number of eyelets for breathability<br />
End Uses of HDPE Tarpaulin<br />
End Uses of HDPE Tarpaulin</p>
<p>HIGH DENSITY POLYTHYLENE (HDPE)</p>
<p>Co-ordination Polymerization (Ziegler Process)<br />
Mechanism<br />
Initiation<br />
Propagation</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/complete-technology-book-identification-plastics-plastic-products-materials/">Complete Technology Book on Identification of Plastics and Plastic Products Materials (Additives, Applications, Biodegradation, Biomedical, Bulk Moulding Compound, Chemical Analysis, XLPE, Drip Irrigation, Expanded Polyethylene, Polystyrene &#038; HDPE)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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			</item>
		<item>
		<title>Injection Moulding of Plastics (Hand Book)</title>
		<link>https://projectreports.eiriindia.org/product/injection-moulding-plastics/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Wed, 19 Feb 2014 11:39:18 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1255</guid>

					<description><![CDATA[<p style="text-align: justify;">The book covers Injection Moulding, Setting-up-Mould and Machine,  Effect of Processing on Mechanical Properties, Mouldflow, Computer Controlled Automatic Injection Moulding Machine, Maintenance of Injection Moulding Machine, CAE and CAD Technology in Moulds Making,  Injection Moulding  process, Specialised Injection Moulding Process, Troubleshooting in Injection Moulding, Injection Moulding of Thermosets, Injection Moulding Machine, Design for Injection Moulds, Designing Moulds for Thermoset Processing, Injection Moulded Plastic Components, Plastic Moulded Toys, Plastic Injection Moulding Products, Plastic Injection Moulding Items (like Bucket, Plastic Chairs, Bathing Tube).</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/injection-moulding-plastics/">Injection Moulding of Plastics (Hand Book)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<div><strong>INJECTION MOULDING OF PLASTICS</strong></div>
<p><strong>INJECTION MOULDING</strong></p>
<p>The Material Hopper<br />
The Barrel/Cylinder heating system<br />
The Barrel/Cylinder and Screw<br />
Adhesion<br />
Abrasion<br />
Corrosion<br />
Datamination<br />
The Screw Drive System<br />
The Stationery Platen<br />
The Mould<br />
The Moving Planten and Tie Rods<br />
The Clamping Unit<br />
To Close and open the mould<br />
To eject the parts<br />
To keep the mould closed during the injection cycle<br />
Check these item for  trouble moulds<br />
General check list for new moulds<br />
Machine<br />
Mould Design<br />
General<br />
Mould Analysis Software<br />
Co-ordinate Measuring Machines<br />
Benefit to Processors<br />
Granulator Check List<br />
Metal Separators<br />
Geneal Performance Data</p>
<p><strong>SETTING UP MOULD AND MACHINE<br />
</strong><br />
Moulding Set up Time<br />
Check list for Start up<br />
Processing  Some Initial Consideration<br />
Number of Shots/Cycle Time<br />
Plasticizing Capacity/Rate<br />
Clamp Tonnage<br />
Mouldability Features<br />
Part Removal<br />
The Sprue<br />
Runner System<br />
Cold Slug Well<br />
Gate Location<br />
Gate Size<br />
Cores<br />
Vents<br />
Undercuts<br />
Melt Rheology<br />
Purging<br />
Set Clamp Cycle<br />
Clamp Data<br />
Pressure, Feed, Speeds<br />
Timers in Sec.<br />
Temp, Cylinder, Nozzle &amp; Nozzle Valve<br />
First Shot<br />
Mould Mounting Data<br />
Mould Placement<br />
Removal<br />
Water Data<br />
Temp Cavity Position<br />
