Flow measurement handbook industrial designs, operating principles, performance, and applications

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1. Verfasser: Baker, Roger Clive 1947- (VerfasserIn)
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Veröffentlicht: Cambridge, United Kingdom Cambridge University Press 2016
Ausgabe:Second edition
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245 1 0 |a Flow measurement handbook  |b industrial designs, operating principles, performance, and applications  |c Roger C. Baker 
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300 |a xlvi, 745 Seiten  |b Illustrationen, Diagramme 
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500 |a Literaturverzeichnis Seite 643-733 
505 8 |a Includes bibliographical references and index 
505 8 |a Fluid mechanics essentials -- Specification, selection and audit -- Calibration -- Orifice plate meters -- Venturi meter and standard nozzles -- Critical flow Venturi nozzle -- Other momentum-sensing meters -- Positive displacement flowmeters -- Turbine and related flowmeters -- Vortex shedding, swirl and fluidic flowmeters -- Electromagnetic flowmeters -- Magnetic resonance flowmeters -- Ultrasonic flowmeters -- Acoustic and sonar flow methods -- Mass flow measurement using multiple sensors for single-phase flows 6,044 -- Multiphase flowmeters -- Thermal flowmeters -- Angular momentum devices -- Coriolis flowmeters -- Probes for local velocity measurement in liquids and gases -- Verification and in situ methods for checking calibration -- Remote data access systems -- Final considerations 
650 4 |a Flow meters / Handbooks, manuals, etc 
650 4 |a Flow meters / Design and construction / Handbooks, manuals, etc 
650 4 |a Fluid dynamic measurements / Handbooks, manuals, etc 
650 7 |a Flow meters  |2 fast 
650 7 |a Flow meters / Design and construction  |2 fast 
650 7 |a Fluid dynamic measurements  |2 fast 
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Datensatz im Suchindex

_version_ 1819613312337313792
adam_text Titel: Flow measurement handbook Autor: Baker, Roger Clive Jahr: 2016 Contents Preface page xxiii Acknowledgements xxv Nomenclature xxvii 1 Introduction 1 1.1 Initial Considerations 1 1.2 Do We Need a Flowmeter? 2 1.3 How Accurate? 4 1.4 A Brief Review of the Evaluation of Standard Uncertainty 8 1.5 Note on Monte Carlo Methods 10 1.6 Sensitivity Coefficients 10 1.7 What Is a Flowmeter? 11 1.8 Chapter Conclusions (for those who Plan to Skip the Mathematics!) 14 1.9 Mathematical Postscript 15 LA Statistics of Flow Measurement 17 l.A.l Introduction 17 1.A.2 The Normal Distribution 17 1.A.3 The Student t Distribution 20 1.A.4 Practical Application of Confidence Level 21 1.A.5 Types of Error 22 1.A.6 Combination of Uncertainties 23 1.A.7 Uncertainty Range Bars, Transfer Standards and Youden Analysis 24 2 Fluid Mechanics Essentials 27 2.1 Introduction 27 2.2 Essential Property Values 27 2.3 Flow in a Circular Cross-Section Pipe 27 2.4 Flow Straighteners and Conditioners 31 2.5 Essential Equations 34 VII viii Contents 2.6 Unsteady Flow and Pulsation 36 2.7 Compressible Flow 38 2.8 Multiphase Flow 40 2.9 Cavitation, Humidity, Droplets and Particles 42 2.10 Gas Entrapment 43 2.11 Steam 45 2.12 Chapter Conclusions 45 2.A Further Aspects of Flow Behaviour, Flow Conditioning and Flow Modelling 46 2.A.1 Further Flow Profile Equations 46 2.A.2 Non-Newtonian Flows 47 2.A.3 Flow Conditioning 47 2.A.4 Other Installation Considerations 50 2.A.5 Computational Fluid Dynamics (CFD) 50 3 Specification, Selection and Audit 