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Anticorrosive Rubber Lining: A Practical Guide for Plastics Engineers [Kõva köide]

(Can C Consulting, Chennai, India)
  • Formaat: Hardback, 294 pages, kõrgus x laius: 276x216 mm, kaal: 1160 g
  • Sari: Plastics Design Library
  • Ilmumisaeg: 25-May-2017
  • Kirjastus: William Andrew Publishing
  • ISBN-10: 0323443710
  • ISBN-13: 9780323443715
  • Formaat: Hardback, 294 pages, kõrgus x laius: 276x216 mm, kaal: 1160 g
  • Sari: Plastics Design Library
  • Ilmumisaeg: 25-May-2017
  • Kirjastus: William Andrew Publishing
  • ISBN-10: 0323443710
  • ISBN-13: 9780323443715

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, vulcanization parameters, and more.

This book deals with the important field of anticorrosive rubber lining and its applications in various industries, including oil and gas, nuclear, aerospace, maritime, and many more, highlighting many of the technological aspects involved. The author offers a unique perspective due to the exclusiveness of the case histories presented, including many industrial rubber lining practices which are mostly kept within the industry.

The technical information on rubber presented here is a practical tool to enable engineers to make the best use of rubber linings to prevent corrosion in chemical plants. The book includes valuable insights into bonding systems, surface preparation, and coating methodologies, and also covers failure analysis of failed systems.

  • Includes up-to-date technical information on special compounding and processing technology of recently developed synthetic rubbers
  • Provides detailed case studies from industry sectors, including aerospace, nuclear energy, and mining
  • Presents rare, valuable insider knowledge of current industry practice

Muu info

Offering a unique perspective on industrial rubber lining practices, including sections on the best materials and formulations to use and what's best for a particular application
About the Author xxi
Preface xxiii
Acknowledgment xxv
Introduction xxvii
1 Rubber---A Miracle Material
1(8)
Rubber, an Elastic Concept
1(1)
On Icy Roads and in Ablative Flame
1(1)
In the Beginning
1(1)
Saturation and Unsaturation
2(1)
Hardening and Softening Degradations
2(1)
Crosslinking
3(1)
The Origin of Polymer Science
3(1)
The Polymerization Process
4(1)
Crystalline and Amorphous States
4(1)
Development in Synthetic Rubbers
4(1)
Vulcanization, Accelerators, and Nitric Acid
4(1)
Rubber Compounding Technology
5(1)
Range of Rubbers
5(1)
Anticorrosive Rubber Lining Technology
6(1)
References
6(3)
2 Rubber for Corrosion Protection
9(12)
Types of Corrosion
11(1)
Uniform Attack
11(1)
Galvanic Corrosion
11(1)
Crevice Corrosion
12(1)
Pitting
12(1)
Intergranular Corrosion
12(1)
Selective Leaching
12(1)
Erosion Corrosion
12(1)
Stress Corrosion
12(1)
Types of Rubber Lining Based on Rubbers
12(1)
Corrosion in Industries
13(1)
Fertilizer Industry
13(1)
Power Plants
13(1)
Treatment of Ores
14(1)
Chlor-Alkali Industry
14(1)
Mercury Cells in the Caustic Soda Industry
14(1)
Membrane Technology
15(1)
Flexible Cell Covers
15(2)
Steel Industry
17(1)
Transport Industry
17(1)
Electro-Plating Industry
18(1)
Fluorine Industries
18(1)
Explosives Industry
18(1)
Pulp and Paper Industry
19(1)
Ore and Mining Industry
19(1)
References
19(2)
3 Wear-Resistant Rubbers for Ore and Mining Industries
21(8)
Wear Pattern
21(1)
Conveyor System
22(1)
Slurry Transportation
23(1)
Wear-Resistant Polyurethane Rubber Sheeting
23(1)
Slurry Specification
24(1)
Future of Hydraulic Transportation of Solids
24(2)
Resistance to Abrasion
