Hostname: page-component-cd9895bd7-q99xh Total loading time: 0 Render date: 2024-12-27T23:35:46.410Z Has data issue: false hasContentIssue false
  • English
  • Français

Can photosynthesis-related parameters be used to establish the activity of acetolactate synthase–inhibiting herbicides on weeds?

Published online by Cambridge University Press:  20 January 2017

Ingrid Riethmuller-Haage ,
Lammert Bastiaans ,
Martin J. Kropff ,
Jeremy Harbinson  and
Corné Kempenaar
Lammert Bastiaans
Affiliation:
Crop and Weed Ecology Group, Department of Plant Science, Wageningen University and Research Centre, P.O. Box 430, 6700AK Wageningen, The Netherlands
Martin J. Kropff
Affiliation:
Crop and Weed Ecology Group, Department of Plant Science, Wageningen University and Research Centre, P.O. Box 430, 6700AK Wageningen, The Netherlands
Jeremy Harbinson
Affiliation:
Horticulture Chain Production, Department of Plant Science, Wageningen University and Research Centre, P.O. Box 40, 6700AK Wageningen, The Netherlands
Corné Kempenaar
Affiliation:
Plant Research International, Department of Plant Science, Wageningen University and Research Centre, P.O. Box 16, 6700AA Wageningen, The Netherlands
Get access Rights & Permissions [Opens in a new window]

Abstract

The application of the acetolactate synthase (ALS)–inhibiting herbicide metsulfuron on greenhouse- and field-grown black nightshade and greenhouse-grown ladysthumb resulted in progressive inhibition of the level of carbon dioxide (CO2) fixation, the relative quantum efficiency of electron transport through photosystem I (ΦPSI) and II (ΦPSII), and the leaf chlorophyll content. Photosynthetic-related measurements, measured 2 to 4 d after treatment (DAT) at photon flux densities of 400 to 500 μmol m−2 s−1, provided valuable information before the visual symptoms that first appeared at 7 to 10 DAT with the herbicide. Measurements of the quantum efficiency for electron transport by photosystem II and the loss in leaf chlorophyll content appeared to be two of the most practical parameters to use when designing an early detection method to assess the toxicity of metsulfuron. The use of chlorophyll fluorescence would require a comparison of steady-state ΦPSII measurements for control and treated plants, which could be realized by either measuring in time (before/after application) or space (treated/untreated patch).

Keywords

Metsulfuronblack nightshade, Solanum nigrum L. SOLNIladysthumb, Polygonum persicaria L. POLPEALSchlorophyllfluorescencephotosynthesis
Type
Research Article
Information
Weed Science , Volume 54 , Issue 6 , December 2006 , pp. 974 - 982
Copyright
Copyright © Weed Science Society of America 

Access options

Get access to the full version of this content by using one of the access options below. (Log in options will check for institutional or personal access. Content may require purchase if you do not have access.)

