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	<title>Plastic Pipes &#8211; EIRI &#8211; eBooks and Project Reports</title>
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		<title>COMPLETE HAND BOOK OF BLOW MOULDING PLASTICS TECHNOLOGY WITH PROJECT PROFILES (Extrusion Blow Moulding, Stretch Blow Moulding, Injection Blow Moulding, Plastic Bottles Blow Moulding, PET Blow Moulding and Rotational Blow Moulding)</title>
		<link>https://projectreports.eiriindia.org/product/modern-technology-injection-moulding-blow-moulding-plastic-extrusion-pet-plastics/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 12 Sep 2014 12:36:59 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=2590</guid>

					<description><![CDATA[<p>The book <strong>COMPLETE HAND BOOK OF BLOW MOULDING PLASTICS TECHNOLOGY WITH PROJECT PROFILES (Extrusion Blow Mouldingl, Stretch Blow Moulding, Injection Blow Moulding, Plastic Bottles Blow Moulding,  PET Blow Moulding and  Rotational Blow Moulding) </strong>cover Technology of Blow Moulding, Blow Moulding Process,Internal Cooling for the Blow Molding Industry, Multiaspect Analyzes of Blow Moulding Process, Plastic Bottle Blow Moulding, PET Blow Moulding Machines,Rotational Blow Moulding Process, Moulds, Rotational Blow Moulding Machinery, Materials for Rotational Blow Moulding, Quality Control in Rotational Blow Moulding, Plant Economics of blow Moulded Plastic Containers,  Plant Economics of HDPE, PVC and CPVC Pipes and Fittings, Plant Economics of Injection and Blow Moulded Plastic Products, Plant Economics of Injection Moulded Plastic Autoparts, Plant Economics of Injection Moulding of Chairs, Plant Economics of Injection Moulding Unit, Plant Economics of PET Bottles Recycling Plant , Plant Economics of PET Injection moulding used Mainly for Mineral Water Packing (PET Preform), Plant Economics of Pet Preform and pet Jars, Plant Economics of Plastic Water Storage Tanks, Plant Economics of uPVC Windows from uPVC Profiles.</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/modern-technology-injection-moulding-blow-moulding-plastic-extrusion-pet-plastics/">COMPLETE HAND BOOK OF BLOW MOULDING PLASTICS TECHNOLOGY WITH PROJECT PROFILES (Extrusion Blow Moulding, Stretch Blow Moulding, Injection Blow Moulding, Plastic Bottles Blow Moulding, PET Blow Moulding and Rotational Blow Moulding)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p align="center"><strong>TECHNOLOGY OF BLOW MOLDING</strong></p>
<ul>
<li>Extrusion blow moulding</li>
<li>Continuous extrusion equipment</li>
<li>Intermittent extrusion machinery</li>
<li>Spin trimming</li>
<li>Injection blow molding</li>
<li>Injection Stretch blow molding process</li>
<li>Advantages</li>
<li>Disadvantages</li>
</ul>
<div><strong>BLOW MOULDING PROCESS</strong></div>
<ul>
<li>Basic Blow Moulding Process</li>
<li>Extrusion Blow Moulding</li>
<li>Injection Blow Moulding</li>
<li>Stretch Blow Moulding</li>
<li>Injection Stretch Blow Moulding</li>
<li>Extrusion Stretch Blow Moulding</li>
<li>Injection blow moulding</li>
<li>Injection stretch blow moulding  process sequence</li>
<li>Polymers used for Blow Moulding Process</li>
<li>Requirements for Blow Moulding Materials</li>
<li>Process Based Requirements for Material Suitability</li>
<li>Extrusion blow moulding</li>
<li>Injection blow moulding/Stretch blow moulding</li>
<li>Coextrusion blow moulding</li>
<li>End use criteria for material selection</li>
<li>Selection of Material for Packaging Application</li>
<li>End use applications of polypropylene Blow  moulded products</li>
<li>Mineral water bottles</li>
<li>Properties of Repol Blow Moulding Grades</li>
<li>Why polypropylene for blow moulding</li>
<li>Processing Polypropylene</li>
<li>Screw and Barrel Design</li>
<li>Processing Temperatures</li>
<li>Tooling for Polypropylene</li>
<li>Moulds</li>
<li>Deflashing</li>
<li>Parison Transfer</li>
<li>Resin Properties</li>
<li>Additives</li>
<li>Shrinkage</li>
<li>process of Blow moulding</li>
<li>Basic Features of a Typical Mould</li>
<li>Continuous extrusion machines</li>
<li>Accumulator head machines</li>
<li>Co-extrusion and sequential 3-D blow moulding</li>
<li>Hard component Soft component</li>
<li>Laydow process</li>
<li>Movable mould</li>
<li>Movable die head</li>
<li>Laydown process</li>
<li>Parison manipulation process</li>
<li>3D Suction process</li>
<li>Injection blow moulding</li>
<li>The blow moulding machine important considerations</li>
<li>Screw and barrel design</li>
<li>Suction blow moulding process</li>
<li>Suction blow moulding process</li>
<li>Suction blow moulding process</li>
<li>Manifold/adapter design</li>
<li>Accumulator &amp; continuous extrusion head design</li>
<li>Die/head tooling design</li>
<li>Divergent head tooling</li>
<li>Convergent head tooling</li>
<li>Parison cutters</li>
<li>Mould clamping force</li>
<li>Temperature control</li>
<li>Auxiliary equipment</li>
<li>Machine operating conditions</li>
<li>Quick reference</li>
<li>Barrel temperatures</li>
<li>Adapter, head and die temperatures</li>
<li>Summary of processing recommendations for blow moulding resins</li>
<li>Accumulator push-out pressures &amp; speeds</li>
<li>Parison programming</li>
<li>Mould temperature</li>
<li>Start up procedures</li>
<li>Purging and shutdown</li>
<li>Secondary operations</li>
<li>Special conditions for injection blow moulding and pressblower (Ossberger) operation</li>
<li>Injection blow moulding conditions</li>
<li>Blow Moulding Conditions Ossberger SBE 50 Machine</li>
<li>Handling of blow moulding resins</li>
<li>Effects of moisture</li>
<li>Drying</li>
<li>Regrind</li>
<li>Bulk Storage</li>
<li>Mould design guidance</li>
<li>General</li>
<li>Blow up (draw) ratio</li>
<li>Mould shrinkage allowances and part  dimensions</li>
<li>Pinch off designs</li>
<li>Other mould considerations</li>
<li>Double Dam Pinch off Design</li>
<li>Troubleshooting guide</li>
</ul>
<div><strong>INTERNAL COLLING FOR THE BLOW MOLDING INDUSTRY</strong></div>
<ul>
<li>Blow Molding Process</li>
<li>Mold Sweat</li>
<li>Internal Air Cooling Systems</li>
<li>The Blowing  Tools and the Blow Valve blocks</li>
<li>The Blow Molding Booster</li>
<li>The blow Air Chiller</li>
</ul>
<div><strong>MULTIASPECT ANALYZES OF BLOW MOULDING PROCESS</strong></div>
<ul>
<li>Schematic division of the blow moulding process</li>
<li>Methodology</li>
<li>Determination of the Barus number</li>
<li>Measurements of the temperature distribution on the parison surface</li>
<li>Registration of the phenomena which occur during the blowing stage</li>
<li>Investigation results</li>
<li>Barus effect</li>
<li>Exampled  of the results for Barus number for individual values of the extrusion nozzle gap G (mm</li>
<li>Temperature distribution on the parison surface</li>
<li>registration of the phenomenon which occurs during blowing process</li>
</ul>
<div><strong>PLASTIC BOTTOLE BLOW MOULDING </strong></div>
<ul>
<li>Background to the Industrial Energy</li>
<li>Efficiency Accelerator</li>
<li>Background to the plastic bottle blow moulding sector</li>
<li>What the sector manufactures</li>
<li>How the sector  manufactures</li>
<li>Factors affecting business decisions</li>
<li>Customer demands</li>
<li>Flow diagram showing the  main stages of the  extrusion blow moulding process and the major energy demands</li>
<li>How energy is used in processing</li>
<li>Extrusion blow moulding</li>
<li>Flow diagram showing the main stages of the injection stretch blow moulding proces and the major energy demands</li>
<li>Factors affecting business decisions in the plastic bottle blow moulding sector</li>
<li>EBM Electricity consumption</li>
<li>A breakdown of electricity consumption for an extrusion blow moulding machine</li>
<li>Plastic  Blow Moulding</li>
<li>Injection stretch blow moulding</li>
<li>A breakdown of electricity consumption during the blow stage of injection stretch blow moulding</li>
<li>Impact of bottle weight</li>
<li>Impact of speed of production</li>
<li>Equipment idling</li>
<li>Effect of different bottle weights on energy consumption for extrusion blow  moulding processes</li>
<li>The relationship between extrusion rate and power consumption of extruder and heater</li>
<li>Power consumption (kW) of an EBM machine</li>
