TW200401645A - Enteric fat absorption inhibitors containing plant extract and foods containing the same - Google Patents
Enteric fat absorption inhibitors containing plant extract and foods containing the same Download PDFInfo
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- A—HUMAN NECESSITIES
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- A61K31/00—Medicinal preparations containing organic active ingredients
- A61K31/185—Acids; Anhydrides, halides or salts thereof, e.g. sulfur acids, imidic, hydrazonic or hydroximic acids
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- A23—FOODS OR FOODSTUFFS; TREATMENT THEREOF, NOT COVERED BY OTHER CLASSES
- A23L—FOODS, FOODSTUFFS OR NON-ALCOHOLIC BEVERAGES, NOT OTHERWISE PROVIDED FOR; PREPARATION OR TREATMENT THEREOF
- A23L33/00—Modifying nutritive qualities of foods; Dietetic products; Preparation or treatment thereof
- A23L33/10—Modifying nutritive qualities of foods; Dietetic products; Preparation or treatment thereof using additives
- A23L33/105—Plant extracts, their artificial duplicates or their derivatives
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- A61K36/00—Medicinal preparations of undetermined constitution containing material from algae, lichens, fungi or plants, or derivatives thereof, e.g. traditional herbal medicines
- A61K36/18—Magnoliophyta (angiosperms)
- A61K36/185—Magnoliopsida (dicotyledons)
- A61K36/53—Lamiaceae or Labiatae (Mint family), e.g. thyme, rosemary or lavender
- A61K36/537—Salvia (sage)
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- A61P3/06—Antihyperlipidemics
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- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61P—SPECIFIC THERAPEUTIC ACTIVITY OF CHEMICAL COMPOUNDS OR MEDICINAL PREPARATIONS
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Abstract
Description
200401645 玖、發明說明: 【發明所屬之技術領域3 發明領域 本發明是有關一種有效於治療或預防肥胖、高血脂症 5 之脂肪吸收抑制劑,其不需預先抑制對象之胃液分泌,就 可在奏效部位的十二指腸發揮胰腺脂嗨抑制作用及脂肪吸 收抑制作用。 I:先前技術3 發明背景 10 肥胖被認為是由於運動不足或攝食過量等不正常的生 活習慣,遺傳素因’引起基礎代謝的降低所致;再者,近 年來亦開始了解到脂肪細胞所分泌的萊普亭(Leptine)的食 慾控制機能與肥胖有密切關係。由於過度肥胖會成為引起 糠尿病或心血管症(動脈硬化、腦中風)等生活習慣病的要 15 因,故需於早期迅速治療。 解示$ >〇縈f朿可舉述如L抑制食慾,2.抑制營養 素(特別是脂胁)的吸收,3.增加熱能的產生,4改盖脂質或 蛋白質的代謝,及5.調節中樞的體重㈣機構等,而上述 各項正分別廣泛地進行研究中。其中,分類於】與2的肥胖 治療藥,雖僅適用於臨床上,不過由於副作用多,安全性 尚未確立,故在世界上可長期間使用的藥物恨少。在日本, 目前僅承認分齡1的食射咖«鄉 相對於此,在治療藥以外顯現具有前通2的機能者已開 發出來了 ’例如,食材中具含有前述2的機能之成分者,最 20 200401645 近隨着肥胖者的增加或減肥意識的提高而備受關注。其不 同於治療藥可不需處方的關係,對於副作用要求儘可能 >,不過由於易於入手,故具有在日常生活可攝取的優點。 具有前述2的機能之成分者,可舉述如最近風行的來自 蟹/V又之甲设素·设聚糖,或來自魚類軟骨 < 硫酸軟骨素等 健康食品。此等均具有胰腺脂誨抑制活性能,故被攝取的 脂肪不被酵素加水分解,結果可抑制從腸管吸收的脂肪。 本發明欲解決的課題 由於此等成分之脂肪吸收抑制能力弱,故有必須於曰 10 常生活中大量攝取之缺點。 t發明内容3 解決課題的方法 本發明人等對於來自攝取少量就可抑制胰腺脂酶的作 用,且可表現脂肪吸收抑制作用植物且具安全性之脂肪艰 15收抑制劑,經重複研究的結果,獲知從鼠尾草或迷迭香的 葉採取之萃取物,在活體外顯示有優異的胰腺脂酶抑制作 用。 基於此知識’將投與橄欖油的小鼠以活體内試驗前述 萃取物的脂肪吸收抑制作用之結果,經口投與時雖幾乎未 20表現脂肪吸收抑制作用,不過直接投與於小鼠的十二指 腸,或使用胃液分泌抑制劑事先抑制小鼠的胃液分泌後= 與時,則可明確地表現有脂肪吸收抑制作闬。 但是,在日常生活上直接投與於十二指腸,並不容易 實施。另—方面,併用胃液分泌抑制劑或制酸劑與酸中和200401645 (1) Description of the invention: [Technical field to which the invention belongs 3 Field of the invention The present invention relates to a fat absorption inhibitor effective for the treatment or prevention of obesity and hyperlipidemia 5, which does not require the subject's gastric juice secretion to be inhibited in advance. The duodenum in the effective part exerts an inhibitory effect on pancreatic fat and an inhibitory effect on fat absorption. I: Prior art 3 Background of the invention 10 Obesity is considered to be caused by abnormal living habits such as insufficient exercise or overeating, and genetic factors are caused by a reduction in basal metabolism; in addition, in recent years, it has also begun to understand the secretion of fat cells Leptine's appetite control is closely related to obesity. Because obesity can be a major cause of lifestyle disorders such as branuria or cardiovascular disease (arteriosclerosis, stroke), it needs to be treated early. Explanation $ > 〇 萦 f 朿 can be described as L suppresses appetite, 2. inhibits the absorption of nutrients (especially lipid threat), 3. increases the generation of heat energy, 4 changes the metabolism of lipids or proteins, and 5. regulates The central body weight system and the like are being extensively studied. Among them, the obesity treatment drugs classified in [2] and 2 are only clinically applicable, but because there are many side effects and safety has not been established, there are few drugs that can be used for a long time in the world. In Japan, currently only the food-cooking coffee of age 1 is recognized. In contrast, those who have developed the function of the front 2 in addition to the therapeutic drug have been developed. 'For example, the food contains ingredients with the functions of the 2 above, The most 20 200401645 has recently attracted much attention with the increase in obese people or increased awareness of weight loss. It is different from the relationship that a therapeutic drug can be used without a prescription, and side effects are required as much as possible, but because it is easy to get started, it has the advantage of being ingestable in daily life. Those who have the above-mentioned two functions can include health foods such as those from crab / V and chitosan and chitosan, or fish cartilage < chondroitin sulfate. All of them have pancreatic lipopaid inhibitory activity, so the fat that is ingested is not decomposed by enzymes and water, and as a result, fat absorbed from the intestine can be suppressed. Problems to be Solved by the Invention Since these ingredients have a weak ability to inhibit fat absorption, they have the disadvantage that they must be taken in large amounts in daily life. SUMMARY OF THE INVENTION 3 Method for solving the problem The present inventors have repeatedly studied the results of fat-suppressing inhibitors of fats that are plant-safe and can inhibit fat pancreatic lipase from a small amount of intake. It was found that the extract taken from the leaves of sage or rosemary showed excellent pancreatic lipase inhibitory effect in vitro. Based on this knowledge, the results of the fat absorption inhibitory effect of the aforementioned extracts were tested in vivo in mice administered with olive oil. Although oral administration showed almost no fat absorption inhibitory effect, it was directly administered to mice. After duodenum, or the use of gastric secretion inhibitors to inhibit the gastric secretion of mice in advance, it is clear that there is a fat absorption inhibition effect. However, direct administration to the duodenum in daily life is not easy to implement. On the other hand, the use of gastric secretion inhibitors or antacids and acid neutralization
