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.

A fibre is defined as any product capable of being woven or otherwise made into fabric. It is smallest visible unit of textile product. Afibre can be defined as a pliable hair like strand that is very small in diameter in relation to its length. Fibres are the fundamental units or the building blocks used in the making of textile yarns and fabrics.

Fibres are the fundamental units used in making of textile yarns and later on into fabric. Thus fibres are the essential components and basic units and are an essential components for making yarns. These fibres are of many types.

Most synthetic and cellulostic manufactured fibres are created by extrusion-forcing a thick, viscous liquid (about the consistency of cold honey) through the tiny holes of a device called a spinneret to form continuous filaments of semi solid polymer.

In their initial state, the fiber forming polymers are solids and therefore must be first converted into a fluid state for extrusion. This is usually achieved by melting, if the polymers are thermoplastic synthetics (i.e. they soften and melt when heated),or by dissolving them in a suitable solvent if they are non thermoplastic cellulosics. If they cannot be dissolved or melted directly, they must be chemically treated to form soluble or thermoplastic derivatives. Recent technologies have been developed for some specially fibers made of polymers that do not melt, dissolve, or form appropriate derivatives. Kynol, generally known as novoloid fiber, is characterized by its high flame and chemical resistance Novoloid fiber technology was initially developed in the United States with commercial production facilities later established in Japan. End uses for Kynol are varted and business development is focused primarily on speciality applications.
Made from an organic formula derived from three dimensional cross linked phenolic resin. Kynol exhibits unique properties that provide a distinct advantage in applications as diverse as electric arc protection, gaskets, mechanical packing and friction paper. Over the years. Kynol has also replaced asbestos in various industrial applications and is used as a precursor for carbon and activated carbon fibers materials.

Aramid fibers are a class of heat resistant and strong synthetic fibers. They are used in aerospace and military applications, for ballistic rated body armor fabric and ballistic composites, in bicycle tires, and as an asbestos substitute. the name is a portmanteau of “aromatic polyamide”.

The book provides chapters on Chemically Resistant Fibres, Fluorinated Fiberes, Thermally Resistant Fibres, Kynol Fibres, Aramid Fibres, HM-HT Fibres, Polyethylene Fibre, polyester Fibres, Polyamide. Fibres, Polyolin Fibres, Acrylic Fibres & Recycling of Polymer etc.
CHEMICALLY RESISTANT FIBRES

Chlorinated fibres PVDC (ARH)
Typical properties of PVDC fibres
Fluorinated fibres. PTFE, PVF, PVDC and FEP (ARH)
Continuous filament, staple and floc forms of Teflon PTFE
Selected fluorine containing chemically resistant polymers
Poly(etheretherketones) PEEK (BM)
Polyetherketones
Resistance of Tefzel ETFE fibres to selected chemicals after 7 days exposure
Thermal transitions of the various PEK polymers, where E signifies an ether and K a ketone segment
PEEK fibre performance factors
Properties of PEEK
Fibre products

PROPERTIES AND APPLICATIONS OF FIBRE

PEEK and other fibres exposed to elevated temperatures for 28 days in air

PEEK and other fibres exposed for 7 days in pressurised steam

Cycles to failure for PEEK and other fibres as threads-thread on thread abrasion at 120 C loaded at 0.05 cn/tex

Fibre applications
The Chemical Resistance of PEEK Fibres at Various Temperatures
Poly(phenylene sulphide) PPS (ARH)
Physical properties of PPS fibres
Chemical and solvent resistance of PPS fibres
Poly(ether imide), PEI (ARH)
Comparison of properties of PEI with PPS and PEEK fibres
Chemical resistance of PEI fibres
Others (ARH)

THERMALLY RESISTANT FIBRES

Thermosets (HE and HS)
Melamine formaldehyde fibres Basofil (BASF) (HE)
Chemistry of condensation reaction
Resins and fibre manufacturing
Properties of fibres
Physical properties of basofil fibres
Thermogravimetric analysis of basofil
Diameter distribution of Basofil fibres
Chemical resistance of Basofil fibres after 28 days exposure at room temperature
Staple length distribution of Basofil fibres
Cross sections of Basofil fibres
Staple length (mm)
Smoke toxicity of basofil fibres
End uses
Novoloid fibres, Kynok (HS)
Polymer structure of Kynol novoloid fibre
Typical properties of Kynol fibres

AROMATIC POLYAMIDES AND POLYARIMIDS (ARH)

Aramid fibres
Arimid fibres
Selected examples of polyarimid fibres
Properties of commercial polyimide and poly (amid imide) fibres
Poly(aramid imide) fibres

SEMI CARBON FIBRES: OXIDISED ACRYLICS (NS)

Development and manufacture
Theory of oxidation of polyacrylonitrile
Oxidation oven
Schematic diagram of acrylic tow oxidation
Acrylic low passing through an air oven at 200 C
Typical differential scanning calorimeter curves (heating rate 20 C/min)
The structure of polyacrylonitrite chain segments cyclising and transforming into a ladder like, oxidised chain
The oxidation process
properties
Cross sectional micrographs of Courtelle fibres
General properties of oxidised acrylic Fibres
Applications
Economic considerations
Operational costs of fireblocking fabrics fitted to passenger seats in selected British Airways aircraft in 1986
heat treated oxidised acrylics
Polybenzimidazole, PBI (CT)
Development and structure
High performance fibres

SYNTHESIS AND FIBRE MANUFACTURE

PBI polymerisation
Fibre properties and applications
Thermal stability of PBI fibre
Tensile strength after immersion in inorganic acids and bases
Thermal linear shrinkage of PBI fibre after 24 hours exposure
Thermogravimetric analysis of PBI fibre in air and nitrogen.
Acid vapour resistance of PBI fibre after exposure to sulphuric acid vapour 75% (w/v) concentration
Tensile strength after immersion in organic chemicals
Polybenzoxazoles, PBO (ARH)
Typical physical properties of PBI fibre
PBI fibre available products
Final comments (ARH)
Summary of thermal and flammability parameters
Peak heat release (PHR) values for selected heat resistant fibres and polymers

ARAMID FIBRES

Polymer preparation
Basic synthesis
The aromatic polyamide polymerisation process
PPTA synthesised by low temperature polycondensation of p-phenylene diamine (PPD) and terephthaloyl chloride (TCI)
The Higashi synthesis polycondensation of terephthalic acid and p-phenylene diamine.
The Higashi triaryl phosphite reaction
Polymer chemical structure of Technora
Copolyamides
Other aromatic polyamides
Spinning
Solution properties
Spinning of fibres
Schematic representation of the liquid crystalline solution
Schematical representation of the extrusion of the liquid crystalline solution in the dry jet wet spinning process
Crystal orientation of para aramid fibre
Armid Types
Aramid types
Structure and properties
Characteristics of aramid fibres
Structure
Schematic representation of the microstructure of (a) semicrystalline polymers such as nylon 6 and (b) PPTA (fibre axis vertical)
Radial pleated structure model of PPTA fibre
Analysis of mechanical properties
Some useful comparisons between aromatic polyamides and copolyamides
TMolecular requirements for improved characteristics of HM-HT aromatic fibres
Schematic representation of a fracture model of PPTA fibre.
A selection of observed mechanical properties
Typical stress strain curves of (a) Kevlar fibres (b) other commercially representative industrial yarns
Properties of commercially representative reinforcement fibres
Applications
Systems engineering
Aramid market segments and key attributes
Ballistic and life protection
Protective clothing with a focus on fire protection
Advanced composites
Stress strain behaviour for unidirectional reinforced epoxy matrix composites
Other important applications and future directions

HIGH MODULUS HIGH TENACITY (hm-ht) FIBRES

Melt spun wholly aromatic polyester (DB)
Thermotropic liquid crystal polymers
Schematic of molecular chain structure of fibres
Vectra and Vectran
Vectran fibre chemical structure
Fibre production
Properties for high strength thermotropic LCP fibres
Fibre properties
Comparison of fibre to fibre abrasion resistance
Tensile strength vs flexural fatigue of Vectran HS and aramids
TLCP parallel strand rope stress relaxation
Applications
Commercial uses for TLCP fibres

PBO AND RELATED POLYMERS (RTY AND CLS)

Introduction
Chemical repeat units of related ordered polymers (a) PBT (b) ABPBO
Manufacture of PBO fibres
Simplified schematic of PBO polymerisation
Structure of PBO fibres
Properties of PBO fibres
Wide angle X-ray diffraction pattern of a single PBO fibre, showing the high degree of molecular orientation characteristic of rigid rod polymer fibres (The fibre axis is vertical)
Scanning electron micrograph of a damaged PBO fibre, showing the surface skin and fibrillar structure.
Mechanical properties of a range of high performance fibres
Applications of PBO fibres
Conclusions
PIPD or M5 rigid rod polymer (DJS)
A new HM-HT fibre

MONOMER SELECTION AND SYNTHESES

Polymerisation
Spinning and fibre properties
The crystal structure of M5-HT seen along the chain axis
Applications and outlook
Russian aromatic fibres (KEP)
Monomers and polymers
Provisional characterisation of M5 fibre, spun at bench scale, compared with commercial fibres
Structural units derived from reactants investigated in Russian HM-HT fibre research
Polymer solutions and fibre formation
Fibre production
FIBRE PRODUCTION

Principal scheme for fibre production based on heterocyclic polyamides and copolyamides
Para aramid and PHA fibre structure features
Stress strain plots for Terlon yarns
Stress strain plots for SVM yarns
Stress strain plots for Armos yarns
Fibre mechanical properties
Fibre Structure
Mechanical properties
Anisotropy of mechanical properties
Thermal Properties
Effect of ageing on mechanical properties
Fire resistance and thermal characteristics
Armos fibres and applications
Properties of high modulus reinforcement and technical yarns
Properties of highly thermally stable yarns

MODIFIED FIBRES

Property comparison of heterocyclic polymer fibers-mother fibres and modified fibres
Comparison of tenacity and fire resistance of various aramid and other fibres
Conclusions
Specific mechanical properties
The SSE process
Solid state extrusion high molecular weight polyethylene fibres (GW)
Schematic view of conjugating process
Process description
Structural changes during SSE
Structure of the final solid state extruded product
Structure
Properties
Strength comparison of various yarns
Tensile strength (g/d)
Effect of temperature on thermal strength
Effect of temperature on heat shrinkage
Creep elongation at 20% breaking load
UV resistance (light and water exposure test based on JIS B 7754)
Effect of surface treatments on interiaminar shear stress (ILSS)
Applications
Economics

POLYESTER FIBRE MANUFACTURING PROCESS

Polyester fibre
Fibre manufacturing process
Fibre Specification
Denier
Cut Length
Tensile Properties
Crimp Properties
Spin Finish
Dry heat Shrinkage
Dye take up
Fused Fibres
Lustre
Physical and chemical
properties of polyester fibre
Problems which occur during manufacture of polyester steple fibre
Polymerisation
Melt spinning
Cutting
Problems faced in polymerisation
Properties of Polymer
What can spinning mills do to overcome this problem
Problems faced in melt spinning
Control of C.V% of Denier
Fused fibres
Problems faced at draw line
Spin finish
Crimp
Undrawn fibre
Plasticised fibre
Tenacity/Dye ability Problems faced in cutting/baling
Nail Head/Tip Fusion
Opening of fibre cluster after opening
Over length/Multi length

