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Journal of Chinese Integrative Medicine ›› 2012, Vol. 10 ›› Issue (10): 1106-1119.doi: 10.3736/jcim20121007

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A theoretical and experimental study on the Fuzzy evaluation model of biological performance of Chinese materia medica with an either cold or hot herbal property

Rui Jin1, Bing Zhang1(), Xiao-qing Liu1, Chun-miao Xue1, Qian Zhang1, Lian-zhen Li1, Qian Zhao 1, Kang Li2   

  1. 1. School of Traditional Chinese Medicine, Beijing University of Chinese Medicine, Beijing 100102, China
    2. School of Mathematical Sciences, Peking University, Beijing 101871, China
  • Received:2012-03-21 Accepted:2012-05-08 Online:2012-10-20 Published:2018-10-15
  • Contact: Bing Zhang E-mail:zhangbing6@263.net

Objective: The concepts of cold and hot herbal properties in traditional Chinese medicine (TCM), reflecting the efficacy trends of medicinal herbs, have the Fuzzy characteristics. It is suited for the application of Fuzzy mathematics in research of herbal properties. For a comprehensive evaluation of herbal properties, this work constructed and made a practice of the Fuzzy discrimination model regarding the biological performance of Chinese materia medica. .

Methods: Firstly, TCM formulas of cold or hot property were employed for setting the reference values and calculating the membership functions of cold and hot Fuzzy sets with Fisher discriminant. Then the model parameters of cold performance function (CPF) and hot performance function (HPF) were acquired. Second, the experimental data from studies on changes in multisystem indicators of animals given the classical cold formula (Sanhuang Fang) and hot formula (Jiangfugui Fang) were collected to calculate CPF and HPF. Then an experiment of administration of hot property herbs, Rougui (Cortex Cinnamomi) and Xianmao (Rhizoma Curculiginis), and cold property herbs, Huangbai (Cortex Phellodendri) and Zhizi (Fructus Gardeniae) to normal animals and animals with glucocorticoid-induced yang-deficiency or yin-deficiency state was designed. The relative changes in animal states were analyzed by the evaluation model to find the way in which herbal properties are represented.

Results: The HPF values of biological performance were higher than the CPF values in administration of Rougui to animals of normal (0.528>0.221), yang-deficiency (0.203>–0.490) and yin-deficiency (1.750>–0.479) states, and in administration of Xianmao to animals of normal (0.474>–1.601) and yang-deficiency (0.288>–1.923) states, which represented the hot property. The HPF values of biological performance were lower than the CPF values in administration of Huangbai to animals of normal (–0.870<0.798) and yang-deficiency (–0.339<0.194) states, and in administration of Zhizi to animals of yin-deficiency (–1.802<0.354) state, which represented the cold property.

Conclusion: The herbal properties and the biological performance characteristics of herbal formulas are ascertained by using the Fuzzy evaluation model. The personalities, as well as commonalities of herbal properties are key areas for focus because of the multi-approach biological performance of cold and hot property.

Key words: properties and flavous (TCD), cold (TCD), hot (TCD), expression of herbal properties, Fuzzy mathematics

Table 1

Experiment design for training data set"

Type Case load Biochemical indicators
(representation of medicine property)
Normal NC+NH X1 X2 XP
Group of cold
property formula
NC X1 X2 XP
Group of hot
property formula
NH X1 X2 XP

Table 2

Experiment design for testing data set"

Medicine type Body condition Case load Biochemical indicators (representation of medicine property)
Normal nc+nh X1 X2 XP
Deficiency-cold nc+nh X1 X2 XP
Deficiency-hot nc+nh X1 X2 XP
Cold property medicine Normal nc X1 X2 XP
Cold property medicine Deficiency-cold nc X1 X2 XP
Cold property medicine Deficiency-hot nc X1 X2 XP
Hot property medicine Normal nh X1 X2 XP
Hot property medicine Deficiency-cold nh X1 X2 XP
Hot property medicine Deficiency-hot nh X1 X2 XP

Table 3

Herbal medicines in experiment for training set"

Item Group of cold property formula Group of hot property formula
Administration agent Prepared slices of Chinese crude drugs
Proportioning


Radix ScutellariaeRhizoma CoptidisCortex Phellodendri
(1∶1∶1)
Rhizoma ZingiberisRadix Aconiti Lateralis PreparataCortex Cinnamomi (1∶1∶1)
Dosage 6 g/kg body weight 8 g/kg body weight

