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Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

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Page 1: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Introduction to Synthetic Biology

Dannenberg and Purdy 2012

(Tokos edits 2012)

Page 2: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

What is Synthetic Biology?

• https://www.youtube.com/watch?v=rD5uNAMbDaQ

Page 3: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)
Page 4: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)
Page 5: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

ELECTRICAL engineering solution

Page 6: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

water = weight water<weight

MECHANICAL engineering solution

Page 7: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

BIOLOGICAL engineering solution

Page 8: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

BIOLOGICAL engineering solution

Page 9: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

PCR

Genetic Engineering

Sequencing

rDNA

Page 10: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)
Page 11: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

A LIVING HOUSE - Terreform’s Fab

Tree Hab

Page 12: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

• How is Synthetic Biology Different? Synthetic biology uses four principles not typically found in genetics, genomics, or molecular biology: abstraction, modularity, standardization, and design and modeling.

Page 13: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Abstraction:

• Abstraction - you can use parts/devices/systems without having to worry about how they work.

• DNA makes parts. • Parts into devices.• Devices connected to make

systems.

Page 14: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Modularity:

• parts, devices and systems - connected as self-contained units and combined in any combination you want

Page 15: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Standardization:

• All the “Tab A’s” fit into all the “Slot B’s.”

• An everyday example - all light bulbs fit into any socket!

Page 16: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Designing and modeling

• build a model

• test the devices capacity – improves design – tests basic biological assumptions that

could be false

Page 17: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Registry of Standard biological Parts

• http://partsregistry.org/Main_Page

Page 18: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

DNA is DNA

• E. Coli is our chassis – Can use parts from any organism– Can use parts made by a computer

Page 19: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Abstraction Hierarchya human invention designed to assist people in engineering complex systems

Sequences of DNA encode “parts”

Assemblies of parts make up devices

Assemblies of devices make a system

Page 20: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

“Part” – sequence of DNA with human defined function

AAAATGCACCCGCTGTCGATCAAACGCGCGGTGGCGAATATGGTGGTCAACGCCGCCCGTTATGGCAATGGCTGGGTCAAAGTCAGCAGCGGAACGGAGCCGAATCGCGCCTGGTTCCAGGTGGAAGATGACGGTCCGGGAATTGCGCCGGAACAACGTAAGCACCTGTTCCAGCCGTTTGTCCGCGGCGACAGTGCGCGCACCATTAGCGGCACGGGATTAGGGCTGGCAATTGTGCAGCGTATCGTGGATAACCATAACGGGATGCTGGAGCTTGGCACCAGCGAGCGGGGCGGGCTTTCCATTCGCGCCTGGCTGCCAGTGCCGGTAACGCGGGCGCAGGGCATGACAAAAGAAGGGTAATCTAGAGGCATCAAATAAAACGAAAGGCTCAGTCGAAAGACTGGGCCTTTCGTTTTATCTGTTGTTTGTCGGTGAACGCTCTCCTGAGTAGGACAAATCCGCCGCC

Page 21: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Parts assembled into Devices

AAAATGCACCCGCTGTCGATCAAACGCGCGGTGGCGAATATGGTGGTCAACGCCGCCCGTTATGGCAATGGCTGGGTCAAAGTCAGCAGCGGAACGGAGCCGAATCGCGCCTGGTTCCAGGTGGAAGATGACGGTCCGGGAATTGCGCCGGAACAACGTAAGCACCTGTTCCAGCCGTTTGTCCGCGGCGACAGTGCGCGCACCATTAGCGGCACGGGATTAGGGCTGGCAATTGTGCAGCGTATCGTGGATAACCATAACGGGATGCTGGAGCTTGGCACCAGCGAGCGGGGCGGGCTTTCCATTCGCGCCTGGCTGCCAGTGCCGGTAACGCGGGCGCAGGGCATGACAAAAGAAGGGTAATCTAGAGGCATCAAATAAAACGAAAGGCTCAGTCGAAAGACTGGGCCTTTCGTTTTATCTGTTGTTTGTCGGTGAACGCTCTCCTGAGTAGGACAAATCCGCCGCC

Page 22: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Parts assembled into Devices

AAAATGCACCCGCTGTCGATCAAACGCGCGGTGGCGAATATGGTGGTCAACGCCGCCCGTTATGGCAATGGCTGGGTCAAAGTCAGCAGCGGAACGGAGCCGAATCGCGCCTGGTTCCAGGTGGAAGATGACGGTCCGGGAATTGCGCCGGAACAACGTAAGCACCTGTTCCAGCCGTTTGTCCGCGGCGACAGTGCGCGCACCATTAGCGGCACGGGATTAGGGCTGGCAATTGTGCAGCGTATCGTGGATAACCATAACGGGATGCTGGAGCTTGGCACCAGCGAGCGGGGCGGGCTTTCCATTCGCGCCTGGCTGCCAGTGCCGGTAACGCGGGCGCAGGGCATGACAAAAGAAGGGTAATCTAGAGGCATCAAATAAAACGAAAGGCTCAGTCGAAAGACTGGGCCTTTCGTTTTATCTGTTGTTTGTCGGTGAACGCTCTCCTGAGTAGGACAAATCCGCCGCC

Page 23: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Device to System

Plasmids and Transformation

Page 24: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)
Page 25: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Now for the Good Part(2009 Cambridge iGEM Team)

Page 26: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

The Problem

• Toxins contaminate the environment

• Detection can be expensive and complicated

• Can cheap bacteria be used as toxin indicators that change color in response to toxin levels?

Page 27: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

The Color-Generating Device

• Contain violacein pigment devices(ORF from Chromobacterium violacein)

Genes re-engineered to produce purple and green in E. Coli

• If all 5 genes in the ORF are expressed - purple pigment produced

• If third gene in ORF sequence is removed - green pigment produced

Page 28: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

The Chassis

• To a Synthetic Biologist

=Escherichia coli

Page 29: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Bacterial transformation of Escherichia coli

• Two different strains of E. coli (4-1 & 4-2)• Two different plasmids (pPRL & pGRN)

• Can we expect the devices to behave the same in each Can we expect the devices to behave the same in each strain, or will the chassis have an effect on the intensity strain, or will the chassis have an effect on the intensity of color produced?of color produced?

Page 30: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Creation of a Bacterial Cell Controlledby a Chemically Synthesized Genome

Dan Gibson, +21, Ham Smith and Craig Venter

Science (2010) 329: 52

PCR for watermarks

M. mycoides genome

transplanted to M. capricolum

Page 31: Introduction to Synthetic Biology Dannenberg and Purdy 2012 (Tokos edits 2012)

Creation of a Bacterial Cell Controlledby a Chemically Synthesized Genome

Dan Gibson, +21, Ham Smith and Craig Venter

Science (2010) 329: 52

New Directions: The Ethics of Synthetic Biology and Emerging Technologies

December 2010

Presidential Commissionfor the Study of Bioethical Issues