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Technology Of Plastic Additives With Processes And Packaging

EIRI Team — Tue, 22 Nov 2016 08:41:16 +0000

Plastic Additives: An Introduction

Additives Make Plastics
Look good
Additives Save Money
Additives Make Plastics Safe and Sound
Additives Make Plastics Clean And Healthy
Additives Make Plastics Work Longer
Additives Respect The Environment

Organic Peroxides

Types
Dialkyl Peroxides
Diacyl peroxides
Hydroperoxides
Ketone peroxides
Peroxydicarbonates
Peroxyesters
Process
Peroxyketals
Raw Materials
Suppliers
Trends and Forecasts

Plasticizers

Description
Phthalate Esters
Preparation of Typical
Commercial Cellulose
Acetate Phthalate
Aliphatic Esters
Epoxy Ester
Phosphate Triesters
Trimellitates
Polymer Plasticizers
Methods
Other Plasticizers
Suppliers
Trends and forecasts

Polyurethane Catalysts

Description
Tertiary aliphatic amines
Preparation
Reductive amination of 6- undecanone with
dimethylamine using a nickel catalyst
Organometallic compounds
Preparation
Process
Suppliers
Trends and forecasts

Fillers

Why are Fillers Used?
Glass Fillers Explained
Color Basics
Color Developments for Bioplastics
Special Effects in the
Consumer Market
Infrared Reflective Pigments
Regulatory Compliant Colorants

Specialty Alloys

Aluminum
Brass
Bronze
Other Grades include
Copper
Hastelloy® C-276
Haynes 242 Alloy
Inconel® – nickel-chromium iron
Invar 36 Alloy
Kovar Alloy
Molybdenum
Nickel 200, 201
Tantalum and Ta-Alloys
Titanium
Tungsten

Maximizing Performance Using Copper Alloys

Copper Alloys for Conveying Plastic In Injection Molds
Sprue Bushing Radius
Sprue Bushing Taper
Sprue Retention and Anti- Rotation
Standard Sprue Bushing Availability
Conventional Injection Mold Runner Systems
Injection Mold Runner Bars
Runner Sizing
Formulas for calculating the area of the runner
Runner Bar Mating
Runner Bar Cooling
Sprue Puller

Structurally Enhanced Plastics with Filler Reinforcements

Particle Surface Characteristics
Particle Hardness and Toughness

Cellular Plastic Additive

Environmentally Friendly Additives for Plastics

Preparation of Environmentally Friendly Additive for Plastics
Effect of Additive for Plastics in Absorbing Hydrochloric Acid Gas
Effect of Absorbing Hydrochloric Acid Gas of PE Bags Comprising
Environmentally Friendly Additive for Plastics

