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      Roles of flower scent in bee?flower mediations: a review

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      https://www.riss.kr/link?id=A108009335

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      다국어 초록 (Multilingual Abstract)

      Background: Bees and flowering plants associations were initially began during the early Cretaceous, 120 million years ago. This coexistence has led to a mutual relationship where the plant serves as food and in return, the bee help them their reprodu...

      Background: Bees and flowering plants associations were initially began during the early Cretaceous, 120 million years ago. This coexistence has led to a mutual relationship where the plant serves as food and in return, the bee help them their reproduction. Animals pollinate about 75% of food crops worldwide, with bees as the world’s primary pollinator. In general, bees rely on flower scents to locate blooming flowers as visual clue is limited and also their host plants from a distance. In this review, an attempt is made to collect some relevant 107 published papers from three scientific databases, Google Scholar, Scopus, and Web of Science database, covering the period from 1959 to 2021.
      Results: Flowering plants are well documented to actively emit volatile organic compounds (VOCs). However, only a few of them are important for eliciting behavioral responses in bees. In this review, fifty-three volatile organic compounds belonging to different class of compounds, mainly terpenoids, benzenoids, and volatile fatty acid derivatives, is compiled here from floral scents that are responsible for eliciting behavioral responses in bees. Bees generally use honest floral signals to locate their host plants with nectar and pollen-rich flowers. Thus, honest signaling mechanism plays a key role in maintaining mutualistic plant–pollinator associations.
      Conclusions: Considering the fact that floral scents are the primary attractants, understanding and identification of VOCs from floral scent in plant-pollinator networks are crucial to improve crop pollination. Interestingly, current advances in both VOCs scent gene identification and their biosynthetic pathways make it possible to manipulate particular VOCs in plant, and this eventually may lead to increase in crop productivity.

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      참고문헌 (Reference)

      1 Farré-Armengol G, "β-ocimene, a key floral and foliar volatile involved in multiple interactions between plants and other organisms" 22 (22): 1148-, 2017

      2 Newsholme C, "Willows : the genus Salix" Timber Press 1992

      3 Pichersky E, "Why do plants produce so many terpenoid compounds?" 220 (220): 692-702, 2018

      4 Raguso RA, "Wake up and smell the roses : the ecology and evolution of floral scent" 39 : 549-569, 2008

      5 Abbas F, "Volatile terpenoids : multiple functions, biosynthesis, modulation and manipulation by genetic engineering" 246 (246): 803-816, 2017

      6 Tatsuka K, "Volatile constituents of kiwi fruit flowers : simultaneous distillation and extraction versus headspace sampling" 38 (38): 2176-2180, 1990

      7 Rodriguez-Saona C, "Variation in highbush blueberry floral volatile profiles as a function of pollination status, cultivar, time of day and flower part : implications for flower visitation by bees" 107 (107): 1377-1390, 2011

      8 Kobayashi K, "Variation in floral scent compounds recognized by honeybees in Brassicaceae crop species" 62 (62): 293-302, 2012

      9 Meagher RL Jr, "Trapping noctuid moths with synthetic floral volatile lures" 103 (103): 219-226, 2002

      10 Giuliani C, "Tools to tie : flower characteristics, VOC emission profile, and glandular trichomes of two Mexican Salvia species to attract bees" 9 (9): 1645-, 2020

      1 Farré-Armengol G, "β-ocimene, a key floral and foliar volatile involved in multiple interactions between plants and other organisms" 22 (22): 1148-, 2017

      2 Newsholme C, "Willows : the genus Salix" Timber Press 1992

      3 Pichersky E, "Why do plants produce so many terpenoid compounds?" 220 (220): 692-702, 2018

      4 Raguso RA, "Wake up and smell the roses : the ecology and evolution of floral scent" 39 : 549-569, 2008

      5 Abbas F, "Volatile terpenoids : multiple functions, biosynthesis, modulation and manipulation by genetic engineering" 246 (246): 803-816, 2017