SPECIALITY FIBRES IN POLYESTER

High/low shrink fibres
Micro denier
Flame retardant
Cationic dyeable
Easy dyeable
Low pill
Antibacterial
Super high tenacity
Modified cross section
Conducting fibre
Low melt fibre

POLYAMIDE FIBERS

Introduction
Type of Polyamides
Nylon 6 and 6.6
Aramid fibers
Other Polyamides
Manufacturing of Polyamide filaments

POLYOLEFIN FIBERS AND VINYL FIBERS

Polyolefin fibers
Vinyl Fibers
Vinon
Vinal
Vinyon vinal matrix fiber
Saran
Polytetrafluoroethylene

ACRYLIC FIBERS

Acrylic
Modacrylic
Nytril
Lastrile

RECYCLING OF POLYMERS

Recycling Methods

RECYCLING OF POLY (ETHYLENE TEREPHTHALATE)

Direct Reuse
Combined recovery of silver and PET
PET degradation by glycolysis, hydrolysis, and methanolysis
Reuse after Modification
Glycolysis
Flow diagram of a typical system for glycolytic recycling of PET waste
Methanolysis
Ammonolysis
Hydrolysis
Depolymerization in Supercritical Fluids
Enzymatic Depolymerization
Main reaction of PET depolymerization in superitical methanol
incineration

RECYCLING OF POLYURETHANES

Reprocessing of polyurethane waste by thermopressing
Thermopressing Process
Kneader Process
Recycling of polyurethane waste via partial decomposition in kneader
Hydrolysis
Glycolysis
Ammonolysis
Stoichiometry of ammonolysis reaction of a polyetherurethane
Alcoholysis of polyurethane (PU) waste. By the action of small chain alcohols (e.g.diol), PU is decomposed yielding homogeneous, liquid and mixed polyols
Flow scheme of a chemical recycling process based on ammonolytic cleavage and separation of polyol by supercritical ammonia.

RECYCLING OF POLY (VINYL CHLORIDE)

Recycling of PVC film scrap
Characterization of used PVC
Schematic of cable design
Compounding of cable filler cores
In-Line PVC Scrap
PVC floor Coverings
PVC Roofing sheets
Post Consumer PVC

RECYCLING OF CURED EPOXIES

Process of extraction of epoxy resin dissolved in nitric acid and neutralization of the extract

RECYCLING OF MIXED PLASTICS WASTE

Direct Reuse
Schematic of Radlite technology
Conceptual model of physical compatibilization
Homogeneous Fractions
Liquefaction of Mixed Plastics
Post Consumer Polyethylene Films
Typical route for recycling plastic bags.

RECYCLING OF GROUND RUBBER TIRES

RECYCLING OF CAR BATTERIES

Process steps in preparation of polypropylene regrind.

PLASTIC RECYCLING EQUIPMENT AND MACHINERY

Plastocompactor
Debaling and initial size reduction
Shredder
Cutter or Guillotine
Screw Shredder
Granulators
Fine Grinding
Cleaning and Selection
Dry Separation
Schematic of air stream separator
Wet Separation
Schematic of air stream (cascade) separator
Schematic of vibrating air separator
Other Methods
Resin Detectors Type and Configuration
Automatic Sortation
Typical separation and sorting setups using three main detector systems

PVC/PET AND COMMINGLED PLASTICS SORTATION

Recycle installations

PLANT ECONOMICS OF FIBRE COTTON FROM SILICA SAND

Plant & Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum
PLANT ECONOMICS OF FIBRE GLASS SHEETS

Plant & Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum
PLANT ECONOMICS OF FIBRE REINFORCED PLASTIC

Plant & Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PLANT ECONOMICS OF MEDIUM DENSITY FIBREBOARD

Plant & Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PLANT ECONOMICS OF RECYCLED SYNTHETIC POLYESTER STAPLE FIBRE PLANT

Plant & Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PLANT ECONOMICS OF RUBBERISED CORK SHEET

Plant & Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

The post TECHNOLOGY OF FIBRES WITH MANUFACTURING PROCESSES AND PROPERTIES WITH PROJECT PROFILES (CHEMICALLY RESISTANT FIBRES, FLUORINATED FIBRES, THERMALLY RESISTANT FIBRES, KYNOL FIBRES, ARAMID FIBRES, HM-HT FIBRES, POLYETHYLENE FIBER, POLYESTER FIBRS, POLYAMIDE FIBRES, POLYOLIN FIBRES, ACRYLIC FIBRES & RECYCLING OF POLYMERS) appeared first on EIRI - eBooks and Project Reports.

POLYMER BIODEGRADATION

• Biodegrdation
• Aerobic biodegradation
• Schema of polymer degradation under aerobic and anaerobic conditions
• Anaerobic biodegradation
• Xenobiotics Biodegradation
• Biodegradation of Aronaatic Compounds
• Aerobic benzen biodegradation
• Aerobic naphthalene biodegradation
• Aerobic toluene biodegradation side group attack

BIODEGRADATION OF PLASTICS

• PVA Biodegradation
• Degradation mechanism of polyvinyl alcohol
• Polyesters
• Poly(e-Caprolactone)
• Poly(L-Lactide)
• Aliphatic Polyalkylene Dicarboxylic Acids
• Polyethylene (PE)
• Nylon
• Biodegradation of Polymer Blends
• Starch/Polyethylene Blends
• Starch/Polyester Blends
• Starch/PVA Blends
• Biodegradable Polymers
• Mixtures of Synthetic Polymers and Substances that are Easy Digestible by Microorganisms
• Chemically Modified Starch
• Starch Polymer Composites
• Thermoplastic Starch
• Biodegradable Packing Materials
• The Synthetic Materials with Groups Susceptible to Hydrolytic Micrbial Attack
• Polycaprolactone
• The Biopolyesters
• Polyhydroxyalkanoates
• Poly-B-Hydroxyalkanoates
• Aliphatic Polyester Blends
• Poly(Hydroxyalkanoate)
• Blends of Poly(d.i) Lactide Family
• Conclusion

BIODEGRADABLE POLYMERS AND THEIR PRACTICAL UTILITY

• Polymers directly extracted/removed from natural materials (mainly plants)
• Polymers produced by classical chemical synthesis from renewable bio-derived monomers
• Polymers produced by microorganisms or genetically transformed bacteria
• Natural Polymers
• Amylose structure
• Structure of amylpectin
• Structure of bacterial polyester
• Polymers with Hydrolyzable Backbones
• Polyglycolic acid
• Polycaprolactone (PCL)
• Polyamies
• Natural protein
• Structure of polyglycolic acid (PGA)
• Polyurethanes
• Polymers with Carbon Backbones

PRACTICAL APPLICATIONS OF BIODEGRADABLE POLYMERS

• Medical Applications
• Surgical Sutures
• Dexon
• Polygalactin 910
• Mexon
• Monocryl
• Polydioxanone (PDS)
• Bone Fixation Devices
• Vascular Grafts
• Adhesion Prevention
• Artificial Skin
• Drug Delivery Systems
• Agricultural Applications
• Agricultural Mulches
• Controlled Release of Agricultural Chemicals
• Packaging

STARCH BASED  PACKAGING MATERIALS

• Ingeo TM compostable bottles
• PLA Based Packaging Materials
• BioWare products
• NatureFlex film for vegetable wrapping
• Cellulose Based Packaging Materials
• Pullulan Based Packaging Mateials
• Other Bio-Packaging Solutions
• Partially Biodegradable Packaging Materials
• Profile Extrusion

BIO-PLASTICS AS GREEN AND SUSTAINABLE ALTERNATIVE TO PLASTICS

• Why Bioplastics
• Composition
• Classification
• Poly-iactic Acid
• Synthesis of PLA
• The flow chart of PLA
• Poly iactic acid (PLA) for Plastic Production
• Physical and Chemical Properties
• Some of the properties of PLA
• Unique Characteristics
• Some of the unique characteristics of PLA
• Special Case of Bioplastics
• Water Hyacinth
• Production of  PHB
• Water hyacinth
• Advantages
• Bio-Degradation of Bio-Plastic
• Applications/Uses of Bioplastics
• Advantages of Bio-plastics
• Petro plastic Bottle (70% petro/30% plantbased (sugarcane) PET bottle
• Bio plastic Bottle-100% plant based (food waste)

DISADVANTAGES OF BIOPLASTICS

• Viability of Bio plastics
• Land required for renewable resources
• Renewable resources for food, feed and bioplastics
• Carbon Cycle of Bioplastics
• Bioplastic cycle
• End of life
• Cycle Time
• Bio-plastics vs oil based plastics
• Market and Price of Bioplastics
• Typical Bio plastic cycle
• Conclusions and Discussions

STARCH PLASTICS

• A section of the amylose molecule showing the repeating anhydroglucose unit
• A section of the amylopectin molecule showing the two different types of chain Linkages
• Starch polymers for nonplastic applications
• Overview of starch use for food and non-food purposes in Europe
• Starch plastics-Types and importance
• Starch plastic production technologies
• Production of starch plastics
• Partially fermented starch
• Native Starch
• Destructurised starch (Thermoplastic starch, TPS)
• Chemically modified starch
• Starch Blends
• Properties and uses of various chemical modified corn starch
• Common Non-bio based and biodegradable copolymers used in starch blends
• Biodegradability and biocontent of starch blends
• A scheme for synthesizing reactive starch blends
• Starch composites
• Conversion technologies
• Chemical and physical properties
• Mechanical and thermal properties
• Technical substitution potential
• Applications today and tomorrow
• Partially Fermented Starch Plastic
• Destructurized starch
• Chemically modified starch
• Technical substitution potential for starch plastics (the table below gives the views of the companies questioned)
• Starch Blends
• Main applications for starch blends share of interviewed company’s total production by market sector

STARCH BASED COMPLETELY BIODEGRADABLE POLYMERS

• Structure and properties of starch
• Molecular structure of starch
• Preparation of starch based biodegradable polymers
• Physical blends
• Blend with synthetic degradable polymers
• Thermal and mechanical properties of thermoplastics starch/polylacide (TPS/PLA) blends
• Blend with biopolymers
• Chemical derivatives

APPLICATIONS OF STARCHBASED  BIODEGRADABLE POLYMERS IN FOOD INDUSTRY

• In agriculture
• SEM photograph of strachs PVA/HA hydrogel (scale bar 3 um)
• In medical field
• Conclusions

SYNTHESIS OF BIO-DEGRADABLE PLASTIC FROM CORN STARCH

• Process Overview
• Properties
• Effciency
• Methods
• Hydrolysis of Corn Starch
• Bacterial Fermentation
• Purification of Lactic Acid
• Polymerization
• Results
• Discussion

BIODEGRADATION NATURE OF THERMOPLASTIC STARCH

• Fabrication of thermoplastic starch
• Properties of thermoplastic starch
• Morphology
• SEM micrographs of native wheat starch
• SEM of extruded wheat starch based thermoplastic film
• Conformation of inclusion model of a fatty acid in an amylose helix (Structure)
• Conformation of inclusion model of a fatty acid in an amylose helix (Structure of Vhtype)
• Maximum diffraction angle and average intermolecular distance observed from XRD
• Mechanical behavior
• Tensile properties of wheat flour based TPS having different glycerol content
• Thermal stability
• Glass transition temperature
• Dynamic mechanical analysis of wheat flour based TPS of glycerol
• Dynamic mechanical analysis of wheat flour based TPS of silicon dioxide

