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A working guide to process equipment

Applicable to a broad range of technicians and industries and fully updated throughout, A Working Guide to Process Equipment, Fourth Edition, explains how to diagnose, troubleshoot, and correct problems with chemical and petroleum refining process equipment. Nine new chapters cover: ? Tray design de...

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Detalles Bibliográficos
Clasificación:Libro Electrónico
Autores principales: Lieberman, Norman P. (Autor), Lieberman, Elizabeth T. (Autor)
Formato: Electrónico eBook
Idioma:Inglés
Publicado: Chicago, Ill. : McGraw-Hill Education LLC., c2014.
Edición:4th ed.
Colección:McGraw-Hill's AccessEngineering.
Temas:
Acceso en línea:Texto completo
Tabla de Contenidos:
  • A. Dedication
  • B. About the authors
  • C. Foreword
  • other books by norman p. Lieberman
  • D. Preface to the fourth edition
  • E. Preface to the third edition
  • F. Preface to the second edition
  • G. Preface to the first edition
  • H. Introduction
  • I. Acknowledgments
  • 1. Process equipment fundamentals
  • frictional losses
  • density difference induces flow
  • natural thermosyphon circulation
  • reducing hydrocarbon partial pressure
  • corrosion at home
  • what i know
  • distillation: the first application
  • origin of reflux
  • glossary
  • 2. Basic terms and conditions
  • 3. How trays work: flooding
  • history of distillation
  • tray types
  • tray efficiency
  • downcomer backup
  • downcomer clearance
  • vapor-flow pressure drop
  • jet flood
  • incipient flood
  • tower pressure drop and flooding
  • optimizing feed tray location
  • catacarb co2 absorber flooding
  • 4. How trays work: dumping
  • tray pressure drop
  • other causes of tray inefficiency
  • bubble-cap trays
  • new high capacity trays
  • calculating tray efficiency
  • 5. Notes on tray design details
  • process design equipment details
  • 6. Why control tower pressure
  • selecting an optimum tower pressure
  • raising the tower pressure target
  • lowering the tower pressure
  • the phase rule in distillation
  • 7. What drives distillation towers
  • the reboiler
  • heat-balance calculations
  • 8. How reboilers work
  • thermosyphon reboilers
  • forced-circulation reboilers
  • kettle reboilers
  • don't forget fouling
  • vapor binding in steam reboilers
  • 9. Inspecting tower internals
  • tray deck levelness
  • loss of downcomer seal due to leaks
  • effect of missing caps
  • repairing loose tray panels
  • improper downcomer clearance
  • inlet weirs
  • seal pans
  • drain holes
  • vortex breakers
  • chimney tray leakage
  • shear clips
  • bubble-cap trays
  • final inspection
  • conclusion
  • reference
  • 10. How instruments work
  • level
  • foam affects levels
  • pressure
  • flow
  • temperature
  • reference
  • 11. Packed towers: better than trays?
  • how packed towers work
  • maintaining functional and structural efficiency in packed towers
  • advantages of packing vs. Trays
  • reference
  • 12. Steam and condensate systems
  • steam reboilers
  • condensing heat-transfer rates
  • maintaining system efficiency
  • carbonic acid corrosion
  • condensate collection systems
  • deaerators
  • surface condensers
  • 13. Vapor lock and exchanger flooding in steam systems
  • function of the steam trap
  • non-condensable venting
  • corrosive steam
  • condensate drum
  • condensate drainage and vapor lock
  • elevated condensate collection drum
  • conclusion
  • 14. Bubble point and dew point
  • bubble point
  • dew point
  • reference
  • 15. Steam strippers
  • heat of evaporation
  • stripper efficiency
  • references
  • 16. Draw-off nozzle hydraulics
  • nozzle exit loss
  • critical flow
  • maintaining nozzle efficiency
  • overcoming nozzle exit loss limits
  • reference
  • 17. Pumparounds and tower heat flows
  • the pumparound
  • vapor flow
  • fractionation
  • 18. Condensers and tower pressure control
  • subcooling, vapor binding, and condensation
  • pressure control
  • 19. Air coolers
  • fin fouling
  • fan discharge pressure
  • effect of reduced air flow
  • adjustments and corrections to improve cooling
  • designing for efficiency
  • 20. Thermodynamics
  • why is thermodynamics important to the plant operator?
