TW201217782A - Method for HPLC analysis of triterpenoids from Antrodia camphorata - Google Patents
Method for HPLC analysis of triterpenoids from Antrodia camphorata Download PDFInfo
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201217782 六、發明說明: 【發明所屬之技術領域】 本發明所屬之技術領域係關於一種利用高效液相層析分析牛樟芝:莊 類之方法,其特徵在於高效液相層析之移動她成與流速及紫外線偵測波 長的特定條件。 【先前技術】 樟芝祕論),民間別名牛樟芝、牛樟菇、紅樟菇等。 為台灣特有之真_,因生長賴,且僅生長在台灣财老齡牛掉樹 e Hay)之腐朽内壁因其數量稀少不易採集,掉 芝屬腐生@,但病源性似乎不強,因此不易造成活樹死亡。牛樟樹之所以201217782 VI. Description of the invention: [Technical field to which the invention pertains] The technical field to which the present invention pertains relates to a method for analyzing Antrodia camphorata using high performance liquid chromatography: a method of moving liquid chromatography with high performance liquid chromatography And specific conditions for UV detection wavelengths. [Prior Art] Cangzhi Secret Theory), folk alias Niuzhizhi, burdock mushroom, red oyster mushroom, etc. It is unique to Taiwan, because it grows, and it only grows in the decaying inner wall of Taiwan’s old-aged cows. Because of its small amount, it is difficult to collect, and it is not easy to collect, but the pathogenicity does not seem strong, so it is not easy to cause The living tree is dead. The reason why burdock
具有極佳㈣腐概力,主要是因科樟樹木财含有抑_域生長的 抽出成份,牛機抽出鎌卻有促進樟芝生長芝效果,此外,樟芝亦能分 泌抗生物質,抑制其他_生長,故除了樟芝以外,它種腐朽菌或一般 真菌皆無法生長於牛樟樹上。牛樟樹因具濃厚香氣,可作為驅蟲使用,在 自然界中族群稀少,因寄生於牛樟樹中之樟芝數量更是稀少,故被視為民 間最珍貴的藥材; 已知功效在關僅止於口傳或财,長久以來就是 原住民解酒、解毒養生與食_歸,舉凡農針毒、食物中毒、治療腹 1腹痛區吐、尚血壓、皮膚病、肝癌等症狀,都具有作用。台灣原住 民為牛樟芝㈣細瓣,樹州轉細魏了掉芝,取 201217782 之嚼食或將其烹煮食用。由於原住民生活型__,平時體力消耗甚大 s服肖樟芝之後’可強肝解毒、強健S體並有解酒的功能,經 口耳相傳’树鶴臺灣特有社轉職關視為「靈芝之王」,是臺灣 特有的絲。也因為樟芝的特殊身份及療效,許多的研究也如火如茶的展 開。隨著科學的方式作為佐證,牛樟真菌在於野外躲不多,且為單一宿 主牛樟樹,導致其價格水漲船高,市價每台斤十多萬到數十萬不等,被視 為全球最昂貴的野生錢,亦有人稱其為森林巾的㈣石。牛樟^子實體 長於老齡牛触幹以面,初麟好型,讀前_起錄,有牛掉氣 味’味it極苦。子實體形態多變化,有板狀、鐘狀、馬蹄狀或塔狀,無固 疋型態。初生時鮮紅色’漸長變為自色、淡紅褐色、淡褐色或淡黃褐色。 子實體衫年生’無菌柄,表面新鮮時呈橘紅色,老化時呈褐色至黑褐色, 頂面平滑’具同心環。祕為圓形至多角形,内含抱子。_、有分營養菌 絲(generative hyphae)、扣子體(clamp connecti〇ns)及骨架菌絲(ske]letal hyphae ) ’有性器官為擔孢子(basidi〇sp〇re ),型態為微彎之圓柱狀 (cylindrical),而擔子柄呈棍棒狀(ciavate),菌絲體型態其活躍時呈橘紅 色,老化後呈紅褐色。 樟芝的成份分析從1990年始有文獻報導,由許多分離與分析的研究所 得知。野生樟芝子實體乾重約為30%,其中約含有32%的粗脂肪、粗纖維 23%、碳水化合物37%、蛋白質約7%。樟芝主要生物活性成份可分為多 醣體(polysaccharides )、三萜類化合物(triterpenoids )及固醇類(steroids ), 其中多醣體可提升人體免疫力及抑制B型肝炎病毒,而三萜類則與抗癌、 201217782 保肝方面有關’贿類具有消炎效果^可因子實體錢絲體的生理、代謝 不同’造成二_及固醇類等的生化合成能力降低。然而,目前針對牛棒 芝三萜類化合物,尚無一準確且實用的分析方法發表。 樟芝子實體中含有多種三鞋類化合物,將樟芝子實體粉碎後,三萜類 化合物可於有齡射加熱迴流萃取製備而得^於三@類具有抗癌、保 肝等功效’極具具商業騎究上的雜,目此有必要發展有效的牛樟芝三 萜類化合物純化方法及準確的分析方法。 【發明内容】 本發明目的為牛樟芝子實體的指標三萜類成份之高效液相層析 do鑑定與含量分析,利用已製備得之牛樟芝三萜類化合物標準品, 測定牛樟芝產品三萜類種類與含量。 本發明係關於一種利用高效液相層析分析牛樟芝三萜類(此叫如〇也) 之方法’其中高效液相層析條件在下列情況下:移動相線性梯度程序為:1) 初始自以60%乙腈(ACN)及40%水(含0.1%至0.2%甲酸或乙酸)開始, 經過60分鐘’至2) 90%乙腈及10%水(含0.1%至0.2%甲酸或乙酸);流 速為〇.8至L0毫升/分鐘;及偵側器:紫外線波長235至255奈米之間;於 特疋滞㈣間時具有特定波峰值。It has excellent (four) rot, mainly due to the fact that the tree is rich in sputum and contains the extracted ingredients. The cow machine extracts the oysters but promotes the growth of zhizhi. In addition, 樟芝 can also secrete anti-biomass and inhibit other _ It grows, so it can't grow on the burdock tree except for the cockroach. Burdock tree can be used as an insect repellent because of its strong aroma. In the natural world, the ethnic group is scarce. Because the amount of Antrodia camphorata in the burdock tree is rare, it is regarded as the most precious medicine of the people. In oral or financial, it has long been aboriginal hangover, antidote to health and food _ return, such as acupuncture, food poisoning, treatment of abdominal abdomen pain, vomiting, blood pressure, skin disease, liver cancer and other symptoms, have a role. Taiwan's aborigines are the small petals of the burdock (4), and the tree is turned into a fine weizhi. Take the chew of 201217782 or cook it. Due to the aboriginal life type __, usually the physical exertion is very large, after serving Xiao Yuzhi, 'the function of strong liver detoxification, strong S body and hangover, by word of mouth, 'Shuhe Taiwan special agency to transfer duty is regarded as "Ganoderma lucidum Wang, is a unique silk in Taiwan. Because of the special identity and efficacy of Antrodia, many studies have also been carried out like fire. As evidenced by the scientific approach, the burdock fungus is not much hiding in the wild, and it is a single-hosted burdock tree, which causes its price to rise. The market price is more than 100,000 to hundreds of thousands per kilogram, and it is regarded as the most expensive in the world. Wild money is also known as the (four) stone of forest towels. The burdock ^ fruiting body is longer than the old cows to touch the dry face, the first lining is good, before reading _ from the beginning, there is a cow suffocating taste 'taste it is extremely bitter. The shape of the fruit body varies, and it has a plate shape, a bell shape, a horseshoe shape or a tower shape, and has no solid shape. Fresh red at the beginning of life 'gradual change to self-color, light reddish brown, light brown or light yellow brown. The child's body is born with a sterile handle. The surface is orange-red when fresh, brown to dark brown when aging, and the top is smooth' with concentric rings. The secret is round to polygonal, with a scorpion. _, generative hyphae, clamp connecti〇ns and ske]letal hyphae 'The sexual organ is basidi〇sp〇re, the shape is microbend Cylindrical, and the handle of the stalk is ciavate. The mycelium is orange-red when it is active and reddish brown after aging. The analysis of the composition of Antrodia sinensis has been reported in the literature since 1990 and is known by many research institutes for separation and analysis. The wild amaranth fruit body has a dry weight of about 30%, which contains about 32% crude fat, 23% crude fiber, 37% carbohydrate, and about 7% protein. The main bioactive components of Antrodia can be divided into polysaccharides, triterpenoids and steroids, in which polysaccharides can enhance human immunity and inhibit hepatitis B virus, while triterpenoids Related to anti-cancer, 201217782 liver protection, 'bribery has anti-inflammatory effect ^ can be different from the physical and metabolic factors of the body of the body of the money body', resulting in decreased biochemical synthesis of diols and sterols. However, there is currently no accurate and practical analytical method for the detection of triterpenoids. The amaranth fruit body contains a variety of three footwear compounds. After the smashing of the body of the scorpion scorpion, the triterpenoids can be prepared by heating and refluxing with ageing, and the three kinds of products have the functions of anti-cancer and liver protection. With the commercial riding, it is necessary to develop an effective purification method and accurate analytical method for the triterpenoids of Antrodia camphorata. SUMMARY OF THE INVENTION The object of the present invention is high performance liquid chromatography (DO) identification and content analysis of the indicator triterpenoids of the body composition of Antrodia camphorata, and the triterpenoids of the Antrodia camphorata product are determined by using the prepared standard of the Antrodia camphorata triterpenoid compound. content. The present invention relates to a method for analyzing Astragalus triterpenoids (this is called ruthenium) by high performance liquid chromatography, wherein the high performance liquid chromatography conditions are as follows: the mobile phase linear gradient program is: 1) initial self-sufficiency Starting with 60% acetonitrile (ACN) and 40% water (containing 0.1% to 0.2% formic acid or acetic acid), after 60 minutes 'to 2') 90% acetonitrile and 10% water (containing 0.1% to 0.2% formic acid or acetic acid); It is 〇8 to L0 ml/min; and the side detector: the ultraviolet wavelength is between 235 and 255 nm; there is a specific wave peak when it is between (4).