      6 Tatsuka K, "Volatile constituents of kiwi fruit flowers : simultaneous distillation and extraction versus headspace sampling" 38 (38): 2176-2180, 1990

      7 Rodriguez-Saona C, "Variation in highbush blueberry floral volatile profiles as a function of pollination status, cultivar, time of day and flower part : implications for flower visitation by bees" 107 (107): 1377-1390, 2011

      8 Kobayashi K, "Variation in floral scent compounds recognized by honeybees in Brassicaceae crop species" 62 (62): 293-302, 2012

      9 Meagher RL Jr, "Trapping noctuid moths with synthetic floral volatile lures" 103 (103): 219-226, 2002

      10 Giuliani C, "Tools to tie : flower characteristics, VOC emission profile, and glandular trichomes of two Mexican Salvia species to attract bees" 9 (9): 1645-, 2020

      11 Majetic CJ, "The sweet smell of success : floral scent affects pollinator attraction and seed fitness in Hesperis matronalis" 23 (23): 480-487, 2009

      12 Fraenkel GS, "The raison d’ĕtre of secondary plant substances; these odd chemicals arose as a means of protecting plants from insects and now guide insects to food" 129 (129): 1466-1470, 1959

      13 Liao P, "The potential of the mevalonate pathway for enhanced isoprenoid production" 34 (34): 697-713, 2016

      14 Proctor M, "The natural history of pollination" Harper Collins Publishers 479-, 1996

      15 Huang M, "The major volatile organic compound emitted from Arabidopsis thaliana flowers, the sesquiterpene(E)-β-caryophyllene, is a defense against a bacterial pathogen" 193 (193): 997-1008, 2012

      16 Feussner I, "The lipoxygenase pathway" 53 (53): 275-297, 2002

      17 Wright GA, "The evolution of floral scent : the influence of olfactory learning by insect pollinators on the honest signalling of floral rewards" 23 (23): 841-851, 2009

      18 Dobson HE, "The ecology and evolution of pollen odors" 222 (222): 63-87, 2000

      19 Rohmer M, "The discovery of a mevalonate-independent pathway for isoprenoid biosynthesis in bacteria, algae and higher plants" 16 (16): 565-574, 1999

      20 Kunze J, "The combined effect of color and odor on flower choice behavior of bumble bees in flower mimicry systems" 12 (12): 447-456, 2001

      21 Robertson HM, "The chemoreceptor superfamily in the honey bee, Apis mellifera : expansion of the odorant, but not gustatory, receptor family" 16 (16): 1395-1403, 2006

      22 Milet-Pinheiro P, "The chemical basis of host-plant recognition in a specialized bee pollinator" 39 : 1347-1360, 2013

      23 Cseke LJ, "The biology of essential oils in the pollination of flowers" 2 (2): 1317-1336, 2007

      24 Michener CD, "The bees of the world" Johns Hopkins University Press 2007

      25 Michener CD, "The bees of the world" Johns Hopkins University Press 2000

      26 Potts SG, "The assessment report of the Intergovernmental Science-Policy Platform On Biodiversity And Ecosystem Services (IPBES)on pollinators, pollination and food production" Intergovernmental Science-Policy Platform on Biodiversity and Ecosystem Services 3-25, 2016

      27 Williams IH, "The Nasonov pheromone of the honeybee Apis mellifera L. (Hymenoptera, Apidae). Part II. Bioassay of the components using foragers" 7 (7): 225-237, 1981

      28 Karunanithi PS, "Terpene synthases as metabolic gatekeepers in the evolution of plant terpenoid chemical diversity" 10 : 1166-, 2019

      29 Tsirakoglou V, "Techniques to increase the attractiveness of kiwi flowers to honey bees" 444 : 439-452, 1997

      30 Raguso RA, "Synergy between visual and olfactory cues in nectar feeding by naıve hawkmoths, Manduca sexta" 64 (64): 685-695, 2002

      31 Bergström G, "Spatial fragrance patterns within the flowers of Ranunculus acris(Ranunculaceae)" 195 (195): 221-242, 1995

