Plant Attractants and Rewards for Pollinators: Their Significant to Successful Crop Pollination

Year 2022, Volume: 5 Issue: 2, 270 - 293, 15.08.2022

Nur Athirah Zariman Nurul Alia Omar A. Nurul Huda

https://doi.org/10.38001/ijlsb.1069254

Cited By: 5

Abstract

Plant and pollination have a mutualistic relationship where both parties offer and gain benefits for each other. The plant-pollinator interactions resulted in successful crop pollination in which the plant received pollination services by animal pollinator to increase food production that eventually increase crop economic value. Overall, ecosystem is highly dependent on pollinator thus there is a need to review potential valuation method of crop production and analyse the current understanding of the value of pollination service towards the ecosystem as well as the traits plant offer and benefits that pollinators gain from the relationship. The attractant and rewards highly depending on each other. Plant often able to attract pollinators through traits like the shape, size and colours of flower, deception, scents as well as location. In the meantime, plant would provide a reward for pollinators that visited the flower which includes food from pollen and nectar that contains high nutritional value, energetic rewards to reduces energy cost of survival, protection and shelter against predator and not to forget breading, oviposition and mating sites inside the flower plant. The ecological relationship of plant and pollinator resulting in effective crop pollination if the attractant and incentives are significantly reliant on one another. With this review and current technological advancements, optimistically more deeper investigations in the interaction of pollinator and flowering plant can be conducted and best pollinator management approaches can be established to secure sustainable crops production