在本發明之一較佳實施例中,其中牛樟芝三萜類包括牛樟芝甲酯B 201217782 (methyl antcinate B)、去氩齒孑L«酸(dehydroeburicoic acid)、15α-乙酿去氫 硫色多孔菌酸(15 α-acety 1 dehydrosulphurenic acid )、3β,15α-二經羊毛甾-7,9 (11),24-三稀-21 g复(3β,15a-dihydroxy lanosta-7,9 (11),24-triene-21-oic acid)、樟芝酸 a (zhankuic acid A)、樟芝酸 C (zhankuic acid C)、硫色多 孔菌酸(sulphurenic acid )及牛樟芝甾 A ( antcin A )。 在本發明之一較佳實施例中,牛樟芝曱酯B (methyl antcinateB)於滞 留時間為約35分鐘時具有特定波峰值。 在本發明之一較佳實施例中’去氫齒孔酸(dehydroeburicoic acid)於 滯留時間為約53分鐘時具有特定波峰值。 在本發明之-較佳實施例中,15α-乙醢去氫硫色多孔菌酸⑴㈣剛 dehydr〇sulphurenic acid)於滯留時間為約28分鐘時具有特定波峰值。 在本發明之-較佳實施例中,邓,―工經羊毛留_7,9(11),24_三稀_21 β,15a dihydroxy lanosta-7,9 (11),24-triene-21-oic acid)於滞留時間為 約16分鐘時具有特定波峰值。 本發月之較佳實施例中,樟芝酸A ( acid a )於滞留時間 為約18分鐘時具有特定波峰值》 在本發明之一較佳實施例中,樟芝酸C (zhankuicacidC)於滯留時間 為約Π分鐘時具有特定波峰值。 201217782 在本發明之一較佳實施例中,硫色多孔菌酸(sulphurenic acid)於滯留 時間為約5分鐘時具有特定波峰值。 在本發明之一較佳實施例中,牛樟芝甾A (antcinA)於滯留時間為約 27分鐘時具有特定波峰值。 在本發明之一較佳實施例中,高效液相層析條件之移動相線性梯度程 序為:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸)開始,經 過60分鐘’至2) 90%乙腈及10%水(含0.2%乙酸 在本發明之一較佳實施例中’高效液相層析條件之移動相流速為0.8 毫升/分鐘。 在本發明之一較佳實施例中,高效液相層析條件之偵侧器紫外線波長 係248奈米。In a preferred embodiment of the present invention, the triterpenoids of Antrodia camphorata include methyl anthraquinone B 201217782 (methyl antcinate B), dehydroeburicoic acid, 15α-ethyl dehydrogenated polyporogen Acid (15 α-acety 1 dehydrosulphurenic acid ), 3β, 15α-di-lane 甾-7,9 (11), 24-trisole-21 g complex (3β,15a-dihydroxy lanosta-7,9 (11), 24-triene-21-oic acid), zhankuic acid A, zhankuic acid C, sulphurenic acid, and antcin A. In a preferred embodiment of the invention, methyl antcinate B has a specific peak value at a residence time of about 35 minutes. In a preferred embodiment of the invention, dehydroeburicoic acid has a specific peak value at a residence time of about 53 minutes. In a preferred embodiment of the invention, the 15a-acetamidine dehydrochromophoric acid (1) (tetra) dehydrated sulphurenic acid has a specific peak value at a residence time of about 28 minutes. In a preferred embodiment of the invention, Deng, "worker wool" _7,9 (11), 24_three thin _21 β, 15a dihydroxy lanosta-7,9 (11), 24-triene-21 -oic acid) has a specific peak value when the residence time is about 16 minutes. In a preferred embodiment of the present month, an acid a (acid a ) has a specific peak value at a residence time of about 18 minutes. In a preferred embodiment of the invention, zhankuic acid C is The residence time has a specific peak value of about Π minutes. 201217782 In a preferred embodiment of the invention, the sulphurenic acid has a specific peak value at a residence time of about 5 minutes. In a preferred embodiment of the invention, Anthraquinone A (antcinA) has a specific peak value at a residence time of about 27 minutes. In a preferred embodiment of the invention, the mobile phase linear gradient procedure for high performance liquid chromatography conditions is: 1) initially starting with 60% acetonitrile (ACN) and 40% water (containing 0.2% acetic acid), after 60 Minute ' to 2' 90% acetonitrile and 10% water (containing 0.2% acetic acid in a preferred embodiment of the invention) The mobile phase flow rate under high performance liquid chromatography conditions is 0.8 ml/min. In a preferred embodiment, the ultraviolet light wavelength of the detector of high performance liquid chromatography is 248 nm.
【實施方式】 實施例1、自牛樟芝萃取物分離8種三萜類化合物 本發明使用將風乾之牛樟芝子實體粉末(1〇1 9 g)依序以正己烷、三氯甲烷及甲醇於加熱迴流萃取裝置進行萃取(3 χ 1〇〇〇 mL)。在完整萃取步驟後,收得之萃取物分別於減壓條件下濃縮,分別獲得 3.02 g (以乾重§十算占2.96%)正己烧殘餘物、46.3 g (45.430/〇)三氯甲烧 201217782 殘餘物及2.7g(2.64%)甲醇殘餘物。藉由己烧/乙酸乙醋混合液增加極性, 將三氣甲烧萃取殘餘物以重覆性石夕勝管柱層析(5 x 9〇咖)、冲提。在薄層 層析(TLC)分析後’將具她層析結果之沖出物合併,得到6組分液 (F1-F6)。分液F2以己烧/乙酸乙酯於矽膠管柱梯度沖提方式進行再層析, 分別產出牛樟芝甲醋B (methyl antdnate B)(三_化合物υ、去氫齒孔 酸(dehydroeburicoic add)(三萜類化合物2)及15α•乙醯去氫硫色多孔菌 酸(15a-acetyl dehydrosulphurenic acid)(三萜類化合物 3)。分液 F3 以己烷 /乙酸乙醋於矽膠管柱梯度沖提方式進行純化,獲得化合物邓,15α_二經羊 毛甾-7,9 (11),24-二烯-21 酸(3β,15a-dihydroxy lan〇sta-7,9 (11), 24-triene-21-oic acid)(二萜類化合物 4)及樟芝酸 A (zhankuic acid A)(三 萜類化合物5)。分液F4及F5以正己烧/乙酸乙酯梯度沖提管柱層析純化, 產出4種次分液(D-1至D-4)。樟芝酸C (zhankuic acid C)(三萜類化合 物6 )及硫色多孔菌酸(sulphurenic acid )(三萜類化合物7 )分別來自次分 液1>3及D~4。使用100%三氣甲烷至20%甲醇之三氣甲烧/甲醇混合液, 進行分液F6矽膠管柱層析純化’產出牛樟芝甾a (antcinA)(三萜類化合 物8)。三萜類化合物1 - 8結構以A和13C核磁共振(NMR)光譜測定, 所得光谱資料並與已發表數值比較(Shen,C.C.,Kuo, Y.C.,Huang, R.L.,Lin, L.C., Don, M.J., Chang, T.T., Chou, C.T., (2003). New ergostane and lanostane from Antrodia camphorata. Journal of Chinese Medicine, 14, 247-258 ; Male, K.B., Rao, Y.K., Tzeng, Y.M., Montes, J., Kamen, A., Luong, J.H., (2008). Probing inhibitory effects of Antrodia camphorata isolates using insect cell-based impedance spectroscopy: inhibition vs chemical structure. Chemical 201217782[Examples] Example 1. Separation of 8 triterpenoids from Antrodia camphorata extract The present invention uses an air-dried Antrodia camphorata fruit powder (1〇1 9 g) in the form of n-hexane, chloroform and methanol under heating. The extraction device was extracted (3 χ 1 〇〇〇 mL). After the complete extraction step, the extracts were concentrated under reduced pressure, respectively, to obtain 3.02 g (2.96% by dry weight § 10) of the residue, 46.3 g (45.430 / 〇) of trichloromethane. 201217782 Residue and 2.7 g (2.64%) of methanol residue. The polarity was increased by the calcined/acetic acid-acetic acid mixture, and the residue was extracted by triturated gas to be subjected to repeated stone chromatography (5 x 9 〇). After thin layer chromatography (TLC) analysis, the eluate with her chromatographic results was combined to obtain a 6-component solution (F1-F6). The liquid fraction F2 was re-chromatized by calcination/ethyl acetate on a silica gel column gradient elution method to produce methyl antdnate B (three-factor hydrazine, dehydroeburicoic add). (triterpenoid 2) and 15α-acetyl dehydrosulphurenic acid (triterpenoid 3). Dispensing F3 with hexane/ethyl acetate in a latex column gradient Purification method was carried out to obtain the compound Deng, 15α_di-lane 甾-7,9 (11),24-diene-21 acid (3β,15a-dihydroxy lan〇sta-7,9 (11), 24-triene -21-oic acid) (diterpenoid 4) and zhankuic acid A (triterpenoid 5). Separation of F4 and F5 with positive hexane/ethyl