26(1)
Dry Abrasion
27(1)
Wet Abrasion
27(1)
References
28(1)
4 Chemical Resistance of Biopolymers
29(6)
Research and Development in Biopolymers
29(1)
Styrene-Soybean Polymer
29(1)
Guayule Rubber
29(1)
Biobutadiene Rubber
29(1)
Bio-PDO Polymer
29(1)
Bioisoprene
30(1)
Bio-EPDM
30(1)
Biopolymers Versus Synthetic Polymers
31(1)
Substitute for Fossil Fuels
31(1)
Resistance to Chemicals
31(1)
Soy Protein
32(1)
Biodegradation, Compostability, and Recyclability
32(1)
Environmental Impacts---Carbon Neutrality
33(1)
Future Outlook
33(1)
Current Isoprene Technology Versus Green Isoprene Technology
33(1)
References
34(1)
5 Corrosion Resistance of Fluoropolymers
35(8)
The Difference Between FPM, FKM, and Viton
36(1)
Chemical Resistance of Fluororubbers
36(1)
Temperature Resistance
36(1)
Blends With Other Polymers
36(2)
Pharmaceutical Processing Equipment
38(1)
Key Properties of PTFE
38(1)
Thermal Stability
38(1)
PTFE Paste Extrusion
38(1)
Perfluoroalkoxy
39(1)
Fluorinated Ethylene Propylene
39(1)
Polyvinylidene Difluoride
39(1)
PTFE- and PFA-Lined Pipe and Fittings
39(1)
Expansion Bellows
39(1)
Weathering and Ozone Resistance
39(1)
Flame Retardance
40(1)
Low-Temperature Resistance
40(1)
Use in Vacuum
40(1)
Gas Permeability
40(1)
References
41(2)
6 Rubber Lining for Sea Water Systems
43(8)
Design Considerations in a Sea Water Corrosion Protecting System
44(1)
Epoxy Resin
45(1)
Polyurethane Coating
45(1)
Surface Preparation Methods
45(1)
Specific Corrosion Protection Measures
46(1)
Intake Water Tunnels
46(1)
Trash Rack and Traveling Water Screens
46(1)
Condenser Water Boxes
47(1)
Condenser Tubes and Tube Sheets
47(1)
Piping, Pumps, and Heat Exchangers
47(1)
Field Observations
47(1)
Corrosion-Resistant Materials for Sea Water-Based Systems in Nuclear Power Plants
48(1)
Reference
49(2)
7 Rubber Linings for Oilfield Equipment
51(6)
Well Fluid
51(1)
Completion Fluid
51(1)
Stimulation Fluid
51(2)
Explosive Decompression
53(1)
Effect of Increasing Molecular Weight
53(3)
References
56(1)
8 Curing Technology
57(10)
Principles of Vulcanization
57(1)
Different Methods of Vulcanization
57(2)
Sulfur and Sulfurless Vulcanization
59(1)
Vulcanization With Peroxides
59(1)
Vulcanization Conditions
59(1)
Effect of Thickness
60(1)
Effect of Temperature on Curing Time
60(1)
Effects of Thermal Stability
60(1)
Techniques of Vulcanization
60(1)
Compression Molding
60(1)
Transfer Molding
61(1)
Injection Molding
61(1)
Isostatic Molding
61(1)
Open Cures
61(1)
Continuous Vulcanization System
62(1)
Cold Vulcanization
62(1)
Cure With High-Energy Radiation
62(1)
Optimum Cure
62(2)
Tensile Strength
63(1)
Modulus
63(1)
Hardness
63(1)
Control of Production Cures
64(1)
Curing Time
64(1)
Common Defects in Vulcanizates
64(1)
Air Blisters
64(1)
Tearing
65(1)
Porosity
65(1)
Debonding From Metal
65(1)
Surface Scorching
65(1)
References
65(2)
9 Rubber Lining for Nuclear Equipment
67(6)
Radiation Environment and Upgradation of Rubber Compounds
67(1)
Acceptance Criteria of Radiation-Resistant Rubber Compounds
67(1)
Aging by Radiation and Heat
67(1)
Rubber Lining of Tanks and Pipes
68(1)
Recommendations for System Components in the Nuclear Plant
68(1)
Polychloroprene Rubber
69(1)
Teflon (Polytetrafluoroethylene)
69(1)
Ethylene-Propylene-Diene-Monomer
69(1)
Polyurethanes
70(1)
Radiation Exposure
70(1)
Water Absorption
70(1)
Synergy Effects Between Radiation and Heat
70(1)
Units of Radiation
70(1)
Water Treatment Plant Installed in Nuclear Installations
70(1)
Radiation Units
71(1)
Selecting Elastomers for Nuclear Plant Applications
72(1)
References
72(1)
10 Rubber Lining for a Sulfur Dioxide Scrubbing System
