CHEM-2002 SIMULATION LAB SHEET-2 Example-1 Ammonia Recovery

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Presentation transcript:

CHEM-2002 SIMULATION LAB SHEET-2 Example-1 Ammonia Recovery CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid We want to know what are the composition and flow rate of the vapor and liquid stream? CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Simulation procedure Step one: Step two: Step three: Step four: Define components Step two: Choose thermodynamic model Step three: Build simulation flow diagram Step four: Enter stream data Step five: Enter unit operation data CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Simulation procedure Step five: Enter unit operation data Step one: Define components Water ammonia Step two: Choose thermodynamic model SRK Step three: Build simulation flow diagram Step four: Enter stream data Feed Saturated vapor at P=250 psia 20 wt% water 80 wt% Ammonia Mass Flow rate: 10000 (lb/hr) Step five: Enter unit operation data Condenser Q=-5.8*106 J ΔP=0 Psi Expansion valve Isentropic process ΔP=150 Psi Flash Adiabatic flash CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Starting Simulation Add Components Define Thermodynamic package

Simulation procedure Step five: Enter unit operation data Step one: Define components Water ammonia Step two: Choose thermodynamic model SRK Step three: Build simulation flow diagram Step four: Enter stream data Feed Saturated vapor at P=250 psia 20 wt% water 80 wt% Ammonia Mass Flow rate: 10000 (lb/hr) Step five: Enter unit operation data Condenser Q=-5.8*106 J ΔP=0 Psi Expansion valve Isentropic process ΔP=150 Psi Flash Adiabatic flash CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Create new component list

Search and add library components Change the name of new component list

Write the name of chemical Formula of the component When you find it click Add Pure

Write the name of chemical Formula of the component When you find it click Add Pure

All components were added

This step was completed Component list view can be closed

Simulation procedure Step five: Enter unit operation data Step one: Define components Water ammonia Step two: Choose thermodynamic model SRK Step three: Build simulation flow diagram Step four: Enter stream data Feed Saturated vapor at P=250 psia 20 wt% water 80 wt% Ammonia Mass Flow rate: 10000 (lb/hr) Step five: Enter unit operation data Condenser Q=-5.8*106 J ΔP=0 Psi Expansion valve Isentropic process ΔP=150 Psi Flash Adiabatic flash CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Next step id defining thermodynamic fluid package Go to the Fluid Package section

Click Add to create new fluid package

To define Thermodynamic fluid package Select if from the list

Choose SRK as Thermodynamic fluid package

Close the Fluid package Components and thermodynamic package were defined now process flow diagram can be developed

Save your file

Draw simulation flow diagram

process flow diagram should be developed in Simulation Environment

Object Palette Simulation environment of HYSYS

Simulation procedure Step five: Enter unit operation data Step one: Define components Water ammonia Step two: Choose thermodynamic model SRK Step three: Build simulation flow diagram Step four: Enter stream data Feed Saturated vapor at P=250 psia 20 wt% water 80 wt% Ammonia Mass Flow rate: 10000 (lb/hr) Step five: Enter unit operation data Condenser Q=-5.8*106 J ΔP=0 Psi Expansion valve Isentropic process ΔP=150 Psi Flash Adiabatic flash CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Q=-5.8×106 Btu/hr 4 Vapour 6 1 Feed Flowrate: 10000 lb/hr 2 3 Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid 5 1, 2, 3, 4, and 5 are material stream 6 is energy stream CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Input stream data and operating conditions CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Simulation procedure Step five: Enter unit operation data Step one: Define components Water ammonia Step two: Choose thermodynamic model SRK Step three: Build simulation flow diagram Step four: Enter stream data Feed Saturated vapor at P=250 psia 20 wt% water 80 wt% Ammonia Mass Flow rate: 10000 (lb/hr) Step five: Enter unit operation data Condenser Q=-5.8*106 J ΔP=0 Psi Expansion valve Isentropic process ΔP=150 Psi Flash Adiabatic flash CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psi Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psia Liquid CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Example 1: Feed Condenser Expansion valve Separator Vapour Q=-5.8×106 Btu/hr ΔP=0 Feed Flowrate: 10000 lb/hr Adiabatic flash ΔP=0 psia Water: 20 wt% Ammonia Saturated vapor at 250 psia ΔH=0 ΔP=150 psia Liquid We want to know what are the composition and flow rate of the vapor and liquid stream? CHEM2002 - Dr. Ahmed Al-Dallal - 2013

CHEM2002 - Dr. Ahmed Al-Dallal - 2013

Creating report in HYSYS When process simulation is completed usually it is necessary to create a report which can contain information about Process Process flow streams Material streams and Energy streams Unit operations

We want to have specific unit sets for report Like: Mass flowrate in lb/hr, Pressure in psia