Abstract
The “structural parasite” strategy is explored for lianas (woody vines). Since lianas grow upon host plants which provide mechanical support, fewer mechanical support cells are required in the stems and roots. Lianas have long and narrow stems with low Huber values (xylem area per distal leaf area) and long and wide vessels with great conductive efficiency. However, when scaled to the length of the stems, liana vessels are “only average” in mean diameter. Lianas have greater hydraulic diameters than in similar length free-standing stems due to greater variance in vessel diameter. Liana stems tend to be more vulnerable to dysfunction by water stress or freeze/thaw than in free-standing plants, but the stems of lianas often have many narrow vessels and/or tracheids surrounding the wide vessels, providing alternate transport pathways in the event of xylem dysfunction. The leaf-specific conductivity values of lianas are not exceptional; pressure gradients may be similar to those of free-standing plants, which could pose hydraulic limitations since liana stems are often greater than 100 m in length. Root pressures are quite common in lianas, and many lianas are deep rooted. Lianas are effective at sprouting from the base and at rooting from fallen stems that contact the soil and, in many species of lianas, variant secondary growth facilitates repair of mechanically damaged stems. Linked to the structural parasite strategy, lianas are most abundant in seasonally dry tropical forests where there is low risk of freeze/thaw events and where deep roots may be advantageous.
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Aloni R, Zimmermann MH (1983) The control of vessel size and density along the plant axis: a new hypothesis. Differentiation 24:203–208
Aloni R (1987) Differentiation of vascular tissues. Ann Rev Plant Physiol 38:179–204
Andrade JL, Meinzer FC, Goldstein G, Schnitzer SA (2005) Water uptake and transport in lianas and co-occurring trees of a seasonally dry tropical forest. Trees 19(3):282–289
Anfodillo T, Carraro V, Carrer M, Fior C, Rossi S (2006) Convergent tapering of xylem conduits in different woody species. New Phytol 169:279–290
Anfodillo T, Deslauriers A, Menardi R, Tedoldi L, Petit G, Rossi S (2012) Widening of xylem conduits in a conifer tree depends on the longer time of cell expansion downwards along the stem. J Exp Bot 63:837–845
Anfodillo T, Petit G, Crivellaro A (2013) Axial conduit widening in woody species: a still neglected anatomical pattern. IAWA J 34(4):352–364
Angyalossy V, Angeles G, Pace MR, Lima AC, Dias-Leme CL, Lohmann LG, Madero-Vega C (2012) An overview of the anatomy, development and evolution of the vascular system of lianas. Plant Ecol Diversity 5:167–182
Baas P, Ewers FW, Davis SD, Wheeler EA (2004) Evolution of xylem physiology. In: Hemsley AR, Poole I (eds) The evolution of plant physiology: from whole plants to ecosystems. Elsevier, London, pp 273–295
Becker P, Gribben RJ (2001) Estimation of conduit taper for the hydraulic resistance model of West et al. Tree Physiol 21:697–700
Brenan JPN (1967) Flora of Tropical East Africa. Part 2, Caesalpinioideae. Crown Agents for Oversea Governments and Administrations, London, p 215
Breshears DD, McDowell NG, Goddard KL, Dayem KE, Martens SN, Meyer CW, Brown KM (2008) Foliar absorption of intercepted rainfall improves woody plant water status most during drought. Ecology 89(1):41–47
Burgess SSO, Dawson TE (2004) The contribution of fog to the water relations of Sequoia sempervirens (D. Don): foliar uptake and prevention of dehydration. Plant Cell Environ 27(8):1023–1034
