渭北旱塬豆科绿肥提高冬小麦籽粒锌的效应与影响因素研究

doi:10.3864/j.issn.0578-1752.2018.21.003

Abstract

Abstract:

【Objective】Weibei Highland is one of important winter wheat production areas in northwest China, where Zn concentration in wheat grain are generally low due to soil bioavailable Zn deficiency. So we decided to study leguminous green manure-wheat rotations whether could improve wheat Zn concentration in different regions of Weibei Highland, and to explore the factors affecting wheat Zn biofortification by leguminous green manure-wheat rotations.【Method】Two field experiments were carried out during 2016-2017 cropping seasons in Yongshou and Changwu with a completely randomized block design. There were three main treatments: Summer fallow-wheat (FW) as CK, black kidney bean-wheat (KW) and mung bean-wheat (MW) in Yongshou; Summer fallow-wheat (FW) as CK, huai bean-wheat (HW) and mung bean-wheat (MW) in Changwu. Plant samples of legumes, wheat and 0-20 cm soil samples at different wheat growing stages were collected for chemical analysis. 【Result】 In Yongshou, compare with FW, wheat grain yield and biomass were decreased by 19.2%-38.3% under leguminous green manure-wheat rotations,. In Changwu, leguminous green manure-wheat rotations did not significantly reduce wheat grain yield, but reduced wheat glumes and straw biomass by 19.9%-33.2%. KW rotation in Yongshou and HW rotation in Changwu significantly increased grain Zn concentration by 14.2% and 18.6%, respectively, which partially compensated the potential reduction of wheat grain Zn export and aboveground shoot Zn uptake by increasing Zn concentrations of wheat grain and straw Zn concentration due to the shrink of wheat yield and biomass. There was no significant difference of wheat Zn uptake between HW and FW treatments in Changwu. Wheat grain Zn concentration was positively correlated with leguminous manure shoot Zn uptake. Wheat grain Zn concentration increases 0.23 mg·kg ^-1 when green manure shoot Zn uptake increases 1.0 g·hm ^-2, correspondingly. Besides, the Zn, N content of black kidney bean and huai bean were both higher than that of mung bean. Moreover, compared with mung bean, C/N of black kidney bean and huai bean were lower by 18.6% and 20.4%, respectively. At wheat maturity stage, soil nitrate of KW and HW rotations were both higher than that of FW by 36.7% and 69.1%, respectively. Leguminous green manure-wheat rotations had rarely significant effect on soil DTPA-Zn concentration during the growth of wheat.【Conclusion】Relatively higher Zn and N content and lower in C/N of black kidney bean and huai bean made them more readily improved subsequently wheat Zn uptake and accumulation than that of mung bean. The positive correlation between wheat grain Zn concentration and leguminous green manure shoot Zn uptake could be the guidance for screening and optimizing green manure varieties for wheat Zn biofortification. Therefore, leguminous green manure-wheat rotations could be an effective biofortification method to enhance wheat Zn nutrition for residents which suffered from Zn deficiency.

Key words: Weibei highland, leguminous green manure, rotation, winter wheat, grain, Zn concentration

YiXuan LIU,DongLin HUANG,Na LIU,ZhiYuan YAO,Dan YIN,YuanYong MENG,HuBing ZHAO,YaYun GAO,ZhaoHui WANG. The Increasing Effect and Influencing Factors of Leguminous Green Manure on Wheat Grain Zn in Weibei Highland[J].Scientia Agricultura Sinica, 2018, 51(21): 4030-4039.

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References 36

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地点 Site	有机质 Organic matter (g·kg^-1)	全氮 Total N (g·kg^-1)	有效磷 Olsen-P (mg·kg^-1)	速效钾 Available K (mg·kg^-1)	矿质氮Inorganic nitrogen		DTPA-Zn (mg·kg^-1)	pH
地点 Site	有机质 Organic matter (g·kg^-1)	全氮 Total N (g·kg^-1)	有效磷 Olsen-P (mg·kg^-1)	速效钾 Available K (mg·kg^-1)	NO^3--N (mg·kg^-1)	NH⁴⁺-N (mg·kg^-1)	DTPA-Zn (mg·kg^-1)	pH
永寿县Yongshou	12.92	0.82	11.2	134.0	11.9	4.75	0.44	8.5
长武县Changwu	11.80	0.77	4.5	131.9	13.1	2.55	0.33	8.1

