SUPCON
Advanced Process Engineering eXpert (APEX)
Intelligent Plant
CONTENTS
PART 01 Product Description 01
PART 02 Product Features 06
PART03 Potential Applications 18
PART 04 Typical Applications 24
PART01 Product Description
APEX is a general process design & simulation platform for process industry, which provides expertize in process engineering, process optimization and plant operation through processmodelingand simulation.
The cornerstone ofmodern process industrydevelopment
Advanced Process Engineering eXpert (APEX)
APEX isa self-developed general process simulation platform
·Based on SUPcoN's30 yearsof experience inthe process industry
·Advancedtechnology route
·Fully independent intellectual property rights
·Focusedoniing,emical,oild s,lymerndoalmical iie
·Fullifecyclecost reductionandefficiencyimprovement inindustryplants
Enhanced Equation Oriented Modeling Approach
·A unique approach to construct open equations to improve solution efficiency
eXcellence Bron to be excellent
Anew generation of general process simulation platform based on equation orientedtechnology,withbettermodelingtechnology&betterperformance.
eXtension
Life cycle Application
Full life cycle modelling services for enterprises; Variousprocessapplications inonemodelling platform
eXpansion Creativity and Openness
APEXplatformempowersthousandsof enterprisestobuilda new formof openness,sharing,co-creationnd itegration.
Product Features
Functional Architecture
·Powerfulthermodynamic method libraryand unit modellibrarycombined with the computational engine to build the platform operation foundation.
·Openinterface system to supportthe APEX platform to interact with other information technology and intelligentsystems to achieve bettermodel application effect.
·More effcient and suitable for simulation and optimization of complex processes in multi-application scenarios through the joint action of various functions under equation oriented modelling.
Distributed Service
APEX software platform takes distributed serviceclusteras the core,and can be configured to run on standalone server or multiplecloud servers.
·SupportsWindows,Mac, Linux and other op-erating systems. ·All end users canaccess the same service clusterat the sametime,which is convenientforcollaborativework.
PART02 Product Features
APEX provides2160 pure substancesand 15 thermodynamic method packages,supporting calculations related to crude oil, polymers,and solids,as well as thermophysical property analysisand regression tools. Process modeling is supported by 30 general unit modulesand custom models. The platform also offersadvanced featuressuchas variable specification,connectionstrategy configuration, and objective function configuration, as well as various run modesand scriptcalling capabilities,facilitating model analysisand optimization.
Physical PropertiesData
·2160 pure substances,more than100 segmentsand polymers,68 property constants,16 temperature-d pendent properties
·More than 385oo binary interaction parameters
·Supportsconventionalomponents,crudeoil,polymers,conventional solidsand unconventionalsolids ·Supports customised addition and modification of property data
·293 Henry'sparameter
·Supports data regression, parameterisation,parameter estimation, etc.
| Substance Details | ||||||||||
| Compon.. | PROPANE | Formula | C3H8 | CAS 74-98-6 | ||||||
| Type | Conventional | Compon.. | PROPANE | |||||||
| Physical properties | Equation | |||||||||
| Name | Description | Unit | Source | Value | ||||||
| MW | 回 | |||||||||
| MW | unitless | System | 44.0956 | |||||||
| A | NBP | Normal boiling point | C | System | 回 | -42.04 | ||||
| A | ACEN | Acentric factor | unitless | System | 0.152291 | |||||
| A | TC PC | Critical temperature | C | 回 | System | 回 | 96.68 | |||
| A | VC | Critical pressure | bar | System | 回 | 42.48 | ||||
| A | ZC | Critical volume | cum/kmol unitless | System | 0.2 | |||||
| A | VB | Critical compression factor | √ | System | 0.276 | |||||
| A | SG | Molarvolume at normal boiling p..cum/kmol Specific gravity | unitless | System | 0.0757 | |||||
| A | API | API | unitless | System | 回 | 0.5077 147.2 | ||||
| A | GFOR | Gibbs free energy of formation fo... | J/kmol | System | -2.439E+7 | |||||
| HFOR | Enthalpy offormation forideal g.. | J/kmol | System System | -1.0468E+8 | ||||||
| GSTD | Standard Gibbs free energy of fo.. | J/kmol | System | 回 | -2.439E+7 | |||||
| 五 | HSTD | Standard enthalpy of formation f... | J/kmol | □ | System | 回 | -1.0468E+8 | |||
| HFUS | Heat of fusion under fusion point | J/kmol | □ | System | 3524000 | |||||
| A | HCOM | Standard enthalpy of combustion | J/kmol | System | -2.04311E+9 | |||||
| Listof binary interaction parameters Delete | ||||||||||||
| Componentsi | Componentsj | Source | Temp... | Aij | cij | LowerT | UpperT | Operation | ||||
| C3H8 | C5H12 | 回 K | 0.0111 | 0 | 0 | 0 | 1000 | DeleteRese | ||||
| A | C2H6 | C4H10_1 | □ | K | 0.0096 | 。 | 0 | 0 | 1000 | DeleteResel | ||
| C4H10_1 | C5H12 | 回 K | 回 | 0.00292 | 0 | 0 | 0 | 1000 | DeleteRese | |||
| A | C3H8 | C4H10_1 | K | 0.0033 | 0 | 0 | 0 | 1000 | DeleteRese | |||
| C2H6 | C5H12_1 | 回 K | 0.0078 | 0 | 0 | 1000 | DeleteRese | |||||
| C2H6 | C6H12 | K | 0.0178 | 0 | 0 | 0 | 1000 | DeleteRese | ||||
| C2H6 | C3H8 | K | 0.0011 | 0 | 。 | 0 | 1000 | DeleteRese | ||||
| C2H6 | C4H10 | K | -0.0067 | 0 | 0 | 0 | 1000 | DeleteRese | ||||
| A | C3H8 | C4H10 | K | -0.0078 | 0 | 0 | 0 | 1000 | DeleteRese | |||
| A | C4H10_1 | 国 | C4H10 | K | -0.0004 | 0 | 0 | 0 | 1000 | DeleteRese | ||
| C5H12_1 | C6H12 | K | 0.0037 | 0 | 0 | 0 | 1000 | DeleteRese | ||||
| A | C4H10_1 | C5H12_1 | √ K | 0.0174 | 0 | 0 | 0 | 1000 | DeleteRese | |||
| C3H8 | C5H12_1 | 回 | K | 0.0267 | 0 | 0 | 0 | 1000 | DeleteRese | |||
| Please select.. | ||||||||||||
ThermodynamicMethod
·EquationsofstatemethodssuchasPR,RK,RK,BWRS,H, etc.