Burkill IH (1966) A dictionary of the economic products of the Malay Peninsula. Ministry of Agriculture and Cooperative, Kuala Lumpur
Caballe G (1994) Ramet proliferation by longitudinal splitting in the Gabonese rain forest liana Dalhousiea africana S. Moore (Papilionaceae). Biotropica 26:266–275
Cai ZQ, Schnitzer SA, Bongers F (2009) Seasonal differences in leaf-level physiology give lianas a competitive advantage over trees in a tropical seasonal forest. Oecologia 161(1):25–33
Campanello PI, Garibaldi JF, Gatti MG, Goldstein G (2007) Lianas in a subtropical Atlantic Forest: host preference and tree growth. Forest Ecol Manage 242(2):250–259
Carlquist SJ (1975) Ecological strategies of xylem evolution. University of California, Berkeley
Carlquist S (1985a) Observations on functional wood histology of vines and lianas: vessel dimorphism, tracheids, vasicentric tracheids, narrow vessels, and parenchyma. Aliso 11:139–157
Carlquist S (1985b) Vasicentric tracheids as a drought survival mechanism in the woody flora of southern California and similar regions: review of vasicentric tracheids. Aliso 11:37–68
Carlquist S (1991) Anatomy of vine and liana stems: a review and synthesis. In: Putz FE, Mooney HA (eds) The biology of vines. Cambridge University Press, Cambridge, pp 53–71
Carlquist S (2007) Successive cambia revisited: ontogeny, histology, diversity, and functional significance. J Torrey Botanical Soc 134(2):301–332
Castorena M, Rosell JA, Olson ME (unpublished data) An empirical morphospace for woody plant habit diversity. Ann Bot
Chen YJ, Cao KF, Schnitzer SA, Fan ZX, Zhang JL, Bongers F (2015) Water‐use advantage for lianas over trees in tropical seasonal forests. New Phytol 205:128–136
Chiu ST, Ewers FW (1992) Xylem structure and water transport in a twiner, a scrambler, and a shrub of Lonicera (Caprifoliaceae). Trees 6(4):216–224
Cochard H, Ewers FW, Tyree MT (1994) Water relations of a tropical vine-like bamboo (Rhipidocladum racemiflorum): root pressures, vulnerability to cavitation and seasonal changes in embolism. J Exp Bot 45(8):1085–1089
Comstock JP, Sperry JS (2000) Theoretical considerations of optimal conduit length for water transport in vascular plants. New Phytol 148:195–218
Coomes DA, Jenkins KL, Cole LES (2007) Scaling of tree vascular transport systems along gradients of nutrient supply and altitude. Biol Lett 3:87–90
Cowan IR (1965) Transport of water in the soil-plant-atmosphere system. J Appl Ecol 2:221–239
Crivellaro A, McCulloh K, Jones FA, Lachenbruch B (2012) Anatomy and mechanical and hydraulic needs of woody climbers contrasted with subshrubs on the island of Cyrpus. IAWA J 33:355–373
Dobbins DR, Fisher JB (1986) Wound responses in girdled stems of lianas. Bot Gaz 147:278–289
Enquist BJ (2003) Cope’s Rule and the evolution of long-distance transport in vascular plants: allometric scaling, biomass partitioning and optimization. Plant Cell Environ 26:151–161
Ewart AJ (1904–1905) The ascent of water in trees. Proc R Soc London 74:554–556
Ewers FW, Carlton MR, Fisher JB, Kolb KJ, Tyree MT (1997a) Vessel diameters in roots versus stems of tropical lianas and other growth forms. IAWA J 18:261–279
Ewers FW, Cochard H, Tyree MT (1997b) A survey of root pressures in vines of a tropical lowland forest. Oecologia 110(2):191–196
Ewers FW, Ewers JM, Jacobsen AL, López-Portillo J (2007) Vessel redundancy: modeling safety in numbers. IAWA J 28(4):373
Ewers FW, Fisher JB (1989a) Techniques for measuring vessel lengths and diameters in stems of woody plants. Am J Bot 76:645–656