<li>Power consumption (kW) of an ISBM machine</li>
<li>Heat loss</li>
<li>Thermal image showing heat radiating from a motor</li>
<li>Operator practice</li>
<li>Energy management</li>
<li>Energy consumption of extrusion blow moulding machines for different bottle weights</li>
<li>Energy consumption of injection stretch blow moulding machines for different bottle weights</li>
<li>Energy consumption of extrusion blow moulding machines by rate of extrusion</li>
<li>Opportunities</li>
<li>Innovation in process control</li>
<li>Control of granulators (EBM)</li>
<li>Cost</li>
<li>Barriers</li>
<li>Production planning (ISBM)</li>
<li>Cost</li>
<li>Barriers</li>
<li>Innovative equipment</li>
<li>Induction barrel heating (EBM)</li>
<li>Cost</li>
<li>Heating the barrel using induction energy</li>
<li>Barriers</li>
<li>Barrel insulation (EMB)</li>
<li>Barriers</li>
<li>Infrared lamps (ISBM)</li>
<li>Barriers</li>
<li>Next steps</li>
<li>Work together</li>
<li>Install smart metering</li>
<li>Think strategically</li>
<li>Get support</li>
</ul>
<div><strong>PET BLOW MOULDING MACHINES</strong></div>
<ul>
<li>Detailed Description</li>
<li>First Preferred Embodiments of a two stage process</li>
<li>Side view of a prior art parison</li>
<li>Side view of a parison incorporating features usable with embodiments of the present method</li>
<li>Side view of a preform according to a further embodiment of the method</li>
<li>Side view of a container formed</li>
<li>Partial side sievational view of a blow moulded PET  container formed from a preform usable with one embodiment of the method</li>
<li>The steps of formation of a parison usable with another embodiment of the method</li>
<li>Side view of a die in open position for manufacture of a preform</li>
<li>The die of in closed position</li>
<li>Top view of two stage injection, blow mould machine adapted to receive preforma and biaxially orient them into blow containers according to embodiments of the method</li>
<li>Side section view of a lifting lowering and rotating mechanism for handle covers for use</li>
<li>Side view of the die</li>
<li>Alternative side section view of the mechanism</li>
<li>First and second side section views of a preform adapted for loading into the  machine</li>
<li>Side section, close up view of the machine of Fig 6.9 showing a preform with handle cover lowered over the handle portion thereof</li>
<li>Perspective view of the preform of Fig 6.13</li>
<li>Perspective view of a container blow</li>
<li>Top view of the mould</li>
<li>Bottom view of Fig 6.17 with both half moulds in opposed retationship</li>
<li>Further bottom view showing the preform in the position</li>
<li>Plan view of a half mould adapted for blowing preforms on the machine</li>
<li>Section view through the half mould</li>
<li>Side view of the container blown in the mould from</li>
<li>Side view of a preform incorporating an enlarged first  nonexpanding region usable with embodiments of method</li>
<li>Detail side section view of the neck and top handle portion of the  container</li>
<li>Section view through the mould</li>
<li>An alternative side view of preform of Fig 6.24</li>
<li>Side view  of a container blown</li>
<li>Side view of yet a further alternative embodiment of a preform incorporating a lengthened or enlarged first  non expanding zone and adapted for blowing on the machine</li>
<li>Perspective view of the preform of Fig 6.24</li>
<li>Side view of a container blown from the preform of Fig 6.29 on the machine of Fig 6.9</li>
<li>Perspective view of the container</li>
<li>Side section view of a container blown in the mould</li>
<li>Plan view of a half mould for blowing the preform</li>
<li>Plan view of the half mould</li>
<li>Detail side section view of the neck and top handle portion of the container</li>
<li>First perspective view of a container usable with embodiments of the method  particularly adapted to resist high internal pressures</li>
<li>First side view of the container</li>
<li>Second side view of the container</li>
<li>second perspective view of the container</li>
<li>Plan view of container</li>
<li>Perspective view of the preform</li>
<li>Side view of a preform from which the container can be blown</li>
<li>Perspective view of a container with strap connected handle according to an embodiment of the method</li>
<li>Side view of a preform from which the container</li>
<li>Side section view of the resulting container blown from the preform of Fig 6.44</li>
<li>Side section view of a preform having a multiple integral connection handle according to an embodiment of the method</li>
<li>Side section view of an alternative embodiment of a container having a multiple integral connection handle</li>
<li>Side section view of a preform having a multiple integral connection handle according to a further embodiment of the method</li>
<li>Perspective view of the preform of Fig 6.48</li>
<li>Side section view of a preform having a multiple integral connection handle according to a further embodiment of the method</li>
<li>Perspective view of a container blow of a container blown from the preform</li>
<li>Top view of the container of Fig 6.50</li>
<li>Side view of a preform utilised as stock in a stretch blow moulding machine according to an  embodiment of the method</li>
<li>Bottom view of the container of fig 6.50</li>
<li>Side view of a container produced from the stretch blow moulding machine according to a first embodiment of the method</li>
<li>Plan view of a stretch blow moulding machine  according to a first embodiment of the method</li>
<li>Side view of the assembly of Fig 6.56 passing through a heating phase on machine</li>
<li>Side view of the preform of Fig 6.53 being loaded onto a transport mandrel having a nesting shield for transport through  the  machine of Fig 6.55</li>
<li>Side view of the assembly of Fig. 6.56 being aligned prior to entry into a die on machine of Fig 6.3</li>
<li>Side view of the assembly of Fig 6.56 in an initial position within a die on the machine</li>
<li>Perspective view of the shield of the assembly of Fig 6.56</li>
<li>Perspective view of a 16 cavity preform mould suitable for injection moulding preforms in a first stage of a modified two stage process</li>
<li>Side view of the assembly of Fig. 6.56 in a blow moulding position within the die of Fig 6.59</li>
<li>Perspective view of a preform produced by the mould</li>
<li>End view of the mould of fig 6.62 in substantially open position</li>
<li>Side view, partially cut away of the mould of Fig 6.62</li>
<li>End view of the mould of Fig 6.62 in substantially closed position</li>
<li>Partially cut away view of the mould of Fig 6.62</li>
<li>Partially cut away view of the mould of Fig  6.62 in substantially open condition</li>
<li>Schematic plan view of a stretch blow moulding machine of a two stage process</li>
<li>Detail of injector nozzles of the preform unit of Fig 6.62</li>
<li>An end view of the mould of Fig 6.62 showing a preform injection operation,</li>
<li>The injector nozzle arrangement of in a shut off condition</li>
<li>Perspective detail view of a preform handle orienting apparatus</li>
<li>Sectioned view of an oriented preform attached to a mandrel of the preheating stage transport system with the preform handle  located in a heat shield.</li>
<li>Perspective view of an indexing table for transferring oriented  preforms to the mandrels of preheating stage transport system</li>
<li>Enlarged sectioned side view of the preform and heat  shield arrangement</li>
<li>Preferred arrangement of a bank of heater elements arranged  for preheating a preform according to the present method</li>
<li>Orientation</li>
<li>Description</li>
<li>Detailed Description of Methods of Manufacture Incorporating Modified  Two stage stretch blow moulding Machines</li>
<li>Container Resistant to Internal Pressures</li>
<li>Tag Connected Handle</li>
<li>Second Preferred Embodiments of Modified two stage process</li>
<li>First Preferred Embodiment of a Second Stage of a Two Stage Process</li>
<li>Handle Orientation</li>
<li>Transfer to Transport System and heating Stage</li>
<li>Heating Stage</li>
<li>Rotation Through Heat Conditioning</li>
<li>Blow Moulding</li>
</ul>
<div><strong>ROTATIONAL BLOW MOULDING PROCESS </strong></div>
<ul>
