黄淮海区主推夏播玉米品种籽粒脱水特性研究

doi:10.3864/j.issn.0578-1752.2021.04.004

Abstract

Abstract:

【Objective】Grain mechanical harvesting is the developing direction of modern maize production in China. The moisture content at physiological maturity (PM) and grain dehydration rate after PM are the key factors for realizing maize grain mechanical harvesting. The aim of this study was to clarify the differences and influencing factors for the dehydration characteristics of different maize varieties, so as to provide a theoretical instruction for the breeding and extending of grain mechanical harvesting varieties.【Method】Taking18 main maize varieties in Huang-Huai-Hai region as research materials, the field experiment was conducted in 2017-2018, and the dynamics of maize grain moisture content were tested to study and clarify the differences and influencing factors for the dehydration characteristics.【Result】The moisture content of different maize varieties at PM and harvesting differed significantly, with an average of 30.67% (CV=2.58%) and 23.66% (CV=9.10%). There were significant differences between grain dehydration rate before and after PM of the tested varieties, with an average of 0.69%·d^-1 and 0.48%·d^-1, respectively. The average physical dehydration rate after PM of middle early maturing varieties was 0.55%·d^-1, which was 14.58% and 44.74% higher than that of middle maturing and middle late maturing varieties, respectively. The average yield of the tested varieties was 10 205.90 kg·hm^-2, with the range of 8 809.13-11 053.73 kg·hm^-2. The yield of middle maturity variety (10 484.25 kg·hm^-2) > middle late maturing variety (10 096.08 kg·hm^-2) > middle early maturing variety (9 522.81 kg·hm^-2), and Jingnongke728 and NK815 had the highest yield of 10 569.00 and 11 053.50 kg·hm^-2, respectively. Correlation analysis showed that the dehydration rate of grain was significantly positively correlated with the dehydration rate of leaves, bracts, rachis, stalk, whole plant and stem and wind speed. There was significantly positively correlated with atmospheric temperature and negatively correlated with atmospheric humidity. The varieties were divided into 4 types according to the grain dehydrate rate and yield by two-way average method. JNK728, JNK729, MC812 and MC121 were selected by using maize core inbred Jing2416 and its improved inbred Jing2418, which were characterized by early maturity and fast dehydrating rate as the male parent belongs to the fast dehydration rate and high yield type (The average growth period was 108.9 d; The average grain dehydration rate after physiological maturity was 0.57 %·d^-1; The moisture content of grain at harvest was 21.81%; The average yield was 10 811.33 kg·hm^-2).【Conclusion】According to the growth period, grain dehydration rat and yield level, the maize varieties of JNK728, MC812, JNK729 and MC121 were characterized by medium-early and medium maturity, fast dehydration rate and high yield, and could realize lower grain moisture content and higher yield level in Huang-Huai-Hai region.

Key words: Huang-Huai-Hai region, summer maize, Jingnongke728, grain, dehydration characteristics

XU TianJun,LÜ TianFang,ZHAO JiuRan,WANG RongHuan,XING JinFeng,ZHANG Yong,CAI WanTao,LIU YueE,LIU XiuZhi,CHEN ChuanYong,WANG YuanDong,LIU ChunGe. The Grain Dehydration Characteristics of the Main Summer Maize Varieties in Huang-Huai-Hai Region[J].Scientia Agricultura Sinica, 2021, 54(4): 708-719.

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URL: https://www.chinaagrisci.com/EN/10.3864/j.issn.0578-1752.2021.04.004

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Figures/Tables 10

Table 1

Fig. 1

Fig. 2

Table 2

Yield and yield components of tested varieties"