Ewers FW, Fisher JB (1989b) Variation in vessel length and diameter in stems of six tropical and subtropical lianas. Am J Bot 76:1452–1459
Ewers FW, Fisher JB (1991) Why vines have narrow stems: histological trends in Bauhinia (Fabaceae). Oecologia 88(2):233–237
Ewers FW, Fisher JB, Chiu ST (1990) A survey of vessel dimensions in stems of tropical lianas and other growth forms. Oecologia 84(4):544–552
Ewers FW, Fisher JB, Chiu ST (1989) Water transport in the liana Bauhinia fassoglensis (Fabaceae). Plant Physiol 91(4):1625–1631
Ewers FW, Fisher JB, Fichtner K (1991) Water flux and xylem structure in vines. In: Putz FE, Mooney HA (eds) The biology of vines. Cambridge University Press, Cambridge, pp 127–160
Feild TS, Balun L (2008) Xylem hydraulic and photosynthetic function of Gnetum (Gnetales) species from Papua New Guinea. New Phytol 177(3):665–675
Feild TS, Chatelet DS, Balun L, Schilling EE, Evans R (2012) The evolution of angiosperm lianescence without vessels—climbing mode and wood structure—function in Tasmannia cordata (Winteraceae). New Phytol 193(1):229–240
Fisher JB, Guillermo Angeles A, Ewers FW, López-Portillo J (1997) Survey of root pressure in tropical vines and woody species. Int J Plant Sci 158:44–50
Fisher JB, Ewers FW (1989) Wound healing in stems of lianas after twisting and girdling injuries. Bot Gaz 150:251–265
Fisher JB, Ewers FW (1991) Structural responses to stem injury in vines. In: Putz FE, Mooney HA (eds) The biology of vines. Cambridge University Press, Cambridge, pp 99–124
Fisher JB, Ewers FW (1995) Vessel dimensions in liana and tree species of Gnetum (Gnetales). Am J Bot 82:1350–1357
Fisher JB, Ewers FW (1992) Xylem pathways in liana stems with variant secondary growth. Botanical J Linnean Soc 108(2):181–202
Fisher JB, Tan HT, Toh LP (2002) Xylem of rattans: vessel dimensions in climbing palms. Am J Bot 89(2):196–202
Gartner BL (1991a) Structural stability and architecture of vines vs. shrubs of poison oak, Toxicodendron diversilobum. Ecology 72:2005–2015
Gartner BL (1991b) Stem hydraulic properties of vines vs. shrubs of western poison oak, Toxicodendron diversilobum. Oecologia 87(2):180–189
Gartner BL (1991c) Relative growth rates of vines and shrubs of western poison oak, Toxicodendron diversilobum (Anacardiaceae). Am J Bot 78:1345–1353
Gartner BL, Bullock SH, Mooney HA, Brown VB, Whitbeck JL (1990) Water transport properties of vine and tree stems in a tropical deciduous forest. Am J Bot 77:742–749
Gasson P, Dobbins DR (1991) Wood anatomy of the Bignoniaceae, with a comparison of trees and lianas. IAWA Bull (NS) 12:389–417
Gleason SM, Butler DW, Zieminska K, Waryszak P, Westoby M (2012) Stem xylem conductivity is key to plant water balance across Australian angiosperm species. Funct Ecol 26:343–352
Grew N (1682) The anatomy of plants. W. Rawlins, London
Grime JP (1977) Evidence for the existence of three primary strategies in plants and its relevance to ecological and evolutionary theory. Am Nat 111:1169–1194
Haberlandt G (1914) Physiological plant anatomy. Macmillan, London
Hacke UG, Sperry JS, Pockman WT, Davis SD, McCulloh KA (2001) Trends in wood density and structure are linked to prevention of xylem implosion by negative pressure. Oecologia 126:457–461
Hales S (1727) Vegetable staticks; or, an account of some statical experiments on the sap in vegetables. W. and J. Innys, London
Hearn DJ (2006) Adenia (Passifloraceae) and its adaptive radiation: phylogeny and growth form diversification. Syst Bot 31:805–821
