BIOREACTOR ENGINEERING Chapter 8. Faculty of Chemical & Natural Resources Engineering Bioreactor/Fermenter Systems by Chew Few Ne

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BIOREACTOR ENGINEERING Chapter 8 Bioreactor/Fermenter Systems by Chew Few Ne Faculty of Chemical & Natural Resources Engineering cfne@ump.edu.my

Chapter Description Topic Outcome Classify types of bioreactor/fermenter and its operation mode. References Doran, P.M. (2013) Bioprocess Engineering Principles. Elsevier. Liu, S. (2013) Bioprocess Engineering: Kinetics, Biosystem, Sustainability and Reactor Design. Elsevier. Rao, D.G. (2010) Introduction to Biochemical Engineering. McGraw Hill.

Topic Outline Introduction Types of Bioreactor/Fermenter

Introduction Fermenter versus Bioreactor Fermenter For growth of bacterial and fungal cells which are: robust (they have strong cell walls) fast growing and double in just 20 min very high oxygen demand Taller vessels for bacterial processes to improve oxygen mass transfer (H/D = 2.5-3.0) Media is thermally sterilized in the fermenter Bioreactor For growth of mammalian and insect cells which are: fragile (they have shear sensitive cell membranes) slow in growth (they have 24 h doubling time) have low oxygen demand Shorter vessels for mammalian cell culture to improve mixing. (H/D = 1.5) Media is filter sterilized into the bioreactor

Introduction What is a Bioreactor/Fermenter? An apparatus for growing microorganisms under controlled conditions. Used to convert raw materials into useful products. Used in industrial processes to produce pharmaceuticals, vaccines, or antibodies. Varying in size, complexity and cost.

Standing culture T-flask (SmF) Fernbach flask (SmF) Tray chamber (SmF and SSF) Shake flask Baffled (SmF) Unbaffled (SmF) Mechanical stirred tank bioreactor Nonsparged (SmF and SSF) Sparged (SmF and SSF)

Bubble driven bioreactor Bubble column (SmF) Airliftt bioreactor (SmF) Packed bed bioreactor (SmF and SSF) Trickle flow bioreactor (SmF) Fluidized bed reactor (SmF and SSF)

Standing culture The medium is neither gassed nor agitated. Using surface aeration, hence poor rate of oxygen transfer. Commonly used in small scale laboratory system (when oxygen supply is not critical). E.g., biochemical tests for identification of bacteria (test-tubes containing 5-10 ml of media).

Standing culture - T flask (SmF) and Fernback flask (SmF) Used in small scale culture. Surface aeration rate can be increased by using larger volume flask (increase the surface area for oxygen transfer).

Standing culture - Tray chamber (SmF and SSF) Not restricted to the laboratory. SmF: Example: Aspergillus niger grown on the surface of liquid media in shallow trays. SSF: Example: Production of koji by Aspergillus oryzae on soy beans, mushroom cultivation.

Shake flask - Unbaffled flask & Baffled flask (SmF) Commonly used for small scale cell cultivation. Agitation breaks liquid surface and provides greater surface area for oxygen transfer. Shaking encourages bubbles become entrained into the medium to further increase the oxygen transfer rate. High level of foam formation in the baffled flask is due to high level of gas entrainment. The rate of oxygen transfer in shake flask depends the Agitation rate Liquid volume Shake flask design

Mechanical stirred tank bioreactor Commonly used in industrial application. Low capital cost, low operating cost, and flexible. An external motor is used to agitate the growth medium with impellers.

Mechanical stirred tank bioreactor - Nonsparged (SmF) Nonsparged stirred tank bioreactor can supply sufficient aeration for microbial fermentations with liquid volumes up to 3 L. Oxygen is transferred from the headspace of bioreactor. Agitation continually breaks the liquid surface and increases the surface area for oxygen transfer.

Mechanical stirred tank bioreactor - Nonsparged (SSF) Consists of a drum of cylindrical cross section lying horizontally. The drum is partially filled with a bed of substrate, and air is blown through the headspace. In rotating drums, the whole drum rotates around its central axis to mix the bed. In stirred drums, the bioreactor body remains stationary and paddles mounted on a shaft running along the central axis of the bioreactor rotate within the drum.

Mechanical stirred tank bioreactor - Sparged (SmF) Liquid volumes greater than 3 L (can go up to >500,000 L). Air sparging is required to introduce bubbles into the culture for effective oxygen transfer Agitation is used to break up bubbles and thus further increases k L a. Sparged bioreactor requires lower agitation speeds for aeration efficiencies comparable to non-sparged bioreactor.

Mechanical stirred tank bioreactor - Sparged (SSF) Stirred-bed bioreactor is similar to the static packed bed that a bed of substrate sits on a perforated base plate and air is forcefully blown through the bed from the bottom, an agitator is inserted at the top and provides continuous or intermittent mixing. Rocking-drum bioreactor consists of three concentric cylinders an inner perforated cylinder, an outer perforated cylinder, and an outer solid cylinder. The substrate sits in the space between the two perforated cylinders.

Bubble driven bioreactor - Bubble column (SmF) and Airliftt bioreactor (SmF) Aeration and mixing are achieved by air sparging (without mechanical agitation). Commonly used in the culture of shear sensitive organisms. Bubble driven bioreactor is generally tall (H:D between 8:1 and 20:1) to enhance oxygen transfer rate. leads to high gas hold-ups. long rising bubble residence times. a region of high hydrostatic pressure near the sparger at the base of the fermenter.

Packed bed bioreactor (SmF) Cells or enzymes are immobilized by adsorption on or entrapment in non-moving solid (e.g, plastic blocks, concrete blocks, wood shavings, and porous gel). The liquid feed is pumped through the surface of the solids where the immobilized cells convert the substrates into products.

Packed bed bioreactor (SmF) - Trickle flow bioreactor The liquid medium trickles over the solid particles. In these reactors, the particles are not immersed in the liquid. Oxygen transfer is enhanced by ensuring that the cells are covered by only a very thin layer of liquid.

Packed bed bioreactor (SSF) A typical packed-bed bioreactor consists of a column of cylindrical or rectangular cross section, oriented vertically, with a perforated base plate on the bottom which supports a bed of substrate. Air is blown up through the base plate.

Fluidized bed bioreactor (SmF) Cells or enzymes are immobilized in/on the surface of light particles (e.g., microcarriers beads for animal cell culture). Mixing is assisted by the action of a pump. Able to maintain high cell concentrations and good mass transfer rates in continuous cultures.

Fluidized bed bioreactor (SSF) Gas-solid fluidized beds. In this bioreactor air is blown upwards through a perforated base plate at sufficient velocity to fluidize the substrate bed.

CREDITS Special thanks to - Prof. Dr. Tey Beng Ti - Prof. Madya Dr. Rosfarizan binti Mohamad - Dr. Farhan binti Mohd Said Thanks to Dr. Rozaimi bin Abu Samah for proofreading the learning contents.