Polyimide Processing Additives

Preparation of the 422 Copoly(amic acid) Base Resin
Imidization of the 422 Copoly(amic acid) Base Resin
Preparation of LARCTPI(M) Polyimide Film
Preparation of LARCTPI(H) (3,3’4,4′-Benzophenonetetracarboxylic
Dianhydride 3,3′-Daiminobenzophenone
Polyimide) Solution and Film
Preparation of the 2,2-Bis[4-(3,4-dicarboxyphenyl)]-hexafluoropropane
Dianhydride-2,2-Bis[4-(4-aminophenoxy)-phenyl]
hexafluoropropanePoly(amic acid)
[6F-BDAF, Poly(amic acid)]
Endcapping of the 6F-BDAF, Poly(amic
acid) Resin 5 with Phthalic Anhydride
Preparation of the Pyromellitic Dianhydride-Aniline
Di(amic acid) Additive Di(NMP) Complex [PMDA-An.
2NMP, Di(amic acid)]
Preparation of the 3,3’4,4′- Benzophenonetetracarboxylic
Dianhydride- Aniline Di(amic acid) Additive [BTDA-An, Di(amic acid)]
Preparation of the Phthalic Anhydride-Aniline Amid
Acid Additive [PA-An, Amic Acid]
Preparation of the 4,4′- Diaminodiphenylmethane- Phthalic
Anhydride Di(amicacid) Additive [4,4′-DADPM-PA, di(amic acid)]
Preparation of the 3,3′- Diaminodiphenylmethane- Phthalic
Anhydride Di(amic acid) Additive [3,3′- DADPM-PA, Di(amic acid)]
Preparation of the 3,3′,4,4′-Oxydiphthalic Anhydride-Aniline Di(amic acid)
Additive [ODPA-An, di(amic acid)]
Preparation of the 4,4′-Bis (3,4-dicarboxyphenoxy) diphenyl sulfide
dianhydride-Aniline Di(amic Acid) Additive [BDSDA-An,di(amic acid)]
Preparation of 1,4- Phenylenediamine-Phthalic Anhydride Di(amic acid) Additive
[p-PDA-PA, di(amic acid)]
Preparation of the 2,2-bis [4-(4-aminophenoxy) phenyl]-hexafluoropropane
Phthalic Anhydride Di(amic acid) Additive [BDAFPA, di(amic acid)]
Preparation of Additional Amic Acid Additives, Endcapped with Aniline
(An) or Phthalic Anhydride (PA)
Preparation of the NPhenylphthalimide Additive
Preparation of the N,N’-Diphenylpyromellitimide
Additive [PMDA-An, diimide]
Preparation of the N,N’- Diphenyl-4,4′- carbonyldiphthalimide
Additive [BTDA-An, diimide]
Preparation of the N,N’- Diphenyl-4,4′(2,2- hexafluoropropyl)-
diphthalimide Additive [6F-An, diimide]
Preparation of the N,N’- Bis(3-trifluoromethylphenyl)-
4,4′-2,2- hexafluoropropyl) diphthalimide Additive
[6F-3,3′-TFMAn, diimide]
Preparation of the N,N’- Diphenyl-4,4′-
oxydiphthalimide Additive [ODPA-An, diimide]
Preparation of the N,N’- Bis(4-benzoylphenyl)-
4,4′-(2,2-hexafluoropropyl)- diphth alimide
Additive [6F-4-ABP, diimide]
Preparation of the N,N’- (Methylenedi-1,4-
phenylene)diphthalimide Additive [p-MDA-PA, diimide]
Preparation of the N,N’(Methylenedi-1,3-
phenylene)diphthalimide [m-MDA-PA, diimide]
Preparation of the N,N’-[[2,2- bis[4-(4-phenoxy)
phenyl]hexafluoropropyl]] diphthalimide
Additive [BDAFPA, diimide]
Preparation of Additional Imide Additives
Endcapped with Aniline (An), Phthalic Anhydride
(PA), or Miscellaneous Endcaps
The thermal imidization of certain amic acid additives
Reprecipitation and Imidization of the
422 Copoly(amic acid) Base Resin
Polyimide Composition of the 422 Copolymer
Base Resin Containing 0.05% by wt. of the
PMDA-An Di(amic acid) Additive
Polyimide Composition of the 422 Copolyimide
Base Resin Containing 0.50% by wt. PMDA-AN Diimide
Polyimide Composition of the 422 Copoly(amic
acid) Base Resin Containing 2.5% by wt. of the PMDA-AN
Di(amic acid) Additive
Polyimide Composition of the 422 Copoly(amic
acid) Base Resin Containing 5.0% by
wt. of the PMDA-AN Di(amic acid) Additive
Preparation of the 422 Copolyimide Base
Resin Containing 5.0% by wt. of PMDA-An Diimide Additive
Polyimide Composition of the 422 Copoly
(amic acid) Base Resin Containing 2.5% by wt. of the BTDA-AN Diimide Additive
Polyimide Composition of the 422 Copolyimide
Base Resin Containing 5.0% by wt. of Napthalene as the Additive
Polyimide Composition of the 422 Copoly
(amic acid) Base Resin Containing
2.5% by wt. of the p-PDA-PA, Di(amic acid) Additive
Polyimide Composition of the 422 Copoly (amic acid) Base
Resin Containing 5.0% by wt. of the
p-PDA-PA Di(amic acid) Additive
Polyimide Composition of the 422 Copoly(amic acid)
Base Resin Containing 2.5% by wt. of the 4,4′-
ODA-PA Diimide Additive
Polyimide Composition of the 422 Copolyimide Base Resin
containing 5.3% by wt. of the 6F-An Diimide Additive
Polyimide Composition of the 422 Copolyimide Base Resin
Containing 15% by wt. of the 6F-An, Diimide Additive
Polyimide Composition of the 422 Copolyimide
Base Resin Containing 5.3% by wt. of the 6F-TFMAn Diimide Additive
Film Formation from a Composition of LARCTPI(M) and 3.0% by
Weight of the BTDAAn Di(amic acid) Additive
Film Formation From a Composition of LARCTPI (M) and 3.0% by Weight of the 3,3′-
DABP-PA Di(amic acid) Additive
Extended Cure of a LARCTPI(M) Film Containing
3.0% by Weight of the 3,3′-DABP-PA Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(M) and 5% by
Weight of the 3,3′-DABP-PA Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(M) and 10% by
Weight of the 3,3′-DABP-PA Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(
M) and 3.01 by Weight of the PMDAAn.
2NMP Di(amic acid) Additive
Extended Cure of a LARCTPI(M) Film Containing
3.0% by Weight of the PMDA-An.2NMP
Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(H) and 3.0% by Weight of the BTDAAn
Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(
H) and 5.0% by weight of the BTDA-An
Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(
H) and 3.0% by Weight of the 3,3′-
DABP-PA Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(H) and 3.0% by Weight of the PMDAAn.
2NMP Di(amic acid) Additive
Extended Cure of a LARCTPI(H) Film Containing
3.0% by Weight of the PMDA-An.2NMP
Di(amic acid) Additive
Film Formation From a Composition of LARCTPI(H) and 5.0% by
Weight of the 6FDAAn Di(amic acid) Additive
Film Formation From a Composition LARCTPI(H) and 5.0% by Weight of the 3,3′-
DDSO2 PA Di(amic acid) Additive
Preparation and Characterization of a
LARC-TPI Polyimide Graphite Composite
Modified with a PMDAaniline Di(amic acid) Additive