Hearn DJ (2009) Developmental patterns in anatomy are shared among separate evolutionary origins of stem succulent and storage root-bearing growth habits in Adenia (Passifloraceae). Am J Bot 96(11):1941–1956
Isnard S, Silk W (2009) Moving with climbing plants from Charles Darwin’s time into the 21st century. Am J Bot 96:1205–1221
Jacobsen AL, Ewers FW, Pratt RB, Paddock WA, Davis SD (2005) Do xylem fibers affect vessel cavitation resistance? Plant Physiol 139(1):546–556
Jacobsen AL, Pratt RB, Tobin MF, Hacke UG, Ewers FW (2012) A global analysis of xylem vessel length in woody plants. Am J Bot 99(10):1583–1591
Jiménez-Castillo M, Lusk CH (2013) Vascular performance of woody plants in a temperate rain forest: lianas suffer higher levels of freeze–thaw embolism than associated trees. Funct Ecol 27(2):403–412
Johnson DM, Domec JC, Woodruff DR, McCulloh KA, Meinzer FC (2013) Contrasting hydraulic strategies in two tropical lianas and their host trees. Am J Bot 100(2):374–383
Jost L (1907) Lectures on plant physiology. Clarendon, Oxford
Kern KA, Ewers FW, Telewski FW, Koehler L (2005) Mechanical perturbation affects conductivity, mechanical properties and aboveground biomass of hybrid poplars. Tree Physiol 25(10):1243–1251
Kolb K, Sperry JS (1999) Differences in drought adaptation between subspecies of sagebrush (Artemisia tridentata). Ecology 80:2373–2384
Lahaye R, Civeyrel L, Speck T, Rowe NP (2005) Evolution of shrub-like growth forms in the lianoid subfamily Secamonoideae (Apocynaceae s.l.) of Madagascar: phylogeny, biomechanics, and development. Am J Bot 92:1381–1396
Letcher SG, Chazdon RL (2009) Lianas and self-supporting plants during tropical forest succession. Forest Ecol Manage 257(10):2150–2156
Limm EB, Simonin KA, Bothman AG, Dawson TE (2009) Foliar water uptake: a common water acquisition strategy for plants of the redwood forest. Oecologia 161(3):449–459
Lovisolo C, Hartung W, Schubert A (2002) Whole-plant hydraulic conductance and root-to-shoot flow of abscisic acid are independently affected by water stress in grapevines. Funct Plant Biol 29:1349–1356
McCulloh KA, Sperry JS, Adler FR (2003) Water transport in plants obeys Murray’s law. Nature 421:939–942
Mencuccini M (2002) Hydraulic constraints in the functional scaling of trees. Tree Physiol 22(8):553–565
Mencuccini M, Hölttä T, Petit G, Magnani F (2007) Sanio’s laws revisited. Size-dependent changes in the xylem architecture of trees. Ecol Lett 10:1084–1093
Mooney HA, Gartner BL (1991) Reserve economy of vines. In: Putz FE, Mooney HA (eds) The biology of vines. Cambridge University Press, Cambridge, pp 161–179
Neel PL, Harris RW (1971) Motion-induced inhibition of elongation and induction of dormancy in Liquidambar. Science 173(3991):58–59
Niklas KJ, Molina-Freaner F, Tinoco-Ojanguren C, Paolillo DJ (2002) The biomechanics of Pachycereus pringlei root systems. Am J Bot 89(1):12–21
Olson ME (2003) Stem and leaf anatomy of the arborescent Cucurbitaceae Dendrosicyos socotrana, with comments on the evolution of pachycauls from lianas. Plant Syst Evol 239(3 and 4):199–214
Olson ME (2012) The developmental renaissance in adaptationism. Trends Ecol Evol 27:278–287
Olson ME, Rosell JA (2013) Vessel diameter–stem diameter scaling across woody angiosperms and the ecological causes of xylem vessel diameter variation. New Phytol 197:1204–1213
Olson ME, Anfodillo T, Rosell JA, Petit G, Crivellaro A, Isnard S, León-Gómez C, Alvarado-Cárdenas LO, Castorena M (2014) Universal hydraulics of the flowering plants: vessel diameter scales with stem length across angiosperm lineages, habits and climates. Ecol Lett 17:988–997