Table 4

Experimental method for training set"

Group Day 1 to day 14
1 Normal
2 Cold property Water decoction of cold property formula
3 Hot property Water decoction of hot property formula

Table 5

Experimental method for testing set"

Group Modeling (Day 1 to day 21) Administration (Day 15 to day 21)
Normal
Deficiency-cold model Hydrocortisone 20.0 mg/kg
Deficiency-hot model Dexamethasone 0.35 mg/kg
Administration of Rougui 30 g/kg
Normal Rougui water decoction
Deficiency-cold model Hydrocortisone 20.0 mg/kg Rougui water decoction
Deficiency-hot model Dexamethasone 0.35 mg/kg Rougui water decoction
Administration of Xianmao 12 g/kg
Normal Xianmao water decoction
Deficiency-cold model Hydrocortisone 20.0 mg/kg Xianmao water decoction
Deficiency-hot model Dexamethasone 0.35 mg/kg Xianmao water decoction
Administration of Huangbai 5 g/kg
Normal Huangbai water decoction
Deficiency-cold model Hydrocortisone 20.0 mg/kg Huangbai water decoction
Deficiency-hot model Dexamethasone 0.35 mg/kg Huangbai water decoction
Administration of Zhizi 2 g/kg
Normal Zhizi water decoction
Deficiency-cold model Hydrocortisone 20.0 mg/kg Zhizi water decoction
Deficiency-hot model Dexamethasone 0.35 mg/kg Zhizi water decoction

Table 6

Comparison of T3, T4, CS, E2 and T levels in rats of different groups ($\overline{x}$±s)"

Group n T3 (μg/L) T4 (μg/L) CS (μg/L) E2 (ng/L) T (μg/L)
Normal 76 0.70±0.12 79.29±13.24 7.44±3.33 134.94±48.33 1.84±1.20
Cold formula 38 0.64±0.13* 78.93±13.08 6.79±4.01 127.26±70.07 1.78±0.82
Hot formula 38 0.79±0.16* 83.87±8.65 8.72±2.92* 98.72±39.31* 1.91±2.42

Table 7

Comparison of IgM, IgG, C3 and C4 levels in rats of different groups ($\overline{x}$±s, mg/L)"

Group n IgM IgG C3 C4
Normal 76 39.23±9.84 55.66±18.50 47.72±4.21 5.05±1.31
Cold formula 38 44.58±8.43* 55.08±12.85 50.06±4.81* 4.87±1.53
Hot formula 38 49.46±11.43* 49.19±15.20 50.86±6.01* 5.67±1.34*

Table 8

Comparison of GLU, TC, TAG and UA levels in rats of different groups ($\overline{x}$±s, mmol/L)"

Group n GLU TC TAG UA
Normal 76 4.71±0.75 1.17±0.20 0.85±0.24 93.99±18.16
Cold formula 38 4.83±0.65 1.09±0.24* 0.81±0.25 106.20±30.08*
Hot formula 38 5.02±0.80* 1.29±0.25* 0.88±0.27 75.53±20.43*

Table 9

Comparison of TP, ALB, LAC and LDH levels in rats of different groups ($\overline{x}$±s)"

Group n TP (g/L) ALB (g/L) LAC (U/L) LDH (mmol/L)
Normal 76 63.19±4.35 27.56±1.54 5.66±0.83 1880.51±404.08
Cold formula 38 64.59±3.20 28.66±1.71* 6.22±1.68* 1781.53±439.89
Hot formula 38 65.92±5.63* 28.37±1.72* 6.17±0.65* 1957.56±339.44

Table 10

Comparison of BUN, CRE, ALT and AST levels in rats of different groups ($\overline{x}$±s)"

Group n BUN (μmol/L) CRE (μmol/L) ALT (U/L) AST (U/L)
Normal 76 6.31±0.66 41.89±10.52 80.37±11.08 182.84±35.05
Cold formula 38 6.09±0.61 40.04±9.54 75.81±10.90* 175.13±35.31
Hot formula 38 6.51±0.74 41.83±8.00 83.11±9.23 192.53±29.00

Table 11

Discriminant results between cold formula group and normal group"

Number Indicator Partial R-Square F value Pr
1 ALB 0.096 5 11.97 0.000 8
2 ALT 0.100 9 12.45 0.000 6
3 T3 0.082 5 9.89 0.002 1
4 BUN 0.064 8 7.55 0.007 0
5 UA 0.062 6 7.22 0.008 4
6 IgM 0.072 5 8.36 0.004 6
7 TC 0.036 6 4.03 0.047 3
8 C3 0.032 1 3.49 0.064 6
9 C4 0.042 6 4.63 0.033 8