52 3.1 Introduction 52 3.2 Specifying the Application 52 3.3 Notes on the Specification Form 53 3.4 Flowmeter Selection Summary Table 56 3.5 Draft Questionnaire for Flowmeter Audit 62 3.6 Final Comments 62 3.A Specification and Audit Questionnaires 63 3.A.1 Specification Questionnaire 63 3.A.2 Supplementary Audit Questionnaire 65 4 Calibration 67 4.1 Introduction 67 4.1.1 Calibration Considerations 67 4.1.2 Typical Calibration Laboratory Facilities 70 4.1.3 Calibration from the Manufacturer s Viewpoint 71 4.2 Approaches to Calibration 72 4.3 Liquid Calibration Facilities 75 4.3.1 Flying Start and Stop 75 4.3.2 Standing Start and Stop 77 4.3.3 Large Pipe Provers 80 4.3.4 Compact Provers 80 4.4 Gas Calibration Facilities 85 4.4.1 Volumetric Measurement 85 4.4.2 Mass Measurement 86 4.4.3 Gas/Liquid Displacement 86 4.4.4 pvT Method 87 4.4.5 Critical Nozzles 87 4.4.6 Soap Film Burette Method 88 Contents ix 4.5 Transfer Standards and Master Meters 88 4.6 In Situ Calibration 91 4.6.1 Provers 92 4.7 Calibration Uncertainty 98 4.8 Traceability and Accuracy of Calibration Facilities 100 4.9 Chapter Conclusions 101 4.A Calibration and Flow Measurement Facilities 101 4.A.1 Introduction 101 4.A.2 Flow Metrology Developments 102 4.A.3 Multiphase Calibration Facilities 105 4.A.4 Gas Calibration Facilities 105 4.A.5 Gas Properties 108 4. A. 6 Case Study of a Water Flow Calibration Facility Which Might Be Used in a Manufacturing Plant or a Research Laboratory from the Author s Experience 108 4.A.7 Example of a Recent Large Water Calibration Facility 113 5 Orifice Plate Meters 116 5.1 Introduction 116 5.2 Essential Background Equations 118 5.3 Design Details 121 5.4 Installation Constraints 124 5.5 Other Orifice Plates 128 5.6 Deflection of Orifice Plate at High Pressure 129 5.7 Effect of Pulsation 131 5.8 Effects of More than One Flow Component 136 5.9 Accuracy Under Normal Operation 139 5.10 Industrially Constructed Designs 141 5.11 Pressure Connections 142 5.12 Pressure Measurement 144 5.13 Temperature and Density Measurement 147 5.14 Flow Computers 148 5.15 Detailed Studies of Flow through the Orifice Plate, Both Experimental and Computational 148 5.16 Application, Advantages and Disadvantages 150 5.17 Chapter Conclusions 151 5.A Orifice Discharge Coefficient Equation 152 5.A.1 Stolz Orifice Discharge Coefficient Equation as Given in ISO 5167:1981 152 5.A.2 Orifice Discharge Coefficient Equation as set out by Gallagher (1990) 153 5.A.3 Orifice Discharge Coefficient Equation as Given in ISO 5167-2: 2003 154 Contents 5.B Review of Recent Published Research on Orifice Plates 156 5.B.1 Installation Effects on Orifice Plates 156 5.B.2 Pulsation 157 5.B.3 Contamination 157 5.B.4 Drain Holes 158 5.B.5 Flow Conditioning for Orifice Meters 158 5.B.6 Plate Thickness for Small-Diameter Orifice Plates 160 5.B.7 Variants on the Orifice Plate 160 5.B.8 Impulse Lines 160 5.B.9 Lagging Pipes 160 5.B.10 Gas Conditions 160 5.B.11 Emissions Testing Uncertainty 161 5.B.12 CFD Related to Orifice Plates 161 Venturi Meter and Standard Nozzles 163 6.1 Introduction 163 6.2 Essential Background Equations 165 6.3 Design Details 167 6.4 Commercially Available Devices 168 6.5 Installation Effects 168 6.6 Applications, Advantages and Disadvantages 170 6.7 Chapter Conclusions 171 6.A Research Update 172 6.A.1 Design and Installation 172 6.A.2 Meters in Nuclear Core Flows 173 6.A.3 Special Conditions 173 Critical Flow Venturi Nozzle 177 7.1 Introduction 177 7.2 Design Details of a Practical Flowmeter Installation 178 7.3 Practical Equations 181 7.4 