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Piping and Pipelines Assessment Guide, Volume 1
By: Keith Escoe
Hardcover | 3 March 2006 | Edition Number 1
At a Glance
560 Pages
22.9 x 15.2 x 2.54
Hardcover
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This volume on piping and pipeline assessment is the only handbook that the mechanical or pipeline engineer needs to assess pipes and pipelines for reliability and fitness-for-service.
* Provides essential insight to make informed decisions on when to run, alter, repair, monitor, or replace equipment
* How to perform these type of assessments and calculations on pipelines is a 'hot' issue in the petrochemical industry at this time
* There is very little information on the market right now for pipers and pipeliners with regard to pipe and pipeline fitness-for-service
Preface | p. xiii |
An Introduction to In-plant Piping and Pipeline Fitness-for-Service | p. 1 |
Introduction | p. 1 |
What Is Piping? | p. 8 |
Areas Where Corrosion Attacks Piping | p. 9 |
The Maximum Acceptable Operating Pressure (MAOP) | p. 9 |
Assessment Procedure | p. 14 |
Classification of Corroded Regions | p. 15 |
External Versus Internal Corrosion | p. 15 |
Localized Versus General Corrosion | p. 15 |
Interaction of Closely Spaced Areas of Corrosion | p. 16 |
Circumferential Extent of Damage | p. 17 |
Welds, Elbows, and Branch Connections | p. 17 |
Corroded Pit Region Interaction Parameters | p. 18 |
Methodology | p. 19 |
Determining the Allowable Length of Corrosion | p. 26 |
Corrosion Allowance | p. 27 |
Assessing Type 3 Flaws | p. 28 |
Burst Test Validation | p. 30 |
Circumferential Corrosion | p. 31 |
Criteria for Circumferential Metal Loss | p. 31 |
Methodology of Circumferential Metal Loss | p. 33 |
Corrosion in Pipe Bends | p. 35 |
Branch Connections and Fittings | p. 37 |
Determining a Maximum Allowable Operating Pressure | p. 37 |
Flaws in Heat Affected Zones of Welds | p. 38 |
p. 39 | |
p. 43 | |
Checking for the Circumferential Direction Criteria | p. 46 |
p. 47 | |
An Introduction to Engineering Mechanics of Piping | p. 50 |
Piping Criteria | p. 51 |
Stress Categories | p. 53 |
Allowable Stress Range for Secondary Stresses | p. 53 |
Stresses Acting on Piping Elements | p. 58 |
Stress Calculations | p. 61 |
ASME B31.1 Code Stress | p. 63 |
ASME B31.3 Code Stress | p. 63 |
The Pipeline Codes-ASME B31.4 and B31.8 | p. 65 |
ASME B31.4-Liquid Transportation Pipelines Code | p. 65 |
ASME B31.8-Gas Transmission and Distribution Pipeline Code | p. 66 |
Flexibility and Stiffness of Piping | p. 68 |
Stiffness and Large Piping | p. 77 |
Flexibility Method of Piping Mechanics | p. 78 |
Pipe Offsets and Loops | p. 79 |
Pipe Restraints and Anchors | p. 87 |
Criteria for Flexibility Analysis | p. 90 |
Example Using the Empirical Flexibility Criterion | p. 91 |
Suggested Criteria for Level of Piping Flexibility Analysis | p. 96 |
Closure | p. 98 |
Fitness-for-Service Topics of Local Thin Areas, Plain Dents, Dents-Gouges, and Cracks for Piping | p. 100 |
Useful RSF Equations Using API 579 | p. 105 |
Assessment Techniques and Acceptance Criteria | p. 110 |
Remaining Life Assessment | p. 110 |
Remediation | p. 111 |
In-Service Monitoring | p. 111 |
Documentation | p. 111 |
Damage Mechanisms | p. 112 |
Blisters and Laminations | p. 115 |
Assessment of Local Thin Areas | p. 116 |
General Metal Loss Assessment | p. 117 |
Individual Point Readings | p. 121 |
Thickness Profiles | p. 121 |
Structural Discontinuities | p. 122 |
Level 1 Part 4 Acceptance Criteria | p. 126 |
Level 2 Assessments | p. 127 |
Level 2 Part 4 Acceptance Criteria | p. 128 |
Local Metal Loss Assessment | p. 129 |