Keywords

pollination, plant-pollinator relationship, attraction, rewards, fruit crop

References

• 1. Hein L., Economic value of the pollination service, a review across scales. The Open Ecology Journal, 2009. 2: 74–82.
• 2. McCallum K.P., McDougall F.O. and Seymour R.S. A review of the energetics of pollination biology. Journal of Comparative Physiology B., 2013. 183: 867–876.
• 3. Carr D.E. et al., Variation in reward quality and pollinator attraction: The consumer does not always get it right. AoB Plants, 201. 7: 1–12.
• 4. Chartier M., Gibernau M. and Renner S.S., The evolution of pollinator-plant interaction types in the araceae. Evolution, 2014. 68: 1533–1543.
• 5. Sapir Y., Shmida A. and Ne’eman G. Morning floral heat as a reward to the pollinators of the Oncocyclus irises. Oecologia, 2006. 147: 53–59.
• 6. Mori S. et al., Biocommunication between Plants and Pollinating Insects through Fluorescence of Pollen and Anthers. Journal of Chemical Ecology, 2018. 44: 591–600.
• 7. Woodcock T.S. et al., Flies and Flowers II: Floral Attractants and Rewards. Journal of Pollination Ecology, 2014. 12: 63–94.
• 8. Glover B.J., Pollinator attraction: The importance of looking good and smelling nice. Current Biology, 2011;. 21: R307–309.
• 9. Galen C. et al., Pollination Mechanisms and Plant-Pollinator Relationships, 2017. 82: 1–20.
• 10. Wester P. and Lunau K., Plant–Pollinator Communication. Advances in Botanical Research, 2017 82: 225-257.
• 11. Schiestl F.P. and Johnson S.D. Pollinator-mediated evolution of floral signals. Trends in Ecology and Evolution, 2013. 28: 307–15.
• 12. Klein A.M. et al., Importance of pollinators in changing landscapes for world crops. Proceedings of the Royal Society B: Biological Sciences, 2007. 274: 303–313.
• 13. Ahmad S, et al., Effects of native pollinator communities on the physiological and chemical parameters of loquat tree (Eriobotrya japonica) under open field condition. Saudi Journal of Biological Science, 2021. 28(6): 3235-3241.
• 14. Smith M.R. et al., Effects of decreases of animal pollinators on human nutrition and global health: A modelling analysis. The Lancet, 2015. 386: 1964–1972.
• 15. Raj H., Various threatening factors to the biodiversity of insect pollinators in Himachal Himalaya , India. International Journal of Sciences & Applied Research, 2017. 4: 22–35.
• 16. Cooley H. and Vallejo-Marín M., Buzz-Pollinated Crops: A Global Review and Meta-analysis of the Effects of Supplemental Bee Pollination in Tomato. Journal of Economic Entomology, 2021. 1–15.
• 17. Williams I.H., Insect Pollination and Crop Production: A European Perspective. Pollinating Bees - Conservation Link Between Agriculture and Nature, 2002. 59–65.
• 18. Abrol D.P., Pollination and Fruit Productivity. Pollination Biology. Vol.1 Pests Pollinators Fruit Crop, 2015, Switzerland: Springer International Publishing: Switzerland. 25–58.
• 19. Adnan N., Mamat M.P. and Tuan Ibrahim T.M., Pollination services support for agriculture productions values. IOP Conference Series: Earth & Environmental Sciences, 2021. 756: 1–5.
• 20. Vanbergen A.J. et al., Status and value of pollinators and pollination services: a report to DEFRA. Department of Environmental Food & Rural Affairs, 2014. 3: 54.
• 21. Omar N.A., Zariman N.A. and Huda A.N., Pollination in the Tropics : Role of Pollinator in Guava Production. Journal of Life Science and Biotechnology, 2021. 4: 623–39.
• 22. Raven P.H. and Wagner D.L., Agricultural intensification and climate change are rapidly decreasing insect biodiversity. Proceedings of National Academy of Science, 2021. 118: 1–6.
• 23. Belavadi V.V. and Ganeshaiah K.N., Effects of Climate Change on Pollinator Populations. Indian Council of Agricultural Research, 2013. 316–21: 44.
• 24. Harwood G.P,. and Dolezal A.G., Pesticide – Virus Interactions in Honey Bees : Challenges and Opportunities for Understanding Drivers of Bee Declines. Viruses, 2020. 12: 2–19.
• 25. Vanbergen A.J., Espíndola A. and Aizen M.A., Risks to pollinators and pollination from invasive alien species. Nature Ecology & Evolution, 2018. 2: 16–25.
• 26. Kluser S. and Peduzzi P., Global Pollinator Decline : A Literature Review. 2007. 4.
• 27. Borges R.C. et al., The Value of Crop Production and Pollination Services in the Eastern Amazon. Neotropical Entomology, 2020. 49: 545–56.