·Activitycoefficient equation methods such as IDEAL,NRTL, WILSON,UNIQUAC,COSMO-UNIFAC,etc.
·Vapor-liquid phase methods such as NRTL-HOC,WILSON-HOC,etc.
·Polymer methods PC-SAFT,POLY-FH,POLY-NRTL,etc.
·Other equations such as IF97,etc.
·First-orderand second-orderderivativesof fugacity,enthalpy,and entropywith respect to pressure,temperature,composition, etc.
·Thermal conductivity,viscosity,surface tension on pressure, temperature,compositionof the first-orderderivative,second-order derivative,etc.
·Supports flexible configuration forphysical propertycalculations of various physical property methods to improved simulation accuracy
Description Please entera description
Basic Algorithm SRK Description:Standard Soave Redlich-Kwong state equation. Applicable to non-polar or weakly polar mixtures,such as hydrocarbonsand light gases (suchas CO2, H2Sand H2),recommended for gas processing,refining,and petrochemical applications, such as gas production plants, crude oil columns,and ethylene plants.Particularlysuitable for high-temperature,high-pressureranges,suchas hydrocarbon processing applicationsand supercritical extraction.
FreeWater IF97 i Description:Use IAPWsi997 industrial formula tocalculate the thermodynamic propertiesofwaterand steam. Suitablefor the calculationofwaterand steam thermodynamic properties. Algorithmdetails
| Algorithm details | ||||||
| Bask-SHK | FreeWater-I97 | Othe Settings | ||||
| Physical properties | Methods | Path config. | ||||
| Fugacity coeficdent for pure substances | ||||||
| Fugacitycoeficientof pure substance Ingasp. | PHN_SRK | Edt | ||||
| Fugacity coeficient of pure substante n llqul.. | PHIL_SRK | Edit | ||||
| Fugacitycoeficiont formxtue | ||||||
| Fugacitycoffetofmxure ingasphase | PHNMIX_5RK | Edt | ||||
| Uquid mture fugacity coefficlent | PHIUMIX_SRK | 区 | Edit | |||
| Molar enthalpyof pure substance | ||||||
| Molarenthalpyofgas phase puresubstance | HV_5RK | Edit | ||||
| Molarenthalpy of liquld phase pure substance | HL_SRK | Edit | ||||
| Molarenthalpyofsolidphasepuresubstance | HS_GEN | Edit | ||||
| Molar enthalpyofmiature | ||||||
| Moiar enthalpy of gas phuse mixture | HVMIX_SRK | Edit | ||||
| Moiarenthalpy of liquid phase mixture | HLMIX_SRK | Edit | ||||
| Molarenthalpy of solid phase mixture | HSMIX_GEN | Edit | ||||
| Molar Gibbs freeenergy ofpure substance | ||||||
| MolarGibbs Free energy of gas phase pure su.. | GV_SRK | Edit | ||||
| MolarGibbs free energyofliquid phase pure.. | GL_SRK | √ | Edlt | |||
| MolarGbbs frse enargy of solid phase pures. | G5_GEN | Edit | ||||
| Molar Gibbs frae energy of the mixture | ||||||
| MolarGibbsfre energy of gas phase mixture | GVMEX_SRX | 区 | Edlt | |||
| MolarGibbs free energy of liquid phase mitu.. | GLMIX_SRK | Edit | ||||
Oil Cutting
·Supports for thermodynamic discretisation (oil cutting)
·SupportsP,D86,D2887,D1160,EFVdata inuts
·Supports multiple interpolationand extrapolation methods to fitthe crude oil curve
·SupportstheclculationofNBP,APl,SG,UOPK,W,iticalproperties,lementalotentandtrop erties of pseudo components.
·Supports thecalculationof blendoilpropertiessuchasflashpoint,freezing point,freezing point,turbidity point,Reidvapourpressure,ineticiscositycetaneindex,rfractive index,etc.ofblendedils.