Determining the LTA Boundary | p. 132 |
Level 1 Part 5 Acceptance Criteria | p. 133 |
Level 2 Part 5 Acceptance Criteria | p. 138 |
Assessing Supplemental Loads | p. 141 |
Level 3 Assessments | p. 147 |
Elastic-Plastic Analysis of LTAs | p. 148 |
Common Mistakes Made in level 3 Assessments | p. 152 |
Performing the Remaining Life Assessment | p. 154 |
The MAWP Approach | p. 154 |
The Thickness Approach | p. 155 |
Material Property Data | p. 157 |
Material Property Data Required for Assessment | p. 157 |
Crack-like Flaws | p. 169 |
Remediation of Crack Defects | p. 177 |
Grooves, Plain Dents, and Dents with Gouges | p. 179 |
Plain Dents | p. 179 |
Dents and Gouge Combination Type Flaws | p. 181 |
API 579 Example 5.11.1 Revisited | p. 184 |
Dents and Gouge Combination Example | p. 186 |
Testing for General Metal Loss | p. 189 |
Surface Crack-Like Flaw in a Pipe | p. 190 |
Fitness-for-Service for Brittle Fracture Concerns | p. 201 |
Introduction | p. 201 |
Brittle Fracture Concepts | p. 203 |
Defect | p. 203 |
Stress | p. 204 |
Toughness | p. 205 |
Definitions | p. 208 |
Safe Operation at Low Temperatures Existing Equipment | p. 209 |
Safe Operating Envelopes | p. 209 |
Determining the Basic MAT and Constructing the MAT Curve | p. 213 |
Determining the MAT Using Fracture Mechanics | p. 217 |
Variations to MAT | p. 218 |
Considering the Maximum Allowable Working Pressure | p. 218 |
Material That Is Already Impact Tested | p. 218 |
Pressure Reduction | p. 219 |
Charpy Exemption Pitfalls-Words of Caution | p. 219 |
Welding | p. 220 |
Considerations for Design Codes Other Than ASME | p. 220 |
Selecting Materials and Defining Impact Requirements-New Piping and Components | p. 221 |
Use Good Quality Steel in the Base Case | p. 222 |
Impact Test Temperature | p. 222 |
Determining the CET | p. 223 |
Shock Chilling | p. 227 |
Hydrosatic Test Temperature Minus 10.8[degree]F (6[degree]C) for a 2 in. or Thinner Pipe | p. 227 |
Managing Potential CET Violations | p. 228 |
Cases of Brittle Fracture | p. 228 |
Transient Thermal Stresses | p. 229 |
Thermal Transients in a Pressure Relief Piping System | p. 232 |
Piping Support Systems for Process Plants | p. 237 |
Spring Supports | p. 237 |
Variable Springs | p. 238 |
Constant Springs | p. 243 |
Piping Nozzle Loads on Rotating Equipment | p. 253 |
Pump Nozzle Loads | p. 253 |
Piping Layout Schemes for Rotating Equipment | p. 256 |
Compressor Nozzle Loads | p. 261 |
Nozzle Stiffness and Elastic End Conditions | p. 265 |
Piping Systems Without Springs | p. 269 |
Fluid Forces Acting on Piping Systems | p. 274 |
Nozzle Movements and Thermal Displacement | p. 279 |
Thermal Movements in a Vessel Skirt | p. 290 |
Residual Temperatures in a Branch Pipe | p. 297 |
Residual Heat Transfer Through Pipe Shoes | p. 302 |
Heat Transfer Through a Pipe Shoe | p. 304 |
Emergency Constant Spring Replacement | p. 305 |
Pipe Header Simple Support | p. 310 |
Piping Maintenance and Repairs | p. 323 |
Leaking Pipe Flanges and Hot Bolting | p. 323 |
Leak Sealing by Banding Flange or Wire Seal Peripheral Seal Repair | p. 324 |
Bolted Pipe Clamps | p. 324 |
Flange Insert Clamps (Insert Ring or Tongue Clamps) | p. 329 |
Simple Pipe Clamps with Single Plane Lug Plates | p. 331 |
Clamp Bolts | p. 334 |
Two Planar Clamps | p. 336 |
Elbow Clamps | p. 340 |
Mitered Elbow Clamps | p. 343 |
Clamps with Thrust Loads | p. 345 |
Shear Pins and Serrated Teeth Connections | p. 345 |
Sealants | p. 348 |
Sealant Material Considerations | p. 349 |
Re-injection of Leak Seal Repairs | p. 352 |
Clamp Example 1 | p. 352 |
Clamp Example 2 | p. 354 |
Clamp Example 3 | p. 360 |
Repairs Involving Hot Work | p. 363 |
Lap Patches | p. 363 |