BIODEGRADATIN OF THERMOPLASTIC STARCH BASED MATERIALS

• Mineralization of a ground starch film in liquid and solid media
• Scheme of DIN/CEN test used to determine compostability of materials
• Mineralization in liquid and solid media
• Mineralization of co-extruded starch/PLA films in liquid (norm ASTM D-5209-92)
• vermiculture and compost (norm ASTM D-5338-92) media
• Mineralization of co extruded starch/PLA films in liquid (norm ISO/CEN 14852), vermiculture and compost (norm ISO/CEN 14855) media

BIODEGRADABLE MOLDABLE  PRODUCTS AND FILMS COMPRISING BLENDS OF STARCH ESTERS AND POLYESTERS 

• Bar graph showing  water absorption determined by cobb Test Method for  Polyethylene
• Graph of DSC of Films prepared from blends of acetate/propionate modified starch & body
• Graph showing DSC Thermal analysis of an entrnded blend of propionate modified starch
• Graph showing the composition of relative water absorption of unmodified starch, starch ester, and starch ester blend compositions
• Methods (Examples)

CELLULOSIC POLYMERS

• The structure of cellulose
• Major fields of application in which the individual product groups of cellulose ethers are used
• World fibre production 1920-2006
• Cellulosic polymers for non plastic applications
• Inorganic cellulose esters
• World fibre production 1920-2006 (kton)
• Cellulose ethers
• Cellulosic plastics (including fibres)-Types and importance
• Organic cellulose esters
• Regenerated cellulose
• Man made cellulose fibres
• Man made cellulose films
• Rigid cellulose acetate plastics

PRODUCTION OF CELLULOSE PLASTICS (INCLUDING FIBRES)

• Cellulose  acetate
• (CH2COOC2H5) is made by reacting cellulose with acetic anhydride
• Regenerated  Cellulosic Fibres
• The Viscose Process and Lyocell process
• Pulp
• The Viscose Process
• Lyocell process
• Recent R&D on regenerated cellulose
• Pulp
• Fibre designation according to ISO/TC 38
• Cellulose Acetate fibres
• Cellulose Hydrate and Cellulose  Ester Films
• Properties
• Mechanical, thermal and water retention properties of selected staple fibres
• Mechanical, thermal and permeability properties of selected films
• Technical substitution potential
• Applications today and tomorrow

CELLULOSE BASED POLYMERS WITH EXCELLENT MELT PROCESSABILITY

• Thermoplasticity and mechanical properties of new cellulose based polymers
• Properties of cellulose Based Polymers Denatured With a Single Substituent
• Properties of Cellulose Based Polymers Denatured with Multiple Substituents
• Impact Resistance Factors of New Cellulose Based Polymers
• Molding with Test Molds
• Characteristics of the Development Material
• Conclusion

BIODEGRADATION OF LIGNIN

• Lignocellulose
• Lignin in biodegradation studies
• Global carbon cycle
• Microorganisms  during composting
• Compost environment
• Commonly utilized methods for analyzing, isolating, and synthesizing  lignin
• The composting process
• Temperature and pH variation during natural composting process
• Bacteria
• Fungi
• Biodegradation of lignin
• Lignin degrading fungi
• Lignin degrading organisms
• Lignin degrading Bacteria
• Studies in the compost environment
• Studies in which lignin degradation during composting or in soil incubation has not been reported
• Studies in which lignin degradation during composting or in soil has been reported
• Conclusions and comments

BIODEGRADABLE POLYMERIC FILMS (NOVEL LIGNIN STARCH AND LIGNIN GELATIN)

• Experimental
• Materials and methods
• Extraction of lignin from wood chips
• Preparation of Starch Lignin polymer
• Preparation of Gelatin Lignin films
• Preparation of Starch Gelatin Ligninfilms
• Mechanical Testing
• Water absorption Test
• Results and Discussions
• Lists the important properties obtained from the tensile test of various starch lignin films
• Lists the important properties obtained from the tensile test of various gelatin lignin films
• Tensile test of starch gelatin lignin films
• Water absorption test
• Percentage of swelling of 90-10% starchlignin films at various pH
• Percentage of swelling of 80-20% starch lignin films at varius pH
• Percentage of swelling of 90-10% gelatin lignin films at various pH
• Conclusions

LIGNIN GRAFT COPOLYMER

• Experiment
• Isolation and Purification of Soda Lignin
• Graft Copolymerisation
• Fourier Transform Infrared (FTIR)Analysis
• Differential Scanning Calorimety (DSC) Analysis
• Mud Property Test
• Results and Discussion
• FTIR Spectrs
• DSC Thermogram
• Infrared spectra of soda lignin, itaconic acid and LGC.
• Thermogram of soda lignin
• Mud Properties
• Base mud rheological properties at different  concentrations of LGC
• Base mud rheological properties before and after the thermal aging test (before and after rolling at 190 Degree for 16 h)
• Base mud rheological properties before and after the thermal aging test (before and after rolling at 190 Degree for 16 h)
• Conclusion

BIODEGRADABLE PLASTICS AND COMPOSITES FROM WOOD 

• Structure 1
• The Drawings
• Chemical structure of the ester or thisester
• Lignin-Containing material of a vasular plant
• Element & Bonding pattern of Lignin
• Bar graphs of weight loss for each consultant of a blend of grafted & lignin containing material
• Description
• Lignins and Woods Grafted with this Chemistry
• Hydroperoxides Useful in Polymerization of Lignin containing materials
• Some Halides Useful in Polymerization of Lignin containing Materials
• Use of Different Salts with Hydrogen Peroxide to Initiate the Grafting Reaction
• Poly (Lignin-G(1-Amidoethylene) Formed From Various Lignins and with Different Coinitiators
• Synthesis of Polylignin
• Synthesis Data and Physical Chracteristics of Graft Terpolymer
• Synthesis of Poly(lignin-g-(2-propenamide-copolyol) a (Five or Ten oxyethylene units er properoic repeat unit)
• Copolymerization Reactions of Lignin and phenylethylene
• Copolymerization Reactions of Lignin and 1-Phenylethylene

PROCESS DESIGN AND EVALUATION OF BIOBASED POLYHYDROXYALKANOATES (PHA) PRODUCTION

• Process Design and Assessment
• Process Index (SPI) methodology
• Process Intensification (PI)
• Sustainable Process Index (SPI)
• Slaughtering Waste Utilization for Biobased Polyester Production
• Rendering
• Process flowchart
• Hydrolysis
• Biodiesel
• PHA Production
• Biogas
• Conclusions

TRANSGENIC PLANTS PRODUCING POLYHYDROXYALKANOATES

• Polyhydroxyalkanoates (PHAs)
• Polyhydroxybutyrate (PHB) and Polyhydroxy-co-valerate (PHBV)
• Biosynthesis of Polyhydroxybutyrate (PHB) and Polyhydroxy co-valerate (PHBV)
• Commercialization of PHBV by Bacterial Fermentation
• Production of Polyhydroxyalkanoates (PHAS) in Plants
• Arabidopsis thaliana
• Tobacco (Nicotiana tabacum)
• Rapeed (Brassica napus)
• Cotton (Gossypium hirsutum)
• Alfalfa (Medicago sativa)
• Flax(Linium usitatissimum)
• Oil palms (Elaeis guineensis and E.oleifera)
• Construction of PHB and PHBV transformation vectors
• Transformation of PHB and PHBV transformation vectors into oil palm
• Conclusions and future prospects

The post Modern Technology of Biodegradable Plastics and Polymers with Processes (Bio-Plastic, Starch Plastics, Cellulose Polymers and Others) appeared first on EIRI - eBooks and Project Reports.

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 Copolymer (SAN)
Acrylonitrile butadiene styrene-copolymer (ABS copolymers)
Blending
Grafting
Properties
Uses

NYLON 6,6 TECHNOLOGY

Preparation of the Intermediates
Manufacture of Adipic Acid
Manufacture of Hexamethylene Diamine
From Butadiene
Industrial Manufacture of Nylon 6,6
Manufacturing Process
procedure
Fiber Properties
Nylon 6,10
Nylon 11
Nylon 7 Poly (wenanthamide)
Nylon 9; Poly (w-perlargon amide)
Nylonl2
Properties and applications

POLYESTER BASED THERMOPLASTIC ELASTOMER

Beginning
Types
Polyester Thermoplastic Elastomers
Chemistry of Preparation
Microphase Structure
Properties
Manufacturing Processing
Morphological behavior of copolyester TPE
Schematic representation of micro domains forming crystalline and amorphous zones in PBT/PTMO polymer
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
Applications

ALKYD RESINS (POLYESTERS)

Properties of polymerizing polyesters
Typical end-users

POLYPROPYLENE PLASTICS

Introduction
Polyproplene resins:the Unique all purpose family
Self reinforced polypropylene (SRPP) composites
Polypropylene resins compete with engineering plastics and steel
Polypropylene  competes with polyamide
Polypropylene competes with metal
Clear polypropylene compete with inherently transparent polymers
Natural fibre reinforced polypropylene
Lower densities leading to noticeable weight savings
Cheap natural fibres and cheap matrix for appealing cheap composites
Conclusion

MELAMINE FORMALDEHYDE RESINS

Processing of  melamines
Typical end-uses
Moulding Applications
Alpha-cellulose filled melamine formaldehyde
Wood-flour filled melamine formaldehyde
Cotton fabric filled melamines
Asbestos filled melamines
Adhesives
Lamination
Textile Applications
Other characteristics
Typical end-uses

PLASTICS USED IN AUTOMOBILES

Vehicle Systems and Plastics
Interior Systems
Exterior Systems
Under the Bonnet Systems
Other Systems
Newer Applications
Technological Convergence
Technological Upgradation
Haptics
BSR
Fit & Finish
Grain & Texture
Decorative Finishes
Integration through Modules & Systems
Cockpit Module
Door Module
Alternate Materials
Polymer Nanocomposites
Fibre Composites
LGF
Thermochromic Material
Alternate processes
IP Technologies
Fabric Backed Trims
MuCell Process
MFT
Blow Moulding
Role of Adhesives
Interior Systems
Exterior Systems
Body Panels
Under the Bonnet
Other Systems
Soft Trims
Exterior lighting
Automotive Glazing
Sensors

ABS: ACRYLONITRILE BUTADIENE STYRENE COPOLYMERS

Typical Applications
Processing
Typical end uses

POLYTETRAFLUOROETHYLENE

Manufacture of Polytetrafluoroethylene
Uses

PLASTICS BLEND AND ALLOYS

Beginning
Scenerio
Structure
What goes with What
The Technology
PC/ABS blends
Applications
PC/ABS blends
PC/PBT blends
PA blends

POLYVINYLIDENE CHLORIDE PLASTICS

Outstanding properties
Application
Effect of density on properties
Flame treatment
Chemical treatment
Electrostatic discharge treatment
Linear Low Density, Polyethylene LLDPE
Properties of LLDPE
Improved Stiffness
Excellent Puncture Resistance
Lessor Hexane Extractables
Insensitivity to Foreign Matter Inclusion
Blow Moulding
Usage

DEGRADATION OF POLYMER AND STABILISATION

Types of Degradation
Thermal Degradation
Oxidative Degradation
Solvolytic Degradation Hydrolysis
Other Types of Degradation
Degradation by Radiation
Mechanical Degradation
Ultrasonic Degradation

