Table II.7. Various stimuli documented to activate natural genetic engineering. |
|||
Signal or condition |
Natural genetic engineering function |
Organism(s) |
Reference |
Quorum pheromones |
DNA release and competence for DNA uptake |
Multiple bacteria |
(Miller and Bassler 2001; Sturme, Kleerebezem et al. 2002; Spoering and Gilmore 2006) |
Chitin |
Competence for DNA uptake |
Vibrio cholerae |
(Meibom, Blokesch et al. 2005) |
Various stress conditions |
Competence for DNA uptake |
Gram-positive bacteria |
(Claverys, Prudhomme et al. 2006) |
DNA damage |
Recombination and mutator polymerases (SOS response) |
Escherichia coli, Bacillus subtilis and other bacteria |
(Sutton, Smith et al. 2000; Au, Kuester-Schoeck et al. 2005) |
DNA damage |
Prophage excision |
E. coli, B. subtilis and other bacteria |
(Goranov, Kuester-Schoeck et al. 2006; Rokney, Kobiler et al. 2008). |
DNA damage |
Horizontal transfer of integrated conjugative (ICE) elements |
Multiple bacteria |
(Beaber, Hochhut et al. 2004; Auchtung, Lee et al. 2005). |
DNA damage |
ISDra2 transposition |
Deinococcus radiodurans |
(Pasternak, Ton-Hoang et al. 2010) |
DNA damage |
Genetic exchange |
Helicobacter pylori |
(Dorer, Fero et al. 2010) |
UV irradiation |
Tn10 transposition |
E. coli |
(Eichenbaum and Livneh 1998) |
Oxidative stress |
SOS responses, prophage induction |
Multiple bacteria |
(Giuliodori, Gualerzi et al. 2007; Selva, Viana et al. 2009) |
Chemical damage |
SOS response |
E. coli, Salmonella typhimurium |
(Mersch-Sundermann, Mochayedi et al. 1993; Mersch-Sundermann, Rosenkranz et al. 1994; Mersch-Sundermann, Schneider et al. 1994) |
Antibiotic |
SOS response |
E. coli |
(Phillips, Culebras et al. 1987; Miller, Thomsen et al. 2004) |
Antibiotic |
Competence for DNA uptake |
Staphylococcus aureus |
(Prudhomme, Attaiech et al. 2006) |
Antibiotic |
Prophage excision |
Staphylococcus aureus |
(Goerke, Köller et al. 2006) |
Antibiotic (beta lactam) |
SOS response and horizontal DNA transfer |
Staphylococcus aureus |
(Maiques, Ubeda et al. 2006) |
Antibiotic |
Mutator polymerase |
E. coli |
(Pérez-Capilla, Baquero et al. 2005) |
Tetracycline |
CTnDOT excision and conjugal transfer |
Bacteroides sp. |
(Moon, Shoemaker et al. 2005) |
Quorum pheromones, plant metabolites (opines) |
Conjugal transfer |
Agrobacterium tumefaciens |
(Fuqua and Winans 1994) |
Plant phenolics |
T-DNA transfer to plant cell |
A. tumefaciens |
(Gelvin 2006) |
Magnetic fields |
Tn5 transposition |
E. coli |
(Chow and Tung 2000) |
Magnetic fields |
Tn10 transposition |
E. coli |
(Del Re, Garoia et al. 2003; Del Re, Bersani et al. 2004) |
Heat shock |
F plasmid transfer |
E. coli |
(Zahrl, Wagner et al. 2007) |
Growth phase |
F plasmid transfer |
E. coli |
(Will, Lu et al. 2004) |
Genome reduction |
Stress-induced IS elements |
E. coli |
(Posfai, Plunkett et al. 2006) |
Conjugation |
ISPst9 transposition |
P. stutzeri |
(Christie-Oleza, Lanfranconi et al. 2009) |
Sex pheromones |
Conjugation agglutinins |
Enterobacter fecaelis |
(Kozlowicz, Dworkin et al. 2006; Kozlowicz, Shi et al. 2006; Clewell 2007; Dunny 2007) |
Nucleic acid precursors |
Reduce competence |
Haemophilus influenzae |
(MacFadyen, Chen et al. 2001) |
Aerobic starvation |
Mu prophage activation |
E. coli |
(Maenhaut-Michel and Shapiro 1994) (Lamrani, Ranquet et al. 1999) |
Stringent response (starvation-induced ppGpp synthesis) |
Activation of IS element transcription and IS3 transposition |
Caulobacter crescentus |
(Boutte and Crosson 2011) |
Aerobic starvation |
Tn4652 activation |
Pseudomonas putida |
(Horak, Ilves et al. 2004; Ilves, Horak et al. 2004) |
Aerobic starvation |
Base substitutions |