6 200401645 劑等時,其對於消化脂肪以外的營養素亦有影響,且有副 作用發生之虞,故在日常的飲食生活上不宜於經常使用。 相對於此’本發明人等確認藉由對配有鼠尾草或迷迭 香的萃取物之脂肪吸收抑制劑施以腸溶化處理,則對象的 5胃液既無發生變化,又可使萃取物到達十二指腸。 因而’本發明提供了含有鼠尾草及/或迷迭香的萃取物 之腸溶性脂肪吸收抑制劑。本發明的腸溶性脂肪吸收抑制 劑’可為錠劑、顆粒劑、散劑或膠囊的形態。 再者’本發明亦提供了含有前述腸溶性脂肪吸收抑制 10 劑的食品。 t施方式j 發明之實施形態 萃取物 本發明的腸溶性脂肪吸收抑制劑含有鼠尾草及/或迷 15 迭香的萃取物。 本發明中所用的鼠尾草的萃取物,係將鼠尾草即紫蘇 科植物迷迭香(Salv丨a officinalis)的鮮葉或乾燥葉,以水或適 當的有機溶劑、或其組合溶液萃取後濃縮而得者。鼠尾草 係以作為肉類料理的香辛料而廣為人知,並且在歐洲民間 20被用來止瀉、治療胃炎、腸炎等。另,由於現在亦調配於 胃腸藥(EnterosanolR)中,故可認為對於消化器官的安全性 很南。 用以萃取之萃取溶劑可舉述如乙醇、甲醇等低級醇、 乙酉文乙S曰專低級S旨、以及其專與水的混合物。其中,由於 7 200401645 是供人的攝取,故以單獨使用乙醇或與水之混合物(所謂含 水乙醇)為佳。特別是以使用乙醇與水的比率為30%以上之 乙醇/水混合物,或1〇〇%乙醇為最有效。 因此,後述的實施例中,從鼠尾草及/或逑迭香的葉萃 5 取時,雖使用100%甲醇,當然亦可用30%以上之乙醇/水混 合物或1 〇 〇 %乙醇替代。實際上,在使用含有3 0 %或高於3 〇 〇/ί} 以上的乙醇之乙醇/水混合物之萃取物及從其分離出之有 效成分的活體外及活體内之試驗中,確認其與1〇〇〇/0甲醇萃 取物同樣顯示有優良之脂肪吸收抑制效果及胰腺脂酶抑制 10 活性。 鼠尾草於常溫(15〜30°c)實施浸潰萃取時,含於鼠尾草 中的揮發油(側柏酮(Thyjone))或精油(α ·一派烯(α penene)、間桉樹腦(m-cine〇ie)、龍腦(B〇rne〇1)),大量混入 於萃取物中,且會刺激腸粘膜而對於活體有不良影響之 15 虞。因此,於7〇〜100°C加熱萃取者為佳。 溶劑量或萃取時間則由於植物體為葉的緣故,對於 lgm植物加入溶劑5〜2〇nil,且在上述溫度萃取1〜3小時為 佳。 再者,萃取方法另可採用超臨界二氧化碳萃取,且與 20前述溶劑萃取比較,可製造之有效成分含量多且安全性高 之萃取物。萃取方法根據文献(例如Bauman D·等, Acta.Alimentaria: 28卷,1號,第 15〜28頁,1999年)所記載 的方法即可。詳而言之,係先將鼠尾草的葉置入萃取槽, 在壓力10〜25MPa(以25MPa為佳),溫度4〇〜1〇〇。〔:(以1〇〇^ 為佳)的條件下,實施萃取20〜_分鐘(以20〜⑼分鐘為佳)。 在此條件下含有有害成分侧柏_的精油分顧物,幾乎被萃 矛、其-人關於殘渣,在壓力35MPa以上(以47.5MPa ,為佳)’溫度40〜loot(以⑽t為佳)的條件下實施萃取 ⑽刀鐘(以20〜60分鐘為隹),含有有效成分氣尾草酸之 ^萜(Diterpene)分餾物,可獲得高含量的萃取物。此時,為 提高萃取率,村依需要使射满g_(E_iner)。 本發明中,亦可使用從迷迭香即紫蘇科植物 (Rosmarinus officinalis Linne(Labiatae))^ 得之萃取物。迷迭香與鼠尾草同樣地供為料理用香辛料之 外,由於含有一種精油之迷迭香葉鹼(RosemaHnine),亦供 作驅風劑或健胃劑。另有供作保存劑或抗氧化劑等傳統用 途。 萃取可根據前述有關鼠尾草的說明同樣的步驟進行。 即對於lgm迷迭香的鮮葉或乾燥葉加入溶 劑5〜20ml,而& 上述溫度萃取1〜3小時為佳。 «本毛月中所使用之鼠尾草或迷迭香萃取的萃取物, 包含根據上述步驟所得之水或溶劑萃取物與超臨界二氧化 碳萃取物、將前述萃取物以該領域知之減壓乾燥或喷 霧乾燥等方法去料取溶劑所狀固形分、及㈣其分離 精製所得之分顧物。 本發明中有關於良好的分離精製步驟及條件,係詳細 况明在後述的第1及第3實施例中,例如組合矽膠管杈層析 法、反相ODS管柱層析法與分取]9?1^等,在適當條件下, 200401645 雖亦可使用溶析液(Eluant)(例如水、或己烷、乙酸己醋、氣 仿、乙醇以及正丁醇等各種有機溶劑、或其混合物)達行, 但並不特別限定於此等物質。 藉由對從前述鼠尾草或迷迭香的萃取物分離精製所分 離出的分餾物中,包含有數種的雙褡類與三萜類。其中以 飞式表示的雙萜類之乳尾草酸為對本發明之脂訪吸收抑制 之目的最有效之成分,且以下將予以說明。 【化2】6 200401645, etc., it also affects nutrients other than fat digestion, and may cause side effects, so it is not suitable for daily use in daily diet. On the other hand, the present inventors have confirmed that by subjecting a fat absorption inhibitor provided with an extract of sage or rosemary to an enteric treatment, the subject's 5 gastric juices will not change and the extract will be changed. Reach the duodenum. Thus, the present invention provides an enteric fat absorption inhibitor containing an extract of sage and / or rosemary. The enteric fat absorption inhibitor 'of the present invention may be in the form of a tablet, granule, powder or capsule. Furthermore, the present invention also provides a food containing the aforementioned enteric fat absorption inhibitor. tApplication mode j Embodiment of the invention Extract The enteric fat absorption inhibitor of the present invention contains an extract of sage and / or rosemary. The sage extract used in the present invention is obtained by extracting fresh or dried leaves of sage, namely Persaceae plant rosemary (Salv 丨 a officinalis), with water or an appropriate organic solvent, or a combination solution thereof. After concentrating. Sage is widely known as a spice for meat dishes, and is used in European folk 20 to stop diarrhea, treat gastritis, enteritis and so on. In addition, it is now formulated in EnterosanolR, so it is considered to be very safe for the digestive organs. The extraction solvent used for the extraction can be mentioned lower alcohols such as ethanol, methanol, et al., And other special mixtures with water. Among them, since 7 200401645 is for human ingestion, it is preferable to use ethanol alone or a mixture with water (so-called water-containing ethanol). In particular, it is most effective to use an ethanol / water mixture having an ethanol to water ratio of 30% or more, or 100% ethanol. Therefore, in the examples described later, although 100% methanol is used when extracting from leaf extract 5 of sage and / or rosemary, it is a matter of course that 30% or more of ethanol / water mixture or 100% ethanol can be used instead. In fact, in vitro and in vivo tests using extracts of ethanol / water mixtures containing 30% or more of ethanol above 300% and the effective components isolated from them have been confirmed to be compatible with The 1000/0 methanol extract also exhibited excellent fat absorption inhibitory effect and pancreatic lipase inhibitory activity. When sage is subjected to immersion extraction at normal temperature (15 ~ 30 ° c), the volatile oil (Thyjone) or essential oil (α penene), eucalyptus brain ( m-cine〇ie), Borneol (Borne〇1)), are mixed in a large amount in the extract, and will stimulate the intestinal mucosa and have adverse effects on the living body. Therefore, it is better to heat the extract at 70 ~ 100 ° C. The amount of solvent or extraction time is because the plant body is a leaf. For lgm plants, a solvent of 5 to 20 nil is added, and it is preferable to extract at the above temperature for 1 to 3 hours. Furthermore, the extraction method can also use supercritical carbon dioxide extraction, and compared with the aforementioned solvent extraction of 20, it can produce extracts with a large amount of effective ingredients and high safety. The extraction method may be a method described in a literature (for example, Bauman D. et al., Acta. Alimentaria: Vol. 28, No. 1, pp. 15-28, 1999). Specifically, the leaves of the sage are first put into an extraction tank, under a pressure of 10 to 25 MPa (preferably 25 MPa) and a temperature of 40 to 100. [: (Preferably 100 ^), extraction is performed for 20 to _ minutes (preferably 20 to ⑼ minutes). Under these conditions, the essential oils that contain harmful components of Platycladus orientalis are almost extracted by spears and their residues at a pressure of 35 MPa or higher (47.5 MPa is preferred), and the temperature is 40 ~ loot (⑽t is preferred) Under the conditions of extraction of trowel bell (20 to 60 minutes as 隹), containing the active ingredient terpene diterpene (Diterpene) fractions, a high content of extracts can be obtained. At this time, in order to improve the extraction rate, the village needs to fill the g_ (E_iner) as needed. In the present invention, an extract obtained from Rosemary, which is a Perillaceae plant (Rosmarinus officinalis Linne (Labiatae)), can also be used. Rosemary is used as a cooking spice in the same way as sage, but it is also used as a wind repellent or stomach-enhancing agent because it contains Rosemary Hine, an essential oil. It is also used for traditional applications such as preservatives or antioxidants. Extraction can be performed in the same manner as described above with respect to sage. That is, 5 to 20 ml of the solvent is added to fresh or dried leaves of lgm rosemary, and extraction at the above temperature is preferably 1 to 3 hours. «Sage or rosemary extract used in this month includes water or solvent extract and supercritical carbon dioxide extract obtained according to the above steps, and the aforementioned extract is dried under reduced pressure known in the art or Spray drying and other methods are used to extract the solid content of the solvent, and the product obtained by separation and purification. The present invention relates to good separation and purification steps and conditions, which are described in detail in the first and third embodiments described below, such as combined silica gel tube chromatography, reverse phase ODS column chromatography, and fractionation.] 