<li>The four main stages of the rotational moulding process</li>
<li>The Rotational Moulding Process</li>
<li>Clamping of mould</li>
<li>Top of mould is attached and clamped</li>
<li>Operator begins charging mould</li>
<li>Securing clamp</li>
<li>Arm with mould &amp; Rotolog moving into oven</li>
<li>Powder  pouring into mould</li>
<li>Overview of Rotational Blow Moulding</li>
<li>Arm begins to rotate as oven doors close</li>
<li>Mould in demoulding bay being rotated into a convenient orientation to assist demoulding</li>
<li>Lid removal using a crane</li>
<li>Tank mould in cooler</li>
<li>Removal of mould in insert holder</li>
<li>Final part removal from mould</li>
<li>Moulding ready for finishing operations</li>
<li>PVC protector for sports helmet</li>
<li>Polyurethane rotomoulded head</li>
<li>Special Nature of Rotational Blow Moulding</li>
<li>Stages during oven heating</li>
<li>Advantages of Rotational Blow moulding</li>
<li>Rotomoulded parts with &amp; without bubbles</li>
<li>Decorative lamp shades</li>
<li>Disadvantages of Rotational Blow Moulding</li>
</ul>
<div><strong>MOULDS</strong></div>
<ul>
<li>Sheet metal mould for a vertical tank</li>
<li>Mould Materials</li>
<li>Sheet steel</li>
<li>Properties of common mould mateials</li>
<li>Cast aluminium mould</li>
<li>Aluminium</li>
<li>Electroformed Nickel</li>
<li>Electroplated nickel mould of mannequin head</li>
<li>Comparison Between Mould Materials</li>
<li>Mould Design</li>
<li>mould Frame</li>
<li>Moulded-in Inserts</li>
<li>Multiple moulds on frame</li>
<li>Moulded in Handles</li>
<li>Temporary inserts</li>
<li>Typical brass inserts</li>
<li>Moulded in handle</li>
<li>Movable Cores</li>
<li>Threads</li>
<li>Large mould with movable core to aid demoulding</li>
<li>Movable core detail</li>
<li>Mould Venting</li>
<li>Thread detail improved through mold in Graphic Systems@Surface Enhancer</li>
<li>Mould Surface Finish</li>
<li>Highly polished mould</li>
<li>Movable mould showing central vent</li>
<li>Mould Release</li>
<li>Mould Preparation for Release Agent</li>
<li>Reactive Systems</li>
<li>Disiloxanes</li>
<li>Conventional Systems</li>
<li>Permanent Systems</li>
<li>Black teflon coated mould</li>
<li>Hybrid Systems</li>
</ul>
<div><strong>ROTATIONAL BLOW MOULDING MACHINERY</strong></div>
<ul>
<li>Types of Rotational Blow Moulding Machines</li>
<li>Carousel Machines</li>
<li>Fixed arm turret machine</li>
<li>Independent arm carousel machine</li>
<li>Two station shuttle machine</li>
<li>Two station shuttle machine with cooler bay doors</li>
<li>Shuttle Machines</li>
<li>Clamshell Machines</li>
<li>Clamshell machine open</li>
<li>Clamshell machines in series</li>
<li>Clamshell mechine closed</li>
<li>Rock and Roll Machines</li>
<li>Other Types of Machines</li>
<li>Open flame rock and roll machine</li>
<li>Rocking oven machine</li>
<li>Rocking oven machines in series</li>
<li>Mould opened on direct electrical heating machine</li>
<li>Direct electrical heating machine</li>
<li>Slip rings</li>
<li>Leonardo automatic rotomoulding machine</li>
<li>Mould Swing</li>
<li>A typical drop arm</li>
<li>Typical straight arm</li>
<li>Mould swing diameters</li>
<li>Mould Speed</li>
<li>Speed Ratio</li>
<li>Recommended speed ratios for various mould shapes</li>
<li>Oven Air Flow Amplification</li>
<li>Example of a Venturi (air mover)</li>
<li>Cooling</li>
<li>The Venturi principle</li>
<li>Developments in Machine Control</li>
<li>Internal Air Temperature Measurement in Rotational Moulding</li>
<li>Typical temperature traces for a rotational moulding cycle</li>
<li>Bubble formation and removal in rotational moulding</li>
<li>The Rotolog process control system</li>
<li>Monitoring Pressure Inside a Mould</li>
<li>Pressure and temperature monitoring system on a rock and roll or rocking oven machine</li>
<li>Pressure  and temperature monitoring system using gas line on moulding machine</li>
<li>Measurement of temperature and pressure in  Rotating Mould</li>
</ul>
<div><strong>MATERIALS FOR ROTATIONAL BLOW MOULDING </strong></div>
<ul>
<li>Typical  Characteristics of Rotationally Moulded Plastics</li>
<li>Material Used in Rotational Moulding</li>
<li>Polyethylene</li>
<li>Typical usage of plastics in North American rotational moulding industry</li>
<li>Rotomouldability of plastics</li>
<li>Property changes with increasing melt index</li>
<li>Density ranges of polyethylene</li>
<li>Low Density Polyethylene (LDPE)</li>
<li>High Density Polyethylene (HDPE)</li>
<li>Typical chain branching in LDPE</li>
<li>Low levels of chain branching typical of HDPE and MDPE</li>
<li>Branching typical of LLDPE</li>
<li>Medium Density Polyethylene (MDPE)</li>
<li>Linear Low Density Polyethylene</li>
<li>Property changes with increasing polyethylene density</li>
<li>Metallocene Polyethylene</li>
<li>Ethylene Vinyl Acetate (EVA)</li>
<li>Ethylene Butyl Acrylate (EBA)</li>
<li>Polypropylene (PP)</li>
<li>Polyamides (Nylone)</li>
<li>EVA traffic bollard</li>
<li>Nylon 6</li>
<li>Nylon 11 and Nylon 12</li>
<li>Reaction Injection Moulding (RIM) Nylon</li>
<li>Amorphous Materials</li>
<li>Polyvinyl Chloride (PVC)</li>
<li>Fluoropolymers</li>
<li>Nylon roto lined pipe</li>
<li>Other Plastics</li>
<li>Additives Used in Rotational Moulding Materials</li>
<li>PVC exercise/fitness device</li>
<li>Rotomoulded polycarbonate part</li>
<li>Fillers</li>
<li>Plasticisers</li>
<li>Calcium carbonate filler</li>
<li>Lubricants</li>
<li>Stabilisers</li>
<li>Anti Oxidants</li>
<li>Ultraviolet Stabilisers</li>
<li>Flame Retardants</li>
<li>Crosslinking Agents</li>
<li>Foaming Agents</li>
<li>Polyurethane foam filled trolley</li>
<li>Drop box on mould</li>
<li>Pigments</li>
<li>Drop box on mould, open showing valve position</li>
<li>Foam PE door panel</li>
<li>Powders for Rotational Moulding-Grinding or Pulverising</li>
<li>Powder pigments</li>
<li>Stages in the grinding of powders for rotational moulding</li>
<li>Hopper containing granules</li>
<li>Granule feed system</li>
<li>Typical grinding mill for polyethylene</li>
<li>Vertical mill grinding head</li>
<li>Typical vertical mill grinding plates for plastic powders</li>
<li>Typical horizontal grinding plates for rotational moulding powders</li>
<li>Horizontal grinding head</li>
<li>Side view of cutting plates with different numbers of teeth</li>
<li>Grinding plate</li>
<li>Particle Size Distribution</li>
<li>ASTM E-11 US sieve sizes</li>
<li>Typical sieve shaker used for rotational moulding powders</li>
<li>Typical particle size distributions for polyethylene used in rotational moulding</li>
<li>Dry Flow</li>
<li>Equipment required for dry flow and bulk density analysis</li>
<li>Bulk density</li>
<li>Factors Affecting Powder Quality</li>
<li>Dry flow and bulk density apparatus</li>
<li>Variation of dry flow rate with bulk density for rotomoulding powders</li>
<li>Gap Size</li>
<li>Number of Mill Teeth</li>
<li>Grinding Temperature</li>
<li>Effect of grinding temperature on bulk  density and dry flow rate</li>
<li>Effect of grinding temperature on particle shape</li>
<li>Micropelletising</li>
<li>Colouring of Plastics for  Rotational Moulding</li>
<li>Types of Pigments</li>
<li>Typical tumble/dry blender</li>
<li>Typical high speed blender</li>
<li>Blender barrel</li>
<li>Blender blades</li>
<li>Compounding line</li>
<li>Types of pigment</li>
</ul>
<div><strong>QUALITY CONTROL IN  ROTATIONAL BLOW MOULDING </strong></div>
<ul>
<li>Wall Thickness Distribution</li>
<li>Cross section showing greater thickness in  corner of rotomoulded part</li>
<li>Typical wall thickness ranges for  rotationally moulded plastics</li>
<li>Tank with shielding on lid</li>
<li>Shrinkage</li>
<li>Dial gauge and microscope attachment for determining shrinkage</li>
<li>Shrinkage Guidelines</li>
<li>Linear shrinkage values for rotationally moulded polymers</li>
<li>Control of Shrinkage</li>
<li>Effect of Release Point on  Shrinkage</li>
<li>Effect of release temperature on  shrinkage of rotationally moulded polyethylene with  different typies of pigment</li>
<li>Other Factors Affecting Shrinkage</li>
<li>Release Temperature</li>
<li>Natural PE</li>
<li>Warpage</li>
<li>Typical warpage values for  rotationally moulded plastics</li>
<li>Control of Warpage</li>
<li>Warpage as a function of cooling method and mould material</li>