·Support forcrude oil back calculation
| List | Global Analysis Results | |||||||
| List | Reset results | Oil update | Calculate selected oil | |||||
| Index | Name | Type | Data entry | Targeted analysis | Edit | Add to processcalculation | ||
| A | 1 OIL1 | Assay | OILIManagement | OILIAnalysis settings | Delete | □ | ||
| > | 2 OIL2 | Assay | OIL2Management | OIL2Analysis settings | Delete | □ | ||
| A | 3 BLEND | Blend | BLENDManagement | Delete | □ | |||
| A | Please enter the name | |||||||
DE 082 oioaapPoudpeet one lethaetas Mied dl propen Maetfatien Rebartarton P 期 始 UOPK W8 0 GL MOL 06 putbnong Poes Pakcorpeeen Netalie MeloEpeprtes 9e 6.096 三 mmm L.mulal mii 国面国 . KCS E3 C 8 158 . 87 日 27.051 园 , KOF 00624 120086 6.03054522 NES7E 6402 0.795226 1178106 .28 7.08 netied 5. Lss 13280 6.038050 3E.8U 46624 . 1L208 5.A E6 Atatenthod 1.285m EUP 0R04M2 :99s8r 6029225 412.729 %购 01 8/m 01.298
Polymer
·Supports for chain segments and polymer components,using simultaneous modeling
·Segments,polymer components:property constants and equation parameters
·Thermodynamic Methodssuchas PC-SAFT,POLY-FH,POLY-N
·Coordination polymerization,free radical polymerization and other types of polymerization
·Self-generationof 30 primitive reactions such asactivation, CHAlN-INl,PROP, etc.
·Single/multiple active site catalyst kinetic calculations
·Catalyst active site property tracking
·40 polymer properties:Weight-average molecular weight,Number-average molecular weight,polydisp sity index,zero/first order moments,etc.
ThermodynamicTool
Physicalcalculations are the foundation of process simulation software calculations,and their accuracyand comprehensivenessplayacritical rolein the overallprocess simulation.Thermodynamic toolsare designed to give the user:
·Propertyanalysisand phase diagrams ·Parameter Regression ·Physical property estimation
Supporting process investigation through physical propertyanalysis,assisting in the establishmentofaccurateand comprehensive physical property conditions,soas to beter match the simulation with the actual operation conditions.
UnitOperation Modules
·Source (3): Material source,Oil source and Heat source
·Heat transfer (4): Heater,Heat flux exchanger, Heat exchanger,Multi-flow heat exchanger
·Splitter/Mixer(3):Mixer,Splitter,HeatMixer
·General separator (4):Flash2,Flash3,Decanter, Componentseparator
·Column (2):Distillation Columns,Extractction Columns
·pressure transformer(4):Compressor, Turbine,Pump,valve
·Reactor (4):Stoichiometric Reactor, Yield Reactor,CSTR,PFR
·Other modules (6):Measurement,Analyzer, Calculator, Hierarchy,Duplicator,Stream Convert
Custom Models
Usersareallowedto createandcustomise processmodelsas needed ·Userscandefine theirown models in theirown wayand to set,optimize,andanalyze parameters according tothe specific needs for non-standard unit models not included in the platform. ·Custom models can use the property database in APEXand are compatible with other gengeral unit models. ·Custom models have encryption capabilities and support developers to customize output file permissions.
Enablesusers to better understand and control the process and improves the overall modelling accuracy and efficiency,while protecting the intellectual property of developers
Appearance setting Connectionpointsetting Model apparance Configuration settings Modeling languge Complle U Matetalfiou Hatiou point 12 TYPE flash NODEL □ peint 34 /\*Canfigunation infonnation, autonatically generated, please do not nodify. \*/ PORTI 窗 5 CGPEAE Name: PORT1 $7 et Type: Material low point V 8 PORT 9 PORT1ASINPUTHATERIAL_PORT Direction: Inlet v 10 //part_name ASINPUT|OUTPUT port_type; Requlred or net: Salse V 11 //port_naneASIUOUTpUr MTIPoRTOFport_type(Min_Connections:min_con,Hax_Connections:max_con); 12 //FUNCTION TO CALCULATE AVERAGR HOLEWEIGHT FOR PIXTURE Umit connection 5ae 13 TYPE aYBPage_NV FUCTION numeror not: 14 Pesition sattig 15 INPUTS:V A molefrgton; x 。 17 OUTPUTS:maASolueight Y: 0.5 18 SOEcerouDo 28 {m(1)=Y,(oonto); 21 A=su(m((1)\*2(1));)
Configuration table 22 bupe M 2324252 /Declare parane asedan existing paraneter types.\*/ Tengersture Tepesature emp 口 Ed //PARAMETER Pesure oas 国 Eds2ewn 26 //paraneter_nane1,paraneter_nane2,-AS parameter_type; 27 //VALIDPHASE
Prevtew 28 TYPE Valid phase STRING_PARAMETER C 2930 VALUE:VAPOR-LIQUID"; bar 31 VALIDASSTRING_SET(["LIQUID”,“VAPOR-LIQUID”,“VAPOR"]); 32 flashSpte Type
EO varlable type Faramsfertype Port type Functlens
EO variabletype Descriptlon
.dl Varabietypena-Defulty- Lowerlimit Upper itPhysicaltype Scale Atribute Description
, nal_variable 。 -↓E+30 1E+30dimensiores 1Cak
A 7 10003 lrers 1ak dName Type Project Created time Last meditie..
