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浙江大学学报(农业与生命科学版)  2022, Vol. 48 Issue (4): 434-442    DOI: 10.3785/j.issn.1008-9209.2021.08.301
园艺科学     
不同功能肥料对基质栽培樱桃番茄的品质产量及基质环境的影响
谭洪吉(),高艳明(),李建设,魏文璐
宁夏大学农学院,银川 750021
Effects of different functional fertilizers on quality, yield and substrate environment of substrate-grown cherry tomatoes
Hongji TAN(),Yanming GAO(),Jianshe LI,Wenlu WEI
College of Agriculture, Ningxia University, Yinchuan 750021, China
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摘要:

为筛选基质栽培樱桃番茄生产中增产提质最优的功能肥料组合,以樱桃番茄‘香妃9号’为试验材料,设置7种不同的功能肥料组合,分别为空白对照(CK)、氨基酸(T1)、黄腐酸钾(T2)、海藻素(T3)、氨基酸+黄腐酸钾(T4)、氨基酸+海藻素(T5)、黄腐酸钾+海藻素(T6)。采用滴灌的方式施用功能肥料与营养液,研究不同功能肥料对基质栽培樱桃番茄品质、产量及基质环境的影响。结果表明:和CK相比,单独添加海藻素(T3)明显提高了樱桃番茄的净光合速率、胞间CO2浓度和产量,增幅分别为39.97%、6.61%、22.32%;T4和T5功能肥料组合不仅显著提高了基质中微生物的数量,脲酶、蔗糖酶、碱性磷酸酶、过氧化氢酶的活性,还显著提高了樱桃番茄的品质和产量,且产量增幅分别达20.16%、12.84%。对所有的测定指标进行综合评估,发现T5处理表现最好。综上所述,在营养液中添加50 mg/L氨基酸和5 mg/L海藻素,以滴灌方式栽培樱桃番茄,可达到改善基质环境、提高果实品质和产量的目的。

关键词: 樱桃番茄功能肥料光合特性品质产量基质环境    
Abstract:

In order to screen the optimal combination of functional fertilizers for increasing yield and improving quality in the production of substrate-grown cherry tomatoes, cherry tomato ‘Fragrant Feminine 9’ was used as the material, and seven different combinations of functional fertilizers were set up, including blank control (CK), amino acid (T1), potassium xanthate (T2), alginate (T3), amino acid+potassium xanthate (T4), amino acid+alginate (T5), and potassium xanthate+alginate (T6). The functional fertilizers and nutrient solution were applied by drip irrigation to study the effects of different functional fertilizers on quality, yield and substrate environment of substrate-grown cherry tomatoes. The results showed that compared with CK, the addition of alginate (T3) obviously increased the net photosynthetic rate, intercellular CO2 concentration and yield of cherry tomatoes by 39.97%, 6.61% and 22.32%, respectively. The combination of T4 and T5 functional fertilizers not only significantly increased microbial quantities, and the activities of urease, sucrase, alkaline phosphatase and catalase in the substrate, but also significantly improved the quality and yield of cherry tomatoes, with a yield increase by 20.16% and 12.84%, respectively. It was found that the T5 treatment performed the best by comprehensive evaluation. In conclusion, the substrate environment can be improved, and the fruit quality and yield can be increased by adding 50 mg/L amino acids and 5 mg/L alginate in the nutrient solution to cultivate cherry tomatoes using drip irrigation.

Key words: cherry tomato    functional fertilizer    photosynthetic traits    quality and yield    substrate environment
收稿日期: 2021-08-30 出版日期: 2022-09-03
CLC:  S 641.2  
基金资助: 宁夏回族自治区重点研发计划项目(2019BBF02008)
通讯作者: 高艳明     E-mail: 1304420236@qq.com;myangao@163.com
作者简介: 谭洪吉(https://orcid.org/0000-0002-7700-8495),E-mail:1304420236@qq.com
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引用本文:

谭洪吉,高艳明,李建设,魏文璐. 不同功能肥料对基质栽培樱桃番茄的品质产量及基质环境的影响[J]. 浙江大学学报(农业与生命科学版), 2022, 48(4): 434-442.

Hongji TAN,Yanming GAO,Jianshe LI,Wenlu WEI. Effects of different functional fertilizers on quality, yield and substrate environment of substrate-grown cherry tomatoes. Journal of Zhejiang University (Agriculture and Life Sciences), 2022, 48(4): 434-442.

链接本文:

https://www.zjujournals.com/agr/CN/10.3785/j.issn.1008-9209.2021.08.301        https://www.zjujournals.com/agr/CN/Y2022/V48/I4/434

化合物与大量元素

Compound and macroelement

NO3-NNH4+-NP2O5K2OCaMgS
c/(mmol/L)10.01.01.07.01.51.01.0

微量元素

Microelement

FeBMnZnCuMo
ρ/(mg/L)3.000.500.500.050.020.01
表1  营养液配方
处理 Treatment施肥方案1)Scheme of fertilizer application1)肥料来源 Fertilizer source
CK宁夏大学专用营养液
T1宁夏大学专用营养液+氨基酸50 mg/L山东绿陇生物科技有限公司
T2宁夏大学专用营养液+黄腐酸钾50 mg/L青岛百源生物工程有限公司
T3宁夏大学专用营养液+海藻素5 mg/L广东杰士农业科技有限公司
T4宁夏大学专用营养液+氨基酸50 mg/L+黄腐酸钾50 mg/L
T5宁夏大学专用营养液+氨基酸50 mg/L+海藻素5 mg/L
T6宁夏大学专用营养液+黄腐酸钾50 mg/L+海藻素5 mg/L
表2  不同试验处理方案及肥料来源

