Anticorrosive rubber lining : a practical guide for plastics engineers
Anticorrosive Rubber Lining discusses the state-of-the-art in this evolving industry, including sections on the best materials and formulations to use, what's best for a particular application, which repair technique is best for a given application, how long a rubber lining is likely to last, v...
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| Main Author | |
|---|---|
| Format | Electronic eBook |
| Language | English |
| Published |
Oxford, United Kingdom ; Cambridge, MA :
William Andrew,
2017.
|
| Series | PDL handbook series.
|
| Subjects | |
| Online Access | Full text |
| ISBN | 9780323444859 0323444857 0323443710 9780323443715 |
| Physical Description | 1 online resource. |
Cover
Table of Contents:
- Front Cover
- ANTICORROSIVE RUBBER LINING
- Series Page
- ANTICORROSIVE RUBBER LININGA: Practical Guide for Plastics Engineers
- Copyright
- Disclaimer
- Dedication
- Contents
- About the Author
- Preface
- Acknowledgment
- Introduction
- 1
- Rubber-A Miracle Material
- Rubber, an Elastic Concept
- On Icy Roads and in Ablative Flame
- In the Beginning
- Saturation and Unsaturation
- Hardening and Softening Degradations
- Crosslinking
- The Origin of Polymer Science
- The Polymerization Process
- Crystalline and Amorphous States
- Development in Synthetic Rubbers
- Vulcanization, Accelerators, and Nitric Acid
- Rubber Compounding Technology
- Range of Rubbers
- Anticorrosive Rubber Lining Technology
- References
- 2
- Rubber for Corrosion Protection
- Types of Corrosion
- Uniform Attack
- Galvanic Corrosion
- Crevice Corrosion
- Pitting
- Intergranular Corrosion
- Selective Leaching
- Erosion Corrosion
- Stress Corrosion
- Types of Rubber Lining Based on Rubbers
- Corrosion in Industries
- Fertilizer Industry
- Power Plants
- Treatment of Ores
- Chlor-Alkali Industry
- Mercury Cells in the Caustic Soda Industry
- Membrane Technology
- Flexible Cell Covers
- Steel Industry
- Transport Industry
- Electro-Plating Industry
- Fluorine Industries
- Explosives Industry
- Pulp and Paper Industry
- Ore and Mining Industry
- References
- 3
- Wear-Resistant Rubbers for Ore and Mining Industries
- Wear Pattern
- Conveyor System
- Slurry Transportation
- Wear-Resistant Polyurethane Rubber Sheeting
- Slurry Specification
- Future of Hydraulic Transportation of Solids
- Resistance to Abrasion
- Dry Abrasion
- Wet Abrasion
- References
- 4
- Chemical Resistance of Biopolymers
- Research and Development in Biopolymers
- Styrene-Soybean Polymer
- Guayule Rubber
- Biobutadiene Rubber.
- Bio-PDO Polymer
- Bioisoprene
- Bio-EPDM
- Biopolymers Versus Synthetic Polymers
- Substitute for Fossil Fuels
- Resistance to Chemicals
- Soy Protein
- Biodegradation, Compostability, and Recyclability [10]
- Environmental Impacts-Carbon Neutrality
- Future Outlook
- Current Isoprene Technology Versus Green Isoprene Technology
- References
- 5
- Corrosion Resistance of Fluoropolymers
- The Difference Between FPM, FKM, and Viton
- Chemical Resistance of Fluororubbers
- Temperature Resistance
- Blends With Other Polymers
- Pharmaceutical Processing Equipment
- Key Properties of PTFE
- Thermal Stability
- PTFE Paste Extrusion
- Perfluoroalkoxy
- Fluorinated Ethylene Propylene
- Polyvinylidene Difluoride
- PTFE- and PFA-Lined Pipe and Fittings
- Expansion Bellows
- Weathering and Ozone Resistance
- Flame Retardance
- Low-Temperature Resistance
- Use in Vacuum
- Gas Permeability
- References
- 6
- Rubber Lining for Sea Water Systems
- Design Considerations in a Sea Water Corrosion Protecting System
- Epoxy Resin
- Polyurethane Coating
- Surface Preparation Methods
- Specific Corrosion Protection Measures
- Intake Water Tunnels
- Trash Rack and Traveling Water Screens
- Condenser Water Boxes
- Condenser Tubes and Tube Sheets
- Piping, Pumps, and Heat Exchangers
- Field Observations
- Corrosion-Resistant Materials for Sea Water-Based Systems in Nuclear Power Plants [1]
- Reference
- 7
- Rubber Linings for Oilfield Equipment
- Well Fluid
- Completion Fluid
- Stimulation Fluid
- Explosive Decompression
- Effect of Increasing Molecular Weight
- References
- 8
- Curing Technology
- Principles of Vulcanization
- Different Methods of Vulcanization
- Sulfur and Sulfurless Vulcanization
- Vulcanization With Peroxides
- Vulcanization Conditions
- Effect of Thickness
- Effect of Temperature on Curing Time.