” coefficient 1 -50 50 dimensioriess 1Cak No-dats avtlable
\* coec_mole 500 8 10000 Molar concentra. 1Cak Code preview
, cot_mass 10 。 2000 Mass concantra.. 1Cak 1 YPE rel_vrbe VuALE Y AA coedutbty 02 0.00 0erl 1Cak 23456780
. cond_yap 0.1 0.001 1 Thermal conduc.. 1Cak Upper 11E+30;
” 甲_mass 1000 100 10000 Massheat capat.. 1Cak Pysical_Typ "dinensionless";
+ _mole 100 1 1000 Molarheat cape.. 1Cak 定压摩尔首容
. o_mele 100 1 1000 Motarheatcapa.. 1Cak 定容摩尔首容 9 I
4 detta.p 100 1 10000 Presturedrop 1Cai
5 dens_mass 1000 。 25000 Massdensity 1Calc
+ dem_mele 20000 。 5000000 Molardensity 1Cak
, dius_q L5E4 0 0,000001 Difusioncoeffic.. 1Cak 无相扩效系
A diuluop 0.00001 。 0.0001 Difusioncoff... 1Cak 气教系数
” anargyact 10000 -1E+15 1E+15Molaronthalpy 1Cakc 张化丽
F enth_fiow 100000 -1E+10 1+10enthalpyfow 1Cak
3 enth_mass 50000 -1E47 1E+7Massenthalpy 1Cak
F eth_mole 50000 -1E9 IE9Moiarenthalpy 1Cak
+ enth_moie_liq 25000 -1E+9 1E+9 Molaronthalpy 1Calc 尔
b enth_moie_vap 0000 -1E9 IE4GMolarenthaly 1Cak 气朝摩尔给
, fow_mass 0 1E+8 Masstowtate 1Cak
4 fow_mole 。 1E+8Molartowrate 1Cak
1 fow_vol 1 0 1E9Velumef.ow 1Cak
Model Run
·Initialization: Generates model variablesand equations,and determines the rolesof thevariables in the set of equations for fixedand free variables,taking into account theuser'sconfiguration of the connections andvariable specification.Dependingonthevariable specification,different strategiescanbeused togenerate multi-specification initial values,orto import externalyand validate the user's configuration of the variablevalues for the following calculation.
·Run: Basedonthefixedand free variable rolesof thevariablesin theequationsand theirinitial values,the resultsareobtainedby solving thematrixinthesolver
·Stop:Stops the solver from running during computation
·MessagePanel: Printthestepsof initialisationandrunningprocess,whichisconvenientforusers toreview the calculation process and troubleshooting.
flsh Syater Type
EOariabie type Parameter type Porttype Functen
EO variable type Description Variabletpea Defaultv... LoweUpplitaltype Scale Attribute Descriptian
→ real_yerable 。。 -1E+30 1E+30dimensionless 1Calc
, ange 1 7 dimensienless 1Cal Name Type Project Created time Last modife..
., aree 1 。 1900000 Ares 1Calc
, coefldlent 1 -50 50dimensienless 1Calt icd 二 8- 1 国 W
, cond_vep 0.1 0.001 1 Thermal cendu. 1Calc
, c_mass 1000 100 1000Masshat capac. 1Calc
1 _mole 100 1 1000Moiarhet cape.. 1 Calc 定压摩尔热
, cr_mole 100 ” 1000Molarhest capa. 1Calc 容摩尔热容
3 delta_p 100 1 10000Pressuredrop 1Calc
, dem_mass 1000 。 25000Massdensity 1Calt
1 dems_mole 20000 。 o0Molardensity 1Calc
T diffsulg 1.5E9 。 0.0001 biffustoncoeff.. 1Calt 相散系
7 diffis_vap 0.00001 。 c.loifusion.coff.. 1 Calt 气相教系 energy_at 100000 -I+15 1E+15Molarenthalpy 1Calc 张化能
3 enth_flour 1000000 -1E+10 1E+1nthalpy feow 1 Calc
1 enth_mass 500000 -1E+7 IE+7Masenthaipy 1Calc
, enth_mole 50000 -LE+9 IE+9Molarenthalpy 1Calt
3 enth_mole_liq 25000 lE9 1E9Molarenthalpy 1Calc 相尔 enth_mol_sup 60000 -LE4 IE9Moarenthatly 1Calt 气相摩尔给 fow_mass 1 。 1E-8Massoate 1Calc Row_mole 1 。 18Molarfowte 1Calc fw_.vel 1 0 Volume fow 1Calc
Application
VarSpecalteration:Variables are clasified into six types of variable specification suchas "Constant","Calculated",etc.Specificationalterationallows you to change the specification ofa variable to change its fixed variable and free variable roles in each mode of operation.
| Specification | Simulation | PairingsCalibration | Reconciliation | Optimized |
| Constant | Fixed variable | Fixed variable | Fixed variable | Fixed variable |
| Calculate | Freevariable | Freevariable | Freevariable | Freevariable |
| Measured | Freevariable | Fixed variable | Fixed variable | :Freevariable |
| parameterized | Fixed variable | Freevariable | Freevariable | Fixed variable |
| optimized | Fixed variable | Fixedvariable | Fixed variable | Dofvariable |
| Reconciled | Fixed variable | Fixed variable | Dofvariable | Fixed variable |
EO variable value configuration:Specify information about allvariables,seting thevalue,unit,lower limit,upper limit,step limit,boundary type,and scale.
| jGlobal | |||||||||||||
| Process | VarSpec managoment EO Var manago | Strategy Manage | Objective function | E0 varlable | Results | ||||||||
| EO variable vale | variabio connection | Gain analysis | Sensitivity analysis | ||||||||||
| QUALITY | Variablename | Yalbe | Unit | Lower Bound | Upper Bound | Stap Bound | Bound Type | Scale | |||||
| SWAP | 0 | D1VAR.D1L_PROPANE D2VAR.D2V_PENTANE | fraction fraction | 0 。 | 0.087 | ||||||||
| RECVAR | 0 | SPLITWAR.SOUT_PROPANE | = | fraction | 。 | 0.06 0.25 | |||||||
| OPTVAR | 0 | Please enter EO variable | 8 | ||||||||||
Using EO variable value configurationsand VarSpecalteration,the function of back-calculating process conditions based on the requirements of the model's target parameters is realised.VarSpec alteration determines the fixedand freevariable roles,and EO variable value configurationdeterminesthe target values of the variables.
