TW200920387A - Composition of mushroom beta-glucan for anti-cancer and preparation method thereof - Google Patents

Composition of mushroom beta-glucan for anti-cancer and preparation method thereof Download PDF

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TW200920387A
TW200920387A TW96142958A TW96142958A TW200920387A TW 200920387 A TW200920387 A TW 200920387A TW 96142958 A TW96142958 A TW 96142958A TW 96142958 A TW96142958 A TW 96142958A TW 200920387 A TW200920387 A TW 200920387A
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mushroom
polysaccharide
group
composition
cells
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TW96142958A
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Chinese (zh)
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Shiu-Nan Chen
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Shiu-Nan Chen
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Abstract

The present invention provides a composition for anti-cancer comprising a vector and mushroom beta-glucan, wherein the mushroom is selected from Schizophyllum commue, Agarics blaze, Cordyceps sinensis, Ganoderma lucidum, Coriolus versicolor, Anthodia camphorate, Phellinus linteus, Pleurotus citrinopileatus, Lentinula edodes, Agrocybe aegerita, Hericium erinaceus, Pleurotus eryngiig, Sparrasis crispa, Auricularia auricula, Flammulina velutipes and the combination thereof.

Description

200920387 九、發明說明: 【發明所屬之技術領域】 本發明係關於具抗癌功效之菇蕈多醣體組成物及其 製備方法。 【先前技術】 . 近年來有許多研究發現菇蕈菌絲體或子實體中含有 相當多的生理活性成分,如多醣體(y3-Glucan)、超氧岐 .化酵素(Superoxide dismutase, SOD)、三帖類 r (Triterpenoids)等物質,具有免疫調節、抗氧化、抗腫 瘤等作用。而其中以多醣體為研究最深入且最具潛力之抗 腫瘤及免疫調節物質。 已知多醣體如万-葡聚糖,為一種良好的免疫促進 背J ,可有效刺激免疫細胞,不僅能增強生物體專一性免疫 =應,同時也提升了非專一性免疫反應。多醣體能使生物 脰抵抗細菌、真菌、病毒及寄生蟲的感染,以及抑制腫瘤 的生長。近年來菇蕈多醣體(mushr〇⑽乃_glucan)逐漸 受到重視,主要原因在於菇蕈多醣體的分支度、分子量、 水浴性以及結構穩定性都較酵母菌多醣體高出許多,具有 較高的免疫促進能力。 具有抗腫瘤功效的多醣體’其生理活性可依多醣體之 分子量大致區分為三類:(〇分子量在3, 〇〇〇〜5,⑽〇左右 者’具有降低血糖之功能’(B)分子量在1〇 〇〇〇1〇〇 〇〇〇 之間者’具消炎的作用,((:)分子量在3〇,〇〇〇以上者,則 具有抗腫瘤作用’且分子量愈大效用愈佳。 5 110484 200920387 :卩往兹蕈多it體大多萃取自子實體,但是子實體來源 有限;近來研究已知約有50减蕈類可於液態培養中產 生胞外多醣體,所以可取其培養液進行多醣體純化;相較 於子實體培養,液態培養較為迅速而簡單。 一然而,菇蕈類的成分複雜,如多醣、蛋白質、多肽類、 .—帖類、多種胺基酸、生物鹼、醋類和有機酸等,所以萃 取,蕈多醣體需經繁靖的步驟,如熱萃取、驗萃取、酸萃 取等方式,故易殘留有機溶劑、胺基酸與蛋白質,此等殘 Γ留物可能對人體產生刺激性免疫反應。 已知菇覃類4几腫瘤成_分大部分是多_體或是多釀體 與蛋白質的複合物,而其抗腫瘤效果與劑量、次數、時間 及給予途徑有關,但是含有蛋白質的多酶體會引起動物體 的免,,應,產生發燒、紅腫、腹水等不適的現象,因此 須將菇蕈巾的其他物質除去,僅萃取並純化高分子多醣 體,才能排除不利於人體的免疫反應。 —為解決上述問題,本發明提供了新穎的具抗癌效用之 菇蕈多醣體組成物及其製備方法。 【發明内容】 有4a於上述習知技蟄之缺失,本發明之主要目的係提 供一種具有抗癌效用的菇蕈多醣體組成物。 、&本發明之另一目的係提供菇蕈多醣體的萃取方法,將 液愁發酵的益蕈菌液,經由酒精萃取,再利用陶究膜與分 隹技衍’、·屯化,卒取出高分子多醣體,並除去蛋白質等物 貝,以解決容易引起過敏反應的情形。 110484 6 200920387 為達上述及其他目的,本發明提供具有抗癌效用之兹 蕈多醣體組成物,包含菇蕈多醣體及載體。該蕈菇多醣體 可選自所有食用菇蕈類與醫藥用菇簟類之多醣體。該菇蕈 包括,舉例但非限制,裂褶菌(6〇、 巴西蘑菇(处aWcs )、冬蟲夏草(6b/·办 sinensis)、1 足{Ganoderma lucidwn)、笔支{Coriolus versicolor)、填定{ Anthodia camphorate)、桑黃 { Phe111nus 1inteus、、爾部兹(P1 eurotus ci trinopi 1 eatus、、香袋{Lent inula edodes)、田頭 4軎 屬(Agrocybe sp. ) ^ ^ ( Agrocybe aegeri ta) ' # 頭、兹 i Hericium erinaceus )% 觀兹{ Pleurotus eryngiig )、炎瓣真(Sparrasis crispa ) ^ $ (Auricularia auricula ) 、 if M ( Flammulina Fe/")或上述兹蕈之組合。 本發明組成物之較佳實施例為含有萃取自多種菇蕈 的多醣體。 本發明組成物之更佳實施例為,組成物包括20-35% 萃取自裂褶菌與靈芝之多醣體;25-45%萃取自冬蟲夏 草、樟芝、雲芝與巴西蘑菇之多醣體;以及20-35%萃取 自桑黃、珊瑚菇、香菇、柳松菇、猴頭菇、杏鮑菇、花瓣 茸、木茸與金針菇之多醣體。 根據本發明,該菇蕈多醣體組成物係可以注射或口服 的方式,投予至有需要之對象。於實施例中,該組成物可 單獨使用或與其他藥物結合使用。 7 110484 200920387 根據本發明,該菇蕈多醣鄉4 夕嗯肢組成物之載體可為液態、 固態或半固態’且為醫藥上可垃Λ Γ接又之載體。於較佳實施例 中’該載體為水,且以二次蒸餘水為更佳。 根據本發明’具有抗癌效I— …欢果之菇蕈多醣體組成物,可 應用於治療或預防癌症。 根據本發明,該菇蕈多醣触〜上 嗯組級成物具有提升免疫活性 之效果,包括促進呑噬細胞之夭&、 之吞里活性及自然殺手細胞毒 殺活性。 根據本發明’該菇蕈多醣触,上 早夕聰肢組成物具有促進細胞素生 成量之效果,該細胞素包括滕、成^ 枯腫瘤壞死因子-a (TNF-a ) 及/或干擾素(INF-了)。 本發明另提供製備菇蕈多醃雕& ± 早夕聰體的方法,係包括:(a) 將菇蕈菌絲體液態發酵’而得菇蕈菌;夜,⑻將步驟⑷ 所得的菇蕈菌液均質化並靜置沈澱,以收取上清液,⑹ 將步驟(b)所得的上清液以酒精沈澱並收集沈殿物,(d) 以水溶解沈澱物而形成水溶液,及(e)以陶瓷膜與分離膜 系統透析該水溶液’以獲得菇蕈多醣體。所獲得之菇蕈多 醣體可應用於本發明之組成物。 根據本發明,上述方法所使用之菇蕈可選自所有食用 菇蕈類與醫藥用菇蕈類,包括,舉例但非限制,裂褶菌 (Schizophy 11 um commue)、巴西遙兹(Agarics blaze)、 冬蟲夏草 i Cordyceps sinensis)、i 支{Ganoderma lucidum)、電支(Corjolus versicolor)、棒足(^nthodia camphorate)、条素{ Phel 1 inus 1 inteus)、珊部兹 8 110484 200920387 (Pleurotus citrinopi1eatus )、香兹 {Lentinula ei/oi/es·)、田頭名I 屬(sp. ) 士口 才卯松菇( aegeri ta ) ' 猴頭益(Hericium erinaceus ) ' 杏鮑兹 (PJeurotus eryngiig) H瓣真 i Sparrasis crispa)、 yjv ¥ ( Auricularia auricula ) ' 金金(·益(Flammulina 或上述蒜蕈之組合。 根據本發明,進行該製備方法之前,係先以液態培養 的方式,讓菇蕈產生大量高分子多醣體,再經由均質機攪 f 拌,破壞菇蕈菌絲體,讓菌絲體中所含有效成分釋出至培 養液,並經由靜置較長時間,讓有效成分完全釋放。 在較佳實施例中,將該培養菌液均質化後靜置18-24 小時。 在較佳實施例中,將靜置的培養液先用篩網過濾,去 除大片段菌絲體碎片,再以酒精萃取過濾液,將菇蕈有效 物質(多醣體或是多醣體與蛋白質的複合物)沉澱,其中 酒精為與過濾液等量(1 : 1 )為佳,且較佳係使用濃度 95%之酒精進行萃取。 在較佳實施例中,以水溶解經酒精萃取之沈澱物得到 多酿體水溶液’較佳係使用二次蒸餾水。接著,使用陶瓷 膜與分離技術純化該多醣體水溶液,以萃取出高分子多醣 體並去除小分子之雜質與胜肽類、蛋白質等容易引起過敏 反應的物質’使濾液只剩下純化的菇蕈高分子多醣體萃取 液0 由於兹蕈多醣體可以耐高溫高壓,所以可將純化所得 9 110484 200920387 的溶液以高壓滅菌處理, 白質與一些有機物質失去不僅可達滅菌效果,更可促使蛋 白質的複合物具有活性,=丨生,藉此避免菇蕈多醣體與蛋 生過敏性的不適現象。口而免除刺激動物體免疫系統產 在較佳實施例中,配人 過濾膜,將所得的菇蕈言八σ…、固設備如〇· 22微米(ΑΠ1) 劑型。該劑型可廡用五s子夕醣體卒取液分裝製成液態 根據本發明;:二發:之軸體組成物。 菇簟菌液、或為兩種以二“方+法的菇覃菌液可為單一種 可利用此製備方法個为卜始覃囷液之混合。各菇蕈菌液亦 合。 个取出南分子多醣體後,再加以混 【實施方式】 以下係藉由特定的 式,熟習此技藝之人士具體實施例說明本發明之實施方 發明之其他優點與功致可由本說明書所揭示之内容瞭解本 一、菇蕈菌種篩選與培養 本I月可使用的菇蕈菌株如裂褶菌(卿妙" ⑶麵此)、巴西蘑菇(Maze)、冬蟲夏草200920387 IX. Description of the Invention: [Technical Field of the Invention] The present invention relates to a mushroom 蕈 polysaccharide composition having an anticancer effect and a preparation method thereof. [Prior Art] In recent years, many studies have found that the mycelium or fruiting body of the mushroom has a considerable amount of physiologically active ingredients, such as polysaccharide (y3-Glucan), superoxide dismutase (SOD), Three kinds of substances, such as Triterpenoids, have immunomodulatory, anti-oxidative, anti-tumor effects. Among them, polysaccharides are the most in-depth and most promising anti-tumor and immunomodulatory substances. It is known that polysaccharides such as wan-glucan are a good immune-promoting agent, which can effectively stimulate immune cells, not only enhance the specific immunity of organisms, but also enhance the non-specific immune response. Polysaccharides can protect organisms from bacterial, fungal, viral and parasitic infections and inhibit tumor growth. In recent years, the mushroom polysaccharide (mushr〇(10) is _glucan) has been paid more and more attention. The main reason is that the branching degree, molecular weight, water bathing and structural stability of the mushroom polysaccharide are much higher than that of the yeast polysaccharide. Immunization promoting ability. The physiological activity of polysaccharides with anti-tumor effect can be roughly classified into three categories according to the molecular weight of polysaccharides: (〇 molecular weight is 3, 〇〇〇~5, (10) 〇' has the function of lowering blood sugar' (B) molecular weight In the case of between 1〇〇〇〇1〇〇〇〇〇, it has an anti-inflammatory effect, ((:) molecular weight is 3〇, above, it has anti-tumor effect' and the greater the molecular weight, the better the effect. 