HDPE pipes are important plastic products which have wide range of applications. These have more tensile strength in comparison to other plastic pipes. These are being used for Sprinkler Irrigation System, potable water supply and sewerage purpose. Their low cost, easily installation and better durability make them ideal for the purpose. They also offer very good resistance to most of the chemicals and have excellent electrical insulation properties. These pipes are also used for circulation of acids in various chemical industries due to their acid resistant quality.

The demand of HDPE Pipes are likely to increase due to their wide use in various sectors in India. Apart from its regular uses, such as for irrigation system, water supply, sewerage, it is being used by Department of Telecommunication for conduit for optical fiber cables. Looking to its increased demand, it appears to be good scope for setting up new small scale industries. Hence the product has good market potential.

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PVC foam board manufacturing companies provide it for all types of construction applications be it indoor or outdoor owing to its high usability. It has been a good replacement for wood which tends to have all weather effects and is likely to corrode in a few years.

PVC Board comes as a finished product and is ready to be installed. This is not the case with plywood. For instance, on plywood there has to be an application of laminate to make it water proof, termite proof and fire retardant. The cost of a PVC Board might sound more to you at the first sight, but in reality it is much cheaper. There is no wastage of the product material on manufacturing of the PVC Board, whereas to give the desired shape and design to the wood, there is material wastage in Plywood. This increases the price of the Plywood Board, in comparison to the PVC Board.

PVCs are a form of composite combining wood-based elements with polymers. The processes for manufacturing PVCs include extrusion, injection molding, and compression molding or thermoforming (pressing). Newer manufacturing processes for PVCs include additive manufacturing via fused layer modeling and laser sintering. An important constraint for polymers used in PVCs is requiring process conditions (melt temperature, pressure) that will not thermally degrade the wood filler. Wood degrades around 220°C; thus, general-purpose polymers like polyethylene and poly vinyl chloride are typically used for manufacturing PVCs. Wood fibers are inherently hydrophilic because of the hydroxyl groups contained in the cellulose and hemicellulose molecular chains. Thus, modification of the wood fiber via chemical or physical treatments is very critical to making improved PVCs. The most abundant profiles made from wood–plastic composites are boards or lumber used in outdoor decking applications.

Although early PVC products were mainly extruded for profiled sections, nowadays, many injected parts made of PVC are being introduced for various industries, including electrical casings, packaging, daily living supplies, and civil engineering applications. Mold and mildew and color fading of PVCs tend to be the durability issues of prime importance for PVCs. Most recent research on PVC durability focuses on studies to better understand the mechanisms contributing to various degradation issues as well as methods to improve durability. Most PVC products in the USA are utilized in building materials with few exceptions for residential and commercial building applications, which means that building codes are the most important national rules for the PVC manufacturers.

Plastic and wood wastes have been a main environmental concern. Plastic is the biggest problem due to its high amount of waste generated, non-biodegradability and the fastest depletion of natural resources regarding its short life cycle, therefore increased amount of material utilized in its production, and waste generated. The same applies to wood with lesser degree where it is depleting trees and forests and the wastes mainly are either burned or disposed; resulting in extra consumption, depletion, and pollution of nature.

Several worldwide attempts have been adopted; especially in the developed countries, to take advantage of these types of waste especially with the raised need for alternatives to virgin materials. PVC is a product which could be obtained from plastic and wood. PVC is a composite with a rapid growing usage consisting of a mixture of wood waste and polymeric material. Many trials of obtaining a PVC product were basically built on the concept of a Cradle to Cradle approach where the material is recycled at the end of its life cycle to produce a Cradle (new) product and thus close the loop and imitate the natural ecosystem. As a consequence, this minimizes the solid waste content and conserves the natural resources. Therefore, costs, energy, and depletion of virgin materials are reduced. In addition, it assures the sustainability over the incoming years for future generations' use.

PVC has become currently an important address of research that gained popularity over the last decade especially with its properties and advantages that attracted researchers such as: high durability, Low maintenance, acceptable relative strength and stiffness, fewer prices relative to other competing materials, and the fact that it is a natural resource.

