闫霜, 张黎, 景元书, 何洪林, 于贵瑞. 植物叶片最大羧化速率与叶氮含量关系的变异性. 植物生态学报, 2014, 38(6):
640–652.
YAN Shuang, ZHANG Li, JING Yuan-Shu, HE Hong-Lin, and YU Gui-Rui. Variations in the relationship between maximum leaf
carboxylation rate and leaf nitrogen concentration. Chinese Journal of Plant Ecology, 2014, 38(6): 640–652.
http://www.plant-ecology.com/CN/10.3724/SP.J.1258.2014.00060
http://www.plant-ecology.com/CN/Y2014/V38/I6/640
附录I 最大羧化速率与叶氮含量的拟合关系式
Appendix I The relationship of leaf maximum carboxylation rate and leaf nitrogen
植被类型
Plant functional type
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
优势种
Dominant species
赤松 Pinus densiflora
关系式
Relationship
Vcmax,25 = –1.97Na + 9.54
赤松 Pinus densiflora
Vcmax,25 = 29.45Na – 45.4
赤松 Pinus densiflora
Vcmax,25 = 15.94Na + 6.75
赤松 Pinus densiflora
Vcmax,25 = 15.02Na + 5.17
赤松 Pinus densiflora
Vcmax,25 = 15.71Na – 3.04
赤松 Pinus densiflora
Vcmax,25 = 15.59Na – 18.31
赤松 Pinus densiflora
Vcmax,25 = 19.79Na – 9.82*
Picea sitchensis
Vcmax,25 = 14.54Na + 5.51*
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
常绿针叶林
Evergreen needle forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
落叶阔叶林
Deciduous broadleaf forest
观测时间
Date
2001年1月
January 2001
2001年3月
March 2001
2001年5月
May 2001
2001年7月
July 2001
2001年9月
September 2001
2001年11月
November 2001
2001年生长季
2001 growing season
文献
References
Han et al., 2004
Meir et al., 2002
Han et al., 2004
Han et al., 2004
Han et al., 2004
Han et al., 2004
Han et al., 2004
Han et al., 2004
欧洲云杉 Picea abies
Vcmax,25 = 20Na + 24.2*
欧洲赤松 Pinus sylvestris
欧洲赤松 Pinus sylvestris
火炬松 Pinus taeda
Vcmax,25 = 11.4Na – 0.64*
1997年8月
August 1997
1992年春季
1992 Spring
–
Vcmax,25 = 13.5Na + 106*
–
Medlyn et al., 1999
Vcmax,25 = 13.6Na + 35.1*
–
Ellsworth et al., 2012
火炬松 Pinus taeda
Vcmax,25 = 15.99Na + 12.76*
夏初、夏末
Early summer,
summer
夏末
Late summer
–
火炬松 Pinus taeda
Vcmax,25 = 27.06Na + 5.61*
Pinus radiate
Vcmax,25 = 15.143Na + 11.26*
–
Vcmax,25 = 9.71Na + 34.05*
–
Vcmax,25 = 18.15Na + 6.32*
火炬松 Pinus taeda
Vcmax,25 = 25.3Na + 28.6
Fagus sylvatica
Vcmax,25 = 31.02Na + 13.13*
垂枝桦 Betula pendula
Vcmax,25 = 43.33Na – 20.53*
Quercus petraea
Vcmax,25 = 18.87Na – 0.13*
Fagus sylvatica
Medlyn et al., 1999
Medlyn et al., 1999
Crous et al., 2008
late
Crous et al., 2008
Walcroft et al., 1997
模型反演
Model inversion
模型反演
Model inversion
–
Kattge et al., 2009
Meir et al., 2002
Vcmax,25 = 32.6Na – 0.46*
1998年8月
August 1998
1997年8月
August 1997
1996年8月
August 1996
–
Fagus sylvatica
Vcmax,25 = 17.6Na + 17.8*
–
Medlyn et al., 1999
Quercus petraea
Vcmax,25 = 12.7Na + 50*
–
Medlyn et al., 1999
Fraxinus angustifolia,
夏栎 Quercus robur
Fraxinus angustifolia,
夏栎 Quercus robur
Fraxinus angustifolia,
夏栎 Quercus robur
Vcmax,25 = 40.9Na – 10*
2001–2003年春季
2001–2003 spring
2001年夏季
2001 summer
2002年夏季
2002 summer
Grassi et al., 2005
Vcmax,25 = 22.7Na + 25.9*
Vcmax,25 = 17Na + 60.8*
Kattge et al., 2009
Luo et al., 2001
Meir et al., 2002
Meir et al., 2002
Medlyn et al., 1999
Grassi et al., 2005
Grassi et al., 2005
附录I (续) Appendix I (continued)
植被类型
Plant functional type
落叶阔叶林
Deciduous broadleaf forest
优势种
Dominant species
Fraxinus angustifolia,
夏栎 Quercus robur
关系式
Relationship
Vcmax,25 = 59.2Na – 55.3
观测时间
Date
2003年夏季
2003 summer
文献
References
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
Fraxinus angustifolia,
夏栎 Quercus robur
Vcmax,25 = 25.9Na + 8.28*
2001年秋季
2001 autumn
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
Fraxinus angustifolia,
夏栎 Quercus robur
Vcmax,25 = 28.4Na + 14*
2002年秋季
2002 autumn