Gainanalysis:Solves the partial derivativerelationship between fixed and free variablesaccording to the currentmodel structureandvariable values.
| Basic config Results | |||||||
| Fixed variable Free variable | SPLIT.VAR.SR_MASS (kg/hr) | SPLIT.VAR.SOUT_PROPANE(f... | HT.VAR.DUTY (KW) | ||||
| FO.VAR.PROPANE_MOLE_FRAC (fraction) | D1.VAR.D1L_MASS(kg/hr) -11270.26 | 17.78668 | -0.005806529 | -3.650789 | |||
| SPLIT.VAR.SR_SPLIT_FRAC (Unitless) | 1159.35 | 1148.565 | -0.000006041587 | ||||
| P | -2.249023 | ||||||
| MX.VAR.P_DROP (bar) | 0 | 0 | 0 | 0 | |||
Sensitivityanalysis:Byadjusting the values of manipulated variablesand calculating coresponding controlvariables,ithelps identifykeyparameters,and evaluate theimpactof parameters inorder topredict model responses,aswellastovalidate theaccuracyand reliabilityof themodel.
Application
·Stream connection: Relying on the equation oriented method,a connection strategy is proposed to solve the recycle streams.
·Variable connection: Establish the correspondence between two variablesand incorporate itasa supplement to the overall model equations.
| Index | Name | Target variable | Source variable | Scale | Bias | Enable | Description | Operation | |||
| → | 1 | DUTY | C003REB.VAR.Q_HEAT | 日 | C003.VAR.TR_32_REB_DUTY | 日 | 1 | 0 | □ | Please enter a description | Delete |
| 2 | Co | C003FVAR.CO | H001.VAR.H001OUT_CO | 日 | 1 | 0 | □ | Please enter a description | Delete | ||
| > | 3 | MF | C003FVAR.MF | H001.VAR.H001OUT_MF | 日 | 1 | 0 | □ | Please enter a description | Delete | |
| > | 4 | MN | C003F.VAR.MN | H001.VAR.H001OUT_MN | 日 | 1 | 0 | □ | Please enter a description | Delete | |
| 5 | ML | C003FVAR.ML | □ | H001.VAR.H001OUT_ML | □ | 1 | 0 | □ | Please enter a description | Delete | |
| 》 | 6 | CH40 | C003F.VAR.CH40 | 日 | H001.VAR.H001OUT_CH4O | 日 | 1 | 0 | □ | Please enter a description | Delete |
| 7 | DMC | C003F.VAR.DMC | □ | H001.VAR.H001OUT_DMC | 日 | 1 | 0 | □ | Please enter a description | Delete | |
| 8 | H20 | C003FVAR.H20 | H001.VAR.H0010UT_H20 | 日 | 1 | 0 | □ | Please enter a description | Delete | ||
| 9 | N2 | C003FVAR.N2 | □ | H001.VAR.H001OUT_N2 | □ | 1 | 0 | □ | Please enter a description | Delete | |
| 》 | 10 | NO | C003F.VAR.NO | 日 | H001.VAR.H001OUT_NO | 日 | 1 | 0 | □ | Please enter a description | Delete |
| 11 | DMO | C003FVAR.DMO | H001.VAR.H001OUT_DMO | 日 | 1 | 0 | □ | Please enter a description | Delete | ||
| A | Please enter a.. |
·Degree of freedom analysis:Analyzing the degreeof freedomof model variables inthe fouroperatingmodesto allowuserstoconfirm the mathematical validity of the equationsafterapplying theapplication functions ·Block statistics: Summerize the number of blocks in the model
| SUCCE.55 | 2024–03-16 12:54:20 | Cartent opecation: | Degree ot Eceedon enalysis |
| LOG2024-03-16 12154120 | Careent execation donsin: | Globa1 | |
| LOG2024-03-1612:54:20 | Equ8t10ns1 | 18857 | |
| LOG2024-03-16 12154120 | Ean node: | Siaslation | |
| LOG2024-03-1612:54:20 | Variablei | 20871 | |
| LOG2024-03-1612154120 | Fixed variable: | 1922 | |
| LOG2024-03-1618:54:20 | Ean node1 | Fairinge Celbcation | |
| LOG | 2024-03-16 13154120 | Vxriab1e1 | 20871 |
| LOG | 2024–03-16 12:54:20 | Fixed variabie) | 1912 |
| LOG2024-03-1612:54120 | Run node: | Becongiliation | |
| OG2024-03-1612:54120 | Ver1aB2e1 | 2017 | |
| LOG2024-03-1612:54:20 | Fixed variable: | 1982 | |
| LOG2524-03-1612:54:20 | Bun node: | Opt1n1sed | |
| LOG2024-03-1612154:20 | Veciable: | 20871 | |
| LO02024-03-1612:54:20 | Fixed variable! | 1982 |
| SPCE552024-03-1612:55:58 Current cperation: | |||
| 1002024-03-1612:55:58 | Current execution donain: | Hodule statiatics Global | |
| 10G | 2024-03-1612:55:58 | Current levelAnalyrisCount: | 1 |
| 10G | 2024-03-16 12:55:58 | Current 1eveiNHeatXCount: | 2 |
| 0G2024-03-16 12:55:58 | Current ievei8ierarchyCoant: | 2 | |
| 10G | 2024-03-16 12:55:58 | Current IeveiNxerCount: | |
| 10G | 2024-03-16 12:55:58 | Current leveLSeplisCouat: | 2 |
| 1OG2024-03-1612:55:58 | Current levelMetSCount: | 2 | |
| 1OG2024-03-1612:55:58 | Current IevelDtatTowCoant: | 1 | |
| 1OG2024-03-16 12:55:59 | Current levelFissh2Count: | 1 | |
| 10G2024-03-16 12:55:58 | Current leveleaterCount: | ||
| 10G2024-03-1612:55:58 | uber of module units at this level:17 | 5 | |
·Model Statistics:Countsthe numberofvariablesand equations included in themodel to view the size of themodel equation.