5 110484 200920387 : Most of the body is extracted from the fruiting body, but the source of the fruiting body is limited. Recently, it is known that about 50 kinds of mites can produce extracellular polysaccharides in liquid culture, so the culture solution can be taken. Purification of polysaccharides; liquid culture is faster and simpler than culture of fruit bodies. However, the components of mushroom mites are complex, such as polysaccharides, proteins, peptides, sputum, various amino acids, alkaloids, vinegar Classes and organic acids, etc., so the extraction, strontium polysaccharides need to undergo a thorough step, such as thermal extraction, extraction, acid extraction, etc., so it is easy to leave organic solvents, amino acids and proteins, such residues may be left Right person Produces a stimulatory immune response. It is known that a few tumors of the mushroom genus are mostly multi-body or a complex of multi-breast and protein, and its anti-tumor effect is related to the dose, frequency, time and route of administration. However, the multi-enzyme containing protein will cause the body's immunity, and should cause fever, redness, ascites and other discomforts. Therefore, other substances of the mushroom towel must be removed, and only the polymer polysaccharide can be extracted and purified to eliminate the disadvantage. In order to solve the above problems, the present invention provides a novel mushroom polysaccharide composition having anticancer effect and a preparation method thereof. [Summary] There is a lack of the above-mentioned prior art, 4 The main object of the invention is to provide a polysaccharide composition of the mushroom scorpion having anti-cancer effect. & Another object of the present invention is to provide an extraction method of the polysaccharide of the mushroom oyster, which is fermented by liquid mash, via alcohol Extraction, reuse of ceramic membranes and bifurcation techniques, and deuteration, the removal of high molecular weight polysaccharides, and removal of protein and other shellfish to solve the situation that is likely to cause allergic reactions 110484 6 200920387 In order to achieve the above and other objects, the present invention provides a polysaccharide composition having an anticancer effect, comprising a mushroom polysaccharide body and a carrier. The mushroom polysaccharide may be selected from all edible mushroom and medicine. The polysaccharide of the mushroom genus. The mushroom includes, by way of example and not limitation, Schizophyllum (6〇, Brazilian mushroom (aWcs), Cordyceps sinensis (6b/·sinensis), 1 foot {Ganoderma lucidwn), pen branch { Coriolus versicolor), fill { Anthodia camphorate), mulberry { Phe111nus 1inteus, P1 eurotus ci trinopi 1 eatus, Lent inula edodes, Agrocybe sp. ^ ^ ( Agrocybe aegeri ta) ' #头,兹i Hericium erinaceus )% 观兹{ Pleurotus eryngiig ), Sparrasis crispa ^ $ (Auricularia auricula ), if M ( Flammulina Fe/") or a combination of the above . A preferred embodiment of the composition of the present invention comprises a polysaccharide body extracted from various mushroom mites. A more preferred embodiment of the composition of the present invention comprises: 20-35% of polysaccharides extracted from Schizophyllum and Ganoderma lucidum; 25-45% of polysaccharides extracted from Cordyceps sinensis, Antrodia camphorata, Yunzhi and Brassica chinensis; 20-35% is extracted from the polysaccharides of mulberry yellow, coral mushroom, shiitake mushroom, willow mushroom, monkey mushroom, eryngii mushroom, petal velvet, wood velvet and enoki mushroom. According to the present invention, the mushroom polysaccharide composition can be administered to a subject in need thereof by injection or orally. In the examples, the composition may be used alone or in combination with other drugs. 7 110484 200920387 According to the present invention, the carrier of the mushroom genus polysaccharide composition can be liquid, solid or semi-solid and can be a pharmaceutically acceptable carrier. In the preferred embodiment, the carrier is water and more preferably re-steamed water. According to the present invention, the polysaccharide composition having the anticancer effect I-fruit can be used for treating or preventing cancer. According to the present invention, the oyster polysaccharide polysaccharide touch-up group has the effect of enhancing immunological activity, including promoting sputum phagocytic cells, tumbling activity and natural killer cell cytotoxic activity. According to the present invention, the mushroom glutinous polysaccharide has an effect of promoting the production of cytokines, including TB, TNF-a and/or interferon. (INF-). The invention further provides a method for preparing a mushroom scorpion multi-salted & ± sage, comprising: (a) fermenting the mycelium of the mushroom mycelium to obtain the mushroom; the night, (8) the mushroom obtained by the step (4) The sputum solution is homogenized and allowed to settle to collect the supernatant, (6) the supernatant obtained in the step (b) is precipitated with alcohol and collected, and (d) the precipitate is dissolved in water to form an aqueous solution, and (e) The aqueous solution was dialyzed with a ceramic membrane and a separation membrane system to obtain a mushroom polysaccharide. The obtained mushroom mash polysaccharide can be applied to the composition of the present invention. According to the present invention, the mushroom used in the above method may be selected from all edible mushroom mites and medical mushroom mites, including, by way of example and not limitation, Schizophy 11 um commue, Agarics blaze. , Cordyceps sinensis, iGanoderma lucidum, Corjolus versicolor, ^nthodia camphorate, Phel 1 inus 1 inteus, singapore 8 110484 200920387 (Pleurotus citrinopi1eatus),香兹{Lentinula ei/oi/es·), 田头名I genus (sp.) 