SUPERABSORBENT POLYMERS

Inception
Swelling RatioModulus of Elasticity
Manufacture
Processing of Polymers
Gel Size Reduction
Drying
Grinding and Sieving
Surface cross-linking
Application
disposable Infant Diapers
Adult Incontinence
Construction Materials
Food Packaging

CHEMICAL RECYCLING

Cryogenic Recycling of Bottles
Recycling of Synthetic Carpet Waste
Low-cost Recycle Sorting
Plastics into fuel oil
Recycled Engineering Elastomers

PP-R PIPES & FITTINGS FOR HOT AND COLD WATER SYSTEM

Introduction
appliance
Basic Advantage

THERMOPLASTIC RUBBER COMPOUND

Inception
Equipments used for compounding
Mixing is of two types
Raw materials and Sources
Manufacturing process with formulation
Some typical formulations of TPR compound
Characteristics of TPR compound

THERMOSETTING PLASTICS

Introduction
Kinds of Thermoset Plastics
Phenolic Resins
Phenols
Resols & novolaks
Resol
Novolaks
Acid & Base Catalysts
Basic Conditions
Functionality
Properties
Solubility
Manufacturing of Phenolic Resins
Process (Novolak)
Application of Phenolic Resins
Brakelinings
Grinding Wheels
Grinding Wheels (Abrasives)
Sand core bonding (Foundry)
Shellmoulds for metal castings
Wood waste boards
Impregnation
Adhesives (Plywood Glues)
Surface Coatings
Oil Varnishes
Lamp capping cement
Rubber Based Adhesives
Rubber Compounds
Tackifier
Aminoresins
Chemistry of Urea & Formaldehyde Formaldehyde
Methylol Urea
Dimethylol Urea
U.F. Resin
Melamine Formaldehyde Resin
Applications Moulding Materials
Process
Fillers
Curing Catalysts
Lubricants
Colourants
Manufacturing Process
Applications of Aminoplastic Mouldings
Other Industrial Applications
Laminates
Aminoresins for Laminating
The laminating Process
Decorative laminates
Industrial laminates
Adhesives
Manufacture
Hardners
Extenders
Melamine resin adhesives
Applications
Plywood manufacture
Particle Board & Fibre Boards
Binders for sand cores
Textile Finishing Process
Use of Wet Strength Paper
Coating Applications
The preparation of Butylated Amino resins

VINYL USED IN PIPES

Vinyl in pipe applications
This is the house that vinyl built
Versatility
Value
Durability
Solid Environmental Performance
Vinyl in medical applications
Clarity and transparency
Flexibility, durability and dependability
Sterlizability
Compatibility
Resistance to chemical stress cracking
Ease of processing
Recyclability
Low cost

WOOD PLASTIC COMPOSITE (WPC)

Synopsis
Wood-Thermoplastic composite -A New class of material
Technology status of WPCs
Manufacture & processing Constituents of Wood Composites
Resin
Wood as filler
Wood Flour
Application benefits
Additive
Properties of thermoplastic composites
Applications & Market
Current Scenario
Wood Filled PP Products
Wood filled PP for Door Trims
Conclusion

ACRYLIC BATH TUB AND SHOWER TRAY

Introduction
History of bathtubs and bathing
Claw foot tub
Claw foot tubs come in 5 major styles
Baby bathtub
Whirlpool tubs
Plant Economics of Acrylic Bath Tub and Shower Tray
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

ARTIFICIAL MARBLE (SYNTHETIC)

Introduction
Plant Economics of Artificial Marble (Synthetic
Plant & Machinery
List of Manufacturing Equipment
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

BIODEGRADABLE/COMPOSTABLE PLASTICS

Biodegradation
Materials
Effect of biodegradable plastics
Plant Economics of Biodegradable/Compostable Plastics
Plant & Machinery
Fixed capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn over/annum

DISPOSABLE SYRINGES AND NEEDLE PLANT (SINGLE USE SYRINGES, SINGLE USE NEEDLES & AS SYRINGES)

Rated Plant Capacity
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

HDPE, PVC, LLDPE Pipes/Tubes and Fittings

PVC Pipe Uses
Plant Economics of HDPE, PVC, LLDPE Pipes/Tubes and Fittings
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

NON-WOVEN INDUSTRY (CARRY BAGS, SURGICAL GOWN, FACE MASK, ROUND CAPS, SHOE COVER, GLOVES)

Introduction
Printed Nonwoven Punch bag
Nonwoven Tote Bag W/Zipper
Foldable Nonwoven Tote Bag
Specifications
Nonwoven Shopping Bag
Features of the Non Woven Shopping Bag
Specifications
Products Applications
Uses and Applications
Nonwoven fabric raw material
Shopping bag made of nonwoven fabric
Surgical gown
Stretchable and permeable non-woven protective gloves
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PET PREFORM AND PET JARS (20 LTRS CAPACITY)

Plant Economics of Pet Preform and Pet Jars (Cap 20 Ltrs)
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PLASTIC MOULDED CHAIRS (P.P)

Plant Economics of Plastic Moulded Chairs (P.P.)
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PLASTIC WASTE RECYCLEING UNIT

Introduction
Plant Economics of Plastic Waste Recycling Unit
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PLASTIC WATER STORAGE TANKS

Plant Economics of Plastic Water Storage Tanks
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PLASTICIZERS

Introduction
For Plastics
Ester plasticizers
For concrete
For gypsum wallboard production
Plasticizers for energetic materials
Plasticizer Markets
Plant Economics of Plasticizers
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

PYROLYSIS PLANT FROM PLASTIC AND RUBBER

Plant Economics of Pyrolysis Plant from Plastic & Rubber
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

RIGID PVC FILM MANUFACTURE FOR PHARMACEUTICALS BLISTER PACKAGING

Plant Econnomics of Rigid PVC film Manufacture for Pharmaceuticals Blister Packaging
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

uPVC DOORS AND WINDOWS PROFILE

Plant Economics of UPVC doors and windows profiles
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

WOOD PLASTIC COMPOSITE BOARD LINE

Introduction
Plant Economics of Wood Plastic Composite Board Line
Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/Annum

The post 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) appeared first on EIRI - eBooks and Project Reports.

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

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF  HDPE, PVC & CPVC PIPES AND FITTINGS

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF PET  PREFORM AND PET JARS (CAP-20 LTRS)

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF PLASTIC GRANULES FROM WASTE

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF PLASTIC MOULDED UNIT (CHAIR, TABLES & VEGETABLE TRAYS)

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF PLASTIC WATER STORAGE TANKS

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF PYROLYSIS PLANT FROM PLASTIC & RUBBER

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF THERMOCOLE BASED DISOSABLE PLATES, CUPS AND GLASSES

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF UPVC DOORS AND WINDOWS PROFILES

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

PLANT ECONOMICS OF BIODEGRADABLE/COMPOSTABLE PLASTICS

Plant & Machinery
Fixed Capital
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over/annum

The post Complete Technology Book of Plastic Processing and Recycling of Plastics with Project Profiles appeared first on EIRI - eBooks and Project Reports.

Beginning
Inhouse identification facilities
Laboratory
Equipments to be used
Glasswares and other Accessories
Optional accessories
Chemicals
Solvents
Organic reagents
Inorganic chemicals
Acids and bases
Miscellaneous
Identification of Plastics (Simple Methods)
Physical Identification
Visual appearance
Method of fabrication
Penetration to hot rod and cutting with a knife
Floatation test
Colour
Odour
Burning test
Bending test
Film tear test
Chemical Identification
Pyrolysis test
Solubility test
Softening and melting points
Detection of elements
Preparation of sodium fusion extract
Nitrogen
Chlorine and Bromine
Fluorine
Sulphur
Detection of phosphorus
Preparation of ammonium molybdate solution
Confirmation tests
Tests for Polyolefins
Test for Chlorine Containing Polymers
Test for Caprolactum in Nylon 6
Test for Adipic acid in Nylon 6.6
Test for Polycarbonate
Test for PMMA
Test for Polyacetals
Tests for PET and PBT
Test for Polyurethane
Test for Cellulose in Cellulosics (Molisch Reaction)
Test for acetates and propionates
Test for cellulose ethers
Detection of methyl cellulose
Reaction to heating and burning
Detection of ethyl cellulose
Tests for phenol formaldehyde (PF), urea formaldehyde (UF) and melamine formaldehyde (MF)
Test for epoxy resin
Foucry test
Test for alkyd resins
Test for phthalate
Identification of plastics materials
Thermoplastics
ABS
Acetal
Acrylic
Cellulose acetate
Cellulose acetate butyrate
Cellulose propionate
Fluorocarbons (FEP,CTFE, PTFE, PVF)
Nylons
Polycarbonate
Thermoplastic polyester
PVC
Polyethylene
Polypropylene
Polystyrene
Polyphenylene oxide (PPO)
Polysulphone
Polyurethane (Thermoplastic)
Thermosetting Plastics
Diallyphthalate (DAP)
Epoxy
Phenol formaldehyde
Urea formaldehyde
Melamine formaldehyde
Polyesters
Silicones
Identification of plastics (instrumental methods)Infrared Spectroscopy
Sample preparation
Capillary films
Solutions
Films
Pellets
Mulls
Identification
Monomer content studies
Crystallisation of polymers
Compatibility of polymers
Copolymer composition analysis
Polymer degradation
Thermal Analysis
Differential scanning calorimetry
Thermogravimetric analyser
Pyrolysis Gas Chromatography
Applications
Nuclear Magnetic Resonance Spectroscopy (NMR)
Applications of NMR to polymers

ADDITIVES FOR POLYOLEFINS

Introduction
Types of Additives
Incorporation of Additives
Antioxidants
Types
U.V.Stabilizers
Antiblocking agents
Slip agents
Antistatic agents
Metal deactivators
Colourants
Nucleating Agents
Crosslinking
Flame retardants
Fillers and reinforcing agents
Impact modifiers
Blowing agents
Cling agents
Lubricants & processing aids
masterbatches

VARIOUS PLASTICS APPLICATIONS

Introduction
Plastics for space application
Materials for space
Materials for structural and related applications
Thermal control Materials
Materials for lubricated system
Electronic Components Materials
Materials for adhesion/sealing etc.
Adhesives
Sealant
Plastics Engineering in automobiles
Safety and Economy in Automobiles
Engineering Plastics in Electronics
Properties
Modification of Engineering Plastics
Application in Electronics Industry
Engineering Plastics vs Metals
Capacitors
Plastic Encapsulation of Semi Conductors
Covers and Enclosures
Mechanical and Electrical Parts
Printed Circuit Boards (PCB)
Newer Plastics
High temperature PES
Polyether ether ketone (PEEK)
Engineering Thermoplastics for Mechanical Engineering Applications
Nylon Polyamide
Excellent mechanical load bearing capacity
Favourable friction and abrasion properties
Self lubrication
Vibration and sound damping
Applications in mechanical components
Thermoplastic Polyester
Specific properties
Typical applications in mechanical engineering Polyacetal (POM)
Applications
Polytetrafluoroethylene (PTFE)
Properties
Applications
Ultra High Molecular Weight Polyethylene (UHMWPE)
Properties
Applications
Thermoplastic Polyurethanes
Applications
Polyethylene terephathalate and polybutylene terephthalate in engineering applications
Properties
Processing
Sensitivity to hydrolytic degradation
Low melt viscosity
Precise temperature control
Mould heating
Applications
Electrical
Electronics
Automotives
Domestic applications
Lamps
Mechanical
Building
Plastics in buildings
Plastic Materials
Construction aids
Wall panel
Thermal insulation
Sealants
Adhesives in buildings
Advantages and Disadvantages
Advantages
Disadvantages
Applications of recycled plastics
Recycled LDPE
Recycled PVC
Recycled Polystyrene (PS)
Domestic
Recycled Polyethylene Tetrephthalate (PET)
Recycled Commingied Plastics Waste