- Effects of Thermal Stability
- Techniques of Vulcanization
- Compression Molding
- Transfer Molding
- Injection Molding
- Isostatic Molding
- Open Cures
- Continuous Vulcanization System
- Cold Vulcanization
- Cure With High-Energy Radiation
- Optimum Cure
- Tensile Strength
- Modulus
- Hardness
- Control of Production Cures
- Curing Time
- Common Defects in Vulcanizates
- Air Blisters
- Tearing
- Porosity
- Debonding From Metal
- Surface Scorching
- References
- 9
- Rubber Lining for Nuclear Equipment
- Radiation Environment and Upgradation of Rubber Compounds
- Acceptance Criteria of Radiation-Resistant Rubber Compounds
- Aging by Radiation and Heat
- Rubber Lining of Tanks and Pipes
- Recommendations for System Components in the Nuclear Plant
- Polychloroprene Rubber
- Teflon (Polytetrafluoroethylene)
- Ethylene-Propylene-Diene-Monomer
- Polyurethanes
- Radiation Exposure
- Water Absorption
- Synergy Effects Between Radiation and Heat
- Units of Radiation
- Water Treatment Plant Installed in Nuclear Installations
- Radiation Units
- Selecting Elastomers for Nuclear Plant Applications
- References
- 10
- Rubber Lining for a Sulfur Dioxide Scrubbing System
- Sulfur Dioxide Corrosion and Atmospheric Pollution
- Rubber Linings
- Atmospheric Pollution
- Methods of Fuel or Flue-Gas Purification
- References
- 11
- Raw Materials for Rubber Lining Compounds
- Introduction
- Natural Rubber
- Synthetic Rubbers
- Polyisoprene Rubber
- Polybutadiene Rubber
- Butyl Rubber (Isobutylene Isoprene Rubber-IIR)
- Ethylene-Propylene Rubber
- Chloroprene Rubber (Neoprene)
- Chlorosulfonated Polyethylene Rubbers (Hypalon)
- Acrylonitrile-Butadiene Rubbers (Nitrile)
- Styrene-Butadiene Rubbers
- Thermoplastic Elastomers
- Applications
- Vulcanizing and Curing Agents
- Accelerators.
- Materials for Reinforcement
- Carbon Black
- Nonblack Fillers
- China Clay
- Talc
- Titanium Dioxide
- Zinc Oxide
- Lithopone
- Litharge
- Antimony Trioxide
- Zinc Stearate
- Plasticizers, Softeners, and Extenders
- Peptizers
- Process Oils
- Paraffin Wax
- Resins
- Antioxidants and Antiozonants
- Adhesives and Bonding Agents
- Solvents
- 12
- Rubbers Mostly Used in Process Equipment Lining
- Neoprene Rubber
- Compounding Neoprene for Tank Lining
- Hypalon Rubbers
- Compounding Hypalon for Tank Lining
- Butyl Rubber
- Ethylene-Propylene-Diene Monomer Rubber
- Silicone Rubbers
- Fluorocarbon Elastomers
- Natural Rubber
- Synthetic Ebonites
- References
- 13
- Compounding Rubbers for Lining Applications
- Design of Compound Formulations
- Choice of Ingredients
- Viscosity Control
- Nerve Control
- Sticking to the Mill Rollers
- Sheeting
- Tack
- Scorching
- Hardness and Modulus
- Elasticity
- Strength
- Resistance to Tear
- Resistance to Flex Cracking and Fatigue
- Resistance to Heat
- Resistance to Flame
- Resistance to Gas Permeation
- Bonding
- Processing Characteristics
- Mastication
- Mixing
- Calendering
- Prevulcanized Sheet Winding (Prevulcanizing Plant)
- Extrusion
- Molding
- Mold Material
- Mold Dimension
- Rind Cavities
- Proportion
- Silica and Carbon-Filled Butyl Rubber Vulcanizates
- Compounding Elastomers of Low Cure Functionality
- Class A
- Class B
- Chemical Reaction of Polymers
- Resistance to Halogens
- Resistance to Hydrogen Sulfide
- Epoxidation by Hypochlorous Acid
- Hydrochlorination of Rubbers
- Heat Evolution During Vulcanization of Ebonites
- References
- 14
- Technoeconomic Aspects of Nonrubber Linings-Glass, FRP, and Lead
- Glass Lining
- Historical
- Development of Industrial Glass Lining
- Manufacturing Process
- Fabrication of Vessels.
- Manufacture of Glass/Enamel
- Application of the Enamel
- Firing or Curing of Glass
- Fitting
- Furnace Designs
- Precautions to be Taken With Glass-Lined Equipment
- Industrial Applications of Glass-Lined Equipment
- Corrosion Resistance
- Flexibility
- Purity
- Ease of Cleaning
- Economy
- Absence of Catalytic Effect
- Fiberglass Reinforced Plastic Lining
- Historical
- FRP-A Potentially Advantageous Material
- Resins Used in the Manufacturing Process
- Application Techniques
- Testing of FRP Lining
- Lead Lining
- Lead for Radiation Protection
- Properties of Lead for Radiation Shielding
- Attenuation of Neutron Particles
- Other Factors
- Lead Lining Application Procedure
- Design of Vessels and Equipment
- Cladding
- Sheet Linings
- Homogeneous Linings
- Thickness of Linings
- Factors Affecting Design of Lining
- Lead Burning
- Adhesion Test
- References
- 15
- Manufacturing Rubber Sheets and Application Procedures
- Mastication
- Sheeting
- Rubber Lining
- Role of Impurities
- Working Temperature
- Lining Thickness
- Design and Fabrication of Lining Supports
- Adhesive Coating
- Application of Calendered Sheet
- Autoclave Vulcanization
- Inspection
- Adhesive Manufacture
- Rubber Lining of Large Storage Tanks
- Sheet Dimension
- Sheet Laying and Rolling
- Procedure of Tank Inspection Before Lining
- Rubber Lining of Pipes
- Storage of Rubber-Lined Pipes
- Surface Preparation for Rubber Lining
- Methods of Surface Preparation
- Waterblasting
- References
- 16
- Adhesive Formulations for Rubber-to-Metal Bonding Systems
- Adhesive Criteria
- Elastomer Criteria
- Curing Process Effects
- Chemical-Bonding Technique
- Facts of a Rubber/Metal Bond
- Selection of Bonding Agent
- Substrate
- The Bonding Process
- Application of Bonding Agents
- Compounding of Rubber.