1. Chapter 6. How Cells Grow
6.1 INTRODUCTION
(6.1)
(6.2a)
(6.2b)
(6.3)

2. 6.2. BATCH GROWTH
Quantifying Cell Concentration
Determining cell number density

3. 6.2.1. Quantifying Cell Concentration
Determining mass concentration

4. 6.2.1. Quantifying Cell Concentration
Determining mass concentration
(6.4)

5. 6.2.2. Growth patterns and Kinetics in Batch Culture

6. 6.2.2. Growth patterns and Kinetics in Batch Culture

7. 6.2.2. Growth patterns and Kinetics in Batch Culture
(6.5)
(6.6)
(6.7)
(6.8)

8. 6.2.2. Growth patterns and Kinetics in Batch Culture
(6.9)
(6.10)

9. 6.2.2. Growth patterns and Kinetics in Batch Culture
(6.11)
(6.12)
(6.13)
(6.14)
(6.15)

10. 6.2.2. Growth patterns and Kinetics in Batch Culture

11. 6.2.2. Growth patterns and Kinetics in Batch Culture
(6.16)
(6.17)
(6.18)

12. 6.2.2. Growth patterns and Kinetics in Batch Culture

13. 6.2.2. Growth patterns and Kinetics in Batch Culture

14. 6.2.3. How Environmental Conditions Affect Growth Kinetics
(6.19)
(6.20)

15. 6.2.3. How Environmental Conditions Affect Growth Kinetics

16. 6.2.3. How Environmental Conditions Affect Growth Kinetics

17. 6.2.3. How Environmental Conditions Affect Growth Kinetics

18. 6.2.3. How Environmental Conditions Affect Growth Kinetics
(6.21)
(6.22)
(6.23)
(6.24)

19. 6.2.3. How Environmental Conditions Affect Growth Kinetics
(6.25)
(6.26)

20. 6.2.4. Heat Generation by Microbial Growth
(6.28)
(6.29)

21. 6.2.4. Heat Generation by Microbial Growth

22. 6.3.2. Heat Generation by Microbial Growth
Substrate-Limited growth.
(6.30)

23. 6.3.2. Heat Generation by Microbial Growth
Substrate-Limited growth.

24. 6.3.2. Heat Generation by Microbial Growth
Substrate-Limited growth.
(6.31)
(6.32)

25. 6.3.2. Heat Generation by Microbial Growth
Substrate-Limited growth.
(6.33)
(6.34)
(6.35)
(6.36)

26. 6.3.2. Heat Generation by Microbial Growth
Substrate-Limited growth.

27. 6.3.2. Heat Generation by Microbial Growth
Substrate-Limited growth.
(6.37)
(6.38)

28. 6.3.2. Heat Generation by Microbial Growth
Models with growth inhibitors.
(6.39)
(6.40)
(6.41)

29. 6.3.2. Heat Generation by Microbial Growth
Models with growth inhibitors.
(6.42)
(6.43)
(6.44)
(6.45)

30. 6.3.2. Heat Generation by Microbial Growth
Models with growth inhibitors.
(6.46)
(6.47)
(6.48)

31. 6.3.2. Heat Generation by Microbial Growth
Models with growth inhibitors.
(6.49)

32. 6.3.2. Heat Generation by Microbial Growth
The logistic equation.
(6.50)
(6.51)
(6.52)
(6.53)

33. 6.3.2. Heat Generation by Microbial Growth
The logistic equation.
(6.54)
(6.55)
(6.56)

34. 6.3.2. Heat Generation by Microbial Growth
Growth models for filamentous organisms.
(6.57)
(6.58a)
(6.58b)
(6.59)

35. 6.3.3. Models for Transient Behavior
Chemically structured models.

36. 6.3.3. Models for Transient Behavior
Chemically structured models.

37. 6.3.3. Models for Transient Behavior
Chemically structured models.
(6.60)

38. 6.3.3. Models for Transient Behavior
Chemically structured models.
(6.61)
(6.62a)
(6.62b)
(6.63)

39. 6.4.2. Some Specific Devices for Continuous Culture

40. 6.4.2. Some Specific Devices for Continuous Culture

41. The Ideal Chemostat

42. The Ideal Chemostat
(6.64)
(6.65)
(6.66)

43. The Ideal Chemostat
(6.67)
(6.68)

44. The Ideal Chemostat
(6.69)
(6.70)
(6.71)
(6.72)

45. The Ideal Chemostat
(6.73a)
(6.73b)
(6.73c)

46. The Ideal Chemostat
(6.74)
(6.75a)
(6.75b)
(6.76)
(6.77)

47. The Ideal Chemostat
(6.78)
(6.79)

48. The Ideal Chemostat

49. The Ideal Chemostat
(6.80)
(6.81)

50. The Ideal Chemostat
(6.78)
(6.82)
(6.83)

51. 6.4.5. Deviations from Ideality