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Sexual antagonistic coevolution

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91:. This male adaptation leads to a reduction in female survivorship, which is mediated by an increased rate of remating and increased toxicity of Acps in seminal fluid. Since non-reproductive proteins do not feel the same evolutionary pressure as Acps, they are not evolving nearly as quickly. Consistent with the arms race theory, DNA analyses reveal a two-fold increase in Acp divergence relative to non-reproductive proteins. 219:) males will harass females and try to grasp them by chasing and lunging at them. Females can be extremely evasive and often fend off these aggressive attacks. Even when a female is finally grasped she continues to struggle. However, this type of avoidance is very costly to a female, so she ends up having to balance the cost of 276:
in the female's reproductive tract. As a result, females’ connective tissue in the copulatory tract increased in thickness. However, females with a thicker copulatory tract correlated positively to the amount of scarring, suggesting that scarring is a poor measure of costs for females. Females have
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found in females. It has been found that females with larger seminal receptacles “choose” sperm with long tails over sperm with short tails. Although females seem to “favor” this trait, no reproductive advantage for long tails has been found except for better correspondence to females with large
83:. While Acps facilitate the mutually beneficial outcome of increased progeny production, several Acps have detrimental effects on female fitness as they are toxic and shorten her lifespan. This leads to antagonistic co-evolution, as the female must evolve in order to defend herself. When female 396:. In this species females have coiled oviducts that lead to the spermatheca that in turn make it hard for males to reach the area needed to release their sperm. Once copulation is initiated the males are able to unfold their aedeagus and use its flexibility to maneuver the coiled oviducts. 152:
when she finds it optimal. It is this factor that has put females in the driver seat of evolution. These organs give females the ability to pick and choose which sperm they will use to fertilize their eggs. Males now have another factor they need to overcome. In the case of
159:, females will mate multiple times and then expel the excess sperm that she does not need. However, neither the first nor the second mate know if it is his sperm that was dispelled, because at any postcopulatory moment a female can store the sperm of more than one male. 107:
mentioned previously. Therefore, females who possess traits where they can lessen the impacts of male behavior are the ones who will survive and go on to reproduce. There are many ways a female can "defend" herself to the onslaught of potential mates.
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model, as females may choose for long tails based solely on inherited desirability, and would want to pass on that trait, which would improve the sexual success of their male progeny. This also could be an example of the “good genes” model of
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and allow a rapid passage to the female's reproductive tract, thus overcoming female barriers to sperm. Females suffer costs as a result of injuries, but males do not benefit directly from harm inflicted on their mates. Damage, such as
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Before a male even has to begin worrying if the female will use his sperm or not, he must mate with her, which can be a problem within itself. Potential mates often play a game of persistence and resistance. In the case of
272:, increases in the female tract with the number of matings. In seed beetles, a positive correlation exists between the degree of harmfulness of the male's genitalia and the thickness or reinforcement of the wall of the 309:
where sperm is deposited. The sperm migrates through the blood to the sperm storage site and oviducts, and then to the ovaries to fertilize eggs. Female bed bugs have also evolved physiological by the presence of
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Civetta, A.; Singh, R. (1995). "High divergence of reproductive tract proteins and their association with postzygotic reproductive isolation in Drosophila melanogaster and Drosophila virilis group species".
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is not significant to either body size or growth rate, but variation in development time was significantly related to population fitness. In females, genes associated with long development time lead to high
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Bath, Eleanor; Tatarnic, Nikolai; Bonduriansky, Russell (2012-12-01). "Asymmetric reproductive isolation and interference in neriid flies: the roles of genital morphology and behaviour".
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Manier, M. K.; Belote, J. M.; Berben, K. S.; Novikov, D.; Stuart, W. T.; Pitnick, S. (2010). "Resolving Mechanisms of Competitive Fertilization Success in Drosophila melanogaster".
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Rowe, L.; Arnqvist, G. (2002). "Sexually antagonistic coevolution in a mating system: Combining experimental and comparative approaches to address evolutionary processes".