Petit G, Anfodillo T (2009) Plant physiology in theory and practice: an analysis of the WBE model for vascular plants. J Theoret Biol 259:1–4
Petit G, Anfodillo T (2011) Comment on “The blind men and the elephant: the impact of context and scale in evaluating conflicts between plant hydraulic safety and efficiency” by Meinzer et al. (2010). Oecologia 165:271–274
Pittermann J, Sperry JS, Wheeler JK, Hacke UG, Sikkema EH (2006) Mechanical reinforcement of tracheids compromises the hydraulic efficiency of conifer xylem. Plant Cell Environ 29:1618–1628
Pruyn ML, Ewers BJ, Telewski FW (2000) Thigmomorphogenesis: changes in the morphology and mechanical properties of two Populus hybrids in response to mechanical perturbation. Tree Physiol 20(8):535–540
Putz FE (1983) Liana biomass and leaf area of a“ tierra firme” forest in the Rio Negro Basin, Venezuela. Biotropica 15:185–189
Putz FE (1984) The natural history of lianas on Barro Colorado Island, Panama. Ecology 65(6):1713–1724
Reddy MS, Parthasarathy N (2006) Liana diversity and distribution on host trees in four inland tropical dry evergreen forests of peninsular India. Tropical Ecol 47(1):109–124
Rosell JA, Olson ME, Aguirre R, Carlquist S (2007) Logistic regression in comparative wood anatomy: tracheid types, wood anatomical terminology, and new inferences from the Carquist & Hoekman southern California dataset. Botanical J Linnean Soc 154(3):331–351
Rosell JA, Olson ME, Aguirre-Hernández R, Sánchez-Sesma FJ (2012) Ontogenetic modulation of branch size, shape, and biomechanics produces diversity across habitats in the Bursera simaruba clade of tropical trees. Evol Develop 14:437–449
Rosell JA, Olson ME (2014) Do lianas really have wide vessels? Vessel diameter-stem length scaling in non self-supporting plants. Perspect Plant Ecol Evol Syst 16:288–295
Rundel PW (1982) Water uptake by organs other than roots. In: Lange OL, Nobel PS, Osmond CB, Ziegler H (eds) Physiological plant ecology II. Springer, Berlin, pp 111–134
Sanio K (1872) Ueber die Grösse der Holzzellen bei der gemeinen der Kiefer (Pinus silvestris). Jahrbuecher fuer wissenscafliche Botanik 8:401–420
Santiago LS (2010) Can growth form classification predict litter nutrient dynamics and decomposition rates in lowland wet forest? Biotropica 42(1):72–79
Santiago LS, Wright SJ (2007) Leaf functional traits of tropical forest plants in relation to growth form. Funct Ecol 21(1):19–27
Savage VM, Bentley LP, Enquist BJ, Sperry JS, Smith DD, Reich PB, von Allmen EI (2010) Hydraulic trade-offs and space filling enable better predictions of vascular structure and function in plants. Proc Natl Acad Sci U S A 107:22722–22727
Scarpella E, Meijer AH (2004) Pattern formation in the vascular system of monocot and dicot plant species. New Phytol 164:209–242
Schenck H (1893) Beiträge zur biologie und anatomie der lianen, in beson- deren der in Brasilien einheimishe arten. 2. Beiträge zur anatomie der lianen. In: Schimpers AFW (ed) Botanische Mittheilungen aus der Tropen, vol 5. Fischer, Jena, pp 1–271
Schnitzer SA (2005) A mechanistic explanation for global patterns of liana abundance and distribution. Am Nat 166(2):262–276
Schnitzer SA, Bongers F (2002) The ecology of lianas and their role in forests. Trends Ecol Evol 17(5):223–230
Schnitzer SA, Bongers F (2011) Increasing liana abundance and biomass in tropical forests: emerging patterns and putative mechanisms. Ecol Lett 14:397–406