9? 1 ^, etc., under appropriate conditions, 200401645, although it is possible to use eluant (such as water, or hexane, acetic acid acetate, aerosol, ethanol, n-butanol and other organic solvents, or mixtures thereof) ), But not limited to these substances. The fractions obtained by separating and purifying the sage or rosemary extracts include several types of dimers and triterpenes. Among them, the diterpenoid orallynic acid represented by the fly type is the most effective ingredient for the purpose of inhibiting the lipid absorption of the present invention, and will be described below. [Chemical 2]
10 鼠尾草酸若為,例如,鼠尾草時,由在後述的第1及第 3貫施例所詳細說明可知,係可從鼠尾草調製甲醇萃取物, 以矽膠層析法分離由此得來之乙酸乙酯分餾物,然後經 ODS管柱層析法與分取hplc分離精製來製得。 (脂肪吸收抑制劑) 15 本發明係具抑制胰腺脂酶之功能且表現脂肪吸收抑制 作用的鼠尾草或迷迭香之萃取物,特別是具含有鼠尾草酸 的萃取物之脂肪吸收抑制劑,並且係經施以腸溶化處理之 膠囊、顆粒劑或錠劑(亦包含持續性藥效錠(Repetab))。 膠囊劑的製造方法,除了於其内容物中使用前述萃取 20物外,亦可根據傳統的軟膠囊製邊方法。此種製造方法可 200401645 舉例如使用膠囊皮膜片,再以轉動式充填機封入内容物之 膠囊製劑成型方法,或利用滴下法製造無縫膠囊之方法等。 再者,顆粒劑適用於傳統的各種濕式、乾式等造粒法, 且可與適當的粘合劑、賦形劑一同成型。而錠劑則是在含 5 有以前述方法製成的鼠尾草萃取物之顆粒,或鼠尾草萃取 物本身,添加適當的粘合劑、賦形劑、分解劑並依需要之 潤滑劑,利用傳統的打錠法來製造。 為了使本發明的脂肪吸收抑制劑具有腸溶性,在其脂 肪吸收抑制劑的表面,以腸溶性包覆劑包裹。或者,可以 10 在脂肪吸收抑制劑為膠囊劑或打錠劑時,於脂昉吸收抑制 劑的組成中配合腸溶化劑,或於明膠或澱粉等皮膜材料中 使用摻合有腸溶化劑者,再將脂肪吸收抑制劑組成填入於 膠囊。 腸溶性包覆劑可舉出甲基丙烯酸共聚物,羥丙基甲基 15 酞酸纖維素酯,羥丙基甲基醋酸琥珀酸纖維素酯,羧甲基 纖維素,乙酸酞酸纖維素酯等纖維素類、虫膠等。但並不 限於此等類物。此類暘溶性包覆劑根據傳統方法,可包裹 於脂肪吸收抑制劑表面。 另一方面,前述腸溶化劑可舉例如果膠、褐藻酸、纖 20 維素類(例如羧甲基纖維素、乙酸酞酸纖維素酯等)、甲基丙 烯酸共聚物等。 本發明的脂肪吸收抑制劑的攝食,以飯前或飯中服用 為佳。本發明的脂肪吸收抑制劑所含的萃取物,如使用鼠 尾草或迷迭香之水及/或溶劑萃取物時,通常成人1次 11 200401645 10〜500mg,而以2〇〜2〇〇mg,!天3次於飯中服用為佳。 本發明中之萃取物,亦可使用前述水及/或溶劑萃取物 分離精製分餾物。此時的攝取量通常成人丨次丨〜1〇〇rng,而 以5〜20mg,1天3次於飯中服用為佳。 5 前述攝取量當然須視年齡或脂肪成分的攝取量等而適 當增減。 本發明的脂肪吸收抑制劑之攝取量,與傳統的天然物 貝例如曱殼素·殼聚素比較時,得使用約1/20〜1/40之量。 (含有腸溶性脂肪吸收抑制劑之食品) 1〇 本發明的腸溶性脂肪吸收抑制劑,在日常生活中可添 加於一般食物中攝取,特別是摻合於含有加工食肉或油脂 等脂肪成分之食品中為佳。因此,本發明亦提供此種含有 腸 >谷性脂肪吸收抑制劑之食品。 本發明的食品由於可日常攝取,其脂肪吸收抑制之效 15果可期’故可作為有用的保健用食品。 在此種飲食物中,前述举取物的添加量,因應對象食 品的種類,在不損及食品原味的範圍添加即可對於一般 食品而言,在0.1〜10重量%的範圍内添加即可。 【實施例】 20 其次,本發明舉述實施例詳為說明,不過本發明並不 侷限於該等實施例。 ▲亞爾巴尼亞產乾燥鼠尾草.之葉⑽g)細切後添加亂 甲醇於70°C萃取30分鐘。過濾後,殘渣再添加甲醇,再 12 200401645 萃取3小時後’彙集2次萃取所得之濾液,減壓濃縮,乾燥 獲得甲醇萃取物,其產率為30..4%。 將所得甲醇萃取物的一部分(9ig)分散於水丨·^中以乙 酸乙酯(1.8L)實施3次分配操作。所得乙酸乙酯分餾物予以 5 減壓濃縮、乾燥而獲得乙酸乙S旨分傭物(48.4g、彦率: 15.8%)。 其次,在被分離的水層添加正丁醇(L8L),實施獲得乙 酸乙酯層時相同之操作,獲得正丁醇分餾物(l〇.3g、產率: 3.4%)。殘存的水層實施減壓濃縮、冷凍乾燥操作,獲得水 10 分餾物(33.4g、產率:1丨·〇%)。 第2實列鼠尾草甲醇萃取物及各種溶劑分餾物之胰腺脂 酶抑制試驗 脂酶抑制試驗以使用來自猪胰臟脂酶(Sigma公司)及 脂酶套組(大日本製藥)實施。首先,在第1實施例獲得的鼠 15尾草甲醇萃取物及各種溶劑分餾物(以下總為稱萃取物),以 二甲亞礙各調製成為最終濃度的2〇倍濃度之稀釋系列。準 備對於各萃取物,在試驗管中添加有發色液(390//L)、前 述稀釋系列(各25 a L)、以套組所附之稀釋液調製成40 # g/mL之脂酶液(25 // L)與酯酶抑制劑(10/z L)者,並將此分別 20於30°C下反應3〇分鐘。在添加反應停止液(lmL)後,測定405 nm之吸光度,根據下式算出酵素抑制率。 【數1】 抑制率(%) = ι- sample ^'^'sample blank ) — χ 1 〇〇 200401645 上式中分別表^〇.D.samPle為各種濃度的萃取物而經酵 素處理後的吸光度;O.D.sample blank為各種濃度的萃取物而未 添加酵素時的吸光度;O.D.eontrol為未添加萃取物而經酵素 處理時的吸光度;〇.D._trc>l blank為未添加萃取物及酵素時的 5 吸光度。 萃取物的5〇%胰腺脂酶活性抑制濃度(IG5G)以在圖表橫 軸作為前述萃取物濃度’標繪縱軸求得抑制率。實驗結果 如第1圖所示。 根據第1圖的結果’可知鼠尾草甲醇萃取物具有脂酶抑 10制活性(IG5〇: 94//g/mL)。另,在鼠尾草曱醇萃取物之脂啤 抑制活性的有效成分’推定為以含在由其分離的乙酸乙喂 分餾物(IG5G ·· 64/zg/tnL)者為主。 第3 f施例鼠嚴簟曱醇萃取_物主佥離後 在第2實施例對於顯示有脂酶抑制活性彙集的乙酸乙 15 酯分餾物,實施有效成分的分離精製。 前述乙酸乙酯分餾物(2〇.lg)根據矽膠管柱層析法 (600g)實施,依已烧:乙酸乙酯:】)4(3 : 1)-·>(1 : 1)〜 氣仿:甲醇(10: 1)—甲醇的順序溶出,獲得分餾物1(4.22g)、 分餾物2(4.25g)、分餾物3(3.3g)及分餾物4(7.86g)。關於此 20 等分饀物’以第2實施例的方法’測定在1〇〇 # g/mL之胰腺 脂酶抑制率,則分別為43·4,96·0,92.6及67.7%。 胰腺脂酶抑制率高的分餾物2及3,分別依反相〇D管杈 層析法[220g,水:曱醇(4 : 6)—(3 : : 8)->(1 : 9)〜 氯仿:甲醇:水(6 : 4 : U]及分取HPLC[〇DS,溶劑75%甲 14 200401645 醇]的順序實施精製。 被分離的成分,經以巾及13C NMR分析法,質量分光 法’紅外線分光光度法及紫外線一可見分光光度法確認為 是鼠尾草醇(Carnosol)(下列式中⑴所表示者,從植物體的 5產率:0·24°/〇),鼠尾草酸(下列式中(2)所表示者,從植物體 的產率:0.29%),7 —甲氧基迷迭香醇(7 — methoxy rosemarnol)(下列式中(3)所表示者,從植物體的產率: 〇·〇8]%),R〇yleanonic酸(下列式中(4)所表示者,從植物體 的產率:0.011%),迷迭香醇(Rosemarnol)(下列式中(5)所表 10 示者,從植物體的產率:0.006%),異逑迭香醇 (Isorosemarnol)(下列式中(6)所表示者,從植物體的產率: 0·〇27<3/〇)及齊墩果醇酸(〇lenn〇lic acid)(下列式中⑺所表示 者,從植物體的產率:0.47%)。 [化3]10 If sage is, for example, sage, it will be described in detail in the first and third embodiments described later that methanol extract can be prepared from sage and separated by silica gel chromatography. The obtained ethyl acetate fractions were prepared by separating and purifying hplc by ODS column chromatography. (Fat Absorption Inhibitor) 15 The present invention is an extract of sage or rosemary which has a function of inhibiting pancreatic lipase and exhibits fat absorption inhibiting effect, especially a fat absorption inhibitor with an extract containing sage acid And are enteric-coated capsules, granules, or lozenges (also including sustained-acting tablets (Repetab)). In addition to using the aforementioned extract 20 in the contents of the capsules, the traditional method of making soft capsules can also be used to make the capsules. Such a manufacturing method may be a method of manufacturing a capsule preparation using a capsule film sheet and sealing the contents with a rotary filler, or a method of manufacturing a seamless capsule by a dripping method. In addition, the granules are suitable for various conventional wet and dry granulation methods, and can be molded together with appropriate binders and excipients. Lozenges are granules containing 5 sage extracts prepared as described above, or the sage extract itself, with appropriate binders, excipients, decomposing agents, and lubricants as required. , Using the traditional method of ingot manufacturing. In order to make the fat absorption inhibitor of the present invention enteric, the surface of the fat absorption inhibitor is coated with an enteric coating agent. Alternatively, when the fat absorption inhibitor is a capsule or a tablet, an enteric agent may be added to the composition of the lipid absorption inhibitor, or an enteric agent may be used in a film material such as gelatin or starch. The capsule was filled with a fat absorption inhibitor composition. Examples of the enteric coating agent include methacrylic acid copolymer, hydroxypropyl methyl 15 cellulose phthalate, hydroxypropyl methyl cellulose acetate succinate, carboxymethyl cellulose, and cellulose acetate phthalate Such as cellulose, shellac and so on. But it is not limited to these. Such an insoluble coating agent can be coated on the surface of a fat absorption inhibitor according to a conventional method. On the other hand, examples of the aforementioned enteric agents include gums, alginic acid, cellulose 20 (e.g., carboxymethyl cellulose, cellulose acetate phthalate, etc.), methacrylic acid copolymers, and the like. The intake of the fat absorption inhibitor of the present invention is preferably taken before or during a meal. For the extract contained in the fat absorption inhibitor of the present invention, for example, when using water and / or solvent extracts of sage or rosemary, it is usually 10 times to 500 mg for adults once, and 20 to 200. mg ,! Take 3 times a day with meals. The extract in the present invention may be separated and purified by using the aforementioned water and / or solvent extract. The intake amount at this time is usually 丨 ~ 100rng for adults, and it is better to take 5 ~ 20mg, 3 times a day with meals. 