• 28. Abrol D.P. et al., Impact of insect pollinators on yield and fruit quality of strawberry. Saudi Journal of Biological Sciences, 2017. 26: 524–530.
• 29. Winfree R., Gross B.J. and Kremen C., Valuing pollination services to agriculture. Ecological Economics, 2011. 71: 80–88.
• 30. Reilly JR et al., Crop production in the USA is frequently limited by a lack of pollinators. Proceedings of Royal Society B: Biological Sciences, 2020. 287: 2–9.
• 31. Rader R. et al., Non-bee insects are important contributors to global crop pollination. Proceedings of the National Academy of Sciences, 2016. 113: 146–151.
• 32. Breeze TD et al., Economic Measures of Pollination Services: Shortcomings and Future Directions. Trends in Ecology & Evolution, 2016. 31: 927–939.
• 33. Ono E.R., Valentin-silva A. and Guimar E., Spatial and temporal distribution of floral resources used by pollinators in a semi-deciduous seasonal forest. International Journal of Plant Reproductive Biology, 2020. 12: 11–24.
• 34. Ghosh S. et al., Pollination mechanisms and adaptations in flower and ornamental crops- A review. Journal of Pharmacognosy & Phytochemistry, 2017. 6:662–665.
• 35. Primante C., The role of floral traits in structuring plant-pollinator interactions. 2015.
• 36. Alcorn K., Whitney H. and Glover B., Flower movement increases pollinator preference for flowers with better grip. Functional Ecology, 2012. 26: 941–947.
• 37. Balamurali G.S., Krishna S. and Somanathan H., Senses and signals: Evolution of floral signals, pollinator sensory systems and the structure of plant-pollinator interactions. Current Science, 2015. 108: 1852–1861.
• 38. Clarke D. et al., Detection and Learning of Floral Electric Fields by Bumblebees. Science, 2013. 340: 66–69.
• 39. Myczko Ł, et al., Do queens of bumblebee species differ in their choice of flower colour morphs of Corydalis cava (Fumariaceae)?. Apidologie, 2015. 46: 337–345.
• 40. Parra-Tabla V. and Vargas C.F., Flowering synchrony and floral display size affect pollination success in a deceit-pollinated tropical orchid. Acta Oecologica, 2007. 32: 26–35.
• 41. Brunet J., Flick A.J. and Bauer A.A., Phenotypic Selection on Flower Color and Floral Display Size by Three Bee Species. Frontiers in Plant Science, 2021. 11: 1–13.
• 42. Roguz K. et al., Visibility and attractiveness of Fritillaria (Liliaceae) flowers to potential pollinators. Scientific Reports, 2021. 11.
• 43. de Camargo M.G.G. et al., How flower colour signals allure bees and hummingbirds: a community-level test of the bee avoidance hypothesis. New Phytologist, 2019. 222: 1112–1122.
• 44. Faheem M., Aslam M. and Razaq M., Pollination ecology with special reference to insects a review. Journal of Research Science, 2004. 4: 395–409.
• 45. Prasifka J.R et al., Using nectar-related traits to enhance crop-pollinator interactions. Frontiers in Plant Science, 2018. 9: 1–8.
• 46. Miller R., Owens S.J. and Rørslett B., Plants and colour: Flowers and pollination. Optic and Laser Technology, 2011. 43: 282–294.
• 47. Petanidou T. and Lamborn E., A land for flowers and bees: Studying pollination ecology in Mediterranean communities. Plant Biosystems – An International Journal Dealing with All Aspects of Plant Biology, 2005. 139: 279–294.
• 48. Yan J. et al., Pollinator responses to floral colour change, nectar, and scent promote reproductive fitness in Quisqualis indica (Combretaceae). Scientific Reports, 2016. 6: 1–10.
• 49. Sobral M. et al., Selective pressures explain differences in flower color among Gentiana lutea populations. PLoS One, 2015. 10: 1–15.
• 50. Veiga T. et al., Are pollinators and seed predators selective agents on flower color in Gentiana lutea? Evolutionary Ecology, 2015. 29: 451–464.
• 51. Valenta K. et al., Plant attractants: integrating insights from pollination and seed dispersal ecology. Evolutionary Ecology, 2017;. 31: 249–267.
• 52. Kiill L.H.P. et al., Relationship of floral morphology and biology of yellow melon hybrids with the attractiveness of pollinators. Magistra, Cruz Das Almas, 2012. 24: 143–149.
• 53. Ribeiro M.F. et al., Foraging of Honeybees (Apis mellifera) on Flowers of Yellow Melon (Cucumis melo): Duration of Visits. Journal of Agricultural Science, 2017. 9: 7.
• 54. Toledo J.A.M. et al., Accessing the genetic content of Xylocopa frontalis bees (Apidae, Xylocopini) for sustainable management in pollination services of passion fruit. Apidologie, 2017. 48: 795–805.