References

Literature Cited

Baker, N. R. and Rosenqvist, E. 2004. Applications of chlorophyll fluorescence can improve crop production strategies: an examination of future possibilities. J. Exp. Bot. 55:1607–1621.Google Scholar
Barbagallo, R. P., Oxborough, K., Pallett, K. E., and Baker, N. R. 2003. Rapid, noninvasive screening for perturbations of metabolism and plant growth using chlorophyll fluorescence imaging. Plant Physiol. 132:485–493.Google Scholar
Bartak, M., Gloser, J., and Hajek, J. 2005. Visualized photosynthetic characteristics of the lichen Xanthoria elegans related to daily courses of light, temperature and hydration: a field study from Galindez Island, maritime Antarctica. Lichenologist (Lond.) 37:433–443.CrossRefGoogle Scholar
Bernacchi, C. J., Portis, A. R., Nakano, H., von Caemmerer, S., and Long, S. P. 2002. Temperature response of mesophyll conductance. Implications for the determination of Rubisco enzyme kinetics and for limitations to photosynthesis in vivo. Plant Physiol. 130:1992–1998.Google Scholar
Blair, A. M. and Martin, T. D. 1988. A review of the activity, fate, and mode of action of sulfonylurea herbicides. Pestic. Sci. 22:195–219.CrossRefGoogle Scholar
DeEll, J. R. and Toivonen, P. M. A. 1999. Chlorophyll fluorescence as an indicator of physiological changes in cold-stored broccoli after transfer to room temperature. J. Food Sci. 64:501–503.CrossRefGoogle Scholar
De Groot, C. C., van den Boogaard, R., Marcelis, L. F. M., Harbinson, J., and Lambers, H. 2003. Contrasting effects of N and P deprivation on the regulation of photosynthesis in tomato plants in relation to feedback limitation. J. Exp. Bot. 54:1957–1967.Google Scholar
Devine, M. D. 1989. Ploem translocation of herbicides. Rev. Weed Sci. 4:191–213.Google Scholar
[EPA] U.S. Environmental Protection Agency. 2004. Pesticide Market Estimates: Usage 2000–2001. www.epa.gov.Google Scholar
Gaston, S., Ribas-Carbo, M., Busquets, S., Berry, J. A., Zabalza, A., and Royuela, M. 2003. Changes in mitochondrial electron partitioning in response to herbicides inhibiting branched-chain amino acid biosynthesis in soybean. Plant Physiol. 133:1351–1359.Google Scholar
Harbinson, J. and Foyer, C. H. 1991. Relationships between the efficiencies of photosystem-I and photosystem-II and stromal redox state in Co2-free air—evidence for cyclic electron flow in vivo. Plant Physiol. 97:41–49.CrossRefGoogle Scholar
Harbinson, J., Genty, B., and Baker, N. R. 1990a. The relationship between CO2 assimilation and electron-transport in leaves. Photosynth. Res. 25:213–224.Google Scholar
Harbinson, J., Genty, B., and Foyer, C. H. 1990b. Relationship between photosynthetic electron-transport and stromal enzyme-activity in pea leaves—toward an understanding of the nature of photosynthetic control. Plant Physiol. 94:545–553.Google Scholar
Harbinson, J. and Hedley, C. L. 1993. Changes in P-700 oxidation during the early stages of the induction of photosynthesis. Plant Physiol. 103:649–660.CrossRefGoogle ScholarPubMed
Harbinson, J. and Woodward, F. I. 1987. The use of light-induced absorbency changes at 820 nm to monitor the oxidation-state of P-700 in leaves. Plant Cell Environ. 10:131–140.Google Scholar
Inskeep, W. P. and Bloom, P. R. 1985. Extinction coefficients of chlorophyll-a and chlorophyll-b in N,N-dimethylformamide and 80% acetone. Plant Physiol. 77:483–485.Google Scholar
Judy, B. M., Lower, W. R., Miles, C. D., Thomas, M. W., and Krause, G. F. 1991. Chlorophyll fluorescence of higher plants as an assay for toxicity assessment of soil and water. Pages 308–318 in Wang, W., Gorsuch, J. W., and Lower, W. R. eds. Plants Phytotoxicity Assessment. West Conshohocken, PA: ASTM International.Google Scholar
Judy, B. M., Lower, W. R., Thomas, M. W., Krause, G. F., and Astaw, A. 1990. The chlorophyll fluorescence assay as a rapid indicator of herbicide toxicity. Pages 358–361 in Proceedings of the 43rd Annual Meeting of the Southern Weed Science Society. Champaign, IL: Southern Weed Science Society.Google Scholar
Kempenaar, C., Booij, R., Uenk, D., Uffing, A. J., Groeneveld, R. M., and van den Boogaard, R. 2004. MLHD, a decision support system for rational use of herbicides: developments in potatoes. Pages 187–196 in MacKerron, D.K.L. and Haverkort, A. J. eds. Decision Support Systems in Potato Production. Wageningen, The Netherlands: Wageningen Academic Press.CrossRefGoogle Scholar
