source: trunk/BioModel/pressure_changers/pump_w.mso @ 1008

Last change on this file since 1008 was 1008, checked in by Argimiro Resende Secchi, 20 months ago

Adding BioModel? to the MSO library.
File size: 6.6 KB
Line 
1#*-------------------------------------------------------------------
2* Biorrefinaria Petrobras
3*--------------------------------------------------------------------
4* Nome do arquivo: pump_w.mso
5* Projeto: Modelo integrado de producao de etanol 1G/2G
6* Conteudo: bomba
7*--------------------------------------------------------------------*#
8
9#*-------------------------------------------------------------------
10*
11* Versao 2.1
12* Data:    03/2016
13* Autor:   Anderson R. A. Lino e Gabriel C. Fonseca
14*
15*--------------------------------------------------------------------
16*Descricao: modelo da bomba para agua que sera empregado na biorrefinaria
17*--------------------------------------------------------------------
18
19*--------------------------------------------------------------------
20*Notas: Foi feito o flowsheet teste para averiguar o modelo
21*As siglas R, L sao indicativos da posisao da corrente de saida
22*sendo R=right e L=legth.
23*--------------------------------------------------------------------*#
24
25using "water_stream";
26using "energy_stream";
27
28Model pump_wL
29       
30        ATTRIBUTES
31        Pallete = true;
32        Icon    = "icon/WpumpL";
33        Brief   = " Model of a Pump for Water";
34        Info            =
35"== GENERAL ==
36        General model for a water pump.
37       
38== ASSUMPTIONS ==
39* Steady State:
40  flow rate
41  temperature
42  pressure
43  stream composition;
44* Only Liquid;
45* Adiabatic.
46
47== SPECIFY ==
48* Inlet stream;
49* Outlet pressure or pressure increase;
50* Pump efficiency.
51       
52== SET ==
53* fluid density in the pump;
54* Specify the phase that comes out of the source.
55";
56       
57#*-------------------------------------------------------------------
58#Parametros
59*--------------------------------------------------------------------*#
60
61        PARAMETERS
62        propterm        as Plugin               (Brief = "IAPWS 97 properties of water", Type = "water", Symbol = "{}");
63        density         as dens_mass    (Brief = "density of Water", Default = 1000, Symbol = "\rho");
64       
65#*-------------------------------------------------------------------
66* Declaracao de variaveis
67*--------------------------------------------------------------------*#
68
69        VARIABLES       
70in      Inlet           as water_stream                 (Brief = "Inlet water", PosX=0.0, PosY=0.414, Symbol="_{in}", Protected = true);
71out Outlet              as water_stream_vapfrac (Brief = "Outlet water", PosX=0.504, PosY=0.0, Symbol="_{out}");
72        PIn             as press_delta                  (Brief = "Pressure Increase",Default=0.01, Lower=0, DisplayUnit='kPa', Symbol ="\Delta P");
73        Pout            as pressure                             (Brief = "Outlet Pressure", Default=1, Lower=0, DisplayUnit='atm', Symbol ="\Outlet P");
74        n                       as fraction                     (Brief = "Pump Efficiency", Symbol = "\eta");
75in      Inlet_p         as power_stream                 (Brief = "Pump Potency", PosX=0.5, PosY=1.0, Symbol = "_{in}");
76       
77#*-------------------------------------------------------------------
78* Equacoes do modelo
79*--------------------------------------------------------------------*#
80       
81        EQUATIONS
82       
83        "Mass Balance"
84        Inlet.Fw = Outlet.Fw;
85       
86        "Pressure Delta"
87        Outlet.P = Inlet.P + PIn;
88       
89        "Outlet Pressure"
90        Outlet.P = Pout;       
91       
92        "Energy Balance"
93        Inlet_p.W = Inlet.Fw * (Outlet.H - Inlet.H);
94       
95        "Water Mass Entropy and Enthalpy, array = [Outlet.S, Outlet.T]"
96        [Outlet.S, Outlet.T] = propterm.propPH(Outlet.P, Outlet.H);
97       
98        "Work"
99        Inlet_p.W * n * density = Inlet.Fw * PIn;
100       
101end
102
103Model pump_wR
104       
105        ATTRIBUTES
106       
107        Pallete = true;
108        Icon = "icon/WpumpR";
109        Brief = " Model of a pump for water";
110        Info            =
111"== GENERAL ==
112        General model for a water pump.
113       
114== ASSUMPTIONS ==
115* Steady State:
116  flow rate
117  temperature
118  pressure
119  stream composition;
120* Only Liquid;
121* Adiabatic.
