Heterosis Performance and Their Parental Combining Ability Analysis of F1 and F2 Hybrids of Upland Cotton at Seedling Stage

doi:10.6048/j.issn.1001-4330.2023.02.001

Xinjiang Agricultural Sciences ›› 2023, Vol. 60 ›› Issue (2): 261-271.DOI: 10.6048/j.issn.1001-4330.2023.02.001

• Crop Genetics and Breeding·Cultivation Physiology·Germplasm Resources·Physiology and Biochemistry • Previous Articles Next Articles

Heterosis Performance and Their Parental Combining Ability Analysis of F₁ and F₂ Hybrids of Upland Cotton at Seedling Stage

CHEN Liangliang(), ZHANG Meng, GUO Liping, QI Tingxiang, ZHANG Xuexian, TANG Huini, WANG Hailin, QIAO Xiuqin, WU Jianyong, XING Chaozhu()

State Key Laboratory of Cotton Biology/Key Laboratory of Cotton Biology and Genetic Breeding, Ministry of Agriculture and Rural Affairs / Institute of Cotton Research of the Chinese Academy of Agricultural Sciences, Anyang Henan 455000, China

Received:2022-07-25 Online:2023-02-20 Published:2023-03-31
Correspondence author: XING Chaozhu(1967-),male,Researcher, Doctor, Research direction: The principle and utilization of cotton heterosis, (E-mail) chaozhuxing@126.com
Supported by:
Central Public-interest Scientific Institution Basal Research Fund(1610162021015);National Natural Science Foundation of China(31871679);Tianshan Youth Program(2018Q010);National Key R&D Project of China(2016YFD0101400)

陆地棉杂交组合F₁、F₂苗期优势表现及亲本配合力分析

陈亮亮(), 张梦, 郭立平, 戚廷香, 张学贤, 唐会妮, 王海林, 乔秀琴, 吴建勇, 邢朝柱()

中国农业科学院棉花研究所/棉花生物学国家重点实验室/农业农村部棉花生物学与遗传育种重点实验室,河南安阳 455000

通讯作者: 邢朝柱(1967-),男,安徽无为人,研究员,博士生导师,研究方向为棉花遗传育种,(E-mail)chaozhuxing@126.com
作者简介:陈亮亮(1996-),女,甘肃天水人,硕士研究生,研究方向为棉花遗传育种,(E-mail)cll12111721@163.com
基金资助:
中央级公益性科研院所基本科研业务费专项资金(1610162021015);国家自然科学基金(31871679);天山青年计划(2018Q010);国家重点研发计划“棉花杂种优势利用技术与强优势杂交种创制”(2016YFD0101400)

Abstract

Abstract:

【Objective】 The purpose of this study is to provide theoretical foundation for the selection of superior parents, hybrid combinations and F₂ of cotton product application. 【Method】 Eight parents from areas of Yellow River, Yangtze River and Northwest Inland were divided into two groups of 5 or 3 respectively, and made crosses according to NCⅡ design of the incomplete diallel cross (5×3); The plant height, leaf seedling SPAD values, and photosynthesis parameters of the parental, F₁, F₂ and control varieties were determined under field environmental conditions. 【Result】 The results showed that, both broad sense heritability and narrow sense hetriability in plant height, SPAD, photosynthetic parameter were relatively high and some traits of F₂ heritability was higher than that of F₁ in seeding stage. Every trait of the parent with best general combining ability(GCA) were P₁(Zhong 901), P₂(ZB), P₆(DT) and P₇(Z98) in seeding stage. The hybrid F₁ and F₂ which showed better special combining ability in each character at seedling stage were combination 2(Zhong901×Z98), combination 5(ZB×Z98) and combination 7(SJ48×DT). The 15 hybrid combinations F₁ and F₂ showed different competitive advantages in seeding stage compared with the contol, and some combinations showed significant differences. Mostly combinations of F₁ and F₂ showed positive heterosis advantage with competitive advantage, the mid-parent and high-parent in plant height, SPAD value, net photosynthetic rate and stomatal conductance, but in others traits, F₁ and F₂ combinations showed negative heterosis advantage with mid-parent and high-parent. 【Conclusion】 In this study, based on breeding practice of hybrid cotton varieties, the heterosis performance and combining ability in different generations of traits at seedling stage are systematically analyzed. It is found that the hybrid combination composed of the male parent P₇ (Z98) group performs better than other combinations in the seedling stage traits and has a greater utilization potential.