Kempenaar, C., Groeneveld, R. M., Uffing, A. J., and Weide, R. Y. V. D. 2002. New insights and developments in the MLHD-concept of weed control. Pages 98–99 in Proceedings of the 12th European Weed Research Society Symposium. Doorwerth, The Netherlands: European Weed Research Society.Google Scholar
Ketel, D. H. 1996. Effect of low doses of metamitron and glyphosate on growth and chlorophyll content of common lambsquarters (Chenopodium album). Weed Sci. 44:1–6.Google Scholar
Kingston-Smith, A. H., Harbinson, J., and Foyer, C. H. 1999. Acclimation of photosynthesis, H2O2 content and antioxidants in maize (Zea mays) grown at sub-optimal temperatures. Plant Cell Environ. 22:1071–1083.Google Scholar
Kingston-Smith, A. H., Harbinson, J., Williams, J., and Foyer, C. H. 1997. Effect of chilling on carbon assimilation, enzyme activation, and photosynthetic electron transport in the absence of photoinhibition in maize leaves. Plant Physiol. 114:1039–1046.Google Scholar
Lichtenthaler, H. K. and Rinderle, U. 1988. The role of chlorophyll fluorescence in the detection of stress conditions in plants. Crit. Rev. Anal. Chem. 19:S29–S85.Google Scholar
Myers, D. A., Thomas, R. B., and DeLucia, E. H. 1999. Photosynthetic responses of loblolly pine (Pinus taeda) needles to experimental reduction in sink demand. Tree Physiol. 19:235–242.Google Scholar
Nedbal, L., Soukupova, J., Kaftan, D., Whitmarsh, J., and Trtilek, M. 2000. Kinetic imaging of chlorophyll fluorescence using modulated light. Photosynth. Res. 66:3–12.Google Scholar
Odasz-Albrigtsen, A. M., Tommervik, H., and Murphy, P. 2000. Decreased photosynthetic efficiency in plant species exposed to multiple airborne pollutants along the Russian–Norwegian border. Can. J. Bot. 78:1021–1033.Google Scholar
Percival, M. P. and Baker, N. R. 1991. Herbicides and photosynthesis. Pages 1–26 in Baker, N. R. and Percival, M. P. eds. Herbicides. Amsterdam: Elsevier.Google Scholar
Peterson, D. E. 2001. Herbicide Mode of Action. Manhattan, KS: Experiment Station and Cooperative Extension Service, Kansas State University Agricultural. www.oznet.ksu.edu.Google Scholar
Popovic, R., Dewez, D., and Juneau, P. 2003. Applications of chlorophyll fluorescence in ecotoxicology: heavy metals, herbicides, and air pollutants. Pages 151–184 in DeEll, J. R. and Toivonon, P.M.A. eds. Practical Applications of Chlorophyll Fluorescence in Plant Biology. Dordrecht, The Netherlands: Kluwer Academic.Google Scholar
Rascher, U., Liebig, M., and Lüttge, U. 2000. Evaluation of instant light-response curves of chlorophyll fluorescence parameters obtained with a portable chlorophyll fluorometer on site in the field. Plant Cell Environ. 23:1397–1405.Google Scholar
Rhodes, D., Hogan, A. L., Deal, L., Jamieson, G. C., and Haworth, P. 1987. Amino acid metabolism of lemna minor L, II: responses to chlorsulfuron. Plant Physiol. 84:775–780.Google Scholar
Riethmuller-Haage, I., Bastiaans, L., Harbinson, J., Kempenaar, C., and Kropff, M. 2006. Influence of the acetolactate synthase inhibitor metsulfuron-methyl on the operation, regulation and organisation of photosynthesis in Solanum nigrum . Photosynth. Res. 88:331–341.CrossRefGoogle ScholarPubMed
Schreiber, U., Walz, H., and Kolbowski, J. 2003. Propagation of spatial variations of chlorophyll fluorescence parameters in dandelion leaves induced by laser spot heating. PAM News. 1:1–18.Google Scholar
Shaner, D. L. and Singh, B. K. 1991. Imidazolinone-induced loss of acetohydroxyacid synthase activity in maize is not due to the enzyme degradation. Plant Physiol. 97:1339–1341.Google Scholar
Shaner, D. L. and Singh, B. K. 1992. How does inhibition of acid biosynthesis kill plants?. in Singh, B. K., Flores, H. E. and Shannon, J. C., eds. Biosynthesis and Molecular Regulation of Amino Acids in Plants. Rockville, MD: American Society Of Plant Physiologists.Google Scholar
Suttle, J. C. and Schreiner, D. R. 1982. Effects of DPX-4189 (2-chloro-\[fj N-(((4-methoxy-6-methyl-1,3,5-triazin-2-yl)aminocarbonyl)\[fj benzenesulfonamide) on anthocyanin synthesis, phenylalanine ammonia-lyase activity, and ethylene production in soybean hypocotyls. Can. J. Bot.–Rev. Can. Bot. 60:741–745.Google Scholar
Tissue, D. T., Megonigal, J. P., and Thomas, R. B. 1997. Nitrogenase activity and N2 fixation are stimulated by elevated CO2 in a tropical N2-fixing tree. Oecologia. 109:28–33.Google Scholar