Accumulation of Nitrogen and Dry Matter by Soybean Seeds with Genetic Differences in Protein Concentration

Soybean [Glycine max (L.) Merrill] yields often decline as seed protein levels increase, but the processes responsible are not clearly understood. We compared dry matter and N accumulation by individual seeds of three high protein genotypes (K 1431, KS 4402sp, NE 3396) and three commercial cultivars...

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Veröffentlicht in:Crop science 2007-01, Vol.47 (1), p.359-366
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description Soybean [Glycine max (L.) Merrill] yields often decline as seed protein levels increase, but the processes responsible are not clearly understood. We compared dry matter and N accumulation by individual seeds of three high protein genotypes (K 1431, KS 4402sp, NE 3396) and three commercial cultivars (Pennyrile, Flyer, Hutcheson) in the field near Lexington, KY (38° 01' N lat; 84° 35' W long) for 3 yr to determine if increasing protein concentration decreased the seed growth rate. Plants were grown in 76.2-cm rows using conventional production practices and overhead irrigation to minimize soil moisture deficits. The rate of dry matter accumulation by individual seeds (SGR(DM)) varied from 4.2 to 6.1 mg seed-1 d-1 and this variation was closely associated with mature seed size, but it was not affected by seed N concentration. The rate of N accumulation (SGR(N), mg N seed-1 d-1) was closely associated with seed N concentration at maturity across all genotypes and years (r2 = 0.76). Thus, SGR(N) and SGR(DM) seemed to vary independently as the N concentration in mature seeds increased. The duration of seed filling (estimated by the effective filling period) was not related to mature seed N concentration. Since higher seed N concentration had no effect on the rate or duration of seed dry matter accumulation by individual seeds, the purported negative effect of seed protein levels on yield may be more closely associated with whole plant phenomena than those operating at the individual seed level.
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Merrill] yields often decline as seed protein levels increase, but the processes responsible are not clearly understood. We compared dry matter and N accumulation by individual seeds of three high protein genotypes (K 1431, KS 4402sp, NE 3396) and three commercial cultivars (Pennyrile, Flyer, Hutcheson) in the field near Lexington, KY (38° 01' N lat; 84° 35' W long) for 3 yr to determine if increasing protein concentration decreased the seed growth rate. Plants were grown in 76.2-cm rows using conventional production practices and overhead irrigation to minimize soil moisture deficits. The rate of dry matter accumulation by individual seeds (SGR(DM)) varied from 4.2 to 6.1 mg seed-1 d-1 and this variation was closely associated with mature seed size, but it was not affected by seed N concentration. The rate of N accumulation (SGR(N), mg N seed-1 d-1) was closely associated with seed N concentration at maturity across all genotypes and years (r2 = 0.76). 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Merrill] yields often decline as seed protein levels increase, but the processes responsible are not clearly understood. We compared dry matter and N accumulation by individual seeds of three high protein genotypes (K 1431, KS 4402sp, NE 3396) and three commercial cultivars (Pennyrile, Flyer, Hutcheson) in the field near Lexington, KY (38° 01' N lat; 84° 35' W long) for 3 yr to determine if increasing protein concentration decreased the seed growth rate. Plants were grown in 76.2-cm rows using conventional production practices and overhead irrigation to minimize soil moisture deficits. The rate of dry matter accumulation by individual seeds (SGR(DM)) varied from 4.2 to 6.1 mg seed-1 d-1 and this variation was closely associated with mature seed size, but it was not affected by seed N concentration. The rate of N accumulation (SGR(N), mg N seed-1 d-1) was closely associated with seed N concentration at maturity across all genotypes and years (r2 = 0.76). Thus, SGR(N) and SGR(DM) seemed to vary independently as the N concentration in mature seeds increased. The duration of seed filling (estimated by the effective filling period) was not related to mature seed N concentration. Since higher seed N concentration had no effect on the rate or duration of seed dry matter accumulation by individual seeds, the purported negative effect of seed protein levels on yield may be more closely associated with whole plant phenomena than those operating at the individual seed level.</abstract><cop>Madison, WI</cop><pub>Crop Science Society of America</pub><doi>10.2135/cropsci2006.02.0096</doi><tpages>8</tpages></addata></record>
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source Wiley Online Library All Journals; Alma/SFX Local Collection
subjects Accumulation
Agronomy. Soil science and plant productions
Amino acids
Biological and medical sciences
crop yield
Cultivars
Dry matter
dry matter accumulation
duration
Environmental conditions
field experimentation
filling period
Fundamental and applied biological sciences. Psychology
Generalities. Genetics. Plant material
Genetic resources, diversity
genetic variation
Genetics and breeding of economic plants
genotype
Genotypes
Glycine max
Growth rate
nitrogen content
nutrient uptake
Plant material
protein content
Regression analysis
seed development
Seeds
Soil moisture
Soybeans
Sprinkler systems
title Accumulation of Nitrogen and Dry Matter by Soybean Seeds with Genetic Differences in Protein Concentration
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