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Taxis

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499:. It has been suggested that by detecting and orienting themselves toward the electric fields, cells can move towards damages or wounds to repair them. It also is suggested that such a movement may contribute to directional growth of cells and tissues during development and regeneration. This notion is based on the existence of measurable electric fields that naturally occur during wound healing, development and regeneration; and cells in cultures respond to applied electric fields by directional cell migration – electrotaxis / galvanotaxis. 617:: that is, the response to variation in light intensity and direction. Negative phototaxis, or movement away from a light source, is demonstrated in some insects, such as cockroaches. Positive phototaxis, or movement towards a light source, is advantageous for phototrophic organisms as they can orient themselves most efficiently to receive light for 467:. Unicellular (e.g. protozoa) or multicellular (e.g. worms) organisms are targets of chemotactic substances. A concentration gradient of chemicals developed in a fluid phase guides the vectorial movement of responder cells or organisms. Inducers of locomotion towards increasing steps of concentrations are considered as 635:
of higher plants positively phototactic, moving towards a light source. Two types of positive phototaxis are observed in prokaryotes: scotophobotaxis is observable as the movement of a bacterium out of the area illuminated by a microscope, when entering darkness signals the cell to reverse direction
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by turning its head sideways and comparing the intensity of the stimulus. Their direction of movement is then based on the stronger stimulus, either moving toward a desirable stimulus or away from an undesired one. When the intensity of stimuli is balanced equally from all sides, the organism moves
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Energy taxis is the orientation of bacteria towards conditions of optimal metabolic activity by sensing the internal energetic conditions of cell. Therefore, in contrast to chemotaxis (taxis towards or away from a specific extracellular compound), energy taxis responds on an intracellular stimulus
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Anemotaxis is the response of an organism to wind. Many insects show a positive anemotactic response (turning/flying into the wind) upon exposure to an airborne stimulus cue from a food source or pheromones. Cross-wind anemotactic search is exhibited by some olfactory animals in the absence of a
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Taxes are classified based on the type of stimulus, and on whether the organism's response is to move towards or away from the stimulus. If the organism moves towards the stimulus the taxis are positive, while if it moves away the taxis are negative. For example, flagellate
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in a fluid. Positive rheotaxis is shown by fish turning to face against the current. In a flowing stream, this behaviour leads them to hold their position in a stream rather than being swept downstream. Some fish will exhibit negative rheotaxis where they will avoid
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Verasztó, Csaba; Gühmann, Martin; Jia, Huiyong; Rajan, Vinoth Babu Veedin; Bezares-Calderón, Luis A.; Piñeiro-Lopez, Cristina; Randel, Nadine; Shahidi, Réza; Michiels, Nico K.; Yokoyama, Shozo; Tessmar-Raible, Kristin; Jékely, Gáspár (29 May 2018).
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larvae are believed to use thigmotactic sense to locate fruits to feed on. Mice and rats, when inhabiting human-made structures, tend to stick close to vertical surfaces; this primarily manifests as running along the floor/wall juncture. Whiskers
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and reenter the light; a second type of positive phototaxis is true phototaxis, which is a directed movement up a gradient to an increasing amount of light. There is a different classification to orientation towards dark areas called scototaxis.
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is a response elicited by chemicals: that is, a response to a chemical concentration gradient. For example, chemotaxis in response to a sugar gradient has been observed in motile bacteria such as
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Thigmotaxis is the response of an organism to physical contact or to the proximity of a physical discontinuity in the environment (e.g. rats preferring to swim near the edge of a water maze).
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Mugnaini, Matias; Mehrotra, Dhruv; Davoine, Federico; Sharma, Varun; Mendes, Ana Rita; Gerhardt, Ben; Concha-Miranda, Miguel; Brecht, Michael; Clemens, Ann M. (2023).