Storage-stable Plastics Additives

Liquid Colourant/Additive Concentrates for Plastics

Hydrophilic Additives

Synthesis of the Additives
Additive 1
Additive 2
Additive 3
Additive 4
Wetting Test

Hydrophobicizing Additives

Method A :Dispersion 1
Method B: Dispersion 2
Results of the Emulsification Experiments
Method 1 :Powder 1
Method 2: Powder 2
Method 3: Powder 3
Method 4 :Powder 4
Comparative Method 5: Powder C5
Method 6: Powder 6
Method 7: Powder 7
Method 8: Powder 8
Method 9: Powder 9
Comparative Method 10:
Powder C10
Comparative Method 11: Powder C11

Asphalt Additive

Method 1~20 and Comparative Methods 1~14
Methods 12~13: R
contains one branched
methyl group

Anti-treeing Additives

Process 1
Process 2
Process 3
Process 4
Process 5

Rubber Additive

Preparation Of Methods
Effects on Rubber Processability
Effect on Tack
Other Parameters
Physical properties of the rubber compounds
Other products

Waste Plastic Additive for Asphalt

Additive Composition Methods
Asphalt Composition Methods

Impregnation of Plastic Substrates
with Photo chromic Additives

Process 1
Process 2
Process 3

Low-dust Granules of Plastic Additives

Method 1
Method 2
Method 3
Method 4
Method 5
Method 6
Method 7
Method 8

Mixed Ester Plastic Additive

Method 9
Method 10
Method 11

Fire-retardant Plastics with Glycoside Additive
METHODS

Additive for Papermaking

Problems to be Solved by the Method
Method 1
Methods 2-8 and comparative methods 1-11
Use methods 1-6 and comparative use methods 1-9
Use method 7 and 8 and comparative method 10 and 11
Effect of the method