• 55. Jones K.N. and Reithel J.S., Pollinator-Mediated Selection on a Flower Color Polymorphism in Experimental Populations of Antirrhinum (Scrophulariaceae). American Journal of Botany, 2001. 88: 447–454.
• 56. Lázaro A., Lundgren R and Totland Ø., Pollen limitation, species’ floral traits and pollinator visitation: Different relationships in contrasting communities. Oikos, 201. 124 :174–186.
• 57. Brothers A.N. and Atwell J.W., The role of pollinator-mediated selection in the divergence of floral traits between two closely related plant species. International Journal of Plant Science, 2014. 175: 287–295.
• 58. Sahli H.F. and Conner J.K., Testing for conflicting and nonadditive selection: Floral adaptation to multiple pollinators through male and female fitness. Evolution, 2011. 65: 1457–1473.
• 59. Teixido A.L., Barrio M. and Valladares F., Size Matters: Understanding the Conflict Faced by Large Flowers in Mediterranean Environments. The Botanical Review, 2016. 82: 204–228.
• 60. Albano S. et al., Pollination effectiveness of different strawberry floral visitors in Ribatejo, Portugal: Selection of potential pollinators. Advances in Horticultural Science, 2009. 23: 246–253.
• 61. Raguso R.A., Wake up and smell the roses: The ecology and evolution of floral scent. Annual Review of Ecology, Evolution and Systematics, 2008. 39: 549–569.
• 62. Burkle L.A. and Runyon J.B., Floral volatiles structure plant–pollinator interactions in a diverse community across the growing season. Functional Ecology, 2019. 33: 2116–2129.
• 63. Borges R.M., Bessière J.M. and Ranganathan Y. Diel Variation in Fig Volatiles Across Syconium Development: Making Sense of Scents. Journal of Chemical Ecology, 2013. 39: 630–642.
• 64. Goodwin R.M. and Congdon N.M., Recognition and attractiveness of staminate and pistillate kiwifruit flowers (Actinidia deliciosa var. deliciosa) by honey bees (Apis mellifera L.). New Zealand Journal of Crop and Horticultural Science, 2018. 46: 72–80.
• 65. Miñarro M. and Twizell K.W., Pollination services provided by wild insects to kiwifruit (Actinidia deliciosa). Apidologie, 2015. 46: 276–285.
• 66. Valenta K. et al., Sensory integration during foraging: the importance of fruit hardness, colour, and odour to brown lemurs. Behavioral Ecology & Sociobiology, 2015. 69: 1855–1865.
• 67. Kessler D. et al., The defensive function of a pollinator-attracting floral volatile. Functional Ecology, 201. 33: 1223–1232.
• 68. Nurul Huda A. et al., Pollination Services of Mango Flower Pollinators. Journal of Insect Science, 2015. 15: 113.
• 69. El-Sayed A.M. et al., Scents in orchards: floral volatiles of four stone fruit crops and their attractiveness to pollinators. Chemoecology, 2018. 28: 39–49.
• 70. Rupp T. et al., Flowers of Deceptive Aristolochia microstoma Are Pollinated by Phorid Flies and Emit Volatiles Known From Invertebrate Carrion. Frontier of Ecology and Evolution, 202. 9: 1–11.
• 71. Jersáková J. et al., Does Traunsteinera globosa (the globe orchid) dupe its pollinators through generalized food deception or mimicry?. Botanical Journal of Linnean Society, 2016;. 180: 269–294.
• 72. Urru I., Stensmyr M.C. and Hansson B.S., Pollination by brood-site deception. Phytochemistry, 2011. 72: 1655–1666.
• 73. Lunau K. and Wester P., Mimicry and Deception in Pollination. Advances in Botanical Research, 2017.
• 74. Jersáková J., Johnson S.D. and Kindlmann P., Mechanisms and evolution of deceptive pollination in orchids. Biological Reviews, 2006. 81: 219–235.
• 75. Martel C. et al., Specialization for Tachinid Fly Pollination in the Phenologically Divergent Varieties of the Orchid Neotinea ustulata. Frontiers in Ecology and Evolution, 2021. 9.
• 76. Cozzolino S. and Widmer A., Orchid diversity: An evolutionary consequence of deception?. Trends in Ecology and Evolution, 2005. 20: 487–494.
• 77. Stökl J. et al., A deceptive pollination system targeting drosophilids through olfactory mimicry of yeast. Current Biology, 2010. 20: 1846–1852.
• 78. Bohman B. et al., Pollination by sexual deception - it takes chemistry to work. Current Opinion in Plant Biology, 2016. 32: 37–46.
• 79. Peakall R. et al, Pollinator specificity, floral odour chemistry and the phylogeny of Australian sexually deceptive Chiloglottis orchids: implications for pollinator-driven speciation. New Phytologits, 2010. 188: 437–450.