品种 Variety	公顷穗数 Ears per hectare		穗粒数Grain number per ear		百粒重100-grain weight (g)		产量Yield (kg·hm^-2)
品种 Variety	2017	2018	2017	2018	2017	2018	2017	2018
JNK728	63576.4±189.5gh	65345.1±134.5b	494.4±11.4de	483.4±8.9e	35.9±1.1ab	34.5±1.2de	10734.5±84.5e	10403.5±93.9d
JNK729	63513.7±206.4h	64091.3±165.2f	524.0±10.8ab	519.3±11.5c	34.3±1.1def	34.1±1.1ef	10918.0±296ab	10727.0±192.0c
MC812	63132.8±193.2i	63000.4±152.2i	533.6±2.3a	548.0±8.0a	33.9±0.7efg	33.6±1.1fg	10850.0±118bc	10876.1±283.0b
MC121	64537.2±202.6e	62092.3±167.4l	527.1±2.6ab	542.3±8.1a	34.1±1.3efg	34.8±1.4cde	10940.5±224.3ab	11041.0±131.0a
NK815	62093.2±159.3n	62546.4±142.1k	533.2±1.7a	535.1±11.5b	34.8±1.9cde	35.1±1.2cd	11011.5±143.9a	11095.5±140.0a
MC703	63544.5±206.4gh	62998.3±167.4i	532.5±1.2a	545.3±19.0a	34.7±1.3cdef	35.2±1.3bcd	10597.0±83.7e	10652.0±171.2c
MC278	63621.1±192.6g	63871.8±133.3g	472.7±4.0g	463.5±9.2g	34.2±1.0def	34.9±0.9cde	10285.2±83.4f	10332.0±227.5de
SK567	65556.6±200.3c	64826.6±136.4d	441.0±4.0ij	437.6±7.0i	30.1±1.3k	30.4±1.0h	9498.5±149.6ij	9023.0±156.1j
ZD958	66134.4±145.1b	65012.4±172.1c	450.1±2.6hi	452.6±11.3h	32.8±2.2hi	33.2±0.9g	10206.5±161.9f	10069.5±174.6f
XY335	62557.5±209.2k	60740.0±189.4o	512.1±9.7c	515.9±6.6c	33.6±1.0fgh	34.1±1.1ef	10764.0±174.6cd	10685.5±138.1c
DH605	62355.4±100.6m	61095.6±146.9n	522.4±4.1b	533.4±11.3b	34.8±1.2cde	35.3±1.1bcd	10694.1±130.8de	10755.5±106.3bc
NH101	62677.5±145.7j	61864.3±162.6m	443.1±4.4ij	453.3±6.8h	36.9±1.4a	37.3±1.2a	9701.5±162gh	9613.5±84.5h
HM1	67105.4±159.3a	64997.8±142.7c	485.7±6.1ef	499.7±13.2d	29.0±0.5l	29.1±0.5i	9452.0±194.6j	9451.5±179.3i
LC808	62154.2±149.3n	63555.7±178.5h	496.3±9.7d	504.1±6.1d	35.7±1.1bc	36.0±0.6b	9595.0±98.4hi	10263.5±104.5e
DK517	64007.2±153.6f	62843.0±177.4j	436.3±11.7j	423.9±12.7j	31.9±1.3ij	32.7±1.1g	8908.5±120k	8711.0±145.1k
WK702	65062.4±163.1d	64813.3±153.2d	477.0±5.8fg	475.1±11.4f	33.1±1.5gh	33.3±0.8fg	10272.5±136.5f	10254.0±134.2e
LY35	67156.0±167.6a	66975.2±199.8a	455.1±6.2h	465.1±9.7g	31.1±0.9jk	31.3±0.9h	9505.0±135.9ij	9750.0±152.4g
YF303	62442.7±145.2l	64454.6±203.5e	446.0±2.8hij	437.0±5.5i	35.2±0.9bcd	35.4±1.1bc	9803.0±83.8g	9971.0±149.4f
均方 Mean squares (ANOVA)	年份 Year	**		NS		NS		NS
	品种 Variety	**		**		**		**
	年份×品种Year×Variety	**		**		**		**

Table 2

Table 3

Table 4

Grain moisture content and dehydration rate of the tested varieties"

