土肥高效利用国家工程研究中心, 山东农业大学资源与环境学院,山东,泰安,271018
[ "刘平安(2000—), 男, 硕士研究生, 主要从事植物营养与肥料研究。E-mail: 19860936858@163.com" ]
纸质出版:2025
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刘平安, 胡晓敏, 陈思宇, 等. 包膜氯化钾对土壤养分供应强度及玉米产量、品质的影响[J]. 水土保持学报, 2025,39(1):199-207.
LIU Pingan, HU Xiaomin, CHEN Siyu, et al. Effects of Coated Potassium Chloride on Soil Nutrient Supply Intensity, Maize Yield and Quality[J]. 2025, 39(1): 199-207.
刘平安, 胡晓敏, 陈思宇, 等. 包膜氯化钾对土壤养分供应强度及玉米产量、品质的影响[J]. 水土保持学报, 2025,39(1):199-207. DOI: 10.13870/j.cnki.stbcxb.2025.01.018.
LIU Pingan, HU Xiaomin, CHEN Siyu, et al. Effects of Coated Potassium Chloride on Soil Nutrient Supply Intensity, Maize Yield and Quality[J]. 2025, 39(1): 199-207. DOI: 10.13870/j.cnki.stbcxb.2025.01.018.
目的控释氯化钾可实现钾离子缓慢释放与作物吸收相同步,同时保证钾离子在土壤中的有效性,满足作物生育后期对钾素的需求,显著提高钾肥利用率。探究长期施用控释氯化钾及其掺混肥料对玉米产量及品质的影响,为实现玉米高质量生产提供技术支持。方法基于控释氯化钾应用于夏玉米(Zea mays L.,郑单958)的田间长期定位试验(始于2014年),设不施钾肥(CK)、常量普通氯化钾(K)、常量聚氨酯包膜氯化钾(CRK1)、减钾量1/3聚氨酯包膜氯化钾(CRK2)、常量掺混氯化钾(BBF1)、减钾量1/3掺混氯化钾(BBF2)共6个处理。在抽雄期进行玉米生长、土壤供钾水平、吸钾能力、光合作用等相关指标的测定,在成熟期进行玉米品质、农学效益等相关指标测定。结果1) CRK1、BBF1、CRK2和BBF2较K处理,产量分别提高9.82%、12.06%、7.13%、10.68%,地上生物量分别提高9.22%、10.44%、4.16%、6.09%,经济效益分别提高16.29%、28.37%、14.15%、21.12%。2) CRK1和BBF1伤流钾离子质量分数较K处理分别提高19.93%、13.89%;CRK1和BBF2叶绿素SPAD值较K处理分别提升7.32%、6.59%;CRK1叶面积指数LAI值较K提升7.04%;CRK1和CRK2净光合速率较K分别提升18.58%、18.66%。3)与K处理相比,CRK1、BBF1、CRK2和BBF2淀粉质量分数分别提升4.27%、2.51%、9.32%、7.16%,油脂质量分数分别提高5.65%、3.11%、6.63%、5.92%;CRK1和CRK2粗蛋白质量分数分别提升4.23%、1.06%。与K处理相比,CRK1、BBF1、CRK2和BBF2,淀粉产量分别提升14.73%、19.10%、17.56%、18.96%,粗蛋白产量分别提升14.47%、14.04%、8.27%、8.03%,油脂产量分别提升16.03%、19.67%、14.27%、17.23%。结论控释氯化钾可满足玉米生长及品质形成对钾素的需求,改善玉米的生长情况,优化玉米籽粒的品质性状,与普通氯化钾掺混施用后显著提高玉米产量及钾肥利用效率,降低肥料投入成本,并且实现减量不减产、品质不下降的目的。
ObjectiveControlled release of potassium chloride can achieve slow release of potassium ions synchronized with crop absorption
while ensuring the effectiveness of potassium ions in the soil
meeting the demand for potassium in the later stage of crop growth
and significantly improving the utilization rate of potassium fertilizer. Exploring the effects of long-term application of controlled-release of potassium chloride and its mixed fertilizers on maize yield and quality
providing technical support for achieving high-quality maize production.MethodsBased on the long-term field experiment of controlled release potassium chloride applied to summer maize (Zea mays L.
