Regenesis

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by George M. Church


  Fifth and last, we would need a convenient way to read this form of the book—a DNA reader analogous to, for example, the Kindle, Sony-PRS, Android, or iPad. This is discussed briefly in Chapter 8. Sequencing this book using Illumina technology resulted in 692 million paired 100 base pair reads for $2,000. At 91K reads per book, that means $0.26 per 1X reading of the book. No words were lost in the process. Handheld DNA readers are beginning to become available, for example, the 2012 Oxford Nanopore MinIon (Chapter 7), and milestones like this book in DNA might accelerate commercial interest. We have established a DNA Encoded Artifacts Registry (DEAR) to coordinate global use so that mixed samples and updates can be interpreted. Coordination with the Rosetta Project (of the Long Now Foundation) could help make DNA the time capsule. Rosetta 3-inch nickel disk aims at 10,000 year archiving, avoiding the pitfalls of ephemeral digital standards (and even cultures) by intuitively leading the discoverer to higher and higher magnifications and 1,500 languages. In principle, instructions for building a DNA reader could be included in one or more languages and images.

  # # # Begin notes and 2-bit/bp DNA encoding notes below # # #


  #Decoding self-referential DNA that encodes these notes.

  #Perlbinperl bp2bit.pl GMC 25-Jun-02011

  sub b2b {return unpack(“N”, pack(“B32”, substr(“0” x 32 . shift, -32)));} open OUT,”>OUT”;binmode OUT;open IN,”IN”; $d{“A”}=“00”; $d{“C”}=“01”; $d{“G”}=“10”; $d{“T”}=“n”; while ($text =) { while ($text =~ s/(^.{4})//i) {#print “ $text “; $b8=chr(b2b($d{substr($1,0,1)}.$d {substr($1,1,1)}.$d {substr ($1,2,1)}.$d{substr($1,3,1)})); print OUT “$b8”;}}

  # # # End of notes and DNA encoding notes # # #

  For more information, and to explore the possibility of getting your own DNA copy of this book, please visit http://periodicplayground.com.

  INDEX

  Afeyan, Noubar, 104, 170

  aging, 84, 218–219

  genetic basis of, 84–85

  agriculture, invention of, 151

  Air New Zealand, 91

  algae, 93, 100. See also biofuels

  amino acids, 21

  handedness of, 24

  increasing the numbers of, 63

  mirror, 63

  nonstandard (NSAAs), 68

  phenylalanine (F), 65

  Amoebaproteus, 51–52

  ancient texts, 38

  Anderson, J. C., 115

  Andromeda Strain, The (Crichton), 225

  Anthropocene, 143n antibodies, 35, 80, 110, 112–114, 117–118, 175

  monoclonal, 117

  as proteins, 113

  antigen, 112

  antigen binding site, 113–114

  anthrax, 26, 194, 231

  apoptosis, 114

  Archean era, 37, 105

  Archer Daniels Midland, 1

  Archimedes, 77

  arsenic, 6

  atomic elements, 16–18, 252

  atoms,

  spatial arrangement of, 19

  Audubon Center for Research on Endangered Species (ACRES), 141

  Bachelet, Ido, 80

  bacteria, 4

  blinking, 187

  changing the species of, 48

  minimal, 47

  replication-limitation devices, 117

  size of, 40

  “synthetic” 48-50

  bacterial drug delivery system, 115

  Baker, David, 171

  Bastiat, Frédéric, 99

  B cells (B lymphocyte), 112

  Bdelloid rotifer, 130

  beer brewing, 2, 103

  Beethoven, Ludwig van, 229

  Berry, David, 104

  Berthelot, Marcelin, 27

  Berzelius, Jöns Jakob, 18–20

  Bible, 15, 38, 270

  big bang, 16

  BioBrick (also biobrick), 161, 163, 185–186, 188–189, 192, 199

  standard assembly of, 185–186

  BioCurious, 234

  biodegradation, 2

  drawback of, 22

  Bio-Fab Manifesto, 160–162, 181

  biofilm, 6, 191

  biofuels, 91–107

  algae, 93, 100

  advantages of, 101

  disadvantages, 101–102

  coconut oil, 94

  cyanobacteria, 104–106

  E. coli, 102–104

  advantages of, 102–103

  ethanol, 98

  advantages of, 98

  disadvantages of, 99

  halo effect of, 92

  potential sources of, 98

  biogenetic law, 12

  biohackers, 234

  biological organisms, 4

  as high technology, 4

  Biological Safety: Principles and Practices (Fleming and Hunt), 231

  biological weapons convention, 240

  failure of, 240

  Bio-PDO, 3

  bioplastics, 1–4

  biosafety, 26, 68, 89, 117, 121, 139, 141, 159, 175–176, 230–237, 253, 255, 269–270

  biosecurity, 99, 161, 231, 269, 270

  Biot, Jean Baptiste, 27

  Black Death, 156, 226

  Black Swan, The (Taleb), 242

  Blattner, Fred, 6–7, 46

  Blue Heron Biotechnology, 189

  Boston University, 190

  Boyer, Herbert, 44–45, 46

  Brand, Stewart, 249

  Branson, Richard, 91

  Briggs, Robert, 134–135

  Brown, Timothy Ray, 89, 216–217

  bucardo, 9–10, 133–136

  Burnley, Brian, 179, 199

  CAGE (conjugative assembly genome engineering), 78–79

  Caltech, 190

  Cambrian explosion, 71

  cancer, 80, 83–85, 111, 115–117, 119, 128–129, 163, 174, 214, 216, 220, 233–234, 244, 246–247