<li>Warpage</li>
<li>Distance along moulding</li>
<li>Effect of internal cooling on the structure of a rotationally moulded plastic part</li>
</ul>
<div><strong>PLANT ECONOMICS OF BLOW MOULDED PLASTIC CONTAINERS</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF HDPE, PVC and CPVC PIPES AND FITTINGS</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF INJECTION AND BLOW MOULDED PLASTIC PRODUCTS </strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF INJECTION MOULDED PLASTIC AUTOPARTS</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF INJECTION MOULDING OF CHAIRS</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF INJECTION MOULDING UNIT </strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF PET BOTTLES RECYCLING PLANT </strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF PET INJECTION MOULDING USED MAINLY FOR MINERAL WATER PACKING (PET PREFORM)</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF PET PREFORM AND PET JARS</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF PLASTIC WATER STORAGE TANKS</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<div><strong>PLANT ECONOMICS OF UPVC WINDOWS FROM UPVC PROFILES</strong></div>
<ul>
<li>Plant  and Machinery</li>
<li>Fixed Capital</li>
<li>Raw Materials</li>
<li>Total Working Capital/Month</li>
<li>Total Capital Investment</li>
<li>Turn Over/Annum</li>
</ul>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/modern-technology-injection-moulding-blow-moulding-plastic-extrusion-pet-plastics/">COMPLETE HAND BOOK OF BLOW MOULDING PLASTICS TECHNOLOGY WITH PROJECT PROFILES (Extrusion Blow Moulding, Stretch Blow Moulding, Injection Blow Moulding, Plastic Bottles Blow Moulding, PET Blow Moulding and Rotational Blow Moulding)</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>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>
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		<item>
		<title>IDENTIFICATION OF PLASTICS AND OTHER PLASTIC PROCESS INDUSTRIES (Polystyrene, Nylon, Thermoplastic Elastomer, Alkyd Resin, Polypropylene Plastics, Melamine Formaldehyde Resins, ABS, Plastic Blends, Polyvinylidene Chloride Plastics, Polymer, Pipes)</title>
		<link>https://projectreports.eiriindia.org/product/identification-plastics-plastic-process-industries-polystyrene-nylon-thermoplastic-elastomer-alkyd-resin-polypropylene-plastics-melamine-formaldehyde-resins-abs-plastic-blends-po/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 12 Sep 2014 12:13:48 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=2582</guid>

					<description><![CDATA[<p>IDENTIFICATION OF PLASTICS AND OTHER PLASTIC PROCESS INDUSTRIES (Polystyrene, Nylon, Thermoplastic Elastomer, Alkyd Resin, Polypropylene Plastics, Melamine Formaldehyde Resins, ABS, Plastic Blends, Polyvinylidene Chloride Plastics, Polymer, Pipes) IDENTIFICATION OF PLASTIC MATERIALS Thermoplastics ABS Acetal Acrylic Cellulose Acetate Cellulose Acetate Butyrate Cellulose Propionate fluorocarbons (FEP,CTFE, PTFE, PVF) Nylons Polycarbonate Polyethylene Polyphenylene Oxide (PPO) Polypropylene Polystyrene Polysulfone Polyurethane (Thermoplastic) PVC Thermoplastic Polyester Thremosetting Plastics Dialiyl Pthalate (DAP) Epoxy Metamine Formaldehyde Phenol Formaldehyde Polyesters Silicones Urea Formaldehyde POLYSTYRENE MANUFACTURING Bulk polymerization Solution polymerization Suspension polymerization Emulsion polymerization Properties Copolymer of Styrene Styrene Acrylonitrile&#8230;</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/identification-plastics-plastic-process-industries-polystyrene-nylon-thermoplastic-elastomer-alkyd-resin-polypropylene-plastics-melamine-formaldehyde-resins-abs-plastic-blends-po/">IDENTIFICATION OF PLASTICS AND OTHER PLASTIC PROCESS INDUSTRIES (Polystyrene, Nylon, Thermoplastic Elastomer, Alkyd Resin, Polypropylene Plastics, Melamine Formaldehyde Resins, ABS, Plastic Blends, Polyvinylidene Chloride Plastics, Polymer, Pipes)</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 AND OTHER PLASTIC PROCESS INDUSTRIES<br />
(Polystyrene, Nylon, Thermoplastic Elastomer, Alkyd Resin, Polypropylene Plastics,<br />
Melamine Formaldehyde Resins, ABS, Plastic Blends, Polyvinylidene Chloride Plastics,<br />
Polymer, Pipes)</p>
<p>IDENTIFICATION OF PLASTIC MATERIALS</p>
<p>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 />
Polyethylene<br />
Polyphenylene Oxide (PPO)<br />
Polypropylene<br />
Polystyrene<br />
Polysulfone<br />
Polyurethane (Thermoplastic)<br />
PVC<br />
Thermoplastic Polyester<br />
Thremosetting Plastics<br />
Dialiyl Pthalate (DAP)<br />
Epoxy<br />
Metamine Formaldehyde<br />
Phenol Formaldehyde<br />
Polyesters<br />
Silicones<br />
Urea Formaldehyde</p>
<p>POLYSTYRENE MANUFACTURING</p>
<p>Bulk polymerization<br />
Solution polymerization<br />
Suspension polymerization<br />
Emulsion polymerization<br />
Properties<br />
Copolymer of Styrene<br />
Styrene Acrylonitrile Copolymer (SAN)<br />
Acrylonitrile butadiene styrene-copolymer (ABS copolymers)<br />
Blending<br />
Grafting<br />
Properties<br />
Uses</p>
<p>NYLON 6,6 TECHNOLOGY</p>
<p>Preparation of the Intermediates<br />
Manufacture of Adipic Acid<br />
Manufacture of Hexamethylene Diamine<br />
From Butadiene<br />
Industrial Manufacture of Nylon 6,6<br />
Manufacturing Process<br />
procedure<br />
Fiber Properties<br />
Nylon 6,10<br />
Nylon 11<br />
Nylon 7 Poly (wenanthamide)<br />
Nylon 9; Poly (w-perlargon amide)<br />
Nylonl2<br />
Properties and applications</p>
<p>POLYESTER BASED THERMOPLASTIC ELASTOMER</p>
<p>Beginning<br />
Types<br />
Polyester Thermoplastic Elastomers<br />
Chemistry of Preparation<br />
Microphase Structure<br />
Properties<br />
Manufacturing Processing<br />
Morphological behavior of copolyester TPE<br />
Schematic representation of micro domains forming crystalline and amorphous zones in PBT/PTMO polymer<br />
TEM images of PBT 45-1000(A), PBT35-1000(B), PBT40-1380(C), PBT 30-1380 (D) and PBT 20-1380 (E and F, PBTc C crystalline PBT) stained with Ru 04 vapour<br />
Applications</p>
<p>ALKYD RESINS (POLYESTERS)</p>
<p>Properties of polymerizing polyesters<br />
Typical end-users</p>
<p>POLYPROPYLENE PLASTICS</p>
<p>Introduction<br />
Polyproplene resins:the Unique all purpose family<br />
Self reinforced polypropylene (SRPP) composites<br />
Polypropylene resins compete with engineering plastics and steel<br />
Polypropylene  competes with polyamide<br />
Polypropylene competes with metal<br />
Clear polypropylene compete with inherently transparent polymers<br />
Natural fibre reinforced polypropylene<br />
Lower densities leading to noticeable weight savings<br />
Cheap natural fibres and cheap matrix for appealing cheap composites<br />
Conclusion</p>
<p>MELAMINE FORMALDEHYDE RESINS</p>
<p>Processing of  melamines<br />
Typical end-uses<br />
Moulding Applications<br />
Alpha-cellulose filled melamine formaldehyde<br />
Wood-flour filled melamine formaldehyde<br />
Cotton fabric filled melamines<br />
Asbestos filled melamines<br />
Adhesives<br />
Lamination<br />
Textile Applications<br />
Other characteristics<br />
Typical end-uses</p>
<p>PLASTICS USED IN AUTOMOBILES</p>
<p>Vehicle Systems and Plastics<br />
Interior Systems<br />
Exterior Systems<br />
Under the Bonnet Systems<br />
Other Systems<br />
Newer Applications<br />
Technological Convergence<br />
Technological Upgradation<br />
Haptics<br />
BSR<br />
Fit &amp; Finish<br />
Grain &amp; Texture<br />
Decorative Finishes<br />
Integration through Modules &amp; Systems<br />
Cockpit Module<br />
Door Module<br />
Alternate Materials<br />
Polymer Nanocomposites<br />
Fibre Composites<br />
LGF<br />
Thermochromic Material<br />
Alternate processes<br />
IP Technologies<br />
Fabric Backed Trims<br />
MuCell Process<br />
MFT<br />
Blow Moulding<br />
Role of Adhesives<br />
Interior Systems<br />
Exterior Systems<br />
Body Panels<br />
Under the Bonnet<br />
Other Systems<br />
Soft Trims<br />
Exterior lighting<br />
Automotive Glazing<br />
Sensors</p>
<p>ABS: ACRYLONITRILE BUTADIENE STYRENE COPOLYMERS</p>
<p>Typical Applications<br />
Processing<br />
Typical end uses</p>
<p>POLYTETRAFLUOROETHYLENE</p>
<p>Manufacture of Polytetrafluoroethylene<br />
Uses</p>
<p>PLASTICS BLEND AND ALLOYS</p>