Discharge Coefficient C 183 7.5 Critical Flow Function C, 185 7.6 Design Considerations 185 7.7 Measurement Uncertainty 187 7.8 Notes on the Calculation Procedure 188 7.9 Industrial and Other Experience 189 7.10 Advantages, Disadvantages and Applications 190 7.11 Chapter Conclusions 190 7. A Critical Flow Venturi Nozzle-Recent Published Work 190 Other Momentum-Sensing Meters 195 8.1 Introduction 195 8.2 Variable Area Meter 196 Contents xi 8.2.1 Operating Principle and Background 196 8.2.2 Design Variations 196 8.2.3 Remote Readout Methods 198 8.2.4 Design Features 199 8.2.5 Calibration and Sources of Error 200 8.2.6 Installation 201 8.2.7 Unsteady and Pulsating Flows 201 8.2.8 Industrial Types, Ranges and Performance 201 8.2.9 Manufacturing Variation 202 8.2.10 Computational Analysis of the Variable Area Flowmeter 203 8.2.11 Applications 203 8.3 Spring-Loaded Diaphragm (Variable Area) Meters 204 8.4 Target (Drag Plate) Meter 208 8.5 Integral Orifice Meters 209 8.6 Dall Tubes and Devices that Approximate to Venturis and Nozzles 209 8.7 Wedge Meter 212 8.8 V-Cone Meter (Cone Meter) 213 8.9 Differential Devices with a Flow Measurement Mechanism in the Bypass 216 8.10 Slotted Orifice Plate 216 8.11 Pipework Features - Inlets and Pipe Lengths 217 8.12 Pipework Features - Bend or Elbow used as a Meter 218 8.13 Averaging Pitot 220 8.14 Laminar or Viscous Flowmeters 223 8.15 Chapter Conclusions 227 8.A History, Equations and Maximum Permissible Error Limits for the VA Meter 228 8.A.1 Some History 228 8.A.2 Equations 229 8.A.3 Maximum Permissible Error Limits 232 9 Positive Displacement Flowmeters 234 9.1 Introduction 234 9.1.1 Background 234 9.1.2 Qualitative Description of Operation 235 9.2 Principal Designs of Liquid Meters 236 9.2.1 Nutating Disc Meter 236 9.2.2 Oscillating Circular Piston (Also Known as Rotary Piston) Meter 237 9.2.3 Multirotor Meters 237 9.2.4 Oval Gear Meter 238 9.2.5 Sliding Vane Meters 240 9.2.6 Helical Rotor Meter 242 9.2.7 Reciprocating Piston Meters 243 rii Contents 9.2.8 Precision Gear (Spur Gear) Flowmeters 244 9.3 Calibration, Environmental Compensation and Other Factors Relating to the Accuracy of Liquid Flowmeters 245 9.3.1 Calibration Systems 246 9.3.2 Clearances 249 9.3.3 Leakage Through the Clearance Gap Between Vane and Wall 249 9.3.4 Slippage Tests 251 9.3.5 The Effects of Temperature and Pressure Changes 252 9.3.6 The Effects of Gas in Solution 252 9.4 Accuracy and Calibration 253 9.5 Principal Designs of Gas Meters 254 9.5.1 Wet Gas Meter 255 9.5.2 Diaphragm Meter 256 9.5.3 Rotary Positive Displacement Gas Meter 257 9.6 Positive Displacement Meters for Multiphase Flows 258 9.7 Meter Using Liquid Plugs to Measure Low Flows 261 9.8 Applications, Advantages and Disadvantages 261 9.9 Chapter Conclusions 262 9. A Basic Analysis and Recent Research 263 9.A.1 Theory for a Sliding Vane Meter 263 9. A. 1.1 Flowmeter Equation 264 9.A. 1.2 Expansion of the Flowmeter Due to Temperature 265 9.A.1.3 Pressure Effects 266 9.A.1.4 Meter Orientation 267 9.A.1.5 Analysis of Calibrators 268 9.A.1.6 Application of Equations to a Typical Meter 270 9.A.2 Recent Theoretical and Experimental Research 271 10 Turbine and Related Flowmeters 279 10.1 Introduction 279 10.1.1 Background 279 10.1.2 Qualitative Description of Operation 279 10.1.3 Basic Theory 280 10.2 Precision Liquid Meters 287 10.2.1 Principal Design Components 287 10.2.2 Dual Rotor Meters 288 10.2.3 Bearing Design Materials 288 10.2.4 Strainers 290 10.2.5 Materials 290 10.2.6 Size Ranges 290 10.2.7 Other Mechanical Design Features 291 10.2.8 