BIODEGRADATION OF PLASTICS AND POLYMERS

Mechanisms of degradation in polymers
Photodegradation
Thermal degradation
Chemical degradation
Biological degradation
Factors affecting biodegradability
Effect of Polymer structure, chemical composition and properties
Effect of Environmental factors
Soil texture and structure
Soil temperature
Cation exchange capacity
Soil organic matter (SOM)
Water
Soil pH

BIOMEDICAL APPLICATIONS OF POLYMERS AND PLASTICS

Classification of Biopolymers
Polyester
Polycaprolactone
Poly(b-hydroxybutyrate)
Poly(phosphoesters)
Polycarbonates
Poly(amides)
Polyphosphazenes
Poly(orthoesters)
Polyanhydrides
Factor Affecting Biodegradation
Effect of Polymer Structures
Effect of Polymer Morphology
Effect of Molecular Weight
Effect of Radiation and Chemical Treatment
Biomedical Applications
Surgical Sutures
Bone Fixation Devices

BULK MOULDING COMPOUNDS (BMC)

Overview
Bulk Moulding Compounds
What are bulk Moulding Compounds
Characteristics of Bulk Moulding Compounds
Thermal stability
Flame Retardance
Electrical Properties
Colours
Resistance to Chemicals and Stains
Cost
Storage and Shelf life
Processability
Recyclability
Conclusion
Common uses of BMC in automotive industry

CHEMICAL ANALYSIS OF PLASTICS AND POLYMERS

Introduction
Preparation for Analysis
Preliminary examination
Nitrogen
Chlorine
Sulphur
Phosphorus
Saponification Number
Phenols
Methyl Alcohol
Ethyl Alcohol
Phthalic Acid
Colophony Resins
Other Resins
Nitro groups
Aidehydes
Furfural
Coumarone
Aniline
Glycerol
Carbohydrate (Cellulose)
Acetic Acid
Quantitative analysis
Cellulose Ethers
Methylcellulose
Ethylcellulose
Benzylcellulose
Cellulose Esters
Cellulose acetate
Cellulose acetobutyrate
Nitrocellulose
Polyvinyl Esters
Polyvinyl acetate
Polyvinyl chloride
Polyvinyl chloride acetate
Polystyrene
Polymethacrylic and Polyacrylic Esters
Phenol formaldehyde Condensation Products
Aminoplastis
Proteinoplasts
Aniline formaldehyde
Urea resins
Melamine formaldehyde resin
Thiourea resin
Sulphonemide formaldehyde resins
Nylon
Analysis of aminoplasts
Chlorinated Plastics
Chlorinated rubber
Chlorinated diphenyl
Chlorinated naphthalene
Chloroprene
Natural and synthetic rubber
Plasticizers

CHEMICAL ANALYSIS OF ADDITIVES IN PLASTICS AND POLYMERS

Beginning
Direct spectroscopy of polymer films
Apparatus
Procedure
Preparation of sample film
Recording the infrared spectrum
Measurement of Absorbance
Calibration
Preliminary solvent extraction
Solvent Extraction Procedures
Determination of tinuvin 326 in polypropylene
Apparatus
Reagents
Procedure
Calibration
Polymer Extraction
Determination of phenolic antioxidants
Determination of amine antioxidants
Apparatus
Reagents
Methanol hydrochloric acid solvent
Procedure “A”
Alternate Procedure “B” for PBNA
Determination of plasticizers
Extraction with Single Solvents
Extraction with Mixed Solvents
Multiple Extractions
Improvement of Extractions
Determination of ultra violet absorbers
Method
Apparatus
Reagents
Calibration
Cetting up the fluorimeter
Console controls
Dynode supply
Filter
Recorder
Analysis of Polystyrene
Calculations
Determination of Polygard
Determination of organic peroxides
Determination of p-tert butyl Perbenzoate in Polystyrene
Apparatus
Reagents
Procedure
Calculations
Valuation of styrene, acrylonitrile and methacrylonitrile monomers
Direct Ultra violet Spectroscopic Method for Styrene
Distillation/Ultra violet Spectroscopic Method for Styrene
Polarographic Method for Acrylonitrile
Apparatus
Reagents
Acrylonitrile and styrene monomers Re-distill the monomers immediately before use
Hydrogen or nitrogen extremely low oxygen content
Procedure

CROSS LINKED POLYETHYLENE COMPOUND

Introduction
Plant & Machinery
Radiation crosslinking
Compounding
Applications of radiation crosslinking
Preference of XLPE in cables
Uses of radiation crosslinked polyethylene
Formulations & Processing parameters

DRIP IRRIGATION

What is Drip Irrigation?
Typical setup of Drip Irrigation System
Why Drip Irrigation?
Gvernment Initiative for Popularisation of Irrigation System
Micro Irrigation Scheme
Indian Business
RR+DRTS Together
Important Features of Drip Line Pipe Plant Supplied by R.R.
Drip Emitters DRTS PC Dripper
Why pressure compensating (PC) drippers?
Advantages in slopes
Precision
Lower project cost
Simple Design
Fertilizer advantages

BIODEGRADABLE POLYMER SYSTEMS

Introduction
New tissues using function cells and bio degradable polymer scafffolds
Polymers serve severa Ipurposes
Effective as scaffolds for cell delivery in the generation of new tissue
Some disadvantages of these polymers
Poly (glycolic acid), PGA and poly (lactic acid), PLA and their copolymers
Medical application of PGA
Concerns about degradation
Cross linkable PPF, poly (propylene fumarate)
Polyanhydrides
Polyanhydride for drug delivery applications
Photo cross linkable polyanhydride
Poly carbonates
Polyphosphazene
Poly orthoesters
Polyurethanes
Development of injectable and biodegradable polymer for tissue engineering
Requirements in orthopedic tissue engineering

ELECTRICALLY CONDUCTING POLYMERS

Introduction
Structural features
The band theory of solids and the electrical conductivity of p-conjugated polymers
Doping of organic conjugated polymers
General methods of preparationof conducting polymers
Chemical routes
Electrochemical synthesis
Photochemical synthesis
Attempts to improve the processability of conducting polymers
Electrically conducting polyaniline
Chemical synthesis of emeraldine base
Electrochemical synthesis of polyaniline
Earlier doping studies on polyaniline
Use of Polymer functionalized dopants
Influence of organic sulphonic acids
Polyanilline camphor sulphonic acid/dodpcyl benzene sulphonic acid systems
Secondary doping in polyaniline
Organic phosphonic acids as the dopants
Naturally available organic compound as dopants
Applications of conducting polymers
Conducting plastics in devices
Coaxial cable
Electromagnetic shielding
Thin film trqansistors
Flexible display
Smart windows
Solder
Batteries
Artificial muscle
Biological Sensors
Camouflage coatings
Electroluminescence Lightemitting diode (LED)
Electrostatic materials
Conducting adhesives
Printed circuit boards
Aircraft structures
Molecular electronics
Electrochemical actators
Smart structures

EXPANDED POLYETHYLENE

Beginning
Process
Raw materials
Blowing Agents
Chemical Blowing Agents (CBA)
Physical blowing agents (PBA)
CFC
Butane
Other additives
Open and closed cell foamed plastics
Non-crossedlinked foam
Crosslinked foam
Mouldable Foam beads
properties
Antistatic property
Fire retardant property
Density
Size of cells
Thermal conductivity
Temperature range
Fabrication versatility
Laminate products
Applications
Cushion packaging
Automotive use
Shoes/sports gods
Carpet underlay
Construction
Conclusion

EXPANDED POLYSTYRENE

Introduction
Manufacturing process
Diffusion of blowing agent into Polystyrene
The Quenched Pellet Process
Extrusion process
Processing temperature
Effect of cell nucleating agent
General processing parameters of polystyrene
Some Properties of Polystyrene
properties are to be measured (After foaming)
Applications

HDPE TARPAULINS AS SACKS FOR FRUITS & VEGETABLES

Introduction
11th Plant aimed at doubleing the annual growth rate in the agriculture sector to 4 percent
Growth
Plastics in Agribusiness
Tarpaulin
Advantages of HDPE Tarpaulin
Polyethylene Tarpaulins
Manufacturing Process
Lamination
Sealing
Border making
Machinery
Transportation
Storage
Plastics for Entrepreneurs
HDPE Eyeleted Tarpaulins as sacks for packaging of fruits & vegetales with more number of eyelets for breathability
End Uses of HDPE Tarpaulin
End Uses of HDPE Tarpaulin

HIGH DENSITY POLYTHYLENE (HDPE)

Co-ordination Polymerization (Ziegler Process)
Mechanism
Initiation
Propagation

The post Complete Technology Book on Identification of Plastics and Plastic Products Materials (Additives, Applications, Biodegradation, Biomedical, Bulk Moulding Compound, Chemical Analysis, XLPE, Drip Irrigation, Expanded Polyethylene, Polystyrene & HDPE) appeared first on EIRI - eBooks and Project Reports.

Construction of
Compounds

Material to be compounded
Prepregs

Sheet Moulding
Compounds (SMC)

•     Low Pressure Moulding
•     Compounds
•     VE Moulding Compounds

Sheet Moulding
Compounds Thermoplastic

•     Glass Mat Thermoplastics
•     Stampable Sheets
•     Powder Impregnations
•     Commingled Glass/
•     Thermoplastic Filaments
•     Hot Compaction Technology

Bulk Moulding
Compounds Thermosets

Bulk Moulding
Compounds,
Thermoplastics

•     Composites of Laminar
•     Moulding Compounds
•     Compounding Factors
•     Aggregation of Filters
•     Compounding Basics
•     Additives
•     Fillers
•     Reinforcements
•     Mixing Methods
•     Mixing Evaluation

Manufacturing
Process

•     Product Introduction
•     Fabricating Startup
•     and Shutdown
•     Reinforced Thermoplatics
•     Curing System
•     Curing Agents for TS Polymer
•     Systems
•     Curing Without Accelerators
•     Selecting a Curing System
•     Mould Release
•     Processing and Patience
•     Reinforcement Patterns
•     Perform Processes

Compression Mouldings

•     Compression Transfer Mouldings
•     Cold Press Mouldings
•     Hot Press Mouldings
•     Flexible Plunger Mouldings
•     Flexible Bag Mouldings
•     Hand Lay-Ups
•     Bag Mouldings
•     Vacuum Bag Mouldings
•     and Pressures
•     Wet Lay-Ups
•     Spray-Ups
•     Airless Internal Mixing
•     Bag Moulding Hinterspritzen
•     Contact Moulding
•     Squeeze Mouldings
•     Soluble Core Mouldings
•     Lost Wax Mouldings

Marco Processes

•     Reinforced Resin Transfer
•     Moulding
•     Equipment
•     Mixing Technologies
•     Improvement of Resin
•     Flow and injection
•     Improved Process Controls
•     Feeding and Cleaning
•     Preform Systems
•     RTM Melt Resin
•     Filling Monitoring
•     Bladder Moulding with RRTM
•     Advanced RTM
•     RTM Moulding with Phenolics
•     RTM Moulding with Epoxies
•     Autoclave to VARTM