<p>Beginning<br />
Scenerio<br />
Structure<br />
What goes with What<br />
The Technology<br />
PC/ABS blends<br />
Applications<br />
PC/ABS blends<br />
PC/PBT blends<br />
PA blends</p>
<p>POLYVINYLIDENE CHLORIDE PLASTICS</p>
<p>Outstanding properties<br />
Application<br />
Effect of density on properties<br />
Flame treatment<br />
Chemical treatment<br />
Electrostatic discharge treatment<br />
Linear Low Density, Polyethylene LLDPE<br />
Properties of LLDPE<br />
Improved Stiffness<br />
Excellent Puncture Resistance<br />
Lessor Hexane Extractables<br />
Insensitivity to Foreign Matter Inclusion<br />
Blow Moulding<br />
Usage</p>
<p>DEGRADATION OF POLYMER AND STABILISATION</p>
<p>Types of Degradation<br />
Thermal Degradation<br />
Oxidative Degradation<br />
Solvolytic Degradation Hydrolysis<br />
Other Types of Degradation<br />
Degradation by Radiation<br />
Mechanical Degradation<br />
Ultrasonic Degradation</p>
<p>SUPERABSORBENT POLYMERS</p>
<p>Inception<br />
Swelling RatioModulus of Elasticity<br />
Manufacture<br />
Processing of Polymers<br />
Gel Size Reduction<br />
Drying<br />
Grinding and Sieving<br />
Surface cross-linking<br />
Application<br />
disposable Infant Diapers<br />
Adult Incontinence<br />
Construction Materials<br />
Food Packaging</p>
<p>CHEMICAL RECYCLING</p>
<p>Cryogenic Recycling of Bottles<br />
Recycling of Synthetic Carpet Waste<br />
Low-cost Recycle Sorting<br />
Plastics into fuel oil<br />
Recycled Engineering Elastomers</p>
<p>PP-R PIPES &amp; FITTINGS FOR HOT AND COLD WATER SYSTEM</p>
<p>Introduction<br />
appliance<br />
Basic Advantage</p>
<p>THERMOPLASTIC RUBBER COMPOUND</p>
<p>Inception<br />
Equipments used for compounding<br />
Mixing is of two types<br />
Raw materials and Sources<br />
Manufacturing process with formulation<br />
Some typical formulations of TPR compound<br />
Characteristics of TPR compound</p>
<p>THERMOSETTING PLASTICS</p>
<p>Introduction<br />
Kinds of Thermoset Plastics<br />
Phenolic Resins<br />
Phenols<br />
Resols &amp; novolaks<br />
Resol<br />
Novolaks<br />
Acid &amp; Base Catalysts<br />
Basic Conditions<br />
Functionality<br />
Properties<br />
Solubility<br />
Manufacturing of Phenolic Resins<br />
Process (Novolak)<br />
Application of Phenolic Resins<br />
Brakelinings<br />
Grinding Wheels<br />
Grinding Wheels (Abrasives)<br />
Sand core bonding (Foundry)<br />
Shellmoulds for metal castings<br />
Wood waste boards<br />
Impregnation<br />
Adhesives (Plywood Glues)<br />
Surface Coatings<br />
Oil Varnishes<br />
Lamp capping cement<br />
Rubber Based Adhesives<br />
Rubber Compounds<br />
Tackifier<br />
Aminoresins<br />
Chemistry of Urea &amp; Formaldehyde Formaldehyde<br />
Methylol Urea<br />
Dimethylol Urea<br />
U.F. Resin<br />
Melamine Formaldehyde Resin<br />
Applications Moulding Materials<br />
Process<br />
Fillers<br />
Curing Catalysts<br />
Lubricants<br />
Colourants<br />
Manufacturing Process<br />
Applications of Aminoplastic Mouldings<br />
Other Industrial Applications<br />
Laminates<br />
Aminoresins for Laminating<br />
The laminating Process<br />
Decorative laminates<br />
Industrial laminates<br />
Adhesives<br />
Manufacture<br />
Hardners<br />
Extenders<br />
Melamine resin adhesives<br />
Applications<br />
Plywood manufacture<br />
Particle Board &amp; Fibre Boards<br />
Binders for sand cores<br />
Textile Finishing Process<br />
Use of Wet Strength Paper<br />
Coating Applications<br />
The preparation of Butylated Amino resins</p>
<p>VINYL USED IN PIPES</p>
<p>Vinyl in pipe applications<br />
This is the house that vinyl built<br />
Versatility<br />
Value<br />
Durability<br />
Solid Environmental Performance<br />
Vinyl in medical applications<br />
Clarity and transparency<br />
Flexibility, durability and dependability<br />
Sterlizability<br />
Compatibility<br />
Resistance to chemical stress cracking<br />
Ease of processing<br />
Recyclability<br />
Low cost</p>
<p>WOOD PLASTIC COMPOSITE (WPC)</p>
<p>Synopsis<br />
Wood-Thermoplastic composite -A New class of material<br />
Technology status of WPCs<br />
Manufacture &amp; processing Constituents of Wood Composites<br />
Resin<br />
Wood as filler<br />
Wood Flour<br />
Application benefits<br />
Additive<br />
Properties of thermoplastic composites<br />
Applications &amp; Market<br />
Current Scenario<br />
Wood Filled PP Products<br />
Wood filled PP for Door Trims<br />
Conclusion</p>
<p>ACRYLIC BATH TUB AND SHOWER TRAY</p>
<p>Introduction<br />
History of bathtubs and bathing<br />
Claw foot tub<br />
Claw foot tubs come in 5 major styles<br />
Baby bathtub<br />
Whirlpool tubs<br />
Plant Economics of Acrylic Bath Tub and Shower Tray<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>ARTIFICIAL MARBLE (SYNTHETIC)</p>
<p>Introduction<br />
Plant Economics of Artificial Marble (Synthetic<br />
Plant &amp; Machinery<br />
List of Manufacturing Equipment<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>BIODEGRADABLE/COMPOSTABLE PLASTICS</p>
<p>Biodegradation<br />
Materials<br />
Effect of biodegradable plastics<br />
Plant Economics of Biodegradable/Compostable Plastics<br />
Plant &amp; Machinery<br />
Fixed capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn over/annum</p>
<p>DISPOSABLE SYRINGES AND NEEDLE PLANT (SINGLE USE SYRINGES, SINGLE USE NEEDLES &amp; AS SYRINGES)</p>
<p>Rated Plant Capacity<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>HDPE, PVC, LLDPE Pipes/Tubes and Fittings</p>
<p>PVC Pipe Uses<br />
Plant Economics of HDPE, PVC, LLDPE Pipes/Tubes and Fittings<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>NON-WOVEN INDUSTRY (CARRY BAGS, SURGICAL GOWN, FACE MASK, ROUND CAPS, SHOE COVER, GLOVES)</p>
<p>Introduction<br />
Printed Nonwoven Punch bag<br />
Nonwoven Tote Bag W/Zipper<br />
Foldable Nonwoven Tote Bag<br />
Specifications<br />
Nonwoven Shopping Bag<br />
Features of the Non Woven Shopping Bag<br />
Specifications<br />
Products Applications<br />
Uses and Applications<br />
Nonwoven fabric raw material<br />
Shopping bag made of nonwoven fabric<br />
Surgical gown<br />
Stretchable and permeable non-woven protective gloves<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>PET PREFORM AND PET JARS (20 LTRS CAPACITY)</p>
<p>Plant Economics of Pet Preform and Pet Jars (Cap 20 Ltrs)<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>PLASTIC MOULDED CHAIRS (P.P)</p>
<p>Plant Economics of Plastic Moulded Chairs (P.P.)<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>PLASTIC WASTE RECYCLEING UNIT</p>
<p>Introduction<br />
Plant Economics of Plastic Waste Recycling Unit<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>PLASTIC WATER STORAGE TANKS</p>
<p>Plant Economics of Plastic Water Storage Tanks<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>PLASTICIZERS</p>
<p>Introduction<br />
For Plastics<br />
Ester plasticizers<br />
For concrete<br />
For gypsum wallboard production<br />
Plasticizers for energetic materials<br />
Plasticizer Markets<br />
Plant Economics of Plasticizers<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>PYROLYSIS PLANT FROM PLASTIC AND RUBBER</p>
<p>Plant Economics of Pyrolysis Plant from Plastic &amp; Rubber<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>RIGID PVC FILM MANUFACTURE FOR PHARMACEUTICALS BLISTER PACKAGING</p>
<p>Plant Econnomics of Rigid PVC film Manufacture for Pharmaceuticals Blister Packaging<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>uPVC DOORS AND WINDOWS PROFILE</p>
<p>Plant Economics of UPVC doors and windows profiles<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>WOOD PLASTIC COMPOSITE BOARD LINE</p>
<p>Introduction<br />
Plant Economics of Wood Plastic Composite Board Line<br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Month<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/identification-plastics-plastic-process-industries-polystyrene-nylon-thermoplastic-elastomer-alkyd-resin-polypropylene-plastics-melamine-formaldehyde-resins-abs-plastic-blends-po/">IDENTIFICATION OF PLASTICS AND OTHER PLASTIC PROCESS INDUSTRIES (Polystyrene, Nylon, Thermoplastic Elastomer, Alkyd Resin, Polypropylene Plastics, Melamine Formaldehyde Resins, ABS, Plastic Blends, Polyvinylidene Chloride Plastics, Polymer, Pipes)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>41 Plastic Extrusion and Extruder Based Industries (41 Project Reports)</title>
