Effect of soil cadmium application and pH on growth and cadmium accumulation in roots, leaves and fruit of strawberry plants (Fragaria x ananassa Duch)

被引:43
作者
Cieslinski, G [1 ]
Neilsen, GH [1 ]
Hogue, EJ [1 ]
机构
[1] RES INST POMOL & FLORICULTURE,PL-96100 SKIERNIEWICE,POLAND
关键词
bioaccumulation; cadmium; Fragaria ananassa; soil pH;
D O I
10.1007/BF00015310
中图分类号
S3 [农学(农艺学)];
学科分类号
0901 ;
摘要
Three strawberry (Fragaria x ananassa Duch.) cultivars Rainier, Totem and Selva were grown under greenhouse conditions in a Parkhill sandy loam soil with a background DTPA-extractable Cd concentration of 0.18 mg kg(-1) and a pH of 5.1. Experimental treatments included combinations of 4 Cd applications (0, 15, 30 and 60 mg Cd kg(-1) soil) applied as CdSO4 and 2 soil pH values 5.1 and 6.8. Both the application of Cd and pH of the soil significantly affected plant growth, yield and Cd accumulation in plant tissue and fruit. Although roots accumulated the highest concentrations of Cd of all plant parts investigated, increased soil Cd application reduced leaf weight more than root weight. In general, yield of strawberries was decreased by an increase in amount of soil-applied Cd, however the yield response varied among cultivars. At 60 mg Cd kg(-1) soil, yield of Rainier cultivar was reduced to 17.6% of control plants. Over 90% of total Cd taken up by plants grown in Cd-treated soil accumulated in roots, regardless of the Cd level in the soil. Root Cd concentrations ranged from 2.6 mg kg(-1) (control plants) to 505.7 mg kg(-1) (Totem plants grown in soil at highest Cd and a soil pH 5.1) and were directly related to soil Cd concentrations. Cd translocation from roots to leaves and fruit was very limited, resulting in a maximum Cd concentration in root leaf tissue of 10.2 mg kg(-1). Accumulation of Cd in fruit was found to correlate well with leaf Cd, although even at the highest amount of applied Cd, fruit Cd concentration did not exceed 700 mu g kg(-1) of fresh weight.
引用
收藏
页码:267 / 276
页数:10
相关论文
共 34 条
[1]  
Alloway B. J., 1984, Trace substances in environmental health. Proceedings XVIII Annual Conference, P187
[2]  
BAKER AJM, 1990, 4 INT C ENV CONT BAR, P23
[3]   AMMONIUM BICARBONATE-DTPA AND DTPA EXTRACTIONS OF SLUDGE-AMENDED SOILS [J].
BARBARICK, KA ;
WORKMAN, SM .
JOURNAL OF ENVIRONMENTAL QUALITY, 1987, 16 (02) :125-130
[4]   YIELD AND CADMIUM CONTENT OF RICE GRAIN IN RELATION TO ADDITION RATES OF CADMIUM, COPPER, NICKEL, AND ZINC WITH SEWAGE-SLUDGE AND LIMING [J].
BINGHAM, FT ;
PAGE, AL ;
STRONG, JE .
SOIL SCIENCE, 1980, 130 (01) :32-38
[5]  
BRAUMEMER GW, 1986, PFLANZENNAHR BODENKD, V49, P328
[6]  
CAMERLYNCK R, 1983, ESSENTIAL NONESSENTI, P58
[7]   EFFECT OF HEAVY-METALS ON PLANTS .2. NET PHOTOSYNTHESIS AND TRANSPIRATION OF WHOLE CORN AND SUNFLOWER PLANTS TREATED WITH PB, CD, NI, AND TL [J].
CARLSON, RW ;
BAZZAZ, FA ;
ROLFE, GL .
ENVIRONMENTAL RESEARCH, 1975, 10 (01) :113-120
[8]   EFFECT OF SOIL APPLICATION OF CADMIUM CONTAMINATED LIME ON SOIL CADMIUM DISTRIBUTION AND CADMIUM CONCENTRATION IN STRAWBERRY LEAVES AND FRUIT [J].
CIESLINSKI, G ;
MERCIK, S ;
NIELSEN, G .
JOURNAL OF PLANT NUTRITION, 1994, 17 (07) :1095-1110
[9]  
CIESLINSKI G, 1995, ACTA HORTIC, V383, P47
[10]   INHIBITION OF PHOTOSYNTHESIS BY HEAVY-METALS [J].
CLIJSTERS, H ;
VANASSCHE, F .
PHOTOSYNTHESIS RESEARCH, 1985, 7 (01) :31-40