品种 Variety	生理成熟期籽粒含水率 Grain moisture content at physiological maturity (%)		收获期籽粒含水率 Grain moisture content at harvest (%)		生理成熟前籽粒生理降水速率 Grain dehydration rate before physiological maturity (%·d^-1)		生理成熟后籽粒物理脱水速率 Grain dehydration rate after physiological maturity (%·d^-1)		总脱水速率 Total dehydration rate (%·d^-1)
品种 Variety	2017	2018	2017	2018	2017	2018	2017	2018	2017	2018
JNK728	30.73±0.80bcd	31.47±0.95bcd	20.87±1.05g	20.10±0.26i	0.87±0.01a	0.88±0.01a	0.57±0.05ab	0.57±0.06ab	0.72±0.07a	0.73±0.05a
JNK729	30.40±0.44def	31.90±1.49ab	22.57±0.95f	23.23±1.17g	0.66±0.06ef	0.64±0.09fgh	0.59±0.07a	0.58±0.04a	0.63±0.04b	0.61±0.03b
MC812	29.20±0.30i	29.60±0.85g	20.80±0.72g	21.37±1.05h	0.69±0.07cdef	0.67±0.04def	0.58±0.07a	0.55±0.06abc	0.64±0.10b	0.61±0.06bc
MC121	29.63±0.84hi	30.43±0.32ef	22.10±0.95f	23.43±1.59fg	0.67±0.04bcd	0.66±0.04defg	0.54±0.04b	0.54±0.04bc	0.61±0.07b	0.60±0.07bc
NK815	29.87±0.71gh	30.30±0.50fg	23.83±1.46de	24.30±1.25ef	0.68±0.04def	0.67±0.09defg	0.45±0.04efg	0.43±0.02gh	0.57±0.07cde	0.55±0.07cde
MC703	30.07±0.49fg	30.37±0.25efg	22.87±1.33ef	23.47±0.76fg	0.75±0.03b	0.73±0.05bb	0.48±0.04de	0.46±0.03fg	0.62±0.04bc	0.60±0.06bc
MC278	30.27±0.47efg	30.70±0.53def	22.27±1.86f	23.80±2.19fg	0.74±0.02bc	0.72±0.04bc	0.47±0.06ef	0.46±0.05fg	0.61±0.06bc	0.59±0.05bcd
SK567	30.17±0.35fg	30.60±0.70ef	22.60±1.31f	23.90±1.64fg	0.69±0.05cdef	0.65±0.06efgh	0.53±0.04b	0.51±0.06cd	0.61±0.05bc	0.58±0.06bcd
ZD958	30.70±0.50bcd	31.10±1.14cde	24.63±1.12cd	25.77±1.62cd	0.67±0.08ef	0.63±0.02gh	0.37±0.05h	0.35±0.07i	0.52±0.12f	0.49±0.07fg
XY335	30.13±1.01fgh	30.37±0.42efg	22.77±1.19f	23.13±1.14g	0.70±0.02bcde	0.69±0.05cde	0.51±0.09cd	0.49±0.07ef	0.61±0.05bc	0.59±0.05bcd
DH605	31.97±0.68a	31.93±1.00ab	26.23±1.12b	26.80±1.30bc	0.70±0.04bcde	0.68±0.07cde	0.36±0.02h	0.34±0.03i	0.53±0.05ef	0.51±0.04efg
NH101	31.10±0.85bc	30.33±0.47efg	24.10±1.31cd	24.43±1.76ef	0.70±0.04bcde	0.69±0.06cde	0.43±0.03g	0.40±0.06h	0.57±0.07cde	0.54±0.03def
HM1	30.07±0.75fgh	30.33±0.74efg	20.07±1.07g	20.23±0.59i	0.88±0.08a	0.85±0.06a	0.54±0.06bc	0.53±0.04bcd	0.71±0.04a	0.69±0.06a
LC808	31.17±0.96a	30.87±0.81def	22.97±1.60ef	23.53±1.57fg	0.59±0.04	0.58±0.10i	0.51±0.06cd	0.49±0.04def	0.55±0.01def	0.54±0.03def
DK517	29.37±0.74i	30.17±0.85fg	22.97±1.00ef	22.03±0.64h	0.64±0.05fg	0.62±0.05h	0.57±0.06ab	0.55±0.05ab	0.61±0.04bc	0.58±0.05bcd
WK702	31.87±1.01a	32.47±1.12a	27.50±1.18a	28.33±0.84a	0.68±0.03def	0.66±0.06defg	0.31±0.03i	0.28±0.06j	0.50±0.05f	0.47±0.05g
LY35	30.70±0.56cde	31.73±1.36abc	24.83±1.29c	25.17±1.06de	0.68±0.07def	0.66±0.05defg	0.45±0.05efg	0.43±0.1gh	0.57±0.06cde	0.54±0.1def
YF303	30.50±0.40def	31.67±0.97bc	26.93±0.72ab	27.83±1.36ab	0.58±0.06h	0.54±0.10j	0.48±0.06de	0.46±0.06fg	0.53±0.03ef	0.50±0.13fg
均方 Mean squares (ANOVA)	年份 Year	NS		NS		NS		NS		NS
	品种 Variety	**		**		**		**		**
	年份×品种 Year×Variety	*		*		*		*		*