Temp. Core Position<br />
Mics. Columns as needed<br />
Estimating Cooling time during injection moulding<br />
Setting up a Moulding shop<br />
Accessories for the injection unit<br />
Hygroscopic Plastics<br />
Operations and Controls in Injection Moulding</p>
<p><strong>EFFECT OF PROCESSING ON MECHANICAL PROPERTIES<br />
</strong><br />
Molecular Orientation<br />
Residual Stresses<br />
Melt  Elasticity<br />
Melt Fracture<br />
Weld Lines<br />
Accurate Dimensions<br />
Cooling Rate<br />
Weigh Feeding and Blending<br />
Feeders<br />
Weigh Blenders<br />
Controls<br />
Processes Control Method in Injection Moulding<br />
Factors that Affect Reproductive  Behaviour of Injection Moulding Machne<br />
In Line Injection Compression Equipment</p>
<p><strong>MOULD FLOW </strong></p>
<p>What is Mouldflow<br />
How Mouldflow can help Part Designers, Mould Maker &amp; Processor<br />
How mouldflow can help Mould Designer<br />
How Mouldflow can help a Processor<br />
How to improve Quality &amp; Productivity using Mouldflow<br />
Hydraulic System Noise Suppression<br />
The main causes of noise are<br />
Some suggestions for Noise Reduction<br />
Injection Moulding Section<br />
Estimating Cooling Time<br />
How Cooling Affects the Cycle Time<br />
How Wall thickness impacts<br />
Cooling Time<br />
Cooling Channel Diameter and Placement<br />
How Turbulent is Enough<br />
Energy Consumption in Injection Moulding<br />
Injection Moulding Control System<br />
Mechanical Properties<br />
Dimensional Accuracy<br />
Surface Quality<br />
Basic Methods for control are<br />
Temperature Controls<br />
Pressure Measurement<br />
Disturbing Factor that affect smooth operation are<br />
Clamping<br />
Injection<br />
Micro Process Controls in Moulding<br />
Standard Functions<br />
Monitoring Functions<br />
Control Functions<br />
Note</p>
<p><strong>COMPUTER  CONTROLLED AUTOMATIC  INJECTION MOULDING MACHINE </strong></p>
<p>Clamping Side<br />
Injection Side<br />
Machine Maintenance<br />
Make Sure the Oil is Clean<br />
Examine Control  Cabinet Fitters<br />
Check Water Quality<br />
Pay Attention to Toggle Link Lubrication<br />
Monitor Machine levelling<br />
Beware to How you square<br />
Inspect Heater Bands<br />
Watch safeties<br />
Stop Look, Listen<br />
Mould Placement<br />
Purging<br />
Mould Removal from<br />
Press Moulding Machine<br />
Mould Steels<br />
Plastic Mould Steels requirements<br />
New Mould Materials (Alloys and Powder Metals)<br />
Two component Injection Moulding (Sandwich Moulding)<br />
Back Pressure<br />
Injection Technique</p>
<p><strong>MAINTENANCE OF INJECTION MOULDING MACHINE<br />
</strong><br />
Daily Maintenance<br />
Daily Maintenance<br />
Monthly maintenance<br />
Inspection at Three month intervals<br />
Inspection at six month intervals<br />
Annual inspection<br />
Daily Maintenance Attention<br />
Piping installation<br />
Controls of Hydraulic and Lubricating Oils<br />
Trouble Shooting of Hydraulic Circuit<br />
Problems and Possible causes<br />
Noisy Pumps<br />
Low or erractic pressure<br />
No Pressure<br />
Actuator fails to move<br />
Slow to erratic operating<br />
Erratic Feed Rates<br />
Overheating of System<br />
Excessive slippage or internal leakage<br />
Machine Maintenance in General<br />
Pressure gauges and pyrometers<br />
Hydraulic Oil<br />
Fitters<br />
Coolers (heat exchangers)<br />
Oil leaks<br />
Troubleshooting of a hydraulic circuit<br />
Brief mould Design Check List<br />