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also requires paired receptors. The movement occurs along the direction where the intensity of the stimuli is stronger. Telotaxis is clearly seen in the movement of
1457:. Handbook of Sensory Physiology. Vol. VII/6A. New York: Springer-Verlag. pp. 503–580. See section D: Wavelength–Specific Behavior and Color Vision. 661:
can migrate along amazingly small temperature gradients of less than 0.1 °C/cm. They apparently use this behaviour to move to an optimal level in soil.
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but not paired receptor organs. The cells for reception may be located all over the body, but often towards the anterior side. The organism detects the
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and coordinate movement in response. However, the term is commonly applied to bacteria that contain magnets and are physically rotated by the force of
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target odor including moths, albatrosses, and polar bears. Rats have specialized supra-orbital whiskers that detect wind and cause anemotactic turning.
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Pharotaxis is the movement to a specific location in response to learned or conditioned stimuli, or navigation by means of landmarks.
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Blass, E.M (1987). "Opioids, sweets and a mechanism for positive affect: Broad motivational implications". In Dobbing, J (ed.).
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with paired receptor cells, comparing the strength of the signals and turning toward the strongest signal. The movement of
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Aerotaxis is the response of an organism to variation in oxygen concentration, and is mainly found in aerobic bacteria.
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cells, but signalling mechanisms (receptors, intracellular signaling) and effectors are significantly different.
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and demonstrates guided movement towards or away from the stimulus source. It is sometimes distinguished from a
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C. F. Adams & A. J. Paul (1999). "Phototaxis and geotaxis of light-adapted zoeae of the golden king crab
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Menzel, Randolf (1979). "Spectral Sensitivity and Color Vision in Invertebrates". In H. Autrum (ed.).
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Animal Behavior Desk Reference: A Dictionary of Animal Behavior, Ecology, and Evolution, Third Edition
1819: 1180: 1064: 958: 535: 376: 322:, where an organism continuously samples the environment to determine the direction of a stimulus; a 307: 1631: 770: 504: 1569: 1283: 1204: 982: 703: 508: 143:
since phototaxis refers to a response to light and the organism is moving towards the stimulus.
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Comparative Physiology and Evolution of Vision in Invertebrates- A: Invertebrate Photoreceptors
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Kennedy, J. S.; Marsh, D. (1974). "Pheromone-regulated anemotaxis in flying moths".
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Directed movement of a motile cell or organism in response to an external stimulus
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Nevitt, Gabrielle A.; Losekoot, Marcel; WeimerskirchWeimerskirch, Henri (2008).
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to follow trails that organisms have left when travelling to or from their home.
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Vergassola, Massimo; Villermaux, Emmanuel; Shraiman, Boris I. (January 2007).
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Reddy, Gautam; Murthy, Venkatesh N.; Vergassola, Massimo (10 March 2022).
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Nossal, Ralph (1980). Jäger, Willi; Rost, Hermann; Tautu, Petre (eds.).
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to look for food. They balance the stimuli from the sun as well as from
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This article is about the behavioural response. For the vehicle, see
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There are five types of taxes based on the movement of organisms.
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is the directional movement of a cell along a stiffness gradient.
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move towards a light source. This reaction or behavior is called
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but land on the flower whose stimulus is most intense for them.
