Scientia Agricultura Sinica ›› 2024, Vol. 57 ›› Issue (3): 469-483.doi: 10.3864/j.issn.0578-1752.2024.03.004

• TILLAGE & CULTIVATION·PHYSIOLOGY & BIOCHEMISTRY·AGRICULTURE INFORMATION TECHNOLOGY • Previous Articles     Next Articles

Differences in Physicochemical Characteristics and Eating Quality Between High Taste Northern Japonica Rice and Southern Semi- Glutinous Japonica Rice Varieties in China

ZHU DaWei(), ZHENG Xin, YU Jing, MOU RenXiang, CHEN MingXue, SHAO YaFang(), ZHANG LinPing()   

  1. China National Rice Research Institute/Rice Products Quality Supervision and Inspection Center, Ministry of Agriculture and Rural Affairs, Hangzhou 311400
  • Received:2023-09-05 Accepted:2023-10-25 Online:2024-02-01 Published:2024-02-05

Abstract:

【Objective】Clarifying the differences of physicochemical characteristics and sensory taste qualities between northern japonica and southern semi-glutinous high eating quality japonica rice varieties in China is of great significance to the cultivation of high eating quality japonica rice. 【Method】In this study, representative northern japonica varieties and southern semi-glutinous japonica varieties were used as materials, Japanese Koshihikari rice was used as a control to systematically analyze the differences in appearance quality, starch fine structure, protein components, pasting properties of rice flour, cooked-rice texture, and sensory taste qualities of the two categories of japonica rice. 【Result】Although the three northern japonica varieties and the three southern semi-glutinous japonica varieties had high similar sensory taste values, they had significant differences of starch fine structure, protein components, pasting characteristics, and cooked-rice texture. For cooked rice sensory taste, three high taste northern japonica varieties showed better palatability (96-98 points), and three southern semi-glutinous japonica varieties showed better cold rice texture (92-100 points). For physicochemical characteristics, the three northern japonica varieties showed higher apparent amylose content (17.6%-19.6%), lower crude protein, gliadin and glutenin content. The three southern semi-glutinous japonica varieties showed lower apparent amylose content (8.5%-10.5%) and higher gliadin and glutenin content. For starch fine structure, the amylose content and amylose/amylopectin ratio of the three southern semi-glutinous japonica rice varieties were low (54.7% and 55.6% lower on average, respectively), and they had similar amylopectin chain length distribution. In addition, the ratio of amylose short chain to long chain in Nanjing 46 and Ningxiangjing 9 was higher than that in Wuyoudao 4 and Tianlongyou 619 (43.2% higher on average). As a result, the rice flour of southern semi-glutinous japonica varieties had higher pasting temperature, peak viscosity, breakdown value, and lower setback viscosity, and the cooked rice had higher stickiness, less hardness and elasticity. 【Conclusion】Taste quality is a synergy of multiple factors of cooked rice, such as appearance, taste and cold rice texture. Appropriate protein components and amylose ratio are the key factors affecting pasting characteristics of rice flour and sensory taste of rice. In this study, the high eating quality northern japonica varieties had lower pasting temperatures, moderate hardness, and better elasticity, while the high eating quality southern semi-glutinous japonica varieties exhibited higher breakdown value, and the cooked rice had higher viscosity and better appearance.

Key words: Japonica rice, taste quality, sensory evaluation, starch structure, pasting characteristics

Fig. 1

Cooked rice sensory evaluation of different rice varieties Values in the same graph with different letters are significantly different (P<0.05), CK: YG: Yueguang. Northern japonica rice varieties: WYD4: Wuyoudao 4; TLY619: Tianlongyou 619; JG816: Jijing 816. Southern semi-glutinous japonica rice varieties: NG46: Nanjing 46; YX38: Yinxiang 38; NXG9: Ningxiangjing 9. The same as below"

Fig. 2

Alkali spreading value and gel consistency of different rice varieties"

Fig. 3

Cooked rice texture of rice varieties"

Fig. 4

Milled rice appearance quality of different rice varieties"

Fig. 5

Apparent amylose content, protein content and protein components of different rice varieties"

Fig. 6

Fine structure of debranched starch (A) and amylopectin chain length distribution (B) of rice varieties"

Table 1

Size exclusion chromatography parameters of starch from Japonica rice varieties"

品种类型
Variety type
品种
Variety
直链与总淀粉比
AM/(AM+AP)
直链淀粉与支链淀粉比
AM/AP
支链淀粉短链与长链比
AP1/AP2
直链淀粉短链与长链比
AM1/AM2
对照CK 越光YG 11.8±0.10b 0.13±0.002c 3.57±0.05e 2.42±0.06c
北方粳稻
Northern
Japonica rice
五优稻4号WYD 4 15.2±0.12a 0.18±0.003b 4.34±0.04d 2.03±0.04e
天隆优619 TLY 619 17.7±0.14a 0.22±0.004a 4.69±0.06cd 2.11±0.05de
吉粳816 JG 816 13.2±0.12b 0.14±0.005c 6.68±0.04a 2.68±0.06b
均值Mean value 15.4 0.18 5.2 2.3
变异系数CV 14.5 22.2 24.1 15.6
南方半糯性粳稻
Southern semi-glutinous Japonica rice
南粳46 NG 46 6.0±0.13c 0.08±0.006d 5.85±0.02b 2.99±0.04a
银香38 YX 38 7.0±0.11c 0.08±0.007d 5.59±0.03b 2.20±0.05cd
宁香粳9号NXG 9 7.8±0.12c 0.08±0.005d 4.66±0.04c 2.94±0.06a
均值Mean value 7.0 0.08 5.4 2.7
变异系数CV 12.5 0 11.7 16.3