Table 12

Discriminant results between hot formula group and normal group"

Number Indicator Partial R-Square F value Pr
1 IgM 0.179 7 24.53 <0.000 1
2 UA 0.141 9 18.36 <0.000 1
3 C3 0.084 2 10.11 0.001 9
4 IgG 0.068 8 8.06 0.005 4
5 CS 0.062 3 7.17 0.008 6
6 T 0.046 7 5.24 0.024 0
7 E2 0.040 3 4.45 0.037 2
8 TP 0.030 8 3.34 0.070 5
9 GLU 0.030 5 3.30 0.072 2
10 ALT 0.030 4 3.26 0.074 0

Figure 1

Cold performance function (blue) and hot performance function (red) "

Table 13

Comparison of T3, CS, E2 and T levels in rats of different groups ($\overline{x}$±s)"

Group n T3 (μg/L) CS (μg/L) E2 (ng/L) T (μg/L)
Normal 30 0.71±0.11 7.45±3.27 134.94±30.01 1.85±1.68
Deficiency-cold model 30 0.56±0.11* 6.34±1.79 147.74±39.17 1.67±1.49
Deficiency-hot model 30 0.99±0.23* 1.41±1.27* 142.31±23.81 2.78±2.30
Rougui
Normal 10 0.66±0.13 6.70±3.43 104.24±22.53* 0.49±1.28
Deficiency-cold model 10 0.63±0.10 6.38±2.70 135.37±67.28 1.79±2.28
Deficiency-hot model 9 0.95±0.14 0.94±0.89 155.09±46.65 4.80±2.21
Xianmao
Normal 10 0.64±0.12 8.85±3.13 89.41±10.83* 0.17±0.56*
Deficiency-cold model 10 0.65±0.10 5.89±3.11 84.66±13.09 0.80±1.32
Deficiency-hot model 10 0.98±0.13 1.03±0.86 93.74±13.82 3.25±1.95
Huangbai
Normal 10 0.61±0.10* 8.59±4.16 138.02±48.22 1.79±1.22
Deficiency-cold model 10 0.53±0.09 8.37±3.51 100.41±10.95 1.05±1.00
Deficiency-hot model 10 1.10±0.12 1.56±1.34 117.54±15.97 1.12±1.72
Zhizi
Normal 10 0.87±0.09* 8.60±4.17 121.50±28.61 1.29±1.25
Deficiency-cold model 10 0.73±0.10 10.39±5.15 136.22±22.93 0.41±1.23
Deficiency-hot model 10 1.05±0.12 0.54±1.79 107.63±13.46 0.94±0.72

Table 14

Comparison of IgM, IgG and C3 levels in rats of different groups ($\overline{x}$±s, mg/L)"

Group n IgM IgG C3
Normal 30 39.23±9.97 55.65±17.11 47.72±4.38
Deficiency-cold model 30 37.87±13.50 52.62±12.03 52.99±5.62*
Deficiency-hot model 30 16.23±5.63* 24.13±9.42* 36.61±6.48*
Rougui
Normal 10 46.71±8.61* 64.15±19.17 47.01±5.81
Deficiency-cold model 10 46.68±7.17 43.97±15.32 55.06±4.08
Deficiency-hot model 9 46.88±8.32 23.71±9.03 35.29±4.89
Xianmao
Normal 10 43.59±7.96 49.92±13.13 38.63±9.89*
Deficiency-cold model 10 38.61±5.57 39.03±15.14 46.98±8.79
Deficiency-hot model 10 25.69±5.41 42.15±9.46 50.31±11.06
Huangbai
Normal 10 47.08±11.15* 56.97±14.74 53.29±3.85*
Deficiency-cold model 10 38.44±8.76 53.72±13.71 57.43±3.26
Deficiency-hot model 10 17.63±2.81 26.86±10.34 41.24±4.95
Zhizi
Normal 10 38.17±6.81 55.52±13.48 51.96±3.71*
Deficiency-cold model 10 46.77±7.59 46.89±12.88 55.48±5.52
Deficiency-hot model 10 23.36±7.08 29.32±10.10 38.90±3.58

Table 15

Comparison of GLU, TC, TP and ALB levels in rats of different groups ($\overline{x}$±s)"