acetate gradient column chromatography Purification, yielding 4 sub-liquids (D-1 to D-4), zhankuic acid C (triterpenoid 6) and sulphurenic acid (triterpenoids) 7) From the secondary liquid separation 1 > 3 and D~4 respectively, using a mixture of 100% tri-gas methane to 20% methanol in three gas-burning/methanol, and performing liquid separation F6 矽 rubber column chromatography to purify 'output 樟 樟 甾 甾a (antcinA) (triterpenoid 8). The structure of triterpenoid 1-8 is determined by A and 13C nuclear magnetic resonance (NMR) spectroscopy, and the obtained spectral data is compared with published values (Shen, CC, Kuo, YC, Huang , RL, Lin, LC, Don, MJ, Chang, TT, Chou, CT, (2003). New ergostane and lanostane from Antrodia camphorata. Journal of Chinese Medicine, 14, 247-258 ; Male, KB, Rao, YK, Tzeng, YM, Montes, J., Kamen, A., Luong, JH, (2008). Probing inhibitory effects of Antrodia camphorata isolates using insect cell-based impedance spectroscopy: inhibition vs chemical structure. Chemical 201217782
Research in Toxicology 21, 2127-2133 i Yeh, C.T., Rao, Y.K., Yao, C.J., Yeh, C.F., Li, C.H., Chuang, S.E., Luong, J.H., Lai, G.M., Tzeng, Y.M., (2009). Cytotoxic triterpenes from Antrodia camphorata and their mode of action in HT-29 human colon cancer cells. Cancer Letters 285, 73-79 ; Geethangili, M.,Research in Toxicology 21, 2127-2133 i Yeh, CT, Rao, YK, Yao, CJ, Yeh, CF, Li, CH, Chuang, SE, Luong, JH, Lai, GM, Tzeng, YM, (2009). Cytotoxic Triterpenes from Antrodia camphorata and their mode of action in HT-29 human colon cancer cells. Cancer Letters 285, 73-79 ; Geethangili, M.,
Fang, S.H., Lai, C.H., Rao, Y.K., Lien, H.M., Tzeng, Y.M., (2010). Inhibitory effect of Antrodia camphorata constituents on the Helicobacter p_y/on'-associated gastric inflammation. Food Chemistry 119, 149—153 )。 8種三萜類化合物的分子量列於表1。Fang, SH, Lai, CH, Rao, YK, Lien, HM, Tzeng, YM, (2010). Inhibitory effect of Antrodia camphorata constituents on the Helicobacter p_y/on'-associated gastric inflammation. Food Chemistry 119, 149-153 . The molecular weights of the eight triterpenoids are listed in Table 1.
表1、自牛樟芝萃取物分離之8種三類化合物之分子量 三萜類化合物1至三類化合物8 分子量 (M.W.) 1·牛樟芝甲酉旨 B (methyl antcinate B ) 482 2.去氫齒孔酸(dehydroeburicoic acid) 468 3· 15α-乙酿去氫硫色多孔菌酸(15a-acetyl dehydrosulphurenic acid) 526 4· 3β,15α-二羥羊毛甾-7,9 (11),24-三烯-21 酸(3β, 15a-dihydroxy lanosta-7,9 (11), 24-triene-21-oic acid) 470 5.樟芝酸 A ( zhankuic acid A ) 468 6.樟芝酸 C ( zhankuic acid C ) 486 7.硫色多孔菌酸(sulphurenicacid) 466 8·牛樟芝甾A (antcinA) 454 201217782 圖1至圖8分別為三萜類化合物1至三萜類化合物8之化學式。 實施例2、利用高效液相層析分析牛樟芝三萜類 利用高效液相層析分析三萜類化合物1至三萜類化合物8。其中高效 液相層析分析用溶劑為:乙醇(Ethanol) (ECHO,苗栗,臺灣)、乙腈 (Acetonitrile) (ECHO ’ 苗栗,臺灣)、曱酸(Formic acid) (ECH〇,苗栗, 臺灣)及乙酸(Acetic acid) (ECHO,苗栗,臺灣)。 其中高效能液相層析儀設備為:偵測器:Diode Array UV Detector· L-7400 (Hitachi ’ Tokyo ’ 日本);泵浦:L-7100 (Hitachi,Tokyo,曰本) 以及分析型管柱:J ’ sphere ODS-M80 C18管柱(25〇x4_6毫米,4奈米粒 徑)(YMC Sep,Technol,日本)。 將牛樟芝子實體萃取物以乙醇回溶後’利用高效液相層析分析其内含 之三萜類成份。其中高效能液相層析儀分析條件為:移動相係乙腈及水(含 0.2%乙酸);移動相線性梯度程序:1)初始自以60%乙腈(ACN)及40% 水(含0.2%乙酸)開始,經過60分鐘,至2) 90%乙腈及10%水(含0.2% 乙酸);流速為0.8毫升/分鐘;偵側器設定紫外線波長235奈米、248奈米 及255奈米;注射體積為5微升。 圖9顯示以高效能液相層析儀分析牛樟芝三萜類化合物1之結果》其 201217782 中尚效能液相層析儀分析條件為:移動相係乙腈及水(含〇.2〇/。乙酸);移動 相線性梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸) 開始,經過60分鐘’至2) 90%乙腈及1〇%水(含0.2%乙酸);流速為〇 8 毫升/分鐘。(A)表示偵側器設定紫外線波長235奈米,(B)表示偵側器設 定紫外線波長248奈米,(C)表示偵側器設定紫外線波長255奈米,結果 顯示紫外線波長248奈米可於滞留時間約35分鐘時獲得最明顯波峰代表牛 樟芝三萜類化合物1。 圖10顯示以高效能液相層析儀分析牛樟芝三萜類化合物2之結果。其 中高效能液相層析儀分析條件為:移動相係乙腈及水(含〇·2〇/。乙酸);移動 相線性梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸) 開始,經過60分鐘’至2) 90%乙腈及1〇%水(含0.2%乙酸);流速為〇 8 毫升/分鐘。(Α)表示偵側器設定紫外線波長235奈米,(Β)表示偵侧器設 定紫外線波長248奈米,(C)表示偵側器設定紫外線波長255奈米,結果 顯示紫外線波長248奈米可於滯留時間約53分鐘時獲得最明顯波峰代表牛 樟芝三萜類化合物2。 圖11顯示以高效能液相層析儀分析牛樟芝三萜類化合物3之結果。其 中高效能液相層析儀分析條件為:移動相係乙腈及水(含〇.2〇/0乙酸);移動 相線性梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸) 開始’經過60分鐘’至2) 90%乙腈及1〇%水(含0.2%乙酸);流速為〇8 毫升/分鐘。(Α)表示偵侧器設定紫外線波長235奈米,(Β)表示偵侧器設 定紫外線波長248奈米,(C)表示偵側器設定紫外線波長255奈米,結果 201217782 顯示紫外線波長248奈米可於滯留時間約28分鐘時獲得最明顯波峰代表牛 樟芝三辟類化合物3。 圖12顯示以高效能液相層析儀分析牛樟芝三萜類化合物4之結果。其 中高效能液相層析儀分析條件為:移動相係乙腈及水(含〇_2%乙酸);移動 相線性梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸) 開始’經過60分鐘’至2) 90%乙腈及1〇%水(含0.2%乙酸);流速為〇 8 毫升/分鐘。(A)表示偵側器設定紫外線波長235奈米,(B)表示债側器設 定紫外線波長248奈米’(C)表示偵側器設定紫外線波長255奈米,結果 · 顯示紫外線波長248奈米可於滯留時間約丨6分鐘時獲得最明顯波峰代表牛 樟芝三萜類化合物4。 圖13顯示以高效能液相層析儀分析牛樟芝三萜類化合物5之結果。其 中高效能液相層析儀分析條件為:移動相係乙腈及水(含〇 2%乙酸);移動 相線性梯度程序:1)初始自以60%乙腈(ACN)及4〇%水(含〇·2。/。乙酸) 開始,經過60分鐘,至2) 90%乙腈及10%水(含〇·2%乙酸);流速為〇 8 春 毫升/分鐘。(A)表示偵側器設定紫外線波長235奈米,(B)表示偵側器設 定紫外線波長248奈米,(C)表示偵側器設定紫外線波長255奈米,結果 顯示紫外線波長248奈米可於滯留時間約丨8分鐘時獲得最明顯波峰代表牛 棒芝三莊類化合物5。 圖14顯不以咼效能液相層析儀分析牛樟芝三薛類化合物6之結果。其 中南效能液相層析儀分析條件為:移動相係6航水(含02%6酸);移動 12 201217782 相線性梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸) 開始,經過60分鐘,至2) 90%乙腈及10%水(含0.2%乙酸);流速為0.8 毫升/分鐘。(A)表示偵側器設定紫外線波長235奈米,(B)表示偵側器設 定紫外線波長248奈米,(C)表示偵側器設定紫外線波長255奈米,結果 顯示紫外線波長248奈米可於滯留時間約11分鐘時獲得最明顯波峰代表牛 樟芝三萜類化合物6。 圖15顯示以高效能液相層析儀分析牛樟芝三萜類化合物7之結果。其 中高效能液相層析儀分析條件為:移動相係乙腈及水(含0.2%乙酸);移動 相線性梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸) 開始’經過60分鐘,至2) 90%乙腈及10%水(含0.2%乙酸);流速為0 8 毫升/分鐘。(A)表示偵側器設定紫外線波長235奈米,(B)表示偵側器設 定紫外線波長248奈米,(C)表示偵側器設定紫外線波長255奈米,結果 顯示紫外線波長248奈米可於滯留時間約5分鐘時獲得最明顯波峰代表牛 ^ 樟芝三萜類化合物7。 圖16顯示以高效能液相層析儀分析牛樟芝三萜類化合物8之結果。其 中高效能液相層析儀分析條件為:移動相係乙腈及水(含0.2%乙酸);移動 相線性梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸) 開始’經過60分鐘,至2) 90%乙腈及1〇%水(含0.2%乙酸);流速為〇 8 毫升/分鐘。(A)表示偵側器設定紫外線波長235奈米,(B)表示偵側器設 定紫外線波長248奈米,(C)表示偵側器設定紫外線波長255奈米,結果 顯示紫外線波長248奈米可於滯留時間約27分鐘時獲得最明顯波峰代表牛 13 201217782 樟芝三萜類化合物8。 實施例3、製作牛樟芝指標三_標準品及檢量線 將本發明純化的標準品一牛棒芝三莊類化合物i至8,均以謂毫克/ 毫升濃度回溶,以高效驗減析分析制譜。檢量線濃度範圍為約㈣ 毫克/毫升至約0.80毫克/毫升。 圖17顯示以高效能液相層析儀分析本發明純化之標準品之結果,本實 驗包含牛樟芝三_化合物丨至8 -同分析之結果,其中高效驗相層析 儀分析條件為:移動相係乙腈及水(含0.2%乙酸);移動相線性梯度程序: 1)初始自以60%乙腈(ACN)及40%水(含0.2%乙酸)開始,經過6〇 分鐘,至2) 90%乙腈及1〇%水(含〇.2〇/。乙酸);流速為0 8毫升/分鐘。(A) 表示三結類化合物濃度為0.05毫克/毫升;(B)表示三莊類化合物濃度為 0.10毫克/毫升;(C)表示三莊類化合物濃度為0.20毫克/毫升;表示 三萜類化合物濃度為0.40毫克/毫升;(E)表示三萜類化合物濃度為〇 8〇毫 克/毫升。此結果顯示,使用上述高效能液相層析條件分析在濃度範圍為約 0.05毫克/毫升至約0.80毫克/毫升間之牛樟芝三萜類化合物1至8,其高 效液相層析圖之波峰不會重疊,可輕易判讀。 圖18顯示牛樟芝三萜類化合物1至8標準品溶液定量標準曲線,其中 標準曲線參數如下表2。 