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Oecologia

, Volume 77, Issue 1, pp 56–63 | Cite as

Thermal effects on activity patterns and behavioural switching in a concourse of foragers on Stachytarpheta mutabilis (Verbenaceae) in Papua New Guinea

  • G. N. Stone
  • J. N. Amos
  • T. F. Stone
  • R. L. Knight
  • H. Gay
  • F. Parrott
Original Papers

Summary

1. The foraging activities of the papilionid butterflies Ornithoptera priamus poseidon and Papilio ulysses, and the solitary bee Amegilla sapiens (Apoidea, Anthophoridae) on the shrub Stachytarpheta mutabilis were studied in highland Papua New Guinea. 2. The insects' activity patterns were analysed at three sites with differing diurnal microclimate variation. O. priamus and A. sapiens foraged in the morning (after a period of basking and wing-whirring) and late afternoon when temperatures were well below daily maxima, whereas P. ulysses showed foraging peaks during the hottest part of the day. 3. Site choice by all 3 species appeared to be determined primarily by temperature, but within the limits imposed by temperature, nectar supplies probably determined which site was visited. 4. P. ulysses showed interspersed foraging and courtship behaviour, and no behavioural switching was observed for this species. At high temperatures, both O. priamus and A. sapiens ceased foraging and showed territorial and courtship behaviour. This behavioural change allowed avoidance of heat stress, and occurred even when nectar supplies were maintained at high levels. 5. Thermal effects on behavioural switching in these insects are compared with related phenomena in other bees and butterflies.