  • the source of steam velocity
  • converting latent heat to velocity
  • effect of wet steam
  • steam ejector temperature profile
  • roto-flow turbo expander
  • the meaning of entropy
  • 21. Deaerators and steam systems
  • boiler feedwater
  • boilers
  • convective section waste-heat steam generation
  • references.
  • 22. Steam generation
  • boiler blowdown rate
  • types of steam-generating equipment
  • boiler feed water preparation
  • effect of air preheat on boiler capacity
  • deaerator operation
  • boiler feedwater preheat
  • boiler thermal efficiency
  • sloped demister
  • references
  • 23. Vacuum systems: steam jet ejectors
  • theory of operation
  • converging and diverging compression
  • calculations, performance curves, and other measurements in jet systems
  • optimum vacuum tower-top temperature
  • measurement of a deep vacuum without mercury
  • reference
  • 24. Steam turbines
  • principle of operation and calculations
  • selecting optimum turbine speed
  • 25. Surface condensers
  • the second law of thermodynamics
  • surface condenser problems
  • surface condenser heat-transfer coefficients
  • references
  • 26. Shell-and-tube heat exchangers: heat-transfer fouling resistance
  • allowing for thermal expansion
  • heat-transfer efficiency
  • exchanger cleaning
  • mechanical design for good heat transfer
  • importance of shell-side cross-flow
  • references
  • 27. Heat exchanger innovations
  • smooth high alloy tubes
  • low-finned tubes
  • sintered metal tubes
  • spiral heat exchanger
  • tube inserts
  • twisted tubes and twisted tube bundle
  • helical tube support baffles
  • reference
  • 28. Shell-and-tube heat exchangers: design details
  • selecting the process fluid location
  • design the shell side for ease of cleaning
  • 29. Fired heaters: fire- and flue-gas side
  • effect of reduced air flow
  • absolute combustion
  • draft
  • air leakage
  • efficient air/fuel mixing
  • optimizing excess air
  • air preheating, lighting burners, and heat balancing
  • reference
  • 30. Fired heaters: process side
  • process duty versus heat liberation
  • heater tube failures
  • flow in heater tubes
  • low-nox burners
  • tube fire-side heaters
  • 31. Refrigeration systems
  • refrigerant receiver
  • evaporator temperature control
  • compressor and condenser operation
  • refrigerant composition
  • 32. Cooling water systems
  • locating exchanger tube leaks
  • tube-side fouling
  • changing tube-side passes
  • cooling tower ph control
  • wooden cooling towers
  • back-flushing and air rumbling
  • acid cleaning
  • increasing water flow
  • piping pressure losses
  • cooling tower efficiency
  • wet bulb temperature
  • reference
  • 33. Catalytic effects: equilibrium and kinetics
  • kinetics vs. Equilibrium
  • temperature vs. Time
  • purpose of a catalyst
  • lessons from lithuania
  • zero order reactions
  • runaway reaction
  • common chemical plant and refinery catalytic processes
  • 34. Centrifugal pumps: fundamentals of operation
  • head
  • starting npsh requirement
  • pressure
  • pump impeller
  • effect of temperature on pump capacity
  • 35. Centrifugal pumps: driver limits
  • electric motors
  • steam turbines
  • gears
  • reference
  • 36. Centrifugal pumps: suction pressure limits
  • cavitation and net positive suction head
  • sub-atmospheric suction pressure
  • 37. Centrifugal pumps: reducing seal and bearing failures
  • a packed pump
  • mechanical seal
  • purpose of seal flush
  • seal leaks
  • wasting external seal flush oil
  • double mechanical seal
  • dry seals
  • application of nitrogen barrier seals using double mechanical seals
  • steam use in seal chamber
  • pressure balancing holes
  • bearing failures
  • starting a centrifugal pump
  • references
  • 38. Control valves
  • pumps and control valves
  • operating on the bad part of the curve
  • control valve position
  • valve position dials
  • air-to-open valves
  • saving energy in existing hydraulic systems
  • control valve bypasses
  • plugged control valves
  • 39. Separators: vapor-hydrocarbon-water
  • gravity settling
  • demisters
  • entrainment due to foam
  • water-hydrocarbon separations
  • electrically accelerated water coalescing
  • static coalescers
  • 40. Gas compression: the basic idea
  • relationship between heat and work
  • compression work (cp - cv)
  • reference
  • 41. Centrifugal compressors and surge
  • centrifugal compression and surge
  • compressor efficiency
  • frequently asked questions about centrifugal compressors.