士口才卯松菇(aegeri ta ) 'Hericium erinaceus ' PJeurotus eryngiig H petals true i Sparrasis Crispa), yjv ¥ (Auricularia auricula ) 'Golden gold (·· (Flammulina or a combination of the above garlic stalks. According to the present invention, before the preparation method, the oyster mushroom is produced in a liquid culture manner to produce a large amount of high molecular polysaccharides The body is then stirred by a homogenizer to destroy the mycelium of the mushroom, and the active ingredient contained in the mycelium is released to the culture solution, and the active ingredient is completely released by standing for a long time. In the embodiment, the culture broth is homogenized and allowed to stand for 18-24 hours. In a preferred embodiment, the static culture solution is first filtered through a sieve to remove large fragments of mycelium and then extracted with alcohol. The filtrate is used to precipitate the active substance of the mushroom (polysaccharide or a complex of the polysaccharide and the protein), wherein the alcohol is preferably equal to the filtrate (1:1), and is preferably used in an alcohol concentration of 95%. In a preferred embodiment, the ethanol-extracted precipitate is dissolved in water to obtain a multi-brewed aqueous solution. Preferably, the second distilled water is used. Next, the aqueous polysaccharide solution is purified using a ceramic membrane and a separation technique to extract high. Molecular polysaccharides and removal of impurities of small molecules and peptides, proteins and other substances that are susceptible to allergic reactions 'Let the filtrate leave only the purified mushroom 蕈 polymer polysaccharide extract 0 Because the 蕈 polysaccharide can withstand high temperature and high pressure, so The purified solution of 9 110484 200920387 can be autoclaved, and the loss of white matter and some organic substances can not only achieve the sterilization effect, but also promote the activity of the protein complex, =丨In order to avoid the allergic discomfort of the mushroom polysaccharide and the egg. It is not irritating to stimulate the immune system of the animal. In the preferred embodiment, the filter membrane is provided, and the obtained mushroom is squirmed. Equipment such as 〇·22 micron (ΑΠ1) dosage form. The dosage form can be formulated into a liquid state by using a five-segment sucrose body-stretching liquid according to the present invention;: a second-axis: a shaft body composition. Mushroom bacillus liquid, or two kinds of two "square + method of mushroom bacillus liquid can be a single one can use this preparation method is a mixture of sputum sputum liquid. Each mushroom sputum liquid is also combined. After the molecular polysaccharides are mixed, the embodiments are described below. The specific embodiments of the present invention will be explained by the specific embodiments of the present invention. I. Screening and cultivation of mushroom sputum species The mushroom strains that can be used in this month, such as Schizophyllum (Blood " (3) face), Brazilian mushroom (Maze), Cordyceps sinensis

Cordyceps s 1 nens 1 s)、1 定{Ganoderma lucidunf)、雲 t ICoriolus versicolor)、棒支{ AntJhodia camphorate)、奂養 i Phellinus linteus)、媧瑚兹 (PI euro t us citrinopi leatus )、考兹{Lentinula Wa)、田頭菇屬(处sp.)如柳松菇(处rocyk aegerita、、擦'澉疮 l Hericium erinaceus)、奄鮑兹 ίο 110484 200920387 sis crispa)、 (Flammulina iPleurotus eryngiig·)、反職真{Sparra 先茸 i Auricularia aurjcula、、金分兹 Fe/z/hpa)等’但不限於上述菌株。 將菌種接種於YM培養基(YM培養基包含〇 3%(w/w) 酵母菌萃取物、0. 3%麥芽抽出物' 5%蛋㈣(卿t㈤e)、 1.0%葡萄糖、1.5%洋菜)上,於28χ:培養箱中培養5_7 天’待菌絲長滿YM固體培養基。 將成長於YM瓊脂培養基的菌絲體切一小塊植入於2〇 毫升YM培養液,纟抓恆溫培養箱培養—週,作為液態 醱酵的菌種。 〜 將培養完成的菌種接種至裝有8〇〇毫升培養基(含4 %葡萄糖與0.5 %酵母菌萃取物公升液態發酵槽内, 於室溫條件下培養H30天後,兹蕈代謝物生成,酸 酵:得的培養液體中包含菇蕈多醣體、蛋白質、多肽類、 :帖類、多種胺基酸、生物驗、g旨類和有機酸等物質。 二、菇蕈多醣體之分離與純化 ' 、收集上述酸酵液並經由均質機攪拌,把兹葦菌絲 代謝物充分混勺,祐轉罢〗δ w ' —"秤置18〜24小蚪。待醱酵液沉澱後, 目、200目與4〇〇目的篩網過濾’將大片段的菌 、'糸肢除去,取得過濾液。 在過遽液中添加等量且漠度為95%之酒精,並靜置 4:時,等待結晶物質沉殿。用彻目的篩網收集沉 再以無菌水將沉㈣溶解回原體積(上述過滤液之 肽積),而得水溶液。 110484 11 200920387 而後,使用陶瓷膜與分離膜系統l (如第1圖所示) 將上述水溶液透析,以萃取多種分子量的兹簟高分子多酿 體。分離系統係使用内循環的管路原理,使含有菇蕈多醣 體的無菌水溶液在陶瓷過濾膜管柱11中不斷循環,小分 子(如蛋白質、多肽類、三萜類、多種胺基酸、生物鹼、 酯類和有機酸等物質)因而滲透出管路,以達到除去小分 子之目的,以收集瓶12收取菇蕈多醣體溶液。最後再添 加無菌水,使菇簟多醣體溶液具有原過濾液的體積。 由於菇蕈多醣體可以耐高溫高壓,所以可以將過濾液 以高壓滅菌爸殺菌,並促使蛋白質與一些有機物質失去活 性,藉以免除刺激動物體免疫系統產生過敏性的不適現 象。 再藉由通過0. 2 2微米(μ m)過濾膜,將滅菌後殘餘 在菇簟高分子多醣體溶液中的聚集、無活性之蛋白質與多 肽等物質過濾除去。接著在無菌室中使用滅菌過的分裝 器,將菇蕈高分子多醣體溶液分裝並製備成液態劑型,即 為本發明之菇蕈多醣體組成物。 本發明菇簟多醣體組成物可包含萃取自一或多種菇 簟之多醣體。當本發明組成物包括兩種以上的菇蕈多醣體 時,該菇蕈培養液可個別製備為多醣體組成物後再混合; 或可將菇蕈培養液先行混合再進行多醣體組成物之製備。 依據本實施例所得之組成物包括約20-35%萃取自 裂褶菌與靈芝之多醣體;約25-45%萃取自冬蟲夏草、樟 芝、雲芝與巴西蘑菇之多醣體;以及約20-35%萃取自桑 12 110484 200920387 本實施例所得之料多體组成物,萃取 姑覃之夕醣體所佔多醣體總量之比例如下: =菌為16%、靈芝為16%、冬蟲夏草為14%、棒 ‘、' Z、雲芝為8%、巴西蘑菇為6%、桑黃為 :蝴:為3%、香蒜為3%、柳嶋3% : 鲍蒜為3%、花瓣茸為3%、木茸為3%與金: 將上述組成物分為口服與針劑兩組,進一 二:=。其中針劑所仰 二欠法(Phen。卜sulfuricacidmeth〇d)測定 ± 0. 002%。 ~ .議 三、菇蕈多醣體對吞噬細胞活性影響之分析 以下實施例係使用五週齡的⑽品系雄性小白鼠(動 物來源、:台大醫院動物繁殖及研究中心),飼養於溫度U 土2C、溼度65 ± 5%,光照與黑暗各12小時⑼:L=i2 ·· 12)之條件下。實驗動物經—個星期適應後開始進行兹輩 多醣體實驗’口服組每天以胃管灌食〇1亳升的前述兹蕈 多醣體組成物,腹腔注射組每天以腹腔注射〇 〇5毫升的 菇蕈多SI體針#1,對照組則以麟酸緩衝液代替益輩多醣 體。食物及飲水正常供應,並依照動物房管理辦法,定期 檢查小白鼠的狀況,盡量減低小白a受到的環境壓迫及人 為傷害。 110484 ]3 200920387 以下實施例之實驗結果均以平均值土標準差(Mean± SD)表示,數據統計分析採用SAS(StatisticaiCordyceps s 1 nens 1 s), 1 {Ganoderma lucidunf), cloud t ICoriolus versicolor, AntJhodia camphorate, i Phellinus linteus, PI euro t us citrinopi leatus, Cowes { Lentinula Wa), genus (in sp.) such as pine mushroom (in rocyk aegerita, rubbing 'acne l Hericium erinaceus), 奄Baz ίο 110484 200920387 sis crispa), (Flammulina iPleurotus eryngiig·), anti-job True {Sparra i Auricularia aurjcula, gold fraction Fe/z/hpa), etc. 