      32 Dötterl S, "Spatial fragrance patterns in flowers of Silene latifolia : lilac compounds as olfactory nectar guides?" 255 (255): 99-109, 2005

      33 Wu S, "Redirection of cytosolic or plastidic isoprenoid precursors elevates terpene production in plants" 24 (24): 1441-1447, 2006

      34 Schiestl FP, "Post-pollination emission of a repellent compound in a sexually deceptive orchid : a new mechanism for maximising reproductive success?" 126 (126): 531-534, 2001

      35 Paulus HF, "Pollinators as prepollinating isolation factors : evolution and speciation in Ophrys(Orcffldaceae)" 39 (39): 43-79, 1990

      36 Schiestl FP, "Pollinator-mediated evolution of floral signals" 28 (28): 307-315, 2013

      37 Andrews ES, "Pollinator and herbivore attraction to cucurbita floral volatiles" 33 (33): 1682-1691, 2007

      38 Galen C, "Pollination on the dark side : acoustic monitoring reveals impacts of a total solar eclipse on flight behavior and activity schedule of foraging bees" 112 (112): 20-26, 2019

      39 Cordeiro GD, "Pollination of Campomanesia phaea(Myrtaceae)by night-active bees : a new nocturnal pollination system mediated by floral scent" 19 (19): 132-139, 2017

      40 Dobson HE, "Pollen odor chemicals as modulators of bumble bee foraging on Rosa rugosa Thunb. (Rosaceae)" 14 (14): 153-166, 1999

      41 Minckley RL, "Plant-pollinator interactions: from specialization to generalization" University of Chicago Press 69-98, 2006

      42 Cane JH, "Plant-pollinator interactions: from specialization to generalization" University of Chicago Press 99-122, 2006

      43 Parachnowitsch AL, "Phenotypic selection to increase floral scent emission, but not flower size or colour in bee-pollinated Penstemon digitalis" 195 (195): 667-675, 2012

      44 Howell AD, "Osmia bees(Hymenoptera : Megachilidae)can detect nectar-rewarding flowers using olfactory cues" 74 (74): 199-205, 2007

      45 Williams NH, "Orchid floral fragrances and male euglossine bees : methods and advances in the last sesquidecade" 164 (164): 355-395, 1983

      46 Knoll F, "Orchid bee baits attracting bees of the genus Megalopta(Hymenoptera, Halictidae)in Bauru region, São Paulo, Brazil : abundance, seasonality, and the importance of odors for dim-light bees" 56 (56): 481-488, 2012

      47 Cheng Y, "Odour composition variation at different stages of Ficus hispida inflorescence and the attraction to pollinators" 27 (27): 299-308, 2019

      48 Borg-Karlson AK, "Odor mimetism? : Key substances in Ophrys lutea-Andrena pollination relationship(Orchidaceae : Andrenidae)" 12 (12): 1927-1941, 1986

      49 Hopkins M, "Nocturnal pollination of Parkia velutina by Megalopta bees in Amazonia and its possible significance in the evolution of chiropterophily" 16 (16): 733-746, 2000

      50 Krug C, "Nocturnal bee pollinators are attracted to guarana flowers by their scents" 9 : 1072-, 2018

      51 Kullenberg B, "New observations on the pollination of Ophrys L" (Suppl 1) : 9-13, 1973

      52 Tzin V, "New insights into the shikimate and aromatic amino acids biosynthesis pathways in plants" 3 (3): 956-972, 2010

      53 Belcher MS, "New frontiers : harnessing pivotal advances in microbial engineering for the biosynthesis of plant-derived terpenoids" 65 : 88-93, 2020

      54 Holopainen JK, "Natural products" Springer 2913-2940, 2013

      55 Bascompte J, "Mutualism and biodiversity" 29 (29): R467-70, 2019

      56 Pazouki L, "Multi-substrate terpene synthases : their occurrence and physiological significance" 7 : 1019-, 2016

      57 Peled-Zehavi H, "Metabolic engineering of the phenylpropanoid and its primary, precursor pathway to enhance the flavor of fruits and the aroma of flowers" 2 (2): 204-212, 2015