5 Of course, the aforementioned intake should be appropriately increased or decreased depending on age or intake of fat components. The amount of the fat absorption inhibitor of the present invention may be used in an amount of about 1/20 to 1/40 when compared with the conventional natural shellfish such as chitin and chitin. (Foods containing enteric fat absorption inhibitors) 10. The enteric fat absorption inhibitors of the present invention can be added to ordinary foods in daily life, and particularly mixed with foods containing fat components such as processed meat or oils Medium is better. Therefore, the present invention also provides such a food containing an intestinal < gluten fat absorption inhibitor. Since the food of the present invention can be ingested daily, its effect of suppressing fat absorption is 15%, so it can be used as a useful health food. In such food and drink, the amount of the aforementioned extracts may be added within a range that does not impair the original taste of the food, depending on the type of target food. For general foods, it may be added in a range of 0.1 to 10% by weight. . [Embodiment] 20 Next, the present invention is described by way of examples, but the present invention is not limited to these embodiments. ▲ Dried sage from Albania. The leaf ⑽g) After fine cutting, add random methanol and extract at 70 ° C for 30 minutes. After filtration, the residue was further added with methanol, and then extracted after 200401645 for 3 hours. The filtrate obtained from the two extractions was collected, concentrated under reduced pressure, and dried to obtain a methanol extract with a yield of 30..4%. A part (9 ig) of the obtained methanol extract was dispersed in water, and ethyl acetate (1.8 L) was used for 3 partition operations. The obtained ethyl acetate fraction was concentrated under reduced pressure, and dried to obtain ethyl acetate (48.4 g, yield: 15.8%). Next, n-butanol (L8L) was added to the separated aqueous layer, and the same operation as in the case of obtaining the ethyl acetate layer was carried out to obtain a n-butanol fraction (10.3 g, yield: 3.4%). The remaining aqueous layer was concentrated under reduced pressure and freeze-dried to obtain a water 10 fraction (33.4 g, yield: 1 ·· 0%). Pancreas lipase inhibition test of sage sage methanol extract and various solvent fractions The lipase inhibition test was performed using porcine pancreatic lipase (Sigma) and a lipase kit (Dai Nihon Pharmaceutical). First, the rat 15 sage grass methanol extract and various solvent fractions (hereinafter collectively referred to as extracts) obtained in the first example were prepared by diluting each of them into a dilution series of 20 times the final concentration. For each extract, add a coloring solution (390 // L), the aforementioned dilution series (25 a L each) to the test tube, and prepare 40 # g / mL of lipase with the dilution solution attached to the kit. (25 // L) and esterase inhibitor (10 / z L), and the reaction was performed at 30 ° C for 30 minutes. After the reaction stop solution (1 mL) was added, the absorbance at 405 nm was measured, and the enzyme inhibition rate was calculated according to the following formula. [Number 1] Inhibition rate (%) = ι- sample ^ '^' sample blank) — χ 1 〇200200401645 In the above formula, ^ 〇.D. SamPle is the absorbance of various concentrations of extracts after enzyme treatment. ODsample blank is the absorbance of extracts with various concentrations without enzymes; ODeontrol is the absorbance of extracts without enzymes and treated with enzymes; 〇.D._trc > l blank is the absorbance without extracts and enzymes 5 Absorbance. The 50% pancreatic lipase activity inhibitory concentration (IG5G) of the extract was plotted on the horizontal axis of the graph as the extract concentration 'and plotted on the vertical axis to determine the inhibitory rate. The experimental results are shown in Figure 1. Based on the results of Fig. 1, it was found that the sage methanol extract had a lipase inhibitory activity (IG50: 94 // g / mL). In addition, it is estimated that the active ingredient of the fat beer inhibitory activity of the sage alcohol extract is mainly contained in the ethyl acetate fraction (IG5G ·· 64 / zg / tnL) separated from it. Example 3f: After the rat is extracted with alcohol, the main ingredient is separated. In the second example, the ethyl acetate 15 fractions showing lipase inhibitory activity were separated and purified. The aforementioned ethyl acetate fraction (20.lg) was carried out according to a silica gel column chromatography (600 g), and was burned: ethyl acetate:]) 4 (3: 1)-· > (1: 1) ~ Gas simulation: methanol (10: 1) -methanol was eluted in order to obtain fraction 1 (4.22 g), fraction 2 (4.25 g), fraction 3 (3.3 g) and fraction 4 (7.86 g). Regarding these 20 aliquots, the pancreatic lipase inhibitory rate measured at 100 # g / mL by the method of the second example was 43.4, 96.0, 92.6, and 67.7%, respectively. Fractions 2 and 3 with high pancreatic lipase inhibitory rate were respectively subjected to reversed-phase OD tube chromatography [220g, water: methanol (4: 6) — (3 :: 8)-> (1: 9 ) ~ Chloroform: methanol: water (6: 4: U] and purification in the order of HPLC [〇DS, solvent 75% methyl 14 200401645 alcohol]. The separated components were analyzed by towel and 13C NMR analysis, quality Spectral method 'Infrared spectrophotometry and ultraviolet-visible spectrophotometry were confirmed to be Carnosol (represented by ⑴ in the following formula, 5 yield from plants: 0 · 24 ° / 〇), rat Oxalic acid (the one represented by the following formula (2), the yield from the plant body: 0.29%), 7-methoxy rosemarnol (7-methoxy rosemarnol) (the one represented by the following formula (3), from Yield of the plant body: 0.08%), Royleanonic acid (represented by the following formula (4), yield from the plant body: 0.011%), rosemaryol (Rosemarnol) (in the following formula (5) Table 10 shows the yield from the plant body: 0.006%), and isorosemarnol (Isorosemarnol) (the one represented by the following formula (6), the yield from the plant body: 0.027 < 3 / 〇) and oleanolic acid (〇len n〇lic acid) (represented by ⑺ in the following formula, yield from plants: 0.47%).