Degradable Plastics Containing Dualfunction Additive System

Method 1
Method 2
Method 3
Method 4

Packaging for Plastics Additives

Low Visibility Laser Marking Additive

Preparation of Plastic Extrudate Containing an Additive

Injecting Liquid Additives into Plastic Extruders

Method of Preparing Moldable Plastic and Additive Agents

Uncolored Plastic Pellets
Colour Concentrate Pellets
Classification Methods
Other Treatments or Additives Besides Coloring Agents

Engineering Plastics and Additive

Process 1
Process 2
Process 3

Spray Application of plastics Additives to Polymers

Listing of Chemicals and Equipment
Method 1: Solubility of CO2 in Carrier Liquid 1
Method 2: Solubility of CO2 in Various Liquids at Room Temperature
Method 3: Viscosity Reduction Trial with a Mixture of Stabilizers
Method 4: Spraying Trials
Method 5: Additional Spraying Trials
Method 6: Demonstration of Low Average Flow Rate Using Intermittent Spraying
Method 7: Demonstration of Particle Size Reduction of Stabilizer 2 Upon Spraying
Method 8: Particle Size Reduction Trial of Antioxidant 1 Upon Spraying
Method 9: Particle Shearing in a Power Mixer
Method 10: Demonstration of Slurry Spraying in a Continuous Feed, High Pressure Spray
Method 11: Determination of CO2 Solubility in Carrier Liquid 1
Method 12 : Effect of Varying the Amount of CO2
Method 13: Particle Coating/Extrusion Trials

Machine for Producing Additive Containing Plastic Articles

Method 1
Method 2

Additive Metering Apparatus For Plastic Processing Machine

Project Profile of an Additive
Process Technology

The post Technology Of Plastic Additives With Processes And Packaging appeared first on EIRI - eBooks and Project Reports.

Complete Technology Book of Plastic Processing and Recycling of Plastics with Project Profiles

EIRI Team — Fri, 29 Aug 2014 12:36:57 +0000

COMPLETE TECHNOLOGY BOOK OF PLASTIC PROCESSING AND RECYCLING OF PLASTICS WITH PROJECT PROFILES

PLASTIC PROCESSING INDUSTRIES TECHNOLOGY

Beginning
Injection Moulding of Thermoplastics
Reaction Injection Moulding (RIM)
Injection Moulding of Thermosets
Extrusion
Extrusion of Thermoplastics
Extrusion of Thermosets
Blow Moulding
Extrusion Blow Moulding
Injection Blow Moulding
Coating Process
Extrusion Coating
Wire Covering
Dip coating
Fluidized Bed Coating
Other Coating Processes
Rotational Moulding
Thermoforming
Calendering
Casting
Compression moulding
Transfer Moulding
Processing Reinforced Plastics
Type of Reinforcement
Processing Methods
Reinforced Thermoplastics
Reinforced Thermosets
Dough Moulding Compound (DMC)
Sheet Moulding Compound (SMC)
Moulding Processes
Open Mould Process
Hand Lay up
Spray up
Filament Winding
Intermediate Process
Cold Press Moulding
Resin Injection
Pultrusion
Heated Mould Process
Pre-form Moulding
Sheet Moulding Compounds (SMC)
Dough Moulding Compounds (DMC)
Lamination of plastics
Fabrication and Decorating of Plastics
Introduction
Machining of Plastics
Assembly Methods
Adhesive Bounding
Welding of Plastics
Hot Gas Welding
Ultrasonic Welding
Friction Welding
High Frequency Welding
Hot Plate Welding
Induction Welding
Mechanical Joints
Decorating Plastics
Integral Colouring
In-mould Transfers
Post Moulding Techniques
Painting
Hot Stamping
Metallic Coatings
Electroplating
Vacuum Metallizing
Printing

