新疆农业科学 ›› 2021, Vol. 58 ›› Issue (12): 2282-2299.DOI: 10.6048/j.issn.1001-4330.2021.12.016
• 植物保护·园艺特产·土壤肥料·节水灌溉·农业生态环境·农业装备工程与机械化 • 上一篇 下一篇
陆亚楠1(), 高露1, 杨勇2, 万仲武2, 宋丽华1()
收稿日期:
2020-10-30
出版日期:
2021-12-20
发布日期:
2021-12-31
通信作者:
宋丽华
作者简介:
陆亚楠(1997-),女,硕士研究生,研究方向为森林培育、果树栽培,(E-mail) 2277614561@qq.com
基金资助:
LU Yanan1(), GAO Lu1, YANG Yang2, WAN Zhongwu2, SONG Lihua1()
Received:
2020-10-30
Online:
2021-12-20
Published:
2021-12-31
Correspondence author:
SONG Lihua
Supported by:
摘要: 目的 研究灵武长枣优质高效的培肥措施,提高果实品质和果实产量。方法 采用行间生草与树盘覆盖交叉处理,生草草种选用白三叶和黑麦草,树盘处理采用覆盖园艺地布、覆盖稻草、清耕3种模式,以全园清耕为对照,测定枣园果实性状及其产量,分析不同培肥模式对灵武长枣种植园土壤特性和果实性状的影响。结果 与全园清耕相比,行间种植黑麦草、树盘覆盖稻草组合模式可增加果实纵径、提高果实硬度(2.22%)及其产量(38.01%)。行间种植白三叶、树盘覆盖稻草组合模式可有效提高坐果率(66.17%)、可溶性固形物含量(21.95%)和类黄酮含量(29.79%);行间种植黑麦草、树盘覆盖稻草组合模式可降低土壤容重,增加土壤整体孔隙度。行间种植白三叶、树盘覆盖园艺地布组合模式可提高0~20 cm土层的速效磷含量17.68 mg/kg,土壤整体碱解氮含量增加53.44 mg/kg、土壤孔隙度提高了0.09%。行间种植白三叶、树盘覆盖稻草组合模式可提高土壤碱解氮含量52.78 mg/kg、增加土壤整体有效磷含量1.78 mg/kg。结论 行间种植白三叶、树盘覆盖稻草和行间种植黑麦草、树盘覆盖园艺地布2种组合模式可提高灵武长枣果实品质。“黑麦草+稻草”模式降低土壤容重、增加土壤整体孔隙度;“白三叶+稻草”模式提高土壤速效钾、有效磷、碱解氮含量。
中图分类号:
陆亚楠, 高露, 杨勇, 万仲武, 宋丽华. 不同培肥模式对灵武长枣种植园土壤特性和果实品质与产量的影响[J]. 新疆农业科学, 2021, 58(12): 2282-2299.
LU Yanan, GAO Lu, YANG Yang, WAN Zhongwu, SONG Lihua. Effects of Different Fertilization Models on Soil Characteristics and Fruit Characters of Ziziphus jujube cv. Lingwuchangzao[J]. Xinjiang Agricultural Sciences, 2021, 58(12): 2282-2299.
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
pH | 0~20 | 0.12±0.003ab | 0.07±0.004bc | -0.01±0.003cd | 0.07±0.003bc | 0.04±0.003c | 0.14±0.003a | -0.04±0.003d |
20~40 | -0.12±0.004cd | -0.07±0.006cd | 0.07±0.006a | -0.04±0.002bc | -0.14±0.006d | 0.04±0.004ab | -0.07±0.003cd | |
40~60 | 0.07±0.004b | -0.15±0.002c | -0.10±0.003c | 0.05±0.002b | 0.25±0.005a | 0.03±0.003b | -0.10±0.002c | |
0~60 | 0.02±0.001bc | -0.05±0.001d | -0.01±0.002c | 0.02±0.005bc | 0.05±0.017ab | 0.07±0.006a | -0.07±0.004d |
表1 不同培肥模式下灵武长枣园土壤pH的变化
Table 1 Changes of soil pH in Lingwuchangzao plantation under different fertilization models
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
pH | 0~20 | 0.12±0.003ab | 0.07±0.004bc | -0.01±0.003cd | 0.07±0.003bc | 0.04±0.003c | 0.14±0.003a | -0.04±0.003d |
20~40 | -0.12±0.004cd | -0.07±0.006cd | 0.07±0.006a | -0.04±0.002bc | -0.14±0.006d | 0.04±0.004ab | -0.07±0.003cd | |
40~60 | 0.07±0.004b | -0.15±0.002c | -0.10±0.003c | 0.05±0.002b | 0.25±0.005a | 0.03±0.003b | -0.10±0.002c | |
0~60 | 0.02±0.001bc | -0.05±0.001d | -0.01±0.002c | 0.02±0.005bc | 0.05±0.017ab | 0.07±0.006a | -0.07±0.004d |
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
容重 (g/cm3) | 0~20 | -0.08±0.002d | -0.07±0.001d | -0.07±0.001d | 0.04±0.001b | -0.09±0.002d | -0.05±0.002c | 0.10±0.0001a |
20~40 | -0.11±0.001c | -0.06±0.002b | -0.04±0.001b | 0.02±0.001a | -0.17±0.004d | -0.17±0.003d | 0.06±0.001a | |
0~40 | -0.09±0.002d | -0.06±0.002c | -0.06±0.002c | 0.03±0.002b | -0.13±0.006e | -0.11±0.007d | 0.08±0.003a |
表2 不同培肥模式下灵武长枣园土壤容重变化