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result moving off the chemical. Chemotaxis is described in
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Phonotaxis is the movement of an organism in response to
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is a migration along a gradient of temperature. Some
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Many types of taxis have been identified, including:
84: 78: 75: 69: 66: 104:such as light or the presence of food. Taxes are 407:describes organisms' maintenance of a constant 1531:Annals of the Entomological Society of America 613:is the movement of an organism in response to 589:is, strictly speaking, the ability to sense a 1647: 1226:. London: Springer-Verlag. pp. 115–124. 723:, science of categorisation or classification 8: 1353:T. Fenchel & B. J. Finlay (1 May 1984). 919: 917: 915: 913: 911: 909: 872: 870: 868: 866: 864: 862: 741:Henry George Liddell; Robert Scott (1940). 1654: 1640: 1632: 1264:(Anomura: Lithodidae) in the laboratory". 1248:Bacterial energy taxis: a global strategy? 1576:. Berlin, Heidelberg: Springer: 410–439. 1374: 1329: 1319: 1173:Annual Review of Condensed Matter Physics 1143: 1125: 1084: 1027: 1017: 890: 463:in response to chemicals secreted by the 147:Terminology derived from type of stimulus 1193:10.1146/annurev-conmatphys-031720-032754 334:Terminology derived from taxis direction 318:present, a taxis can be classified as a 1250:Arch Microbiol. 2010 Jul;192(7):507-20. 733: 926:Macmillan Dictionary of Life Sciences 7: 1570:"Mathematical Theories of Topotaxis" 1355:"Geotaxis in the ciliated protozoon 354:in a straight line. The movement of 1525:Jackson, D. Michael (15 May 1982). 1500:Behavioral Ecology and Sociobiology 54: 1666:(directional movements in biology) 511:) and requires metabolic activity. 108:responses. A taxis differs from a 14: 1481:, p.114. W.H. Freeman, New York. 877:Mackenzie, Dana (6 March 2023). 447:. Chemotaxis also occurs in the 383:clearly demonstrates tropotaxis. 365:clearly demonstrates klinotaxis. 62: 1363:Journal of Experimental Biology 879:"How animals follow their nose" 790:Merriam-Webster.com Dictionary 1: 1267:Journal of Crustacean Biology 1246:Schweinitzer T, Josenhans C. 1582:10.1007/978-3-642-61850-5_37 1574:Biological Growth and Spread 1477:Dusenbery, David B. (1992). 1389:Dusenbery, David B. (2009). 1127:10.1371/journal.pbio.3002168 971:10.1126/science.184.4140.999 844:Dusenbery, David B. (2009). 53: 'arrangement, order'; 1426:Barrows, Edward M. (2011). 1863: 924:Martin, E.A., ed. (1983). 18: 1671: 892:10.1146/knowable-030623-4 810:Dictionary.com Unabridged 345:occurs in organisms with 314:Depending on the type of 192:or "gradient search" (by 824:Kendeigh, S. C. (1961). 715:Different, wider context 1413:pharotaxis at Word Info 1019:10.1073/pnas.0709047105 748:A Greek–English Lexicon 1513:Biological Cybernetics 595:Earth's magnetic field 393:when they leave their 23:. For other uses, see 1543:10.1093/aesa/75.3.284 1391:Living at Micro Scale 1051:Togunov, Ron (2017). 