Cavitation 291 10.2.9 Sensor Design and Performance 292 Contents xiii 10.2.10 Characteristics 293 10.2.11 Accuracy 294 10.2.12 Installation 295 10.2.13 Maintenance 297 10.2.14 Viscosity, Temperature and Pressure 298 10.2.15 Unsteady Flow 299 10.2.16 Multiphase Flow 300 10.2.17 Signal Processing 301 10.2.18 Applications 301 10.2.19 Advantages and Disadvantages 302 10.3 Precision Gas Meters 303 10.3.1 Principal Design Components 303 10.3.2 Bearing Design 303 10.3.3 Materials 303 10.3.4 Size Range 303 10.3.5 Accuracy 304 10.3.6 Installation 306 10.3.7 Sensing and Monitoring 308 10.3.8 Unsteady Flow 308 10.3.9 Applications 310 10.3.10 Advantages and Disadvantages 311 10.4 Water Meters 311 10.4.1 Principal Design Components 311 10.4.2 Bearing Design 312 10.4.3 Materials 312 10.4.4 Size Range 313 10.4.5 Sensing 313 10.4.6 Characteristics and Accuracy 313 10.4.7 Installation 313 10.4.8 Special Designs 314 10.5 Other Propeller and Turbine Meters 314 10.5.1 Quantum Dynamics Flowmeter 314 10.5.2 Pelton Wheel Flowmeters 314 10.5.3 Bearingless Flowmeter 314 10.5.4 Vane Type Flowmeters 315 10.6 Chapter Conclusions 316 10. A Turbine Flowmeter Theoretical and Experimental Research 317 10.A.1 Derivation of Turbine Flowmeter Torque Equations 317 10.A.2 Transient Analysis of Gas Turbine Flowmeter 322 10.A.3 Recent Developments 324 11 Vortex Shedding, Swirl and Fluidic Flowmeters 327 11.1 Introduction 327 11.2 Vortex Shedding 327 x,Xl Contents 11.3 Industrial Developments of Vortex-Shedding Flowmeters 329 11.3.1 Experimental Evidence of Performance 329 11.3.2 Bluff Body Shape 331 11.3.3 Standardisation of Bluff Body Shape 334 11.3.4 Sensing Options 334 11.3.5 Cross-Correlation and Signal Interrogation Methods 339 11.3.6 Other Aspects Relating to Design and Manufacture 339 11.3.7 Accuracy 340 11.3.8 Installation Effects 341 11.3.9 Effect of Pulsation and Pipeline Vibration 344 11.3.10 Two-Phase Flows 345 11.3.11 Size and Performance Ranges and Materials in Industrial Designs 347 11.3.12 Computation of Flow Around Bluff Bodies 348 11.3.13 Applications, Advantages, and Disadvantages 349 11.3.14 Future Developments 350 11.4 Swirl Meter - Industrial Design 351 11.4.1 Design and Operation 351 11.4.2 Accuracy and Ranges 351 11.4.3 Installation Effects 352 11.4.4 Applications, Advantages and Disadvantages 352 11.5 Fluidic Flowmeter 352 11.5.1 Design 353 11.5.2 Accuracy 355 11.5.3 Installation Effects 355 11.5.4 Applications, Advantages and Disadvantages 355 11.6 Other Proposed Designs 355 11.7 Chapter Conclusions 356 1 LA Vortex Shedding Frequency 358 1 l.A.l Vortex Shedding from Cylinders 358 11.A.2 Order of Magnitude Calculation of Shedding Frequency 358 12 Electromagnetic Flowmeters 362 12.1 Introduction 362 12.2 Operating Principle 362 12.3 Limitations of the Theory 364 12.4 Design Details 366 12.4.1 Sensor or Primary Element 366 12.4.2 Transmitter or Secondary Element 370 12.5 Calibration and Operation 373 12.6 Industrial and Other Designs 374 12.7 Installation Constraints - Environmental 377 12.7.1 Surrounding Pipe 377 12.7.2 Temperature and Pressure 378 Contents xv 12.8 Installation Constraints - Flow Profile Caused by Upstream Pipework 379 12.8.1 Introduction 379 12.8.2 Theoretical Comparison of Meter Performance Due to Upstream Flow Distortion 379 12.8.3 Experimental Comparison of Meter Performance Due to Upstream Flow Distortion 380 12.8.4 Conclusions on Installation Requirements 381 12.9 Installation Constraints - Fluid Effects 382 12.9.1 Slurries 382 12.9.2 Change of Fluid 383 12.9.3 Non-Uniform Conductivity 383 12.10 