Other advantages have been strength points including : the resistance in opposition to biological deterioration especially for outdoor applications where untreated timber products are not suitable, the high availability of fine particles of wood waste is a main point of attraction which guarantees sustainability, improved thermal and creep performance relative to unfilled plastics where It can be produced to obtain structural building applications including: profiles, sheathings, decking, roof tiles, and window trims. On the other hand, PVCs are not nearly as stiff as solid wood; however, they are stiffer than unfilled plastics. In addition, they do not require special fasteners or design changes in application as they perform like conventional wood.

As mentioned, the reasons for using PVC are many; however, there are other causes that men forced many countries to tend for using alternative sources to virgin materials. In the United States, for example, the U.S. Environmental Protection Agency, by the beginning of 2004, has phased out the usage of wood treated with chemicals such as the chromate copper arsenate (CCA) to prevent environmental and microbial degradation. As this type of wood was used in the building products' market concerned with residential applications such as decking, the need for the alternative survived the PVC market. In Europe, environmental concerns are focused on limiting the use of finite resources and the need to manage waste disposal; therefore, the tendency to recycle materials at the end of their useful life has increased tremendously.

Recycling polymers in Europe was less preferred than other types of materials such as metal; however, illegality of land filling and waste management priority in many European countries were the motive to do so. In addition to the enforced environmental policies, the growth of environmental awareness led to a new orientation to use wasted natural materials for different applications and industries such as the automotive, packaging and construction industries.

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In addition to wood fiber and plastic, WPCs can also contain other ligno-cellulosic and/or inorganic filler materials. WPCs are a subset of a larger category of materials called natural fiber plastic composites (NFPCs), which may contain no cellulose-based fiber fillers such as pulp fibers, peanut hulls, bamboo, straw, digestate, etc.

Chemical additives seem practically "invisible" (except mineral fillers and pigments, if added) in the composite structure. They provide for integration of polymer and wood flour (powder) while facilitating optimal processing conditions.

In recent years, people in the flooring industry starts referring to WPC as a type of floor that has a basic structure of top vinyl veneer plus a rigid extruded core (the core can be made without any wood fiber). WPC is now an established product category within LVT. This type of WPC is different from WPC decking and is not intended for outdoor usage.

Wood–plastic composites (WPCs) are a form of composite combining wood-based elements with polymers. The processes for manufacturing WPCs include extrusion, injection molding, and compression molding or thermoforming (pressing). Newer manufacturing processes for WPCs include additive manufacturing via fused layer modeling and laser sintering. An important constraint for polymers used in WPCs is requiring process conditions (melt temperature, pressure) that will not thermally degrade the wood filler. Wood degrades around 220 °C; thus, general-purpose polymers like polyethylene and poly vinyl chloride are typically used for manufacturing WPCs. Wood fibers are inherently hydrophilic because of the hydroxyl groups contained in the cellulose and hemicellulose molecular chains. Thus, modification of the wood fiber via chemical or physical treatments is very critical to making improved WPCs. The most abundant profiles made from wood–plastic composites are boards or lumber used in outdoor decking applications. Although early WPC products were mainly extruded for profiled sections, nowadays, many injected parts made of WPC are being introduced for various industries, including electrical casings, packaging, daily living supplies, and civil engineering applications. Mold and mildew and color fading of WPCs tend to be the durability issues of prime importance for WPCs. Most recent research on WPC durability focuses on studies to better understand the mechanisms contributing to various degradation issues as well as methods to improve durability. Most WPC products in the USA are utilized in building materials with few exceptions for residential and commercial building applications, which means that building codes are the most important national rules for the WPC manufacturers. New developments are being made especially in
the area of nano additives for WPCs including nanocellulose. Recently, the trend of patent registrations for WPCs has shifted to new products or applications instead of the materials itself.

A wood–plastic composite (WPC) is a common term referring to wood-based elements such as lumber, veneer, fibers, or particles that are combined with polymers to create a composite material. It is a broadly used term, and as such, wood elements can be combined with either thermosetting or thermoplastic polymers. The term wood–plastic composite is used interchangeably with wood–polymer composites, and the wood composites made from either thermoplastic or thermosetting polymers are often categorized as separate material types. Examples of wood–plastic composites made from different polymer types and wood elements are listed in Table 1.