Key words

Ornithoptera Amegilla Territoriality Foraging Thermoregulation 

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References

  1. Alcock J, Barrows EM, Gordh G, Hubbard LJ, Kirkendall L, Pyle DW, Ponder TL, Zalom FG (1978) The ecology and evolution of male reproductive behaviour in the bees and wasps. Zoological Journal of the Linnean Society 64: 293–326Google Scholar
  2. Alcock J, Eickwort GC, Eickwort KR (1977) The reproductive behaviour of Anthidium maculosum (Megachilidae) and the evolutionary significance of multiple copulations by females. Behav Ecol Sociobiol 2: 385–396Google Scholar
  3. Bakken GS (1976) A heat transfer analysis of animals: Unifying concepts and the application of metabolism chamber data to field ecology. J Theoret Biol 60: 337–384Google Scholar
  4. Balduf WV (1962) Life of the carpenter bee Xylocopa virginica (Anthophoridae). Linn Ann Ent Soc Am 55: 263–271Google Scholar
  5. Barrows EM (1983) Male territoriality in the carpenter bee Xylocopa virginica virginica (Anthophoridae). Anim Behav 31: 806–813Google Scholar
  6. Bohart GE (1958) Alfalfa pollinators with special reference to species other than honey bees. Proc 10th Int Congr Ent (1956) 4: 929–937Google Scholar
  7. Butler CG (1945) The influence of various physical and biological factors of the environment on honeybee activity: An examination of the relationship between activity and nectar concentration and abundance. J Exp Biol 21: 5–12Google Scholar
  8. Casey TM (1981) In: Heinrich B (ed). Insect Thermoregulation, John Wiley & Sons, New York, USAGoogle Scholar
  9. Chappell M (1982) Temperature regulation of carpenter bees (Xylocopa californica) foraging in the Colorado Desert of southern California. Physiol Zool 55: 267–280Google Scholar
  10. Chappell M (1984) Temperature regulation and energetics of the solitary bee Centris pallida during foraging and inter-male mate competition. Physiol Zool 57: 215–225Google Scholar
  11. Cooper PD, Schaffer WM, Buchmann SL (1985) Temperature regulation of honeybees (Apis mellifera) foraging in the Sonoran Desert. J Exp Biol 114: 1–15Google Scholar
  12. Corbet SA, Willmer PG, Beament JWL, Unwin DM, Prys Jones OE (1979) Post secretory determinants of sugar concentration in nectar. Plant Cell Environm 2: 293–300Google Scholar
  13. Corbet SA, Willmer PG (1981) The nectar of Justicia and Columnea: Composition and concentration in a humid tropical climate. Oecologia 51: 412–418Google Scholar
  14. Coville RE, Frankie GW, Buchmann SL, Vinson SB, Williams HJ (1986) Nesting and male behaviour of Centris dirrhoda (Hymenoptera, Anthophoridae) in Costa Rica with chemical analysis of the hindleg glands of males. J Kans Ent Soc 59: 325–336Google Scholar
  15. Digby PSB (1955) Factors affecting the temperature excess of insects in sunshine. J Exp Biol 32: 279–298Google Scholar
  16. Elton CS (1966) The pattern of animal communities. Methuen. LondonGoogle Scholar
  17. Gerling D, Hurd PD, Hefetz A (1983) Comparative behavioural biology of two Middle Eastern species of carpenter bee. Smithson Contr Zool 369: 1–33Google Scholar
  18. Haugum J, Low AM (1979) A monograph of the Birdwing butterflies. Scandinavian Scientific Press. Klampenborg, DenmarkGoogle Scholar
  19. Heinrich B (1972) Thoracic temperatures of butterflies in the field near the equator. Comp Biochem Physiol 43A: 747–756Google Scholar
  20. Heinrich B (1975b) The energetics of pollination. Ann Rev Ent Syst 6: 139–170Google Scholar
  21. Heinrich B (1986) Comparative thermoregulation of four montane butterflies of different mass. Physiol Zool 59 (6): 616–626Google Scholar
  22. Heinrich B, Buchmann SL (1986) Thermoregulatory physiology of the carpenter bee Xylocopa varipunctata. J Comp Physiol B 156: 557–562Google Scholar
  23. Hurd PD, Linsley EG (1975) The principal Larraea bees of the southwestern United States. Smithson Contr Zool 193Google Scholar
  24. Janzen DH (1966) Notes on the behaviour of the carpenter bee Xylocopa fimbriata in Mexico. J Kans Ent Soc 39: 633–641Google Scholar
  25. Kingsolver JG (1983) Thermoregulation and flight in Colias butterflies: elevational patterns and mechanistic limitations. Ecology 64: 534–545Google Scholar
  26. Kammer AE (1981) In: Heinrich B (ed) Insect Thermoregulation. John Wiley & Sons, New YorkGoogle Scholar
  27. Lieftinck MA (1955) The carpenter bees of the Lesser Sunda islands and Tanimbar. Verh Naturf Ges Basel 66: 5–32Google Scholar
  28. Linsley EG (1970) Some competitive relationships among matinal and late afternoon foraging activities of caupolocanine bees in southeastern Arizona. J Kans Ent Soc 43: 251–261Google Scholar
  29. Louw GN, Nicolson SW (1983) Thermal, energetic and nutritional considerations in the foraging and reproduction of the carpenter bee Xylocopa capitata (Anthophoridae). J Ent Soc S Africa 46: 227–240Google Scholar
  30. MacSwain JW, Raven PH, Thorp RW (1973) Comparative behaviour of bees and Onagraceae 4. Clarkia bees of the western United States. Univ Calif Publ Ent 70: 1–80Google Scholar
  31. Özbek H (1976) Pollinator bees on alfalfa in the Erzurum region of Turkey. J Apic Res 15: 145–148Google Scholar
  32. Raw A (1975) Territoriality and scent marking by Centris males in Jamaica (Hymenoptera; Anthophoridae). Behaviour 54: 311–321Google Scholar
  33. Rawlins JE (1980) Thermoregulation by the Black Swallowtail Papilio polyxenes (Lepidoptera: Papilionidae). Ecology 61 (2): 345–357Google Scholar
  34. Schaffer WM, Jensen DB, Hobbs DE, Gurevitch J, Todd JR, Schaffer MV (1979) Competition, foraging energetics and the cost of sociality in three species of bees. Ecology 60: 976–987Google Scholar
  35. Schlising RA (1970) Sequence and timing of bee foraging in the flowers of Ipomoea and Aniseia (Convolvulaceae). Ecology 51: 1061–1067Google Scholar
  36. Sokal RR, Rohlf FJ (1969) Biometry: The principles and practice of statistics in biological research. W.H. Freeman & Co., San FranciscoGoogle Scholar
  37. Straatman R, Schmid F (1975) Notes on the biology of Ornithoptera goliath and O. chimaera. J Lep Soc 29:85–88Google Scholar
  38. Szabo TI, Smith MV (1972) The influence of light intensity and temperature on activity of the alfalfa leaf cutter bee Megachile rotundata under field conditions. J Apic Res 11:157–165Google Scholar
  39. Velthuis HHW, De Camargo JM (1975a) Observations on male territories in a carpenter bee Xylocopa (Neoxylocopa) hirsutissima (Hymenoptera, Anthophoridae). Z Tierpsychol 38:409–418Google Scholar
  40. Wainwright CM (1978) Hymenoptera territoriality and its influences on the pollination ecology of Lupinus arizonicus. Southwestern Nat 23:605–616Google Scholar
  41. Williams HJ, Vinson SB, Frankie GW (1984) Morphology, chemical contents and possible function of the tibial glands of males of the Costa Rican solitary bee Centris trigonoides subtarsa (Anthophoridae). J Kans Ent Soc 57:50–54Google Scholar
  42. Willmer PG, Corbet SA (1981) Temporal and microclimatic partitioning of the floral resources of Justicia aurea amongst a concourse of pollen vectors and nectar robbers. Oecologia 51:67–78Google Scholar
  43. Willmer PG (1982) Hygrothermal determinants of insect activity patterns: the Diptera of water-lily leaves. Ecol Ent 7:221–231Google Scholar
  44. Willmer PG (1983) Thermal constraints on activity patterns in nectar-feeding insects. Ecol Ent 8:455–469Google Scholar
  45. Willmer PG (1985a) Size effects on the hygrothermal balance and foraging patterns of a sphecid wasp, Cerceris arenaria. Ecol Ent 10:469–479Google Scholar
  46. Willmer PG (1985b) Thermal ecology, size effects and the origins of communal behaviour in Cerceris wasps. Behav Ecol Sociobiol 17:151–160Google Scholar
  47. Willmer PG (1986) Foraging patterns and water balance: Problems of optimization for a xerophilic bee Chalicodoma sicula. J Anim Ecol 55:941–962Google Scholar
  48. Willmer PG, Unwin D (1981) Field analysis of insect heat budgets: Reflectance, size and heating rates. Oecologia 50:250–255Google Scholar

Copyright information

© Springer-Verlag 1988

Authors and Affiliations

  • G. N. Stone
    • 1
  • J. N. Amos
    • 1
  • T. F. Stone
    • 1
  • R. L. Knight
    • 1
  • H. Gay
    • 1
  • F. Parrott
    • 1
  1. 1.Department of ZoologyOxford UniversityOxfordUK

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