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
Fraxinus angustifolia,
夏栎 Quercus robur
Vcmax,25 = 19.4Na + 3.7
2003年秋季
2003 autumn
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
Fraxinus angustifolia
Vcmax,25 = 29.1Na + 4.7
2001年生长季
2001 growing season
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
夏栎 Quercus robur
Vcmax,25 = 28.7Na + 10.4
2001年生长季
2001 growing season
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
Fraxinus angustifolia
Vcmax,25 = 31.4Na + 14.25
2002年生长季
2002 growing season
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
夏栎 Quercus robur
Vcmax,25 = 38.4Na – 5.9
2002年生长季
2002 growing season
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
Fraxinus angustifolia
Vcmax,25 = 52.8Na – 44.1
2003年生长季
2003 growing season
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
夏栎 Quercus robur
Vcmax,25 = 43.5Na – 21.8
2003年生长季
2003 growing season
Grassi et al., 2005
落叶阔叶林
Deciduous broadleaf forest
Prunus persica
Vcmax,25 = 25Na + 12.1*
1999年4–5月
April–May 1999
Walcroft et al., 2002
落叶阔叶林
Deciduous broadleaf forest
Quercus alba, Acer
rubrum, Quercus prinus
Vcmax,25 = 31.9Na – 1.9*
1997年生长季
1997 growing season
Wilson et al., 2000
落叶阔叶林
Deciduous broadleaf forest
Quercus alba, Acer
rubrum, Quercus prinus
Vcmax,25 = 33.1Na – 9.3
1998年生长季
1998 growing season
Wilson et al., 2000
热带常绿阔叶林
Tropical evergreen broadleaf
forest
热带常绿阔叶林
Tropical evergreen broadleaf
forest
–
Vcmax,25 = 11.41Na + 0.98*
1996年11月
November 1996
Carswell et al., 2000
Dryobalanops aromatica,
Dipterocarpus glabosus,
Shorea acuta, Shorea
beccariana, Shorea macroptera
–
Vcmax,25 = 28.01Na + 3.41*
2002年9月
September 2002
Kumagai et al., 2006
Vcmax,25 = 10.71Na + 1.99*
模型反演
Model inversion
Kattge et al., 2009
热带常绿阔叶林
Tropical evergreen broadleaf
forest
–
Vcmax,25 = 25.88Na + 6.35*
模型反演
Model inversion
Kattge et al., 2009
热带常绿阔叶林
Tropical evergreen broadleaf
forest
热带常绿阔叶林
Tropical evergreen broadleaf
forest
–
Vcmax,25 = 9.3Na + 8.9*
模型反演
Model inversion
Kattge et al., 2009
–
Vcmax,25 = 26.19Na + 4.19*
模型反演
Model inversion
Kattge et al., 2009
温带常绿阔叶林
Temperate evergreen broadleaf forest
–
Vcmax,25 = 30.38Na + 5.4*
模型反演
Model inversion
Kattge et al., 2009
温带常绿阔叶林
Temperate evergreen broadleaf forest
–
Vcmax,25 = 29.81Na + 5.73*
模型反演
Model inversion
Kattge et al., 2009
温带常绿阔叶林
Temperate evergreen broadleaf forest
大桉 Eucalyptus grandis
Vcmax,25 = –25.2Na 2 + 101.6Na –
16.5
7月
July
Grassi et al., 2002
灌木 Bush
–
Vcmax,25 = 30.2Na + 4.61*
Kattge et al., 2009
灌木 Bush
–
Vcmax,25 = 23.15Na + 14.71*
灌木 Bush
Leptospermum scoparium, Kunzea ericoides
Vcmax,25 = 34.786Na – 20.29*
模型反演
Model inversion
模型反演
Model inversion
–
热带常绿阔叶林
Tropical evergreen broadleaf
forest
Kattge et al., 2009
Whitehead et al.,
2004
附录I (续) Appendix I (continued)
植被类型
Plant functional type
C3草本 C3 herbaceous
优势种
Dominant species
–
关系式
Relationship
Vcmax,25 = 28.17Na + 23.74*
C3草本 C3 herbaceous
–
Vcmax,25 = 40.96Na + 6.42*
草本 Herbaceous
Vcmax,25 = 41.04Na + 27.59*
C3作物 C3 crop
蓍 Achillea millefolium,
Agropyron repens,
Anemone cylindrical, 无
芒雀麦 Bromus inermis,
Lupinus perennis, 草地
早熟禾 Poa pratensis,
Solidago rigida
–
C3作物 C3 crop
–
Vcmax,25 = 59.23Na + 4.71*
观测时间
Date
模型反演
Model inversion
模型反演
Model inversion
文献
References
Kattge et al., 2009
Kattge et al., 2009
Ellsworth et al., 2004
1996年8月
August 1996
Vcmax,25 = 41.27Na + 22.22*
模型反演
Model inversion
模型反演
Model inversion
Kattge et al., 2009
Kattge et al., 2009
*表示该关系式参与统计计算。
* Indicates the equations used in calculation.