      58 Lange BM, "Metabolic engineering of plant monoterpenes, sesquiterpenes and diterpenes--current status and future opportunities" 11 (11): 169-196, 2013

      59 Kelber A, "Light intensity limits foraging activity in nocturnal and crepuscular bees" 17 (17): 63-72, 2006

      60 Arenas A, "Learned olfactory cues affect pollen-foraging preferences in honeybees, Apis mellifera" 83 (83): 1023-1033, 2012

      61 Twidle AM, "Kiwifruit flower odor perception and recognition by honey bees, Apis mellifera" 63 (63): 5597-5602, 2015

      62 Pinzauti M, "Kiwi pollination : several ways of increasing the activity of honeybees" 282 : 149-150, 1990

      63 Lunau K, "Innate colour preferences of flower visitors" 177 (177): 1-19, 1995

      64 Martín ML, "In vitro activity of protoanemonin, an antifungal agent" 56 (56): 66-69, 1990

      65 Klein AM, "Importance of pollinators in changing landscapes for world crops" 274 (274): 303-313, 2007

      66 Theis N, "Fragrance of Canada thistle(Cirsium arvense)attracts both floral herbivores and pollinators" 32 (32): 917-927, 2006

      67 Raguso RA, "Fragrance chemistry, nocturnal rhythms and pollination"syndromes"in Nicotiana" 63 (63): 265-284, 2003

      68 Klatt BK, "Flower volatiles, crop varieties and bee responses" 8 (8): e72724-, 2013

      69 Dötterl S, "Flower scent of floral oil-producing Lysimachia punctata as attractant for the oil-bee Macropis fulvipes" 33 (33): 441-445, 2007

      70 Knudsen JT, "Flower scent and pollination in selected neotropical palms" 3 (3): 642-653, 2001

      71 Muhlemann JK, "Floral volatiles : from biosynthesis to function" 37 (37): 1936-1949, 2014

      72 Tollsten L, "Floral scent in dioecious Salix(Salicaceae)-a cue determining the pollination system?" 182 (182): 229-237, 1992

      73 Ramya M, "Floral scent : regulation and role of MYB transcription factors" 19 : 114-120, 2017

      74 Dötterl S, "Floral reward, advertisement and attractiveness to honey bees in dioecious Salix caprea" 9 (9): e93421-, 2014

      75 Junker RR, "Floral odor bouquet loses its ant repellent properties after inhibition of terpene biosynthesis" 37 (37): 1323-1331, 2011

      76 Whitney HM, "Floral iridescence, produced by diffractive optics, acts as a cue for animal pollinators" 323 (323): 130-133, 2009

      77 Williams N., "Floral fragrances as cues in animal behavior"

      78 Ayasse M, "Evolution of reproductive strategies in the sexually deceptive orchid Ophrys sphegodes : how does flower-specific variation of odor signals influence reproductive success?" 54 (54): 1995-2006, 2000

      79 Hetherington-Rauth MC, "Evolution and diversity of floral scent chemistry in the euglossine bee-pollinated orchid genus Gongora" 118 (118): 135-148, 2016

      80 Galen C, "Dosage-dependent impacts of a floral volatile compound on pollinators, larcenists, and the potential for floral evolution in the alpine skypilot Polemonium viscosum" 177 (177): 258-272, 2011

      81 Endress PK, "Diversity and evolutionary biology of tropical flowers" Cambridge University Press 1996

      82 Knudsen JT, "Diversity and distribution of floral scent" 72 (72): 1-120, 2006

      83 Bolstad GH, "Direct selection at the blossom level on floral reward by pollinators in a natural population of Dalechampia schottii : full-disclosure honesty?" 188 (188): 370-384, 2010

      84 Schäffler I, "Diacetin, a reliable cue and private communication channel in a specialized pollination system" 5 : 12779-, 2015