Infusion Moulding
SCRIMP Process

•     Injection Moulding
•     Moulding Reinforced
•     Thermoplastics
•     Injection Compression
•     Mouldings
•     Vacuum Assisted Resin
•     Injection Mouldings
•     Overmouldings
•     D-LIFT Extruder/
•     Injection Processes
•     Pushtrusion/Injection
•     Processes
•     Injection Mouldings ZMC
•     Liquid Injection Mouldings
•     Pulsed Mouldings
•     Pultrusions
•     Continuous Laminations
•     Other Techniques

Extrusions

Pushtrusion/Extrusion
Procecces
Pulsed Melts
Thermoforming
Reinforced Reaction
Injection Mouldings
RIM Infusion Technology
Polyurethane Processes
Long Fiber Technology
Long Fiber Injection Processes

Rotational Mouldings

Blow Mouldings

Foams

•     Foamed Reservoir Mouldings
•     Centrifugal Mouldings
•     Encapsulations
•     Castings
•     Stampings
•     Cold Formings
•     Comoform Cold Mouldings
•     Filament Windings
•     Tape Windings
•     Fabricating RP Tanks
•     Processing, Equipment,
•     Products
•     Racetrack and other Winders

Calendering

•     Powder Metallurgy
•     Processing Fundamentals
•     Melt Flow Analysis
•     Processing and Thermal
•     Interface
•     Process Control
•     Processing Window
•     Processing and Moisture
•     Drying Operations
•     Plasticator Melting Operation
•     Screw
•     Mixing
•     Screw Wear
•     Wear Resistant Barrel
•     Barrel Heating and
•     Cooling Method
•     Puring
•     Tools
•     Design of a die includes
•     Contact Method
•     Cold Press Moulds
•     (Low Pressure)
•     Resin Transfer Moulds
•     Filament Winding Moulds
•     Injection and Compression
•     Moulds
•     Mould Temperature Controls
•     Hardening/Platings
•     Mould Design for RPIM

Assembly/Joining/
Finishing

•     Joining, Fastening
•     Joints and Adhesives
•     Painting, Surface Finishing

The post TECHNOLOGY OF REINFORCED PLASTICS appeared first on EIRI - eBooks and Project Reports.

INTRODUCTION

DETAILS OF POLYMERS

Types of Polymers
Thermoplastics and Thermosets
Polymer Structure
Homopolymers and Copolymers
Polymer Families
Polymer Blends
Additives
Conversion
Engineering Thermoplastics
Addition and Condensation Polymerization
Aliphatic and Aromatic Polymers
Morphology and Properties
Copolymerization
Additives
Classification of Plastics
Definition
Plastics Classification
Thermoplastics
Thermosettings

TYPES OF PLASTICS

IDENTIFICATION OF PLASTICS

Misecelianeous Observations
Burning  Test
Density Determination
Heating Test
Identification of Plastic Materials
Thermoplastics
ABS
Acetal
Acrylic
Cellulose Acetate
Cellulose Acetate Butyrate
Cellulose Propionate
Fluorocarbons
Nylons
Polycarbonate
Polyethylene
Polyphenylene Oxide (PPO)
Polypropolene
Polystyrene
Polysulfone
Polyurethane (Thermoplastics)
PVC
Thermoplastics
Thermosetting Plastics
Diallyl Phthalate (DAP)
Epoxy
Melamine formaldehyde
Phenol Formaldehyde
Polyesters
Silicones
Urea Formaldehyde

RECYCLING OF PLASTIC WASTE

Conventional Methods
Current Trends
Mechanical Recycling
Mixed Plastic Waste
Feedstock Recycling
Hydrogenation
Synthetic Gas Production
Pyrolysis
Solvolysis
Energy Recovery
A Commonly Used Process for Films  waste
The  Commitment
Optimixing Recycling
Source of Plastic Waste
New Trends
Future

RECYCLING OF THERMOSETS

CHEMICAL RECYCLING

Cryogenic Recycling of Bottles
Recycling of Synthetic
Carpet Waste
Low  cost Recycle Sorting
Plastics into Fuel Oil
Mobile System of Recycling
Recycled Engineering Elastomers

RECYCLING COMMODITIES PLASTICS

Polylelins
Polystyrene
Polyvinyl Chloride PVC

RECOVERY OF CHEMICALS FROM PLASTIC WASTE

Plastic Degradation
Modes of Polymer Degradation
Thermal Degradation
Mechanical Degradation
Photo Degradation
Bio Degradation
Chemical Degradation
Solvolysis
Results and Discussions
ICI, Mitsubishi Rayon Link for Acrylic  Recycling Techniques

FACTORS AFFECTING RECYCLING PROCESS

Pre-Conditions for high value added plastics/recycling
Achievable quality sources of the waste and possibilities to improve the properties
Additives and how they improve processing or quality

AUTOMATIC SCRAP RECYCLING

Film Extrusion
Sheet Extrusion
Injection Moulding
Blow Moulding
Vacuum Forming
Economics

RECLAIMING POLYAMIDE  SPIN FIBRES

Methods of processing PA-spin fibre waste into  high quality compounds
Extrusion line for compounding of PA-Spin fibre  waste  to engineering plastic compounds
Performance capabilities of the TSK-N 60 Compounding  line

EPS RECYCLING  FROM POST CONSUMER EXPANDED POLYSTYRENE

Figure and facts
An Economical way of recycling gives EPS waste a new life
Advantages of this technology
Description of the process  and equipment
Advantages of a co-rotating twin screw extruder in this terminology
General information about the TSK Twin Screw  Extruder Series
Thermoset/Chemical processing machines

NEW PATENTED  PROCESSES

Cryogenic Recycling Technology
Reclaiming Vinyl fabric
New Ideas for efficiency in film Recycling
New innovations  by Sorema
Another Method for Reprocessing
Most used scrap emanating
Patented Process for Recycling Expanded Polystyrene
One Pass Extruder for Reclaiming Film Scrap
Recycling Polymer Alloys
New Technology Eliminates Paint Stripping
Technology from Alida Recycling Ltd. to Reclaim Polyethene Films Label P.V.C. Adhesive  etc. All
get separated
Recycling mixed waste

ENVIRONMENTAL HEALTH AND FUTURE  PROSPECTS

Environmental Health and Future Prospects
Hazardous Effects of Plastics
Polluting  Substance
Air Pollution
Safety Pollution
Safety Measures
Product Safety
Future Prospects
Improving working  conditions and the environment
Technology transfer and development

RECYCLING POLYESTER RESINS

PET and APET
RPET
PETG
CPET
Direct Method
Remelting
Chemical Reduction
Process  Route  of Michigan Technology University

POLYURETHANE  WASTE RECYCLING

RECYCLING AND  GOVERNMENT POLICIES

Regional Co-Operation
Practices abroad -Japan
China
Malaysia

INDENTIFICATION OF PLASTICS

Separation of Laminates
Tests for Physical Properties
Burning Tests
Simplest test for cellulose
Griess Test for Nitrogen
Prepare  Griess Reagent
Lie Burmann-s Torch Morawkli Test
Burning Tests for Plastic Identification
Polyester (Alkyds)
Silicones
Acrylics
Cellulose Acelate
CAB
Cellulose Propionate
Cellulose Nitrate
Ethyl Cellulose
Polystyrene
Styrene Acronitrite (SAN)
ABS
PVC
PVA
Polyvinylidene Chloride
Polypropylene
Polycarbonate
Nylon
Acetals
Teflon
Poly Phenylene Oxide
Poly Phenylene Oxide
Poly Sulphone
Fibre Glass and Asbestos filter
Solvent Required for Polymer Identification

PLASTICS AND THE ENVIRONMENT

American Scenario
Plastics Waste Solutions
Source Reduction
Recycling
Waste to Energy
Fuel Value
Landfills
Conclusion
Biodegradable Plastics
Mechanism of biogradation
Problem encountered
Application

RECYCLING AN INDUSTRIAL APPROACH

Recycling Routes
Physical Recycling
Physical recycling sorting Techniques
Sink Folat Technique
Electrostatic Separation Process (ESTA)
Centrifugal System
Froth Floatation Technique
Recycling Process Machinery
Physical Recycling
Indian Scenario
Physical Recycling Techniques Polyethylene Terephthalate (PET)
Polyolefins (PE and PP)
Polyvinyl Chloride (PVC)
Polystyrene (PS)
Industrial and Engneering Plastics
Chemical Recycling
Incineration
Potential Recycted Plastics Products
Indian Recycling the present status

GET VIRGIN QUALITY FROM REPROCESSED

The World of SB J-Von
Range of TPR Compounds Currently manufactured include
Why TPR
Products to match
Reprocessed Quality with Virgin
The Product
Areas of Application
Advantages
This product has proven its effectiveness in moulded articles like
Test Results
The Product
Physical Properties
The Product
Physical Properties

PLASTIC GRANULES FROM FRESH RESIN

Manufacturing Process of LDPE Granules from LOPE Resin
Plastic filter Granules (PP)
PVC Granules
Process of Manufacture
Plant Economics
Land and Building
Plant and Machinery
Fixed Capital
Raw Materials
Raw Materials
Total Working Capital/Month
Total Capital Investment
Turn Over /Annum
Profit Sales Ratio
Rate of Return
Break Even Point

PLASTIC GRANULES

Process of Manufacture
Concentration of Blending
Removal of Colour to obtain Transparent Granules by Activated Carbon Treatment
Filteration
Distillation
Cooling and Dehumidifying
Granulation
Weighing, filling and Packing
Plant Economics
Land and Building
Plant and Machinery
Fixed Capital
Raw Materials
Total working capital/Month
Total Capital Investment
Turn Over/Annum
Profit Sales Ratio
Rate of Return
Break Even Point

PET BOTTLE RECYCLING

RECYCLING  OF PVC

Coding and Aid to Separation
Recycling of Short Life PVC Products
Bottles
Separation of Hydrocyclones
New Products from Recycled PVC Bottles
Prospects for Chemical Recycling of PVC
Recyclable Vinyl
PVC Bottes, Jars  and Containers
Design Consideration
Physical Properties
Marketing Consideration
Sales and Recyclable
Lower Mold Costs

RECYCLING TECHNIQUES THE NEXT GENERATION

What is resource Conseration?
Why are plastics used?
Importance  of Plastics recycling and waste management for a cleaner  environment
MSW ( Municipal Solid Waste) Analysis
IDPW (Industrial Packaging Waste) Analysis
What does plastic  recycling involve ?
Plastic waste recycling  processes
Challenges in plastic waste recycling
Think Quality A key to success in plastic recycling shredders
Use  of a shredder in the Plastic Industry
Plastic  drums and cans
Lumps, purging and sprues
Thermoforming and injection scraps
Out concern for the environment
Characteristics of a typical plastic reprocessing line
Extruder
Forced Feed
The screen changer
Die face cutter
Conversation of mixed plastics
Stop Press-A new invention
Dissolving for recycle
Conclusion

QUALITY CONTROL TESTS

Suggested Equipment for Tests in Quality Control Laboratory
Testing
Anticipating problems
Integrating disciplines
Data disparities
Tapping resources
Automaed Stations
Plastic Performance Tests
Tensile Strength
Deflection Temperature
Unde Load
Melt Flow Rate
Flexural  Properties
Optical Properties
Glass
Haze
Impact Strength
Izod
Charpy
Charpy
Tensite Impact
Falling Dart
Instrumental Impact

PLANT ECONOMICS OF  PHENOL FORMALDEHYDE RESIN
Rated Plant Capacity
Land and Building
Plant and Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn over/Annum
Profit Sales Ratio
Rate of Return
Break Even Point

PLANT ECONOMICS OF POLY AMIDE RESIN

Rated Plant Capacity
Land and Building
Plant and Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn over/Annum
Profit Sales Ratio
Rate of Return
Break Even Point

PLANT ECONOMICS  OF POLYESTER RESINS

Rated Plant Capacity
Land and Building
Plant and Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn over/Annum
Profit Sales Ratio
Rate of Return
Break Even Point

PLANT ECONOMICS OF POLYCARBONATE RESIN

Rated Plant Capacity
Land and Building
Plant and Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn over/Annum
Profit Sales Ratio
Rate of Return
Break Even Point

PLANT ECONOMICS OF UREA FORMALDEHYDE RESIN

Rated Plant Capacity
Land and Building
Plant and Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn over/Annum
Profit Sales Ratio
Rate of Return
Break Even Point

PLANT ECONOMICS OF ACRYLIC COPOLYER EMULSION

Rated Plant Capacity
Land and Building
Plant and Machinery
Fixed Capital
Total Working Capital/Month
Total Capital Investment
Turn over/Annum
Profit Sales Ratio
Rate of Return
Break Even Point

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The post PLASTIC WASTE RECYCLING TECHNOLOGY appeared first on EIRI - eBooks and Project Reports.