'but not limited to the above strains. The strain was inoculated into YM medium (YM medium containing 〇3% (w/w) yeast extract, 0.3% malt extract '5% egg (four) (Qing t (f) e), 1.0% glucose, 1.5% agar ), on a 28 χ: culture in an incubator for 5-7 days 'the mycelium is overgrown with YM solid medium. The mycelium grown on the YM agar medium was cut into small pieces and placed in a 2 ml ml of YM medium, and cultured in a constant temperature incubator for several weeks as a liquid fermentation strain. ~ Inoculate the cultured strain to a medium containing 8 ml of glucose (containing 4% glucose and 0.5% yeast extract in a liter liquid fermentation tank, and after 30 days of incubation at room temperature, metabolites are produced, Acid fermentation: The obtained culture liquid contains polysaccharides, proteins, peptides, labels, various amino acids, bioassays, g-types and organic acids. 2. Separation and purification of mushroom polysaccharides ' Collect the above-mentioned acid fermentation broth and stir it through a homogenizer to fully mix the metabolites of the sputum mycelium, and let the 〗 δ δ w '-" scale 18~24 蚪. After the lysate is precipitated, , 200 mesh and 4 mesh screen filtration 'Removal of large fragments of bacteria and 'limb limbs to obtain a filtrate. Add an equal amount of 95% alcohol to the sputum, and let stand 4: Wait for the crystal material to sink. Collect the sink with a mesh screen and dissolve the sink (4) back to the original volume (peptide product of the above filtrate) with sterile water to obtain an aqueous solution. 110484 11 200920387 Then, using ceramic membrane and separation membrane system l (as shown in Figure 1) Dialysis of the above aqueous solution for extraction A variety of molecular weights of the 簟 簟 polymer multi-breast. The separation system uses the internal circulation of the pipeline principle, so that the sterile aqueous solution containing the mushroom scorpion polysaccharide continuously circulates in the ceramic filtration membrane column 11, small molecules (such as proteins, peptides , triterpenoids, a variety of amino acids, alkaloids, esters and organic acids, etc.) thus permeate out of the pipeline to achieve the purpose of removing small molecules, collecting the bottle 12 to collect the mushroom polysaccharide solution. Finally add the sterile Water, so that the mushroom polysaccharide solution has the volume of the original filtrate. Since the mushroom polysaccharide can withstand high temperature and high pressure, the filtrate can be sterilized by autoclaving, and the protein and some organic substances are deactivated, thereby stimulating the animal. The body's immune system produces allergic discomfort. By using a 0.22 micron (μm) filter membrane, the aggregated, inactive protein and peptides remaining in the mushroom polysaccharide polysaccharide solution after sterilization are sterilized. Filtration and removal. Then, using a sterilized dispenser in a sterile room, the mushroom polysaccharide high molecular polysaccharide solution is dispensed and prepared into a liquid dosage form, that is, The mushroom 蕈 polysaccharide composition of the present invention. The mushroom glutinous polysaccharide composition of the present invention may comprise a polysaccharide extracted from one or more mushroom mites. When the composition of the present invention comprises two or more saccharomyces polysaccharides, the mushroom 蕈The culture solution may be separately prepared as a polysaccharide composition and then mixed; or the mushroom mash culture solution may be mixed first to prepare the polysaccharide composition. The composition obtained according to the embodiment includes about 20-35% extracted from the cleavage. Polysaccharide of bacteria and Ganoderma lucidum; about 25-45% polysaccharide extracted from Cordyceps sinensis, Antrodia camphorata, Yunzhi and Brazil mushroom; and about 20-35% extracted from mulberry 12 110484 200920387 The multi-body composition obtained in this example The ratio of the total amount of polysaccharides in the sucrose body of the aunt is as follows: = 16% for bacteria, 16% for Ganoderma lucidum, 14% for Cordyceps sinensis, 8% for rods, 'Z, 8% for Yunzhi, and 6 for Brazilian mushrooms. %, mulberry yellow: butterfly: 3%, garlic 3%, lycopene 3%: AO garlic 3%, petal velvet 3%, wood velvet 3% and gold: The above composition is divided into oral and Two groups of injections, one or two: =. In the case of the injection, the second method (Phen. sulfuric acidmeth〇d) was measured ± 0. 002%. ~. Discussion on the effect of mushroom polysaccharide on phagocytic activity The following examples use five-week-old (10) strain male mice (animal source: Taida Hospital Animal Breeding and Research Center), raised at temperature U soil 2C , humidity 65 ± 5%, light and dark for 12 hours (9): L = i2 · · 12). The experimental animals were subjected to the experiment of polysaccharides after a week of adaptation. The oral group was given a stomach sputum with 1 liter of the above-mentioned polysaccharide composition, and the intraperitoneal injection group was intraperitoneally injected with 5 ml of mushrooms per day. In the control group, the SI body needle #1 was used, and the control group was replaced by the linonic acid buffer. Food and drinking water are supplied normally, and the condition of the mice is regularly checked according to the animal house management method to minimize the environmental pressure and human injury suffered by Xiaobai. 110484 ]3 200920387 The experimental results of the following examples are expressed as mean soil standard deviation (Mean ± SD), and statistical analysis using SAS (Statisticai)