Multiphase How 383 12.11 Accuracy Under Normal Operation 384 12.12 New Industrial Developments 385 12.13 Applications, Advantages and Disadvantages 387 12.13.1 Applications 387 12.13.2 Advantages 388 12.13.3 Disadvantages 389 12.14 Chapter Conclusions 389 12. A Brief Review of Theory, Other Applications and Recent Research 390 12.A.1 Introduction 390 12.A.2 Electric Potential Theory 392 12. A3 Development of the Weight Vector Theory 392 12.A.4 Rectilinear Weight Function 393 12.A.5 Axisymmetric Weight Function 394 12.A.6 Performance Prediction 395 12.A.7 Further Research 396 12.A.8 Verification 398 12.A.9 Application to Non-Conducting Dielectric Fluids 400 12.A.10 Electromagnetic Flowmeters Applied to Liquid Metals 403 13 Magnetic Resonance Flowmeters 408 13.1 Introduction and Some Early References 408 13.2 Developments in the Oil and Gas Industry 409 13.3 A Brief Introduction to the Physics 409 13.4 Outline of a Flowmeter Design 414 13.5 Chapter Conclusions 417 14 Ultrasonic Flowmeters 419 14.1 Introduction 419 14.2 Essential Background to Ultrasonics 420 14.3 Transit-Time Flowmeters 423 14.3.1 Transit-Time Flowmeters - Flowmeter Equation and the Measurement of Sound Speed 423 xvi Contents 14.3.2 Effect of Flow Profile and Use of Multiple Paths 427 14.3.3 Transducers 432 14.3.4 Size Ranges and Limitations 437 14.3.5 Clamp-on Meters 437 14.3.6 Signal Processing and Transmission Timing 439 14.3.7 Reported Accuracy 442 14.3.7.1 Reported Accuracy - Spool Piece Meters 442 14.3.7.2 A Manufacturer s Accuracy Claims 443 14.3.7.3 Clamp-on Accuracy 444 14.3.8 Installation Effects 447 14.3.8.1 Effects of Distorted Profile by Upstream Fittings 447 14.3.8.2 Pipe Roughness and Deposits 453 14.3.8.3 Unsteady and Pulsating Flows 454 14.3.8.4 Multiphase Flows 454 14.3.8.5 Flow Straighteners and Conditioners 455 14.3.9 Other Experience of Transit-Time Meters 456 14.3.10 Experience with Liquid Meters 456 14.3.11 Gas Meter Developments 457 14.3.12 Applications, Advantages and Disadvantages of the Transit-Time and Related Designs 463 14.4 Doppler Flowmeter 466 14.4.1 Simple Explanation of Operation 466 14.4.2 Operational Information for the Doppler Flowmeter 468 14.4.3 Applications, Advantages and Disadvantages for the Doppler Flowmeter 468 14.5 Correlation Flowmeter 469 14.5.1 Operation of the Correlation Flowmeter 469 14.5.2 Installation Effects for the Correlation Flowmeter 470 14.5.3 Other Published Work on the Correlation Flowmeter 471 14.5.4 Applications, Advantages and Disadvantages for the Correlation Flowmeter 472 14.6 Other Ultrasonic Applications 472 14.7 Conclusions on Ultrasonic Flowmeters 473 14.A Mathematical Methods and Further Research Relating to Ultrasonic Flowmeters 474 14.A.1 Simple Path Theory 474 14.A.2 Use of Multiple Paths to Integrate Flow Profile 477 14.A.3 Weight Vector Analysis 478 14.A.4 Development of Modelling of the Flowmeter 479 14.A.5 Doppler Theory and Developments 482 15 Acoustic and Sonar Flowmeters 484 15.1 Introduction 484 15.2 SONARtrac® Flowmeter 484 Contents xvii 15.2.1 Basic Explanation of How the Passive Sonar Flowmeter Works 484 15.2.2 A Note on Turbulent Eddies and Transition to Laminar Flow in the Pipe 485 15.2.3 Flow Velocity Measurement 485 15.2.4 Speed of Sound and Gas Void Fraction (Entrained Air Bubbles) Measurement 486 15.2.5 Localised Velocity Measurements 487 15.2.6 The Convective Ridge 487 15.2.7 Calibration 489 15.2.8 Sound Speed Used to Obtain Fluid Parameters 490 15.2.9 Additional Sensors 491 15.2.10 Clamp-on System 491 15.2.11 Liquid, Gas and Multicomponent Operation 492 