Coding problems:HW6_3 For a system of nine interconnected tanks (shown at right), the mass-balance equations are:ro1 Co1 + T41C4ro2C02 + r12C1+r52C5 =(r12 + r15)C1(r23 + r26)c2T03C03 + 123C2= r36C3(r41 +r48 + r45)C4T15C1 + T45C4 = (r52 + r58 + r59)C5r04 C04 + 774C7 =r06 C06 + r26C2 + r36C3 = r69C6ro7 C07 + r87 Cs = 174C7ro8 Co8 + r58 C5 + T48C4 =(rs7 + rs9)Csr'59C5 + r69C6 + T89C8 = rc9The concentration of chemical inflow into tank T, is designated c, and the initial concentration in tank T, isdesignated Coi. The flow rate from tank Ti to Tj is designated rij. Furthermore, the total flow into each tank mustequal the flow out, r (from tank 9).Given initial concentrations:Co1=1, Co2=2, Co3=1, coa=2, Co6=1, Co7=1 and Cos=1, in g/Lgiven flow rate between tanks:r12=6, rıs=2, r23=5, r26=5, r36=8, ra1=5, ras=1, ras=1, rsz=1, rss=2, rs9=1, r69=15, r74=4, r37=2, ras=3, in L/minand given external flow rates (i.e., inflow into the tanks from outside):roz=3, ro2=3, ro3=3, ro4=3, ro6=2, roz=2, ros=3, in L/minNote: r= ro1 + roz + ro3 + roa + ro6 + ro7 + rosME2315 Computer-Aided Analysis Spring 2022HW #6 due 03/02/2022page 2 of 2With these given parameters we can solve for the concentrations in the tanks. Write a MATLAB script to solvefor these concentrations using Gauss-Seidel, to an accuracy of 5 sig figs. Use fprintf statement to print thefinal answer.

Here is the solution with an output:-

HW6_3 For a system of nine interconnected tanks (shown at right), the mass- balance equations are: roi Co1 + r41C4 = (r12 +r15)C1 ro2C02 + r12C1 + r52©5 = (r23 + r26)©2 r'03C03 + r23C2 = r36C3 (r41 + ras + r45)c4 T15C1 + r45C4 = (r52 + rs8 + rs9)C5 T04C04 + r74c7 = ro6 C06 + r26©2 + r36C3 = "69C6 ro7C07 + r87Cg = r74C7 Tos Cos + 158C5 + r48C4 (rs7 + rs9)cs T'59C5 + ro9C6 + r'89C8 = rC9 The concentration of chemical inflow into tank T, is designated c, and the initial concentration in tank T, is designated Co. The flow rate from tank T, to Tj is designated rj. Furthermore, the total flow into each tank must equal the flow out, r (from tank 9). Given initial concentrations: Co1=1, Coz=2, Co3=1, Cos=2, Cos=1, Co7=1 and Cos=1, in g/L given flow rate between tanks: r12=6, ris=2, r3=5, r2s=5, rss=8, ra1=5, ras=1, ras=1, rsz=1, rse=2, rs9=1, res=15, r7=4, ray=2, ras=3, in L/min and given external flow rates (i.e., inflow into the tanks from outside): ro1=3, ro2=3, ro3=3, ro4=3, ros=2, ro;=2, ros=3, in L/min Note: r= ro1 + roz + ras + roa + ros + ro7+ ro8

HW6_3 For a system of nine interconnected tanks (shown at right), the mass- balance equations are: roi Co1 + r41C4 = (r12 +r15)C1 ro2C02 + r12C1 + r52©5 = (r23 + r26)©2 r'03C03 + r23C2 = r36C3 (r41 + ras + r45)c4 T15C1 + r45C4 = (r52 + rs8 + rs9)C5 T04C04 + r74c7 = ro6 C06 + r26©2 + r36C3 = "69C6 ro7C07 + r87Cg = r74C7 Tos Cos + 158C5 + r48C4 (rs7 + rs9)cs T'59C5 + ro9C6 + r'89C8 = rC9 The concentration of chemical inflow into tank T, is designated c, and the initial concentration in tank T, is designated Co. The flow rate from tank T, to Tj is designated rj. Furthermore, the total flow into each tank must equal the flow out, r (from tank 9). Given initial concentrations: Co1=1, Coz=2, Co3=1, Cos=2, Cos=1, Co7=1 and Cos=1, in g/L given flow rate between tanks: r12=6, ris=2, r3=5, r2s=5, rss=8, ra1=5, ras=1, ras=1, rsz=1, rse=2, rs9=1, res=15, r7=4, ray=2, ras=3, in L/min and given external flow rates (i.e., inflow into the tanks from outside): ro1=3, ro2=3, ro3=3, ro4=3, ros=2, ro;=2, ros=3, in L/min Note: r= ro1 + roz + ras + roa + ros + ro7+ ro8

Computer Networking: A Top-Down Approach (7th Edition)

7th Edition

ISBN:9780133594140

Author:James Kurose, Keith Ross

Publisher:James Kurose, Keith Ross

Chapter1: Computer Networks And The Internet

Section: Chapter Questions

Problem R1RQ: What is the difference between a host and an end system? List several different types of end...

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