Table 4

Fig. 3

Table 5

Table 6

Fig. 4

References 28

[1]	赵久然, 王荣焕. 中国玉米生产发展历程、存在问题及对策. 中国农业科技导报, 2013,15(3):1-6.
	ZHAO J R, WANG R H. Development process, problem and countermeasure of maize production in China. Journal of Agricultural Science and Technology, 2013,15(3):1-6. (in Chinese)
[2]	王成雨, 舒忠泽, 程备久, 江海洋, 李晓玉. 中国玉米机械化收获发展现状及展望. 安徽农业大学学报, 2018,45(3):551-555.
	WANG C Y, SHU Z Z, CHENG B J, JIANG H Y, LI X Y. Advances and perspectives in maize mechanized harvesting in China. Journal of Anhui Agricultural University, 2018,45(3):551-555. (in Chinese)
[3]	李少昆. 我国玉米机械粒收质量影响因素及粒收技术的发展方向. 石河子大学学报(自然科学版), 2017,35(3):265-272.
	LI S K. Factors affecting the quality of maize grain mechanical harvest and the development trend of grain harvest technology. Journal of Shihezi University (Natural Science), 2017,35(3):265-272. (in Chinese)
[4]	姜艳喜, 王振华, 金益, 张林, 鄂文弟. 玉米收获期子粒含水量相关性状的遗传及育种策略. 玉米科学, 2004,12(1):21-25.
	JIANG Y X, WANG Z H, JIN Y, ZHANG L, E W D. Genetics on water content at harvesting and correlative traits and breeding strategy. Journal of Maize Sciences, 2004,12(1):21-25. (in Chinese)
[5]	王克如, 李少昆. 玉米籽粒脱水速率影响因素分析. 中国农业科学, 2017,50(11):2027-2035.
	WANG K R, LI S K. Analysis of influencing factors on kernel dehydration rate of maize hybrids. Scientia Agricultura Sinica, 2017,50(11):2027-2035. (in Chinese)
[6]	PURDY J D, CRANE P L. Inheritance of drying rate in mature corn (Zea mays L.). Crop Science, 1967,7(4):294-297.
[7]	冯鹏, 申晓慧, 郑海燕, 张华, 李增杰, 杨海宽, 李明顺. 种植密度对玉米籽粒灌浆及脱水特性的影响. 中国农学通报, 2014,30(6):92-100.
	FENG P, SHEN X H, ZHENG H Y, ZHANG H, LI Z J, YANG H K, LI M S. Effects of planting density on kernel filling and dehydration characteristics for maize hybrids. Chinese Agricultural Science Bulletin, 2014,30(6):92-100. (in Chinese)
[8]	万泽花, 任佰朝, 赵斌, 刘鹏, 董树亭, 张吉旺. 不同熟期夏玉米品种籽粒灌浆与脱水特性及其密度效应. 作物学报, 2018,44(10):1517-1526.
	WAN Z H, REN B Z, ZHAO B, LIU P, DONG S T, ZHANG J W. Grain filling and dehydration characteristics of summer maize. Acta Agonomica Sinica, 2018,44(10):1517-1526. (in Chinese)
[9]	MAIORANO A, FANCHINI D, DONATELLI M. MIMYCS. Moisture, a process-based model of moisture content in developing maize kernels. European Journal of Agronomy, 2014,59:86-95.
[10]	CROSS H Z. A selection procedure for ear drying-rates in maize. Euphytica, 1985,34(2):409-418.
[11]	刘显君, 王振华, 王霞, 李庭锋, 张林. 玉米籽粒生理成熟后自然脱水速率QTL的初步定位. 作物学报, 2010,36(1):47-52.
	LIU X J, WANG Z H, WANG X, LI T F, ZHANG L. Primary mapping of QTL for dehydration rate of maize kernel after physiological maturing. Acta Agonomica Sinica, 2010,36(1):47-52. (in Chinese)
[12]	雷蕾, 王威振, 方伟, 张子学, 刘正, 李文阳. 影响夏玉米生理成熟后子粒脱水的相关因素分析. 玉米科学, 2016,24(3):103-109.
	LEI L, WANG W Z, FANG W, ZHANG Z X, LIU Z, LI W Y. Analysis of factors affecting the kernel dehydrating after physiological mature in summer maize. Journal of Maize Sciences, 2016,24(3):103-109. (in Chinese)
[13]	金益, 王振华, 张永林, 王殊华, 王云生. 玉米杂交种蜡熟后籽粒自然脱水速率差异分析. 东北农业大学学报, 1997,28(1):29-32.
	JIN Y, WANG Z H, ZHANG Y L, WANG S H, WANG Y S. Difference analysis on the natural dry rate of kernel after wax ripening maize hybrids. Journal of Northeast Agricultural University, 1997,28(1):29-32. (in Chinese)
[14]	BROOKING I R. Maize ear moisture during grain-filling, and its relation to physiological maturity and grain-drying. Field Crops Research, 1990,23:55-68.
[15]	高尚, 明博, 李璐璐, 谢瑞芝, 薛军, 侯鹏, 王克如, 李少昆. 黄淮海夏玉米籽粒脱水与气象因子的关系. 作物学报, 2018,44(12):1755-1763.