第4實座盤草甲醇萃取物之务今雛成分之脂酶抑 第3實施例獲得的各分離成分,以第2實施例的方法檢 纣其脂酶抑制活性,結果如第2圖所示。 15 200401645 如第2圖所示,雙格的鼠尾卓醇(1)顯示最強的脂酶抑制 活性(IG5〇 : 4// g/inL);鼠尾草酸(2),7—曱氧基迷迭香醇 (3),R0yleanonic酸(4)亦認定各有抑制活性(IG% : 14,33 及50 // g/mL)。另,亦可知三萜的齊墩果醇酸⑺亦有微弱的 脂誨抑制活性。 再者,迷迭香醇(5),異迷迭香醇(6)可能是由於氧化而 過度分解,無法測定脂酶抑制活性。 差-g實施例鼠嚴草甲醯苯取物及―各分離成分之脂醢叨和抑The fourth step is to extract the lipase of the young components of the celestial medicinal extract and inhibit the separated components obtained in the third example. The lipase inhibitory activity was checked by the method of the second example. The results are shown in FIG. 2 . 15 200401645 As shown in Figure 2, the double-cell sapanol (1) shows the strongest lipase inhibitory activity (IG50: 4 // g / inL); sagebate (2), 7-methoxy Rosemary alcohol (3) and Royleanonic acid (4) are also believed to have inhibitory activities (IG%: 14, 33 and 50 // g / mL). In addition, it is also known that the oleanolate of triterpene also has a weak inhibitory effect on lipids. Furthermore, rosemary alcohol (5) and iso rosemyl alcohol (6) may be excessively decomposed due to oxidation, and lipase inhibitory activity cannot be measured. Poor-g Example Extracts of Stylosanthes serrata and ―Epilipids and Inhibition of Each Isolated Component
第1實施例所得的鼠尾草甲醇萃取物與第3實施例所得 的成分(此處係關於鼠尾草醇(1),鼠尾草酸(2),7—甲氡基 迷迭香醇(3)及齊墩果醇酸(7)四種)之脂肪吸收抑制作用,各 分別經口投與於撖欖油負荷小鼠或十二指腸投與,測定血 中三酸甘油酯濃度之變化並予以評價。 15 20 (經口投與)甲醇萃取物或各分離成分,與5%阿拉伯膠 懸年於水調製成懸浮液。對於絕食2〇〜24小時的仙Y系雄性 小鼠,以約lkg體重對水懸浮液Sml的比例經口投與。如分 鐘後’以mkg體重對撖欖油5nd的比例經口投與,蚪·: 從眼窩靜脈採A並測定血中三酸甘油酯濃度。The sage methanol extract obtained in the first example and the ingredients obtained in the third example (herein, it is about sage alcohol (1), sage acid (2), 7-formamyl rosemary alcohol (3 ) And oleanolic acid (7) four kinds of fat absorption inhibitory effects, each administered orally to olive oil-loaded mice or duodenum, respectively, to measure and evaluate changes in triglyceride concentration in blood . 15 20 (orally administered) methanol extract or separate components, and 5% acacia gum suspended in water to prepare a suspension. A male Y-series immortal mouse on a fasting period of 20 to 24 hours was orally administered at a ratio of about 1 kg of body weight to Sml of the aqueous suspension. For example, after 5 minutes, the ratio of mkg body weight to olive oil 5nd is administered orally. 蚪: A is collected from the eye socket vein and the triglyceride concentration in the blood is measured.
白汁一才日腸投與)使用有別與前述經口投與實驗系之小 =為查十一指腸内直接投與時之脂肪吸收抑制作用。小 :在乙鱗麻醉下開腹,以約lkg體重對前 比例,直接投與於十二指腸内。切開部縫合後,在夜十咖 腸内投與30刀4里後’以約lkg體章對撖欖油㈣的比例 二指 經口The use of white juice for the day before bowel administration) is different from the aforementioned oral administration experiment = to check the inhibition of fat absorption when directly administered in the duodenum. Small: Open abdomen under B-scale anesthesia and directly administer to the duodenum at a weight ratio of about 1 kg to the front. After the incision is sutured, 30 knives and 4 miles are injected into the intestine of the night ten coffee.
k 16 200401645 投與。測定2小時後之血中三酸甘油酯濃度。 關於鼠尾草曱醇萃取物(投與量:250或500rag/kg),實 施經口投與及十二指腸内投與實驗系的結果,彙總如第1 表,而第3實施例所得的4種成分(此處係關於鼠尾草醇(1), 5 鼠尾草酸(2),7—甲氧基迷迭香醇(3)及齊墩果醇酸(7)四種) 之各種結果,分別表示如第2及第3表。k 16 200401645 Administration. The triglyceride concentration in blood was measured after 2 hours. Regarding the sage alcohol extract (administration amount: 250 or 500 rag / kg), the results of the experimental system of oral administration and intraduodenal administration were summarized as shown in Table 1 and 4 kinds obtained in Example 3 Ingredients (here are four results about sage alcohol (1), 5 sage acid (2), 7-methoxy rosemary alcohol (3) and oleanolic acid (7)), respectively This is shown in Tables 2 and 3.