122
123== SPECIFY ==
124* Inlet stream;
125* Outlet pressure or pressure increase;
126* Pump efficiency.
127       
128== SET ==
129* fluid density in the pump;
130* Specify the phase that comes out of the source.
131";
132
133#*-------------------------------------------------------------------
134#Parametros
135*--------------------------------------------------------------------*#
136       
137        PARAMETERS
138        propterm        as Plugin               (Brief = "IAPWS 97 properties of water", Type = "water", Symbol = "{}");
139        density         as dens_mass    (Brief = "density of water", Default = 1000, Symbol = "\rho");
140       
141#*-------------------------------------------------------------------
142* Declaracao de variaveis
143*--------------------------------------------------------------------*#
144
145        VARIABLES
146       
147in      Inlet           as water_stream                 (Brief = "Inlet water", PosX=1.0, PosY=0.414, Symbol="_{in}", Protected = true);
148out Outlet              as water_stream_vapfrac (Brief = "Outlet water", PosX=0.495, PosY=0.0, Symbol="_{out}");
149        PIn             as press_delta                  (Brief="Pressure Increase", Default=0.01, Lower=0, DisplayUnit='kPa', Symbol ="\Delta P");
150        Pout    as pressure                     (Brief = "Outlet Pressure", Default=1, Lower=0, DisplayUnit='atm', Symbol ="\Outlet P");
151        n                       as fraction                     (Brief = "Pump Efficiency", Symbol = "\eta");
152in      Inlet_p         as power_stream                 (Brief = "Pump Potency", PosX=0.5, PosY=1.0, Symbol = "_{in}");
153       
154#*-------------------------------------------------------------------
155* Equacoes do modelo
156*--------------------------------------------------------------------*#
157       
158        EQUATIONS
159       
160        "Mass Balance"
161        Inlet.Fw = Outlet.Fw;
162       
163        "Pressure Delta"
164        Outlet.P = Inlet.P + PIn;
165       
166        "Outlet Pressure"
167        Outlet.P = Pout;       
168       
169        "Energy Balance"
170        Inlet_p.W = Inlet.Fw * (Outlet.H - Inlet.H);
171       
172        "Water Mass Entropy and Enthalpy, array = [Outlet.S, Outlet.T]"
173        [Outlet.S, Outlet.T] = propterm.propPH(Outlet.P, Outlet.H);
174       
175        "Work"
176        Inlet_p.W * n * density = Inlet.Fw * PIn;
177end
178
179FlowSheet teste_pump_w
180       
181#*-------------------------------------------------------------------
182* Declaracao de dispositivos (ou blocos contendo o modelo)
183*--------------------------------------------------------------------*#
184       
185        DEVICES
186        S101 as water_sourceL;
187        P101 as pump_wL;
188        E101 as power_sourceR;
189       
190#*-------------------------------------------------------------------
191* Especifica as conexoes entre os modelos
192*--------------------------------------------------------------------*#
193       
194        CONNECTIONS
195        S101.Outlet to P101.Inlet;
196        E101.Outlet_p to P101.Inlet_p;
197       
198#*-------------------------------------------------------------------
199* Especifica variaveis definidas no modelo
200*--------------------------------------------------------------------*#
201
202        SPECIFY
203
204        S101.Fw = 100 * 'kg/h';
205        S101.T = 300 * 'K';
206        S101.P = 1 * 'atm';
207       
208        P101.PIn = 20 * 'atm';
209        P101.n = 0.5;
210       
211#*-------------------------------------------------------------------
212* Define o valor dos parametros declarados no modelo
213*--------------------------------------------------------------------*#
214
215        SET
216       
217        P101.density = 1000 * 'kg/m^3';
218        S101.ValidPhases = "Liquid-Only";
219       
220#*-------------------------------------------------------------------
221* Condicoes iniciais e opcoes de Solver
222*--------------------------------------------------------------------*#
223       
224        OPTIONS
225        Dynamic = false;
226
227end
Note: See TracBrowser for help on using the repository browser.