Zhengdan 958) (started in 2014)
six treatments were set up: no potassium fertilizer (CK)
constant ordinary potassium chloride (K)
constant polyurethane coated potassium chloride (CRK1)
1/3 potassium reduction polyurethane coated potassium chloride (CRK2)
constant mixed potassium chloride (BBF1) and 1/3 potassium reduction mixed potassium chloride (BBF2). Relevant indicators such as maize growth
soil potassium supply level
potassium uptake capacity
photosynthesis
etc. were measured during the tasseling stage
and relevant indicators such as maize quality and agronomic benefits were determined during the maturity stage.Results1) Compared with K treatment
CRK1
BBF1
CRK2
and BBF2 showed an increase in yield of 9.82%
12.06%
7.13% and 10.68%
respectively. The aboveground biomass increased by 9.22%
10.44%
4.16% and 6.09%
respectively
and the economic benefits increased by 16.29%
28.37%
14.15% and 21.12%
respectively. 2) The potassium ion content in CRK1 and BBF1 increased by 19.93% and 13.89% respectively compared to K treatment; The chlorophyll SPAD values of CRK1 and BBF2 increased by 7.32% and 6.59% compared to K treatment; The leaf area index LAI value of CRK1 increased by 7.04% compared to K; The net photosynthetic rate of CRK1 and CRK2 increased by 18.58% and 18.66% compared to K. 3) Compared with K treatment
the starch content of CRK1
BBF1
CRK2
and BBF2 increased by 4.27%
2.51%
9.32% and 7.16%
respectively
while the oil content increased by 5.65%
3.11%
6.63% and 5.92%
respectively; The crude protein content of CRK1 and CRK2 increased by 4.23% and 1.06% respectively compared to K treatment. Compared with K treatment
CRK1
BBF1
CRK2
and BBF2 increased starch production by 14.73%
19.10%
17.56% and 18.96%
crude protein production by 14.47%
14.04%
8.27% and 8.03%
and oil production by 16.03%
19.67%
14.27% and 17.23%
respectively.ConclusionControlled release potassium chloride can meet the potassium requirements for maize growth and quality formation
improve maize growth
optimize maize grain quality traits
and significantly improve maize yield and potassium fertilizer utilization efficiency when mixed with ordinary potassium chloride. It also reduces fertilizer input costs and achieves the goal of reducing production and quality.
Shahbandeh M. Global corn consumption 2022/2023, by county[R]. Germany: Statista, 2023.
National Bureau of Statistics. In 2023, the national grain production will achieve another bumper harvest Wang Guirong, director of the rural department of the National Bureau of Statistics, interprets the situation of grain production[M]. Beijing: National Bureau of Statistics, 2023. 国家统计局. 2023年全国粮食生产再获丰收: 国家统计局农村司司长王贵荣解读粮食生产情况[M]. 北京: 国家统计局, 2023.
LI J Y, SUN P P, LI D, et al. Study on quality and feeding value of whole-plant corn silage[J]. Agriculture and Technology, 2024, 44(6): 97-101. 李景玉, 孙萍萍, 李达, 等. 全株玉米青贮饲料品质与饲用价值研究[J]. 农业与技术, 2024, 44(6): 97-101.
JIA S F, DONG S T, WANG K J, et al. Effect of shading on grain quality at different stages from flowering to maturity in maize[J]. Acta Agronomica Sinica, 2007, 33(12): 1960-1967. 贾士芳, 董树亭, 王空军, 等. 玉米花粒期不同阶段遮光对籽粒品质的影响[J]. 作物学报, 2007, 33(12): 1960-1967.