	GAO S, MING B, LI L L, XIE R Z, XUE J, HOU P, WANG K R, LI S K. Relationship between grain dehydration and meteorological factors in the Yellow-Huai-Hai Rivers summer maize. Acta Agonomica Sinica, 2018,44(12):1755-1763. (in Chinese)
[16]	李璐璐. 黄淮海夏玉米籽粒脱水特征研究[D]. 北京: 中国农业科学院, 2017.
	LI L L. Study on grain dehydration characteristics of summer maize in Huanghuaihai plain[D]. Beijing: Chinese Academy of Agricultural Sciences, 2017.(in Chinese)
[17]	雷晓鹏. 黄淮海地区玉米机械收获籽粒可行性研究[D]. 保定: 河北农业大学, 2015.
	LEI X P. Studies on the feasibility of maize mechanically harvesting grain in Huanghuaihai regions[D]. Baoding: Hebei Agricultural University, 2015.(in Chinese)
[18]	李树岩, 任丽伟, 刘天学, 张亿博, 张明珠. 黄淮海夏玉米籽粒机收适宜光温指标研究. 中国生态农业学报, 2018,26(8):1149-1158.
	LI S Y, REN L W, LIU T X, ZHANG Y B, ZHANG M Z. Suitable sunshine and temperature for mechanical grain harvesting of summer maize in the Huang-Huai-Hai plain. Chinese Journal of Eco- Agriculture, 2018,26(8):1149-1158. (in Chinese)
[19]	柳枫贺, 王克如, 李健, 王喜梅, 孙亚玲, 陈永生, 王玉华, 韩冬生, 李少昆. 影响玉米机械收粒质量因素的分析. 作物杂志, 2013(4):116-119.
	LIU F H, WANG K R, LI J, WANG X M, SUN Y L, CHEN Y S, WANG Y H, HAN D S, LI S K. Factors affecting corn mechanically harvesting grain quality. Crops, 2013(4):116-119. (in Chinese)
[20]	张林, 王振华, 金益, 于天江. 玉米收获期含水量的配合力分析. 西南农业学报, 2005,18(5):32-35.
	ZHANG L, WANG Z H, JIN Y, YU T J. Combining ability analysis of water content in harvest stage in corn. Southwest China Journal of Agricultural Sciences, 2005,18(5):32-35. (in Chinese)
[21]	DAYNARD T B, KANNENBERG L W. Relationships between length of the actual and effective grain filling periods and grain yield of corn. Canada Journal Plant Science, 1976,56(2):237-242.
[22]	杨国航, 张春原, 孙世贤, 刘春阁, 王卫红, 赵久然. 夏玉米子粒收获期判定方法研究. 作物杂志, 2006(5):11-13.
	YANG G H, ZHANG C Y, SUN S X, LIU C G, WANG W H, ZHAO J R. Study on the method to determine the harvest time of summer corn. Crops, 2006(5):11-13. (in Chinese)
[23]	吕丽华, 董志强, 曹洁璇, 梁双波, 贾秀领, 张丽华, 姚艳荣. 播期、收获期对玉米物质生产及光能利用的调控效应. 华北农学报, 2013,28(S1):177-183.
	LÜ L H, DONG Z Q, CAO J X, LIANG S B, JIA X L, ZHANG L H, YAO Y R. Effects of planting and harvest date on matter production of summer maize and its utilization of solar and heat resource. Acta Agriculturae Boreali-Sinica, 2013,28(S1):177-183. (in Chinese)
[24]	刘武仁, 郑金玉, 罗洋, 郑洪兵, 李伟堂. 影响玉米子粒含水量的因素及低水分玉米生产技术. 吉林农业科学, 2009,34(1):1-2, 33.
	LIU W R, ZHENG J Y, LUO Y, ZHENG H B, LI W T. Factors affecting water content of maize and cultural practice for low water content maize. Journal of Jilin Agricultural Science, 2009,34(1):1-2, 33. (in Chinese)
[25]	栗建枝, 李齐霞, 李中青, 祁丽婷, 王敏, 王瑞, 孙万荣. 不同玉米品种籽粒脱水特性. 山西农业科学, 2014,42(5):438-442.
	LI J Z, LI Q X, LI Z Q, QI L T, WANG M, WANG R, SUN W R. Kernel dehydration characteristics of maize varieties. Journal of Shanxi Agricultural Sciences, 2014,42(5):438-442. (in Chinese)
[26]	李凤海, 郭佳丽, 于涛, 史振声. 不同熟期玉米杂交种及其亲本子粒脱水速率的比较研究. 玉米科学, 2012,20(6):17-20, 24.
	LI F H, GUO J L, YU T, SHI Z S. Comparative study on dehydration rate of kernel among maize hybrids and parents with different maturity periods. Journal of Maize Sciences, 2012,20(6):17-20, 24. (in Chinese)
[27]	HALLAUER A R, RUSSELL W A. Effects of selected weather factors on grain moisture reduction from silking to physiologic maturity in corn. Agronomy Journal, 1961,53:225-229.
[28]	闫淑琴. 玉米籽粒灌浆、脱水速率的配合力和相关分析[D]. 北京: 中国农业科学院, 2006.
	YAN S Q. Combine ability and correlation of kernel dry-down and grain filling rate in maize[D]. Beijing: Chinese Academy of Agricultural Sciences, 2006.(in Chinese)