Table 2 Changes of soil bulk density in Lingwuchangzao plantation under different fertilization models
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
容重 (g/cm3) | 0~20 | -0.08±0.002d | -0.07±0.001d | -0.07±0.001d | 0.04±0.001b | -0.09±0.002d | -0.05±0.002c | 0.10±0.0001a |
20~40 | -0.11±0.001c | -0.06±0.002b | -0.04±0.001b | 0.02±0.001a | -0.17±0.004d | -0.17±0.003d | 0.06±0.001a | |
0~40 | -0.09±0.002d | -0.06±0.002c | -0.06±0.002c | 0.03±0.002b | -0.13±0.006e | -0.11±0.007d | 0.08±0.003a |
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
孔隙度 (%) | 0~20 | 0.07±0.001a | 0.02±0.001b | 0.06±0.002ab | 0.03±0.001ab | 0.06±0.004ab | 0.05±0.002ab | -0.09±0.002c |
20~40 | 0.11±0.002b | 0.01±0.001c | 0.03±0.001c | 0.02±0.001c | 0.10±0.002b | 0.15±0.003a | -0.03±0.001d | |
0~40 | 0.09±0.002a | 0.02±0.001b | 0.04±0.002b | 0.02±0.002b | 0.08±0.003a | 0.10±0.006a | -0.06±0.004c |
表3 不同培肥模式下灵武长枣园土壤孔隙度变化
Table 3 Changes of soil porosity in Lingwuchangzao plantation under different fertilization models
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
孔隙度 (%) | 0~20 | 0.07±0.001a | 0.02±0.001b | 0.06±0.002ab | 0.03±0.001ab | 0.06±0.004ab | 0.05±0.002ab | -0.09±0.002c |
20~40 | 0.11±0.002b | 0.01±0.001c | 0.03±0.001c | 0.02±0.001c | 0.10±0.002b | 0.15±0.003a | -0.03±0.001d | |
0~40 | 0.09±0.002a | 0.02±0.001b | 0.04±0.002b | 0.02±0.002b | 0.08±0.003a | 0.10±0.006a | -0.06±0.004c |
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
碱解氮 (mg/kg) | 0~20 | 56.67±1.15a | 18.33±1.53c | 26.00±1.46b | -11.67±1.53e | -14.00±1.00e | 1.67±0.08d | -14.00±1.00e |
20~40 | 39.67±2.52c | 70.00±0.03a | 14.00±0.02e | -2.67±0.02f | 21.67±1.53d | 42.00±0.04b | -14.00±0.03g | |
40~60 | 64.00±0.04b | 70.00±0.02a | 24.67±1.53e | -14.00±0.02f | 43.67±0.58c | 29.33±0.58d | -14.00±0.02f | |
0~60 | 53.44±1.90a | 52.78±1.84a | 21.56±2.00c | -9.44±1.29e | 17.11±1.22d | 24.33±1.90b | -14.00±0.50f |
表4 不同培肥模式下灵武长枣园土壤碱解氮含量变化
Table 4 Changes of N in Lingwuchangzao plantation under different fertilization modes
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
碱解氮 (mg/kg) | 0~20 | 56.67±1.15a | 18.33±1.53c | 26.00±1.46b | -11.67±1.53e | -14.00±1.00e | 1.67±0.08d | -14.00±1.00e |
20~40 | 39.67±2.52c | 70.00±0.03a | 14.00±0.02e | -2.67±0.02f | 21.67±1.53d | 42.00±0.04b | -14.00±0.03g | |
40~60 | 64.00±0.04b | 70.00±0.02a | 24.67±1.53e | -14.00±0.02f | 43.67±0.58c | 29.33±0.58d | -14.00±0.02f | |
0~60 | 53.44±1.90a | 52.78±1.84a | 21.56±2.00c | -9.44±1.29e | 17.11±1.22d | 24.33±1.90b | -14.00±0.50f |
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
有效磷 (mg/kg) | 0~20 | 17.68±0.82a | -17.54±0.98g | -6.88±0.85e | -16.10±0.52f | 9.10±0.60c | 6.02±1.02d | 13.99±0.70b |
20~40 | -27.88±0.91e | 19.97±0.88a | 9.02±0.23b | -47.83±0.71g | -35.58±0.86f | -4.09±0.76c | -16.54±0.65d | |
40~60 | -0.36±0.01b | 1.58±0.26a | -24.13±0.59e | -23.50±1.07e | -27.30±0.46f | -12.67±0.64c | -16.60±0.51d | |
0~60 | -3.52±0.88b | 1.34±0.26a | -7.33±0.37d | -29.14±0.39f | -17.93±0.59e | -3.58±0.13b | -6.38±0.29c |
