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PRODUCTION OF BIOBUTANOL

Guided by:               Presented by:
Dr. N.N Dutta            Abhishek Singh(091401)
                         Dhyananand Yadaw(091409)
Distillation Column Design
                         A=0.753, B=5.4*10^-4,
                            E=0.246, 32˚C,
                            1atm




  A=0.299, B=0.602,
     E=0.098, 76.1˚C,
     8atm

                         B=0.99, A=1.5*10^-4,
                            E=6.1*10^-4,
                            105˚C, 1atm
Dew point calculation: -
•   Mav = 66.49 kg/kmol
•   F = 273.18 kg/hr or 4.108 kmol/hr
•   D = 108.40 kg/hr or 1.985 kmol/hr
•   B = 164.56 kg/hr or 2.220 kmol/hr
•   Now, molar flow rate of vapor and liquid in top
    section: -
•   L = R*D = 4.36 1.985 = 8.654 kmol/hr
•   V = (R+1)*D = 5.36 1.98 = 10.639 kmol/hr
•   Now, molar flow rate of vapor and liquid in bottom
    section: -
•   L’ = L + F*q = 8.654 + 4.108 1 = 12.762 kmol/hr
•   V’ = F*(q-1)+V = 4.108(1-1)+V = 10.639 kmol/hr
Calculation of tower diameter: -
Heat Exchanger Design
Design: - Shell and Tube type heat exchanger
Design pressure: - By additional of 5% to the
maximum working pressure.
Design temperature: - 10˚C higher than the
maximum temperature.        ABE, 10atm
                                         5˚C, 402 kg/hr




Water, 1atm                                 Water, 1atm
102˚C, 10.3 kg/hr                           90˚C, 10.3 kg/hr
                       ABE, 10atm
                       39˚C, 402 kg/hr
• No. of tube passage Np = 4
• For triangular arrangement: - Db (tube bundle
  diameter)
• Db= do(Nt/k1)1/h1
• K1 and h1 are constant
• Pt/do = 1.25, for this arrangement
• K1=0.175,         h1=2.285
• Db =373.31mm
• Di = Db+C = 390mm
• C= 10-20mm for U-tube heat exchanger
Calculation for shell side pressure
             drop: -
Mechanical Design: -
 Shell
• Material: Carbon Steel
• Corrosion allowance: 3mm
• Number of shell: 1
• Number of passage: 4
• Fluid: ABE mixture
• Working pressure: 0.33 N/mm2
• Design pressure: 0.5 N/mm2
• Temperature inlet: 5 ˚C
• Temperature outlet: 39 ˚C
• Segmental baffles (25% cut) with tie rods and
  spacers.
 Head
• Crown Radius: 400mm
• Knuckle Radius: 40mm
• Shell flange: female facing
• Gasket: Flat metal jacketed asbestos filled
• Bolts: 5% Cr Mo steel
 Nozzles
• Inlet and Outlet: 75mm
• Vent: 25mm
• Drain: 25mm
• Opening for relief valve: 50mm
• Permissible stress for CS: 95 N/mm2
• Permissible stress for bolt material: 140.6 N/mm2
 Tube Side: -
• Tube and tube sheet material: Stainless Steel
• Working pressure: 19 N/mm2
• Design pressure: 21.5 N/mm2
• Inlet temperature: 102 ˚C
• Outlet temperature: 90 ˚C
• Permissible stress: 100.6 N/mm2
• Pitch of tube: 25mm
 Channel and Channel cover: -
• Material: Carbon Steel
• Permissible stress: 95 N/mm2
Shell side: - (Triangular pitch of tubes)
Tube Side: -
Fermenter Reactor:-

•   Assume:-
•   L/D=6
•   Volume of the reactor =
•   Volume of one Reactor= 50000 L
•   So,
        Dia. Of Reactor(d)= 22m.
Holding Tank:- Process Design
•   Usually we must design the storage tank which has volume more than the
    reactor.
•   Volume of vessel = 55,555L
•   Assume,
•   Ratio of
•   So,
•   Dia. (d)=34m.
•   Length(L)=68m.
Mechanical Design
•    Operating condition :-
•    Pressure = 1atm,       Temp.=33˚C,   L = 68m.,   d = 34m.
    Sp. gravity of liquid = 1
•    Fixed conical roof
•    Slope permissible = 1 in 5
•    Superimposed load = 1250
•    Material = CS (structural) IS-2062
•    Permissible stress = 142
•    Density = 1000
•    Modulus of elasticity =
Continued…
•  This design is based on the Indian std. design IS-803.
•  Corrosion allowance (c) = 0.7mm
•  Shell design
  Internal pressure
• p = 0.677
• Thickness of the shell at bottom:



•   t = 96mm.
Continued…
•   Butt joints are provided for welding the vertical joints between plates to
    form the lowest layer of the shell. An allowance of 2mm. is made between
    two adjacent plate to facilitate welding and total circumference is welded
    with 16 plates.so
•   Length of the each plate = 6.67m.
•   Size of the plate selected from IS-1730 is 6700mm.
    (length)*2000mm(width).
•   To determine the number of the layers to be used with 16mm thick plate it
    is necessary to determine the height of up to which a plate of lesser
    thickness on be used.
•   Assuming thickness of 75 mm. so
Continued…
•   Bottom diameter ( Db )=
•    Db= 34.192m
•   Circumference of bottom = 3.14*Db
                            = 107.36m
THANK YOU