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品种 Variety	母本 Female inbred	父本 Male inbred	2017			2018
品种 Variety	母本 Female inbred	父本 Male inbred	出苗期 Emergence stage (M-D)	生理成熟期 Physiological maturity (M-D)	生育期 Growth period (d)	出苗期 Emergence stage (M-D)	生理成熟期 Physiological maturity (M-D)	生育期 Growth period (d)
京农科728 JNK728	京MC01 JingMC01	京2416 Jing2416	06-15	09-29	106	06-16	09-27	103
京农科729 JNK729	京MC01 JingMC01	京2418 Jing2418	06-15	10-04	111	06-16	10-02	108
MC812	京B547 JingB547	京2416 Jing2416	06-15	10-03	110	06-16	10-04	110
MC121	京72464 Jing72464	京2416 Jing2416	06-15	10-06	113	06-16	10-04	110
NK815	京B547 JingB547	C1120	06-15	10-08	115	06-16	10-06	112
MC703	京X005 JingX005	京17 Jing17	06-15	10-04	111	06-16	10-06	112
MC278	京X005 JingX005	京27 Jing27	06-15	10-05	112	06-16	10-04	110
SK567	SK516	SK1098	06-15	09-28	105	06-16	10-01	107
郑单958 ZD958	郑58 Zheng58	昌7-2 Chang7-2	06-15	10-13	120	06-16	10-11	117
先玉335 XY335	PH6WC	PH4CV	06-15	10-07	114	06-16	10-07	113
登海605 DH605	DH351	DH382	06-15	10-07	114	06-16	10-09	115
农华101 NH101	NH60	S121	06-15	10-03	110	06-16	10-05	111
华美1号 HM1	HF12202	HM12111	06-15	09-27	104	06-16	09-27	103
联创808 LC808	CT3566	CT3354	06-15	10-05	112	06-16	10-08	114
迪卡517 DK517	D1798Z	HCL645	06-15	09-29	106	06-16	10-03	109
伟科702 WK702	WK858	WK798-2	06-15	10-13	120	06-16	10-11	117
蠡玉35 LY35	L5895	912	06-15	10-06	113	06-16	10-10	116
裕丰303 YF303	CT1669	CT3354	06-15	10-12	119	06-16	10-11	117