846:Living at Micro Scale 546:Platynereis dumerilii 25:Taxi (disambiguation) 1376:10.1242/jeb.110.1.17 1262:Lithodes aequispinus 536:Lithodes aequispinus 377:grayling butterflies 1617:10.1038/nature05464 1321:10.7554/eLife.36440 1185:2022ARCMP..13..191R 1069:2017NatSR...746332T 963:1974Sci...184..999K 771:The Free Dictionary 642:is a response to a 505:proton motive force 409:angular orientation 141:positive phototaxis 1057:Scientific Reports 957:(4140): 999–1001. 885:. Annual Reviews. 793:. Merriam-Webster. 704:Optomotor response 106:innate behavioural 1829: 1828: 1611:(7126): 406–409. 1591:978-3-642-61850-5 1439:978-1-4398-3652-1 1399:978-0-674-03116-6 1077:10.1038/srep46332 1012:(12): 4576–4581. 883:Knowable Magazine 854:978-0-674-03116-6 689:Animal locomotion 523:center of gravity 100:in response to a 1854: 1820:physical contact 1740:electric current 1680:(stimulation by 1656: 1649: 1642: 1633: 1628: 1595: 1555: 1554: 1522: 1516: 1511:Dusenbery, D.B. 1509: 1503: 1498:Dusenbery, D.B. 1496: 1490: 1475: 1469: 1468: 1450: 1444: 1443: 1423: 1417: 1416: 1408: 1402: 1387: 1381: 1380: 1378: 1350: 1344: 1343: 1333: 1323: 1298: 1292: 1291: 1257: 1251: 1244: 1238: 1237: 1219: 1213: 1212: 1164: 1158: 1157: 1147: 1129: 1105: 1099: 1098: 1088: 1048: 1042: 1041: 1031: 1021: 997: 991: 990: 946: 940: 939: 921: 904: 903: 901: 899: 894: 874: 857: 842: 836: 835: 821: 815: 814: 801: 795: 794: 781: 775: 774: 763: 757: 756: 738: 623:phytoflagellates 469:chemoattractants 371:is displayed by 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Retrieved 882: 845: 840: 826: 819: 808: 799: 788: 779: 769:– via 761: 746: 736: 699:Mechanotaxis 666:Codling moth 633:chloroplasts 626: 587:Magnetotaxis 578: 572: 566: 562: 544: 534: 529:larvae of a 493:Electrotaxis 449:antherozoids 443: 414: 404: 386: 368: 342: 337: 327: 323: 319: 313: 301: 289: 277: 265: 255:Magnetotaxis 253: 243: 233: 227: 218:galvanotaxis 217: 213:Electrotaxis 211: 199: 187: 177: 167: 155: 150: 140: 134: 127: 58: 50: 45: 37: 35: 33: 1816:Thigmotaxis 1810:temperature 1805:Thermotaxis 655:slime molds 651:Thermotaxis 555:depth-gauge 477:prokaryotic 303:Thigmotaxis 296:temperature 291:Thermotaxis 1836:Categories 1798:fluid flow 1781:Phototaxis 1758:Hydrotaxis 1747:Gravitaxis 1709:Chemotaxis 1688:Anemotaxis 751:. Oxford: 728:References 694:Haptotaxis 657:and small 631:, and the 611:Phototaxis 580:Paramecium 559:protozoans 541:polychaete 527:planktonic 515:Gravitaxis 481:eukaryotic 465:archegonia 453:liverworts 439:Chemotaxis 415:Mnemotaxis 369:Tropotaxis 343:Klinotaxis 324:tropotaxis 320:klinotaxis 284:fluid flow 267:Phototaxis 244:Hydrotaxis 229:Gravitaxis 189:Chemotaxis 168:Anemotaxis 131:protozoans 40:(from 1793:Rheotaxis 1726:stiffness 1721:Durotaxis 1714:chemicals 1698:Barotaxis 1677:Aerotaxis 1662:Types of 1625:1476-4687 1551:0013-8746 1224:Sweetness 1209:243966350 1201:1947-5454 1136:1545-7885 1063:: 46332. 671:vibrissae 659:nematodes 647:currents. 