17 200401645 【第1表】 第1〜3表投與鼠尾草的甲醇萃取液及各分離成分,對於橄欖油 負荷小鼠之奂中三酸甘油酯上昇抑制效果 血中三酸甘油醋(mg/dL) 經口投與時 十二指腸内投與 未處置群 150±17** 117123 橄欖油投與群 409±75 204±25 鼠尾草 甲醇萃取物(250mg/kg) +橄欖油投與群 383±25 134土15 鼠尾草甲醇萃取物(500mg/kg) +橄欖油投與群 395士35 118±15 【第2表】 血中三酸甘油酯(mg/dL) 經口投與時十二指腸内投與 未處置群 181土18** 128±17 橄欖油投與群 587±43 193土25 鼠尾草醇(l〇〇mg/kg) +橄欖油投與群 473±58 169±23 鼠尾草醇(200mg/kg) +橄欖油投與群 514±36 175±23 鼠尾草酸(50mg/kg) +橄欖油投與群 292±41 143±14 鼠尾草酸(l〇〇mg/kg) +橄欖油投與群 265±30** 97±21** 鼠尾草酸(200mg/kg) +橄欖油投與群 234±25** 20±3**17 200401645 [Table 1] In Tables 1 to 3, the methanol extract of sage and the separated components are administered to suppress the rise of triglyceride in the blood of olive oil-loaded mice, and triglyceride in blood (mg / dL) Intraduodenal administration of untreated group 150 ± 17 ** 117123 Olive oil administration group 409 ± 75 204 ± 25 Sage methanol extract (250mg / kg) + Olive oil administration group 383 ± 25 134 soil 15 sage methanol extract (500mg / kg) + olive oil administration group 395 persons 35 118 ± 15 [Table 2] triglyceride in blood (mg / dL) duodenum when administered orally Untreated group 181 soil 18 ** 128 ± 17 olive oil administration group 587 ± 43 193 soil 25 sage alcohol (100 mg / kg) + olive oil administration group 473 ± 58 169 ± 23 rats Salicol (200mg / kg) + olive oil administration group 514 ± 36 175 ± 23 sage acid (50mg / kg) + olive oil administration group 292 ± 41 143 ± 14 salicylic acid (100mg / kg ) + Olive oil administration group 265 ± 30 ** 97 ± 21 ** Salicylic acid (200mg / kg) + Olive oil administration group 234 ± 25 ** 20 ± 3 **
18 200401645 【第3表】 血中三酸甘油酯(mg/dL) -__ 經口投與時十二指腸内投輿 1 處置群 1844±28 131±Π 撖欖油投與群 488+77 177117 7-甲氧基迷迭香醇(200mg/kg) +橄欖油投與群 438±51 245±38 齊墩果醇酸(2〇〇mg/kg) +橄欖油投與群 528+76 178±27 各值以7隻的平均值及標準誤差表示。**為與撖欖油投 與群之偏差值:以P<〇.表示。 5 從第1表的結果’知道經口投與鼠尾草曱醇萃取物時, 血中三酸甘油醋上昇抑制作用雖完全無法認定,不過可顯 現如中三酸甘油醋上昇抑制作用。即表示鼠尾草甲醇萃取 物在胃内其胰腺脂酶活性消失。 從第2表的結果,知道第4實施例顯示最強贼腺脂崎抑 10制活性的鼠尾草醇⑴,經口投與及十二指腸内投與兩者均 未顯現三酸甘油醋上昇抑制作用(即脂肪吸收抑制作用),以 及鼠尾草酸(2),在經口投與時顯示依用量而有三酸甘油酷 上并抑制作用’然而該項作用於十二指腸内投與時顯示^ 為增強。因此從第3表可知7—甲氧基迷迭香醇⑺或齊缴果 15 g_(7),經°投與及十二指腸内投與兩者均未顯現三酸甘 油酯上昇抑制作用。 從以上結果,可知第2實施例所確認的鼠尾草甲醇萃取 物的脂酶抑制作用’與氣尾草酸⑺的脂肪吸收抑制作用有 很大的關係,該作用是在胃内被不活性化。 19 200401645 夜分泌抑制藥的撖欖油g苻小 尾至酶引^^中三酸甘油酯上昇抑制作用 從第5實施例的結果’有關對於脂酶抑制作用有效的分 離成分之鼠尾草酸(第3實施例之式中,(2)所表示者;以下 5簡化為(2))之脂肪吸收抑制作用在胃内被不活性化事 ,對於 · 胃液影響脂肪吸收抑制作用,再詳細調查,其步驟如下。 (l) 對於絕食24小時的ddY系雄性小鼠,將5%阿拉伯膠 月液刀,必抑制劑•希美得定(Cimeudine)(】5〇mg/kg)懸浮 於水所成之水懸浮液,以約1 k g體重對5 m丨的比例經口投與。 二(U)30分鐘後,將5%阿拉伯膠與鼠尾草酸((2),100mg/kg) l浮於水所成之水懸浮液,以約】kg體重對5^丨的比例經口 投與。 (m) 再30分鐘後,以lkg體重對撖欖油5ml的比例經口投 與。 (lv)自(m)後2小時,從眼窩靜脈採血而測定血中三酸甘 油酉曰。其結果示如第3圖。 第3圖中分別顯示: 0 吕柱(ColUmn)i為未處置群「·僅實施方法的系統」, 官柱2為撖欖油投與群r即僅實施方法(出)〜(w)的系 20 統」, • &柱3為鼠尾草酸(2)、l〇〇mg/kg」+橄欖油投與群「方 法(1)以外,即⑼〜㈣的系統」, ···讀4為希美得定+攝欖油投與群(方法⑼以外,(〇及 (111)所實施的系統),以及 20 200401645 管柱5為希美得定+鼠尾草酸「(2)、100mg/kg」+橄 欖油投與群「⑴〜(iv)全部方法」。各管柱以小鼠7隻的平均 值與標準誤差表示。 第3圖中,分別以**表示與橄欖油授與群(管柱2)的偏差 5 值:ρ<0·05 ;而**表示偏差值:p<0.01。 先以希美得定抑制胃液分泌後,投與鼠尾草酸(2)之小 鼠(管柱5)之血中三酸甘油酯濃度,低於未添加胃液分泌抑 制劑,而僅單獨投與鼠尾草酸(2)之小鼠(管柱3)。由此可了 解具有脂肪吸收抑制作用的鼠尾草酸(2),其活性受胃液作 10 用而消失。 為確認起見,第1實施例所得的鼠尾草甲醇萃取液進行 同樣的評價。結果示如第4圖。 第4圖中分別顯示: 管柱1為未處置群「僅實施方法(iv)的系統」, 15 管柱2為橄欖油投與群「即僅實施方法(iii)〜(iv)的系 統」, 管柱3為鼠尾草甲醇萃取液(500mg/kg) +橄欖油投與 群「方法(i)以外,即(ii)〜(iv)的系統」, 管柱4為希美得定+橄欖油投與群(方法(ii)以外,⑴及 20 (iii)所實施的系統),以及 管柱5為希美得定+鼠尾草甲醇萃取液(500mg/kg) + 橄欖油投與群「⑴〜(iv)全部方法」。各管柱以小鼠7隻的平 均值與標準誤差表示。 另,第4圖中,**表示與撖欖油投與群(管柱2)的偏差 21 200401645 值· p < 0·〇 1 〇 由第4圖的管柱3與5的比較可知,含有鼠尾草酸(2)的小 鼠尾草萃取物,由於希美得定預先抑制胃液分泌,脂肪吸 收抑制作用增強。 5 第7實_施例鼠尾簞超臨界二氣化碳萃取物立製作 將鼠尾草的乾燥葉置於萃取槽,在壓力25MPa、供給 100°C的臨界二氧化碳,萃取60分鐘。然後,殘渣在壓力 47.5MPa、i〇〇°C條件下,萃取60分鐘,獲得鼠尾草超臨界 二氧化碳萃取物(7g)。 10 第8實座例鼠尾箪超臨界二氣化破箪敗物之脂肪吸收抑 作用 弟7實施例所得之鼠尾草臨界二氧化碳萃取物的脂肪 吸收抑制作用,根據第5實施例同樣的手法調查。结果如第 4表所示。 15 【第4表】 第4表鼠尾草超臨界二氧化碳萃取物投與於橄欖油|荷小鼠 引起血中三酸甘油_上昇抑制作闬 血中三酸甘油酯(mg/dL) 經口投與時十二指腸内投與 未處置群 144.5土88 131.2±10.9 橄欖油投與群 619.8 土 74.1 176.9±17.2 鼠尾單超臨界二氧化碳 — 萃取物(50mg/kg) +橄欖油投與群 403.8±73.4** 140.9±20.1 鼠尾軍超臨界二乳化碳 ' 素萃取物(100mg/kg) +橄欖油投與群 230.2±38.0** 125.5 土 10.4 各值是以7隻的平均值與標準誤差表示。**表示與橄欖 22 200401645 油投與群之偏差值:p< 0.01。 從此種結果,知道鼠尾草超臨界二氧化碳萃取物,具 有非常強的脂肪吸收抑制劇作闬。 第1製劑例(含有鼠尾草曱醇萃取物之腸溶性膠囊製劑的 5 製造) 以下列第5表所示的組成及重量比,根據下列的步驟製 造含有鼠尾草曱醇萃取物(粉末)之腸溶性膠囊製劑。鼠尾草 甲醇萃取物(粉末),係第1實施例所得的乾燥固形物,以磨 碎器或攪拌器粉碎者。 10 【第5表】 膠嚢部位 組成 對膠囊全體之配合重量比(%) 膠囊内容物 鼠尾草甲醇萃取物 32% 粉末硬化油脂 8% 膠囊皮内膜 硬化油脂 20% 明勝 28% 膠囊外皮膜 甘油 8% 果膠 4% 合計 !00?/〇 首先,在40t:條件下,將鼠尾草曱醇萃取物懸浮於硬 化油脂(棕櫚硬化油脂)中,調製成膠囊内容物。另,將明膠, 甘油,及果膠混合而調製成膠囊外皮膜液。然後,在膠囊 15 製造機中,從同心三重喷嘴的最内側喷嘴將膠囊内容物, 從中間噴嘴將膠囊内皮膜形成物質之硬化油脂,而從最外 側喷嘴將膠囊外皮膜液,分別同時吐出於流下就被冷却之 液狀油中,連續製造三重構造之無縫膠囊。所得的無縫膠 囊的粒徑可自由調整為1mm〜8mm。 23 200401645 所得的無縫膠囊之可否具腸溶性係根據日本藥局方記 載的崩潰試驗法來試驗,結果,前述無縫膠囊在第1液 (pH1.2)中2小時以内未崩潰,其次在第2液(pH6.8)中60分鐘 以内未崩潰,因此可確認其具有腸溶性。 5 第2製劑例(含有迷迭香曱醇萃取物之腸溶性膠囊製劑的 製造) 除了以迷迭香取代鼠尾草使用外,係依據第1實施例的 步驟調製迷迭香甲醇萃取物,所得的甲醇萃取物之乾燥固 形物,以磨碎器或攪拌器粉碎,以此取代上述第5表中的鼠 10 尾草曱醇萃取物粉末並同量使用,根據第1製造例相同的步 驟,製造含有迷迭香甲醇萃取物(粉末)之腸溶性膠囊製劑。 所得膠囊如同第1製劑例,根褲日本藥局方的崩潰試驗 試驗,確認其具有腸溶性。 發明的效果 15 根據本發明對於含有來自植物(鼠尾草及逑迭香)萃取 物的製劑,由於適用於腸溶化技術,故少量攝取就可顯現 有效的胰腺脂酶抑制活性。 本發明的腸溶性脂肪吸收抑制劑,由於在飯前或飯間 服用,使被攝取的脂肪不易受到胰腺脂酶之酵素加水分解 20 作用,結果腸管吸收的脂肪量得以減少。因此,雖攝食脂 肪成分多的食物,亦可抑制脂肪成分被吸收至體内,對於 肥胖、動脈硬化、心肌梗塞、腦梗塞、糖尿病等生活習慣 病等預防或治療是有用的。 【圖式簡單說明】 24 200401645 【第1圖】係顯示在本發明第2實施例中進行之試驗, 有關鼠尾草曱醇萃取物的50%胰腺脂酶活性抑制濃度(IC50) 之圖。 【第2圖】係顯示在本發明第4實施例中進行之試驗, 5 有關從鼠尾草甲醇萃取物之各分離成分的胰腺脂酶活性抑 制作用之圖。 【第3圖】係顯示在本發明第6實施例中進行之試驗, 對於先投與胃液分泌抑制劑之橄欖油負荷小鼠,投與鼠尾 草酸(2)引起血中三酸甘油S旨上昇抑制作用之圖。 10 【第4圖】係顯示在本發明第6實施例中進行之試驗, 對於先投與胃液分泌抑制劑之橄欖油負荷小鼠,投與第1實 施例所得之鼠尾草曱醇萃取物引起的血中三酸甘油酯上昇 抑制作用之圖。18 200401645 [Table 3] Triglycerides in blood (mg / dL) -__ Intraduodenal administration when administered orally 1 Disposal group 1844 ± 28 131 ± Π Syringa oil administration group 488 + 77 177117 7- Methoxy rosemary alcohol (200mg / kg) + olive oil administration group 438 ± 51 245 ± 38 oleanolic acid (200mg / kg) + olive oil administration group 528 + 76 178 ± 27 each value Expressed as the average and standard error of 7 animals. ** is the deviation value from the oil and oil group: expressed as P < 〇. 5 From the results in Table 1, it is known that, when oral administration of sage alcohol extract, the blood triglyceride vinegar rise inhibitory effect cannot be determined at all, but it appears as a medium triglyceride vinegar rise inhibitory effect. This means that the sage methanol extract has lost its pancreatic lipase activity in the stomach. From the results in Table 2, it was found that the fourth example showed the strongest sage alcohol, the sage alcohol, which was the most potent thief, and neither the oral administration nor the duodenal administration showed the inhibitory effect of triglyceride vinegar. (I.e., fat absorption inhibition), and salicylic acid (2), when administered orally, showed a triglyceride effect and inhibitory effect depending on the amount used '; however, this effect appeared to be enhanced when administered duodenal ^. Therefore, from Table 3, it can be seen that 7-methoxy rosemary alcohol or 15 g_ (7), no effect of inhibition of triglyceride rise was observed when administered by ° and intraduodenal administration. From the above results, it can be seen that the lipase inhibitory action 'of the sage methanol extract confirmed in the second example is strongly related to the fat absorption inhibitory action of sage oxalate, which is inactivated in the stomach. . 