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978-0137062706 Chapter 10

978-0137062706 Chapter 10

68 Chapter 10 Problem 10.1 C* = 7.3 mg/l Plot DO versus t: Determination of OUR: * LL L 2 dC k a (C C ) qo X dt = − − with air off: kLa (C*–CL) = O L2 […]

11 Pages | August 23, 2020
978-0137062706 Chapter 11

978-0137062706 Chapter 11

Chapter 11 Problem 11.l. a. For simplicity, neglect cell size distribution and cake resistance considerations. Assume the following relationship applies to tubular centrifuge: 85 ( ) ( ) ( ) ( ) 2 2 Recovery % at Condition 1 Rotational […]

7 Pages | August 23, 2020
978-0137062706 Chapter 12

978-0137062706 Chapter 12

Chapter 12 Problem 12.11 92 0 S 0.05 S 2g L== Glucose balance over differential height “dZ” yields. 0 QdS kXS dV kXSA d Z− =  =  Integration yields 0 kXA dS dZ SQ − = ( )( […]

1 Pages | August 23, 2020
978-0137062706 Chapter 13

978-0137062706 Chapter 13

Chapter 13 Problem 13.1. Use eq. 9.72 to see if S > 0 at r = 0 Need rm for the bead: Mass of cells/bead = Vol. ∙ 0.25 ∙ ϼcell ∙ 0.1 = 4/3 (0.2 cm)3 ∙ 0.25 ∙ […]

3 Pages | August 23, 2020
978-0137062706 Chapter 14

978-0137062706 Chapter 14

Chapter 14 Problem. 14.1 What is P for a single cell or homogeneous population with the equivalent of 50 monomer plasmids at division if multimerization results in 40% of plasmid DNA as dimers and 16% as tetramers? # dimers = […]

8 Pages | August 23, 2020
978-0137062706 Chapter 15

978-0137062706 Chapter 15

Chapter 15 Problem 15.1. This derivation is very similar to the one in the text with “free” virus. The only eqn that changes is (15.4) which for pre bound virus is 104 s e s dV / dt k V=− […]

2 Pages | August 23, 2020
978-0137062706 Chapter 16

978-0137062706 Chapter 16

Chapter 16 Problem 16.1. Data SO = 5 g glucose/l XO(g dw/l Y (g dw/g glu) μm(hr−1) Ks (g/l) Kd (hr−1) E.coli (EC) 0.03 0.5 1.0 0.01 0.05 A.vinelandii (AV) 0.15 0.35 0.5 0.02 0.10 Kinetic Expressions – Batch Growth, […]

9 Pages | August 23, 2020
978-0137062706 Chapter 3

978-0137062706 Chapter 3

Chapter 3 Problem 3.1 1 ( ) ( ) 3 15 24 k kk 2 1 kk 52 S E ES (ES) P E rate ESk + ⎯⎯→ + = a.) Equilibrium approach * r values are the same as […]

13 Pages | August 23, 2020
978-0137062706 Chapter 6 Part 1

978-0137062706 Chapter 6 Part 1

20 Chapter 6 Problem 6.1. Volume of a single cell: Vc = (3.14/4) (1))2 (2) = 1.57 um3/cell = 1.57 x10–12 cm3/cell Problem 6.2. a. max  1 = 0.693/td1 = 0.693/ (2 h) = 0.346 h-1  max 2 […]

9 Pages | August 23, 2020
978-0137062706 Chapter 6 Part 2

978-0137062706 Chapter 6 Part 2

S m D K1 SD 1  +    −  = +  −   −  a. p X S 0 m DP q X Y D S D 1 (D ) 1  = […]

9 Pages | August 23, 2020
978-0137062706 Chapter 7

978-0137062706 Chapter 7

Chapter 7 Problem 7.1. Total nitrogen in cells =(Nitrogen content of cells)×(Final cell concentration)×(Culture volume)=(0.12 g nitrogen/g cells) (30 g cell/liter) (1000 liters) = 3.6 kg nitrogen. MW of (NH4)2SO4 = 132; Nitrogen part is 28. Amount of (NH4)2SO4 needed […]

8 Pages | August 23, 2020
978-0137062706 Chapter 9

978-0137062706 Chapter 9

Chapter 9 Problem 9.1 51 V 1000 l= S K 1.5 g/l= 0 S 10 g/l= 1 m0.4 h− = X/S Y 0.5 g/g= F 100 l/h= a) 1 F 100 l/h D 0.1h V 1000 l − = = […]

11 Pages | August 23, 2020