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Synthetic Biology at Davidson College Building Bacterial Computers

Synthetic Biology at Davidson College Building Bacterial Computers

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Page 1: Synthetic Biology at Davidson College Building Bacterial Computers

Synthetic Biologyat

Davidson College

Building Bacterial Computers

Page 2: Synthetic Biology at Davidson College Building Bacterial Computers
Page 3: Synthetic Biology at Davidson College Building Bacterial Computers

Advantages of Biological Computers

go anywhere - arctic, thermal vents, inside organisms

no electricity

self-replicating

no immune rejection

Page 4: Synthetic Biology at Davidson College Building Bacterial Computers
Page 5: Synthetic Biology at Davidson College Building Bacterial Computers

Two Recent Research Projects

Page 6: Synthetic Biology at Davidson College Building Bacterial Computers
Page 7: Synthetic Biology at Davidson College Building Bacterial Computers

Flipping DNA with Hin/hixC

Page 8: Synthetic Biology at Davidson College Building Bacterial Computers

Flipping DNA with Hin/hixC

Page 9: Synthetic Biology at Davidson College Building Bacterial Computers

Flipping DNA with Hin/hixC

Page 10: Synthetic Biology at Davidson College Building Bacterial Computers

1

4

25

3

Hamiltonian Path Problem

Page 11: Synthetic Biology at Davidson College Building Bacterial Computers

1

4

25

3

Hamiltonian Path Solution

Page 12: Synthetic Biology at Davidson College Building Bacterial Computers

Engineering Biological HPP

Page 13: Synthetic Biology at Davidson College Building Bacterial Computers

Engineering Biological HPP

Page 14: Synthetic Biology at Davidson College Building Bacterial Computers

Engineering Biological HPP

Page 15: Synthetic Biology at Davidson College Building Bacterial Computers

Engineering Biological HPP

Page 16: Synthetic Biology at Davidson College Building Bacterial Computers

Engineering Biological HPP

Hin-mediated recombination

Page 17: Synthetic Biology at Davidson College Building Bacterial Computers

Engineering Biological HPP

Page 18: Synthetic Biology at Davidson College Building Bacterial Computers

Predicting Outcomes of

Bacterial Computing

Page 19: Synthetic Biology at Davidson College Building Bacterial Computers

Does Starting Place Matter?

Page 20: Synthetic Biology at Davidson College Building Bacterial Computers

Equilibrium

Does Starting Place Matter?

Page 21: Synthetic Biology at Davidson College Building Bacterial Computers

How Many Plasmids Do We Need?

Page 22: Synthetic Biology at Davidson College Building Bacterial Computers

Split Genes to Encode Problem

Page 23: Synthetic Biology at Davidson College Building Bacterial Computers

Split Genes to Encode Problem

gcat.davidson.edu/GcatWiki/index.php/Davidson_Missouri_W/Davidson_Protocols

Page 24: Synthetic Biology at Davidson College Building Bacterial Computers

Split Reporter Genes

Green Fluorescent Protein Red Fluorescent Protein

Page 25: Synthetic Biology at Davidson College Building Bacterial Computers

Split Reporter Genes

RFP Split by hixCGFP Split by hixC

Page 26: Synthetic Biology at Davidson College Building Bacterial Computers
Page 27: Synthetic Biology at Davidson College Building Bacterial Computers
Page 28: Synthetic Biology at Davidson College Building Bacterial Computers
Page 29: Synthetic Biology at Davidson College Building Bacterial Computers

Paper Published 7/09

15 undergraduate coauthors

Paper of the year, 2009

Page 30: Synthetic Biology at Davidson College Building Bacterial Computers

Can we solve the SATisfiability problem?

Page 31: Synthetic Biology at Davidson College Building Bacterial Computers

Define the SATisfiability Problem

Page 32: Synthetic Biology at Davidson College Building Bacterial Computers

Define the SATisfiability Problem

Page 33: Synthetic Biology at Davidson College Building Bacterial Computers

Define the SATisfiability Problem

Page 34: Synthetic Biology at Davidson College Building Bacterial Computers

Converting Math to Biology

Page 35: Synthetic Biology at Davidson College Building Bacterial Computers

Central Dogma

Page 36: Synthetic Biology at Davidson College Building Bacterial Computers

Frameshift Mutation

Page 37: Synthetic Biology at Davidson College Building Bacterial Computers

Frameshift Suppression

Page 38: Synthetic Biology at Davidson College Building Bacterial Computers

Suppressor tRNA

Page 39: Synthetic Biology at Davidson College Building Bacterial Computers

Coding 2-SAT Clause

Page 40: Synthetic Biology at Davidson College Building Bacterial Computers

Coding 2-SAT Clause

Page 41: Synthetic Biology at Davidson College Building Bacterial Computers

Coding 2-SAT Clause

Page 42: Synthetic Biology at Davidson College Building Bacterial Computers

Outcomes of v 1.0

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Outcomes of v 1.0

Page 44: Synthetic Biology at Davidson College Building Bacterial Computers

Redesign System v2.0positive feedback loop

Page 45: Synthetic Biology at Davidson College Building Bacterial Computers

Outcomes of v 2.0

- controlframe shift

“leak”

+tRNACGGUC

+tRNACCACU

+ control

Page 46: Synthetic Biology at Davidson College Building Bacterial Computers

Outcomes of v 2.0

frame shift

“leak”

+tRNACGGUC

+tRNACCACU

+ control

Page 47: Synthetic Biology at Davidson College Building Bacterial Computers

Why build bacterial computers?

Page 48: Synthetic Biology at Davidson College Building Bacterial Computers

Evolution of Computers

1943

Page 49: Synthetic Biology at Davidson College Building Bacterial Computers

iPhone in 2011

Evolution of Computers

Page 50: Synthetic Biology at Davidson College Building Bacterial Computers

E. coli in 2011

?Living Hardware

in 2021

Evolution of Bacterial Computers

Page 51: Synthetic Biology at Davidson College Building Bacterial Computers