表5 不同培肥模式下灵武长枣园土壤有效磷含量变化
Table 5 Changes of P in Lingwuchangzao plantation under different fertilization models
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
有效磷 (mg/kg) | 0~20 | 17.68±0.82a | -17.54±0.98g | -6.88±0.85e | -16.10±0.52f | 9.10±0.60c | 6.02±1.02d | 13.99±0.70b |
20~40 | -27.88±0.91e | 19.97±0.88a | 9.02±0.23b | -47.83±0.71g | -35.58±0.86f | -4.09±0.76c | -16.54±0.65d | |
40~60 | -0.36±0.01b | 1.58±0.26a | -24.13±0.59e | -23.50±1.07e | -27.30±0.46f | -12.67±0.64c | -16.60±0.51d | |
0~60 | -3.52±0.88b | 1.34±0.26a | -7.33±0.37d | -29.14±0.39f | -17.93±0.59e | -3.58±0.13b | -6.38±0.29c |
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
速效钾 (mg/kg) | 0~20 | -34.39±0.51e | -26.45±1.90d | 16.76±1.07a | -49.82±0.25g | -18.28±2.30c | -40.23±1.01f | -3.52±0.43b |
20~40 | -41.82±1.04f | -30.71±1.43d | -23.55±0.10c | -39.48±0.32e | -6.66±0.80b | -24.80±1.58c | 7.14±0.70a | |
40~60 | -55.77±0.19g | -1.11±0.06c | -12.81±0.43d | -34.71±0.27e | 1.94±0.15b | -43.38±1.25f | 23.78±1.38a | |
0~60 | -43.99±1.42g | -19.42±1.91d | -6.53±1.09b | -41.34±1.70f | -7.67±1.88c | -36.14±1.69e | 9.13±0.95a |
表6 不同培肥模式下灵武长枣园土壤速效钾含量变化
Table 6 Changes of K in Lingwuchangzao plantation under different fertilization modes
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
速效钾 (mg/kg) | 0~20 | -34.39±0.51e | -26.45±1.90d | 16.76±1.07a | -49.82±0.25g | -18.28±2.30c | -40.23±1.01f | -3.52±0.43b |
20~40 | -41.82±1.04f | -30.71±1.43d | -23.55±0.10c | -39.48±0.32e | -6.66±0.80b | -24.80±1.58c | 7.14±0.70a | |
40~60 | -55.77±0.19g | -1.11±0.06c | -12.81±0.43d | -34.71±0.27e | 1.94±0.15b | -43.38±1.25f | 23.78±1.38a | |
0~60 | -43.99±1.42g | -19.42±1.91d | -6.53±1.09b | -41.34±1.70f | -7.67±1.88c | -36.14±1.69e | 9.13±0.95a |
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
有机质 (g/kg) | 0~20 | -0.42±0.08b | -6.44±0.06d | -7.71±0.73d | -3.47±0.78c | -3.22±0.96c | 2.88±0.47a | -1.10±0.15b |
20~40 | -4.75±0.15d | -4.41±0.06cd | -8.39±0.25e | -3.14±0.64c | -8.22±0.39e | -1.78±0.44b | 1.70±0.03a | |
40~60 | -6.53±0.59d | -5.85±0.01cd | -6.19±0.65cd | -5.42±0.15cd | -4.92±0.59bc | -3.64±0.29b | 4.24±0.29a | |
0~60 | -3.90±0.82c | -5.57±0.18e | -7.43±0.34f | -4.01±0.31c | -5.45±0.28d | -0.85±0.01b | 1.61±0.35a |
表7 不同培肥模式下灵武长枣园土壤有机质含量变化
Table 7 Changes of soil organic matter content in Lingwuchangzao plantation under different fertilization models
项目 | 土层深度 (cm) | BY | BD | BQ | HY | HD | HQ | CK |
---|---|---|---|---|---|---|---|---|
有机质 (g/kg) | 0~20 | -0.42±0.08b | -6.44±0.06d | -7.71±0.73d | -3.47±0.78c | -3.22±0.96c | 2.88±0.47a | -1.10±0.15b |
20~40 | -4.75±0.15d | -4.41±0.06cd | -8.39±0.25e | -3.14±0.64c | -8.22±0.39e | -1.78±0.44b | 1.70±0.03a | |
40~60 | -6.53±0.59d | -5.85±0.01cd | -6.19±0.65cd | -5.42±0.15cd | -4.92±0.59bc | -3.64±0.29b | 4.24±0.29a | |
0~60 | -3.90±0.82c | -5.57±0.18e | -7.43±0.34f | -4.01±0.31c | -5.45±0.28d | -0.85±0.01b | 1.61±0.35a |
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