73(4)
Sulfur Dioxide Corrosion and Atmospheric Pollution
73(1)
Rubber Linings
74(1)
Atmospheric Pollution
74(1)
Methods of Fuel or Flue-Gas Purification
75(1)
References
76(1)
11 Raw Materials for Rubber Lining Compounds
77(10)
Introduction
77(1)
Natural Rubber
77(1)
Synthetic Rubbers
77(3)
Polyisoprene Rubber
77(1)
Polybutadiene Rubber
78(1)
Butyl Rubber (Isobutylene Isoprene Rubber---IIR)
78(1)
Ethylene-Propylene Rubber
79(1)
Chloroprene Rubber (Neoprene)
79(1)
Chlorosulfonated Polyethylene Rubbers (Hypalon)
79(1)
Acrylonitrile-Butadiene Rubbers (Nitrile)
79(1)
Styrene-Butadiene Rubbers
80(1)
Thermoplastic Elastomers
80(3)
Applications
83(1)
Vulcanizing and Curing Agents
83(1)
Accelerators
83(1)
Materials for Reinforcement
84(1)
Carbon Black
84(1)
Nonblack Fillers
84(1)
China Clay
84(1)
Talc
84(1)
Titanium Dioxide
84(1)
Zinc Oxide
84(1)
Lithopone
84(1)
Litharge
85(1)
Antimony Trioxide
85(1)
Zinc Stearate
85(1)
Plasticizers, Softeners, and Extenders
85(1)
Peptizers
85(1)
Process Oils
85(1)
Paraffin Wax
85(1)
Resins
85(1)
Antioxidants and Antiozonants
85(1)
Adhesives and Bonding Agents
85(1)
Solvents
86(1)
12 Rubbers Mostly Used in Process Equipment Lining
87(16)
Neoprene Rubber
87(1)
Compounding Neoprene for Tank Lining
88(1)
Hypalon Rubbers
89(1)
Compounding Hypalon for Tank Lining
90(2)
Butyl Rubber
92(2)
Ethylene-Propylene-Diene Monomer Rubber
94(1)
Silicone Rubbers
95(1)
Fluorocarbon Elastomers
96(1)
Natural Rubber
96(4)
Synthetic Ebonites
100(1)
References
101(2)
13 Compounding Rubbers for Lining Applications
103(12)
Design of Compound Formulations
104(3)
Choice of Ingredients
104(1)
Viscosity Control
104(1)
Nerve Control
104(1)
Sticking to the Mill Rollers
105(1)
Sheeting
105(1)
Tack
105(1)
Scorching
105(1)
Hardness and Modulus
105(1)
Elasticity
106(1)
Strength
106(1)
Resistance to Tear
106(1)
Resistance to Flex Cracking and Fatigue
106(1)
Resistance to Heat
107(1)
Resistance to Flame
107(1)
Resistance to Gas Permeation
107(1)
Bonding
107(1)
Processing Characteristics
107(3)
Mastication
108(1)
Mixing
108(1)
Calendering
108(1)
Extrusion
109(1)
Molding
110(1)
Proportion
110(1)
Silica and Carbon-Filled Butyl Rubber Vulcanizates
110(1)
Compounding Elastomers of Low Cure Functionality
111(3)
Class A
111(1)
Class B
112(1)
Chemical Reaction of Polymers
112(1)
Resistance to Halogens
112(1)
Resistance to Hydrogen Sulfide
113(1)
Epoxidation by Hypochlorous Acid
113(1)
Hydrochlorination of Rubbers
113(1)
Heat Evolution During Vulcanization of Ebonites
113(1)
References
114(1)
14 Technoeconomic Aspects of Nonrubber Linings---Glass, FRP, and Lead
115(14)
Glass Lining
115(1)
Historical
115(1)
Development of Industrial Glass Lining
116(1)
Manufacturing Process
117(1)
Fabrication of Vessels
117(1)
Manufacture of Glass/Enamel
117(1)
Application of the Enamel
117(1)
Firing or Curing of Glass
117(1)
Fitting
118(1)
Furnace Designs
118(1)
Precautions to be Taken With Glass-Lined Equipment
118(1)
Industrial Applications of Glass-Lined Equipment
118(1)
Corrosion Resistance
118(1)
Flexibility
119(1)
Purity
119(1)
Ease of Cleaning
119(1)
Economy
119(1)
Absence of Catalytic Effect
119(1)
Fiberglass Reinforced Plastic Lining
119(4)
Historical
120(1)
FRP---A Potentially Advantageous Material
120(1)
Resins Used in the Manufacturing Process
121(1)
Application Techniques
121(1)
Testing of FRP Lining
122(1)
Lead Lining
123(4)
Lead for Radiation Protection
124(1)
Properties of Lead for Radiation Shielding
124(1)
Attenuation of Neutron Particles
124(1)
Other Factors
124(1)
Lead Lining Application Procedure
125(1)
Design of Vessels and Equipment
125(1)