Key words: upland cotton; hybrids; seeding stage; heterosis performance; combining ability

摘要：

【目的】 筛选优异亲本和强优势杂交组合选育,为棉花F₂生产应用提供理论依据。【方法】 以8个核背景不同的陆地棉材料为亲本,采用5×3的NC Ⅱ遗传交配设计,在大田环境条件下,测定亲本、F₁、F₂和对照品种苗期株高、叶片SPAD值和光合作用参数。【结果】 株高、SPAD值和净光合速率的广义遗传力和狭义遗传力较高,部分性状的F₂遗传力高于F₁。苗期各性状一般配合力好的亲本为P₁(中901)、P₂(ZB)、P₆(大桃)和P₇(Z98);杂交组合F₁和F₂在苗期性状(株高、SPAD值、净光合速率、气孔导度、胞间CO₂浓度、蒸腾速率)中特殊配合力表现较好的为组合2(中901×Z98)、组合5(ZB×Z98)、组合7(SJ48×DT)。15个杂交组合的F₁和F₂在苗期各性状中较对照表现出不同的竞争优势,部分组合具有显著性差异;多数杂交组合的F₁和F₂在株高、SPAD值、净光合速率和气孔导度表现出正向中亲优势和超亲优势,而大多数组合F₁和F₂的胞间CO₂浓度和蒸腾速率表现出明显的负向中亲优势和超亲优势。【结论】 在苗期性状中由父本P₇(Z98)组配的杂交组合在后代表现较好,具有较大的利用潜力。

关键词: 陆地棉, 杂交种, 苗期, 优势表现, 配合力

CLC Number:

S562

CHEN Liangliang, ZHANG Meng, GUO Liping, QI Tingxiang, ZHANG Xuexian, TANG Huini, WANG Hailin, QIAO Xiuqin, WU Jianyong, XING Chaozhu. Heterosis Performance and Their Parental Combining Ability Analysis of F₁ and F₂ Hybrids of Upland Cotton at Seedling Stage[J]. Xinjiang Agricultural Sciences, 2023, 60(2): 261-271.

陈亮亮, 张梦, 郭立平, 戚廷香, 张学贤, 唐会妮, 王海林, 乔秀琴, 吴建勇, 邢朝柱. 陆地棉杂交组合F₁、F₂苗期优势表现及亲本配合力分析[J]. 新疆农业科学, 2023, 60(2): 261-271.

Figures/Tables 5

References 31

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母本代号 Female Code	父本和组合代号 Male and Combination code
母本代号 Female Code	P₆	P₇	P₈
P₁	1(P₁×P₆)	2(P₁×P₇)	3(P₁×P₈)
P₂	4(P₂×P₆)	5(P₂×P₇)	6(P₂×P₈)
P₃	7(P₃×P₆)	8(P₃×P₇)	9(P₃×P₈)
P₄	10(P₄×P₆)	11(P₄×P₇)	12(P₄×P₈)
P₅	13(P₅×P₆)	14(P₅×P₇)	15(P₅×P₈)

母本代号 Female Code	父本和组合代号 Male and Combination code
母本代号 Female Code	P₆	P₇	P₈
P₁	1(P₁×P₆)	2(P₁×P₇)	3(P₁×P₈)
P₂	4(P₂×P₆)	5(P₂×P₇)	6(P₂×P₈)
P₃	7(P₃×P₆)	8(P₃×P₇)	9(P₃×P₈)
P₄	10(P₄×P₆)	11(P₄×P₇)	12(P₄×P₈)
P₅	13(P₅×P₆)	14(P₅×P₇)	15(P₅×P₈)