• Scope
• Definitions
• Additives
• Plastics
• Chemical structure of
• Different Types of
• Plastic Additives
• Accelerators
• Accelerator BBTS
• Accelerator MBT, MBT/MG
• Akroform ETU-22 PM
• Accelerator CBTS NEW
• Activator OT Urea
• Cure-Rite® IBT
• Accelerator EZ & EZ-SP
• Antifoams
• SF100
• Antidegradants
• Akrochem Antiox 12
• Ethanox® 314
• Santoflex® IPPD
• Santoflex® 77PD
• Santoflex® 6PPD
• Antioxidants
• Alkanox® P27
• Antioxidant 60
• BLS® 234 NEW
• Alkanox® TNPP
• Antioxidant S
• BLS® 292 NEW
• Alox® PP18 NEW
• 2-(2H-Benzotriazol-2-yl)-4,6-
• bis(1-methyl-1-
• phenylethyl)phenol NEW 11
• BLS® 1622 NEW
• BLS® 1944 NEW
• 2-tert-Butyl-6-(5-chloro-2Hbenzotriazol-
• 2-yl)-4-
• methylphenol NEW
• Cyanox® 1790
• BNX 1077 NEW
• 4,4′-Butylidenebis(6-tert-butylmcresol)
• NEW
• Cyanox® 2246
• BNX 1225TPR NEW
• Cyanox® 1212
• Cyanox® 425
• Cyanox® LTDP
• Diethyl 3,5-Di-tert-butyl-4-
• hydroxybenzylphosphonate
• NEW
• 1,3-Diphenyl-2-thiourea
• NEW
• Cyanox® STDP
• N,N’-Diethylthiourea NEW
• Distyryl biphenyl NEW
• Dibenzylhydroxylamine
• NEW
• O,O’-Dioctadecylpentaerythritol
• distearyl
• bis(phosphile) NEW
• 1,3-Di-o-tolylguanidine NEW
• 3,9-Bis(2,4-dicumylphenoxy)-
• 2,4,8,10-tetraoxa-3,9-
• diphosphaspiro[5,5]
• undecane NEW
• Dipentamethylenethiuram
• tetrasulfide NEW
• 2,6-Di-tert-butyl-4-ethylphenol
• NEW
• 2,6-Di-tert-butylphenol
• NEW
• Ethanox® 330
• Ethaphos® 368
• Ethanox® 310
• Ethanox® 376
• 2,2′-Ethylidene-bis(4,6-di-tertbutylphenol)
• NEW
• Ethanox® 323
• Ethanox® 702
• 2-(2′-Hydroxy-3′,5′-di-tertamylphenyl)
• benzotriazole NEW
• Ethanox® 703
• Irganox® 245
• Irganox® 1035
• Irganox® 1425 WL
• Irganox® 259
• Irganox® 1081
• Irganox® 3125
• Irganox® 565
• Irganox® 1098
• Irganox® 3144 FF
• Irganox® E 201
• Isonox® 232
• Markstat® 60
• Irganox® MD 1024
• Lowinox® AH25
• Naugard® 412S
• Isonox® 132
• Lowinox® CPL
• Naugard® 445
• Lowinox® TBM-6
• Naugard® 635 NEW
• Naugard® 956
• Naugard® HM-22
• Naugard® PHR
• Naugard® A
• Naugard® J
• Naugard® PS-30
• Naugard® B-25
• Naugard® NBC
• Naugard® PS-35
• Naugard® BHT
• Naugard® PANA
• Naugard® Q Extra
• Naugard® RM-51
• Naugard® XL-1
• Bis(2,2,6,6-tetramethyl-4-
• piperidyl) sebacate
• NEW
• Naugard® Super Q
• Propyl gallate NEW
• 2,2′-(2,5-thiophenediyl)
• bis(5-tert-butylbenzoxazole)
• NEW
• Santicizer® 278
• Ultranox® 626
• Antiozonants
• Akrochem® NIBUD
• Akrowax™ 195 NEW
• Blowing Agents/Blowing
• Agents, Plasticizer
• CPW-100
• Celogen® AZ
• Celogen® RA NEW
• Coupling Agents
• Silquest® A-187
• Silquest® A-1102
• Silquest® A-137
• Silquest® A-1100
• Silquest® A-1289
• Silquest® A-2171
• Cross-linking Agents
• F-300, F-1000, F-1500,
• F-2000, F-3000
• Perkacit® MBTS
• Perkacit® ZDEC
• Perkacit® DPG
• Perkacit® NDBC
• Perkacit® MBT
• Resimene® 3520
• Flame Retardants
• Aroclor® 1221
• 2,2′,4,4′-Tetrabromodiphenyl
• ether
• 2,2′,4,4′,6-Pentabromodiphenyl
• ether
• Aroclor® 1232
• 2,2′,4,4′,5-Pentabromodiphenyl
• ether
• Aroclor® 1016
• Aroclor® 1242
• 2,2′,4,4′,5,5′-Hexabromodiphenyl
• ether
• Aroclor® 1248
• Aroclor® 1268
• Aroclor® 6050
• Aroclor® 1254
• Aroclor® 5432
• Decabromodiphenyl ether
• Aroclor® 1260
• Aroclor® 5442
• Firemaster BP4A
• Aroclor® 1262
• Aroclor® 5460
• Halowax 1000
• Halowax 1001
• Halowax 1013
• Halowax 1051
• Halowax 1099
• Saytex® 8010 NEW
• m-Terphenyl
• o-Terphenyl
• p-Terphenyl
• Tetradecachloro-mterphenyl
• Tetradecachloro-oterphenyl
• Tetradecachloro-pterphenyl
• Plasticizers
• Benzoflex® 2-45
• Bisphenol A (BPA)
• Celogen® SD-125
• Citroflex 2
• Citroflex 4
• Citroflex A-2
• Citroflex A-4
• Citroflex B-6
• Cresyl diphenyl phosphate
• NEW
• Dibutyl phthalate
• Dibutyl sebacate NEW
• Diisooctyl phthalate NEW
• Dimethyl adipate NEW
• Dimethyl sebacate NEW
• Dioctyl phthalate (DOP)
• Disflamoll® TKP NEW
• Disflamoll TP NEW
• 2-Ethylhexyl sebacate
• NEW
• Bis(2-Ethylhexyl)
• terephthalate NEW
• Hercoflex® 900
• Hi-Point® 90
• Hi-Point PD-1
• Jayflex® 77
• Jayflex® DIDP
• Jayflex® DINP
• Jayflex® DTDP
• Jayflex® L11P-E
• Jayflex® TINTM
• Laurex®
• Markstat® 51
• Methyl O-Acetylricinoleate
• NEW
• Morflex® 150
• Morflex® 190
• Morflex® 560
• Morflex® x-1125
• Paraplex® G-30
• Plasthall® DINP plasticizer
• NEW
• Plasthall® ESO
• Polycizer® butyl oleate
• Polycizer® DP 500
• Santicizer® 141
• Santicizer® 148
• Santicizer® 160
• Santicizer® 261
• Tributylphosphate NEW
• Triethylphosphate NEW
• 2,2,4-Trimethyl-1,3-
• pentanediol-isobutyrate
• NEW
• Trimellitate NEW
• Vinsol® powder
• Vinsol® resin
• Processing aids
• Akrochem® Ceresin
• Wax NEW
• Kemamide® E ultra
• Retarders
• Akrochem® Retarder
• BAX NEW
• 2-Cyano-2-propyl
• benzodithioate NEW
• 4-Cyano-4-(phenylcarbonothioylthio)
• pentanoic acid NEW
• 2-Cyano-2-propyl dodecyl
• trithiocarbonate NEW
• 4-Cyano-4-[(dodecylsulfanylthiocarbonyl)
• sulfanyl]
• pentanoic acid NEW
• Cyanomethyl dodecyl
• trithiocarbonate NEW
• Cyanomethyl methyl(phenyl)
• carbamodithioate
• NEW
• 2-(Dodecylthiocarbonothioylthio)-
• 2-
• methylpropionic acid
• NEW
• Bis(dodecylsulfanylthiocarbonyl)
• disulfide
• NEW
• Retarder AK
• Bis(thiobenzoyl) disulfide
• NEW
• Stearates
• Stearic Acid RG (rubber
• grade)
• Stearic Acid TP
• UV stabilizers
• Tinuvin® PED
• Uvinul® 3000
• Uvinul® 3008
• Uvinul® 3040
• Uvinul® 3049
• Deuterated Compounds
• Dibenzylphthalate-d4
• Di-n-butyl phthalate-d4
• Di-iso-butyl phthalate-
• 3,4,5,6-d4
• Diethyl phthalate-
• 3,4,5,6-d4
• Diethyl phthalate-
• 3,4,5,6-d4
• Di-n-hexyl phthalate-
• 3,4,5,6-d4
• Di-n-hexyl phthalate-
• 3,4,5,6-d4
• Di-n-octyl phthalate-
• 3,4,5,6-d4
• Di-n-pentyl phthalate-
• 3,4,5,6-d4
• Di-n-propyl phthalate-
• 3,4,5,6-d4
• Bis(2-ethylhexyl) phthalate-
• 3,4,5,6-d4

Chapter 2
Antiblock and Slip Agents

• Antiblocking Agents
• Antiblock Agent for
• Polyolefin Films
• Talc antiblock
• compositions and
• method of preparation

Chapter 3
Antioxidants

• Description
• Phenolics
• Organophosphites
• Synthesis of
• Phosphorochloridite
• 1a and Phosphorodichloridite 2a
• Thioesters
• Deactivators
• Recent developments
• Suppliers
• Trends and forecasts

Chapter 4
Antistatic Agents

• Description
• External Antistats
• Dust Test Method
• Trends and forecasts

Chapter 5
Biocides

• Description
• Preparation
• Method
• Suppliers
• Trends and forecasts

Chapter 6
Chemical Blowing Agents

• Description
• Physical blowing agents
• Chemical blowing agents
• Polycarbonic Acid
• Trends and Forecasts