19 200401645 Nocturnal secretion inhibitor of olive oil g 苻 small tail to enzymes ^^ triglyceride rise inhibition effect from the results of the fifth example 'relating to the lipase inhibition effect of the lipase-inhibitory component In the formulas of the three embodiments, those represented by (2); the following 5 is simplified to (2)) The fat absorption inhibition effect is inactivated in the stomach, and the effect of gastric juice on the fat absorption inhibition effect is investigated in detail. Proceed as follows. (l) For male mice of ddY series who were on a fast for 24 hours, 5% acacia gum liquid knife and the inhibitor Cimeudine (50 mg / kg) were suspended in water. , Administered orally at a ratio of about 1 kg of body weight to 5 m. After two (U) 30 minutes, an aqueous suspension of 5% acacia gum and sage oxalic acid ((2), 100 mg / kg) l floating in water was orally administered at a ratio of approximately kg body weight to 5 ^ 丨Vote for. (m) After another 30 minutes, oral administration was performed at a ratio of 1 kg of body weight to 5 ml of olive oil. (lv) Two hours after (m), blood was collected from the orbital vein to measure blood triglyceride. The results are shown in Fig. 3. Figure 3 shows: 0 Lu Zhu (ColUmn) i is the unprocessed group "· system that only implements the method", and Guan Zhu 2 is the group that does not perform the method (out) ~ (w). "20 systems", & column 3 is sage oxalic acid (2), 100 mg / kg "+ olive oil administration group" other than method (1), that is, the system of ㈣ ~ ㈣ ", read 4 is cimetidine + photo-oil oil administration group (other than method ,, (0 and (111) implemented system), and 20 200401645 column 5 is cimetidine + sage acid "(2), 100mg / kg "+ olive oil administration group" ⑴ ~ (iv) all methods ". Each column is represented by the average value and standard error of 7 mice. In the third figure, ** and the olive oil administration group (Column 2) Deviation 5 value: ρ <0.05; and ** indicates the deviation value: p < 0.01. After the gastric secretion was inhibited with cimetidine, mice that were administered sagenic acid (2) (tube The concentration of triglyceride in the blood of column 5) is lower than that of mice without the addition of gastric secretion inhibitor, and only salicylic acid (2) was administered (column 3). This shows that it has a fat absorption inhibitory effect Salicylic acid (2), its activity The stomach fluid was used as 10 and disappeared. For the sake of confirmation, the sage methanol extract obtained in the first example was subjected to the same evaluation. The results are shown in Fig. 4. Fig. 4 shows that the column 1 is untreated. Group "System implementing method (iv) only", 15 column 2 is olive oil administration group "that is, system implementing method (iii) to (iv) only", column 3 is sage methanol extract (500mg / kg) + olive oil administration group "other than method (i), that is, the system of (ii) ~ (iv)", column 4 is cimetidine + olive oil administration group (other than method (ii), and 20 (iii) the system implemented), and column 5 is ximedidine + sage methanol extract (500mg / kg) + olive oil administration group "⑴ ~ (iv) all methods". Each column is based on The mean value and standard error of 7 mice are shown. In addition, in Fig. 4, ** indicates the deviation from the olive oil administration group (column 2). 21 200401645 Value · p < 0 · 〇1 〇 Comparison of columns 3 and 5 in Fig. 4 shows that sage extract of sage containing mouse salicylic acid (2) has an enhanced fat absorption inhibition effect because of the inhibition of gastric juice secretion in advance by cimetidine. 5 第 7 实 _ Example: Making a sagebrush supercritical two-gasified carbon extract. The dried leaves of sage are placed in an extraction tank, and the critical carbon dioxide at 100 ° C is supplied at a pressure of 25 MPa for 60 minutes. Then, the residue is at a pressure of 47.5 MPa At 60 ° C, extraction was performed for 60 minutes to obtain a sage supercritical carbon dioxide extract (7g). 10 The 8th example of the fat absorption inhibition effect of the sage supercritical two-gas decomposer Inhibition of fat absorption by the critical carbon dioxide extract of sage obtained in Example 7 was investigated in the same manner as in Example 5. The results are shown in Table 4. 15 [Table 4] Table 4 Sage supercritical carbon dioxide extract is administered to olive oil | Mice bearing blood cause triglyceride in blood _ rise inhibition Triglyceride in blood (mg / dL) Orally When administered, the duodenum was administered untreated group 144.5 to 88 131.2 ± 10.9 olive oil administration group 619.8 to 74.1 176.9 ± 17.2 rat tail single supercritical carbon dioxide — extract (50mg / kg) + olive oil administration group 403.8 ± 73.4 ** 140.9 ± 20.1 rat tail supercritical di-emulsified carbon extract (100mg / kg) + olive oil administration group 230.2 ± 38.0 ** 125.5 soil 10.4 Each value is the average and standard error of 7 animals. ** Indicates the deviation from the olive 22 200401645 oil injection group: p < 0.01. From this result, it is known that the sage supercritical carbon dioxide extract has a very strong fat absorption inhibition drama. First formulation example (manufactured by 5 of enteric capsule preparations containing sage extract) The sage extract containing alcohol (powder) was prepared with the composition and weight ratio shown in Table 5 below according to the following steps. ) 'S enteric capsule preparation. The sage methanol extract (powder) is a dry solid obtained in the first example and is pulverized by a grinder or agitator. 10 [Table 5] The weight ratio of capsule composition to the entire capsule (%) Capsule content Sage methanol extract 32% Powder hardened oil 8% Capsule inner film hardened oil 20% Mingsheng 28% Outside the capsule Film glycerin 8% pectin 4% Total! 