  Capek, Karel, 180–181

  Carboniferous period, 95

  carbon-nitrogen cycle, 17

  Carlson, Rob, 233

  Caruthers, Marvin, 174

  CCR5 gene, 216–217, 228

  Celia (ibex), 9

  death of, 134

  daughter born through nuclear transfer cloning, 133–136

  cells, 39

  as deterministic systems, 42

  attempts to synthesize, 51–54

  discovery of, 39

  generic, 40–42

  minimal, 50

  nature of, 39–42

  polymeric composition of, 40–41

  “synthetic”48-50,

  Center for Agro-Nutrition Research and Technology, 133

  Chang, Timothy Z., 5

  changing the genetic code, 8–9

  Children’s Hospital of Wisconsin, 110, 131

  chimpanzee (Pan) 147–148, 249

  Chinese University of Hong Kong, 195, 197, 200. See also iGEM

  chips (cheap DNA/oligos), 34, 76, 147, 160, 171, 175, 270

  chirality, 23, 26, 28

  future of, 28

  See also handedness of molecules; mirror molecules

  Citadel, The, 179–180, 199. See also iGEM

  Clean Genome E. coli, 7, 46

  cloning, 9, 134, 140–148

  arguments against, 221

  benefits of, 141 See also nuclear transfer cloning; recombinant DNA

  Clostridium perfringens, 6n coconut oil, 94

  codons, 61, 64–70, 79, 120–127, 173, 177, 196

  CodonDevices (née EngeneOS, later Gen9), 170–171

  Cohen, Stanley, 44–45, 46

  Collins, Francis, 204–205

  Collins, Jim, 171, 255

  comparative genomics, 73–86

  computational irreducibility, 242

  Computer Science and Artificial Intelligence Laboratory (CSAIL), 184

  “Conan the Bacterium” 130

  conjugative assembly genome engineering. See CAGE

  Continental Airlines, 92

  Ce qu’on voit et ce qu’on ne voit pas (Bastiat), 99

  Crichton, Michael, 138, 225–226

 
; Crick, Francis, 30, 213

  C-value paradox, 67

  cyanobacteria, 38, 92, 100, 104–106, 162, 222

  cystic fibrosis, 204–205

  Danielli, J. F., 51

  Darwin, Charles (Darwinian), 77, 89, 107, 135, 162, 234, 249

  Davis, Joe, 196, 271

  Declaration of Independence, stored in E. coli bacteria, 195–196

  Deinococcus radiodurans, 130

  Denisovans, 147n, 151

  diesel (biodiesel), 6–7, 66, 93, 97–106, 201, 239

  Diesel, Rudolf, 98

  “Diffusion of Synthetic Biology: A Challenge to Biosafety” (Schmidt), 232

  DIYbio, 232–237

  Dino, 95

  DNA, 29. See also oligonucleotides; polynucleotides

  as ancient text, 38

  encoding digital information using, 90, 177, 195–198

  storage of Wikipedia all-languages version as, 197

  first appearance of, 38

  noncoding (“junk”), 51, 57

  origami, 80

  plasmid, 44

  replication of, 30

  commercial synthesis of, 34

  as ultimate backup medium, 34

  Dolly (sheep), 134

  as “raised from the dead”9, 134

  Donnell, David, 180, 230–231

  Douglas, Shawn, 80

  Dresser, Betsey, 141

  Drexler, K. Eric, 54

  Drmanac, Rade (Complete Genomics), 168

  DuPont, 3

  E. coli (Escherichia coli), 3

  changing codons of, 125

  as digital information storage devices, 195–196

  discovery of, 43

  genetic engineering of, 44

  to destroy cancer cells, 115–116

  to make diesel fuel, 103

  to make ethanol, 103

  to suppress appetite, 179–180, 199–200

  genome of, 72, 78

  inv+ E. coli, 116

  K-12 strain of, 6, 46

  as rationally designed, 6

  as molecular factories, 46

  protein-coding genes of, 127

  replication rate of, 43, 72

  sense-perception ability of, 43

  sensor-equipped, 116

  synthesis of hemoglobin (“bactoblood”) by, 6, 181, 192

  synthesis of PDO by, 3

  See also biofuels

  EcoRI, 44

  E. cryptor, 195–196

  E. pluri, 66–67

  electricity, 4, 192–193, 240

  produced from sewage, 4–5

  Elowitz, Michael, 187–188

  Emory University, 7

  Endy, Drew, 160, 171, 186–190, 237, 255

  Engines of Creation (Drexler), 54

  Energy from Heaven and Earth (Teller), 96

  enhancing the human body, 8–9, 227

  Environmental Protection Agency, 3

  Escherich, Theodor, 43

  “Essay on the Principle of Population” (Malthus), 221

  ethanol, 2

  eugenics, 8, 86–89, 251

  errors of, 59

  evolution, 95, 110–111, 119, 125, 155, 161–163, 181, 193, 210, 230, 232

  human control of, 13, 74

  increasing the rate of, 71–73, 88

  laboratory, 31

  maximizing, 89

  progress in, 61

  exponential technologies, 164, 168, 209n, 242–243, 250–252

