J Craig Venter wants to digitize DNA and transmit the signal to teleport organisms
Reporter: Aviva Lev-Ari, PhD, RN
UPDATED on 7/25/2022
J. Craig Venter, PhD, is regarded as one of the leading scientists of the 21st century for his numerous invaluable contributions to genomic research. Dr. Venter is Founder, Chairman, and CEO of the J. Craig Venter Institute (JCVI), a not-for-profit, research organization with approximately 200 scientists and staff dedicated to human, microbial, plant, synthetic and environmental genomic research, and the exploration of social and ethical issues in genomics.
Dr. Venter also is a co-founder of Synthetic Genomics, Inc. (SGI) and Human Longevity, Inc. (HLI). SGI is a privately held company developing products and solutions including sustainable bio-fuels, vaccines, biotherapeutics and transplantable organs. HLI is a genomic-based, health intelligence company empowering proactive healthcare.
Dr. Venter began his formal education after a tour of duty as a Navy Corpsman in Vietnam from 1967 to 1968. After earning both a Bachelor of Science in Biochemistry and a PhD in Physiology and Pharmacology from the University of California at San Diego, he was appointed professor at the State University of New York at Buffalo and the Roswell Park Cancer Institute. In 1984, he moved to the National Institutes of Health campus where he developed Expressed Sequence Tags or ESTs, a revolutionary new strategy for rapid gene discovery.
In 1992, Dr. Venter founded The Institute for Genomic Research (TIGR, now part of JCVI), a not-for-profit research institute, where in 1995 he and his team decoded the genome of the first free-living organism, the bacterium Haemophilus influenzae, using his new whole genome shotgun technique.
In 1998, Dr. Venter founded Celera Genomics to sequence the human genome using new tools and techniques he and his team developed. This research culminated with the February 2001 publication of the human genome in the journal, Science. He and his team at Celera also sequenced the fruit fly, mouse and rat genomes.
Dr. Venter and his team at JCVI continue to blaze new trails in genomics. They have sequenced and analyzed hundreds of genomes, and have published numerous important papers covering such areas as environmental genomics, the first complete diploid human genome, and the groundbreaking advance in creating the first self-replicating bacterial cell constructed entirely with synthetic DNA.
Dr. Venter is one of the most frequently cited scientists, and the author of more than 280 research articles. He is also the recipient of numerous honorary degrees, public honors, and scientific awards, including the 2008 United States National Medal of Science, the 2002 Gairdner Foundation International Award, the 2001 Paul Ehrlich and Ludwig Darmstaedter Prize and the King Faisal International Award for Science. Dr. Venter is a member of numerous prestigious scientific organizations including the National Academy of Sciences, the National Academy of Medicine, the American Academy of Arts and Sciences, and the American Society for Microbiology.
SOURCE
https://www.jcvi.org/about/j-craig-venter
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Craig Venter states:
“As the industrial age is drawing to a close, I think that we’re witnessing the dawn of the era of biological design. DNA, as digitized information, is accumulating in computer databases. Thanks to genetic engineering, and now the field of synthetic biology, we can manipulate DNA to an unprecedented extent, just as we can edit software in a computer. We can also transmit it as an electromagnetic wave at or near the speed of light and, via a “biological teleporter”, use it to recreate proteins, viruses and living cells at another location, changing forever how we view life.”
“At this point in time we are limited to making protein molecules, viruses, phages and single microbial cells, but the field will move to more complex living systems. I am confident that we will be able to convert digitised information into living cells that will become complex multicellular organisms or functioning tissues.”
“We could send sequence information to a digital-biological converter on Mars in as little as 4.3 minutes, that’s at the closest approach of the red planet, to provide colonists with personalised drugs. Or, if Nasa’s Mars Curiosity rover were equipped with a DNA-sequencing device, it could transmit the digital code of a Martian microbe back to Earth, where we could recreate the organism in the laboratory. We can rebuild the Martians in a P4 spacesuit lab — that is, a maximum-containment lab — instead of risking them crash-landing on the surface. I am assuming that Martian life is, like life on Earth, based on DNA. I think that because we know that Earth and Mars have continually exchanged material, in the order of 100kg a year, making it likely that Earth microbes have travelled to and populated Martian oceans long ago and that Martian microbes have survived to thrive on Earth. Simple calculations indicate that there is as much biology and biomass in the subsurface of our Earth as in the entire visible world on the planet’s surface. The same could be true for Mars.”
“If the life-digitalizing technology works, then we will have a new means of exploring the universe and the Earth-sized exoplanets and super Earths. To get a sequencer to them soon is out of the question with present-day rocket technology — the planets orbiting the red dwarf Gliese 581 are “only” about 22 light-years away — but it would take only 22 years to get the beamed data back. And that if advanced DNA-based life does exist in that system, perhaps it has already been broadcasting sequence information.”
“Creating life at the speed of light is part of a new industrial revolution. Manufacturing will shift from centralised factories to a distributed, domestic manufacturing future, thanks to the rise of 3D printer technology. Since my own genome was sequenced, my software has been broadcast into space in the form of electromagnetic waves, carrying my genetic information far beyond Earth. Whether there is any creature out there capable of making sense of the instructions in my genome, well, that’s another question.”
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