表2、牛樟芝三萜類化合物1至8標準品溶液定量標準曲線參數 201217782 圖18(A)牛樟芝三萜類化合物1,Υ = A+B xX 參數 值 誤差 A -5849.58333 5213.08255 B 443345.10753 12625.02977 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 0.99879 7700.23325 5 <0.0001 圖18(B)牛樟芝三萜類化合物2,Y = A + B xX 參數 值 誤差 A -290.8333 2428.65835 B 622663.97849 5881.71848 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 0.99987 3587.36613 5 <0.0001 圖18(C)牛樟芝三萜類化合物3,Y = A + B xX 參數 值 誤差 A 378.75 2366.80029 B 604933.70968 5731.91078 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 0.99987 3495.99571 5 <0.0001 圖18(D)牛樟芝三萜類化合物4,Y = A + B xX 參數 值 誤差 A 2138.91667 2134.67482 B 659597.04301 5169.74993 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 15 201217782Table 1. Molecular weights of three kinds of three kinds of compounds isolated from Antrodia camphorata extracts Triterpenoids 1 to 3 compounds 8 Molecular weight (MW) 1 · Methyl antcinate B 482 2. Dehydroporous acid (dehydroeburicoic acid) 468 3· 15α-ethyl dehydrosulphate acid (15a-acetyl dehydrosulphurenic acid) 526 4· 3β,15α-dihydroxylane-7,9 (11),24-triene-21 Acid (3β, 15a-dihydroxy lanosta-7,9 (11), 24-triene-21-oic acid) 470 5. zhankuic acid A 468 6. zhankuic acid C 486 7. Sulfuric acid sulphatenic acid 466 8 · Anthraquinone A (antcinA) 454 201217782 Figures 1 to 8 are the chemical formulas of triterpenoids 1 to triterpenoids 8, respectively. Example 2. Analysis of Antrodia camphorata by High Performance Liquid Chromatography Triterpenoids 1 to triterpenoids 8 were analyzed by high performance liquid chromatography. The solvents for high performance liquid chromatography are: Ethanol (ECHO, Miaoli, Taiwan), Acetonitrile (ECHO 'Miaoli, Taiwan), Capric acid (Formic acid) (ECH〇, Miaoli, Taiwan) and Acetic acid (ECHO, Miaoli, Taiwan). The high-performance liquid chromatograph equipment is: detector: Diode Array UV Detector· L-7400 (Hitachi ' Tokyo 'Japan); pump: L-7100 (Hitachi, Tokyo, 曰本) and analytical column : J 'sphere ODS-M80 C18 column (25 〇 x 4_6 mm, 4 nm particle size) (YMC Sep, Technol, Japan). After extracting the extract of A. annuum L. from ethanol, it was analyzed by high performance liquid chromatography to analyze the triterpenoids contained therein. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 0.2% acetic acid); mobile phase linear gradient program: 1) initial self-contained 60% acetonitrile (ACN) and 40% water (including 0.2%) Starting with acetic acid, after 60 minutes, to 2) 90% acetonitrile and 10% water (containing 0.2% acetic acid); the flow rate is 0.8 ml/min; the detector sets the ultraviolet wavelengths of 235 nm, 248 nm and 255 nm; The injection volume was 5 microliters. Figure 9 shows the results of analyzing the triterpenoids of Antrodia camphorata by high performance liquid chromatography. The analysis conditions of the liquid chromatograph in 201217782 are: mobile phase acetonitrile and water (containing 〇.2〇/. acetic acid) ); mobile phase linear gradient procedure: 1) initial from 60% acetonitrile (ACN) and 40% water (containing 0.2% acetic acid), after 60 minutes 'to 2') 90% acetonitrile and 1% water (including 0.2%) Acetic acid); flow rate 〇 8 ml / min. (A) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (B) indicates that the side detector sets the ultraviolet wavelength of 248 nm, and (C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result shows that the ultraviolet wavelength is 248 nm. The most obvious peak obtained at a residence time of about 35 minutes represents the triterpenoid compound 1 of Antrodia camphorata. Figure 10 shows the results of analyzing Astragalus triterpenoids 2 by high performance liquid chromatography. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 〇·2〇/. acetic acid); mobile phase linear gradient program: 1) initial self-contained 60% acetonitrile (ACN) and 40% water Starting with 0.2% acetic acid, after 60 minutes 'to 2' 90% acetonitrile and 1% water (containing 0.2% acetic acid); the flow rate was 〇8 ml/min. (Α) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (Β) indicates that the side detector sets the ultraviolet wavelength of 248 nm, and (C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result shows that the ultraviolet wavelength is 248 nm. The most obvious peak obtained at about 53 minutes of residence time represents the Antrodia camphorata compound 2. Figure 11 shows the results of analyzing Astragalus triterpenoids 3 by high performance liquid chromatography. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 〇.2〇 / 0 acetic acid); mobile phase linear gradient program: 1) initial 60% acetonitrile (ACN) and 40% water (containing 0.2% acetic acid) Start 'after 60 minutes' to 2) 90% acetonitrile and 1% water (containing 0.2% acetic acid); flow rate is 〇8 ml/min. (Α) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (Β) indicates that the side detector sets the ultraviolet wavelength of 248 nm, and (C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result 201217782 shows the ultraviolet wavelength of 248 nm. The most obvious peak can be obtained at a residence time of about 28 minutes to represent the compound 3 of the burdock. Figure 12 shows the results of analyzing Astragalus triterpenoids 4 by high performance liquid chromatography. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 〇 2% acetic acid); mobile phase linear gradient program: 1) initial self-contained 60% acetonitrile (ACN) and 40% water (including 0.2% acetic acid) Start 'after 60 minutes' to 2) 90% acetonitrile and 1% water (containing 0.2% acetic acid); flow rate is 〇8 ml/min. (A) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (B) indicates that the debt side sets the ultraviolet wavelength of 248 nm '(C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result shows that the ultraviolet wavelength is 248 nm. The most obvious peak can be obtained at a residence time of about 6 minutes to represent the triterpenoid compound 4 of the burdock. Figure 13 shows the results of analyzing the anthraquinone triterpenoid 5 by high performance liquid chromatography. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 〇2% acetic acid); mobile phase linear gradient program: 1) initial self-contained 60% acetonitrile (ACN) and 4% water (including 〇·2. /. Acetic acid) Start, after 60 minutes, to 2) 90% acetonitrile and 10% water (containing 〇·2% acetic acid); the flow rate is 〇8 spring ML/min. (A) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (B) indicates that the side detector sets the ultraviolet wavelength of 248 nm, and (C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result shows that the ultraviolet wavelength is 248 nm. The most obvious peak was obtained at a residence time of about 8 minutes, representing the Niu Zhuang Zhi Sanzhuang compound 5. Figure 14 shows the results of analyzing the Antrodia camphorata III compound 6 by a liquid chromatograph. The analysis conditions of the South Performance Liquid Chromatograph are: mobile phase 6 water (including 02% 6 acid); mobile 12 201217782 phase linear gradient program: 1) initial 60% acetonitrile (ACN) and 40% water ( Starting with 0.2% acetic acid, after 60 minutes, to 2) 90% acetonitrile and 10% water (containing 0.2% acetic acid); the flow rate was 0.8 ml/min. (A) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (B) indicates that the side detector sets the ultraviolet wavelength of 248 nm, and (C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result shows that the ultraviolet wavelength is 248 nm. The most obvious peak obtained at a residence time of about 11 minutes represents the triterpenoid compound 6 of Antrodia camphorata. Figure 15 shows the results of analyzing Astragalus triterpenoids 7 by high performance liquid chromatography. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 0.2% acetic acid); mobile phase linear gradient program: 1) initial self-contained 60% acetonitrile (ACN) and 40% water (including 0.2%) Acetic acid) starts 'after 60 minutes, to 2) 90% acetonitrile and 10% water (containing 0.2% acetic acid); the flow rate is 0 8 ml/min. (A) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (B) indicates that the side detector sets the ultraviolet wavelength of 248 nm, and (C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result shows that the ultraviolet wavelength is 248 nm. The most obvious peak obtained when the residence time is about 5 minutes represents the bovine 樟 萜 萜 triterpenoid compound 7. Figure 16 shows the results of analyzing Astragalus triterpenoids 8 by high performance liquid chromatography. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 0.2% acetic acid); mobile phase linear gradient program: 1) initial self-contained 60% acetonitrile (ACN) and 40% water (including 0.2%) Acetic acid) starts 'after 60 minutes, to 2) 90% acetonitrile and 1% water (containing 0.2% acetic acid); the flow rate is 〇8 ml/min. (A) indicates that the side detector sets the ultraviolet wavelength of 235 nm, (B) indicates that the side detector sets the ultraviolet wavelength of 248 nm, and (C) indicates that the side detector sets the ultraviolet wavelength of 255 nm, and the result shows that the ultraviolet wavelength is 248 nm. The most obvious peak obtained at the residence time of about 27 minutes represents the bovine 13 201217782 Antrodia sinensis compound 8. Example 3: Preparation of Antrodia camphorata indicator III_Standard and calibration line The standard product purified by the present invention, a bovine stick, Sanzhuang compound i to 8, is re-dissolved in a concentration of milligrams per milliliter for efficient analysis and analysis. Genealogy. The concentration of the calibration line ranges from about (four) mg/ml to about 0.80 mg/ml. Figure 17 shows the results of analyzing the purified standard of the present invention by high performance liquid chromatography. The experiment includes the results of the analysis of the 樟 三 三 丨 丨 , , , , , , , , , , , , , , , , , , , , 高效Ethyl acetonitrile and water (containing 0.2% acetic acid); mobile phase linear gradient procedure: 1) Initially starting with 60% acetonitrile (ACN) and 40% water (containing 0.2% acetic acid), after 6 minutes, to 2) 90% Acetonitrile and 1% water (containing 〇.2〇/. acetic acid); flow rate was 0 8 ml/min. (A) indicates a concentration of the trivalent compound of 0.05 mg/ml; (B) indicates a concentration of the triterpenoid compound of 0.10 mg/ml; (C) indicates a concentration of the trizate compound of 0.20 mg/ml; indicating a triterpenoid The concentration was 0.40 mg/ml; (E) indicates the concentration of the triterpenoid was 〇8〇mg/ml. The results show that the high-performance liquid chromatogram peaks are not analyzed in the concentration range of about 0.05 mg/ml to about 0.80 mg/ml using the above high performance liquid chromatography conditions. Will overlap and can be easily interpreted. Figure 18 shows the quantitative standard curve of the solution of the Antrodia camphorata triterpenoid 1 to 8 standard, wherein the standard curve parameters are shown in Table 2 below. Table 2, Antrodia camphora triterpenoids 1 to 8 standard solution quantitative standard curve parameters 201217782 Figure 18 (A) Antrodia camphora triterpenoid 1, Υ = A + B xX Parameter value error A -5849.58333 5213.08255 B 443345.10753 12625.02977 Correlation coefficient ( R) Standard deviation (SD) Number of samples (N) P-value, significant value (P) 0.99879 7700.23325 5 <0.0001 Figure 18 (B) Antrodia camphorata compound 2, Y = A + B xX Parameter value error A - 290.8333 2428.65835 B 622663.97849 5881.71848 Correlation coefficient (R) Standard deviation (SD) Number of samples (N) P-value, significant value (P) 0.99987 3587.36613 5 <0.0001 Figure 18 (C) Astragalus triterpenoid 3, Y = A + B xX Parameter value error A 378.75 2366.80029 B 604933.70968 5731.91078 Correlation coefficient (R) Standard deviation (SD) Number of samples (N) P-value, significant value (P) 0.99987 3495.99571 5 <0.0001 Figure 18(D) Antrodia camphorata Compound 4, Y = A + B xX Parameter value error A 2138.91667 2134.67482 B 659597.04301 5169.74993 Correlation coefficient (R) Standard deviation (SD) Number of samples (N) P-value, significant value (P) 15 201217782