相关系数 Correlation coefficient	x1	x2	x3	x4
x1	1
x2	-0.01	1
x3	0.33*	0.27	1
x4	0.34*	0.83**	0.49**	1

品种 Variety	脱水速率Dehydration rate (%·d^-1)
品种 Variety	叶片 Leaf	苞叶 Bract	穗轴 Cob	穗柄 Ear stalk	茎秆 Stalk	整株 Whole plant
JNK728	1.50±0.06a	1.46±0.11a	0.60±0.07a	0.49±0.09a	0.42±0.05a	0.71±0.04a
JNK729	1.44±0.12ab	1.41±0.13abcd	0.52±0.05bc	0.31±0.06cd	0.39±0.06a	0.60±0.05bc
MC812	1.40±0.07bc	1.40±0.06abcd	0.49±0.08bcd	0.31±0.03cde	0.32±0.05b	0.55±0.11cd
MC121	1.31±0.09de	1.28±0.14ef	0.36±0.06ef	0.23±0.04ghi	0.25±0.03efg	0.45±0.06ef
NK815	1.26±0.10ef	1.28±0.13ef	0.34±0.07ef	0.23±0.02ghi	0.24±0.02efg	0.45±0.09ef
MC703	1.45±0.03ab	1.43±0.05abc	0.52±0.04bc	0.34±0.10bc	0.40±0.07a	0.61±0.06bc
MC278	1.39±0.15bcd	1.37±0.13bcd	0.47±0.10cd	0.28±0.06def	0.31±0.06bc	0.50±0.06de
SK567	1.34±0.11cd	1.34±0.07de	0.38±0.05e	0.25±0.04fg	0.28±0.07cde	0.48±0.11def
ZD958	1.14±0.11g	1.16±0.11g	0.20±0.04i	0.16±0.04jk	0.16±0.03j	0.33±0.07i
XY335	1.34±0.11cd	1.35±0.13cde	0.45±0.05d	0.26±0.05efg	0.29±0.06bcd	0.50±0.07de
DH605	1.21±0.13fg	1.19±0.09g	0.24±0.03hi	0.18±0.03ijk	0.18±0.04ij	0.38±0.05ghi
NH101	1.26±0.13ef	1.21±0.08fg	0.32±0.03fg	0.19±0.05hijk	0.22±0.03gh	0.44±0.03efg
HM1	1.49±0.13a	1.45±0.09ab	0.55±0.07ab	0.39±0.06b	0.41±0.05a	0.67±0.12ab
LC808	1.23±0.11f	1.21±0.03fg	0.27±0.04gh	0.18±0.06jk	0.20±0.06hi	0.41±0.04fgh
DK517	1.32±0.08de	1.32±0.09de	0.37±0.06ef	0.24±0.07fgh	0.26±0.05def	0.47±0.11ef
WK702	0.91±0.02h	0.63±0.15h	0.18±0.04i	0.15±0.03k	0.16±0.05j	0.21±0.07j
LY35	1.26±0.09ef	1.22±0.08fg	0.33±0.09ef	0.21±0.04ghij	0.23±0.10fgh	0.44±0.08efg
YF303	1.19±0.09fg	1.18±0.06g	0.20±0.02i	0.17±0.03jk	0.17±0.04ij	0.34±0.09hi

相关系数 Correlation coefficient	x1	x2	x3	x4	x5	x6	x7	x8	x9	x10
x1	1
x2	0.96**	1
x3	0.92**	0.80**	1
x4	0.85**	0.71**	0.93**	1
x5	0.90**	0.75**	0.98**	0.94**	1
x6	0.97**	0.87**	0.96**	0.94**	0.96**	1
x7	0.73**	0.61*	0.51*	0.45	0.39	0.56*	1
x8	-0.58*	-0.55*	-0.45	-0.41	-0.52*	-0.57*	0.62**	1
x9	0.73**	0.70**	0.59*	-0.42	-0.57*	-0.51*	-0.67**	-0.97**	1
x10	0.89**	0.76**	0.94**	0.96**	0.92**	0.95**	-0.56*	0.53*	0.63**	1

The Grain Dehydration Characteristics of the Main Summer Maize Varieties in Huang-Huai-Hai Region

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