  • 42. Reciprocating compressors
  • theory of reciprocating compressor operation
  • the carnot cycle
  • the indicator card
  • volumetric compressor efficiency
  • unloaders
  • rod loading
  • variable molecular weight
  • 43. Compressor efficiency
  • jet engine
  • controlling vibration and temperature rise
  • relative efficiency
  • relative work: external pressure losses
  • 44. Safety concerns
  • relief-valve plugging
  • relieving to atmosphere
  • corrosion monitoring
  • alarms and trips
  • auto-ignition of hydrocarbons
  • paper gaskets
  • calculating heats of reaction
  • hot water explodes out of manway
  • 45. Relief valve system design
  • coke drums
  • high-pressure fixed-bed reactors
  • trayed towers and packed columns
  • liquid-filled vessels
  • sour water strippers
  • protecting relief valves from fouling and corrosion
  • dual relief valves
  • process design responsibility for relief valve design
  • relief valve and pressure sensing connections
  • heat exchanger safety reliefs
  • relief valve effluents
  • maintaining flare header positive pressures
  • leaking relief valves
  • tray failure due to relief valves
  • the piper alpha rig destruction
  • 46. Corrosion-process units
  • closer to home
  • erosive velocities
  • mixed phase flow
  • carbonate corrosion
  • naphthenic acid attack
  • a short history of corrosion
  • corrosion-fired heaters
  • oil-fired heaters
  • finned-tube corrosion
  • field identification of piping metallurgy
  • 47. Waste water strippers
  • purpose of sour water strippers
  • two-stage sour water stripper
  • tray efficiency
  • computer simulation and theoretical tray efficiency
  • use of caustic to improve stripping
  • water stripper reboiler corrosion and fouling
  • ballast water stripper
  • conclusions
  • reference
  • 48. Fluid flow in pipes
  • field engineer's method for estimating pipe flow
  • field pressure drop survey
  • line sizing for low-viscosity and turbulent flow
  • frictional pressure loss in rough and smooth pipe
  • special case for laminar flow
  • smooth pipes and turbulent flow
  • very rough pipes and very turbulent flow
  • non-newtonian fluids
  • some types of flow behavior
  • viscoelastic fluids
  • identifying the type of flow behavior
  • apparent and effective viscosity of non-newtonian liquids
  • the power law or ostwald de waele model
  • generalized reynolds numbers
  • references
  • 49. Super-fractionation separation stage
  • my first encounter with super-fractionation
  • kettle reboiler
  • partial condenser
  • side reboilers and intercoolers
  • 50. Hand calculations for distillation towers
  • introduction
  • bubble point and dew point calculations
  • the absorption factor or stripping factor chart
  • conclusion
  • references
  • 51. Computer modeling and control
  • modeling a propane-propylene splitter
  • computer control
  • material balance problems in computer modeling
  • fourth edition update comments
  • 52. Field troubleshooting process problems
  • de-ethanizer flooding
  • the elements of troubleshooting
  • field calculations
  • troubleshooting tools-your wrench
  • field measurements
  • troubleshooting methods
  • afterword
  • A. Glossary
  • B. The norm lieberman video library of troubleshooting process operations.