| SCC2S2024-03-16 12:56:26 | Current operation: | Model atatistics | |
| 10G | 2024-03-16 12:56:26 | Current execution donain: | Global |
| 10G | 2024-03-16 12:56:26 | Run node: | Simuletion |
| 1OG2024-03-1612:56:26 | Variable count | ||
| 10G | 2024-03-16 12:56:26 | Fixed variable: | 1982 |
| LOG | 2024-08-16 12:56:26 | Dof variable: | |
| 1OG2024-03-1612:56:26 | Zquation ccunt | ||
| 0G2024-03-16 12:56:26 | Enabled equation: | 18857 | |
| LOG | 2024-03-1612:56:26 | Hodel equetion: | 16966 |
| 0G | 2024-03-26 12:56:26 | Connection equat.on: | 1891 |
| 10G | 2024-03-16 12:56:26 | Diaebled equaciont | |
RunMode
The platform supports four run modes: simulation,pairings calibration,reconciliation and optimization.
Simulation:Steady statemodeling of the device based onequilibrium equationsand energy transfer rate equations. PairingsCalibration:Twovariablescorespondtoeachotherone byone,using thevariablethatis the fixed to back-calculate the variable that is the free variable to achieve data pairing
Reconcilation:Using onesetofdata,themodeliscalibrated byminimising theobjectivefunctionandcalibrating anotherset of data.
Optimization: Globally coordinated overall optimizationofa multi-constraint plant througha multivariateone-time solving process
Depending on the run mode, different objective functions can be set:
Sumof Squares+Minimization:Minimises thedeviation of the modeldata from the actual plant andcalibrates non-measurable parameters suchas tray eficiency,entrainment,heat exchanger heat transfer coeficient,etc. Linear+Maximizaiton: Maximum economic benifits of the plant,maximum product yields, etc. . Linear+Minimisation: Minimum plant carbon emissons,minimum raw material consumption,etc.
Funcfionsettings Results
OPT
RECI Typ\* Ecale
Pleasete Unit dectaunt + New Label ED variable Mean Standard-\* Physical Type Unit Enable Operation Results T1 SLARTE,OFE 。。 1 Dmt DELIAC 0 Trend Maximize Scale 1 Dalote FDIV MSML.VARFIDIV_OFFSE 。 Massfow kg/hr √ Enabi Daliote AIDV MSMLYARAIDIV_OFFSE_ 0 6.5Content fractios M Inie Dalrte TID2 MSMLVARTID2_OFFSET 。 DetaT DELTAC S ntin Dalate EOvrialejectiv Price Priceunit Pricevrable Enable Operation P 三 。000。 佳 多 DDDDD 1 插摄 三 田田 三 国国国国 #美 En bic Please ant tse entor □ MSMLVAR.QIHT_PLANT ·1.38E-7 RMB Ens Delete Please ent... Please oter D
Scripts
Scriptsallows forautomated processingand customisation through simplecommand linecalsto the model
Userscan defineand modifymodel parameters,performsimulationoperationsandanalyze model,aswellasoutput the results to a specified file.
The scripts language supports loops and conditional statements for calculations and parameter optimization. Scriptscanreplacerepetitiveoperationsontheinterface,whichincreasestheeficiencyandflexibiltyofthesimulation especially for real-timeoptimizationscenarios.
Enables users to perform simulationsand analyze more quickly,and improves productivityand productquality.
面
06-0523 818 sesptr)
股体理目册 1e 9k Wm FSYS.o WE S2 0t # SARR6S SGNS 5r rSoe WDts tsatathi 180264 T8p(kel NVOXE(B:uDC21142024112082147acripfkptat) WRIM SR 5.95S 5.95 t/sai ese MRSIX rUWSIN 0.808 080 nd NVOxt (sc114(5N23214(r(pHppt) J W3N PWUW 1m0n 1.808 med 1WZ SR2 0 VLL.FIOUE 0a6265 0.3566 Iad5
PART03 Potential Applications
APEXcan be used to reduce the number of experiments in the research and education area of the process industry, and to achieve safety and security in the design/redesign stage. Also to compare numerous solutions and customise process design in the operation stage. In the retrofit stage, it can be used to break through process bottlenecks,to redesign the plant,and to carry out simulation and optimization in the whole life cycle. In the retrofit stage, it can be used to break through process bottlenecks, redesign the plant, carry outsimulation and optimization throughout the entire life cycle,and achieve objectives such as cost reduction,quality enhancement,efficiency increase, safety,andenvironmental protection.