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Additionally, sexual antagonistic co-evolution can be the cause of rapid evolution, as is thought to be the case in seminal proteins known as Acps in species of
58:, it is very disadvantageous to the female's health. During mating, males will try to inseminate as many females as possible, however, the more times a female's 62:
is punctured, the less likely she is to survive. Females that possess traits to avoid multiple matings will be more likely to survive, resulting in a change in
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Bonduriansky, Russell; Rowe, Locke (2003). "Interactions Among Mechanisms of Sexual Selection on Male Body Size and Head Shape in a Sexually Dimorphic Fly".
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volume and time of copulation through the presence of ejaculates in females to conserve sperm and determine paternity outcomes. Females have evolved a
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adaptations of the opposite sex. Responses in insects can vary in both genitalia and sperm structures, along with variations in behavior.
838: 1041:"Sexual conflict and the gender load: Correlated evolution between population fitness and sexual dimorphism in seed beetles" 1188: 326:
is often sexually antagonistic. In seed beetles, populations differed in development time and growth rate between sexes.
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is the relationship between males and females where sexual morphology changes over time to counteract the opposite's
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Rice, W. R. (1996). "Sexually antagonistic male adaptation triggered by experimental arrest of female evolution".
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and are hypothesized to have functioned as spermatheca at one point in time. They now serve as storage units for
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Marchini, D.; Bene, G. D.; Dallai, R. (2009). "Functional morphology of the female reproductive apparatus of
155: 79: 793: 225: 55: 39: 377:, as correlations have been found between sperm tail length and the physiological condition of the male. 327: 302: 125: 415:"Sexually antagonistic coevolution in insects is associated with only limited morphological diversity" 323: 273: 1097: 993: 785: 634: 575: 523: 264: 63: 35: 798: 278: 117: 87:
are experimentally prevented from co-evolving with males, males rapidly adapt to the static female
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that there is a positive correlation between the length of male sperm tails and the size of the
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have been associated with female sperm storage organs (most notably, the spermatheca) through
47: 229:, the cost of resisting mating is low relative to the benefit of evading a low quality male. 1148: 1105: 1060: 1052: 1011: 1001: 938: 895: 850: 803: 742: 701: 693: 652: 642: 583: 531: 486: 478: 426: 374: 195: 71: 289:
Male bed bugs have a unique way to copulate called traumatic insemination. Males use their
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and the cost of resistance. However, in species with singly mating females like the fly
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Prokupek, A.; Hoffmann, F.; Eyun, S. I.; Moriyama, E.; Zhou, M.; Harshman, L. (2008).
1182: 855: 657: 622: 431: 414: 250: 212: 191: 149: 133: 129: 1168: 1125: 966: 915: 872: 823: 762: 603: 551: 100: 1152: 982:"Coevolution between harmful male genitalia and female resistance in seed beetles" 448: 124:. Some species do not have a spermatheca in the traditional sense, but do possess 839:"An Evolutionary Expressed Sequence Tag Analysis of Drosophila Spermatheca Genes" 297:
even though females contain a genital tract. Male bed bugs can also adjust their
260: 121: 356: 175: 74:. This results in a new trait that females have to avoid in order to survive. 31: 1160: 950: 1109: 1088:
Miller, G. T.; Pitnick, S (2002). "Sperm-Female Coevolution in Drosophila".
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pyrioides(Heteroptera, Tingidae): A novel role for the pseudospermathecae".
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is relatively simple and more likely to vary among generations compared to
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or physiological ability to produce greater quality or quantity of sperm.
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may also play a role in sexual antagonistic coevolution with males. In
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Philosophical Transactions of the Royal Society B: Biological Sciences
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to counter traumatic inseminations. The paragenital system contains a
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seminal receptacles. This discrimination is reminiscent of the
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Male genitalia evolve more rapidly and divergently in animals.
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males have been observed to have coevolved to have a flexible
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can be very dangerous and disadvantageous as in the case of
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10.1554/0014-3820(2002)056[0754:saciam]2.0.co;2
339:. Males have shorter development time and emerge early ( 237:
Like females, males have developed responses to counter
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Proceedings of the Royal Society B: Biological Sciences
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Proceedings of the Royal Society B: Biological Sciences
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in the mesospermalege that ingest sperm after mating.
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Females have a very complex and an extremely variable
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Evolution; International Journal of Organic Evolution
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Panhuis, T. M.; Clark, N. L.; Swanson, W. J. (2006).