15.2.12 Size Range and Flow Range 493 15.2.13 Signal Handling 493 15.2.14 Accuracy Claims 494 15.2.15 Installation Effects 494 15.2.16 Published Information 496 15.2.17 Applications 496 15.3 ActiveSONAR™ Flowmeter 496 15.3.1 Single and Multiphase Flows 497 15.3.2 Brief Summary of Meter Range, Size etc. 497 15.4 Other Related Methods Using Noise Emissions 498 15.5 Chapter Conclusions 500 16 Mass Flow Measurement Using Multiple Sensors for Single-Phase Flows 501 16.1 Introduction 501 16.2 Multiple Differential Pressure Meters 502 16.2.1 Hydraulic Wheatstone Bridge Method 504 16.2.2 Theory of Operation 504 16.2.3 Industrial Experience 505 16.2.4 Applications 505 16.3 Multiple Sensor Methods 506 16.4 Chapter Conclusions 507 17 Multiphase Flowmeters 508 17.1 Introduction 508 17.2 Multiphase and Multi-Component Flows 509 17.3 Two-Phase/Component Flow Measurements 509 17.3.1 Liquid/Liquid Flows and Water-Cut Measurement 510 17.3.2 Entrained Solid in Fluid Flows 510 17.3.3 Metering Wet-Gas 511 xviii Contents HA Multiphase Flowmeters 514 17.4.1 Categorisation of Multiphase Flowmeters 514 17.4.2 Multiphase Flowmeters (MPFMs) for Oil Production 515 17.4.3 Developments and References Since the Late 1990s 519 17.5 Accuracy 527 17.6 Chapter Conclusions 528 18 Thermal Flowmeters 530 18.1 Introduction 530 18.2 Capillary Thermal Mass Flowmeter - Gases 530 18.2.1 Description of Operation 531 18.2.2 Operating Ranges and Materials for Industrial Designs 534 18.2.3 Accuracy 535 18.2.4 Response Time 535 18.2.5 Installation 535 18.2.6 Applications 536 18.3 Calibration of Very Low Flow Rates 536 18.4 Thermal Mass Flowmeter - Liquids 537 18.4.1 Operation 537 18.4.2 Typical Operating Ranges and Materials for Industrial Designs 538 18.4.3 Installation 538 18.4.4 Applications 538 18.5 Insertion and In-Line Thermal Mass Flowmeters 538 18.5.1 Insertion Thermal Mass Flowmeter 540 18.5.2 In-Line Thermal Mass Flowmeter 541 18.5.3 Range and Accuracy 542 18.5.4 Materials 542 18.5.5 Installation 542 18.5.6 Applications 543 18.6 Chapter Conclusions 544 18.A Mathematical Background to the Thermal Mass Flowmeters 545 18.A.1 Dimensional Analysis Applied to Heat Transfer 545 18.A.2 Basic Theory of ITMFs 546 18.A.3 General Vector Equation 548 18.A.4 Hastings Flowmeter Theory 549 18.A.5 Weight Vector Theory for Thermal Flowmeters 551 18.A.6 Other Recently Published Work 552 19 Angular Momentum Devices 553 19.1 Introduction 553 19.2 The Fuel Flow Transmitter 554 19.2.1 Qualitative Description of Operation 554 19.2.2 Simple Theory 557 Contents xix 19.2.3 Calibration Adjustment 558 19.2.4 Meter Performance and Range 558 19.2.5 Application 559 19.3 Chapter Conclusions 559 20 Coriolis Flowmeters 560 20.1 Introduction 560 20.1.1 Background 560 20.1.2 Qualitative Description of Operation 563 20.1.3 Experimental and Theoretical Investigations 564 20.1.4 Shell-Type Coriolis Flowmeter 566 20.2 Industrial Designs 566 20.2.1 Principal Design Components 569 20.2.2 Materials 572 20.2.3 Installation Constraints 574 20.2.4 Vibration Sensitivity 576 20.2.5 Size and Flow Ranges 577 20.2.6 Density Range and Accuracy 578 20.2.7 Pressure Loss 578 20.2.8 Response Time 579 20.2.9 Zero Drift 580 20.3 Accuracy Under Normal Operation 581 20.4 Published Information on Performance 582 20.4.1 Early Industrial Experience 583 20.4.2 Gas-Liquid 583 20.4.3 Sand in Water (Dominick et al. 1987) 584 20.4.4 Pulverised Coal in Nitrogen (Baucom 1979) 584 20.4.5 Water-in-Oil Measurement 584 20.4.6 Two- and Three-Component Flows 585 20.5 Calibration 585 20.6 Applications, Advantages, Disadvantages, Cost