Press<br />
Moulding<br />
Tool<br />
A checklist Mould Visa-Vis Machine<br />
Check these items for trouble free moulds<br />
Mould making using  computer integrated manufacturing (CIM)<br />
CAD for Part Designing<br />
Maintenance and Care of Moulds<br />
Serving<br />
Repairs Most Common</p>
<p><strong>CAE AND CAD TECHNOLOGY IN MOULDS MAKING </strong></p>
<p>What is CAE<br />
Flow Analysis<br />
Cooling Analysis<br />
Structural Analysis<br />
Usage of CAE<br />
User Specified Values<br />
Is it not an expensive showpiece ?<br />
Computer Aided Design and Computer Aided Manufacturing<br />
2D System<br />
3D Interactive graphics system<br />
Solid Modellers<br />
CAM Computer Aided Manufacturing<br />
How Does the Mould design software Expedite the work<br />
How does CAM Software Work<br />
Assembly and Testing of Mould</p>
<p><strong>INJECTION  MOULDING  PROCESS </strong></p>
<p>Machine  Ratings<br />
Influence of Mateial Properties on the Moulding<br />
Nozzle<br />
Runners and Gates<br />
Mould<br />
Product Design for Injection Moulding<br />
Coloured Moulding<br />
Moulding Problems<br />
Finishing and Regrinding<br />
Purging<br />
Process Control<br />
Computer Integrated Injection Moulding<br />
Microprocessor Control Systems<br />
Computerised process Simulation of 1M</p>
<p><strong>SPECIALISED INJECTION MOULDING PROCESS<br />
</strong><br />
Co-Injection Moulding<br />
Two Colour Moulding<br />
Gas Injection Moulding (GIM)<br />
Advantages and Disadvantages<br />
Basic Processes and Procedures<br />
Disadvantages<br />
Processes<br />
Procedures<br />
Moulding Aspects<br />
Shrinkage<br />
Multi Live Moulding<br />
Counterflow Moulding<br />
Oscillatory Moulding for Optical Disks<br />
Reaction Injection Moulding<br />
Mould<br />
Process Controls<br />
Liquid Injection Moulding<br />
Structural Foam Moulding (SFM)<br />
Performance<br />
Plastic Materials<br />
Characteristics of foam<br />
Design Analysis<br />
Blowing Agents<br />
Methods of Processing  structural Foam (SF) with  Chemical Blowing Agents (CBA)<br />
Low pressure foam<br />
High pressure foam<br />
Processing  SF with Gas  blowing Agent<br />
Tooling<br />
Startup for Moulding<br />
Tandom Processing  Systems<br />
Tandem Moulding  Machines<br />
Operational sequence<br />
Coining<br />
Injection Blow Moulding (IBM)<br />
Injection Moulding with Rotation<br />
DIP Injection Blow Moulding<br />
Materials<br />
Metal Injection Moulding (MIM)<br />
Ceramic Injection Moulding<br />
Fusible and Soluble<br />
Core Moulding<br />
Vacuum Moulding</p>
<p><strong>TROUBLESHOOTING IN INJECTION MOULDING<br />
</strong><br />
Problem of Short Shots<br />
Problem of Flashing<br />
Problems of Bubbles and Voids<br />
Problem of Brittleness of Component<br />
Problem  of Discoloration<br />
Problem of silver streaks<br />
Problem of Nozzle Drooling and Foaming<br />
Problem of Scorching<br />
Problem of Sprue Sticking<br />
Problem of Surface Lamination<br />
Problem of Parts Sticking of the Muld<br />
Problem of Surface Waviness (Pits, Orange peel, Wrinkles)<br />
Problem of Warping<br />
Problem of Weld Lines<br />
Problem of Dimensional  Variation<br />
Problem of Jetting<br />
Problem of Gate Smear<br />
Technological Solutions for Total Quality in Injection Moulding of Plastics<br />
Machine<br />
Mould<br />
Material<br />
Man<br />
Quality Related Problems<br />
Problems of Moulding<br />
Perfect Mouldability</p>
<p><strong>INJECTION MOULDING OF THERMOSETS </strong></p>