0.99991 3153.12368 5 <0.0001 圖18(E)牛樟芝三萜類化合物5,Y = Α + ΒχΧ 參數 值 誤差 A -2493 4327.43363 B 391379.35484 10480.16751 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 0.99893 6392.04309 5 <0.0001 圖18(F)牛樟芝三萜類化合物6,Y = Α + ΒχΧ 參數 值 誤差 A -6640.125 1576.83011 B 210549.43548 3818.76306 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 0.99951 2329.13243 5 <0.0001 圖18(G)牛樟芝三萜類化合物7,Y = Α + ΒχΧ 參數 值 誤差 A -4845.25 7024.60664 B 996276.93548 17012.1741 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 0.99956 10376.03166 5 <0.0001 圖18(H)牛樟芝三萜類化合物8,Y = Α + ΒχΧ 參數 值 誤差 A -6841.83333 7106.24023 B 724671.72043 17209.87411 16 201217782 相關係數(R) 標準差(SD) 樣本數(N) P-值,顯著值(P) 0.99916 10496.61246 5 <0.0001 實施例4、利用高效能液相層析儀使用含甲酸或乙酸流動相並以不同 流速分析標準品 I 利用高效液相層析分析三萜類化合物1至三萜類化合物8。其中高效 液相層析分析用溶劑為:乙醇(Ethanol) (ECHO,苗栗,臺灣)、乙腈 (Acetonitrile)(ECHO,苗栗,臺灣)、甲酸(Formic acid )( ECHO,苗栗, 臺灣)及乙酸(Aceticacid) (ECHO,苗栗,臺灣)。 其中高效能液相層析儀設備為:债測器:Diode Array UV Detector L-7400 (Hitachi,Tokyo,日本);泵浦:L-7100 (Hitachi,Tokyo,日本) 以及分析型管柱:J,sphere ODS-M80C18管柱(250x4.6毫米,4奈米粒 鲁徑)(YMC Sep,Technol,日本)。 將本發明純化的標準品-牛掉芝三莊類化合物1至8,均以0.80毫克/ 毫升濃度回溶,以高效能液相層析分析其圖譜。其中高效能液相層析儀分 析條件為:移動相係乙腈及水(含0.1%至0.2%甲酸或乙酸);移動相線性 梯度程序:1)初始自以60%乙腈(ACN)及40%水(含0.1%至0.2%曱酸 或乙酸)開始,經過60分鐘,至2) 90%乙腈及10%水(含0.1%至0.2% 甲酸或乙酸);流速為0.8至1.0毫升/分鐘;偵側器設定紫外線波長248奈 17 201217782 米;注射體積為5微升 圖19顯示以高效能液相層析儀使用含甲酸或乙酸之移動相,並以移動 相不同流速分析牛樟芝三萜類化合物1至8標準品溶液之結果。 圖19(A)、(B)之高效能液相層析儀分析條件為:移動相係乙腈及水 ((A)、含0.1%乙酸;(B)、含〇 2%乙酸);移動相線性梯度程序.1)、妗 自以60%乙腈(ACN)及4〇%水((A)、含〇.1%乙酸;(6)、含〇2〇/乙酸) 開始,經過60分鐘,至2) 90%乙腈及1〇%水(㈧、含〇 ι%乙酸;⑼、 含0.2%乙酸:K流速為〇.8毫升/分鐘;伽器設定紫外線波長_奈米;注 射體積為5微升。圖19(A)、⑻之結果顯示在上述條件下,移她為乙猜 及含(U%至0.2%乙酸之水可針對牛樟芝三_化合物i至8於特定滞㈣ 間獲得特定波峰值,且各種4化合物之高效液相層析圖之波峰不會重 疊,可輕易判讀。 在圖19(A)之條件下,可於滞留時間約%分鐘時獲得最明顯波峰代表 牛掉芝三麵化合物1,於滞留時間約53分鐘時獲得最明顯波峰代表牛樟 芝三_化合物2 ’於職時_ 28分鐘麵得_鱗代表牛樟芝三 _化合物3,於__約15分_獲得最_波峰絲牛樟芝三_ 化口物4於滯留時_ 18分鐘時獲得最_波峰代表牛樟芝三_化合 物5 ’於滞留時間約11分鐘時獲 ^月顯波峰代表牛樟芝三萜類化合物6, 於滯留時間約5分鐘時獲得最明顯、、古路a主& 皮峰代表牛樟芝三萜類化合物7,於滞留 時間約26分鐘時獲得最明顯波峰 辛代表牛樟芝三_化合物8。在圖19(B) 201217782 條件下可於滯留時間約34分鐘時獲得最明顯波岭代表牛掉芝三莊類化 合物卜於滯咖約53分鐘時獲得最·波峰代表牛樟芝三細化合物 2於滞料_ 28分鐘時獲得最觀波峰代表牛樟芝三細化合物3,於 滯留時間約15分鐘時獲得最明顯波夺代表牛樟芝三_化合物4,於滯留 時間約18分料料最__絲牛較三細化合物$,於滞留時間 約11分鐘時獲得最_波峰代表牛樟芝三_化合物6,於滞留時間約$ 分鐘時獲縣麵騎代辨樟芝三_化合物7,於滯留時_ %分鐘 時獲得最波峰絲牛較三醜化合物8。 圖·、(D)之高效能液相層析儀分析條件為:移動相係乙腈及水(含 w❹移動相線性梯度程序:υ初始自以轉乙腈(acn)及· 水(含(U%甲酸)開始,經㈣分鐘,至2) 9輪猜及祕水(含㈣ 甲酸);嶋(Q、Q·8 _分鐘綱、1踐料鐘;細蚊紫外線 波長叫㈣射體積為5微升。圖19(Q、(D)之結果顯示在移動相係 乙腈及水(含〇·1%甲酸)的情況下’流速為〇.8毫升/分鐘至L〇毫升/分鐘 可針對牛樟芝三_化合物丨至8於特定滯㈣間獲得較波峰值,且各 種三莊化合物之高錢相層析圖之鱗不會重疊,可輕易判讀。 在圖19(⑽件下,可_日_⑽物糊顯波峰代表 牛樟芝三細化合物i,_時_ 53錢__鱗代表牛棒 芝三_化合物2 ’㈣__ 28分鐘時獲得最·波峰代表牛棒芝三 _化合物3,於丨5分辦麟最鶴波峰代 化合物4 ’於滯留時間約18分鐘時獲得最明顯波峰代表牛樟芝三_化人 201217782 物5’於滯11分__麵_斜樟芝_化合物6, '帶留寺1約5刀鐘時獲得最明顯波峰代表牛樟芝三_化合物7,於滯留 ' _^^_麵代斜較4類化合物 8。在圖 19(D) 、° ;滯留時間約3G分鐘時獲得最明紐峰代表牛樟芝三箱類化 合物1 ’於滯留時間約47分鐘時獲得最明顯波峰代表牛樟芝三_化合物0.99991 3153.12368 5 <0.0001 Fig. 18(E) Astragalus triterpenoids 5, Y = Α + ΒχΧ Parameter error A -2493 4327.43363 B 391379.35484 10480.16751 Correlation coefficient (R) Standard deviation (SD) Number of samples (N) P- Value, significant value (P) 0.99893 6392.04309 5 <0.0001 Fig. 18(F) Astragalus triterpenoid 6, Y = Α + ΒχΧ Parameter error A -6640.125 1576.83011 B 210549.43548 3818.76306 Correlation coefficient (R) Standard deviation (SD) Number of samples (N) P-value, significant value (P) 0.99951 2329.13243 5 <0.0001 Figure 18 (G) Astragalus triterpenoids 7, Y = Α + ΒχΧ Parameter error A -4845.25 7024.60664 B 996276.93548 17012.1741 Correlation coefficient ( R) Standard deviation (SD) Number of samples (N) P-value, significant value (P) 0.99956 10376.03166 5 <0.0001 Figure 18 (H) Astragalus triterpenoids 8, Y = Α + ΒχΧ Parameter error A -6841.83333 7106.24023 B 724671.72043 17209.87411 16 201217782 Correlation coefficient (R) Standard deviation (SD) Number of samples (N) P-value, significant value (P) 0.99916 10496.61246 5 <0.0001 Example 4, use high Liquid chromatography can be used formic acid or acetic acid phase flow and different flow rates analytical standard I Analysis of triterpenoids 1-3 terpenoid 8 by high performance liquid chromatography. The solvents for high performance liquid chromatography were: Ethanol (ECHO, Miaoli, Taiwan), Acetonitrile (ECHO, Miaoli, Taiwan), Formic acid (ECHO, Miaoli, Taiwan) and acetic acid ( Aceticacid) (ECHO, Miaoli, Taiwan). The high performance liquid chromatography equipment is: debt detector: Diode Array UV Detector L-7400 (Hitachi, Tokyo, Japan); pump: L-7100 (Hitachi, Tokyo, Japan) and analytical column: J , sphere ODS-M80C18 column (250 x 4.6 mm, 4 nm grain diameter) (YMC Sep, Technol, Japan). The purified standard of the present invention, N. sinensis, was dissolved back at a concentration of 0.80 mg/ml, and its spectrum was analyzed by high performance liquid chromatography. The high performance liquid chromatograph analysis conditions are: mobile phase acetonitrile and water (containing 0.1% to 0.2% formic acid or acetic acid); mobile phase linear gradient program: 1) initial 60% acetonitrile (ACN) and 40% Starting with water (containing 0.1% to 0.2% citric acid or acetic acid), after 60 minutes, to 2) 90% acetonitrile and 10% water (containing 0.1% to 0.2% formic acid or acetic acid); the flow rate is 0.8 to 1.0 ml/min; The detector is set to UV wavelength 248 奈 17 201217782 m; the injection volume is 5 μl. Figure 19 shows the mobile phase containing formic acid or acetic acid using a high performance liquid chromatograph, and analyzing the triterpenoids of the burdock with different mobile flow rates. Results for 1 to 8 standard solutions. Figure 19 (A), (B) high performance liquid chromatography analysis conditions: mobile phase acetonitrile and water ((A), containing 0.1% acetic acid; (B), containing 2% acetic acid); mobile phase Linear gradient procedure.1), starting from 60% acetonitrile (ACN) and 4% water ((A), containing 1.1% acetic acid; (6), containing 〇2〇/acetic acid), after 60 minutes, To 2) 90% acetonitrile and 1% water ((eight), containing 〇ι% acetic acid; (9), containing 0.2% acetic acid: K flow rate is 〇. 8 ml / min; gamma setting ultraviolet wavelength _ nanometer; injection volume is 5 Microliters. The results of Fig. 19(A) and (8) show that under the above conditions, shifting her to B guess and containing (U% to 0.2% acetic acid water can be specific to the burdock three _ compounds i to 8 between specific stagnations (four) The peak value of the wave, and the peaks of the high-performance liquid