System,SAS InStltute Inc.,USA)軟體進行單因子變 數分析(One way A_A),並依料氏多變域測驗 (Duncan,s new multlple range ㈣)進行各組間之差 異性分析,若組間差異達P&lt;0.05,則視為具顯著差異。 吞嗟細胞活性分析:用於吞嗟細胞活性分析的血液樣 本為較少量U00〜150微升(“)),且需與抗凝血劑(肝 f素heParin)充分混和,因考量可重複採樣與避免犧牲, 故採用眼窩採血法,每週兩次,方法如下:麻醉後,壓迫 小鼠頸部兩側,阻礙靜脈血回流,使眼球充分外突,並使 眼眶後靜脈叢充血。自該眼睛之前眼角或後眼角處,以管 控恰當且内壁有抗凝血劑之毛細管,順眼球週緣向眼离中 心插入,旋轉毛細管以切開靜脈叢,藉虹吸管原理將血液 吸入毛細管中,再將血樣移至加有抗凝血劑的微量離心管 中’充分混和後置於冰上備用。 血液中吞噬細胞活性分析:使用phag〇_test套纽 ⑽PEGEM,Ph繼,F. R. G.),藉由單核球與顆粒球對已 螢光標定的大腸桿菌⑴TC—標定的h〇//)之吞嗟,再 以流式細胞儀分析其吞嗟能力,實驗步驟如下: 1·取1〇〇微升含肝素且震盪混勻(v〇rtexmi狀 的全血至標示適當的5毫升試管中,注意管壁上不可 每-檢體各做兩管(一管為試驗管,一管為 知'官),而後冰浴1 〇分鐘。 110484 14 200920387 2. 於各試管中,加入20微升震盪混勻之目標細胞 (FITC labeled昃⑶心)。將試驗管置於以37。〇預熱之 h谷U進行水,谷作用丨Q分鐘;陰性對照組則留置冰 浴)〇分鐘。時間及溫度需準確控制,且水浴槽需預熱且 加蓋。 3. 將試管置於冰上以終止吞噬作用,並於各管加入 100微升冰冷的驟冷液(quenching s〇luti〇n)(錐蟲藍, trypan blue),震盪混勾後進行冰浴2分鐘,用以排除未 r被細胞吞入的目標細胞螢光干擾。其原理為錐蟲藍的吸收 光譜與FITC的發散光譜重疊’而吞噬細胞的細胞膜完 整,故可避免被錐蟲藍染色,同時保護被吞入的大腸桿菌 不被染色,未被吞噬的大腸桿菌則會被錐蟲藍染色而無法 發光(Sahlin et al.,1983)。 4. 以3毫升的沖洗液清洗細胞,在rc以25〇邛離 心5分鐘’小心去除上清液,避免碰到細胞團塊,且重複 清洗步驟一次。 、 5·於各管中,加入2毫升的裂解液(lysing so 1 ut ion )溶解及固定血液,混和均勻,於室温下作用 2 0分鐘’在4 C以2 5 0xg離心5分鐘,吸除上清、夜。 6. 於各管中’加入200微升DNA染色液(staining so 1 ut ion ),混和冰洛且避光10分鐘,以染出白血球。 7. 利用流式細胞儀’分析顆粒球與單核球的吞嗟能 力。 實驗結果如第2圖至第7圖所示。 110484 15 200920387 吞嗟活性係以表現 示,見吞巫作用的細胞之百分比(%)表 • 力之早核球或顆粒球的比例。經口服 飯食姑覃多醣體之結 制酱枯、去d η 戈乐2圖所不,貫驗組在第5天的 j ^ 高(32·93%)’是對照組(13.糊的2.4 、〜'有頦著差異(ρ&lt;0. 05),與前一個時間點(第2 比提升了 53· 99% ;實驗組的吞噬活性於第9天下降 (2 3. 6 8 %)» 0π λ ,, ^彳—&quot;對'日、?、組仍有顯著差異(Ρ&lt;0.05),實驗組 、,天的吞巫,舌性(1 7. 2%)雖仍比對照組高,但未達 ,續在第16、19、23天實驗組的吞噬活性呈現 %疋狀f、,並與對照組有顯著差異(Ρ〈0·05)。整體而言, 口服々覃多醣體可使細胞吞嗔活性快速而顯著提升,且口 服一週即可獲得明顯差異。 …經級腔注射菇蕈多醣體之結果如第3圖所示,實驗組 在第9天之後的測量值都與對照組具有顯著差異 (Ρ&lt;〇. 05 ),貫驗組的吞嗟活性高峰出現在第^2天 (28. 〇2%) ’是對照組(10. 16%)的2. 76倍。比較口服與 脱腔&gt;主射的結果,口服菇蕈多醣體會較注射菇簟多醣體早 產生顯著差異(p&lt;0. 05,口服組在第5天達到,而腹腔注 射組在第9天達到),比較吞噬活性最高值也是出現在口 服組( 32.93%),高於腹腔注射组( 28.02%)。 吞嗟細胞之平均螢光強度(FI)代表每個細胞呑噬量 的多寡。經口服菇蕈多醣體之結果如第4圖所示,實驗組 顆粒球細胞的平均螢光強度呈現逐漸上昇的趨勢,第i 2 天(7.76)開始與對照組具有顯著差異(p&lt;〇 〇5),第16 16 ]10484 200920387 天以後漸漸穩定。最高值出現在第16天( 前的第〇天(4.06)相比,提升 ·)。、處理 # c门 了 2· 44心。單核球的螢 ::弟6圖所示,口服益蕈多醣體的實驗έ且在第12 天編峰(5.71)’是同時間對照組的/ 以後至實驗結束的測量值,實驗 .心,12天 賴區間具有顯著差異。以上結果:實對的信 此㈣員粒球細胞及單核球細胞吞嗟外來物的量。 升:二圖Γ,腹腔注射益輩多醣體的小鼠,顯著提 均值=已 料光強度’注射第2天所量測的平 第5天以二^=?3.8,但尚未達顯著差異; 顯著差異(二。與對照組均具有 π以、. 貝驗組於弟0天(2. 65)到第2 * 驗組的二了:έ ’增加7 2. 25倍’第9天以後實 射兹蕈多醣體的、Λ:且”以上。第7圖表示腹腔注 球細胞之社果如 核球細胞平均螢光強度,與顆粒 -且且:::貫驗組於第5天以後的測量值均與對 且=者,異(ρ&lt;〇〇5),也是在第… :登性提升最顯著,增加2.97倍。上述結果可 ㈣㈣咖胞與單核 效果。 此力,且於,主射後一星期内獲得明顯 嗟活蕈多醣體可顯著提升-細胞之吞 菇蕈夕醣體對自然殺手細胞之活性影響 】10484 17 200920387 自然殺手細胞在細胞免疫中扮演重要的角色,其活性 的提升可直接幫助清除體内病變及癌化的細胞。利用對自 然殺手細胞敏感的YAC-1細胞進行本實驗,即YAC-1細胞 之死亡率可表示自然殺手細胞的細胞毒殺活性。 臟器收集:將前述實驗小鼠腹面,以酒精消毒後,剪 開腹腔皮膚,取下脾臟、肝臟以及腎臟,肝臟與腎臟以 PBS將臟器洗淨後吸乾’秤重並計算器官相對重量 (relative organ weight)。 丨, 裔官相對重量(%)=·[器官重量(g)/體重(g) }χ1 〇〇%。 脾臟淋巴球細胞收集:將脾臟置於含適量RPMI 1640 培養基(Hy cl one)的20毫米(mm )培養皿中,以鎖子將 脾臟撕碎,利用Ficol卜Hypaque以l〇〇〇rpm離心3〇分 鐘,吸取培養液和Fic〇l卜Hypaque間淡黃色的液體,此 層即為小鼠脾臟淋巴球細胞。 YAC-1細胞的培養·· γAC-1細胞培養於具有2毫莫耳 漢度(mM) 麵酸胺酸(L-glutamine),並調整至含有 1. 5g/L碳酸納、1 〇mM HEPES、1. OmM丙酮酸納及含1 〇%小 牛血清的90% RPMI 1640培養基中,每2到3天繼代培 養一次。繼代培養時直接加入新鮮培養基稀釋,再分裝至 新的培養瓶。System, SAS InStltute Inc., USA) software for one-way variable analysis (One way A_A) and differential analysis between groups according to Duncan, s new multlple range (4), if between groups Differences of P < 0.05 were considered significant differences. Analysis of swallow cell activity: blood samples for swallow cell activity assay are less than U00~150 microliters (")), and need to be thoroughly mixed with anticoagulant (hepatin), which can be repeated due to consideration Sampling and avoiding sacrifice, the eye socket blood collection method is used twice a week. The method is as follows: after anesthesia, the sides of the neck of the mouse are pressed to block the venous return, so that the eyeball is fully externalized and the venous plexus of the eyelid is congested. At the front of the eye or at the back of the eye, a capillary tube with proper control and an anticoagulant on the inner wall is inserted into the eye from the periphery of the eyeball. The capillary is rotated to cut the venous plexus, and the blood is sucked into the capillary by the principle of a siphon, and then the blood sample is taken. Move to a microcentrifuge tube with anticoagulant to 'mix thoroughly and place on ice for later use. Analysis of phagocytic activity in blood: use phag〇_test kit (10) PEGEM, Ph followed, FRG), with single nuclear sphere The engulfing of E. coli (1)TC-calibrated h〇// with the globular ball was analyzed, and the swallowing ability was analyzed by flow cytometry. The experimental procedure was as follows: 1. Take 1 〇〇 microliter of heparin-containing And Shake and mix (v〇rtexmi-like whole blood to the appropriate 5 ml test tube, pay attention to the tube wall can not do two tubes per test body (one tube is the test tube, one tube is the know 'official), and then the ice Bath 1 〇 minutes. 110484 14 200920387 2. Add 20 μl of shake-mixed target cells (FITC labeled 昃 (3) hearts) to each tube. Place the test tube in water at 37 ° 〇 preheated h Valley U The effect of the gluten is 分钟Q minutes; the negative control group is left in the ice bath for 〇 minutes. The time and temperature should be accurately controlled, and the water bath should be preheated and capped. 3. Place the test tube on ice to stop phagocytosis, and Add 100 μl of ice-cold quenching liquid (quenching s〇luti〇n) (trypan blue) to each tube, shake and mix for 2 minutes to eliminate target cells that were not swallowed by the cells. Fluorescence interference. The principle is that the absorption spectrum of trypan blue overlaps with the divergence spectrum of FITC' and the cell membrane of phagocytic cells is intact, so it can avoid being stained by trypan blue, while protecting the swallowed E. coli from being stained. The phagocytic E. coli is stained by trypan blue and cannot be illuminated. Sahlin et al., 1983) 4. Wash the cells with 3 ml of rinsing solution and centrifuge at 25 rpm for 5 minutes to carefully remove the supernatant to avoid cell clumps and repeat the washing step once. · Add 2 ml of lysing so ut ion to each tube, dissolve and fix the blood, mix well, and apply for 20 minutes at room temperature. Centrifuge at 2 50 xg for 5 minutes at 4 C, aspirate the supernatant. 