      85 Clarke D, "Detection and learning of floral electric fields by bumblebees" 340 (340): 66-69, 2013

      86 Christianson DW, "Correction to structural and chemical biology of terpenoid cyclases" 118 (118): 11795-, 2018

      87 Henning JA, "Cornbined gas chromatography-electroantennogram characterization of alfalfa floral volatiles recognized by honey bees(Hymenoptera : Apidae)" 85 (85): 226-232, 1992

      88 Gerlach G, "Composition of orchid scents attracting euglossine bees" 104 (104): 379-384, 1991

      89 Chittka L, "Complex worlds from simpler nervous systems" MIT Press 165-191, 2004

      90 Hansen DM, "Coloured nectar : distribution, ecology, and evolution of an enigmatic floral trait" 82 (82): 83-111, 2007

      91 Borg-Karlson AK, "Chemical and ethological studies of pollination in the genus Ophrys(orchidaceae)" 29 (29): 1359-1387, 1990

      92 Robertson G, "Changes in the chemical composition of volatiles released by the flowers and fruits of the red raspberry(Rubus idaeus)cultivar glen prosen" 38 (38): 1175-1179, 1995

      93 Laloi D, "Bumble bees show asymmetrical discrimination between two odors in a classical conditioning procedure" 17 (17): 385-396, 2004

      94 Dobson HE, "Biology of floral scent" CRC Press 147-198, 2006

      95 Wcislo WT, "Behavioural environments and niche construction : the evolution of dim-light foraging in bees" 84 (84): 19-37, 2009

      96 Knauer AC, "Bees use honest floral signals as indicators of reward when visiting flowers" 18 (18): 135-143, 2015

      97 Muth F, "Bees remember flowers for more than one reason : pollen mediates associative learning" 111 : 93-100, 2016

      98 Allsopp PG, "Attraction of Apis mellifera L. (Hymenoptera:Apidae) to volatile compounds" 30 (30): 219-220, 1991

      99 Paldi N, "Associative olfactory learning of honeybees to differential rewards in multiple contexts--effect of odor component and mixture similarity" 29 (29): 2515-2538, 2003

      100 Hammer KA, "Antifungal activity of the components of Melaleuca alternifolia(tea tree)oil" 95 (95): 853-860, 2003

      101 Mena Granero A, "Analysis of biogenic volatile organic compounds in zucchini flowers : identification of scent sources" 31 (31): 2309-2322, 2005

      102 Carvalho AT, "An aromatic volatile attracts oligolectic bee pollinators in an interdependent bee-plant relationship" 40 (40): 1126-1134, 2014

      103 Yoo H, "An alternative pathway contributes to phenylalanine biosynthesis in plants via a cytosolic tyrosine : phenylpyruvate aminotransferase" 4 : 2833-, 2013

      104 Wright GA, "Ability of honeybee, Apis mellifera, to detect and discriminate odors of varieties of canola(Brassica rapa and Brassica napus)and snapdragon flowers(Antirrhinum majus)" 28 (28): 721-740, 2002

      105 Engel MS, "A new interpretation of the oldest fossil bee(Hymenoptera, Apidae)" 3296 : 1-11, 2000

      106 Poinar GO Jr, "A fossil bee from Early Cretaceous Burmese amber" 314 (314): 614-, 2006

      107 Dötterl S, "1, 4-Dimethoxybenzene, a floral scent compound in willows that attracts an oligolectic bee" 31 (31): 2993-2998, 2005

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      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
      2020-01-01 평가 등재학술지 유지 (해외등재 학술지 평가) KCI등재
      2013-11-01 평가 SCOPUS 등재 (등재유지) KCI등재
      2013-04-10 학술지명변경 한글명 : 한국생태학회지 -> Journal of Ecology and Environment
      외국어명 : Journal of Ecology and Field Biology -> Journal of Ecology and Environment
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      2011-01-01 평가 등재학술지 유지 (등재유지) KCI등재
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      2006-03-01 학술지명변경 외국어명 : The Korean Journal of Ecology -> Journal of Ecology and Field Biology KCI등재
      2004-01-01 평가 등재학술지 선정 (등재후보2차) KCI등재
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