性状 Trait	世代 Generation	区组 Block	组合 Combination	父本 Male	母本 Female	父本×母本 Male×Female	广义遗传力 H²(%)	狭义遗传力 h²(%)
株高 Plant height	F₁	4.07^*	3.76^**	1.96	0.99	3.31^**	85.43	18.66
株高 Plant height	F₂	1.15	4.17^**	4.60^*	0.64	2.95^**	88.18	23.54
叶绿素含量SPAD Chlorophyll content	F₁	2.63	13.60^**	0.93	0.37	16.79^**	94.36	25.68
叶绿素含量SPAD Chlorophyll content	F₂	1.83	18.48^**	4.2705^*	0.51	15.60^**	90.04	24.68
净光合速率Pn Net photosynthetic rate	F₁	0.26	17.56^**	2.12	0.56	16.99^**	92.04	23.45
净光合速率Pn Net photosynthetic rate	F₂	0.03	35.02^**	3.57	0.52	28.50^**	97.89	26.79
光合导度Gs Photosynthetic conductivity	F₁	0.29	33.66^**	5.46^*	1.74	18.21^**	84.31	13.48
光合导度Gs Photosynthetic conductivity	F₂	0.42	23.32^**	4.17^*	0.14	20.03^**	86.19	10.73
胞间CO₂浓度 Intercellular carbon dioxide concentrationCi	F₁	2.51	15.65^**	14.02^**	0.47	5.78^**	86.02	11.65
胞间CO₂浓度 Intercellular carbon dioxide concentrationCi	F₂	0.65	25.79^**	23.84^**	3.58^*	5.19^**	80.40	10.99
蒸腾速率Tr Transpiration rate	F₁	6.12^**	0.62	0.29	0.56	0.80	10.44	5.14
蒸腾速率Tr Transpiration rate	F₂	3.72^*	2.75^**	2.41	1.09	2.24^*	59.93	13.07

性状 Trait	世代 Generation	区组 Block	组合 Combination	父本 Male	母本 Female	父本×母本 Male×Female	广义遗传力 H²(%)	狭义遗传力 h²(%)
株高 Plant height	F₁	4.07^*	3.76^**	1.96	0.99	3.31^**	85.43	18.66
株高 Plant height	F₂	1.15	4.17^**	4.60^*	0.64	2.95^**	88.18	23.54
叶绿素含量SPAD Chlorophyll content	F₁	2.63	13.60^**	0.93	0.37	16.79^**	94.36	25.68
叶绿素含量SPAD Chlorophyll content	F₂	1.83	18.48^**	4.2705^*	0.51	15.60^**	90.04	24.68
净光合速率Pn Net photosynthetic rate	F₁	0.26	17.56^**	2.12	0.56	16.99^**	92.04	23.45
净光合速率Pn Net photosynthetic rate	F₂	0.03	35.02^**	3.57	0.52	28.50^**	97.89	26.79
光合导度Gs Photosynthetic conductivity	F₁	0.29	33.66^**	5.46^*	1.74	18.21^**	84.31	13.48
光合导度Gs Photosynthetic conductivity	F₂	0.42	23.32^**	4.17^*	0.14	20.03^**	86.19	10.73
胞间CO₂浓度 Intercellular carbon dioxide concentrationCi	F₁	2.51	15.65^**	14.02^**	0.47	5.78^**	86.02	11.65
胞间CO₂浓度 Intercellular carbon dioxide concentrationCi	F₂	0.65	25.79^**	23.84^**	3.58^*	5.19^**	80.40	10.99
蒸腾速率Tr Transpiration rate	F₁	6.12^**	0.62	0.29	0.56	0.80	10.44	5.14
蒸腾速率Tr Transpiration rate	F₂	3.72^*	2.75^**	2.41	1.09	2.24^*	59.93	13.07