chromatograms of the various 4 compounds do not overlap and can be easily interpreted. Under the condition of Fig. 19(A), the most obvious peak can be obtained at a residence time of about % minutes. Three-sided compound 1, the most obvious peak obtained when the residence time is about 53 minutes, represents the burdock three _ compound 2 'on time _ 28 minutes face _ scales represent burdock three _ compound 3, in __ about 15 points _ The most _ wave peak silk burdock three _ chemical substance 4 in the retention time _ 18 minutes to obtain the most _ wave peak representative of burdock three _ compound 5 'when the residence time is about 11 minutes, the ^ sensation peak represents the burdock triterpenoid compound 6, in When the residence time is about 5 minutes, the most obvious, the ancient road a main & skin peak represents the burdock triterpenoid compound 7, and the most obvious peak symplectic time is about 26 minutes to represent the burdock three _ compound 8. In Figure 19 ( B) Under the condition of 201217782, the most obvious wave ridge can be obtained at the time of residence time of about 34 minutes, and the yoghurt is found in the stagnation of the stagnation of the stagnation of the stagnation of the stagnation of the stagnation of the stagnation. When the most observational peak is obtained, it represents the triterpenoid compound 3, and the most obvious wave-receiving time is about 15 minutes. The representative time is about 18 minutes. The retention time is about 18 minutes. The most __ silk is more than the three fine compound. When the residence time is about 11 minutes, the most _ peak is obtained, representing the burdock three _ compound 6, and when the residence time is about $ minutes, the county is riding the squad to identify the 樟 三 _ _ compound 7, and when it is staying _ % minutes, the most peak snail is obtained. Compared with the three ugly compounds 8. The high-performance liquid chromatograph of graphs and (D) is characterized by: mobile phase acetonitrile and water (linear gradient program containing w❹ mobile phase: υ initial self-transfer acetonitrile (acn) and Water (including (U% formic acid) starts, after (four) minutes, to 2) 9 rounds of guessing secret water (including (4) formic acid); 嶋 (Q, Q·8 _ min class, 1 practice clock; (4) The ejection volume is 5 μL. The results of Figure 19 (Q, (D) show that in the case of mobile phase acetonitrile and water (containing 〇·1% formic acid), the flow rate is 88 ml/min to L〇 ml. /min can be used to obtain a higher peak value between the 樟 三 三 _ 丨 丨 于 于 于 于 于 于 于 于 于 , , , , , , , , , , , , , , , , , , , , , , , , In Fig. 19 ((10), _日_(10) 糊 显 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表 代表Niu Zhi Zhi San _ compound 3, in the 5 points of the 麟 最 最 最 鹤 波 波 化合物 化合物 化合物 化合物 化合物 ' ' ' ' ' ' 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约樟 樟 _ _ compound 6, 'Take the temple 1 about 5 knives when the most obvious peaks represent the burdock three _ compound 7, in the retention ' _ ^ ^ _ face slant compared to the four types of compounds 8. In Figure 19 (D) , °; retention time of about 3G minutes to obtain the most distinct New Zealand peak represents Niuzizhi three boxes of compounds 1 'at the retention time of about 47 minutes to obtain the most obvious peaks representing the Antrodia camphora III compound
2 M__ 25 ^時獲得最卿波峰代表牛樟芝三醜化合物3,於 滯留_ 13分鐘時__波峰代表牛樟芝三_化合物4,於滞留 時門勺刀鐘時獲件最明顯波峰代表牛棒芝三莊類化合物5,於滯留時間 約9分鐘喊得最鴨波峰代表牛樟芝三轴化合物6,於滯_約4分 鐘時獲得最_波峰代表牛樟芝三_化合物7,於滯_約23分鐘時 獲得最_波峰代表牛樟芝三_化合物8。 圖19(E)、(F)之高效能液相層析儀分析條件為:移動相係乙猜及水(含 0·2〇/〇甲酸);移動相線性梯度程序:υ初始自以6〇%乙猜(acn)及· 水(含0.2%甲酸)開始’經過60分鐘,至2 ) 9〇%乙腈及i 〇%水(含〇篇 甲酸流速為⑹、0.8毫升/分鐘及(F)、L〇毫升/分鐘;侧器設定紫外線 波長248奈米,注射體積為5微升。圖19⑹、(F)之結果顯示在移動相係乙 腈及水(含0.2%曱酸)的情況下’流速為〇 8毫升/分鐘至1〇毫升/分鐘可 針對牛樟芝三_化合物1至8於特定__獲得蚊波峰值,且各種 二莊化合物之南效液相層析圖之波峰不會重疊,可輕易判讀。 在圖19(E)之條件下,可於滞留時間約35分鐘時獲得最明顯波峰代表 牛樟芝三萜類化合物1,於滯留時間約53分鐘時獲得最明顯波峰代表牛樟 20 201217782 芝三細化合物2,__28分鐘時__波峰代表牛樟芝三 =合物3 , 15分鐘畴得最卿鱗代料樟芝三搭類 化』4於18酬麟她恤嫩三細化合 物5 ’於滯咖,議_觸_鱗絲嫩三_化合物6, 於滞留時_ 5 ___鱗代斜鍵三咖_,於滞留 時間約26分鐘時獲得最明顯波峰代表牛樟芝三_化合物8。在圖. 之條件下,可_留時_ 3Q分料麟最鶴鱗絲牛觀三議化 合物卜灣留時_ 47分鐘時獲得最·波峰代表牛樟芝扇化合物 2 ’於滞留時間約24分鐘啸得最_波峰代表牛樟芝三_化合物3,於 滯留時Η約I2讀喊喊鶴波峰代表牛樟芝三㈣貞化合物*,於滯留 時間約15 ”鐘時獲得最簡波峰代表牛樟芝三麵化合物$,於滯留時間 約9为鐘時獲得最明顯波峰代表牛樟芝三麵化合物6,於滞留時間約*分 鐘時獲得最聰波峰代表牛樟芝三細化合物7,㈣留時間約η分鐘時 獲得最_辭絲牛較三_化合物8。 實施例5、顧高效液相層析分析牛樟芝子實體乙醇萃取液 將牛樟芝子實體以乙醇萃取⑽克/升),利用上述之高效液相層析條 件分析該乙料取液,其"效驗相層析儀分·件為:移動相係乙腈 及水(含0.2%乙酸);移動相線性梯度程序:】)初始自以6〇%乙猜(ACN) 及40/。水(含0.2%乙酸)開始’經過6〇分鐘,至2)9〇%乙腈及1〇%水(含 21 201217782 0.2%乙酸);流速為0.8冑升/分鐘κ則器設定紫外線波長248奈米;注射 體積為5微升。分析結果顯示於圖2〇。由g 2〇可知,上述之高效能液相層 析儀分析斜可針對牛樟芝子實體之乙料取液巾之牛樟芝三莊化合物2 至8於特定滯留時間獲得特定波峰值,且各種三㈤化合物之高效液相層析 圖之波峰不會重疊,可輕易判讀。 利用牛樟芝三_化合物i至8標準品溶液定量標準曲線(實施例3) 得出二脑化合物2至8於牛樟芝子實體乙醇萃職之濃度,列於下表3。 表3、三莊類化合物2至8於牛樟芝子實體乙醇萃取液之濃度 牛樟芝三萜類化合物 --2- 牛樟芝子實體乙醇萃取液所含三贿化合 物濃度(微克/毫升) ~ ~~ TL5 3 154.7 " - 4 _ 233.1 " —-- 5 7Q0 S --- 6 L 655.1 "-- 7 772.2 " 8 249.3 " 一*- 22 201217782 【圖式簡單說明】 圖1、牛樟芝三萜類化合物1之化學式 圖2、牛樟芝三萜類化合物2之化學式 圖3、牛樟芝三萜類化合物3之化學式 圖4、牛樟芝三萜類化合物4之化學式2 M__ 25 ^ when the most brilliant peaks represent the three ugly compounds 3 of the burdock, in the retention _ 13 minutes __ wave peaks represent the burdock three _ compound 4, the most obvious peaks when the knives of the spoons are retained during the detention Zhuang compound 5, the most duck peak in the retention time of about 9 minutes, represents the burdock triaxial compound 6, and the most _ peak on the _ about 4 minutes to represent the burdock three _ compound 7, the most lag at about 23 minutes _ wave peak represents burdock three _ compound 8. Figure 19 (E), (F) high performance liquid chromatography analysis conditions: mobile phase B guess water (including 0 · 2 〇 / 〇 formic acid); mobile phase linear gradient program: υ initial self-contained 〇%B guess (acn) and · water (containing 0.2% formic acid) start 'after 60 minutes, to 2) 9〇% acetonitrile and i 〇% water (containing hydrazine formic acid flow rate of (6), 0.8 ml / min and (F ), L 〇 ml / min; side device set UV wavelength 248 nm, injection volume is 5 μl. The results of Figure 19 (6), (F) show in the mobile phase acetonitrile and water (including 0.2% citric acid) 'The flow rate is 毫升8 ml/min to 1 〇ml/min. The peak of the mosquito wave can be obtained for the burdock three _ compound 1 to 8 in a specific __, and the peaks of the south-effect liquid chromatograms of various bis-zinc compounds do not overlap. It can be easily interpreted. Under the condition of Fig. 19(E), the most obvious peak can be obtained at about 35 minutes, which means that the scorpion triterpenoid compound 1 is obtained. When the residence time is about 53 minutes, the most obvious peak is obtained. 