Example of a Lap Patch | p. 365 |
Welding Caps | p. 366 |
Welded-on Nozzle | p. 367 |
Full Encirclement Sleeves | p. 368 |
Full Encirclement Welded Sleeve Without End Plates | p. 369 |
Full Encirclement Repair with End Plates on Straight Pipe Section | p. 372 |
Full Encirclement Repair with End Plates at an Elbow | p. 373 |
Full Encirclement Repair with End Plates at a Branch Connection | p. 374 |
Required End Plate Thickness Without Pressure Thrust Load | p. 375 |
Required End Plate Thickness Considering Pressure Thrust Load | p. 376 |
Thermal Stress Criteria in Welded Enclosure Designs | p. 378 |
Welded Full Encirclement Sleeve on Straight Section of Pipe with End Plates | p. 383 |
Welded Partial Leak Containment Box | p. 390 |
Equipment Isolation Repairs-Stoppling | p. 393 |
Equipment Isolation Repairs by Freeze Sealing | p. 396 |
Safety Considerations of Freeze Sealing | p. 398 |
Failure Experiences with Freeze Sealing | p. 399 |
Closure-Threaded Connections | p. 399 |
Example of a Bolt-up Problem in a Plant | p. 400 |
Example of Clamp Design Using Shear Pins for Thrust Forces | p. 402 |
Hot Tapping (Pressure Tapping) and Freezing | p. 414 |
The Hot Tap Process | p. 416 |
Assessing the Feasibility of Hot Tapping | p. 419 |
Special Considerations for Welded-on (Hot Work) Hot Taps | p. 420 |
Hot Tap Design Considerations | p. 422 |
Wall Thickness of Header Pipe | p. 424 |
LMT Approach for Process Piping | p. 424 |
Maximum Allowable Pressure for Pipelines | p. 426 |
Example: Calculating the Maximum Allowable Pressure for Hot Tapping | p. 427 |
Test Pressure and Temperature | p. 427 |
Summary Procedures | p. 433 |
The Hot Tap Package | p. 439 |
Freeze Sealing | p. 440 |
Area Replacement Calculation for a Hot Tap | p. 442 |
Pipeline Fitness-for-Service, Repair, and Maintenance-Selected Topics | p. 449 |
Useful RSF Equations Using API 579 Methodologies | p. 449 |
API 579 Criteria Modified to Pipelines | p. 456 |
Example: Pipeline LTA Assessment | p. 456 |
Limitations of RSTRENG | p. 469 |
Another Actual Field Example | p. 470 |
Grooves, Plain Dents, and Dents with Gouges and Crack-like Defects | p. 472 |
Pipeline Protection | p. 472 |
Cathodic Protection | p. 472 |
Pigging Technology | p. 473 |
Launching and Retrieving Pigs | p. 477 |
Repair Options for Pipelines | p. 483 |
Metal Sleeves | p. 483 |
Composite or Nonmetallic Sleeves | p. 486 |
Other Types of Repairs | p. 486 |
Grit Blasting of Operating Pipelines | p. 487 |
Typical Example of Grit Blast (Abrasive Blast) of an Operating Pipeline | p. 487 |
Hydrogen Attack | p. 492 |
Soil-Structure Interaction Abnormality of Pipe Bowing | p. 492 |
Tie-in Temperatures | p. 496 |
Thermal Expansion of Buried Pipelines | p. 496 |
Soil Resistance Equations | p. 497 |
Forces and Stresses Induced in Buried Pipe | p. 500 |
Allowable Stress for Buried Pipelines | p. 501 |
Finding the Location of the Virtual Anchor | p. 501 |
Example Problem of Buried Pipe | p. 502 |
Restraining Bowing of Pipelines | p. 502 |
Example of Pipeline Bowing | p. 505 |
Permissible Bending of Pipelines | p. 505 |
Properties of Pipe | p. 509 |
Weights of Pipe Materials | p. 516 |
Formulas for Pipe, Internal Fluid, and Insulation Weights | p. 543 |
Index | p. 551 |
Table of Contents provided by Ingram. All Rights Reserved. |
ISBN: 9780750678803
ISBN-10: 0750678801
Series: Stationary Equipment Assessment Series
Published: 3rd March 2006
Format: Hardcover
Language: English
Number of Pages: 560
Audience: College, Tertiary and University
Publisher: Gulf
Country of Publication: GB
Edition Number: 1
Dimensions (cm): 22.9 x 15.2 x 2.54
Weight (kg): 0.89
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