处理

Treatment

蒸腾速率

Transpiration rate/ (mmol/(m2·s))

净光合速率

Net photosynthetic rate/ (μmol/(m2·s))

胞间CO2浓度

Intercellular CO2concentration/(μmol/mol)

气孔导度

Stomatal conductance/ (mol/(m2·s))

CK3.258±0.742a14.410±0.911bc306.849±0.445ab0.254±0.070a
T13.541±0.999a14.257±1.337bc326.074±8.421a0.282±0.088a
T23.416±0.987a16.316±2.086b300.258±8.604ab0.256±0.083a
T34.863±1.407a20.170±0.645a327.128±6.889a0.399±0.132a
T43.312±0.625a14.531±0.237bc330.788±13.070a0.246±0.049a
T52.353±0.086a13.820±0.766bc286.157±12.140b0.171±0.009a
T62.326±0.682a11.820±1.742c291.246±12.756b0.174±0.056a
表3  不同处理对樱桃番茄叶片光合能力的影响

处理

Treatment

脲酶活性

Urease activity

碱性磷酸酶活性

Alkaline phosphatase activity

蔗糖酶活性

Sucrase activity

过氧化氢酶活性

Catalase activity

CK3.121±0.179d0.262±0.008c2.115±0.033d3.911±0.060d
T13.998±0.316bc0.275±0.009bc2.831±0.136ab4.067±0.061bcd
T24.350±0.172b0.289±0.004abc2.404±0.225bcd4.281±0.090ab
T33.715±0.104c0.298±0.010ab2.273±0.068cd4.017±0.053cd
T44.239±0.199bc0.306±0.012a2.982±0.031a4.266±0.054ab
T55.009±0.051a0.291±0.002ab2.614±0.242abc4.352±0.060a
T64.267±0.157bc0.308±0.010a2.836±0.070ab4.216±0.094abc
表4  不同处理对基质中酶活性的影响 (mg/(g·h))
图1  不同处理对基质微生物数量的影响短栅上不同小写字母表示同种微生物的不同处理间在P<0.05水平差异有统计学意义。

处理

Treatment

维生素C

Vitamin C/(mg/kg)

可溶性糖

Soluble sugar/%

硝酸盐

Nitrate/(mg/kg)

可溶性固形物

Soluble solid/%

糖酸比

Sugar to acid ratio

CK177.37±11.47d13.34±0.48b109.69±27.86a8.03±0.07d26.46±1.14c
T1203.46±3.84bcd12.97±0.09b107.07±7.82a8.23±0.03c26.87±0.51c
T2200.65±7.08cd13.69±0.11b84.50±17.92a8.10±0.10cd28.14±0.22bc
T3216.27±20.92bc15.57±0.25a94.06±14.11a8.63±0.03b32.68±1.05a
T4250.25±4.92a16.24±0.77a77.52±18.73a8.73±0.03b33.40±1.58a
T5262.97±5.32a15.40±0.15a94.42±33.12a9.07±0.03a30.54±0.43ab
T6236.23±8.93ab16.02±0.67a60.09±13.66a8.97±0.03a33.61±1.43a
表5  不同处理对果实品质的影响

处理

Treatment

单果质量

Mass of single fruit/g

产量

Yield/(kg/667 m2)

CK16.29±0.67ab6 151.84±256.31c
T117.59±0.30a7 421.47±207.96a
T215.78±0.22b7 496.84±227.46a
T317.57±0.19a7 525.21±196.08a
T416.25±0.66ab7 391.77±214.24a
T517.22±0.77ab6 941.70±211.15ab
T617.58±0.41a6 654.85±101.50bc
表6  不同处理对樱桃番茄产量的影响
图2  基质中微生物数量、酶活性与果实品质产量间相关性分析*和**分别表示在P<0.05和P<0.01水平显著和极显著相关(橙色标记处)。S1:脲酶;S2:碱性磷酸酶;S3:蔗糖酶;S4:过氧化氢酶;S5:细菌;S6:真菌;S7:放线菌;S8:维生素C;S9:可溶性糖;S10:硝酸盐;S11:可溶性固形物;S12:产量。

处理

Treatment

综合指标值

Comprehensive index value

隶属函数值

Membership function value

综合评价值

Comprehensive evaluation value

综合排名

Comprehensive ranking

F1F2F3F4U1U2U3U4
CK-4.37-2.24-0.95-0.180.000.000.070.400.047
T1-2.050.021.59-0.960.300.421.000.110.376
T2-0.590.031.270.960.490.420.880.820.534
T3-1.903.19-1.130.740.321.000.000.740.495
T42.741.610.09-1.270.930.710.450.000.762
T53.26-1.190.211.441.000.190.501.000.771
T62.91-1.42-1.08-0.730.950.150.020.200.633
表7  相关指标的主成分值、隶属函数值、综合评价值及综合排名
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