343:) resulting in greater fertilization opportunities. 617:Swanson, W. J.; Clark, A. G.; Waldrip-Dail, H. M.; 460: 458: 140:, pseudospermatheca are located at the base of the 281:to help with trauma associated during copulation. 986:Proceedings of the National Academy of Sciences 627:Proceedings of the National Academy of Sciences 293:to stab and inseminate females through their 8: 980:Ronn, J.; Katvala, M.; Arnqvist, G. (2007). 186:and analysis. It is hypothesized that these 277:evolved in other ways such as investing in 178:species, a large group of enzymes known as 263:, spiny genitalia help with anchor during 1064: 1015: 1005: 854: 797: 705: 656: 646: 490: 430: 465:Siva-Jothy, M. T.; Stutt, A. D. (2003). 405: 128:. Both forms play an essential role in 259:can aid in male-male competition. In 7: 190:break down various proteins in male 351:Competition between differing male 42:between sexes. In many cases, male 943:10.1111/j.0014-3820.2003.tb00384.x 25: 856:10.1111/j.1558-5646.2008.00493.x 432:10.1111/j.1420-9101.2005.01057.x 28:Sexual antagonistic co-evolution 1039:Arnqvist, G.; Tuda, M. (2009). 419:Journal of Evolutionary Biology 385:In the case of the Neriid fly, 46:is detrimental to the female's 38:. This has been compared to an 568:Journal of Molecular Evolution 1: 1153:10.1016/j.anbehav.2012.08.025 112:Spermatheca/pseudospermatheca 359:level. It has been found in 163:Enzymes secreted by females 1205: 388:Derocephalus angusticollis 335:and mate immediately upon 248: 621:; Aquadro, C. F. (2001). 381:Flexibility of genitalia 18:Antagonistic Coevolution 1110:10.1126/science.1076968 1007:10.1073/pnas.0701170104 808:10.1126/science.1187096 85:Drosophila melanogaster 80:Drosophila melanogaster 34:to achieve the maximum 1057:10.1098/rspb.2009.2026 698:10.1098/rstb.2005.1793 648:10.1073/pnas.131568198 483:10.1098/rspb.2002.2260 226:Prochyliza xanthostoma 120:, commonly known as a 56:traumatic insemination 735:Journal of Morphology 413:Eberhard, W. (2006). 1189:Evolutionary biology 50:. For example, when 36:reproductive success 1102:2002Sci...298.1230M 998:2007PNAS..10410921R 790:2010Sci...328..354M 639:2001PNAS...98.7375S 580:1995JMolE..41.1085C 528:1996Natur.381..232R 355:also exists at the 172:reproductive tracts 170:secreted by female 118:reproductive system 95:Female co-evolution 747:10.1002/jmor.10811 588:10.1007/BF00173190 365:seminal receptacle 328:Population fitness 303:paragenital system 291:intromittent organ 198:, whether through 184:genetic sequencing 99:For many females, 1051:(1686): 1345–52. 370:Fisherian runaway 347:Sperm tail length 233:Male co-evolution 200:genetic variation 196:digestive enzymes 126:pseudospermatheca 52:insects reproduce 16:(Redirected from 1196: 1173: 1172: 1147:(6): 1331–1339. 1141:Animal Behaviour 1136: 1130: 1129: 1096:(5596): 1230–3. 1085: 1079: 1078: 1068: 1036: 1030: 1029: 1019: 1009: 977: 971: 970: 937:(9): 2046–2053. 926: 920: 919: 883: 877: 876: 858: 834: 828: 827: 801: 773: 767: 766: 726: 720: 719: 709: 677: 671: 670: 660: 650: 614: 608: 607: 562: 556: 555: 536:10.1038/381232a0 511: 505: 504: 494: 477:(1515): 649–52. 