201217782 Zhisan fine compound 2, __28 minutes __ wave peak represents burdock three = compound 3, 15 minutes domain the most squama芝三三式化"4 in 18 reward Lin her shirt tender three fine compound 5 'in stagnation coffee, _ touch _ scale silk tender three _ compound 6, in the detention _ 5 ___ scaly oblique key three coffee _, When the residence time is about 26 minutes, the most obvious peak is obtained, which represents the burdock three _ compound 8. Under the condition of Fig., the _ _ 3Q arying the most crane scale 牛牛 观三议 compound 卜湾留时_ 47 minutes When the most peaks are obtained, the bovine 樟 扇 扇 fan compound 2 'when the residence time is about 24 minutes, the most _ peak represents the burdock three _ compound 3, when the stagnation is about I2 read shouting He Bofeng represents the burdock three (four) 贞 compound *, in the detention When the time is about 15 ′′, the simplest peak is the representative of Niu Zhizhi tri-small compound $. When the residence time is about 9 o'clock, the most obvious peak is obtained. It represents the three-sided compound of Niu Zhizhi. When the residence time is about * minutes, the most Congbo peak is represented by Niobium. Fine compound 7, (4) When the retention time is about η minutes, the most _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ l), using the above high efficiency liquid Chromatographic conditions analysis of the liquid extraction of the material, its "process phase chromatograph" parts: mobile phase acetonitrile and water (including 0.2% acetic acid); mobile phase linear gradient program:]) initial self-contained 6〇% B guess (ACN) and 40/. water (containing 0.2% acetic acid) starts 'after 6 minutes, to 2) 9% acetonitrile and 1% water (including 21 201217782 0.2% acetic acid); the flow rate is 0.8 liters / The minute κ is set to an ultraviolet wavelength of 248 nm; the injection volume is 5 μl. The analysis results are shown in Fig. 2. From the g 2 〇, the high-performance liquid chromatograph analysis can be applied to the B. The bovine scorpion striata compound 2 to 8 obtained a specific wave peak at a specific residence time, and the peaks of the high-performance liquid chromatograms of the various three (five) compounds do not overlap and can be easily interpreted. Using the quantitative standard curve of the Antrodia camphora III compound to 8 standard solution (Example 3), the concentrations of the diceramide compounds 2 to 8 in the ethanol extract of the Antrodia camphorata fruit body were obtained, and are listed in Table 3 below. Table 3. Concentrations of Sanzhuang Compounds 2 to 8 in the ethanol extract of Antrodia camphorata fruit body Antrodia camphorata triterpenoids --2- Concentration of three bribes in the ethanol extract of Antrodia camphorata fruit extract (μg/ml) ~ ~~ TL5 3 154.7 " - 4 _ 233.1 " —-- 5 7Q0 S --- 6 L 655.1 "-- 7 772.2 " 8 249.3 " A *- 22 201217782 [Simple diagram] Figure 1, Niu Zhizhi Sancha Chemical formula of compound 1; chemical formula of triterpenoid 2 of Antrodia camphorataFig. 3 Chemical formula of triterpenoid 3 of Antrodia camphorataFig. 4 Chemical formula of triterpenoid compound 4 of Antrodia camphorata
圖5、牛樟芝三萜類化合物5之化學式。 圖6、牛樟芝三萜類化合物6之化學式。 圖7、牛樟芝三萜類化合物7之化學式。 圖8、牛棒芝三箱類化合物8之化學式 圖9、以1%效能液相層析儀分析牛樟芝三細化合物丨之結果。 圖丨〇、以高效能液相層析儀分析牛樟芝三萜類化合物2之結果。 圆11、以高效能液相層析儀分析牛樟芝三萜類化合物3之結果。 圖12、以高效能液相層析儀分析牛樟芝三萜類化合物4之結果。 圖13、以高效能液相層析儀分析牛樟芝三萜類化合物5之結果。 圖14、以高效能液相層析儀分析牛樟芝三萜類化合物6之結果。 圖15、以高效能液相層析儀分析牛樟芝三萜類化合物7之結果。 圖16、以高效能液相層析儀分析牛樟芝三箱類化合物8之結果。 圓17、以高效能液相層析儀分析本發明純化之標準品之結果。 圖18、牛樟芝三萜類化合物1至8標準品溶液定量標準曲線。 圖19、以高效能液相層析儀使用含甲酸或乙酸之移動相,並以移動相不同 流速分析牛樟芝三莊類化合物1至8標準品溶液之結果。 圖20、以高效能液相層析儀分析牛樟芝子實體乙醇萃取液之結果。 23 201217782 【主要元件符號說明】 無0Figure 5. Chemical formula of the triterpenoid compound 5 of Antrodia camphorata. Figure 6. Chemical formula of the triterpenoid compound 6 of Antrodia camphorata. Figure 7. Chemical formula of the triterpenoid compound 7 of Antrodia camphorata. Figure 8. Chemical formula of three boxes of compound 8 of Niobium sinensis. Figure 9. Analysis of the results of the triterpenoid compound of Niobium lucidum by 1% performance liquid chromatography. Figure 丨〇, analysis of the results of the triterpenoids 2 of O. chinensis by high performance liquid chromatography. Round 11. The results of analyzing the triterpenoids 3 of Antrodia camphorata by high performance liquid chromatography. Figure 12. Analysis of the results of Astragalus triterpenoids 4 by high performance liquid chromatography. Figure 13. Analysis of the results of the Astragalus triterpenoids 5 by high performance liquid chromatography. Figure 14. Analysis of the results of Astragalus triterpenoids 6 by high performance liquid chromatography. Figure 15. Results of analysis of Astragalus triterpenoids 7 by high performance liquid chromatography. Figure 16. Analysis of the results of three boxes of compound 8 of Antrodia camphorata by high performance liquid chromatography. Circle 17. The results of the purified standard of the present invention were analyzed by high performance liquid chromatography. Figure 18. Quantitative standard curve of the solution of the triterpenoid triterpenoids 1 to 8 standard solution. Fig. 19 shows the results of using a mobile phase containing formic acid or acetic acid in a high performance liquid chromatography instrument and analyzing the solutions of the 1 to 8 standard solutions of the Antrodia camphorata triterpenoids at different flow rates in the mobile phase. Figure 20. Analysis of the ethanol extract of Antrodia camphorata fruit body by high performance liquid chromatography. 23 201217782 [Description of main component symbols] No 0
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