Group n GLU (mmol/L) TC (mmol/L) TP (g/L) ALB (g/L)
Normal 30 4.71±1.23 1.17±0.26 63.19±7.50 27.56±1.35
Deficiency-cold model 30 4.22±1.33 0.95±0.25* 63.41±4.04 27.02±1.34
Deficiency-hot model 30 9.89±2.21* 1.64±0.49* 73.49±5.57* 35.55±2.23*
Rougui
Normal 10 4.89±1.61 1.23±0.21 65.84±2.75 /
Deficiency-cold model 10 3.97±1.44 1.04±0.24 64.32±2.07 /
Deficiency-hot model 9 10.09±2.42 1.91±0.38 79.94±8.98 /
Xianmao
Normal 10 4.57±1.26 0.94±0.22* 62.14±9.08 /
Deficiency-cold model 10 4.33±1.58 0.84±0.13 62.58±4.02 /
Deficiency-hot model 10 10.64±1.56 1.66±0.28 75.16±3.81 /
Huangbai
Normal 10 4.75±1.74 1.52±0.30* 68.22±3.23* 29.10±1.85*
Deficiency-cold model 10 5.21±1.57 1.18±0.25 67.06±3.17 27.60±1.30
Deficiency-hot model 10 9.98±2.59 1.81±0.56 78.47±4.14 36.59±1.96
Zhizi
Normal 10 4.28±0.69 1.64±0.43* 61.41±5.00 26.58±1.93
Deficiency-cold model 10 4.01±0.88 1.06±0.18 62.19±4.22 25.92±1.65
Deficiency-hot model 10 8.19±1.67 2.49±0.56 69.83±8.64 31.82±2.70

Table 16

Comparison of BUN, ALT and UA levels in rats of different groups ($\overline{x}$±s)"

Group n BUN (μmol/L) ALT (U/L) UA (mmol/L)
Normal 30 6.30±0.85 80.38±15.18 93.99±17.67
Deficiency-cold model 30 6.32±0.80 80.21±16.08 100.40±21.43
Deficiency-hot model 30 6.31±0.77 108.38±29.80 89.90±16.57
Rougui
Normal 10 5.94±0.65 / 95.67±13.45
Deficiency-cold model 10 6.27±0.68 / 98.76±12.70
Deficiency-hot model 9 7.05±0.76 / 94.45±20.57
Xianmao
Normal 10 6.29±0.73 / 98.76±20.67
Deficiency-cold model 10 5.87±0.34 / 102.32±12.34
Deficiency-hot model 10 6.53±0.72 / 96.34±19.53
Huangbai
Normal 10 6.31±0.55 84.55±15.28 96.67±13.26
Deficiency-cold model 10 6.43±0.59 75.30±11.67 102.28±11.72
Deficiency-hot model 10 7.14±0.89 114.46±27.86 86.95±12.43
Zhizi
Normal 10 5.96±0.83 66.38±16.75* 111.60±19.79*
Deficiency-cold model 10 5.87±0.66 67.48±8.50 112.70±17.79
Deficiency-hot model 10 5.88±0.78 85.88±17.44 94.46±19.14

Table 17

CPF and HPF values in rats of different groups"