Considerations 587 20.6.1 Applications 587 20.6.2 Advantages 589 20.6.3 Disadvantages 590 20.6.4 Cost Considerations 591 20.7 Chapter Conclusions 591 20.A Notes on the Theory of Coriolis Meters 593 20. A. 1 Simple Theory 593 20.A.2 Note on Hemp s Weight Vector Theory 595 20.A.3 Theoretical Developments 597 20.A.4 Coriolis Flowmeter Reviews 601 21 Probes for Local Velocity Measurement in Liquids and Gases 603 21.1 Introduction 603 21.2 Differential Pressure Probes - Pitot Probes 604 xx Contents 21.3 Differential Pressure Probes - Pitot-Venturi Probes 607 21.4 Insertion Target Meter 608 21.5 Insertion Turbine Meter 609 21.5.1 General Description of Industrial Design 609 21.5.2 Flow-Induced Oscillation and Pulsating Flow 611 21.5.3 Applications 612 21.6 Insertion Vortex Probes 612 21.7 Insertion Electromagnetic Probes 614 21.8 Insertion Ultrasonic Probes 615 21.9 Thermal Probes 616 21.10 Chapter Conclusions 616 22 Verification and In Situ Methods for Checking Calibration 617 22.1 Introduction 617 22.2 Verification 617 22.3 Non-Invasive, Non-Intrusive and Clamp-On Flowmeter Alternatives 620 22.3.1 Use of Existing Pipe Work 620 22.3.2 Other Effects: Neural Networks, Tracers, Cross-Correlation 622 22.3.3 Other Flowmeter Types in Current Use 622 22.4 Probes and Tracers 623 22.5 Microwaves 624 22.6 Chapter Conclusions 624 23 Remote Data Access Systems 625 23.1 Introduction 625 23.2 Types of Device - Simple and Intelligent 626 23.3 Simple Signal Types 627 23.4 Intelligent Signals 629 23.5 Selection of Signal Type 630 23.6 Communication Systems 630 23.7 Remote Access 630 23.8 Future Implications 631 24 Final Considerations 633 24.1 Is there an Opportunity to Develop New Designs in Collaboration with the Science Base? 633 24.2 Is Manufacture of High Enough Quality? 633 24.3 Does the Company s Business Fall within ISO 9000 and/or ISO 17025? 636 24.4 What are the New Flow Measurement Challenges? 637 24.5 What Developments Should We Expect in Micro-Engineering Devices? 638 Contents xxi 24.6 Which Techniques for Existing and New Flow Metering Concepts Should Aid Developments? 639 24.7 Closing Remarks 641 References 643 Main Index 735 Flowmeter Index 739 Flowmeter Application Index 743
any_adam_object 1
author Baker, Roger Clive 1947-
author_GND (DE-588)1099468345
author_facet Baker, Roger Clive 1947-
author_role aut
author_sort Baker, Roger Clive 1947-
author_variant r c b rc rcb
building Verbundindex
bvnumber BV043347169
classification_rvk UF 4000
ZQ 3750
ZQ 3760
contents Includes bibliographical references and index
Fluid mechanics essentials -- Specification, selection and audit -- Calibration -- Orifice plate meters -- Venturi meter and standard nozzles -- Critical flow Venturi nozzle -- Other momentum-sensing meters -- Positive displacement flowmeters -- Turbine and related flowmeters -- Vortex shedding, swirl and fluidic flowmeters -- Electromagnetic flowmeters -- Magnetic resonance flowmeters -- Ultrasonic flowmeters -- Acoustic and sonar flow methods -- Mass flow measurement using multiple sensors for single-phase flows 6,044 -- Multiphase flowmeters -- Thermal flowmeters -- Angular momentum devices -- Coriolis flowmeters -- Probes for local velocity measurement in liquids and gases -- Verification and in situ methods for checking calibration -- Remote data access systems -- Final considerations
ctrlnum (OCoLC)957729162
(DE-599)BVBBV043347169
discipline Physik
Mess-/Steuerungs-/Regelungs-/Automatisierungstechnik / Mechatronik
edition Second edition
format Book
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illustrated Illustrated