  extinction, 88, 133

  successful reversal of, 9–11, 133–136

  arguments against extinction reversal, 142–143

  Fernández-Árias, Alberto, 133–136

  Feynman, Richard, 177

  Fleming, Diane O., 231

  flies (midges), 72, 130, 250–251

  Flynn effect, 88–89

  Folch, Jose, 10, 133–136

  food-for-fuel problem, 94

  Ford, Henry, 98

  Forster, Anthony, 52, 66

  Fukuyama, Francis, 227–228

  fundamental engineering principles, 161

  biological equivalents of, 161–162

  future, prescriptions for, 243–253

  alternative scenarios, 243–249

  natural versus exotic, 243–244

  staying at home versus jetsetting, 242

  personal versus generic, 245

  priceless versus worthless, 246

  rich versus poor, 246

  privacy versus publicity, 246–248

  becoming a new species, 248–250

  Galton, Francis (Galtonian eugenics), 87–89

  Gao, Xiaolian, 174

  “garage biology” 232, 233

  first example of, 233

  Gaston Day School, 194

  Gates, Bill, 100, 172

  Gen9 (earlier, CodonDevices), 170–171

  Genencor International, 3

  genetic code, 61

  changing, 8–9, 120–128

  decoding of, 64

  genetic diseases, 204–205

  genetic engineering, 11

  genome,

  synthetic, 74–76

  genome synthesis as a business, 176–177

  reasons for synthesizing, 75–76

  genome sequencing, 73

  as a business, 170–174

  commercial firms, 215

  as enabling the mining of biological talents from other species, 73–74, 83

  history of, 165–170

  genomic engineering, 9, 11, 59, 119

  as a business, 162–164

  as enabling increased diversity, 59–66

  standardization of, 181–182

  Genspace, 234

  Gentry, Eri, 233–234, 257

  Geobacter metallireducens, 5

  Giese, Jeanna, 109–110

  recovery of, 131–132

  Gilbert, Wally, 118, 165, 255

  Gladyshev, Eugene, 130

  Glasby, Geoffrey, 97

  glycolysis, 42

  G-Oil, 93

  Gold, Thomas, 97

  Goodsell, David, 44

  Google, 89, 246, 255

  Goto, Kazufumi, 145

  “great oxygenation event” 105

  green chemistry, 3

  green fluorescent protein (GFP), 187

  Green Fuel Technologies Corporation, 93

  Gustafsson, Claes, 196

  H+. See transhumanism

  Hadean era, 16

  Haeckel, Ernst, 12

  handedness of molecules (chirality), 20

  defined, 22

  reasons to care about, 21–22

  See also mirror molecules

  Hapgood, Fred, 193

  hepatitis C virus, synthetic, 75

  Here Is a Human Being (Angrist), 214

  Hero of Alexandria, 182

  Hippocrates, 204

  History of the Peloponnesian War (Thucydides), 111

  Holocene epoch, 203

  Hood, Lee, 165, 174

  Hooke, Robert, 39

  houses grown from seeds, 7–8

  human genome, modifying, 85, 115, 120–128

  for multivirus resistance, 8–9, 119–121

  for radiation resistance, 129–131

  objections to, 85–86

  Human Genome Project, 73, 205

  as moon landing of molecular biology, 73, 207

  sequenced a “blended person” 207

  human immune system, 111–114

  limitations of, 111

  See also mammalian immune system

  HuMAb-Mouse, 118

  humanized mice, 118

  Hunt, Debra Long, 231

  hyperthymesia, 228–229

  “Idempotent Vector Design for Standard Assembly of Biobricks” (Knight), 185

  iGEM (International Genetically Engineered Machines), 180–181

  attempts to make genetic engineering “easy,” 230–231

  dangers arising from, 230–232

  history of, 189–192

  2010 iGEM Jamboree, 192–196, 198–201

  Chinese University
of Hong Kong presentation at, 195–196, 197, 200

  Harvard iGarden project at, 200

  Team Citadel presentation at, 199–200

  immortal human components, 217–223

  cloning as a possible route to, 220–221

  extremes of longevity, 218–219

  HeLa cells, 220

  Lacks, Henrietta, 220

  immune response, 112–114

  generation of diversity problem (GOD problem), 113

  immune diversity, 113

  immune specificity, 113

  industrial revolutions, 151–158

  first industrial revolution (domestication of time), 152–154

  unwelcome consequences of, 154

  second industrial revolution (agriculture), 154–157

  advantages of, 155

  unwelcome consequences of, 155–156

  further consequences of, 156–157

  parallels to synthetic biology, 157

  third industrial revolution (The Industrial Revolution proper), 182

 

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