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W

  • 1. PRODUCTION OF BIOBUTANOL Guided by: Presented by: Dr. N.N Dutta Abhishek Singh(091401) Dhyananand Yadaw(091409)
  • 2. Distillation Column Design A=0.753, B=5.4*10^-4, E=0.246, 32˚C, 1atm A=0.299, B=0.602, E=0.098, 76.1˚C, 8atm B=0.99, A=1.5*10^-4, E=6.1*10^-4, 105˚C, 1atm
  • 3.
  • 5.
  • 6.
  • 7. Mav = 66.49 kg/kmol • F = 273.18 kg/hr or 4.108 kmol/hr • D = 108.40 kg/hr or 1.985 kmol/hr • B = 164.56 kg/hr or 2.220 kmol/hr • Now, molar flow rate of vapor and liquid in top section: - • L = R*D = 4.36 1.985 = 8.654 kmol/hr • V = (R+1)*D = 5.36 1.98 = 10.639 kmol/hr • Now, molar flow rate of vapor and liquid in bottom section: - • L’ = L + F*q = 8.654 + 4.108 1 = 12.762 kmol/hr • V’ = F*(q-1)+V = 4.108(1-1)+V = 10.639 kmol/hr
  • 8. Calculation of tower diameter: -
  • 9.
  • 10.
  • 11.
  • 12.
  • 13. Heat Exchanger Design Design: - Shell and Tube type heat exchanger Design pressure: - By additional of 5% to the maximum working pressure. Design temperature: - 10˚C higher than the maximum temperature. ABE, 10atm 5˚C, 402 kg/hr Water, 1atm Water, 1atm 102˚C, 10.3 kg/hr 90˚C, 10.3 kg/hr ABE, 10atm 39˚C, 402 kg/hr
  • 14.
  • 15.
  • 16. • No. of tube passage Np = 4 • For triangular arrangement: - Db (tube bundle diameter) • Db= do(Nt/k1)1/h1 • K1 and h1 are constant • Pt/do = 1.25, for this arrangement • K1=0.175, h1=2.285 • Db =373.31mm • Di = Db+C = 390mm • C= 10-20mm for U-tube heat exchanger
  • 17.
  • 18. Calculation for shell side pressure drop: -
  • 19. Mechanical Design: -  Shell • Material: Carbon Steel • Corrosion allowance: 3mm • Number of shell: 1 • Number of passage: 4 • Fluid: ABE mixture • Working pressure: 0.33 N/mm2 • Design pressure: 0.5 N/mm2 • Temperature inlet: 5 ˚C • Temperature outlet: 39 ˚C • Segmental baffles (25% cut) with tie rods and spacers.
  • 20.  Head • Crown Radius: 400mm • Knuckle Radius: 40mm • Shell flange: female facing • Gasket: Flat metal jacketed asbestos filled • Bolts: 5% Cr Mo steel  Nozzles • Inlet and Outlet: 75mm • Vent: 25mm • Drain: 25mm • Opening for relief valve: 50mm • Permissible stress for CS: 95 N/mm2 • Permissible stress for bolt material: 140.6 N/mm2
  • 21.  Tube Side: - • Tube and tube sheet material: Stainless Steel • Working pressure: 19 N/mm2 • Design pressure: 21.5 N/mm2 • Inlet temperature: 102 ˚C • Outlet temperature: 90 ˚C • Permissible stress: 100.6 N/mm2 • Pitch of tube: 25mm  Channel and Channel cover: - • Material: Carbon Steel • Permissible stress: 95 N/mm2
  • 22. Shell side: - (Triangular pitch of tubes)
  • 23.
  • 24.
  • 26. Fermenter Reactor:- • Assume:- • L/D=6 • Volume of the reactor = • Volume of one Reactor= 50000 L • So, Dia. Of Reactor(d)= 22m.
  • 27. Holding Tank:- Process Design • Usually we must design the storage tank which has volume more than the reactor. • Volume of vessel = 55,555L • Assume, • Ratio of • So, • Dia. (d)=34m. • Length(L)=68m.
  • 28. Mechanical Design • Operating condition :- • Pressure = 1atm, Temp.=33˚C, L = 68m., d = 34m. Sp. gravity of liquid = 1 • Fixed conical roof • Slope permissible = 1 in 5 • Superimposed load = 1250 • Material = CS (structural) IS-2062 • Permissible stress = 142 • Density = 1000 • Modulus of elasticity =
  • 29. Continued… • This design is based on the Indian std. design IS-803. • Corrosion allowance (c) = 0.7mm • Shell design Internal pressure • p = 0.677 • Thickness of the shell at bottom: • t = 96mm.
  • 30. Continued… • Butt joints are provided for welding the vertical joints between plates to form the lowest layer of the shell. An allowance of 2mm. is made between two adjacent plate to facilitate welding and total circumference is welded with 16 plates.so • Length of the each plate = 6.67m. • Size of the plate selected from IS-1730 is 6700mm. (length)*2000mm(width). • To determine the number of the layers to be used with 16mm thick plate it is necessary to determine the height of up to which a plate of lesser thickness on be used. • Assuming thickness of 75 mm. so
  • 31. Continued… • Bottom diameter ( Db )= • Db= 34.192m • Circumference of bottom = 3.14*Db = 107.36m