亲本 Parent	世代 Generation	株高 Plant height	叶绿素含量SPAD Chlorophyll content	净光合速率Pn Net photosynthetic rate	光合导度Gs Photosynthetic conductivity	胞间CO₂浓度Ci Intercellular carbon dioxide concentration	蒸腾速率Tr Transpiration rate
P₁	F₁	0.218	0.521	0.148	18.506	-11.144	-0.182
P₁	F₂	0.070	-0.254	0.450	-16.083	-26.446	-0.258
P₂	F₁	0.001	-0.538	2.398	11.256	-7.052	0.269
P₂	F₂	-0.046	-1.523	1.497	16.536	2.169	0.131
P₃	F₁	0.416	-1.352	0.052	-3.152	-5.471	-0.240
P₃	F₂	0.293	-1.832	0.311	15.120	1.573	-0.088
P₄	F₁	-0.379	1.081	-1.714	-36.115	15.572	0.061
P₄	F₂	-0.254	1.900	-0.676	8.589	1.465	0.281
P₅	F₁	-0.257	0.288	-0.885	9.505	8.096	0.093
P₅	F₂	-0.064	1.710	-1.581	-24.162	21.240	-0.066
P₆	F₁	-0.154	0.242	-0.271	6.463	-3.964	-0.040
P₆	F₂	0.247	1.197	0.493	13.713	-1.155	0.192
P₇	F₁	0.089	-0.446	0.425	2.894	1.811	0.219
P₇	F₂	-0.124	-1.255	1.018	-1.921	-0.669	-0.027
P₈	F₁	0.064	0.204	-0.155	-9.357	2.153	-0.179
P₈	F₂	-0.123	0.059	-1.512	-11.792	1.823	-0.165

Heterosis Performance and Their Parental Combining Ability Analysis of F₁ and F₂ Hybrids of Upland Cotton at Seedling Stage

陆地棉杂交组合F₁、F₂苗期优势表现及亲本配合力分析

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亲本 Parent	世代 Generation	株高 Plant height	叶绿素含量SPAD Chlorophyll content	净光合速率Pn Net photosynthetic rate	光合导度Gs Photosynthetic conductivity	胞间CO₂浓度Ci Intercellular carbon dioxide concentration	蒸腾速率Tr Transpiration rate
1	F₁	0.012	0.343	-0.736	-4.095	2.699	-0.019
1	F₂	-0.593	0.614	-1.062	11.863	5.756	0.269
2	F₁	0.416	-1.471	2.372	17.742	5.687	0.281
2	F₂	-0.203	-2.106	2.235	-6.198	-7.614	-0.432
3	F₁	0.034	0.403	-0.825	-33.035	3.505	-0.142
3	F₂	0.055	-2.099	-2.653	-46.803	5.323	-0.413
4	F₁	0.041	-0.325	0.223	24.856	2.465	-0.091
4	F₂	0.025	-0.350	0.130	-17.766	-8.201	-0.093
5	F₁	0.110	-0.356	0.824	-13.103	3.157	0.492
5	F₂	-0.374	-1.817	0.980	-18.369	-3.318	0.107
6	F₁	0.311	-0.045	-0.235	-31.142	6.269	-0.281
6	F₂	-0.392	-1.423	-2.589	-5.004	14.982	-0.590
7	F₁	0.068	0.369	1.355	-1.017	-5.824	-0.196
7	F₂	0.705	0.559	1.295	9.772	-1.940	-0.148
8	F₁	0.413	-0.057	-0.429	-18.743	4.105	0.396
8	F₂	-0.454	-2.668	-0.911	-33.459	4.627	-0.229
9	F₁	-0.019	-1.037	-0.114	0.372	13.61	-0.080
9	F₂	-0.992	-1.481	-1.863	-17.452	0.777	-0.198
10	F₁	-0.423	-0.037	0.374	2.371	-3.274	-0.245
10	F₂	0.305	-0.356	0.399	6.816	-1.420	-0.084
11	F₁	0.488	-1.871	1.644	-10.907	4.362	0.357
11	F₂	-0.667	-3.194	0.378	-12.011	6.867	-0.041
12	F₁	0.397	1.183	-1.207	-10.853	10.804	0.009
12	F₂	-0.379	-0.039	-2.256	-35.943	-1.983	-0.451
13	F₁	0.302	-0.351	-1.216	-22.114	3.934	0.551
13	F₂	-0.443	-0.467	-0.762	-10.685	5.805	0.056
14	F₁	-0.210	0.316	-0.933	7.164	11.564	-0.230
14	F₂	-0.155	-2.476	-0.056	-8.132	1.868	-0.500
15	F₁	0.370	-0.691	2.961	-4.439	-3.606	-0.202
15	F₂	-0.143	-0.646	-0.662	-22.321	-4.209	-0.132