Table 2

Amylopectin chain length distributions of starch from Japonica rice varieties"

品种类型
Variety type
品种
Variety
Fa链含量
(DP 6—12)
Fa content
Fb1链含量
(DP 13—24)
Fb1 content
Fb2链含量
(DP 25—36)
Fb2 content
Fb3链含量
(DP 37+)
Fb3 content
对照CK 越光YG 25.5±0.12c 47.8±0.10b 11.2±0.15b 15.5±0.20b
北方粳稻
Northern
Japonica rice
五优稻4号WYD 4 30.5±0.11a 47.4±0.09c 9.6±0.16c 12.5±0.21d
天隆优619 TLY 619 26.7±0.12b 47.8±0.12b 10.5±0.14b 15.0±0.22c
吉粳816 JG 816 20.2±0.13d 49.0±0.13d 12.8±0.17a 18.0±0.19a
均值Mean value 25.8 48.1 11.0 15.2
变异系数CV 20.2 1.7 15.3 18.0
南方半糯性粳稻
Southern semi-glutinous Japonica rice
南粳46 NG 46 25.8±0.14c 48.0±0.14b 11.2±0.16b 15.0±0.18c
银香38 YX 38 25.8±0.12c 48.5±0.11a 10.9±0.17b 14.7±0.17c
宁香粳9号NXG 9 26.4±0.13b 48.2±0.10b 10.8±0.18b 14.6±0.16c
均值Mean value 26.0 48.2 11.0 14.8
变异系数CV 1.3 0.5 2.1 1.3

Fig. 7

Starch swelling power of rice varieties"

Table 3

Thermal properties of rice flour from Japonica rice varieties"

品种类型 Variety type 品种 Variety 热焓值 ΔHgel (J·g-1) 峰值温度 Tp (℃) 起始温度 To (℃) 终止温度 Tc (℃)
对照CK 越光YG 9.2±0.17a 70.0±0.23a 64.3±0.21a 77.9±0.13a
北方粳稻
Northern
Japonica rice
五优稻4号 WYD 4 8.4±0.21c 66.8±0.32c 60.3±0.26d 75.5±0.14c
天隆优619 TLY 619 7.9±0.23c 67.0±0.30c 60.6±0.35d 75.3±0.17c
吉粳816 JG 816 8.2±0.22c 68.5±0.35b 62.0±0.26c 76.2±0.18b
均值Mean value 8.2 67.4 60.9 75.6
变异系数CV 3.0 1.3 1.5 0.6
南方半糯性粳稻
Southern semi-glutinous Japonica rice
南粳46 NG 46 9.1±0.18ab 69.5±0.30a 63.3±0.24b 77.1±0.20b
银香38 YX 38 8.9±0.16b 69.5±0.25a 62.4±0.20bc 77.6±0.21a
宁香粳9号NXG 9 9.1±0.17ab 70.4±0.27a 64.4±0.10a 78.2±0.22a
均值Mean value 9.1 69.8 63.4 77.6
变异系数CV 1.2 0.8 1.5 0.7

Table 4

Pasting properties of rice flour from Japonica rice varieties"

品种类型 Variety type 品种 Variety 峰值黏度 PV (cP) 热浆黏度 TV (cP) 崩解值 BV (cP) 终值黏度 FV (cP) 消减值 SV (cP)
对照CK 越光YG 3504±4a 2220±3a 1284±1b 3372±3a -132±3c
北方粳稻
Northern
Japonica rice
五优稻4号 WYD 4 2818±5d 2150±5a 668±3d 3264±4b 446±4b
天隆优619 TLY 619 2240±8f 1601±4c 639±6d 2896±5d 656±5a
吉粳816 JG 816 2514±6e 1732±5bc 782±5c 3017±6c 503±5b
均值Mean value 2524 1828 696 3059 535
变异系数CV 11.5 15.7 10.9 6.1 20.3
南方半糯性粳稻
Southern semi-glutinous Japonica rice
南粳46 NG 46 3444±7a 2208±8a 1236±7b 2988±4c -456±6d
银香38 YX 38 3290±8b 1712±6bc 1578±5a 2367±5f -923±4f
宁香粳9号NXG 9 3082±5c 1861±7b 1221±7b 2527±6e -555±3e
均值Mean value 3272 1927 1345 2627 -645
变异系数CV 5.6 13.2 15.0 12.3 38.2

Fig. 8

PCA analysis of physicochemical properties from rice varieties NJR: Northern Japonica rice; SSGJR: Southern semi-glutinous Japonica rice"

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