Abstract
Carry-over of inoculum of X.c. pv. campestris in the soil from one cropping season to the next was studied in field experiments over three years. These studies were supported by laboratory and greenhouse experiments on quantitative assessment of bacteria by bioassay using the Most Probable Number technique, and on recovery rates of bacteria from the soil. The mean recovery rate from artificially infested soil was 58%. Extinction of X.c. pv. campestris in soil infested with infected plant debris proceeded exponentially and extinction rates depended on temperature, as did the decomposition of plant debris. In replicated field plots, over three years, infection foci of black rot disease were established. At harvest time, all plants were chopped and resulting plant debris was rotovated into the soil. The resulting soil infestation was sampled and showed clear infestation foci reflecting the original infection foci of the crop. These infestation foci decreased with time and disappeared after the winter. Follow-up crops remained virtually uninfected. The results show that in The Netherlands good crop and soil management impedes survival of inoculum from one year to the next, so that cabbage can be grown continuously. Polyetic carry-over of inoculum by debris in the soil can be avoided in The Netherlands.
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References
Alvarez AM and Cho JJ (1978) Black rot of cabbage in Hawaii: Inoculum source and disease incidence. Phytopathology 68: 1456-1459
Anonymous (1953) Some further definitions of terms used in plant pathology. Trans. British Mycological Society 4: 177-188
Bain DC (1952) Resistance of cabbage to black rot. Phytopathology 42: 35-37
Bain DC (1955) Disappearance of black rot symptoms in cabbage seedlings. Phytopathology 45: 55-56
Campbell CL and Madden LV (1990) Introduction to plant disease epidemiology. John Wiley & Sons, New York
Ciafardini G and Marotta B (1989) Use of the most probable number technique to detect Polymyxa betae(Plasmodiophoromycetes) in soil. Applied and Environmental Microbiology 55: 1273-1278
Clayton EE (1924) Investigation of cauliflower diseases on Long Island. NewYork State Agricultural Experimental Station. Bulletin 506
Fisher RA and Yates F (1963) Statistical tables for biological, agricultural and medical research. 6th edition, Longman, London
Hunter JE, Dickson MH and Ludwig JW (1987) Source of resistance to black rot of cabbage expressed in seedlings and adult plants. Plant Disease 71: 263-266
Kocks CG (1998) Black rot in The Netherlands: studies on spatial and temporal development. PhD-Thesis. Wageningen Agricultural University
Kocks CG and Ruissen MA (1996) Measuring field resistance of cabbage cultivars to black rot. Euphytica 91: 45-54
Kocks CG, Zadoks JC and Ruissen MA (1998a) Spatio-temporal response of black rot in cabbage to initial inoculum levels. In press (Plant Pathology)
Kocks CG, Zadoks JC and Ruissen MA (1998b) Response of black rot in relation to spatial distribution of inoculum. In press (European Journal of Plant Pathology)
Kocks CG and Zadoks JC (1996) Cabbage refuse piles as sources of inoculum for black rot epidemics. Plant Disease 80: 789-792
Lengkeek AG and Van Etteger M (1992) De afname van Xanthomonas campestrispathovar campestrisin de bodem. Dept. of Phytopathology, Agricultural University Wageningen
Linn MB (1958) Vegetable diseases. University of Illinois, College of Agriculture and Extension service in Agriculture and Home Economics
Maloy OC and Alexander M (1958) The ‘most probable number’ method for estimating populations of plant pathogenic organisms in the soil. Phytopathology 48: 126-128
Pinches A and Pallent LJ (1986) Rate and yield relationships in the production of xanthan gum by batch fermentations using complex and chemically defined growth media. Biotechnology and Bioengineering 28: 1484-1496