462: 453: 452: 434: 410: 375:sexual selection 324:development time 318:Development time 312:phagocytic cells 274:bursa copulatrix 180:serine proteases 136:. In the family 72:female genitalia 21: 1204: 1203: 1199: 1198: 1197: 1195: 1194: 1193: 1179: 1178: 1177: 1176: 1138: 1137: 1133: 1087: 1086: 1082: 1038: 1037: 1033: 992:(26): 10921–5. 979: 978: 974: 928: 927: 923: 885: 884: 880: 849:(11): 2936–47. 836: 835: 831: 799:10.1.1.363.4222 784:(5976): 354–7. 775: 774: 770: 728: 727: 723: 692:(1466): 261–8. 679: 678: 674: 616: 615: 611: 564: 563: 559: 522:(6579): 232–4. 513: 512: 508: 464: 463: 456: 412: 411: 407: 402: 383: 349: 320: 287: 257:Spiny genitalia 253: 247: 245:Spiny genitalia 235: 208: 165: 156:D. melanogaster 114: 97: 44:mating behavior 23: 22: 15: 12: 11: 5: 1202: 1200: 1192: 1191: 1181: 1180: 1175: 1174: 1131: 1080: 1031: 972: 921: 894:(4): 754–767. 878: 829: 768: 721: 672: 633:(13): 7375–9. 619:Wolfner, M. F. 609: 574:(6): 1085–95. 557: 506: 454: 404: 403: 401: 398: 382: 379: 348: 345: 319: 316: 307:mesospermalege 295:abdominal wall 286: 283: 279:immunocapacity 246: 243: 234: 231: 213:water striders 207: 204: 164: 161: 113: 110: 96: 93: 24: 14: 13: 10: 9: 6: 4: 3: 2: 1201: 1190: 1187: 1186: 1184: 1170: 1166: 1162: 1158: 1154: 1150: 1146: 1142: 1135: 1132: 1127: 1123: 1119: 1115: 1111: 1107: 1103: 1099: 1095: 1091: 1084: 1081: 1076: 1072: 1067: 1062: 1058: 1054: 1050: 1046: 1042: 1035: 1032: 1027: 1023: 1018: 1013: 1008: 1003: 999: 995: 991: 987: 983: 976: 973: 968: 964: 960: 956: 952: 948: 944: 940: 936: 932: 925: 922: 917: 913: 909: 905: 901: 897: 893: 889: 882: 879: 874: 870: 866: 862: 857: 852: 848: 844: 840: 833: 830: 825: 821: 817: 813: 809: 805: 800: 795: 791: 787: 783: 779: 772: 769: 764: 760: 756: 752: 748: 744: 741:(4): 473–82. 740: 736: 732: 725: 722: 717: 713: 708: 703: 699: 695: 691: 687: 683: 676: 673: 668: 664: 659: 654: 649: 644: 640: 636: 632: 628: 624: 620: 613: 610: 605: 601: 597: 593: 589: 585: 581: 577: 573: 569: 561: 558: 553: 549: 545: 541: 537: 533: 529: 525: 521: 517: 510: 507: 502: 498: 493: 488: 484: 480: 476: 472: 468: 461: 459: 455: 450: 446: 442: 438: 433: 428: 425:(3): 657–81. 424: 420: 416: 409: 406: 399: 397: 395: 391: 389: 380: 378: 376: 371: 366: 362: 358: 354: 346: 344: 342: 338: 334: 329: 325: 322:Selection on 317: 315: 313: 308: 304: 300: 296: 292: 284: 282: 280: 275: 271: 266: 262: 258: 252: 251:Penile spines 244: 242: 240: 232: 230: 228: 227: 222: 218: 214: 205: 203: 201: 197: 193: 192:seminal fluid 189: 185: 181: 177: 173: 169: 162: 160: 158: 157: 151: 147: 143: 139: 135: 134:fertilization 131: 130:sperm storage 127: 123: 119: 111: 109: 106: 102: 94: 92: 90: 86: 82: 81: 75: 73: 69: 65: 61: 57: 53: 49: 45: 41: 37: 33: 29: 19: 1144: 1140: 1134: 1093: 1089: 1083: 1048: 1044: 1034: 989: 985: 975: 934: 930: 924: 891: 887: 881: 846: 842: 832: 781: 777: 771: 738: 734: 730: 724: 689: 685: 675: 630: 626: 612: 571: 567: 560: 519: 515: 509: 474: 470: 422: 