Schnitzer SA, van der Heijden GMF, Mascaro J, Carson WP (2014) Lianas in gaps reduce carbon accumulation in a tropical forest. Ecology 95:3008–3017
Schnitzer SA, Kuzee ME, Bongers F (2005) Disentangling above‐and below‐ground competition between lianas and trees in a tropical forest. J Ecol 93(6):1115–1125
Sperry JS, Holbrook NM, Zimmermann MH, Tyree MT (1987) Spring filling of xylem vessels in wild grapevine. Plant Physiol 83(2):414–417
Sperry JS, Smith DD, Savage VM, Enquist BJ, McCulloh KA, Reich PB, Bentley LP, von Allmen EI (2012) A species-level model for metabolic scaling in trees I. Exploring boundaries to scaling space within and across species. Funct Ecol 26:1054–1065
Stevens GC (1987) Lianas as structural parasites: the Bursera simaruba example. Ecology 68:77–81
Stevens PF (2001 onwards). Angiosperm phylogeny website. Version 12. http://www.mobot.org/MOBOT/research/APweb/
Tang Y, Kitching RL, Cao M (2012) Lianas as structural parasites: a re-evaluation. Chin Sci Bull 57(4):307–312
Tibbetts TJ, Ewers FW (2000) Root pressure and specific conductivity in temperate lianas: exotic Celastrus orbiculatus (Celastraceae) vs. native Vitis riparia (Vitaceae). Am J Bot 87(9):1272–1278
Tyree MT, Ewers FW (1996) Hydraulic architecture of woody tropical plants. In: Mulkey SS, Chazdon RL, Smith AP (eds) Tropical forest plant ecophysiology. Chapman & Hall, New York, pp 217–243
Tyree MT, Zimmermann M (2002) Xylem structure and the ascent of sap, 2nd edn. Springer, Berlin
Uggla C, Mellerowicz EJ, Sundberg B (1998) Indole-3-acetic acid controls cambial growth in Scots pine by positional signaling. Plant Physiol 117:113–121
van der Sande MT, Poorter L, Schnitzer SA, Markestein L (2013) Are lianas more drought-tolerant than trees? A test for the role of hydraulic architecture and other stem and leaf traits. Oecologia 172(4):961–972
von Allmen EI, Sperry JS, Smith DD, Savage VM, Enquist BJ, Reich PB, Bentley LP (2012) A species level model for metabolic scaling of trees II. Testing in a ring- and diffuse-porous species. Funct Ecol 26:1066–1076
West G, Brown JH, Enquist BJ (1999) A general model for the structure and allometry of plant vascular systems. Nature 400:664–667
Westermaier M, Ambronn H (1881) Beziehungen zwischen Lebensweise und Struktur der Schling- und Kletterpflanzen. Flora 69:417–436
White PR (1938) “Root-pressure”—an unappreciated force in sap movement. Am J Bot 25:223–227
Wyka TP, Oleksyn J, Karolewski P, Schnitzer SA (2013) Phenotypic correlates of the lianescent growth form: a review. Ann Bot 112:1667–1681
Zanne AE, Westoby M, Falster DS, Ackerly DD, Loarie SR, Arnold SEJ, Coomes DA (2010) Angiosperm wood structure: global patterns in vessel anatomy and their relations to wood density and potential conductivity. Am J Bot 97:207–215
Zimmermann MH, Jeje AA (1981) Vessel-length distribution in stems of some American woody plants. Can J Bot 59:1882–1892
Zimmennann MH, Potter D (1982) Vessel-length distribution in branches, stem and roots of Acer rubrum L. IAWA Bull 3:103–109
Zimmermann MH (1983) Xylem structure and the ascent of Sap. Springer, Berlin
Zhu SD, Cao KF (2009) Hydraulic properties and photosynthetic rates in co-occurring lianas and trees in a seasonal tropical rainforest in southwestern China. Plant Ecol 204(2):295–304
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Ewers, F.W., Rosell, J.A., Olson, M.E. (2015). Lianas as Structural Parasites. In: Hacke, U. (eds) Functional and Ecological Xylem Anatomy. Springer, Cham. https://doi.org/10.1007/978-3-319-15783-2_6
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