Pfender WF, Rouse DI and Hagedorn DJ (1981) A ‘most probable number’ method for estimating inoculum density of Aphanomyces euteichesin naturally infested soil. Phytopathology 71: 1169-1172
Richardson JK (1945) Black rot of rutabagas. Sci. Agriculture 25: 415-425
Roshing H (1995) Bodemkaart van Nederland 1: 50.000. Toelichting bij de kaartbladen Blad 9 West Texel (gedeeltelijk), Blad 14 West Medemblik, Blad 14 Oost Medemblik, Blad 15West Stavoren (noordhollands gedeelte), Blad 19West Alkmaar, Wageningen, DLO-Staring Centrum
Ruissen MA, van der Vossen RTM and Kocks CG (1993) Growth of Xanthomonas campestrispv. campestrispopulations at constant and variable temperatures. Netherlands Journal of Plant Pathology 99. Supplement 3: 173-179
Schaad NW and White WC (1974) Survival of Xanthomonas campestrisin soil. Phytopathology 64: 1518-1520
Schultz T and Gabrielson RL (1986) Xanthomonas campestrispv. campestrisinWesternWashington crucifer seed fields: Occurrence and survival. Phytopathology 76: 1306-1309
Shropshire LH and Kadow KJ (1936) Diseases and insect pests of cabbage and related plants. Identification and control. University of Illinois, College of Agriculture and Extension service in Agriculture and Home Economics. Circular 454
Shu H-H and Yang S-T (1990) Effects of temperature on cell growth and xanthan production in batch cultures of Xanthomonas campestris. Biotechnology and Bioengineering 35: 454-468
Stichting voor Bodemkartering (1973). Toelichting bij de kaartbladen 39 West en 39 Oost Rhenen, Wageningen
Tuitert G (1990) Assessment of the inoculum potential of Polymyxa betaeand beet necrotic yellow vein virus (BNYVV) in soil using the most probable number method. Netherlands Journal of Plant Pathology 96: 331-341
Van den Bosch F, Zadoks JC and Metz JAJ (1988) Focus expansion in plant disease I: The constant rate of focus expansion. Phytopathology 78: 54-58
Wagenaar K and Wallenbrug C (1987) Bodemkaart van Nederland 1: 50.000. Toelichting bij de kaartbladen Blad 19 Oost Alkmaar en 20 West Lelystad (noordhollands gedeelte), Wageningen, Stichting voor Bodemkartering
Walker JC (1923) The hot water treatment of cabbage seed. Phytopathology 13: 251-253
Walker JC. 1952. Disease of crucifers. In: Diseases of vegetable crops. JC Walker (ed) (pp 128-131) McGraw-Hill, New York
Walker JC, Larson RH and Taylor AL (1958) Diseases of cabbage and related plants. US Dept. Agric. Handb. No. 144
Williams PH (1980) Black rot: A continuing threat to world crucifers. Plant Disease 64: 736-742
Williams PH and Wade EK (1973) Recommendations for minimizing the threat of blackleg and black rot of cabbage. Control of Plant Diseases #78. Cooperative Extensive Programs. University of Wisconsin. Madison
Young CS, Letherbridge G, Shaw LJ and Burns RG (1995) Survival of inoculated Bacillus cereusspores and vegetative cells in non-planted and rhizosphere soil. Soil Biological Biochemistry 27: 1017-1026
Zadoks JC and Kampmeijer P (1977) The role of crop populations and their deployment, illustrated by means of a simulator, EPIMUL 6. Annals of the NewYork Academy of Sciences 287: 164-190
Zadoks JC and Schein RD, 1979. Epidemiology and plant disease management. Oxford University Press, New York
Zadoks JC and Van den Bosch F (1994) On spread of plant disease: A theory on foci. Annual Review of Phytopathology 32: 503-521
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Kocks, C., Ruissen, M., Zadoks, J. et al. Survival and Extinction of Xanthomonas campestris pv. campestris in Soil. European Journal of Plant Pathology 104, 911–923 (1998). https://doi.org/10.1023/A:1008685832604
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DOI: https://doi.org/10.1023/A:1008685832604