6. Night. Add '200 μl of DNA staining solution (staining so 1 ut ion) to each tube, mix it with ice and protect it from light for 10 minutes to dye white blood cells. 7. Use flow cytometry to analyze the swallowing ability of pellets and mononuclear spheres. The experimental results are shown in Figures 2 through 7. 110484 15 200920387 Swallowing activity is expressed as a percentage of cells that are swallowed by witchcraft (%). • Proportion of early nuclear or granules. After the oral administration of the agglutinated polysaccharides, the sauce was dried, and the d η Gole 2 was not. The j ^ high (32·93%) of the test group on the 5th day was the control group (13. , ~ 'has a difference (ρ &lt; 0. 05), and the previous time point (the second ratio increased by 53. 99%; the experimental group's phagocytic activity decreased on the 9th day (2 3. 6 8 %)» 0π λ , , ^彳—&quot; There are still significant differences in the 'day, ?, and group (Ρ &lt; 0.05), the experimental group, the day of swallowing, the tongue (17.2%) is still higher than the control group However, the phagocytic activity of the experimental group on the 16th, 19th, and 23rd days showed a % sputum f, and was significantly different from the control group (Ρ < 0.05). Overall, oral sputum polysaccharides The cell swallowing activity can be rapidly and significantly improved, and a significant difference can be obtained after one week of oral administration. ... The results of the injection of the mushroom polysaccharide by the intracavity are shown in Fig. 3, and the measured values of the experimental group after the 9th day are The control group had a significant difference (Ρ&lt;〇. 05), and the peak of the swallowing activity of the test group appeared on the second day (28. 〇 2%), which was 2.76 times that of the control group (10. 16%). Compare the results of oral and decavitating &gt; main shots, The effect of the polysaccharides of the mushroom mites was significantly different from that of the injected polysaccharides of the mushroom (p&lt;0.05, the oral group was reached on the 5th day, and the intraperitoneal injection group was reached on the 9th day), and the highest value of the phagocytic activity was also observed in the oral administration. The group (32.93%) was higher than the intraperitoneal injection group ( 28.02%). The average fluorescence intensity (FI) of the swallowed cells represents the amount of phlegm per cell. The results of oral administration of the polysaccharides of the mushroom are as shown in Fig. 4. The average fluorescence intensity of the granule cells in the experimental group showed a gradual increase trend, and the i 2nd day (7.76) began to be significantly different from the control group (p&lt;〇〇5), and gradually became stable after 16 16 ] 10484 200920387 days. The highest value appears on the 16th day (before the third day (4.06) compared to the promotion ·)., the #c door is 2·44 hearts. The single-core ball of the firefly:: brother 6 shows the oral benefit The experiment of 蕈 polysaccharides and the peak on the 12th day (5.71) was the measured value of the control group at the same time / later to the end of the experiment. The experimental, heart, 12-day lag interval was significantly different. The above results: true I believe that (4) the amount of granulosa cells and mononuclear cells swallowing foreign matter. In the second image, the intraperitoneal injection of probiotic polysaccharide mice showed a significant mean value = the light intensity of the 'measured light intensity' was measured on the second day of the injection on the 5th day to 2 == 3.8, but did not reach significant difference; significant difference (2. Both the control group and the control group have π, , and the test group in the 0th day (2. 65) to the 2nd group of the second group: έ 'increased 7 2. 25 times' after the 9th day蕈 polysaccharides, Λ: and above. Figure 7 shows the average fluorescence intensity of the nucleus cells of the intraperitoneal injection cells, and the measured values of the granule-and::::test group after the 5th day are equal and =, different (ρ &lt; 〇〇 5), also in the first... : The most significant increase in boarding power, an increase of 2.97 times. The above results can be (iv) (iv) gambling and mononuclear effects. This force, and, in the week after the main shot, the significant activity of the active polysaccharide can be significantly improved - the effect of the cell sucrose on the activity of natural killer cells] 10484 17 200920387 Natural killer cells play a role in cellular immunity An important role, its increased activity can directly help remove pathological and cancerous cells in the body. This experiment was carried out using YAC-1 cells sensitive to natural killer cells, i.e., the mortality of YAC-1 cells was indicative of the cytotoxic activity of natural killer cells. Organ collection: After sterilizing the ventral surface of the experimental mice with alcohol, cut the abdominal skin, remove the spleen, liver and kidneys, wash the liver and kidney with PBS, blot dry and collect the weight and calculate the relative weight of the organs. (relative organ weight).丨, relative weight (%) = [organ weight (g) / weight (g) } χ 1 〇〇%. Spleen lymphocyte collection: The spleen was placed in a 20 mm (mm) petri dish containing appropriate amount of RPMI 1640 medium (Hy cl one), the spleen was shredded with a lock, and centrifuged at 1 rpm with Ficol Bu Hypaque 3 After 〇 minutes, the culture medium and the pale yellow liquid between Fic〇l and Hypaque were taken up, and this layer was the mouse spleen lymphocyte. Culture of YAC-1 cells · γAC-1 cells were cultured in an amount of 2 millimoles (mM) of L-glutamine and adjusted to contain 1.5 g/L sodium carbonate, 1 〇 mM HEPES 1. OmM sodium pyruvate and 90% RPMI 1640 medium containing 1%% calf serum were subcultured every 2 to 3 days. Subculture is directly diluted with fresh medium and then dispensed into new culture flasks.