NON-WOVEN PP FABRICS IN HYGIENE, HEALTHCARE, MEDICAL AND MEDICARE

The non-wovens industry
Today’s non wovens
Major production methods
How non wovens are made and used
Summary of processes
Web bonding
Fabric finishing
Coverting
End product converting
User acceptance of non wovens
Medical and surgical disposables protect healthcare workers and patients
Hygiene related products medical market
Advantages
Hygiene market
Applications
Advantages
Medical products
Medical products Type of non wovens
Medical usage in the USA
Medical products
Surgical and medical products
Surgical products
Continuous innovation in absorbent, hygiene products
Absorbent hygiene products
Personal care and hygiene products
Healthcare products
Wrap up

POLYETHYLENE GREENHOUSES

Plastics in Agribusiness
Polyethylene Greenhouse
Specific Benefits of Polyhouses
Benefits of Plastic Greenhouses
Types of Polyethylene Greenhouses
classification based on material
Green Houses & Large Tunnels
Benefits
Manufacturing Process
Distribution Pattern of PE Greenhouses
For achieving a higher market penetration of PE Greenhouses

NEW TRENDS IN PLASTICS PACKAGING

Introduction
Flexible packaging
Thrust areas
Breathable films
Multipurpose FFS machinery
Hayssen Snack food packaging systems
Aseptic packaging
Aseptic filling operation
Factors of importance
Aseptic transfer
Internal storage transport and handling
Bulk aseptic packaging Filter
Automatic filling
Multilayer barrier PET bottles
Blow moulded industrial packaging
Some new trends in blow moulding
Blow moulding foam technology (BFT)
Thin gauge form fill seal machines
Packaging for electrostatic discharge protection
Miscellaneous
Some typical speciality additives in polymers for packaging applications
Biodegradable plastics (films)
Recycling of tetrapack waste
Wrap-up

NYLON MONOFILAMENTS

Introduction
Product Description and Uses
Manufacturing Process
Plant and Machinery

PLASTIC BATTERIES

Two Plastic Batteries

PACKAGING OF EDIBLE OIL AND FAT

Composition off Edible Oil and Fat
Spoilage Factors
Distribution Pattern
Packaging Systems/Types of Pack
Critical Parameters
Package Types
Tinplate Containers
Glass Bottles
Semi Rigid Containers
HDPE (High Density Polyethylene) Containers
PET (Polyethylene Terephthalate) Bottles
PVC (Poly Vinyl Chloride) Bottles
Other Semi-Rigid Packs
Flexible Plastic Pouches
Analysis of Needs and Shifts
Structures and Critical Polymers
Structures
Critical Polymers
Closer Look
Flexible Plastics as Economical Media
Flexible Plastics as Effective Solid Waste Reducing Media
Indian Standards for Packaging of Edible oil vanaspati and Ghee
Legislations

PVC HIGHLY FILLED TILES

Introduction
Product Description and Properties
uses and Application
Manufacturing Process

PLASTIC CORRUGATED PIPES

Introduction
Product Description and Properties
Uses and Applications
Manufacturing Process
Blow Moulding
Vacuum Forming
Raw Materials
Plant and Machinery

PVC HOUSE WITH BRAIDED REINFORCEMENT

Introduction
Product Description and Properties
Uses and Applications
Manufacturing Process
Plant and Machinery

RECYCLING OF PLASTICS (HDPE/PP/LDPE/LLDPE/ABS etc.)

Introduction
Collection of waste
Separation
Float Sink Separation
Froth Floatation Separation
Process of Plastic Wastes Recycling
Material Recycling of Homogeneous Plastics Wastes
Raw materials
Compatibilization of incompatible Polymers
Chemical Recyclng
Pyrolysis
Union Carbide Chemicals & Fuels
Tolyo Gas Co. High Grade Coke
Sekisui Chemical Co.Charcoal
Osaka University Gasoline