• 80. Brunton Martin A.L., Gaskett A.C. and O’Hanlon J.C., Museum records indicate male bias in pollinators of sexually deceptive orchids. The Science of Nature, 2021. 108: 25.
• 81. Spaethe J., Streinzer M. and Paulus H.F., Why sexually deceptive orchids have colored flowers. Communicative and Integrative Biology, 2010. 3: 139–141.
• 82. Davis C.C., Endress P.K. and Baum D.A., The evolution of floral gigantism. Current Opinion in Plant Biology, 2008. 11: 49–57.
• 83. Melisa Zini L. et al., Carpellary appendages in Nymphaea and Victoria (Nymphaeaceae): evidence of their role as osmophores based on morphology, anatomy and ultrastructure. Botanical Journal of Linnean Sociert, 2019. 191: 421-439.
• 84. Gottsberger G. and Silberbauer-gottsberger I., Basal angiosperms and beetle pollination. Botânica Na América Latina, 2014. 449–458.
• 85. Makino T.T. and Sakai S., Experience changes pollinator responses to floral display size: From size-based to reward-based foraging. Functional Ecology, 2007. 21: 854–863.
• 86. Liker J.K., Pollination Ecology With Special Reference To Insects- A Review. Journal of Research Science, 2004. 352.
• 87. Fowler R.E., Rotheray E.L. and Goulson D., Floral abundance and resource quality influence pollinator choice. Insect Conservation and Diversity, 2016. 9: 481–494.
• 88. Knauer A.C. and Schiestl F.P., Bees use honest floral signals as indicators of reward when visiting flowers. Ecological Letters, 2015. 18: 135–143.
• 89. Renner S.S., Evolution: How Flowers Switch from Nectar to Oil as a Pollinator Reward. Current Biology, 2021. 31: R18–20.
• 90. Rands S.A. and Whitney H.M., Floral temperature and optimal foraging: Is heat a feasible floral reward for pollinators?. PLoS One, 2008. 3.
• 91. Bailes E.J., Pattrick J.G. and Glover B.J., An analysis of the energetic reward offered by field bean (Vicia faba) flowers: Nectar, pollen, and operative force. Ecology and Evolution, 201. 8: 3161–3171.
• 92. Roldán-Serrano A.S. and Guerra-Sanz J.M., Reward attractions of zucchini flowers (Cucurbita pepo L.) to bumblebees (Bombus terrestris L.). European Journal of Horticultural Science, 2005. 70: 23–28.
• 93. Roulston T.A., What Governs Protein Content of Pollen : Pollinator Preferences , Pollen-Pistil Interactions, or Phylogeny ? Ecological Monograph, 2000. 70(4): 617-643.
• 94. Nicholls E. and Hempel de Ibarra N., Assessment of pollen rewards by foraging bees. Functional Ecology, 2017. 31: 76–87.
• 95. Wacht S., Lunau K. and Hansen K. Chemosensory control of pollen ingestion in the hoverfly Eristalis tenax by labellar taste hairs. Journal of Comparative Physiology - A Sensory, Neural, Behavioral Physiology, 2000. 186: 193–203.
• 96. Hanley M.E. et al., Breeding system, pollinator choice and variation in pollen quality in British herbaceous plants. Functional Ecology, 2008. 22: 592–598.
• 97. Abrol D.P., Foraging Strategies in Honeybees, Apis dorsata F. and Apis florea F. in Relation to Availability of Energy Rewards. Journal of Apiculture, 2016. 31: 9.
• 98. Seymour R.S. and Schultze-Motel P., Physiological temperature regulation by flowers of the sacred lotus. Philosophical Transaction of The Royal Society of London: B Biological Science, 1998. 353: 935–943.
• 99. Herrera C.M., Floral biology, microclimate, and pollination by ectothermic bees in an early-blooming herb. Ecology, 1995. 76: 218–228.
• 100. Seymour R.S., White C.R. and Gibernau M., Environmental biology: heat reward for insect pollinators. Nature, 2003. 426: 243–244.
• 101. Yamasaki E., Inui Y. and Sakai S., Production of food bodies on the reproductive organs of myrmecophytic Macaranga species (Euphorbiaceae): Effects on interactions with herbivores and pollinators. Plant Species and Biology, 201. 29: 232–241.
• 102. Day R.L. et al., Predatory hoverflies increase oviposition in response to colour stimuli offering no reward: Implications for biological control. Basic and Applied Ecology, 2015. 16: 544–552.
• 103. Dötterl S. and Schäffler I., Flower scent of floral oil-producing Lysimachia punctata as attractant for the oil-bee Macropis fulvipes. Journal of Chemical Ecology, 2007. 33: 441–445.
• 104. Mg D., Guleria N. and Khan M.S., Evaluating the association of pollinators’ diversity with scrubland weed flora. Journal of Entomology and Zoology Studies, 2021. 9: 663–669.