		<link>https://projectreports.eiriindia.org/product/41-plastic-extrusion-extruder-based-industries-41-project-reports/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 21 Mar 2014 10:19:47 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1502</guid>

					<description><![CDATA[<p>1.      B.O.P.P. FILM<br />
2.      COLOUR MASTER BATCHES FOR VARIOUS PLASTICS<br />
3.      DOUGH MOULDING COMPOUND (DMC), BULK MOULDING COMPOUND (BMC), SHEET MOULDING COMPOUND (SMC)<br />
4.      EXPANDED CELLULAR POLYETHYLENE SHEET<br />
5.      H.D.P.E/P.P. BOX STRAPINGS<br />
6.      HDPE/PP WOVEN SACKS (BAGS)<br />
7.      HDPE FISHING NET<br />
8.      H.D.P.E. AND FITTING PIPES<br />
9.    HDPE PIPES AND PIPE FITTINGS<br />
10.      INJECTION &#38; BLOW MOULDED PLASTIC PRODUCTS<br />
11.      LAMINATION OF CO-EXTRUSION MULTI LAYER FILM IN ROLL FORM<br />
12.      MULTI LAYER CO-EXTRUSION, 3 LAYER - FILM WITH LAMINATION &#38; PRINTING<br />
13.      NYLON GRANULES FROM NYLON WASTE<br />
14.      NYLON NET FOR GIVING SHADE TO TEA PLANT IN NURSERY<br />
15.      PET GRANULES (DANA)<br />
16.      PLASTIC INJECTION MOULDING PRODUCTS.......</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/41-plastic-extrusion-extruder-based-industries-41-project-reports/">41 Plastic Extrusion and Extruder Based Industries (41 Project Reports)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>41 PLASTIC EXTRUSION AND EXTRUDER BASED INDUSTRIES CD<br />
(41 PROJECT REPORTS IN CD)</p>
<p>CONTENTS</p>
<p>1.      B.O.P.P. FILM<br />
2.      COLOUR MASTER BATCHES FOR VARIOUS PLASTICS<br />
3.      DOUGH MOULDING COMPOUND (DMC), BULK MOULDING COMPOUND (BMC), SHEET MOULDING COMPOUND (SMC)<br />
4.      EXPANDED CELLULAR POLYETHYLENE SHEET<br />
5.      H.D.P.E/P.P. BOX STRAPINGS<br />
6.      HDPE/PP WOVEN SACKS (BAGS)<br />
7.      HDPE FISHING NET<br />
8.      H.D.P.E. AND FITTING PIPES<br />
9.    HDPE PIPES AND PIPE FITTINGS<br />
10.      INJECTION &amp; BLOW MOULDED PLASTIC PRODUCTS<br />
11.      LAMINATION OF CO-EXTRUSION MULTI LAYER FILM IN ROLL FORM<br />
12.      MULTI LAYER CO-EXTRUSION, 3 LAYER &#8211; FILM WITH LAMINATION &amp; PRINTING<br />
13.      NYLON GRANULES FROM NYLON WASTE<br />
14.      NYLON NET FOR GIVING SHADE TO TEA PLANT IN NURSERY<br />
15.      PET GRANULES (DANA)<br />
16.      PLASTIC INJECTION MOULDING PRODUCTS<br />
17.      PLASTIC MAT<br />
18.      PLASTIC MOULDED FURNITURE<br />
19.      P.V.C. PIPES AND FITTINGS<br />
20.      PLASTIC FILMS AND SHEETS WITH PRINTING (FLEXO AND ROTO) LDPE/HDPE/PP/HM/PVC<br />
21.      PLASTIC GRANULES FROM FRESH RESIN<br />
22.      PLASTIC ROPE<br />
23.      PLASTIC CORRUGATED SHEET &amp; BOXES<br />
24.      PLASTIC TOOTH PICK<br />
25.      POLY-VINYL FLOORING<br />
26.      PLASTIC TARPAULIN<br />
27.      POLYTHENE BAGS<br />
28.      PLASTTIC SUTLI OR POLYPROPYLENE SUTLI<br />
29.      PVC EXTRUSION PROFILES (WIRING CHANNELS)<br />
30.      POLY CARBONATE SHEET<br />
31.      PVC/PLASTICS (SOFT/RIGID) FILMS/SHEET<br />
32.      POLYSTER FILM<br />
33.      P.V.C. FLEXIBLE PIPES<br />
34.      PVC NON-WOVEN MAT<br />
35.      P.V.C. CONDUIT PIPES<br />
36.      POLYESTER ZIP FASTENERS<br />
37.      POLYPROPYLENE &amp; MULTIFILAMENT SPINNING YARN<br />
38.      PLASTIC DOORS AND WINDOWS<br />
39.      TEFLON &#8211; COATED &#8211; ELECTRIC CABLES<br />
40.    uPVC DOORS &amp; WINDOWS PROFILES<br />
41.     X-RAY FILM</p>
<p>&nbsp;</p>
<p>Each of the 41 <strong>DETAILED FEASIBILITY REPORT </strong> covers</p>
<ul>
<li>Introduction,</li>
<li>Uses and Applications,</li>
<li>Properties,</li>
<li>Market Position,</li>
<li>Present  Manufacturers,</li>
<li>B.I.S. Specifications,</li>
<li>Manufacturing Process,</li>
<li>Cost Economics with Profitability Analysis,</li>
<li>Capacity,</li>
<li>Land &amp; Building Requirements with Rates,</li>
<li>List &amp; Details of Plant and Machinery with their Costs,</li>
<li>Raw Materials, Details/List and Costs,</li>
<li>Power &amp; Water Requirements,</li>
<li>Labour/Staff Requirements,</li>
<li>Utilities and Overheads,</li>
<li>Total Capital Investment,</li>
<li>Turnover,</li>
<li>Cost of Production,</li>
<li>Break Even Point,</li>
<li>Profitability,</li>
<li>Land Man Ratio,</li>
<li>Suppliers of Plant &amp; Machineries and Raw Materials</li>
</ul>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/41-plastic-extrusion-extruder-based-industries-41-project-reports/">41 Plastic Extrusion and Extruder Based Industries (41 Project Reports)</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>MODERN TECHNOLOGY OF EXTRUSION AND EXTRUDED PRODUCTS</title>
		<link>https://projectreports.eiriindia.org/product/modern-technology-extrusion-extruded-products/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Wed, 19 Feb 2014 13:35:00 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1279</guid>

					<description><![CDATA[<p>The book Modern Technology of Extrusion &#38; Extruded Products covers Introduction of Extrusion Processes, Extrusion, Type of Dies for Film Extrusion, Extrusion of Plastic Films, Blown Film Extrusion Trouble Shooter’s Guide, Extrusion Instabilities of Variabilities,  Blown Film Extrusion, Plants for Multilayer Films, Lamination, High Speed Production of Thin CPP Films, Linear low density Polyethylene Mulch Film, Extruder Operation,  Details of Processing Equipments, Post Extrusion Process, Vacuum Metallizing, Co-extruded Film Manufacturing, Production of Breathable Films and Laminates, Manufacture of Extruded Thermoplastic Foam, Plastic Pipes for Water Supply, New Opportunities with PP for Window Profiles, Corrugator Multilayer Pipe Technology, Option for Cable Conduit Systems.</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/modern-technology-extrusion-extruded-products/">MODERN TECHNOLOGY OF EXTRUSION AND EXTRUDED PRODUCTS</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<table border="1" cellspacing="1" cellpadding="1">
<tbody>
<tr>
<td>
<ul>
<li>Introduction of Extrusion Processes</li>
<li>Extrusion</li>
<li>Single-screw Extruder</li>
<li></li>
<li>Introduction</li>
<li>Processing</li>
<li>Material of construction</li>
<li>Components of extruder are described below :</li>
<li>Screw Zones</li>
<li>Important terms associated with the screw design</li>
<li>Heating &amp; Cooling Systems</li>
<li>Beaker Plate &amp; Screens</li>
<li>Downstream Equipements:</li>
<li>Different types of Film processing techniques</li>
<li>Stretch-Extrusion Process</li>
<li>Popular applications of BOPP Film</li>
<li>Popular applications of HDPE woven Sacks &amp; Cloth</li>
<li>Blown Film Extrusion</li>
<li>Extrusion instabilities of Variabilities</li>
<li>Plastic Handling</li>
<li>Multiple Screw Extruders</li>
<li>Single Screw Extruders</li>
<li>Mixing and Melting</li>
<li>Venting</li>
<li>Screen Packs</li>
<li>Energy Consumption</li>
<li>Gear Pumps</li>
<li>Dies</li>
<li>Basics of Flow</li>
<li>Special Dies</li>
<li>Materials of Construction</li>
<li>Maintenance</li>
<li>Coextrusion</li>
<li>Tie-Layers</li>
<li>Orientation</li>
<li>Processing Lines</li>
<li>Blown Film</li>
<li>Flat Film</li>
<li>Sheet</li>
<li>Pipe</li>
<li>Coating</li>
<li>Wire Coating</li>
<li>Coating Wood Profiles</li>
<li>Coating Films/Foils</li>
<li>Controls</li>
<li>Downstream Controls</li>
<li>Blown Film Extrusion</li>
<li>A Cool Mix of Water and Air</li>
<li>Cooling Ring Design</li>
<li>Inner Cooling</li>
<li>Water Instead of Air</li>
<li>Stability and Cooling</li>
<li>Output and Quality Improvement</li>
<li>Plants for Multilayer</li>
<li>Films</li>
<li>Lamination</li>
<li>Adhesive Lamination</li>
<li>Thermal or Heat or Fusion</li>
<li>Lamination</li>
<li>Hot Melt Lamination</li>
<li>Extrusion Lamination</li>
<li>Dry Paint Transfer-</li>
<li>Lamination Process</li>
<li></li>
<li>High Speed Production of Thin CPP Film</li>
<li>Process Stability</li>
<li>Film Quality</li>
<li>Linear Low Density</li>
<li>Polyethylene Mulch</li>
<li>Film</li>
<li>Business with plasticulture</li>
<li>Agribusiness-India</li>
<li>Plasticulture</li>
<li>What is Plasticulture?</li>
<li>Extruder Operation</li>
<li>Trouble Shooting</li>