Plastic and wood wastes have been a main environmental concern. Plastic is the biggest problem due to its high amount of waste generated, non biodegradability and the fastest depletion of natural resources regarding its short life cycle, therefore increased amount of material utilized in its production, and waste generated. The same applies to wood with lesser degree where it is depleting trees and forests and the wastes mainly are either burned or disposed; resulting in extra consumption, depletion, and pollution of nature. Several worldwide attempts have been adopted; especially in the developed countries, to take advantage of these types of waste especially with the raised need for alternatives to virgin materials. Wood plastic composite (WPC) is a product which could be obtained from plastic and wood. WPC is a composite with a rapid growing usage consisting of a mixture of wood waste and polymeric material . Many trials of obtaining a WPC product were basically built on the concept of a Cradle to Cradle approach where the material is recycled at the end of its life cycle to produce a Cradle (new) product and thus close the loop and imitate the natural ecosystem. As a consequence, this minimizes the solid waste content and conserve the natural resources. Therefore, costs, energy, and depletion of virgin materials are reduced. In addition, it assures the sustainability over the incoming years for future generations' use.

WPC has become currently an important address of research that gained popularity over the last decade especially with its properties and advantages that attracted researchers such as: high durability, Low maintenance, acceptable relative strength and stiffness, fewer prices relative to other competing materials, and the fact that it is a natural resource . Other advantages have been strength points including : the resistance in opposition to biological deterioration especially for outdoor applications where untreated timber products are not suitable, the high availability of fine particles of wood waste is a main point of attraction which guarantees sustainability, improved thermal and creep performance relative to unfilled plastics where It can be produced to obtain structural building applications including: profiles, sheathings, decking, roof tiles, and window trims. On the other hand, WPCs are not nearly as stiff as solid wood; however, they are stiffer than unfilled plastics. In addition, they do not require special fasteners or design changes in application as they perform like conventional wood.

As mentioned, the reasons for using WPC are many; however, there are other causes that men forced many countries to tend for using alternative sources to virgin materials. In the United States, for example, the U.S. Environmental Protection Agency, by the beginning of 2004, has phased out the usage of wood treated with chemicals such as the chromate copper arsenate (CCA) to prevent environmental and microbial degradation. As this type of wood was used in the building products' market concerned with residential applications such as decking, the need for the alternative survived the WPC market. In Europe, environmental concerns are focused on limiting the use of finite resources and the need to manage waste disposal; therefore, the tendency to recycle materials at the end of their useful life has increased tremendously. Recycling polymers in Europe was less preferred than other types of materials such as metal; however, illegality of land filling and waste management priority in many European countries were the motive to do so . In addition to the enforced environmental policies, the growth of environmental awareness led to a new orientation to use wasted natural materials for different applications and industries such as the automotive, packaging and construction industries.

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Electrical tape (or insulating tape) is a type of pressure-sensitive tape used to insulate electrical wires and other material that conduct electricity. It can be made of many plastics, but vinyl is most popular, as it stretches well and gives an effective and long lasting insulation. Electrical tape for class H insulation is made of fiberglass cloth.

INTRODUCTION
TYPES AND VARIETY OF PVC INSULATION TAPE
DIFFERENT OPERATION INVOLVED IN PVC TAPE MANUFACTURING
FORMULATIONS
RAW MATERIALS
USES & APPLICATIONS
FEATURES OF PVC  ELECTRIC INSULATION TAPE
SELECTION OF ADHESIVE
BONDING PROCESS
MARKET SURVEY
MARKET SURVEY (GLOBAL)
MANUFACTURERS/EXPORTERS/SUPPLIERS OF PVC INSULATION TAPES
B.I.S. SPECIFICATION
MAJOR OPERATION IN PVC INSULATION TAPE MANUFACTURING
FORMULATION OF PRIMER COAT FOR PVC ELECTRICAL INSULATION TAPE
FORMULATION OF ADHESIVE
PROCESS OF MANUFACTURE
PROCESS FLOW SHEET
PROCESS DETAILS OF PVC ADHESIVE TAPE
PLANT LAYOUT
SUPPLIERS OF PLANT AND EQUIPMENTS FOR PVC INSULATION TAPES (IMPORTED)
TECHNICAL SPECIFICATION OF PVC INSULATION TAPE
SUPPLIERS OF RAW MATERIALS
SUPPLIERS OF PLANT AND MACHINERIES

APPENDIX – A :

