HDPE COMPOUNDING PLANT

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Plastics are used in many fields because they can be processed easily, are relatively light, and possess excellent chemical and physical properties. However, they also have undesirable properties from a combination of the material itself and processing. Therefore, it is important to hide or reduce the defects of plastics while sustaining or enhancing the merits as much as possible. To attain that aim, many kinds of polymer additives have been developed.

Additives are agents that sustain material’s properties or functions, provide desirable properties for the bulk of a material, or provide its surface properties. This article focuses on the most widely used additives in the PE industry.

Compounding is the general term for the operation converting the polyethylene (PE) produced in a polymerization reactor into a pelletized form suitable for use by a downstream processor. In the compounding process, the polymer is physically and chemically modified by incorporating various additives. The selection of additives and of compounding conditions depends on the end application of the compounded product.

With the help of melt blending plastics, it is possible to change characteristics, such as:

• Physical
• Electrical
• Thermal
• Aesthetic

All compounding begins with polymers or base resins. Different resin systems exist, and so you must choose the proper one with correct characteristics for your final product. Once a base resin is picked, it is time to determine the specific additives, reinforcers, or fillers that will be incorporated into the compounded plastic. This process allows the final product to be precolour or flame retardant. It can also make plastic more or less conductive, while also strengthening final parts. There are several steps taken when creating specialty compounding. In the end, pellets are sent to customers for sheet extrusion or injection molding.

Plastic compounding is a process for adding additional materials into a molten plastic base to produce a material with desired qualities. Additives and modifiers may result in plastic with a particular color, texture, strength, and so on. A manufacturer may incorporate one or more additives into the base material in the process of plastic compounding.

While the process is different in each facility depending on the product being produced, plastic compounding typically involves several basic steps. Additives in the form of pellets, flakes, or powders are conveyed to a container of a molten plastic base material. The mixture goes through a number of blending and dispersal steps to incorporate these additives into the base material and achieve a homogeneous final product.

Polyethylene and polypropylene are the two most common base polymers used in the plastic compounding process. Modifiers may be added to these base polymers in the form of powder or small pellets. Sometimes recycled material is added in the form of chips or shavings produced in the recycling process.

Filler material may be classified as either inert or active. Inert filler material typically increases the volume of the material inexpensively without adding any beneficial features. Its primary purpose is to reduce the cost of the material. Active filler, on the other hand, is added to improve the physical properties of the material. If a filler increases the tensile strength of the base material, it may be referred to as a reinforcement.

Manufacturers must take into account a number of factors when incorporating additives. Physical properties such as particle size and shape of the additive must be compatible with the base material. Even if it improves performance, an expensive additive may drive the price of the final product up too much for its target market. Suitability of an additive in the manufacturing environment must also be considered. For example, abrasive filler materials can degrade plastic compounding equipment, and dust from an additive in powder form may contaminate the manufacturing facility.

Modifiers used in plastic compounding serve a number of purposes when added to base polymers. They may reduce the cost of the final material substantially, thereby providing an economic advantage in the marketplace. Use of recycled material as additives can reduce consumer or industrial waste in landfills and save on waste disposal expenses.

Additionally, additives may improve the quality of the final product in a number of ways. Flame retardants and antioxidants may improve the safety of the material or extend its useful lifetime. Antacids may be added to a material to reduce the impact it has on the equipment used for processing. Glass or carbon fibers can increase the strength of a base polymer when incorporated into it.

A wide variety of products are made with materials developed through plastic compounding. Consumer products that incorporate these materials include toys, furniture, appliances, and more. Industrial applications include use in automotive components, pipes, construction, and others. The diverse array of materials that can be created with plastic compounding ensure widespread use of this process in product manufacturing well into the future.