参考文献
Carswell FE, Meir P, Wandelli EV, Bonates LCM, Kruijt B, Barbosa EM, Nobre AD, Grace J, Jarvis PG (2000). Photosynthetic capacity in a central Amazonian rain forest. Tree Physiology, 20, 179–186.
Crous KY, Walters MB, Ellsworth DS (2008). Elevated CO2 concentration affects leaf photosynthesis-nitrogen relationships in Pinus
taeda over nine years in FACE. Tree Physiology, 28, 607–614.
Ellsworth DS, Reich PB, Naumburg ES, Koch GW, Kubiske ME, Smith SD (2004). Photosynthesis, carboxylation and leaf nitrogen
responses of 16 species to elevated pCO2 across four free-air CO2 enrichment experiments in forest, grassland and desert. Global
Change Biology, 10, 2121–2138.
Ellsworth DS, Thomas R, Crous KY, Palmroth S, Ward E, Maier C, Delucia E, Oren R (2012). Elevated CO 2 affects photosynthetic
responses in canopy pine and subcanopy deciduous trees over 10 years: a synthesis from Duke FACE. Global Change Biology,
18, 223–242.
Grassi G, Meir P, Cromer R, Tompkins D, Jarvis PG (2002). Photosynthetic parameters in seedlings of Eucalyptus grandis as affected
by rate of nitrogen supply. Plant, Cell & Environment, 25, 1677–1688.
Grassi G, Vicinelli E, Ponti F, Cantoni L, Magnani F (2005). Seasonal and interannual variability of photosynthetic capacity in relation
to leaf nitrogen in a deciduous forest plantation in northern Italy. Tree Physiology, 25, 349–360.
Han Q, Kawasaki T, Nakano T, Chiba Y (2004). Spatial and seasonal variability of temperature responses of biochemical photosynthesis parameters and leaf nitrogen content within a Pinus densiflora crown. Tree Physiology, 24, 737–744.
Kattge J, Knorr W, Raddatz T, Wirth C (2009). Quantifying photosynthetic capacity and its relationship to leaf nitrogen content for
global-scale terrestrial biosphere models. Global Change Biology, 15, 976–991.
Kumagai T, Ichie T, Yoshimura M, Yamashita M, Kenzo T, Saitoh TM, Ohashi M, Suzuki M, Koike T, Komatsu H (2006). Modeling
CO2 exchange over a Bornean tropical rain forest using measured vertical and horizontal variations in leaf-level physiological
parameters and leaf area densities. Journal of Geophysical Research, 111, D10107, doi: 10.1029/2005JD006676.
Luo Y, Medlyn B, Hui D, Ellsworth D, Reynolds J, Katul G (2001). Gross primary productivity in Duke Forest: modeling synthesis of
CO2 experiment and eddy-flux data. Ecological Applications, 11, 239–252.
Medlyn BE, Bdeck FW, de Pury DGG, Barton CVM, Broadmeadow M, Ceulemans R, Angelis PD, Forstreuter M, Jach ME, Kellomäki S, Laitat E, Marek M, Philippot S, Rey A, Strassemeyer J, Laitinen K, Liozon R, Portier B, Roberntz P, Wang K, Jarvis
PG (1999). Effects of elevated [CO2] on photosynthesis in European forest species: a meta-analysis of model parameters. Plant,
Cell & Environment, 22, 1475–1495.
Meir P, Kruijt B, Broadmeadow M, Barbosa E, Kull O, Carswell F, Nobre A, Jarvis PG (2002). Acclimation of photosynthetic capacity to irradiance in tree canopies in relation to leaf nitrogen concentration and leaf mass per unit area. Plant, Cell & Environment,
25, 343–357.
Walcroft A, Le Roux X, Diaz-Espejo A, Dones N, Sinoquet H (2002). Effects of crown development on leaf irradiance, leaf morphology and photosynthetic capacity in a peach tree. Tree Physiology, 22, 929–938.
Walcroft AS, Whitehead D, Silvester WB, Kelliher FM (1997). The response of photosynthetic model parameters to temperature and
nitrogen concentration in Pinus radiata D. Don. Plant, Cell & Environment, 20, 1338–1348.
Whitehead D, Walcroft AS, Scott NA, Townsend JA, Trotter CM, Rogers GND (2004). Characteristics of photosynthesis and sto-
matal conductance in the shrubland species mānuka (Leptospermum scoparium) and kānuka (Kunzea ericoides) for the estimation of annual canopy carbon uptake. Tree Physiology, 24, 795–804.
Wilson KB, Baldocchi DD, Hanson PJ (2000). Spatial and seasonal variability of photosynthetic parameters and their relationship to
leaf nitrogen in a deciduous forest. Tree Physiology, 20, 565–578.
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