WANG Y D. Effect of potassium fertilizer on quality and yield of maize[J]. Shanghai Agricultural Science and Technology, 2012(3): 127-128. 王远东. 钾肥对玉米品质和产量的影响[J]. 上海农业科技, 2012(3): 127-128.
XU X X, DU X, WANG F, et al. Effects of potassium levels on plant growth, accumulation and distribution of carbon, and nitrate metabolism in apple dwarf rootstock seedlings[J]. Frontiers in Plant Science, 2020, 11: e904.
SHAFIQ B A, NAWAZ F, MAJEED S, et al. Sulfate-based fertilizers regulate nutrient uptake, photosynthetic gas exchange, and enzymatic antioxidants to increase sunflower growth and yield under drought stress[J]. Journal of Soil Science and Plant Nutrition, 2021, 21(3): 2229-2241.
ZHANG W T, LIU Z G, ZHANG M, et al. Effects of controlled-release potassium fertilizers on the yield of maize, potassium use efficiency and soil available potassium[J]. Journal of Soil and Water Conservation, 2017, 31(4): 241-247. 张为涛, 刘之广, 张民, 等. 控释钾肥对玉米产量、钾肥利用率和土壤速效钾的影响[J]. 水土保持学报, 2017, 31(4): 241-247.
LU H, TIAN H Y, LIU Z G, et al. Polyolefin wax modification improved characteristics of nutrient release from biopolymer-coated phosphorus fertilizers[J]. Acs Omega, 2019, 4(23): 20402-20409.
Ministry of Industry and Information Technology of the People's Republic of China. Controlled release fertilizer(HG/T 4215—2011)[S]. Beijing: Fertilizer Industry Press, 2014. 中华人民共和国工业和信息化部. 控释肥料: HG/T 4215—2011[S]. 北京: 化工出版社, 2014.
LI B, ZHANG J W, JIN L B, et al. Effects of K fertilization on characteristic of bleeding sap in summer maize under high yield conditions by ICP-AES technology[J]. Journal of Soil and Water Conservation, 2013, 27(3): 209-212. 李波, 张吉旺, 靳立斌, 等. 基于ICP-AES技术施钾量对高产夏玉米伤流液特性的影响[J]. 水土保持学报, 2013, 27(3): 209-212.
LI Z L, LIU Z G, ZHANG M, et al. Long-term effects of controlled-release potassium chloride on soil available potassium, nutrient absorption and yield of maize plants[J]. Soil and Tillage Research, 2020, 196: e104438.
BAO S D. Soil and agricultural chemistry analysis[M]. Beijing: China Agricultural Press, 2000. 鲍士旦. 土壤农化分析[M]. 北京: 中国农业出版社, 2000.