组合 Combin- ation	世代 Gener- ation	株高Plant height				叶绿素含量SPAD Chlorophyll content
组合 Combin- ation	世代 Gener- ation	平均值 Average value	竞争优势 Competitive advantage	中亲优势 Mid-parent heterosis	超亲优势 Over-parent heterosis	平均值 Average value	竞争优势 Competitive advantage	中亲优势 Mid-parent heterosis	超亲优势 Over-parent heterosis
1	F₁	18.49	2.08	4.16	1.30	42.51^*	9.41	14.14	0.11
	F₂	17.94	2.62	1.06	-1.71	41.51^*	6.84	11.46	-2.25
2	F₁	18.89	4.31	9.70	9.52	40.69	4.74	2.80	-4.16
	F₂	18.33	1.20	6.43	6.25	38.79	-0.17	-2.02	-8.65
3	F₁	18.51	2.20	7.14	6.98	42.57^**	9.56	3.93	0.25
	F₂	18.59	-0.96	9.37	7.42	38.79	-0.15	-5.28	-8.64
4	F₁	18.30	1.04	3.29	0.27	40.78	4.96	9.51	1.22
	F₂	18.44	1.81	4.82	1.04	39.27	1.09	5.46	-2.52
5	F₁	18.37	1.42	6.87	6.84	40.75^*	4.88	1.90	2.66
	F₂	18.04	-0.39	5.72	4.93	37.81	-2.69	-5.46	-4.75
6	F₁	18.57	2.53	7.70	7.33	41.06^**	5.69	3.76	3.44
	F₂	18.02	-0.49	7.06	4.16	38.20	-1.68	-3.47	-3.76
7	F₁	18.74	3.48	4.22	2.69	40.66	4.66	1.20	0.93
	F₂	19.46^*	7.44	8.80	6.62	39.87	2.63	-0.75	-1.03
8	F₁	19.09	5.39	9.36	7.74	40.23	3.56	4.80	0.42
	F₂	18.30	1.04	5.44	3.29	36.65	-5.67	-4.54	-8.54
9	F₁	18.65	3.00	6.54	5.30	39.25	1.04	-1.27	-2.03
	F₂	17.76	-1.93	3.70	0.26	37.83	-2.62	-4.85	-5.57
10	F₁	17.46	-3.62	-2.56	-4.35	42.69^*	9.87	7.26	5.96
	F₂	18.51	2.21	4.70	1.44	42.69^*	9.88	5.72	5.97
11	F₁	18.37	1.41	5.64	4.48	40.85	5.15	7.48	3.93
	F₂	17.54	-3.16	2.26	-0.23	39.85	2.58	3.26	1.39
12	F₁	18.28	0.90	4.78	3.96	43.91^*	13.01	11.49	11.29
	F₂	17.83	-1.56	5.34	1.41	43.01^*	10.70	7.62	9.01
13	F₁	18.30	1.06	3.61	0.29	41.58^*	7.02	3.30	3.21
	F₂	17.95	-0.87	1.63	-1.63	42.39	9.11	1.88	5.22
14	F₁	17.79	-1.77	3.82	3.48	42.25	8.74	9.83	4.87
	F₂	18.24	0.72	6.45	6.11	40.38	3.94	1.41	0.23
15	F₁	18.37	1.44	6.86	6.18	41.24^**	6.15	3.53	2.37
	F₂	18.25	0.79	7.96	5.50	42.21	8.65	2.48	4.77
CK		18.11				38.85
组合 Combin- ation	世代 Gener- ation	净光合速率Pn Net photosynthetic rate				光合导度Gs Photosynthetic conductivity