418: 408: 386: 384: 360: 350: 321: 288: 261:seed beetles 254: 239:evolutionary 236: 224: 209: 166: 154: 115: 101:reproduction 98: 84: 78: 76: 66:. In males, 54:by means of 27: 26: 731:Stephanitis 122:spermatheca 400:References 361:Drosophila 357:microscale 353:phenotypes 285:Copulation 265:copulation 249:See also: 176:Drosophila 64:morphology 32:sex traits 1161:0003-3472 951:1558-5646 931:Evolution 843:Evolution 794:CiteSeerX 341:protandry 333:fecundity 299:ejaculate 188:proteases 89:phenotype 68:genitalia 40:arms race 1183:Category 1169:53191020 1126:46698905 1118:12424377 1075:20031994 1026:17573531 967:17859519 959:14575326 916:23103457 908:12038533 873:33477158 865:18752616 824:23053089 816:20299550 755:19941380 716:16612885 667:11404480 501:12769466 441:16674564 394:aedeagus 337:eclosion 270:scarring 206:Behavior 138:Tingidae 105:bed bugs 1098:Bibcode 1090:Science 1066:2871940 1017:1904142 994:Bibcode 786:Bibcode 778:Science 763:7316706 707:1569613 635:Bibcode 604:5687035 596:8587107 576:Bibcode 552:4308325 544:8622764 524:Bibcode 492:1691276 215:(genus 168:Enzymes 142:oviduct 60:abdomen 48:fitness 1167:  1159:  1124:  1116:  1073:  1063:  1024:  1014:  965:  957:  949:  914:  906:  871:  863:  822:  814:  796:  761:  753:  714:  704:  665:  655:  602:  594:  550:  542:  516:Nature 499:  489:  449:698028 447:  439:  221:mating 217:Gerris 1165:S2CID 1122:S2CID 963:S2CID 912:S2CID 869:S2CID 820:S2CID 759:S2CID 658:34676 600:S2CID 548:S2CID 445:S2CID 146:sperm 1157:ISSN 1114:PMID 1071:PMID 1022:PMID 955:PMID 947:ISSN 904:PMID 861:PMID 812:PMID 751:PMID 712:PMID 663:PMID 592:PMID 540:PMID 497:PMID 437:PMID 150:eggs 132:and 1149:doi 1106:doi 1094:298 1061:PMC 1053:doi 1049:277 1012:PMC 1002:doi 990:104 939:doi 896:doi 851:doi 804:doi 782:328 743:doi 739:271 702:PMC 694:doi 690:361 653:PMC 643:doi 584:doi 532:doi 520:381 487:PMC 479:doi 475:270 427:doi 1185:: 1163:. 1155:. 1145:84 1143:. 1120:. 1112:. 1104:. 1092:. 1069:. 1059:. 1047:. 1043:. 1020:. 1010:. 1000:. 988:. 984:. 961:. 953:. 945:. 935:57 933:. 910:. 902:. 892:56 890:. 867:. 859:. 847:62 845:. 841:. 818:. 810:. 802:. 792:. 780:. 757:. 749:. 737:. 710:. 700:. 688:. 684:. 661:. 651:. 641:. 631:98 629:. 625:. 598:. 590:. 582:. 572:41 570:. 546:. 538:. 530:. 518:. 495:. 485:. 473:. 469:. 457:^ 443:. 435:. 423:19 421:. 417:. 1171:. 1151:: 1128:. 1108:: 1100:: 1077:. 1055:: 1028:. 1004:: 996:: 969:. 941:: 918:. 898:: 875:. 853:: 826:. 806:: 788:: 765:. 745:: 718:. 696:: 669:. 645:: 637:: 606:. 586:: 578:: 554:. 534:: 526:: 503:. 481:: 451:. 429:: 390:, 20:)

Index

Antagonistic Coevolution
sex traits
reproductive success
arms race
mating behavior
fitness
insects reproduce
traumatic insemination
abdomen
morphology
genitalia
female genitalia
Drosophila melanogaster
phenotype
reproduction
bed bugs
reproductive system
spermatheca
pseudospermatheca
sperm storage
fertilization
Tingidae
oviduct
sperm
eggs
D. melanogaster
Enzymes
reproductive tracts
Drosophila
serine proteases

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