Chapter 7
Coupling Agents

• Description
• Silanes
• trans-2-methylcyclopentylsilane
• Titanates
• Trends and Forecasts

Chapter 8
Flame Retardants

• Description
• Reactive flame retardants
• Brominated Hydrocarbons
• Phosphate esters
• Chlorinated hydrocarbons
• Antimony Oxide
• Aluminum Trihydrate
• Other flame retardants
• Inorganic phosphates
• Melamines
• Magnesium hydroxide
• Molybdenum compounds
• Zinc Borate
• Driving Forces

Chapter 9
Heat Stabilizers

• Description
• Primary heat stabilizers
• Mixed metal stabilizers
• Lead Heat Stabilizers
• Secondary heat stabilizers
• Alkyl/aryl organophosphites
• Epoxy Compounds
• Beta diketones
• Polyfunctional Alcohols
• Trends and Forecasts

Chapter 10
Impact Modifiers

• Description
• Methacrylate-butadiene-styrene (MBS)
• Acrylonitrile-butadienestyrene (ABS)
• Acrylics
• Acrylic Sheet Production
• Chlorinated polyethylene (CPE)
• Ethylene vinyl acetate (EVA)
• Ethylene propylene diene monomer (EPDM)
• Maleic anhydride grafted EPDM

Chapter 11
Light Stabilizers

• Description
• Benzophenone
• Preparation
• Benzotriazole
• Benzoates and Salicylates
• Nickel Organic Complexes
• Hindered Amine Light
• Stabilizers (HALS)
• Suppliers
• Trends and Forecasts

Chapter 12
Lubricants and Mould Release Agents

• Description
• Lubricants
• Metallic stearates Esters
• Fatty Amides
• Synthetic Protocols
• Cis-9,10-octadecenoamide
• Trans-9,10-octadecenoamide
• Cis-8,9-octadecenoamide
• Cis-11,12-octadecenoamide
• Oleic acid
• Erucamide
• Methyl-8-hydroxyoctanoate
• Methyl-8-bromooctanoate
• Methyl-8-triphenylphosphoranyloctanoatebromide
• Methyl-cis-8.9-octadecenoate
• Cis-8,9 octadecenoic Acid
• 18-Hemisuccinate-cis-9,
• 10-octadecenoamide
• Methyl-9-bromononanoate
• Methyl-9-triphenylphosphoranylnonanoate-bromide
• Methyl-18-t-butyldiphenysilyloxy-cis-9,10 octadecenoate
• 18-T-butyldiphenylsilyloxycis-
• 9,10-octadecenoic Acid
• 18-T-butyldiphenylsilyloxycis-
• 9,10-octadecenoamide
• 18-Hydroxy-cis-9,10-octadecenoamide
• Synthesis of
• Compound 100
• Methyl-9-bromo-nonanoate
• (Intermediate for Compound 100:)
• 9-T-butyldiphenylsilyloxynonanal
• (Intermediate for Compound 100:)
• Methyl-9-triphenylphosphoranylnonanoate
• Bromide
• (Intermediate for Compound 100:)
• Methyl-18-t-butyldiphenysilyloxy-
• cis-9,10-
• octadecenoate
• (Intermediate for Compound 100:)
• 18-T-butyldiphenylsilyloxy-cis-
• 9,10-octadecenoic Acid (Compound 100:)
• Fatty Alcohols
• Waxes
• Mould Release Agents
• Fatty Acid Esters and Amides
• Fluoropolymers
• Silicones
• Suppliers
• Trends and forecasts

Chapter 13
Nucleating Agents

• Description
• Types
• Substituted sorbitols
• Low Molecular Weight Polyolefins
• Sodium benzoate
• Ionomer Resins
• Suppliers
• Trends and forecasts

The book Plastic Additive Technology Hand Book covers Introduction, Antiblock and Slip Agents, Antioxidants, Antistatic Agents, Biocides, Chemical Blowing Agents, Coupling Agents, Flame Retardants, Heat Stabilizers, Impact Modifiers, Light Stabilizers, Lubricants and Mold Release Agents, Nucleating Agents.

Preface
Every activity in modern life is influenced by plastics and many depend entirely on plastics products. Imagine cars without synthetic bumper, dashboards, steering wheels and switches; medicine without plastic hypodermic syringes and artificial hip joints. And what about telecommunications, dependent on plastic telephones, circuit boards and cable insulation. Our entertainment and leisure relies on the unique combination of characteristics offered by plastics in sports equipment and clothing, CDs, video and audio tape, television and cinema – indeed you wouldn’t be able to read this over the internet without plastics! All these plastics products are made from the essential polymer mixed with a complex blend of materials known collectively as additives. Without additives, plastics would not work, but with them they can be made safer, cleaner, tougher and more colourful. Additives cost money, of course, but by reducing production costs and making products last longer, they help us to save money and conserve the world’s precious raw material reserves. In fact, our world today would be a lot less safe, a lot more expensive and a great deal duller without the additives that turn basic polymers in to useful plastics. One way to improve the performance characteristics of plastic products is to compound resins with additives and fillers. Additives help fight against factors such as heat, chemicals or light. There are thousands of additives/fillers on the market today. Below are some of the most common ones used in manufacturing: • Antimicrobials: Used to control the build up of bacteria, fungi and algae on the surface of plastic products. A wide range of chemical and natural compounds are used as antimicrobials. An example would be naturally occurring silver ions used in products such as cell phones or organic acids in food-related products.

• Antioxidants: Used to control the degradation of products due to exposure to air.
• Antistatics: Used to minimize static electricity. These types of additives can be mixed with the resin or applied to the surface of the product. Antistatic additives are common to a wide variety of products ranging from cosmetics to industrial goods to sensitive electronic parts.
• Electrostatic Induction: Used for the economical and even application of polyurethane paints to consumer goods such as automobiles, bicycles and others.
• Fibers: Used to increase strength and stiffness. The most common type of fibers added for strength would be carbon and glass. Glass-reinforced plastic is more commonly known and marketed as fiberglass.
• Conductive fibers: Used to provide special properties for certain applications.
• Lubricants: Used for easier molding or for increased adhesion and viscosity of the molded parts.
• UV stabilizers: Used for the protection of the resin’s mechanical properties by absorbing selective UV rays resulting in less degradation.
• Flame retardants/ Smoke suppressants: A variety of chemicals that can be added to resins to eliminate its tendency to burn. For polyethylene and similar resins, chemicals such as antimony trioxide and chlorinated paraffin are useful.

Author

The post Plastic Additives Technology Hand Book appeared first on EIRI - eBooks and Project Reports.

• Introduction of Extrusion Processes
• Extrusion
• Single-screw Extruder
• Introduction
• Processing
• Material of construction
• Components of extruder are described below :
• Screw Zones
• Important terms associated with the screw design
• Heating & Cooling Systems
• Beaker Plate & Screens
• Downstream Equipements:
• Different types of Film processing techniques
• Stretch-Extrusion Process
• Popular applications of BOPP Film
• Popular applications of HDPE woven Sacks & Cloth
• Blown Film Extrusion
• Extrusion instabilities of Variabilities
• Plastic Handling
• Multiple Screw Extruders
• Single Screw Extruders
• Mixing and Melting
• Venting
• Screen Packs
• Energy Consumption
• Gear Pumps
• Dies
• Basics of Flow
• Special Dies
• Materials of Construction
• Maintenance
• Coextrusion
• Tie-Layers
• Orientation
• Processing Lines
• Blown Film
• Flat Film
• Sheet
• Pipe
• Coating
• Wire Coating
• Coating Wood Profiles
• Coating Films/Foils
• Controls
• Downstream Controls
• Blown Film Extrusion
• A Cool Mix of Water and Air
• Cooling Ring Design
• Inner Cooling
• Water Instead of Air
• Stability and Cooling
• Output and Quality Improvement
• Plants for Multilayer
• Films
• Lamination
• Adhesive Lamination
• Thermal or Heat or Fusion
• Lamination
• Hot Melt Lamination
• Extrusion Lamination
• Dry Paint Transfer-
• Lamination Process
• High Speed Production of Thin CPP Film
• Process Stability
• Film Quality
• Linear Low Density
• Polyethylene Mulch
• Film
• Business with plasticulture
• Agribusiness-India
• Plasticulture
• What is Plasticulture?
• Extruder Operation
• Trouble Shooting
• Details of Processing Equipements
• Post Extrusion Process
• Painting
• Pre-treatment
• Application Methods
• Automated-finishing
• Printing
• Selection Factors
• Post-Moulded Processes
• Vacuum Metalizing
• Equipement and Processing     for Batch System
• Applications
• Semi-continuous Processing
• Semi-continuous Operating
• Cycle
• Applications
• Important Laminates & The Applications
• Co-extruded Film Manufacturin

• Material of Construction
• Barrier Materials
• Designing Barrier Structures
• Applications of Co-Extruded Films
• Conclusions
• Abbreviations used in text
• Production of  Breathable Films and Laminates
• Introduction
• Raw Materials
• Material Drying/Material
• Feeding
• Extrusion
• Feedblock/Die
• Chill and Take-Off Unit
• Thickness Measurement
• Device and Web Inspection
• Stretching Unit
• Unwinder
• Laminating Unit
• Edge-Trin Cutting/Recycling
• Winder
• Manufacture of Extruded Thermoplastic Foam
• High Density Foams
• Low Density Foam
• Extrusion : A Primary
• Processing Technique for Polymers
• Chemically Expanded Foams
• Low Density Process
• Long Barrel Screw Extrusion
• Tandem Extrusion
• Twin Screw Extrusion
• Post Extrusion Equipment
• Primary Raw Materials
• Needed in Foam Production
• Plastic Pipes for Water Supply
• High Density Polyethylene (HDPE) Pipes
• Water Supply
• Special Properties of HDPE Pipes
• Industrial Water Piping
• Large Diameter HDPE Pipes
• Electro Fusion Welding
• Corrugated PE Pipes
• PE Fittings
• Surge Pressure Capability
• PE Resins
• New Opportunities    with PP for Window Profiles
• Overview
• General Properties of PP Grades and Properties
• Processability
• Properties of Windows
• Conclusion
• Corrugator Multilayer Pipe Technology
• History of the Corrugated
• Plastic Pipe and the
• Application Fields
• Transparency “Comparison
• between smooth…”
• Transparency “Difference in    outputs (corrugated pipe compared to smooth pipe)
• Transparency “single wall die head”
• Transparency “die head PVC
• double wall pipe”
• Transparency “die head PE    double wall pipe”
• Transparency “disc die head”
• Variety of Corrugator
• Transparency “horizontal
• Transparency
• “Cooling system”
• Transparent “vacuum
• mould blocks”
• Transparency “UNICOR’s advanced technology”
• Multilayer Pipe Technology
• Advantages like metal
• Transparency of market
• shares in different markets
• Outlook for chinese market
• Option for Cable
• Conduit System
• Is Satelite Technology
• an Alternatives?
• The Structure of Fibre Optic Cable
• Underground Installation of Fibre Optic Cables in Cable Conduits
• Requirements for Fibre
• Fibre Optic Cable Conduits
• Installation Techniques
• Techniques for Inserting Cables into Cable Conduits
• Conduit Types
• Extrusion Lines for Cable Conduits
• Extruders
• Pipe Dies
• Calibration
• Cooling Section
• Take-off devices
• Machine Control
• Example of a Suitale Pipe Extrusion Line Future Prospects

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