Osaka City Institute of Hygiene Combustible Gases
Chemical Decomposition of Plastic Wastes by Hydrolysis, Hydrocracking and Other Processes
Energy Recovery from Plastic Wastes
Incineration
Suitable Wastes for Incineration Treatment
Factors Affecting Incineration
Types of Hazardous Waste Incinerators
Products of Incineration
Air Pollution Control During Incineration
Sources of Chlorine and Dioxin Emission
Ash Contents
Landfill Gas and Flammability
Landfill Gas and the Greenhuse Effect
Asphyxiation Toxicity and Odour
Degradable Plastics
Factors Affecting Plastics Degradation
Plastic Modified for Degradation

PET PREFORM AND BOTTLE BLOWING

PET Container Applications
Popular Applications
Manufacturing Processes
Quality Requirements
Single Stage Process
Two Stage Process
Two Stage System Injection Moulding Machine
Machines to give
Dehumidification
Chillers
High pressure compressor
Blowing Station Fully Automatic machines
How are the physical properties of PET improved by stretching?
International trends
Indian Scene
Future Scene Expected
The Future is Big and Good
PET Resin Industry Structure

REVERSE PRINTED LDPE EXTRUSION COATING ON 2 SIDES OF HDPE WOVEN SACKS

Plastics for Entrepreneurs
Extrusion coating on woven sacks for entrepreneurs
Extrusion coating
Low density polyethylene resin
India Low Density Polyethylene Extrusion Coating in India
Polyethylene extrusion coating for entrepreneurs
Manufacturing process
Established end uses
Case study

REFRIGERATOR INNER DOORS AND LINERS

Introduction
Product Description and properties
Uses and Applications
Manufacturing Process
Raw Materials
Plant and Machienry
Project Cost

ROLL -O-MATIC BAG AND IN LINE PRINTING

Introduction
Product Description and Properties
Uses and Applications
Manufacturing process
Raw Materials
Plant and Machinery

PET RECYCLING

Virgin PET
PET Synthesis
Virgin PET thermal transitions and crystallisation
PET applications and processing
Extrusion
Extrusion moulding
Extrusion to produce foam
Injection moulding
Blow moulding
Recycled PET
Contamination
Acid producing contaminants
Water
Colouring contaiminants
Acetaldehyde
Other contaminants
POSTC PET conventional recycling processes
Chemical recycling
Mechanical recycling
Contaminants removal
Drying
Melt processing
Increasing recycled PET intrinsic viscosity
Reprocessing under vacuum
Stabilizers
Solid state polymerisation
Chain extension
Chain extension process
End groups effect
Cross linking reaction
Chain extenders
Chain extension process experimental variables
Chain extension process equipment
Reactive extrusion process
Single screw extruder
Twin screw extruder
Stability of reactive extrusion system
The effect of chain extension on PET crystallinity and thermal transitions
Thermal Transitions and Crystallinity
Multiple melting peaks phenomena
ISBM process
Preform moulding
Bottle stretch blow moulding
ISBM of RER-PET
Bottle physical properties
Orientation and conformation of molecules of PET bottle
Trans Gaucheconformational changes
Dichrostsm

SYNTHETIC PAPERS

Some Successful End uses
Features of synthetics (PP) paper
Finishing and fabrication of products using synthetic paper
Binding
Lamination
Folding
Perforation
Adhesives
Other end uses packaging
In mould labeling
Disposal of (PP) synthetic paper
In-Mould Labelling
Recyling
Environmentally Friendly
stationery Paper
Adhesives
A Wrap up

STRUCTURAL FOAM MOULDING

Introduction
Product Description and Properties
Uses and Applications
Manufacturing Process

TECHNOLOGY FOR MANUFACTURING ORIENTED PVC-O PIPES

Full Dry system
Quick Diameter Change
Higher Degree of Orientation
Heating Equipment
Internal Scket
Flexibility
Low Learning Curve
Conclusion
Benefits to instailer of Oriented PVC (PVC-O) Pipes
Benefits to user of Oriented PVC (PVC-O) Pipes

WOOD PLASTIC COMPOSITES

Thermoplastics Materials and Wood Filler
Processing
Applications for WPCa
Decking
Window and Door Profiles
Automotive Applications
Conclusion

PLANT ECONOMICS OF ACRYLIC BATH TUB AND SHOWER TRAY