E. coli |
(Bjedov, Tenaillon et al. 2003) |
Aerobic starvation |
Tandem duplications and amplifications |
Salmonella enterica |
(Kugelberg, Kofoid et al. 2006) |
Aerobic starvation |
Plasmid transfer and replication |
E. coli |
(Peters and Benson 1995; Peters, Bartoszyk et al. 1996) |
Elevated temperature |
IS element activation |
Burkholderia sp. |
(Taghavi, Mergeay et al. 1997; Ohtsubo, Genka et al. 2005) |
Elevated temperature and high culture density |
IS4Bsu1 element |
B. subtilis |
(Takahashi, Sekine et al. 2007) |
Adenine starvation |
Ty1 retrotransposon activation |
Saccharomyces cerevisiaea |
(Todeschini, Morillon et al. 2005) (Servant, Pennetier et al. 2008) |
DNA damage (radiation or carcinogen) |
Ty1 retrotransposon activation |
S. cerevisiaea |
(Bradshaw and McEntee 1989; Sacerdot, Mercier et al. 2005; Stoycheva, Massardo et al. 2007) |
Telomere erosion |
Ty1 retrotransposon activation |
S. cerevisiaea |
(Scholes, Kenny et al. 2003) |
MAPK cascade activation during filamentous growth |
Ty1 retrotransposon activation |
S. cerevisiaea |
(Conte and Curcio 2000; Morillon, Springer et al. 2000) |
Oxidative conditions (H2O2) mediated by SREBP trancription factor |
Tf2 retrotransposon activation |
Schizosaccharomyces pombe |
(Sehgal, Lee et al. 2007) |
Mating pheromone |
Ty3 retrotransposon activation |
S. cerevisiaea |
(Kinsey and Sandmeyer 1995) |
Mating pheromone |
Ty5 retrotransposon activity and transcription |
S. cerevisiaea |
(Ke, Irwin et al. 1997) |
Prion formation |
Genome instability |
S. cerevisaea |
(True and Lindquist 2000) |
Improper cryopreservation |
Ty1 retrotransposition |
S. cerevisaea |
(Stamenova, Dimitrov et al. 2008) |
Nitrogen starvation |
LTR retrotransposon transcription |
Diatom (P. tricornutum) |
(Maumus, Allen et al. 2009) |
Aldehyde (decadienal) treatment |
LTR retrotransposon transcription |
Diatom (P. tricornutum) |
(Maumus, Allen et al. 2009) |
DNA damage (Mitomycin C) |
Transposon and retrotransposon activation |
Drosophila melanogaster |
(Georgiev, Korochkina et al. 1990) |
DNA damage |
Alu retransposition |
Homo sapiens |
(Hagan, Sheffield et al. 2003) |
Gamma irradiation |
LINE-1 retrtransposition |
Homo sapiens (human osteosarcoma cells) |
(Farkash, Kao et al. 2006) |
Benzpyrene |
LINE-1 retrotransposition |
Homo sapiens (HeLa cells) |
(Stribinskis and Ramos 2006) |
Steroid hormones |
Mouse mammary tumor virus (MMTV) activation |
Mus musculus |
(Truss, Chalepakis et al. 1992) |
Plant alarm chemicals |
Retrotransposon activation |
Nicotiana tabacum |
(Beguiristain, Grandbastien et al. 2001) |
Free radical-generating agents, UVC or rose Bengal (RB) |
Increased homologous recombination, systemically transmitted |
Tobacco |
(Filkowski, Yeoman et al. 2004) |
Hydrostatic pressure |
MITE DNA transposons |
rice |
(Lin, Long et al. 2006) |
Cutting/wounding |
Retrotransposon activation |
N. tabacum |
(Sugimoto, Takeda et al. 2000) |
Protoplasting & growth in tissue culture |
Transposon and retrotransposon activation |
various plants |
(Hirochika 1993; Huang, Zhang et al. 2009) |
Protoplasting & growth in tissue culture |
Tos17 retrotransposon activation |
rice |
(Hirochika, Sugimoto et al. 1996) |
Growth in tissue culture |
mPing transposition |
rice |
(Ngezahayo, Xu et al. 2009) |
Cell culture growth |
1731 LTR retrotransposon |
D. melanogaster |
(Maisonhaute, Ogereau et al. 2007) |
Cell culture growth |
LINE-1 element retrotransposition |
Mouse cell line |
(Moran, Holmes et al. 1996) |
Fungal metabolites |
TnT1 retrotransposon |
Nicotiana tabacum |
(Melayah, Bonnivard et al. 2001) |
Chlorine ions (not sodium) |
DNA strand breaks and recombination |