indexdate 2024-12-24T04:52:07Z
institution BVB
isbn 9781107045866
110704586X
language English
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physical xlvi, 745 Seiten Illustrationen, Diagramme
publishDate 2016
publishDateSearch 2016
publishDateSort 2016
publisher Cambridge University Press
record_format marc
spellingShingle Baker, Roger Clive 1947-
Flow measurement handbook industrial designs, operating principles, performance, and applications
Includes bibliographical references and index
Fluid mechanics essentials -- Specification, selection and audit -- Calibration -- Orifice plate meters -- Venturi meter and standard nozzles -- Critical flow Venturi nozzle -- Other momentum-sensing meters -- Positive displacement flowmeters -- Turbine and related flowmeters -- Vortex shedding, swirl and fluidic flowmeters -- Electromagnetic flowmeters -- Magnetic resonance flowmeters -- Ultrasonic flowmeters -- Acoustic and sonar flow methods -- Mass flow measurement using multiple sensors for single-phase flows 6,044 -- Multiphase flowmeters -- Thermal flowmeters -- Angular momentum devices -- Coriolis flowmeters -- Probes for local velocity measurement in liquids and gases -- Verification and in situ methods for checking calibration -- Remote data access systems -- Final considerations
Flow meters / Handbooks, manuals, etc
Flow meters / Design and construction / Handbooks, manuals, etc
Fluid dynamic measurements / Handbooks, manuals, etc
Flow meters fast
Flow meters / Design and construction fast
Fluid dynamic measurements fast
Strömungsmechanik (DE-588)4077970-1 gnd
Strömungsmesstechnik (DE-588)4129610-2 gnd
Durchflussmessung (DE-588)4013344-8 gnd
subject_GND (DE-588)4077970-1
(DE-588)4129610-2
(DE-588)4013344-8
title Flow measurement handbook industrial designs, operating principles, performance, and applications
title_auth Flow measurement handbook industrial designs, operating principles, performance, and applications
title_exact_search Flow measurement handbook industrial designs, operating principles, performance, and applications
title_full Flow measurement handbook industrial designs, operating principles, performance, and applications Roger C. Baker
title_fullStr Flow measurement handbook industrial designs, operating principles, performance, and applications Roger C. Baker
title_full_unstemmed Flow measurement handbook industrial designs, operating principles, performance, and applications Roger C. Baker
title_short Flow measurement handbook
title_sort flow measurement handbook industrial designs operating principles performance and applications
title_sub industrial designs, operating principles, performance, and applications
topic Flow meters / Handbooks, manuals, etc
Flow meters / Design and construction / Handbooks, manuals, etc
Fluid dynamic measurements / Handbooks, manuals, etc
Flow meters fast
Flow meters / Design and construction fast
Fluid dynamic measurements fast
Strömungsmechanik (DE-588)4077970-1 gnd
Strömungsmesstechnik (DE-588)4129610-2 gnd
Durchflussmessung (DE-588)4013344-8 gnd
topic_facet Flow meters / Handbooks, manuals, etc
Flow meters / Design and construction / Handbooks, manuals, etc
Fluid dynamic measurements / Handbooks, manuals, etc
Flow meters
Flow meters / Design and construction
Fluid dynamic measurements
Strömungsmechanik
Strömungsmesstechnik
Durchflussmessung
url http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=028766741&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA
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