Processsimulation software/platform
Inthe process of research and development of new technologyand new products,processimulation technology can be used to replace intermediate tests,to reduce experimental work,and to shorten thedevelopment cycle.lt greatly improves the eficiency and qualityof scientific research and development,and savesa lotof manpowerand material resources,aswellas reduces thecostof scientific researchand development.
Inengineering design,the platform provides rich andaccuratephysical properties data,material balance, andhydraulics calculation.Itcanalsoachieve "one-to-one"or"multi-to-one"parameterbackcalculation through the operation modes of "pairingscalibration"and "reconciliation",providingadata basis for the selection of solutions forprocess planning.The platform has various ways todisplayoperation data,including multi-dimensional dataof variablesateach level,and the partof datathat usersare mostconcerned aboutcanalsobe displayed in theflowchart.Inaddition,theEOvariablescanbeexportedasa local file, which provids powerful data support for process design.
ApplicationScenario Scheduling
Themechanismmodel of the APEX platformcan provide the planning and scheduling scheduling software with the device Delta-base data model for planning and scheduling software toimproveplanningaccuracyand schedulingrationality.
Inaddition,theplant-widemodelbuiltbasedontheAPEX platform can be used to obtain the single-cycle production planning and scheduling plan with the greatest global benefitsbased on its own nonlinear solver.The problem is solved under theinfluence of multiple parameterssuchas rawmaterial prices,processing loads,processing costs,etc.,which helps to improve the overall benefits.
Optimizingraw prmulingtharawameatonthe
materialselection enterprise'sbenefitcalculation. Development of plant processing
Optimizing plansand operatingparametersin accordancewiththerawmaterial
processing plan propertiesand changes in product demand Develop product processing plans
Optimizing product with the objective ofmaximizing
solutions benefitsbased on product priceand qualityconstraints
ProductApplicationScenarios Real-timeoptimization(RTO)
RTOOperating Principle
Real-time optimization is theprocess of obtaining real-time processdata and operating conditions of the device.It iscaried out under the premise of meeting the planning and scheduling objectives.The aim is to maximize production eficiency.This isachieved byadoptingasteady-state mechanism model based on equtionoriented models to optimize the operating parametersof the device.Theoptimized operating parametersare then fed back into the control system to carry out the optimization process.
APEXmodelingapplications
With functions such as "VarSpec alteration"
"EOvariablevalue configuration""Objective
Functions"and "Gain Analysis,"processmod
elingand debugging processes for RTO ap
plicationscanbe performed.Thedata recon
ciliation and optimization objective function are created and solved in the corresponding operating mode to obtain a data calibration orsolution optimization.
Product Application Scenarios- -Advanced Process Control(APC)
The Advanced Process Control(APC)adjusts the manipulated variables in response to the controlvariable settings based on the gainobtained from the device'sstep test and the process controllogic.Typically,whenan APC systemis implemented inaplant,normalandstableoperating conditionsareselected,and theequipment is perturbed to obtain a batch of gains around the current operating conditions.
However, this method of obtaining gains has the following problems:
Requirementsfor the operating conditionsof the plantare strict
Gain isonly valid when the operating conditionsare similar to the step testconditions.Higher the devia
tion,worse the results are
Step test that disturbs the devices may interrupt the normal production process
The "gainanalysis"functionof this platformsolves thepartialderivatives in thesystemof model equations andthroughonlineoperation,the gain ofthe manipulated variablesoverthe controlvariables canbe obtained undereach operating condition.Bylinking theAPEXplatform with theAPC software,itispossibletoobtain theoperatingdataof thedeviceonline and update thegainof the relevant variables to theAPCsystem in real time,without having toperturb thedevice toobtain thegain.Inthisway,therealtimeandeffective stable control of the devices is guaranteed.
ProductApplicationScenarios Meta-Plant
The constructionof the Meta-Plant is basedon theAPEXplatform to establishastrict mechanistic model for enterpriseequipment.It empowers employees tooperate core productionsections more safely,smoothly,and with lower consumption.With theassistanceof AR/VR technology,itsignificantlyimproves the efficiencyof internaland external collaborationand evaluates employees'performance without feeling.Relyingonapoints systemaiming to improving equipment effciency,itmotivates employees tocomplete production tasksmore safely,efficiently,and energy-saving,and to forma closed-loop operational cycle.
The Process Industry Process Simulation and Design Platform,asan essential component of the Meta-Plant technologyinfrastructure,supports operators in examining productionactivities in the Meta-Plant from a mechanistic perspective.It helps identifyoptimization pointsthat were dificult tocalculate orobtain in past, and enhancesemployees'benefitsunder the Meta-Plant evaluationsystem.
PART04 Typical Applications
Asageneral processsimulationplatform,based ontheFirstPrinciple,APEXcansimulate processesforequipmentwithclearmechanisms inindustries,suchasrefining,chemical, oil and gas,polymers,coal chemical etc..
Refining: U, CR,HCR,FCC, PX, PTA,ethylene,tc.
Chemical:EG,C,O/moiathis,etholsthesis,imeth phite,etc.