组合 Combin- ation	世代 Gener- ation	平均值 Average value	竞争优势 Competitive advantage	中亲优势 Mid-parent heterosis	超亲优势 Over-parent heterosis	平均值 Average value	竞争优势 Competitive advantage	中亲优势 Mid-parent heterosis	超亲优势 Over-parent heterosis
1	F₁	16.99	13.83	5.24	2.26	271.45	50.44	20.55	18.62
	F₂	16.37	-1.03	1.35	-1.52	249.10	38.05	10.63	8.85
2	F₁	20.10^*	34.66	21.74	15.89	293.29^**	62.54	30.14	27.93
	F₂	19.66^*	31.72	19.08	13.36	231.04	28.04	2.51	0.78
3	F₁	16.90	13.24	4.54	1.45	242.51	34.40	0.47	-7.18
	F₂	14.77	9.63	-8.63	-11.33	190.43	5.54	-21.11	-27.11
4	F₁	20.20^*	35.33	25.72	21.57	293.15^**	62.47	30.34	28.10
	F₂	18.60	24.62	15.78	11.95	252.09	39.71	12.08	10.16
5	F₁	20.80^*	39.35	26.59	19.93	255.19	41.43	13.36	11.32
	F₂	19.45^*	30.32	18.38	12.15	251.49	39.37	11.71	9.70
6	F₁	19.74^*	32.25	22.69	18.49	237.15	31.43	-1.65	-9.23
	F₂	15.88	6.41	-1.28	-4.67	264.85^*	46.78	9.84	1.37
7	F₁	18.99^*	27.19	21.96	14.26	252.87^**	40.14	18.05	10.50
	F₂	18.58	24.48	19.36	11.82	278.21^*	54.19	29.88	21.57
8	F₁	17.20	15.24	7.98	-0.82	235.15^*	30.32	9.67	2.57
	F₂	16.38	9.71	2.79	-5.59	234.98	30.23	9.59	2.50
9	F₁	17.52	17.35	12.36	5.14	254.26^*	40.91	10.35	-2.68
	F₂	15.42	3.33	-1.07	-7.43	250.99	39.10	8.93	-3.94
10	F₁	16.24	8.80	2.56	-2.27	223.30	23.75	-2.37	-2.43
	F₂	16.70	11.87	5.46	0.50	268.72	48.93	17.49	17.42
11	F₁	17.51	17.30	8.09	0.95	210.02	16.39	-8.25	-8.39
	F₂	16.68	11.73	2.96	-3.85	249.90	38.49	9.17	9.01
12	F₁	14.66	-1.80	-7.56	-12.02	210.07	16.42	-14.23	-19.60
	F₂	14.04	-5.92	-11.43	-15.71	225.96	25.23	-7.74	-13.51
13	F₁	15.48	3.69	0.21	-6.85	244.43	35.46	11.68	6.81
	F₂	14.63	-1.97	-5.26	-11.94	218.47	21.08	-0.18	-4.53
14	F₁	15.76	5.60	-0.30	-9.12	273.71^*	51.69	24.94	19.39
	F₂	15.34	2.76	-2.98	-11.56	221.02	22.49	0.89	-3.59
15	F₁	19.66^*	31.68	27.07	17.97	262.11^*	45.26	11.50	0.32
	F₂	14.73	-1.30	-4.75	-11.57	206.84	14.63	-12.01	-20.83
CK		14.93				180.44
组合 Combin- ation	世代 Gener- ation	胞间CO₂浓度Ci Intercellular carbon dioxide concentration				蒸腾速率Tr Transpiration rate