Group Mean (fHPF(x)) Mean (fCPF(x)) Median (fHPF(x)) Median (fCPF(x))
Rougui
Normal 0.528 0.221 0.451 0.670
Deficiency-cold 0.203 –0.490 –0.571 –0.387
Deficiency-hot 1.750 –0.479 1.902 –0.871
Xianmao
Normal 0.474 –1.601 0.470 –1.918
Deficiency-cold 0.288 –1.923 0.166 –1.897
Deficiency-hot 0.625 2.539 0.602 3.035
Huangbai
Normal –0.870 0.798 0.482 0.600
Deficiency-cold –0.339 0.194 –0.022 0.811
Deficiency-hot 2.068 1.160 2.175 0.426
Zhizi
Normal –4.379 –1.550 –4.839 –1.881
Deficiency-cold –1.664 –0.804 –1.498 0.253
Deficiency-hot –1.802 0.354 –2.003 0.888
[1] Zhang B, Lin ZJ, Zhai HQ, Huang JM . Research of traditional Chinese medicine theory based on “three elements” hypojournal[J]. Zhongguo Zhong Yao Za Zhi, 2008,33(2):221-223
张冰, 林志健, 翟华强, 黄建梅 . 基于“三要素”假说研究中药药性的设想[J]. 中国中药杂志, 2008,33(2):221-223
[2] Ouyang B, Wang ZG, Li F, Teng JL, Wang SJ, Wang P . A “nature-efficacy-substance” hypojournal about four properties of Chinese herbal medicine and its demonstration[J]. Shandong Zhong Yi Yao Da Xue Xue Bao, 2008,32(3):182-183
欧阳兵, 王振国, 李峰, 滕佳林, 王世军, 王鹏 . 中药四性“性-效-物质三元论”假说及其论证[J]. 山东中医药大学学报, 2008,32(3):182-183
[3] Tang SH, Yang HJ, Huang LQ . The concepts, formation and implication of Chinese herbal property[J]. Zhong Yi Za Zhi, 2010,51(4):293-296
唐仕欢, 杨洪军, 黄璐琦 . 论中药药性的概念、形成及其意义[J]. 中医杂志, 2010,51(4):293-296
[4] Wang Y, Zhang YL, Guo YR, Liu Y, Qiao YJ, Wang YY . Three yin-three yang system and theory of Chinese herbal nature[J]. Beijing Zhong Yi Yao Da Xue Xue Bao, 2006,29(2):77-82
王耘, 张燕玲, 郭亦然, 刘颖, 乔延江, 王永炎 . 三阴三阳系统与药性理论[J]. 北京中医药大学学报, 2006,29(2):77-82
[5] Xiao XH, Wang JB, Zhao YL, Wang YY, Xiao PG . Thermodynamic outlook and practice of Chinese medicinal nature[J]. Zhongguo Zhong Yao Za Zhi, 2010,35(16):2207-2213
doi: 10.4268/cjcmm20101638
肖小河, 王伽伯, 赵艳玲, 王永炎, 肖培根 . 药性热力学观及实践[J]. 中国中药杂志, 2010,35(16):2207-2213
doi: 10.4268/cjcmm20101638
[6] Li S . Computational systems biology-based TCM research: a case study of cold/hot ZHENG and associated formula[J]. Shi Jie Ke Xue Ji Shu Zhong Yi Yao Xian Dai Hua, 2007,9(1):105-111
doi: 10.11842/wst.2007.1.[sequence]
李梢 . 中医药计算系统生物学与寒热证候研究[J]. 世界科学技术中医药现代化, 2007,9(1):105-111
doi: 10.11842/wst.2007.1.[sequence]
[7] Gao XM. Science of Chinese materia medica[M]. Beijing: People’s Medical Publishing House, 2000, 46-50
高学敏 . 中药学[M]. 北京: 人民卫生出版社, 2000, 46-50
[8] Yan ZH. Science of Chinese materia medica.2nd ed[M]. Beijing: People’s Medical Publishing House, 2006, 36-39
颜正华. 中药学. 第2版[M]. 北京: 人民卫生出版社, 2006, 36-39
[9] Zhang B, Zhai HQ, Lin ZJ, Ni L . A discussion on formation of Chinese medicine property theory based on three-element idea[J]. Beijing Zhong Yi Yao Da Xue Xue Bao, 2007,30(10):656-657
张冰, 翟华强, 林志健, 倪莉 . 从“三要素”理念探讨中药药性之核心构成[J]. 北京中医药大学学报, 2007,30(10):656-657
[10] Xu DC. Medicine origin theory.Compiled by Wan F[M]. Beijing: People’s Medical Publishing House, 2007, 35-36
徐大椿 . 医学源流论.万芳整理[M]. 北京: 人民卫生出版社, 2007, 35-36
[11] Wang PZ . Fuzz mathematics and its applications[J]. Henan Shi Fan Da Xue Xue Bao Zi Ran Ke Xue Ban, 1983,( 2):1-20
汪培庄 . 模糊数学及其应用[J]. 河南师范大学学报(自然科学版), 1983,( 2):1-20