Oil and gas: oil and gas separation, natural gas dehydration, LNG liquefaction, etc. Polymer: polyethylene,polypropylene,ethylene propylene rubber, polyvinylacetate Coal chemical industry: coal gasification,conversion,O, liquid-nitrogenwash
Application Cases- Modelling of Crude Distillation Unit (CDU)
Crude Distillation Unit (CDU):Arefinery key unit that separatescrude oil into intermediate products for furtherreactionandseparation toobtain the finalproduct.Crudeoil isseparated intodistillatesof diffrent boiling ranges through three major processes:pre-treatment (desalting,dewatering,fractional distilation), atmospheric distillation and vacuum distillation.
The platform hasanaccurate oil cuting calculation function,which independently designs thecut scheme basedon thedistilationcurvedata,and characterises thecrudeoil,acomplexmixture,intoasetof pseudo components with different distillation ranges for separation design.
Crudedistillationmodel includefractionaldistillation,crude distillation columns,vacuum distillation,and three sets of heat exchanger networks for pre-desalination,post-desalination,and primary bottom.By modelling the columns, heat exchangers,and other equipments, the process parameters of thewhole plantinany processand equipmentcan beanalyzed indepth,which is convenient fordesigning/re-designing,operation,and retrofitting.
Upon comparison,theaccuracy of the model'scalculation results reaches the level of accuracy of othermature process simulation software.
Application Cases- Modelling of Continuous Catalytic Reforming Unit (CCR)
Continuous catalytic reforming are designed to producearomaticsor high-octane gasoline and arean importantsource offeedstock fordownstream aromaticsunits.The reforming reactionunit is the core ofthe continuous reformer,whichdetermines the yieldand compositionof the reformed products.However,thereaction process isverysensitivetothereactionconditions,suchasreactiontemperature,hydrogen-oilratio,andfeed composition,and it is difficult to determine the optimal reaction conditions based on experience.
Reaction network consist of 301 reforming reactions: □ 9alkaneisomerizationreactions □ 26alkanedehydrogenationcyclization reactions □ 6cycloalkane isomerization (ring expansion) reactions □ 9cycloalkanedehydroaromatizationreactions □ 59 hydrogenolysis reactions □ 35cycloalkanedealkylationreactions □ 79 hydrocracking reactions □ 36aromaticdealkylationreactions □ 6 polymerizationreactions □ 36 coking reactions
Catalyticreformingreactionnetwork
TheAPEXplatformcharacterisesthe feedstockand productcompositionusinga50-moleculesetto model CCR process.The model optimizes the optimal reforming reaction conditionsand otherplant operating parameters toachieve the operation optimization process.
Closed-loop linkage was established throughanonline real-time optimizationplatformandanAPC system. Aftercalibration,following the implementationof RTO,the BTX yieldof theunit increased by 0 . 5 8 %
Application Cases Modellingofdimethylphosphite
Achemical enterprise produces dimethylphosphite from thesynthesis reaction of methanoland phosphorus trichloride under negativepressure and obtains other by-products.Acertain production line has the problem of lowyieldof themain product.Basedon theAPEXplatform,theenterprisecarriedoutin-depthanalysis and accuratesimulationof thereaction process,and used themodel toguide themodificationof thereactorand process,and achieved good results.
The reaction kineticsmodelisaccuratelycalibrated with productionandanalyticaldata from theesterification reaction section.
Afterrepeatedanalysesand calculations bymultiplemeasurementmodulesandanalysis modules,the simulationresults under multiple working conditions match the actual data by more than 9 9 % 业
The Comparision between the product yied of Reactor2 before and afte the reconstructionsupportedbyAPEX (2022.10.1-2022.12.6)
93.0 Product Yeild increased
92.0 by>2%
91.0 MWw Reactor3 Mwwwwww
90.0 After reconstruction:
A 2022/1/uAtion completed Average90.7% Average88.5%
87.0 N Reactor3 Reactor2
Analyse thecauses of low yields based on rigorous modeling and propose safe and reasonable equipment and process modifications Main product yield increased by more than 2 % after the retrofit was implemented
PART05 Benefits
SUPCON has been deeply cultivating the process industry for many years. With the progress of science and technology,adhering to the goals of efficient operation,interconnection,openness,and sharing,and guided by the core valueof "customer success", SUPCON hasstarted and achieved the research and development of process simulation and design platform. Based on the current technological background and industry demand,SUPCON hasdeveloped products that are more open, general, and meet the customized needs ofdifferent industriesandusers.
Co-creation and Sharing
APEX platformreliesonthe functions,as wellas the distributed interaction architecture,to build a new formof customisation that is open, shared, co-created and integrated.
Users can carry out secondary development of customised parts on the APEX platform F Integrate proprietarypropertydatabase,thermodynamicdatabase,reaction kinetics,unit models,solvers, etc.within this platform. Providing the entire product toall users, including themodel provider.
Talent development: Universities can use the platform for talent development free of charge
Efficient R&D: Research organisations and design institutes use the platform to develop new processes, productsand accelerate engineeringdesign.
Energysaving,emissionreductionand eficiencyimprovement:Enterprisescanuse thisplatformtobuilda full process modelbased on digital twins to provide control and production solutions for plant start-up and shutdown,process modification,advanced control,real-time optimizationand planoptimization. Resource sharing:Alluserscansharemodelson the platform toaccelerate the dissemination of knowledge and the transformation of results.
AI-POET 5T Connects the Eraof Intelligence
SUPCON




