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1977 1995 1996 2000 2003 Synthetic biology will be a critical driver of the global economy VIRUS BACTERIA YEAST HUMAN GENOME SYNTHETIC BIOLOGY The capability to synthesize increasingly complex custom DNA programs using previously sequenced genomes. READING DNA WRITING DNA The capability to sequence and understand an organism’s DNA program. Engineering microbial DNA programs to produce malaria fighting drugs and biodegradable plastics $3B market with ~ $1B in venture capital investment Healthcare personalized to patients’ genome sequences Environmentally friendly pesticides that target pests’ DNA sequences Specialized microbes extracting minerals using less energy and water Synthesizing personalized viruses that attack cancer Genetically-engineered crops designed to produce their own fertilizer Synthetic microbes programmed to produce green bio-based plastics Storage of commercial-scale data in synthetic DNA PRESENT PAST FUTURE 2002 2010 VIRUS BACTERIA 2017 YEAST HUMAN GENOME In 1977, for the first time, a viral genome was sequenced in its entirety. After some years of research and development, DNA reading technologies advanced to allow for the sequencing of an entire human genome. Since then, the science of DNA sequencing has resulted in $800B in economic returns and has given us transformative tools to treat and prevent devastating diseases, grow more nutritious food and clean up our environment. In the early 2000s, after scientists demonstrated the ability to READ DNA, a parallel R&D course was initiated to WRITE DNA. We call this effort Synthetic Biology. Today, scientists are in the process of creating the first synthetic yeast genome (equivalent to where we were in 1996 for sequencing). The economic and human impact of DNA writing is expected to follow a similar trajectory to DNA reading, allowing us to ubiquitously produce DNA-driven biological programs to target humanity’s most pressing challenges by 2040-2050. $796B in economic impact 3.8M job years with salaries totalling $244B Using genetically fortified foods to fight malnutrition Customising microbial cocktails to clean up waste sites

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Page 1: Synthetic biology will be a critical driver of the global ...€¦ · Synthetic biology will be a critical driver of the global economy VIRUS BACTERIA YEAST HUMAN GENOME SYNTHETIC

1977 1995 1996 2000 2003

Synthetic biology will be a critical driver of the global economy

VIRUS BACTERIA YEAST HUMAN GENOME

SYNTHETICBIOLOGY

The capability to synthesize increasingly complex custom

DNA programs using previously sequenced genomes.

READINGDNA

WRITINGDNA

The capability to sequence and understand an

organism’s DNA program.

Engineering microbial DNA programs to produce malaria fighting drugs and biodegradable plastics

$3B market with ~ $1B in venture capital investment

Healthcare personalized to patients’ genome sequencesEnvironmentally friendly pesticides that target pests’ DNA sequencesSpecialized microbes extracting minerals using less energy and water

Synthesizing personalized viruses that attack cancerGenetically-engineered crops designed to produce their own fertilizerSynthetic microbes programmed to produce green bio-based plasticsStorage of commercial-scale data in synthetic DNA

PRESENTPAST FUTURE

2002 2010VIRUS BACTERIA

2017YEAST HUMAN GENOME

In 1977, for the first time, a viral genome was sequenced in its entirety. After some years of research and development, DNA reading technologies advanced to allow for the sequencing of an entire human genome. Since then, the science of DNA sequencing has resulted in $800B in economic returns and has given us transformative tools to treat and prevent devastating diseases, grow more nutritious food and clean up our environment.In the early 2000s, after scientists demonstrated the ability to READ DNA, a parallel R&D course was initiated to WRITE DNA. We call this effort Synthetic Biology. Today, scientists are in the process of creating the first synthetic yeast genome (equivalent to where we were in 1996 for sequencing). The economic and human impact of DNA writing is expected to follow a similar trajectory to DNA reading, allowing us to ubiquitously produce DNA-driven biological programs to target humanity’s most pressing challenges by 2040-2050. $796B in economic

impact3.8M job years with salaries totalling $244BUsing genetically fortified foods to fight malnutritionCustomising microbial cocktails to clean up waste sites