Arabidopsis thaliana |
(Boyko, Hudson et al. 2006; Boyko, Golubov et al. 2010) |
Nickel, Cadmium and other heavy metals |
LINE-1 retrotransposition |
Homo sapiens tissue culture cells |
(El-Sawy, Kale et al. 2005; Kale, Moore et al. 2005; Kale, Carmichael et al. 2006) |
Temperature and day length |
Homologou recombination
|
Arabidopsis thaliana |
(Boyko, Filkowski et al. 2005) |
Helicobacter pylori infection |
Adenocarcinoma with microsatellite instability |
human gastric mucosa |
(Tahara 2004) (Li, Shi et al. 2005) (Moriichi, Watari et al. 2009) |
Fungal or virus infection |
(CT)n microsatellite contraction |
wheat |
(Schmidt and Mitter 2004) (Kovalchuk, Tryndyak et al. 2007) |
Barley stripe mosaic virus (Peronospora parasitica) infection |
Increased somatic recombination and transposon activation; transmissible systemic response in tobacco |
Arabidopsis, maize and tobacco |
(Kovalchuk, Kovalchuk et al. 2003) |
Tobacco mosaic virus and oilseed rape mosaic virus infection |
Increased somatic recombination (transmissible systemic response) |
Tobacco, Arabidopsis thaliana |
(Dong 2004; Boyko, Kathiria et al. 2007) |
Temperature |
Amplification/reduction in repetitive elements |
Festuca arundinacea (Tall Fescue) |
(Ceccarelli, Esposto et al. 2002) |
Elevation and moisture |
BARE-1 retrotransposition |
Hordeum spontaneum (wild barley) |
(Kalendar, Tanskanen et al. 2000) |
Heat shock, toxic chemicals |
SINE transcription |
Bombyx morii |
(Kimura, Choudary et al. 1999; Kimura, Choudary et al. 2001) |
Various stress conditions |
SINE transcription |
H. sapiens |
(Li and Schmid 2001) |
Heat shock |
B1 SINE transcription |
M. musculus |
(Li, Spearow et al. 1999) |
Industrial air pollution |
Microsatellite expansion |
M. musculus |
(Somers, Yauk et al. 2002) |
Particulate air pollution |
Germ-line mutations |
Mouse |
(Yauk, Polyzos et al. 2008) |
Chemical mutagens and etoposide |
Microsatellite expansion |
M. musculus |
(Vilarino-Guell, Smith et al. 2003) |
Diet (extra folic acid, vitamin B12 choline, and betaine) |
IAP retrotransposon at Agouti locus (Avy allele) |
M. musculus |
(Waterland and Jirtle 2003) |
Lymphocyte differentiation and antigen activation |
Activation of VDJ joining, somatic hypermutation and heavy chain class switching |
M. musculus and H. sapiens |
(Gellert 1997; Honjo, Kinoshita et al. 2002; Alt 2007) |
Neuronal differentiation and exercise |
LINE-1 retrotransposition |
M. musculus |
(Muotri, Chu et al. 2005; Muotri, Zhao et al. 2009); (Coufal, Garcia-Perez et al. 2009) |
Hybrid dysgenesis |
P factor transposon |
D. melanogaster |
(Kidwell 1985; Kidwell, Kimura et al. 1988) (Kocur, Drier et al. 1986) |
Hybrid dysgenesis |
I factor non-LTR retrotransposon |
D. melanogaster |
(Fawcett, Lister et al. 1986; Bucheton 1990; Busseau, Chaboissier et al. 1994; Sezutsu, Nitasaka et al. 1995; de La Roche Saint Andre and Bregliano 1998; Gauthier, Tatout et al. 2000) |
Hybrid dysgenesis |
Hobo transposon |
D. melanogaster |
(Yannopoulos, Stamatis et al. 1987) (Simmons 1992) (Galindo, Ladeveze et al. 1995; Bazin, Denis et al. 1999; Bazin, Dejonghe et al. 2004) |
Hybrid dysgenesis |
Penelope retrotransposon and other transposable elements |
D. virilis |
(Scheinker, Lozovskaya et al. 1990; Zelentsova, Poluectova et al. 1999; Evgen'ev, Zelentsova et al. 2000; Lyozin, Makarova et al. 2001; Pyatkov, Shostak et al. 2002; Blumenstiel and Hartl 2005; Evgen'ev and Arkhipova 2005) |
Hybrid dysgenesis |
Mariner/Tc1, hAT transposons and gypsy/Ty3 LTR retrotransposons |
Medfly (Ceratitis capitata) |
(Torti, Gomulski et al. 1997; Gomulski, Torti et al. 2004) |
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