細胞毒殺活性測試:依據Kiessling等的方法加以修 改(Kiessling et al., 1975 ) ’ 使用 LIVE/DEADCytotoxic activity test: modified according to the method of Kiessling et al. (Kiessling et al., 1975) ’ using LIVE/DEAD

Cell-Mediated Cytotoxicity 套組(M〇lecuiar Probes),實驗步驟如下: 110484 18 200920387 將YAC-1細胞濃度以PBS調成lxl 06細胞/毫升(cel 1/ 毫升)。按照每毫升YAC-1細胞懸浮液加入10 // L D10C18 的量,將DIOCw加入15 ml離心管底部,再加入YAC-1 細胞懸浮液並混和均勻。於37°C培養箱中培養20分鐘。 以PBS沖洗兩次後,以培養基溶散細胞並將細胞濃度調成 lxl06 cell/毫升,置於37°C培養箱中,保持細胞存活率 95%以上。 將小鼠脾臟淋巴球細胞以 RPMI 1 640培養基 ,(Hyclone)調成細胞濃度2xl06cell/毫升之細胞懸浮 液。將染色後的YAC-1細胞20微升加入的脾臟淋巴球懸 浮液200微升中,並加入220微升的PI溶液(4〇微克/ 毫升)染色,以l〇〇〇xg離心30秒後,再於37。(:培養箱 中培養二小時。以流式細胞儀計算脾臟淋巴球活性,計算 綠色邊光的YAC-1細胞數,再計算綠色細胞中有多少細胞 因為受淋巴球破壞,使其細胞膜不完整,而為綠中帶紅的 細胞;脾臟淋巴球細胞毒殺活性的計算方式為:具有綠色 與紅色螢光的細胞數/綠色螢光細胞數。 小鼠的自然殺手細胞之細胞毒殺活性如第8圖與第9 圖所示。 、’二口服盛蕈多醣體之結果如第8圖所示,口服pRsThe Cell-Mediated Cytotoxicity kit (M〇lecuiar Probes), the experimental procedure is as follows: 110484 18 200920387 The YAC-1 cell concentration was adjusted to 1×10 cells/ml (cel 1/ml) with PBS. Add 10 // L of D10C18 per ml of YAC-1 cell suspension, add DIOCw to the bottom of a 15 ml centrifuge tube, add YAC-1 cell suspension and mix well. Incubate in a 37 ° C incubator for 20 minutes. After rinsing twice with PBS, the cells were dissolved in the medium and the cell concentration was adjusted to lxl06 cell/ml, and placed in a 37 ° C incubator to maintain a cell viability of 95% or more. Mouse spleen lymphocytes were adjusted to a cell suspension of 2 x 106 cells/ml in RPMI 1 640 medium (Hyclone). Twenty microliters of the stained YAC-1 cells were added to the spleen lymphocyte suspension in 200 μl, and stained with 220 μl of PI solution (4 μg/ml), and centrifuged at 10 μg for 30 seconds. And then at 37. (The culture was carried out for two hours in an incubator. The spleen lymphocyte activity was calculated by flow cytometry, the number of YAC-1 cells in the green edge light was calculated, and how many cells in the green cells were destroyed by the lymphocytes, so that the cell membrane was incomplete. The cells with reddish green cells; the spleen lymphocyte cytotoxic activity is calculated as: the number of cells with green and red fluorescence / the number of green fluorescent cells. The cytotoxic activity of natural killer cells in mice is as follows Figure and Figure 9. The results of the two oral administration of polysaccharides are shown in Figure 8, oral pRs.

2 迥uo. 〇)、 、第3週(17. 96%)與第4週(17 毋权'舌性與對照組具有顯著差異(P&lt;0. 05 )。 • 76倍,且第 17 %)的細胞 經腹腔注射 ]10484 19 200920387 菇覃多醣體的結果如第9圖所示,實驗組在第〇週(7. 7%) 至第1週(17. 75%)的變化最大,活性提升13〇· “%,第2 週(22. 99%)、第3週(30· 3%)與第4週(29. 91%)皆與注射 PBS的對照組具有顯著差異(p&lt;〇_ 〇5 )。 實驗結果證實,本發明的菇蕈多醣體無論是透過口服 或是腹腔注射之投予途徑,皆可促進生物體内自然殺手細 胞的細胞毒殺活性。 五、兹蕈多醣體對細胞素含量影響之分析 用於細胞素(cyt〇kine)含量分析的血液量約需j 毫升,以心臟採血法收集血樣,方法如下:小鼠麻醉後, 從胸腔後端1/3處’自胸骨左側緣垂直刺入肋骨間而達心 臟。在見針筒有回血後,以一手固定針頭之方向與深度’ 另一手則輕拉針筒听筒。所得血樣靜置待血清析出後’以 12000xg離〜20分鐘’收集血清於離心管中,用於細胞 素含量的測定。 細胞素含量分析#素連#免疫分析法 EUSA),使用ELISA套組(Bi〇_ce),測量血清中 細胞素(IFNm)的含量,詳細實驗步驟如下所 於孔盤中加人培養緩衝劑(Incuibaticm Buffer) ( 5〇 微升/孔洞),空白細目丨丨T上 、 、,則不加。为別加入標準品及樣品(50 微升/孔洞),並使試劑均今、、日 . 、月勺犯和。加入生物素鍵結(Biotin2 迥uo. 〇), , 3rd week (17. 96%) and 4th week (17 毋 right 'tongue is significantly different from the control group (P&lt;0.05). • 76 times, and 17% The cells were injected intraperitoneally]10484 19 200920387 The results of the polysaccharides of the mushroom scorpion were as shown in Fig. 9. The experimental group had the largest change in the week (7.7%) to the first week (17.75%). Increased 13〇·“%, 2nd week (22.99%), 3rd week (30·3%) and 4th week (29.91%) were significantly different from the control group injected with PBS (p&lt;〇 _ 〇 5 ). The experimental results confirmed that the rumen polysaccharide of the present invention can promote the cytotoxic activity of natural killer cells in vivo by either oral or intraperitoneal injection. Analysis of the influence of cytokine content The blood volume for cytokine (cyt〇kine) analysis requires about j ml, and the blood sample is collected by cardiac blood sampling. The method is as follows: after the anesthesia of the mouse, from the 1/3 of the back end of the chest cavity The left side of the sternum is inserted vertically into the ribs to reach the heart. After seeing the blood in the syringe, fix the direction and depth of the needle with one hand. The obtained blood sample was allowed to stand for serum deposition, and the serum was collected in a centrifuge tube at 12000 xg for ~20 minutes for cytokine content determination. Cytokine content analysis #素连#immunoassay EUSA), using ELISA kit The group (Bi〇_ce) was used to measure the content of cytokine (IFNm) in the serum. The detailed experimental procedure was as follows. Add the culture buffer (Incuibaticm Buffer) (5 〇 microliter/hole) to the well plate, blank detail 丨丨T, ,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,