640:Rheotaxis 574:Remanella 531:king crab 521:) to the 487:Durotaxis 405:Menotaxis 387:Telotaxis 381:fish lice 373:organisms 360:butterfly 328:telotaxis 279:Rheotaxis 206:stiffness 201:Durotaxis 194:chemicals 178:Barotaxis 157:Aerotaxis 92:) is the 1762:moisture 1702:pressure 1340:29809157 1154:37410722 1145:10325054 1095:28402340 1038:18326025 987:41768056 898:13 March 721:Taxonomy 678:See also 471:, while 426:Examples 248:moisture 234:geotaxis 182:pressure 114:motility 102:stimulus 98:organism 94:movement 29:Taxonomy 1752:gravity 1357:Loxodes 1331:6019069 1288:1549552 1181:Bibcode 1086:5389353 1065:Bibcode 1029:2290754 979:4826172 959:Bibcode 951:Science 805:"taxis" 785:"taxis" 767:"taxis" 743:"τάξις" 709:Tropism 683:Biology 644:current 628:Euglena 625:, e.g. 621:. Many 568:Loxodes 519:gravity 444:E. coli 399:flowers 356:blowfly 351:stimuli 238:gravity 136:Euglena 118:kinesis 110:tropism 51:(táxis) 1682:oxygen 1623:  1605:Nature 1588:  1549:  1485:  1461:  1436:  1397:  1338:  1328:  1286:  1230:  1207:  1199:  1152:  1142:  1134:  1093:  1083:  1036:  1026:  985:  977:  932:  852:  525:. The 509:NDH- 1 503:(e.g. 461:mosses 459:, and 419:memory 363:larvae 162:oxygen 96:of an 1786:light 1664:taxes 1308:eLife 1284:JSTOR 1205:S2CID 983:S2CID 615:light 605:sound 457:ferns 272:light 59:taxes 48:τάξις 44: 38:taxis 1818:(by 1796:(by 1784:(by 1772:(by 1760:(by 1750:(by 1738:(by 1724:(by 1712:(by 1700:(by 1692:wind 1690:(by 1621:ISSN 1586:ISBN 1547:ISSN 1483:ISBN 1459:ISBN 1434:ISBN 1395:ISBN 1336:PMID 1228:ISBN 1197:ISSN 1150:PMID 1132:ISSN 1091:PMID 1034:PMID 1006:PNAS 975:PMID 930:ISBN 900:2023 850:ISBN 577:and 563:e.g. 479:and 395:hive 391:bees 379:and 358:and 306:(by 282:(by 270:(by 258:(by 246:(by 236:(by 220:(by 204:(by 180:(by 172:wind 170:(by 27:and 21:Taxi 1734:or 1613:doi 1609:445 1578:doi 1539:doi 1371:doi 1367:110 1326:PMC 1316:doi 1276:doi 1189:doi 1140:PMC 1122:doi 1081:PMC 1073:doi 1024:PMC 1014:doi 1010:105 967:doi 955:184 887:doi 834:pp. 832:468 451:of 232:or 216:or 55:pl. 1838:: 1619:. 1607:. 1603:. 1584:. 1572:. 1545:. 1535:75 1533:. 1529:. 1365:. 1361:. 1334:. 1324:. 1314:. 1310:. 1306:. 1282:. 1272:19 1270:. 1203:. 1195:. 1187:. 1177:13 1175:. 1171:. 1148:. 1138:. 1130:. 1118:21 1116:. 1112:. 1089:. 1079:. 1071:. 1059:. 1055:. 1032:. 1022:. 1008:. 1004:. 981:. 973:. 965:. 953:. 908:^ 881:. 861:^ 807:. 787:. 745:. 583:). 571:, 565:, 551:UV 543:, 533:, 455:, 82:iː 57:: 36:A 1822:) 1812:) 1800:) 1788:) 1776:) 1764:) 1754:) 1742:) 1728:) 1716:) 1704:) 1694:) 1684:) 1655:e 1648:t 1641:v 1627:. 1615:: 1594:. 1580:: 1553:. 1541:: 1489:. 1467:. 1442:. 1401:. 1379:. 1373:: 1359:" 1342:. 1318:: 1312:7 1290:. 1278:: 1236:. 1211:. 1191:: 1183:: 1156:. 1124:: 1097:. 1075:: 1067:: 1061:7 1040:. 1016:: 989:. 969:: 961:: 938:. 902:. 889:: 856:. 773:. 755:. 669:( 607:. 561:( 310:) 298:) 286:) 274:) 262:) 250:) 240:) 224:) 208:) 196:) 184:) 174:) 164:) 88:/ 85:z 79:s 76:k 73:æ 70:t 67:ˈ 64:/ 31:.

Index

Taxi
Taxi (disambiguation)
Taxonomy
Ancient Greek
τάξις
/ˈtæksz/
movement
organism
stimulus
innate behavioural
tropism
motility
kinesis
protozoans
Euglena
Aerotaxis
oxygen
wind
pressure
Chemotaxis
chemicals
Durotaxis
stiffness
Electrotaxis
electric current
Gravitaxis
gravity
moisture
Magnetotaxis
magnetic field

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