[12] Jin R, Zhang B, Liu SM, Ni L, Li M, Li LZ . Mathematical analysis of characteristics of glucocorticoid-induced yang deficiency or yin deficiency syndrome in animal models based on information entropy theory[J]. J Chin Integr Med, 2011,9(1):15-21
金锐, 张冰, 刘森茂, 倪莉, 李敏, 李连珍 . 基于数据信息熵探讨糖皮质激素诱导的阳虚或阴虚证候动物模型的状态特征[J]. 中西医结合学报, 2011,9(1):15-21
[13] Ni L, Zhang B . Re-recognition of animal model of both yin and yang deficiency induced by glucocorticoid[J]. Beijing Zhong Yi Yao Da Xue Xue Bao, 2009,32(5):327-330
倪莉, 张冰 . 糖皮质激素诱导大鼠阴虚阳虚状态动物模型的再认识[J]. 北京中医药大学学报, 2009,32(5):327-330
[14] Zhao Q, Jin R, Zhang B, Liu SM, Li M, Liu X, Li LZ, Zhang Q . Ridit analysis of experimental data from animal models of yang deficiency induced by different doses of hydrocortisone[J]. J Chin Integr Med, 2011,9(9):941-947
赵茜, 金锐, 张冰, 刘森茂, 李敏, 刘欣, 李连珍, 张倩 . 不同剂量氢化可的松诱导大鼠阳虚状态的Ridit分析[J]. 中西医结合学报, 2011,9(9):941-947
[15] Liu X, Zhang B, Liu XQ, Cui YR . Dynamic experimental study on rat’s analogue yang deficiency syndrome induced by hydrocortisone[J]. Zhonghua Zhong Yi Yao Za Zhi, 2011,26(1):126-128
刘欣, 张冰, 刘小青, 崔一然 . 氢化可的松诱导大鼠类阳虚状态的动态观察[J]. 中华中医药杂志, 2011,26(1):126-128
[16] Li M, Zhang B, Liu XQ, Jin YN, Lai YJ, Ni L . Experimental study on the potential changing mechanism of cAMP in asthenia cold syndrome rats[J]. Zhongguo Zhong Yi Yao Xin Xi Za Zhi, 2010,17(2):33-34
李敏, 张冰, 刘小青, 金勇男, 赖永金, 倪莉 . 虚寒状态大鼠cAMP变化机制的实验研究[J]. 中国中医药信息杂志, 2010,17(2):33-34
[17] Zhang Q, Zhang B, Jin R, Li LZ, Zhao Q, Liu XQ . Pharmacological effects of Oleum Cinnamomi and water extract of Cortex Cinnamomi in rats with yang deficiency cold syndrome and the mathematical analysis[J]. J Chin Integr Med, 2011,9(9):983-990
doi: 10.3736/jcim20110909
张倩, 张冰, 金锐, 李连珍, 赵茜, 刘小青 . 肉桂油与肉桂水提物对虚寒证模型大鼠的药理作用及其数理分析[J]. 中西医结合学报, 2011,9(9):983-990
doi: 10.3736/jcim20110909
[18] Lai YJ, Zhang B, Liu XQ, Jin YN, Li M . Experimental study on the rat’s yin deficiency situation induced by pungent and hot Chinese herbs[J]. Zhonghua Zhong Yi Yao Za Zhi, 2009,24(11):1440-1442
赖永金, 张冰, 刘小青, 金勇男, 李敏 . 辛热类中药诱导大鼠阴虚状态的实验研究[J]. 中华中医药杂志, 2009,24(11):1440-1442
[19] Li LZ, Liu XQ, Cui YR, Zhang B . Effect of pungent-hot herb on basal metabolism and endocrine system of normal rats[J]. Zhongguo Zhong Yi Yao Xin Xi Za Zhi, 2011,18(3):49-51
李连珍, 刘小青, 崔一然, 张冰 . 辛热示例药对正常大鼠基础代谢及内分泌系统的影响[J]. 中国中医药信息杂志, 2011,18(3):49-51
[20] Jin R, Zhang B, Liu XQ, Liu SM, Liu X, Li LZ, Zhang Q, Xue CM . Study of biological performance of Chinese materia medica with either a cold or hot property based on the three-element mathematical analysis model[J]. J Chin Integr Med, 2011,9(7):715-724
doi: 10.3736/jcim20110704
金锐, 张冰, 刘小青, 刘森茂, 刘欣, 李连珍, 张倩, 薛春苗 . 基于药性构成“三要素”数理分析模式的中药寒热药性生物学表征差异研究[J]. 中西医结合学报, 2011,9(7):715-724
doi: 10.3736/jcim20110704
[21] Jin R, Lin Q, Zhang B, Liu X, Liu SM, Zhao Q, Liu XL . A study of association rules in three-dimensional property-taste-effect data of Chinese herbal medicine based on Apriori algorithm[J]. J Chin Integr Med, 2011,9(7):794-803
金锐, 林茜, 张冰, 刘欣, 刘森茂, 赵茜, 刘秀兰 . 基于Apriori算法的气-味-效三维数据关联规则挖掘研究[J]. 中西医结合学报, 2011,9(7):794-803
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