组合 Combin- ation	世代 Gener- ation	平均值 Average value	竞争优势 Competitive advantage	中亲优势 Mid-parent heterosis	超亲优势 Over-parent heterosis	平均值 Average value	竞争优势 Competitive advantage	中亲优势 Mid-parent heterosis	超亲优势 Over-parent heterosis
1	F₁	227.32	-2.15	-17.21	-23.84	3.83^**	51.41	-10.88	-13.64
	F₂	221.26	-4.76	-14.42	-25.88	4.01	58.73	-6.57	-9.46
2	F₁	230.31	-0.86	-18.26	-22.84	4.13^**	63.28	-6.54	-11.73
	F₂	207.89	-10.51	-21.76	-30.36	3.31	31.01	-25.02	-29.17
3	F₁	228.13	-1.80	-18.66	-23.57	3.70^**	46.54	-11.22	-11.54
	F₂	220.82	-4.94	-16.49	-26.02	3.33	31.74	-20.19	-20.48
4	F₁	231.18	-0.49	-11.68	-15.28	4.21^*	66.42	-5.66	-6.25
	F₂	235.91	1.55	-9.88	-13.55	4.04	59.79	-9.42	-9.98
5	F₁	231.88	-0.19	-13.78	-15.03	4.79^**	89.46	4.54	2.43
	F₂	240.80	3.65	-10.47	-11.76	4.24	67.69	-7.48	-9.35
6	F₁	234.99	1.15	-12.20	-13.89	4.02^**	58.92	-7.38	-10.48
	F₂	259.10	11.53	-3.20	-5.05	3.54	40.14	-18.33	-21.05
7	F₁	224.48	-3.37	-11.78	-13.08	3.59	42.11	-8.37	-18.94
	F₂	241.58	3.99	-5.06	-6.46	3.77	48.93	-3.98	-15.05
8	F₁	234.40	0.90	-10.41	-11.55	4.19^**	65.54	3.51	-10.50
	F₂	248.15	6.82	-5.15	-6.36	3.68	45.73	-8.88	-21.22
9	F₁	243.91	4.99	-6.31	-7.05	3.71	46.69	-2.38	-11.45
	F₂	244.30	5.16	-6.16	-6.90	3.72	46.95	-2.21	-11.29
10	F₁	248.07	6.78	-3.71	-6.26	3.84	52.08	-13.87	-14.48
	F₂	241.99	4.17	-6.07	-8.56	4.20	66.08	-5.94	-6.60
11	F₁	255.70	10.07	-3.44	-3.51	4.45	75.88	-3.04	-4.91
	F₂	250.28	7.73	-5.49	-5.56	4.24	67.76	-7.52	-9.31
12	F₁	262.15	12.84	-0.52	-0.94	4.10	62.12	-5.60	-8.83
	F₂	241.43	3.92	-8.39	-8.77	3.83	51.55	-11.76	-14.77
13	F₁	247.80	6.67	-2.22	-3.29	4.67	84.85	13.09	5.44
	F₂	268.99	15.79	6.14	4.98	3.99	57.90	-3.40	-9.94
14	F₁	255.43	9.95	-1.99	-3.61	3.89^**	53.94	-8.52	-16.78
	F₂	265.05	14.09	1.70	0.02	3.44	35.90	-19.24	-26.53
15	F₁	240.26	3.42	-7.35	-8.44	3.92	55.06	-2.25	-6.40
	F₂	258.98	11.48	-0.13	-1.31	3.80	50.45	-5.16	-9.18
CK		232.31				2.53

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