<li>Details of Processing Equipements</li>
<li>Post Extrusion Process</li>
<li>Painting</li>
<li>Pre-treatment</li>
<li>Application Methods</li>
<li>Automated-finishing</li>
<li>Printing</li>
<li>Selection Factors</li>
<li>Post-Moulded Processes</li>
<li>Vacuum Metalizing</li>
<li>Equipement and Processing     for Batch System</li>
<li>Applications</li>
<li>Semi-continuous Processing</li>
<li>Semi-continuous Operating</li>
<li>Cycle</li>
<li>Applications</li>
<li>Important Laminates &amp; The Applications</li>
<li>Co-extruded Film Manufacturin</li>
</ul>
</td>
<td>
<ul>
<li>Material of Construction</li>
<li>Barrier Materials</li>
<li>Designing Barrier Structures</li>
<li>Applications of Co-Extruded Films</li>
<li>Conclusions</li>
<li>Abbreviations used in text</li>
<li></li>
<li>Production of  Breathable Films and Laminates</li>
<li>Introduction</li>
<li>Raw Materials</li>
<li>Material Drying/Material</li>
<li>Feeding</li>
<li>Extrusion</li>
<li>Feedblock/Die</li>
<li>Chill and Take-Off Unit</li>
<li>Thickness Measurement</li>
<li>Device and Web Inspection</li>
<li>Stretching Unit</li>
<li>Unwinder</li>
<li>Laminating Unit</li>
<li>Edge-Trin Cutting/Recycling</li>
<li>Winder</li>
<li>Manufacture of Extruded Thermoplastic Foam</li>
<li>High Density Foams</li>
<li>Low Density Foam</li>
<li>Extrusion : A Primary</li>
<li>Processing Technique for Polymers</li>
<li>Chemically Expanded Foams</li>
<li>Low Density Process</li>
<li>Long Barrel Screw Extrusion</li>
<li>Tandem Extrusion</li>
<li>Twin Screw Extrusion</li>
<li>Post Extrusion Equipment</li>
<li>Primary Raw Materials</li>
<li>Needed in Foam Production</li>
<li></li>
<li>Plastic Pipes for Water Supply</li>
<li>High Density Polyethylene (HDPE) Pipes</li>
<li>Water Supply</li>
<li>Special Properties of HDPE Pipes</li>
<li>Industrial Water Piping</li>
<li>Large Diameter HDPE Pipes</li>
<li>Electro Fusion Welding</li>
<li>Corrugated PE Pipes</li>
<li>PE Fittings</li>
<li>Surge Pressure Capability</li>
<li>PE Resins</li>
<li>New Opportunities    with PP for Window Profiles</li>
<li>Overview</li>
<li>General Properties of PP Grades and Properties</li>
<li>Processability</li>
<li>Properties of Windows</li>
<li>Conclusion</li>
<li>Corrugator Multilayer Pipe Technology</li>
<li>History of the Corrugated</li>
<li>Plastic Pipe and the</li>
<li>Application Fields</li>
<li>Transparency &#8220;Comparison</li>
<li>between smooth&#8230;&#8221;</li>
<li>Transparency &#8220;Difference in    outputs (corrugated pipe compared to smooth pipe)</li>
<li>Transparency &#8220;single wall die head&#8221;</li>
<li>Transparency &#8220;die head PVC</li>
<li>double wall pipe&#8221;</li>
<li>Transparency &#8220;die head PE    double wall pipe&#8221;</li>
<li>Transparency &#8220;disc die head&#8221;</li>
<li>Variety of Corrugator</li>
<li>Transparency &#8220;horizontal</li>
<li>Transparency</li>
<li>&#8220;Cooling system&#8221;</li>
<li>Transparent &#8220;vacuum</li>
<li>mould blocks&#8221;</li>
<li>Transparency &#8220;UNICOR&#8217;s advanced technology&#8221;</li>
<li>Multilayer Pipe Technology</li>
<li>Advantages like metal</li>
<li>Transparency of market</li>
<li>shares in different markets</li>
<li>Outlook for chinese market</li>
<li>Option for Cable</li>
<li>Conduit System</li>
<li>Is Satelite Technology</li>
<li>an Alternatives?</li>
<li>The Structure of Fibre Optic Cable</li>
<li>Underground Installation of Fibre Optic Cables in Cable Conduits</li>
<li>Requirements for Fibre</li>
<li>Fibre Optic Cable Conduits</li>
<li>Installation Techniques</li>
<li>Techniques for Inserting Cables into Cable Conduits</li>
<li>Conduit Types</li>
<li>Extrusion Lines for Cable Conduits</li>
<li>Extruders</li>
<li>Pipe Dies</li>
<li>Calibration</li>
<li>Cooling Section</li>
<li>Take-off devices</li>
<li>Machine Control</li>
<li>Example of a Suitale Pipe Extrusion Line Future Prospects</li>
</ul>
</td>
</tr>
</tbody>
</table>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/modern-technology-extrusion-extruded-products/">MODERN TECHNOLOGY OF EXTRUSION AND EXTRUDED PRODUCTS</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>Plastic Granules from Plastic Waste and Sutli Making Plant</title>
		<link>https://projectreports.eiriindia.org/product/plastic-granules-plastic-waste-sutli-making-plant/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Mon, 30 Dec 2013 12:58:34 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=631</guid>

					<description><![CDATA[<p>A  plastic  is  any  one of a  large  and  varied  group  of materials which consists of  an essential ingredient combinations of  carbon with oxygen, hydrogen, nitrogen and other organic  and inorganic  elements.  While solid in the finished state, at  some stage  in  its  manufacture it has been or  can  be  formed  into various shapes by flow-usually through the application singly  or together of heat and pressure.</p>
<p><strong>Project Report Covers:</strong></p>
<p>Introduction<br />
Uses and Applications<br />
Properties<br />
Market Survey with future aspects<br />
Present Manufacturers<br />
B.I.S. Specifications<br />
Manufacturing Process with Formulae<br />
Cost Economics with Profitability Analysis<br />
Capacity<br />
Land &#38; Building Requirements with Rates<br />
List &#38; Details of Plant and Machinery with their Costs<br />
Raw Materials<br />
Details/List and Costs<br />
Power &#38; Water Requirements<br />
Labour/Staff Requirements<br />
Utilities and Overheads<br />
Total Capital Investment<br />
Turnover<br />
Cost of Production<br />
Break Even Point<br />
Profitability<br />
Land Man Ratio<br />
Suppliers of Plant &#38; Machineries and Raw Materials.</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/plastic-granules-plastic-waste-sutli-making-plant/">Plastic Granules from Plastic Waste and Sutli Making Plant</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 post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/plastic-granules-plastic-waste-sutli-making-plant/">Plastic Granules from Plastic Waste and Sutli Making Plant</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<item>
		<title>hdpe, pvc and cpvc pipes and fittings</title>
		<link>https://projectreports.eiriindia.org/product/hdpe-pvc-cpvc-pipes-fittings/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Wed, 11 Dec 2013 08:04:23 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=310</guid>

					<description><![CDATA[<p>With  their  many advantages  over  conventional  materials, plastics have revolutionzed modern engineering, unlike steel  and copper,  plastic materials do not corrode, are much  lighter  and cost less.</p>
<p>This is particularly descriptive of  HDPE/LDPE  pipeline systems,  now used extensively in Europe. The USA and Japan  for conveying water, corrosive liquids, waste and effluents, per  form better at lower cost.</p>
<p>The resistance of Polyethylene  pipes  and  fittings  to various chemicals is shown in the following table.</p>
<p>Following  are  the bulk consumers of  HDPE/LDPE  pipes  and   fittings in India.</p>
<p>1.   Central public works departments.<br />
2.   State public works departments.<br />
3.   Housing Boards<br />
4.   Urban development authority like DDA,<br />
5.   M.E.S.<br />
6.   Municipal Boards<br />
7.   Water Works and district boards.<br />
8.   Department of atomic energy.<br />
9.   Various Jalnigam<br />
10.   Public Health departments<br />
11.   Process Industries<br />
12.   Power Houses etc.</p>
<p><strong>Project Report covers:</strong></p>
<ul>
<li>    Introduction</li>
<li>    Uses and Applications</li>
<li>    Properties</li>
<li>    Market Survey with future aspects</li>
<li>    Present Manufacturers</li>
<li>    B.I.S. Specifications</li>
<li>    Manufacturing Process with Formulae</li>
<li>    Cost Economics with Profitability Analysis</li>
<li>    Capacity</li>
<li>    Land &#38; Building Requirements with Rates</li>
<li>    List &#38; Details of Plant and Machinery with their Costs</li>
<li>    Raw Materials</li>
<li>    Details/List and Costs</li>
<li>    Power &#38; Water Requirements</li>
<li>    Labour/Staff Requirements</li>
<li>    Utilities and Overheads</li>
<li>    Total Capital Investment</li>
<li>    Turnover</li>
<li>    Cost of Production</li>
<li>    Break Even Point</li>