地点 Site	处理 Treatment	籽粒产量 Grain yield (kg·hm^-2)	颖壳生物量 Glume biomass (kg·hm^-2)	茎叶生物量 Stem biomass (kg·hm^-2)	地上部生物量 Shoot biomass (kg·hm^-2)	收获指数 Harvest index (%)
永寿 Yongshou	休闲—小麦FW	4272a	1373a	5008a	10652a	40.5a
永寿 Yongshou	黑麦豆—小麦KW	3053b	854b	3092b	6999b	43.8a
	绿豆—小麦MW	3452b*	984 ab*	3698b*	8135b*	42.5a
	平均Mean	3592	1070	3933	8595	42.3
长武 Changwu	休闲—小麦FW	2624a	967a	3444a	7036a	37.3a
长武 Changwu	怀豆—小麦HW	2291a	759b	2583b	5633b	40.6a
	绿豆—小麦MW	2246a	646b	2547b	5458b	40.9a
	平均Mean	2387	791	2858	6042	39.6

地点 Site	处理 Treatments	锌累积量 Zn content (g·hm^-2)				锌收获指数 Zn harvest index (%)
地点 Site	处理 Treatments	籽粒 Grain	颖壳 Glume	茎叶 Stem	地上部 Shoot	锌收获指数 Zn harvest index (%)
永寿 Yongshou	休闲—小麦FW	92.3a	6.0a	25.7a	124.0a	74.8a
永寿 Yongshou	黑麦豆—小麦KW	71.0c	4.8a	17.9a	93.8c	75.7a
	绿豆—小麦MW	78.3b*	5.7a*	24.3a*	108.3b*	72.3a
	平均Mean	80.5	5.5	22.7	108.7	74.3
长武 Changwu	休闲—小麦FW	40.8a	4.1a	9.9a	54.9a	74.5a
长武 Changwu	怀豆—小麦KW	42.6a	3.7a	11.0a	57.3a	74.3a
	绿豆—小麦MW	36.9a	2.8a	7.9a	47.6a	77.3a
	平均Mean	40.1	3.5	9.6	53.2	75.4

地点 Site	处理 Treatment	生物量 Biomass (kg·hm^-2)	锌含量 Zn concentration (mg·kg^-1)	锌吸收量 Zn uptake (g·hm^-2)	C/N	氮含量 N concentration (g·kg^-1)	氮吸收量 N uptake (kg·hm^-2)
永寿 Yongshou	黑麦豆—小麦KW	1886a	21.9b	41.4a	13.1b	33.5a	63.2a
永寿 Yongshou	绿豆—小麦 MW	1520 b	25.2a*	38.5a*	16.1a	26.0b	39.5b
长武 Changwu	怀豆—小麦 KW	1242a	20.4a	25.4a	13.3b	32.8a	40.8a
长武 Changwu	绿豆—小麦MW	1294a	13.6b	17.7a	16.7a	25.4b	32.7a

地点 Site	处理 Treatment	土壤有效锌含量DTPA-Zn			土壤硝态氮含量NO₃^--N content
地点 Site	处理 Treatment	绿肥翻压前 GMI	小麦播前 SOW	小麦收获期 MAT	小麦播前 SOW	小麦收获期 MAT
永寿 Yongshou	休闲—小麦FW	0.23b	0.23a	0.52a	9.2a	3.0b
永寿 Yongshou	黑麦豆—小麦KW	0.29ab	0.27a	0.44a	8.8a	4.1a
	绿豆—小麦MW	0.30a	0.29a	0.47a	5.0b	3.6ab
	平均Mean	0.28	0.26	0.48	7.7	3.6
长武 Changwu	休闲—小麦FW	0.36a	0.34a	0.47a	15.3a	9.7b
长武 Changwu	怀豆—小麦HW	0.35a	0.37a	0.45a	14.6a	16.4a
	绿豆—小麦MW	0.34a	0.39a	0.44a	16.4a*	13.2ab*
	平均Mean	0.35	0.37	0.45	15.4	13.1

The Increasing Effect and Influencing Factors of Leguminous Green Manure on Wheat Grain Zn in Weibei Highland

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