00? / 〇 First, at 40 t: the sage alcohol extract was suspended in hardened fat (palm hardened fat) to prepare a capsule content. In addition, gelatin, glycerin, and pectin are mixed to prepare a capsule coating film. Then, in the capsule 15 manufacturing machine, the contents of the capsule are ejected from the innermost nozzle of the concentric triple nozzle, the hardened oil of the capsule endothelial membrane-forming substance is ejected from the middle nozzle, and the capsule outer membrane liquid is ejected from the outermost nozzle at the same time. The triple-structured seamless capsule is continuously produced in the liquid oil cooled down. The particle diameter of the obtained seamless capsule can be freely adjusted to 1 mm to 8 mm. 23 200401645 Whether the seamless capsule obtained was enteric was tested according to the collapse test method described by the Japan Pharmacy. As a result, the seamless capsule did not collapse within 2 hours in the first solution (pH 1.2), followed by Since the second liquid (pH 6.8) did not collapse within 60 minutes, it was confirmed that it was enteric. 5 Second Formulation Example (manufacturing of enteric capsule preparations containing rosemary alcohol extract) In addition to using rosemary instead of sage, the methanol extract of rosemary was prepared according to the procedure of the first embodiment. The obtained dried solid of the methanol extract was pulverized with a grinder or agitator to replace the rat 10 sage extract alcohol powder in Table 5 above and used the same amount, according to the same steps as in the first production example To produce an enteric capsule preparation containing rosemary methanol extract (powder). The obtained capsule was the same as in the first preparation example, and it was confirmed that the capsule had enteric solubility by a collapse test of the Japanese Pharmacy. Effect of the Invention 15 According to the present invention, the preparation containing a plant-derived (sage and rosemary) extract is suitable for enteric technology, and therefore effective pancreatic lipase inhibitory activity can be exhibited in a small amount. Since the enteric fat absorption inhibitor of the present invention is taken before meals or between meals, the ingested fat is less susceptible to hydrolysis by the enzymes of pancreatic lipase, and as a result, the amount of fat absorbed by the intestine can be reduced. Therefore, although foods rich in fat can be consumed, it can also inhibit the absorption of fat into the body, which is useful for prevention or treatment of lifestyle diseases such as obesity, arteriosclerosis, myocardial infarction, cerebral infarction, and diabetes. [Brief Description of the Drawings] 24 200401645 [Figure 1] is a graph showing the test performed in the second embodiment of the present invention, regarding the 50% pancreatic lipase activity inhibitory concentration (IC50) of sage alcohol extract. [Fig. 2] Fig. 5 is a diagram showing a test performed in the fourth embodiment of the present invention. [5] Fig. 5 is a diagram showing the inhibition of pancreatic lipase activity of each isolated component from the methanol extract of sage. [Figure 3] Shows the test carried out in the sixth embodiment of the present invention. For olive oil-loaded mice administered with gastric secretion inhibitors first, the administration of sarsolic acid (2) caused triglyceride in blood. Graph of rise suppression. 10 [Figure 4] Shows the test performed in the sixth embodiment of the present invention. For olive oil-loaded mice administered with gastric secretion inhibitor first, the sage alcohol extract obtained in the first embodiment was administered. Inhibition effect of triglyceride in blood caused by rise.
Claims (1)
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP2002110434 | 2002-04-12 | ||
| JP2002199815A JP3980952B2 (en) | 2002-04-12 | 2002-07-09 | Enteric fat absorption inhibitor containing plant extract and food containing the same |
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| TW200401645A true TW200401645A (en) | 2004-02-01 |
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| TW092108423A TW200401645A (en) | 2002-04-12 | 2003-04-11 | Enteric fat absorption inhibitors containing plant extract and foods containing the same |
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|---|---|
| JP (1) | JP3980952B2 (en) |
| AU (1) | AU2003236084A1 (en) |
| TW (1) | TW200401645A (en) |
| WO (1) | WO2003086436A1 (en) |
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| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JP2005053891A (en) * | 2003-07-18 | 2005-03-03 | Seresu Corporation:Kk | Lipase inhibitor |
| EP2201014A1 (en) * | 2007-10-22 | 2010-06-30 | DSM IP Assets B.V. | Process for producing carnosol from carnosic acid |
| IT1396920B1 (en) * | 2009-11-11 | 2012-12-20 | Velleja Res Srl | FORMULATIONS INCLUDING CARNOSIS ACID, OR EXTRACTIVE DERIVATIVES THAT CONTAIN IT, FOR THE TREATMENT AND PREVENTION OF HYPERTRIGLICERIDEMIA |
| CN105878366A (en) * | 2015-08-27 | 2016-08-24 | 中国药科大学 | Extract capable of reducing blood lipid, reducing blood glucose and protecting liver |
Family Cites Families (8)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| JPS58225026A (en) * | 1982-06-23 | 1983-12-27 | Mochida Pharmaceut Co Ltd | Preventive or remedy for diseases caused by amylase and/or lipase activity exasperation |
| JPS6490131A (en) * | 1987-09-30 | 1989-04-06 | Shiseido Co Ltd | Lipase inhibitor |
| DE69012566T2 (en) * | 1990-10-06 | 1995-02-02 | Nestle Sa | Process for the extraction of carnic acid. |
| JPH08143457A (en) * | 1994-11-21 | 1996-06-04 | Microbial Chem Res Found | Enzyme inhibitors and hyperlipidemia inhibitors |
| JP3768626B2 (en) * | 1996-12-02 | 2006-04-19 | 株式会社カネボウ化粧品 | Lipolysis promoter and slimming skin cosmetics |
| JP3549997B2 (en) * | 1997-03-26 | 2004-08-04 | 長瀬産業株式会社 | Food composition and pharmaceutical composition having lipase inhibitory effect |
| JP2002544220A (en) * | 1999-05-17 | 2002-12-24 | デー.ベー.エフ. | Granules containing plant material and method for producing the same |
| JP2002087975A (en) * | 2000-09-13 | 2002-03-27 | Pias Arise Kk | Nitric oxide production inhibitor and external preparation for skin, cosmetics and quasi-drug containing the nitric oxide production inhibitor |
-
2002
- 2002-07-09 JP JP2002199815A patent/JP3980952B2/en not_active Expired - Fee Related
-
2003
- 2003-04-11 WO PCT/JP2003/004595 patent/WO2003086436A1/en not_active Ceased
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- 2003-04-11 AU AU2003236084A patent/AU2003236084A1/en not_active Abandoned
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| AU2003236084A1 (en) | 2003-10-27 |
| WO2003086436A1 (en) | 2003-10-23 |
| JP3980952B2 (en) | 2007-09-26 |
| JP2004002254A (en) | 2004-01-08 |
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