Cladding
125(1)
Sheet Linings
125(1)
Homogeneous Linings
125(1)
Thickness of Linings
125(1)
Factors Affecting Design of Lining
126(1)
Lead Burning
126(1)
Adhesion Test
126(1)
References
127(2)
15 Manufacturing Rubber Sheets and Application Procedures
129(14)
Mastication
129(1)
Sheeting
129(1)
Rubber Lining
130(1)
Role of Impurities
130(1)
Working Temperature
131(1)
Lining Thickness
131(2)
Design and Fabrication of Lining Supports
133(1)
Adhesive Coating
134(1)
Application of Calendered Sheet
134(1)
Autoclave Vulcanization
135(1)
Inspection
135(1)
Adhesive Manufacture
135(1)
Rubber Lining of Large Storage Tanks
136(1)
Sheet Dimension
137(1)
Sheet Laying and Rolling
137(1)
Procedure of Tank Inspection Before Lining
138(1)
Rubber Lining of Pipes
138(2)
Storage of Rubber-Lined Pipes
140(1)
Surface Preparation for Rubber Lining
140(1)
Methods of Surface Preparation
140(1)
Waterblasting
141(1)
References
142(1)
16 Adhesive Formulations for Rubber-to-Metal Bonding Systems
143(8)
Adhesive Criteria
143(1)
Elastomer Criteria
143(1)
Curing Process Effects
143(1)
Chemical-Bonding Technique
144(1)
Facts of a Rubber/Metal Bond
145(1)
Selection of Bonding Agent
145(1)
Substrate
145(1)
The Bonding Process
145(1)
Application of Bonding Agents
146(1)
Compounding of Rubber
146(1)
Method of Manufacture of Adhesive Cements
146(1)
Adhesive Formulations for Rubber Lining
147(2)
References
149(2)
17 General Rubber Lining Guidelines
151(8)
Metal Surface
151(1)
Primer Coat and Adhesive Coat
151(1)
Lining Guidelines
151(1)
Lining of Pipes
151(1)
Repairs to Rubber-Lined Equipment
152(1)
Lining Life of Rubber Linings in Bleach (Sodium Hypochlorite) Service
153(1)
Hydrochloric Acid and Tank Linings
153(1)
Rubber Lining at Site
154(1)
Insulation
154(1)
Cleaning
155(1)
Primer Coat
155(1)
Cutting Rubber Sheets
155(1)
Application of the Lining
155(1)
Inspection Before Curing
156(1)
Spark Testing Voltage
156(1)
Curing Methods
156(1)
Using Vessel as an Autoclave
156(1)
Atmospheric or Exhaust Steam Curing
157(1)
Inspection After Curing
157(2)
18 Fabrication of Equipment for Rubber Lining Suitability
159(6)
Pipe Fittings
159(1)
Tanks and Accessories and Fittings
159(1)
Mild Steel Vessels
159(2)
Equipment in Dynamic Service
161(1)
Dished Ends
161(1)
Pipes
161(3)
Metal Defects Detrimental to Rubber Lining
164(1)
19 Testing of Rubber Lining
165(8)
Generally Conducted Tests on Rubber/Plastics
165(1)
Ash Content
165(1)
Bulk Density
165(1)
Carbon Black in Olefin Plastic
166(1)
Compression Set Under Constant Deflection
166(1)
Compression Properties
166(1)
Charpy Impact Test
166(1)
Coefficient of Friction
166(1)
Deflection Temperature Under Load
166(1)
Density and Specific Gravity
166(1)
Durometer Hardness (Shore Hardness)
166(1)
Interrelationship of Rubber Properties
167(1)
Differential Scanning Calorimeter
167(1)
Flexural Properties
167(1)
Flammability
168(1)
Fourier Transform Infrared Spectrometry
168(1)
Peel Test
168(1)
Surface Resistivity and Volume Resistivity
168(1)
Tensile Test of Plastics
168(1)
Tensile Test of Rubber
168(1)
Thermogravimetric Analysis
168(1)
Water Absorption
168(1)
Visual Check on Rubber Lining
168(1)
Chemical Testing
169(1)
Density of Solids
169(1)
Spark Testing
169(1)
The Principle of the Spark Tester
169(1)
Swelling Test
170(1)
References
171(2)
20 Specifications and Codes of Practice
173(6)
References
176(1)
Useful Websites
177(2)
21 Some Typical Process Conditions in Chemical Industries
179(4)
Mineral Acids
179(4)
Sulfuric Acid
179(1)
Nitric Acid
179(1)
Hydrochloric Acid
179(1)
Hydrofluoric Acid
180(1)
Phosphoric Acid
180(1)
Typical Chemical Process Conditions