LIU Z D, ZHANG K, HUANG C, et al. Effects of different tillage and irrigation methods on photosynthetic characteristics of maize[J]. Journal of Soil and Water Co?即???啡??????圲?丱???″???攩琺?愲氱??倲漲琰愮猠猘椘甜洬?搠旯昬椠揄榅攬渠捉礮?猍琌爕敜玌獌?犹攏擹疉捳敉猈?刧疄扱槍獛捊潝?愠挴琟槝瘁楦璥礬?椲渰??爬愠猳猳椨挴愩?渠愲瀱申猭′氲攰愮瘼敢獲 ̄扛礱‵獝甠手捅敔汁求畃汈慉爠?愠捒椬搠楍晁楓捏慕瑄楉漠湓?摌敔捁牎敉愠獓椬渠权?灁桎漠瑁漮猠祓湹瑮桴敨瑥楳捩?爠慯瑦攠孡?嵮??倠汢慩湯瑣?偭桰祯獳楩潴汥漠杦祯?愠湦摥??楩潬捩桳敥浲椠獣瑯牡祴??偧瀺戠???づ?????ぴㄠ??攠?ど??????扤牡?孩??嵴?娠??佤??????佡佬匠味?剡?啩?卩?????????乶?割婯???坮???渠晓汣畩敥湮捣敥?潡普?瀠潐瑯慬獬獵楴畩浯?搠敒晥楳捥楡敲湣捨礬?漲渰′瀳栬漠琳漰猨礴渱琩栺攠猹椳猷?′挭根氳漷爳漰瀮格祢汲氾?挱漶湝琠敃湈瑅??愠湊搬?捔桁汎潇爠潙瀠汁愬猠瑚?畕氠瑘爠慙猬琠牥畴挠瑡畬爮攠?潥晳?捡潲瑣瑨漠湰?灯汧慲湥瑳獳嬠?嵮??偮档潡瑰潳獵祬湡瑴桥敤琠楦捵慮???はの???????????づ???????扴物?孩??嵲?????匠???????婥???????塭????敩瑡?慳汛??偏潌瑝愮猠獆楩畮浥?牃敨汥慭瑩楣癡敬?爬愠琲椰漲?琺漠?渭椱琰爮漠朼敥湸?挭潬湩獮楫搠敥牸慴戭汬祩?晫愭癴潹牰獥?挢慵牲扩漢渠?浭敬瑮慳戺潸汬楩獮浫?椢湨?汴慰琺支?灷汷慷渮瑷攳搮?捲潧琯琱漹渹?愯瑸?桩楮杫栢?灸汬慩湮瑫椺湨杲?摦攽渢獨楴瑴祰嬺?崯???椮敯汲摧??爰漮瀱猳‵刵攰獪攮慪牸捨桧?′日?????劳㈢??????????扩爮?孲??崱‰堮唱″堵‵堰??婪??乧?′堰′??‰??唼??????敩瑮?愾氮?‐?瀬瀠爐濨瀂爬椠愱琟文?椠湉挮爠攅憜王榟滽朓?烊澥瓊慶玜獐榙甔浶?獕畛灊瀯汏祌?愮氠沾旆瘖槥愬琠攲猰′琴栺攠?椭渱栰椮戠楆瑩楮潥渠?潨晥?桩楣条桬?測椠琲爰漲朴攺渠?漭渱‰爮漠漼瑥?杴爭潬睩瑮桫?扥祸?爭敬杩畮汫愭瑴楹湰来?愢湵瑲楩漢砠楸摭慬湮瑳?獸祬獩瑮敫洽??桴潴牰洺漯港敷?扷愮汷愳渮捯敲??挱愹爹戹漯湸?慩獮獫椢洠楸汬慩瑮楫漺湨?慥湦搽?瑨牴慴湰猺瀯漯牤瑯慩琮楯潲湧?椱渰?愱瀳瀵氵攰孪?嵪??卧挮椲攰渲琴椰愰??漢爾瑨楴捴異氺琯甯牤慯敩???で土???????‰敪???????0240018.
FIRMANDA A, FAHMA F, SYAMSU K, et al. Biopolymer-based slow/controlled-release fertilizer(SRF/CRF): Nutrient release mechanism and agricultural sustainability[J]. Journal of Environmental Chemical Engineering, 2024, 12(2): e112177.
TIAN H Y, LIU Z G, ZHANG M, et al. Biobased polyurethane, epoxy resin, and polyolefin wax composite coating for controlled-release fertilizer[J]. Acs Applied Materials and Interfaces, 2019, 11(5): 5380-5392.
MINEO H, OHMI S, ISHIDA K, et al. Ingestion of potato starch containing high levels of esterified phosphorus reduces calcium and magnesium absorption and their femoral retention in rats[J]. Nutrition Research, 2009, 29(9): 648-655.
LIU T N, CHEN J Z, WANG Z Y, et al. Ridge and furrow planting pattern optimizes canopy structure of summer maize and obtains higher grain yield[J]. Field Crops Research, 2018, 219: 242-249.
ORR D J, ROBIJNS A K J, BAKER C R, et al. Dynamics of Rubisco regulation by sugar phosphate derivatives and their phosphatases[J]. Journal of Experimental Botany, 2023, 74(2): 581-590.
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