<li>    Profitability</li>
<li>    Land Man Ratio</li>
<li>    Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>&#160;</p>
<p>&#160;</p>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/hdpe-pvc-cpvc-pipes-fittings/">hdpe, pvc and cpvc pipes and fittings</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 post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/hdpe-pvc-cpvc-pipes-fittings/">hdpe, pvc and cpvc pipes and fittings</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>HDPE pipes and pipe fittings</title>
		<link>https://projectreports.eiriindia.org/product/hdpe-pipes-pipe-fittings/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Tue, 08 Oct 2013 17:02:45 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=92</guid>

					<description><![CDATA[<p>Provision of drinking water supply, or in other words `piped' Water supply to urban and rural population, constitutes an Important aspect of developmental programmes in many countries. Among several materials for pipes and fittings, plastics, though Of recent origin, have offered vast potentialities both Economical and technical, for exploitation by the engineers, Architects and builders of the plastic materials, polyethylene (low and high density) and unplasticized pvc (rigid pvc) have Been the prime contender, though to a fairly smaller extent, Polypropylene and abs have made their appearance in this field. A Whole range of sanitary fittings and fixtures viz, taps, showers, Gratings, basin and sink wastes, waste traps, float balls and Valves, syphons for flushing cystems, are also currently Available in the market, moulded in different suitable plastics. These hdpe pipes and fittings have a high degree of Corrosion resitance, are light in weight. Yet tough and durable, Have excellent, hydraulic properties, excellent thermal Properties, weatherability. As such law &#38; high density pipes Are various fields viz. Agriculture industry.</p>
<p><strong>Project Report covers:</strong></p>
<ul>
<li>Introduction</li>
<li>Uses and Applications</li>
<li>Properties</li>
<li>Market Survey with future aspects</li>
<li>Present Manufacturers</li>
<li>B.I.S. Specifications</li>
<li>Manufacturing Process with Formulae</li>
<li>Plant Layout</li>
<li>Cost Economics with Profitability Analysis</li>
<li>Capacity</li>
<li>Land &#38; Building Requirements with Rates</li>
<li>List &#38; Details of Plant and Machinery with their Costs</li>
<li>Raw Materials</li>
<li>Details/List and Costs</li>
<li>Power &#38; Water Requirements</li>
<li>Labour/Staff Requirements</li>
<li>Utilities and Overheads</li>
<li>Total Capital Investment</li>
<li>Turnover</li>
<li>Cost of Production</li>
<li>Break Even Point</li>
<li>Profitability</li>
<li>Land Man Ratio</li>
<li>Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
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]]></description>
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		<item>
		<title>PVC pipes and fitting</title>
		<link>https://projectreports.eiriindia.org/product/pvc-pipes-fitting/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Tue, 08 Oct 2013 16:53:32 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=90</guid>

					<description><![CDATA[<p>PVC pipe which is made from polymerized vinyl chloride, a Synthetic resin, which when plasticized or softened with other Chemicals has some rubber-like properties. Derived from acetylene And anhydrous hydrochloric acid. PVC pipe has nominal sizes that Are to be used with PVC socket fittings (schedule 40) and PVC Socket or threaded fittings (schedule 80). PVC pipe and fittings Have got tremendous demand in India as well as in abroad. To Manufacture this, all the machinery and raw materials are Available indigenously. A polyvinyl chloride (PVC) pipe is made From a plastic and vinyl combination material. The pipes are Durable, hard to damage, and long lasting. A PVC pipe does not Rust, rot, or wear over time. For that reason, PVC piping is Most commonly used in water systems, underground wiring, and Sewer lines. PVC was first developed in 1925 when a bf goodrich Employee, Dr. Waldo semon, attempted to invent a method for Bonding metal and rubber. After blending materials together to Create a strong and flexible material, semon discovered PVC. Nonetheless, the product remained virtually useless for Another decade. In the late 1930's, PVC was found to have Great shock absorbing abilities. This discovery led to the Creation of long lasting PVC tire treads, which were created with Flexible forms of PVC.</p>
<p><strong>Project Report covers:</strong></p>
<ul>
<li>Introduction</li>
<li>Uses and Applications</li>
<li>Properties</li>
<li>Market Survey with future aspects</li>
<li>Present Manufacturers</li>
<li>B.I.S. Specifications</li>
<li>Manufacturing Process with Formulae</li>
<li>Plant Layout</li>
<li>Cost Economics with Profitability Analysis</li>
<li>Capacity</li>
<li>Land &#38; Building Requirements with Rates</li>
<li>List &#38; Details of Plant and Machinery with their Costs</li>
<li>Raw Materials</li>
<li>Details/List and Costs</li>
<li>Power &#38; Water Requirements</li>
<li>Labour/Staff Requirements</li>
<li>Utilities and Overheads</li>
<li>Total Capital Investment</li>
<li>Turnover</li>
<li>Cost of Production</li>
<li>Break Even Point</li>
<li>Profitability</li>
<li>Land Man Ratio</li>
<li>Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/pvc-pipes-fitting/">PVC pipes and fitting</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 post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/pvc-pipes-fitting/">PVC pipes and fitting</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>HDPE pipes (1 inch to 24 inch OD)</title>
		<link>https://projectreports.eiriindia.org/product/hdpe-pipes-1-inch-24-inch-od/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Tue, 08 Oct 2013 13:19:28 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=72</guid>

					<description><![CDATA[<p>Provision of drinking water supply, or in other words `piped' Water supply to urban and rural population, constitutes an Important aspect of developmental programmes in many countries. Among several materials for pipes and fittings, plastics, though Of recent origin, have offered vast potentialities both Economical and technical, for exploitation by the engineers, Architects and builders of the plastic materials, polyethylene (low and high density) and unplastic. These hdpe pipes and Fittings have a high degree of corrosion resitance, are Light in weight. Yet tough and durable, have excellent, Hydraulic properties, excellent thermal properties, Weatherability. As such law &#38; high density pipes are various Fields viz. Agriculture industry. With their many advantages Over conventional materials, plastics have revolutionized Modern engineering, unlike steel and copper, plastic materials Do not corrode, are much lighter and cost less. This is Particularly descriptive of hdpe pipeline systems, now used Extensively in europe. The usa and japan for conveying water, Corosive liquids, waste and effluents, perform better at lower Cost.</p>
<p><strong>Project Report covers:</strong></p>
<ul>
<li>Introduction</li>
<li>Uses and Applications</li>
<li>Properties</li>
<li>Market Survey with future aspects</li>
<li>Present Manufacturers</li>
<li>B.I.S. Specifications</li>
<li>Manufacturing Process with Formulae</li>
<li>Plant Layout</li>
<li>Cost Economics with Profitability Analysis</li>
<li>Capacity</li>
<li>Land &#38; Building Requirements with Rates</li>
<li>List &#38; Details of Plant and Machinery with their Costs</li>
<li>Raw Materials</li>
<li>Details/List and Costs</li>
<li>Power &#38; Water Requirements</li>
<li>Labour/Staff Requirements</li>
<li>Utilities and Overheads</li>
<li>Total Capital Investment</li>
<li>Turnover</li>
<li>Cost of Production</li>
<li>Break Even Point</li>
<li>Profitability</li>
<li>Land Man Ratio</li>
<li>Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>The post <a rel="nofollow" href="https://projectreports.eiriindia.org/product/hdpe-pipes-1-inch-24-inch-od/">HDPE pipes (1 inch to 24 inch OD)</a> appeared first on <a rel="nofollow" href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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