180(1)
Digesters in the Bauxite Ore Industry
180(1)
Filter Drum in Sulfamic Acid Manufacture
180(1)
Agitators Handling Abrasive Slurries in Acids
181(1)
Impellers in Phosphatic Fertilizer Plants
181(1)
Ebonite Brine Filters in the Caustic Soda Industry
181(1)
Clarifiers in a Caustic Soda Plant
181(1)
Runners in a Fertilizer Plant
181(1)
Phosphoric Acid Attack Tank in a Fertilizer Plant
181(1)
Dryer Scrubbers in Fertilizer Plants
182(1)
Brine Dechlorination Tank in the Caustic Soda Industry
182(1)
Slurry Handling Buckets in the Cement Industry
182(1)
Road Tanker for Phosphoric Acid Transportation
182(1)
22 Aging, Service Life, and Prediction
183(8)
Suggested Materials for Improving the Aging of Rubber Vulcanizates
184(1)
Accelerators
184(4)
Phenols
184(1)
Primary Aromatic Amines
184(1)
Oxidation
185(1)
Heat
185(1)
Flexing
185(1)
Ozone
185(1)
Light
185(1)
Sulfur
185(1)
Metals
186(1)
Fluids
186(1)
Predicting Life of Lining
187(1)
Hydrochloric Acid Tank Lining Life
187(1)
Residual Life of Natural Rubber Lining in a Phosphoric Acid Storage Tank Installed in a Port Terminal
188(1)
Immersion in Fluids
188(1)
References
189(1)
Further Reading
189(2)
23 Failure Analysis Methodology
191(8)
Methodology
191(1)
Inspection
191(1)
Analysis
192(5)
Identification
192(1)
Environmental Stress Cracking
192(1)
Dynamic Fatigue
193(1)
Chemical Attack
193(1)
Thermal Degradation
194(1)
Failure Caused by Ultraviolet Degradation
194(1)
Piping Layout
194(1)
Hydrolysis
194(1)
Creep and Relaxation
194(1)
Other Failure Modes
194(1)
Holistic Design
195(1)
Maintenance of Rubber-Lined Vessels
195(1)
Premature Aging
196(1)
Storage of Rubber-Lined Equipment
196(1)
Future Considerations
196(1)
References
197(2)
24 Implications of Forensic Engineering on Rubber Lining
199(6)
Analytical Method
200(1)
Fracture
200(1)
Ozone Cracking
200(1)
Chlorine-Induced Cracking
201(1)
Hydrolysis
201(1)
Ultraviolet Degradation
201(1)
Skid Mark
202(1)
Agitator Blades Failure in a Magnesium Pilot Plant
202(1)
References
203(2)
25 Basic Chemical-Resistant Ebonite Formulations
205(4)
26 Practical Corrosion-Resistant Rubber Formulations
209(8)
27 Infrastructure for Setting up a Rubber Lining Shop
217(4)
Methane and Carbon Dioxide Capture
217(1)
High Market Potential for Anticorrosive Rubber Lining
217(1)
Proximity
217(1)
Direction Principle
217(2)
Lining Bay
218(1)
Calender and Mill Bay
218(1)
Autoclave
218(1)
Prevulcanized Sheet Manufacturing Plant
218(1)
Laboratory
218(1)
Auxiliary Services Infrastructure
218(1)
Water
218(1)
Labor
219(1)
Other Facilities
219(1)
Land and Building
219(1)
References
219(2)
28 Case Studies
221(8)
Case Study 1
221(1)
Waterbox Lining
221(1)
Case Study 2
222(1)
Space Shuttle Challenger Disaster
222(1)
Case Study 3
222(1)
Forensic Study
222(1)
Case Study 4
223(1)
Ammonium Nitrate Explosion
223(1)
Case Study 5
224(1)
Leakage in Loose Hose Flange Connection
224(1)
Case Study 6
224(1)
Pebble Mill
224(1)
Case Study 7
225(1)
Rubber and Ceramic
225(1)
Case Study 8
225(1)
Compounding Development for Flue-Gas Desulfurizing System
225(1)
Case Study 9
226(1)
Wrong Selection of Curing Method
226(1)
References
227(2)
Appendix I 229(2)
Appendix II 231(2)
Appendix III 233(2)
Appendix IV 235(2)
Appendix V 237(2)
Appendix VI 239(2)
Appendix VII 241(2)
Appendix VIII 243(2)
Appendix IX 245(2)
Appendix X 247(4)
Bibliography 251(2)
Glossary of Terms 253(8)
Index 261
Dr. Chellappa Chandrasekaran has over 40 years of experience in the Rubber Industry as a Rubber Technologist, has been exposed to several user industries and has written several books on various topics in Rubber Technology.