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

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INTRODUCTION
USES AND APPLICATIONS
PROPERTIES
TESTING OF PIGMENT DISPERSIONS
B.I.S. SPECIFICATIONS
RAW MATERIALS
METHODS OF PIGMENT DISPERSION
MARKET POSITION OF MASTERBATCHES
GROWTH AND PROSPECT OF PLASTIC INDUSTRY IN INDIA
PRESENT MANUFACTURERS/SUPPLIERS OF COLOUR MASTER BATCHES
ANTISTATIC MASTERBATCHES
BENEFITS OF MASTERBATCHES
TYPES OF MASTERBATCHES
GENERAL FORMULATION OF MASTERBATCHES
FORMULATIONS
EVA BASED MASTERBATCH
BLACK MASTERBATCH FOR EPDM
PVC GRADE MASTERBATCHES FOR RIGID APPLICATION
PVC GRADE MASTERBATCHES FOR FLEXIBLE APPLICATION
PROCESS OF MANUFACTURE
MIXING AND COMPUNDING METHOD OF MASTERBATCHES
METHODS OF PRODUCING MASTERBATCHES
PLASTIC TRANSPARENT GRANULES
FOR SHOE LIGHTING SYSTEMS
GENERAL GUIDELINES FOR INJECTION MOULDING OF SAN
MANUFACTURING DIAGRAM
PLANT LAYOUT
SUPPLIERS OF RAW MATERIALS
SUPPLIERS OF PLANT AND MACHINERY

Along with financial details as under:
•    Summary of Capital Cost of Project
•    Land & Side Development Exp.
•    Buildings
•    Plant & Machineries
•    Misc. Fixed Assets
•    Technical Know how Fees & Exp.
•    Preliminary Expenses
•    Pre-operative Expenses
•    Provision for Contingencies
Below mentioned financial statements (Annexure) will be  for 5 to 10 Years
•    Annexure:: Cost of Project and Means of Finance
•    Annexure:: Output, Profitability and Cash Flow Chart
•    Annexure:: Assessment of Working Capital requirements
•    Annexure:: Sources of Finance
•    Annexure:: Balance Sheets
•    Annexure:: Break-Even Analysis and profitability analysis.
•    Annexure:: Quantitative Details-Output/Sales/Stocks
•    Annexure:: Sales Realisation
•    Annexure:: Raw Material Cost
•    Annexure:: Other Raw Material Cost
•    Annexure:: Packing Material Cost
•    Annexure:: Consumables, Store etc.,
•    Annexure:: Employees Expenses
•    Annexure:: Fuel Expenses
•    Annexure:: Power/Electricity Expenses
•    Annexure:: Repairs & Maintenance Exp.
•    Annexure:: Other Mfg. Expenses
•    Annexure:: Administration Expenses
•    Annexure:: Selling Expenses
•    Annexure:: Depreciation Charges - Profitability
•    Annexure:: Depreciation Charges
•    Annexure:: Interest and Repayment - Term Loans
•    Annexure:: Tax on Profit
•    Annexure:: Assumptions for Profitability workings
•    Annexure:: Assessment of Working Capital

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Their  field  of  application  for  decoration  of  garments attributes to their wide-spread versatility.

They  impart  such  an fascination for the  on  looker  that catches the eye on the first glimpse.

Further, their appeal is so innovative and tantalizing  that  accounts for their increasing demand.

   Project Report Covers:

•     Introduction
•     Uses and Applications
•     Properties
•     Market Survey with future aspects
•     Present Manufacturers
•     B.I.S. Specifications
•     Manufacturing Process with Formulae
•    Cost Economics with Profitability Analysis
•     Capacity
•     Land & Building Requirements with Rates
•     List & Details of Plant and Machinery with their Costs
•     Raw Materials
•     Details/List and Costs
•     Power & Water Requirements
•     Labour/Staff Requirements
•     Utilities and Overheads
•     Total Capital Investment
•     Turnover
•     Cost of Production
•     Break Even Point
•     Profitability
•     Land Man Ratio
•     Suppliers of Plant & Machineries and Raw Materials.

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• Blister film P.V.C.
• Foamed PVC Compounding & Its products (Profiles, Boards, Pipes, etc.)
• P.V.C. Non-woven mat
• P.V.Cinsulation Tape
• P.V.C.Pipes & Fittings
• P.V.C. Compounding  (Fresh)
• P.V.C. Battery Separator
• P.V.C. Flexible Pipes
• P.V.C. Foot Wear
• P.V.C. Leather Cloth
• P.V.C. Wires and Cables
• P.V.C. Films

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