<p>Introduction<br />
Process Operations<br />
Process and Design Considerations<br />
Materials<br />
Process Effects on Design<br />
Injection compression Moulding<br />
Part Design Consideration<br />
Cold Runner Moulding<br />
Injection Moulding Reinforced Polyesters<br />
Injection Moulding Presses<br />
Temperature Control</p>
<p><strong>INJECTION MOULDING  MACHINE<br />
</strong><br />
Co-Injection Moulding<br />
Process<br />
Equipment<br />
Reaction Injection<br />
Moulding (RIM) Low Pressures<br />
Low Temperature<br />
Liquid Intermediates<br />
Equipments<br />
Material Conditioning System<br />
Matering System<br />
Mixing head<br />
Mould Carrier<br />
Tooling</p>
<p><strong>DESIGN FOR INJECTION MOULDS<br />
</strong><br />
Introduction<br />
Mould Design Features<br />
Two Plate Mould<br />
Three plate Mould<br />
Hot Runner Moulds<br />
Insulated Runner Moulds<br />
Runners<br />
Gates<br />
Venting<br />
Parting Line<br />
Ejection<br />
Ejector Mechanisms<br />
Ejector Sleeve<br />
Stripper Ring<br />
Stripper Plates<br />
Vent Pins<br />
Cam Actions<br />
Early Ejector Hetum Unit<br />
Mould Cooling<br />
Standard Equipment<br />
Standard Mould Bases<br />
Standard Cavity Inserts</p>
<p><strong>DESIGNING MOULDS  FOR THERMOSET PROCESSING </strong></p>
<p>Introduction<br />
Method of Moulding<br />
Transfer Moulds<br />
Injection Moulding of Thermosets<br />
Injection Compression Moulding of Thermosets<br />
Runner and Gate Design<br />
Vents<br />
General Mould Design<br />
Considerations</p>
<p><strong>INJECTION MOULDED PLASTIC COMPONENTS<br />
</strong><br />
Introduction<br />
Manufacturing Process<br />
Plasticizing<br />
Process Flow Sheet<br />
Plant Economics of Injection Moulded Plastic Components<br />
Rated Plant Capacity<br />
Land and building<br />
Plant and Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total working capital/month<br />
Total Capital Investment<br />
Turn Over/Annum<br />
profit Sales Ratio<br />
Rate of Return<br />
Break Even Point</p>
<p><strong>PLASTIC MOULDED TOYS</strong></p>
<p>Introduction<br />
Process of Manufacture<br />
Injection Moulding Process in Detail<br />
Plasticizing<br />
Injection<br />
After filling<br />
Process flow sheet<br />
Plant Economics of Plastic Mould Toys<br />
Rated Plant Capacity<br />
Land and building<br />
Plant and Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total working capital/month<br />
Total Capital Investment<br />
Turn Over/Annum<br />
profit Sales Ratio<br />
Rate of Return<br />
Break Even Point</p>
<p><strong>PLASTIC INJECTION MOULDING PRODUCTS<br />
</strong><br />
Process of Manufactures<br />
Plant Economics of Plastic Injection Moulding<br />
Rated Plant Capacity<br />
Land and building<br />
Plant and Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total working capital/month<br />
Total Capital Investment<br />
Turn Over/Annum<br />
profit Sales Ratio<br />
Rate of Return<br />
Break Even Point</p>
<p><strong>PLASTIC INJECTION MOULDING ITEMS (LIKE BUCKET, PLASTIC CHAIRS, BATHING TUB) </strong></p>
<p>Manufacturing Process<br />
Plasticizing<br />
process Flow Sheet<br />
Plant  Economics of Plastic Injection Moulding<br />
Rated Plant Capacity<br />
Land and building<br />
Plant and Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total working capital/month<br />
Total Capital Investment<br />
Turn Over/Annum<br />
profit Sales Ratio<br />
Rate of Return<br />
Break Even Point</p>
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