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韩国农业土壤的化学变化:数据综述与建议对策

Chemical changes in agricultural soils of Korea: data review and suggested countermeasures.

作者信息

Jo I S, Koh M H

机构信息

National Institute of Agricultural Science and Technology, 249, Seodundong Gweonseongu Suwon 441-707, Republic of Korea.

出版信息

Environ Geochem Health. 2004 Jun-Sep;26(2-3):105-17. doi: 10.1023/b:egah.0000039573.05245.cc.

DOI:10.1023/b:egah.0000039573.05245.cc
PMID:15499766
Abstract

The monitoring of chemical properties, including heavy metals, in soils is necessary if better management and remediation practices are to be established for polluted soils. The National Institute of Agricultural Science and Technology initiated a monitoring study that investigated fertility and heavy metal contents of the benchmarked soils. The study covered paddy soils, upland soils, and horticultural soils in the plastic film houses, and orchard soils throughout the Korea from 1990 to 1998. Likewise, 4047 samples of paddy and 2534 samples of plastic house in 1999 and 2000 were analyzed through the Soil Environment Conservation Act. Soil chemical properties such as pH, organic matter, available phosphate and extractable calcium, magnesium and potassium contents, and heavy metal contents such as cadmium, copper, lead, zinc, arsenic, mercury, and cobalt contents were analyzed. The study showed that the average contents of organic matter, available phosphate, and extractable potassium rapidly increased in plastic house soils than in upland or paddy soils. Two kinds of fertilizer recommendation systems were established for the study: the standard levels by national soil average data for 77 crops and the recommendation by soil test for 70 crops. Standard nitrogen fertilizer application levels for cereal crops changed from 94 kg/ha in 1960s, 99 kg/ha in 1970s, 110 kg/ha in 1980s to 90 kg/ha in 1990s. The K2O-fertilizer also changed from 67 kg/ha in 1960s, 76 kg/ha in 1970s, 92 kg/ha in 1980s, and only 44 kg/ha in 1990s. In rice paddy fields, the average contents of Cd, Cu, Pb, and Zn in surface soils (0-15 cm depth) were 0.11 mg kg(-1) (ranged from 0 to 1.01), 4.70 mg kg(-1) (0-41.59), 4.84 mg kg(-1) (0-66.44), and 4.47 mg kg(-1) (0-96.70), respectively. In the uplands, the average contents of Cd, Cu, Pb, Zn, and As in surface soils (0-15 cm depth) were 0.135 mg kg(-1) (ranged from 0 to 0.660), 2.77 mg kg(-1) (0.07-78.24), 3.47 mg kg(-1) (0-43.00), 10.70 mg kg(-1) (0.30-65.10), and 0.57 mg kg(-1) (0.21-2.90), respectively. In plastic film houses, the average contents of Cd, Cu, Pb, Zn, and As in surface soil were 0.12 mg kg(-1) (ranging from 0 to 1.28), 4.82 mg kg(-1) (0-46.50), 2.68 mg kg(-1) (0-46.50), 31.19 mg kg(-1) (0.19-252.0), and 0.36 mg kg(-1) (0-4.98), respectively. In orchard fields, the average contents of Cd, Cu, Pb, Zn, As, and Hg in surface soils (0-20 cm depth) were 0.11 mg kg(-1) (ranged from 0-0.49), 3.62 mg kg(-1) (0.03-45.30), 2.30 mg kg(-1) (0-27.80), 16.60 mg kg(-1) (0.33-105.50), 0.44 mg kg(-1) (0-4.14), and 0.05 mg kg(-1) (0.01-0.54), respectively. For polluted soils with over the warning content levels of heavy metals, fine red earth application, land reconsolidation and soil amelioration such as lime, phosphate, organic manure, and submerging were recommended. For the countermeasure areas, cultivation of non-edible crops such as garden trees, flowers, and fiber crops; land reformation; and heavy application of fine red earth (up to 30 cm) were strongly recommended. Land use techniques should be changed to be harmonious with the environment to increase yield and income. Soil function characteristics should be taken into account.

摘要

若要为污染土壤制定更好的管理和修复措施,就有必要对土壤中的化学性质(包括重金属)进行监测。韩国农业科学技术研究院开展了一项监测研究,调查了基准土壤的肥力和重金属含量。该研究涵盖了1990年至1998年韩国各地的稻田土壤、旱地土壤、塑料薄膜温室中的园艺土壤以及果园土壤。同样,根据《土壤环境保护法》对1999年和2000年采集的4047份稻田土壤样本和2534份塑料温室土壤样本进行了分析。分析了土壤的化学性质,如pH值、有机质、有效磷以及可提取的钙、镁和钾含量,还分析了重金属含量,如镉、铜、铅、锌、砷、汞和钴的含量。研究表明,塑料温室土壤中有机质、有效磷和可提取钾的平均含量比旱地或稻田土壤中的增长迅速。该研究建立了两种肥料推荐系统:一种是根据77种作物的全国土壤平均数据得出的标准水平,另一种是针对70种作物的土壤测试推荐。谷类作物的标准氮肥施用量从20世纪60年代的94千克/公顷,70年代的99千克/公顷,80年代的110千克/公顷,降至90年代的90千克/公顷。钾肥施用量也从20世纪60年代的67千克/公顷,70年代的76千克/公顷,80年代的92千克/公顷,降至90年代的44千克/公顷。在稻田中,表层土壤(0至15厘米深度)中镉、铜、铅和锌的平均含量分别为0.11毫克/千克(范围为0至1.01)、4.70毫克/千克(0至41.59)、4.84毫克/千克(0至66.44)和4.47毫克/千克(0至96.70)。在旱地中,表层土壤(0至15厘米深度)中镉、铜、铅、锌和砷的平均含量分别为0.135毫克/千克(范围为0至0.660)、2.77毫克/千克(0.07至78.24)、3.47毫克/千克(0至43.00)、10.70毫克/千克(0.30至65.10)和0.57毫克/千克(0.21至2.90)。在塑料薄膜温室中,表层土壤中镉、铜、铅、锌和砷的平均含量分别为0.12毫克/千克(范围为0至1.28)、4.82毫克/千克(0至46.50)、2.68毫克/千克(0至46.50)、31.19毫克/千克(0.19至252.0)和0.36毫克/千克(0至4.98)。在果园中,表层土壤(0至20厘米深度)中镉、铜、铅、锌、砷和汞的平均含量分别为0.11毫克/千克(范围为0至0.49)、3.62毫克/千克(0.03至45.30)、2.30毫克/千克(0至27.80)、16.60毫克/千克(0.33至105.50)、0.44毫克/千克(0至4.14)和0.05毫克/千克(0.01至0.54)。对于重金属含量超过警戒水平的污染土壤,建议施用细红土、进行土地整理以及采用石灰、磷肥、有机肥和淹水等土壤改良措施。对于对策区域,强烈建议种植非食用作物,如园林树木、花卉和纤维作物;进行土地改良;大量施用细红土(厚度达30厘米)。应改变土地利用技术,使其与环境相协调,以提高产量和收入。应考虑土壤功能特性。

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