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Description

INTRODUCTION
LOCATION-HOSUR
MAP
CLIMATE
TRANSPORT
ROAD
RAIL
AIR
RAW MATERIAL- HDPE
CHEMICAL COMPOSITION AND MOLECULAR STRUCTURE
WHY IS HDPE SO POPULAR
MOLDABILITY
RESISTANCE TO CORROSION
STRENGTH TO DENSITY RATIO
RECYCLABLE
USES AND APPLICATION
PACKAGING APPLICATIONS
CONSUMER GOODS
FIBERS AND TEXTILES
OTHER POPULAR APPLICATIONS OF HDPE
PROPERTIES
ADVANTAGE & DISADVANTAGES OF HDPE
ADVANTAGE OF HDPE BOTTLES
RECYCLABLE
SUSTAINABLE
EASY TO LIGHTWEIGHT
ADAPTABLE
EASY TO USE
SAFE AND SECURE
COMMERCIAL
INNOVATIVE
DISADVANTAGE
COMPARISON BETWEEN MAIN TYPES OF POLYETHYLENE
LDPE
LLDPE
HDPE
HDPE
LDPE
INJECTION MOLDING
EXTRUSION
PROPERTIES OF POLYMERIC MATERIALS
PART I: ADDITIVES
ADDITIVES (TYPES AND APPLICATIONS):
ADDITIVES CLASSIFICATION:
SYNERGISTIC AND ANTAGONISTIC:
STABILIZERS
ANTIOXIDANTS AND UV STABILIZERS
STABILIZER SYNERGISM, AUTOSYNERGISM, AND ANTAGONISM
ANTIOXIDANTS AND PROCESSING STABILIZERS
EFFECTS OF PROCESSING AND ENVIRONMENTAL FACTORS ON OXIDATIVE DETERIORATION OF POLYMERS
SCHEME 1
SCHEME 2
SCHEME 3
ANTIOXIDANTS
POLYMER AUTOXIDATION
POLYMER STABILIZATION
CHAIN-BREAKING OR PRIMARY ANTIOXIDANTS
PHENOLICS
STRUCTURE AND ACTION
CHARACTERISTICS
AROMATIC AMINES
HINDERED AMINES
METAL DEACTIVATORS
PREVENTIVE OR SECONDARY ANTIOXIDANTS
TRIVALENT PHOSPHORUS COMPOUNDS
DIVALENT SULFUR COMPOUNDS
PEROXIDE DECOMPOSERS
SULFUR-CONTAINING ANTIOXIDANTS
PHOSPHORUS-CONTAINING ANTIOXIDANTS
SYNERGIST MIXTURES OF ANTIOXIDANTS
ANTAGONISTIC MIXTURES OF ANTIOXIDANTS
ANCILLARY PROPERTIES
VOLATILITY
COMPATIBILITY
COLOR STABILITY
PHYSICAL FORM
TASTE AND ODOR
REGULATORY ISSUES
PERFORMANCE VERSUS COST
INHIBITION OF OXIDATIVE DEGRADATION
PROCESSING ANTIOXIDANTS
THERMOOXIDATIVE ANTIOXIDANTS
SCHEME 4
SCHEME 5
SCHEME 6
SCHEME 7
UV STABILIZERS
UV ABSORBERS
PIGMENTS
COMMON ADDITIVES USED IN POLYETHYLENE
CONCLUSIONS
MANUFACTURING PROCESS
COMPOUNDING PRINCIPLES & PRODUCT PROBLEMS RELATED TO COMPOUNDING
ADDITIVE FEEDING
DISPERSION
COMPOUNDING PRINCIPLES
CONTINUOUS MIXERS
TWIN-SCREW EXTRUDERS
MELT FILTRATION AND PELLETIZATION
PELLET HANDLING AND POST BLENDING
PRODUCT PROBLEMS RELATED TO COMPOUNDING
GEL CONTAMINATION
BLACK SPECK CONTAMINATION
EXTRANEOUS CONTAMINATION
ODOR
PELLET GEOMETRY
COLOR
RHEOLOGY
PROCESS CONTROL IN COMPOUNDING
MAIN TECHNICAL SPECIFICATIONS
PROCESS FLOW DIAGRAM
ENVIRONMENTAL FACTS
MARKET POSITION
PRODUCT INSIGHTS
APPLICATION INSIGHTS
REGIONAL INSIGHTS
KEY COMPANIES & MARKET SHARE INSIGHTS
GLOBAL PLASTIC COMPOUNDING MARKET SIZE, BY END USE
KEY BENEFITS FOR PLASTIC COMPOUNDING MARKET
PLASTIC COMPOUNDING MARKET KEY SEGMENTS
BY POLYMER TYPE
BY END-USE
BY REGION
PLANT LOCATION FACTORS
PRIMARY FACTORS
EXPLANATION OF TERMS USED IN THE PROJECT REPORT
RAW MATERIAL SUPPLIERS
HDPE RESIN
CARBON BLACK
IRGANOX 1010, IRGANOS 1035, IRGANOS
CALCIUM STEARATE
IRGANOX 1010
MACHINERY SUPPLIERS
RAW MATERIAL PHOTOGRAPHS
MACHINERY PHOTOGRAPHS
PRODUCT PHOTOGRAPHS

APPENDIX – A:

01. PLANT ECONOMICS
02. LAND & BUILDING
03. PLANT AND MACHINERY
04. OTHER FIXED ASSESTS
05. FIXED CAPITAL
06. RAW MATERIAL
07. SALARY AND WAGES
08. UTILITIES AND OVERHEADS
09. TOTAL WORKING CAPITAL
10. TOTAL CAPITAL INVESTMENT
11. COST OF PRODUCTION
12. TURN OVER/ANNUM
13. BREAK EVEN POINT
14. RESOURCES FOR FINANCE
15. INSTALMENT PAYABLE IN 5 YEARS
16. DEPRECIATION CHART FOR 5 YEARS
17. PROFIT ANALYSIS FOR 5 YEARS
18. PROJECTED BALANCE SHEET FOR (5 YEARS)

Additional information

Plant Capacity

100 MT/Day

Land & Building

(3500 sq.mt.)

Plant & Machinery

US$.1707142

Rate of Return

37%

Break Even Point

36%