Conjugate) ( 50 微井/別、、,, 又开/孔洞),空白組則不加,·均句混和 後,於 37。(:培養 1 s , n士 + , •5小%。清洗4次。加入鏈黴抗生物 110484 20 200920387 素-HRP 作用液(Streptavidin-HRP Working Solution) (10 0微升/孔洞)’空白組則不加;於室溫下培養3 〇分 鐘。清洗4次。加入穩定色原體(stabi丨丨zed Chr〇丨n〇gen ) (100微升/孔洞),於黑暗中室溫培養2〇分鐘。加入停 止液(Stop Solution) ( 1〇〇微升/孔洞),均勻混和後, 利用分光光度计(UltrospeclOOO,PHARMACIA BIOTECH) (λ =450nm)測量吸光值,所得數值均需扣除僅含穩定色原 體和彳τ止液之空白組的數值。加入停止液後,需在2小時 f内測量吸光值。 利用TNF- α及IFN- r標準品與其吸光值繪製吸光值 與細胞素濃度的標準曲線,可用以計算出待測樣品中細胞 素的濃度。 TNF- α含量的測量結果如第1 〇圖與第11圖所示。 — 經口服菇蕈多醣體之結果如第1〇圖所示,實驗組在 :個採樣點的平均值皆高於對照組,實驗組於第丨週的測 量值達到最而(28·8 pg/毫升),第2週(27.4 pg/毫升) 及第3週(26. 2 pg/毫升)TNF- 〇:濃度下降,到第4週濃 度回升(27 pg/毫升),第〇週(24·4 pg/毫升)到第}週增 加f最大,為18. 03%。第1、2、4週,口服菇簟多醣體 之實驗組與口服PBS之對照組具有顯著差異(p&lt;〇〇5)。 、μ經腹腔注射菇蕈多醣體的結果如第9圖所示,實驗組 ^乐2週出現高峰(27.3 pg/毫升),最大增加率出現在 =^週到第2週(8%)之間。第2週及第4週的測量值, 實驗組與對照組有顯著差異(P&lt;〇. 〇5 )。 21 110484 200920387 IFN—7含量的測量結果如f 12圖與f 13圖所示。 η輩多靡體之結果如第12圖所示,實驗組在 二二週出現相對高點,*中,第4週的IFN—r “里取:(28·1 pg/毫升)。且實驗組之結果在第i週 (显2 7:::與第4週,比較對照組之結果具有顯著差 異 C P〈0. 05 )。 ㈣腔注㈣蕈多醣體的結果如第13圖所示,實驗 組的二了濃度逐漸增加,在第3週達到最高濃細.3 ί二夕Η而,4週又降低,最大增加率出現在第0週到 弟1匕之間,為7.88%·’關於第2、3、4週的測量值,實 驗組與對照組具有顯著差異(ρ&lt;〇.〇5)。 、 實驗結果證實,本發明的兹蕈多醣體無論是透過口服 或是腹腔注射之投予途經,皆可促進生物體内細胞素含量 增加。 六、菇蕈多醣體之抗癌效果 1 _兹覃多醣體之腫瘤抑制試驗 以皮下注射的方式將lxl〇V5〇微升的路易氏肺癌細 胞立(Lewls lung carcin⑽a ceUs)殖入 c57BL/6jNarl 小鼠的背上。+鼠殖入腫瘤24小時後開始給予菇蕈多醣 體’口服組每天以胃管灌食〇1毫升,腹腔注射組每天以 腹腔注射0. 05毫升的多醣針劑。犧牲實驗小鼠時取出腫 瘤秤重’並計算腫瘤抑制率^ 犧牲前小鼠的活力以口服多醣體組最好,腹腔注射組 次之,對照組最差。觀察腫瘤的外觀,對照組的腫瘤最大, 110484 22 200920387 腹腔注射組次之,兩者的腫瘤都在小鼠的f部形成明顯的 橢圓狀突起;口服多醣體組的腫瘤則明顯地較對照組及 腔注射組小,只在殖人處形成—圓形硬塊。解剖時發現, 對照組的腫瘤周圍與内部有明顯的血液與膿聚集,腫瘤向 下浸潤到肌肉組織,需以剪刀才能分開;口服多醣體:的 腫瘤則是-實^硬塊,僅存在皮膚與肌肉之間,沒有浸潤 到肌肉,也沒有觀察到顯著的血液或膿聚集。 …王 各組取出腫瘤秤重的結果如表丨,控制組的腫瘤最重 (〇.46g),腹腔注射多醣體組次之(〇.36g) ,口服多 醣體組最輕(0.27g),口服多醣體組與對照組達到顯: 差異(P &lt;0.05)。將各組的腫瘤重量與對照組相比計算腫 瘤抑制率,口服多醣體組達40.58%,腹腔注射多醣=组 為 21. 01%。 口服組 注射組 多醣體組成物對腊瘤之抑制效果 40. 58 21. 01 腫瘤重量(克) 〇6±~〇7〇5~ 〇. 27+ 〇. 〇1 〇. 36± 〇. 〇9 2.菇蕈多醣體之腫瘤移轉抑制試驗 將路易氏肺癌細胞植入C57BL/6品系之小鼠後腿,七 天後腿部癌細胞會增生而MA (原们生癌);進行癌細胞 接種後三天起,每天餵食菇蕈多醣體組成物兩次,各組在 癌細胞注射後七天起,以鈷60處理原發癌5天進行°治療, 經治療後2星期觀察各組小鼠之後腿腫瘤,並犧牲小~氣以 110484 23 200920387 觀察其肺臟發生腫瘤顆粒的情形。 實驗結果如表2所示,對照組(未服用多醣體組成 物、未進行放射治療)之小鼠100%發生腫瘤轉移現象, 肺部腫瘤顆粒數平均為12·3;未服用多醣體組成物、但 進行放射治療之小鼠,則!嶋皆會發生腫瘤轉移現象, 肺部腫瘤數為13.7;服用多醣體組成物、但未進行放射 …療之小鼠’腫瘤轉移比率降低且肺部腫瘤數亦減少;服 用㈣體組成物、且進行放射治療之小氣,腫瘤轉移比率 ,顯者降低至12.5%,而肺部腫瘤數降低為U5。 110484 24 200920387 對照組 (未服用組成物、 未放射 (未服用組成物、 進行放射治療) (服用組成物、 未放射治療) (服用組成物 進行放射治療)Conjugate) (50 microwells/,,,,, open/holes), blank groups are not added, and the average sentence is mixed, at 37. (: culture 1 s, n ±, • 5 small %. Wash 4 times. Add streptavidin 110484 20 200920387 Streptavidin-HRP Working Solution (10 0 μl / hole) 'blank group No addition; culture at room temperature for 3 〇 minutes. Wash 4 times. Add stable chromogen (stabi丨丨zed Chr〇丨n〇gen) (100 μl/hole) and incubate at room temperature in the dark for 2〇 Minutes. Add Stop Solution (1 〇〇 microliter/hole), mix evenly, measure the absorbance using a spectrophotometer (UltrospeclOO, PHARMACIA BIOTECH) (λ = 450nm), and the values must be deducted only for stability. The value of the blank group of chromogen and 彳τ stop solution. After adding the stop solution, the absorbance should be measured within 2 hours f. The absorbance and cytokine concentration are plotted using TNF-α and IFN-r standards and their absorbance values. The standard curve can be used to calculate the concentration of cytokines in the sample to be tested. The measurement results of TNF-α content are shown in Fig. 1 and Fig. 11. - Results of oral ruminant polysaccharides are shown in Fig. 1 In the experimental group, the average value of each sampling point is higher than that of the control. In the experimental group, the measured value reached the highest (28·8 pg/ml), the second week (27.4 pg/ml) and the third week (26.2 pg/ml) TNF-〇: the concentration decreased. By the fourth week, the concentration rose (27 pg/ml), and the second week (24·4 pg/ml) increased to f at the first week, which was 18.03%. The first, second, and fourth weeks, oral ruminant polysaccharide The experimental group of the body was significantly different from the control group of oral PBS (p &lt; 〇〇 5). The results of intraperitoneal injection of mushroom polysaccharides were as shown in Fig. 9, and the experimental group had a peak at 2 weeks (27.3 pg). /ml), the maximum increase rate occurs between =^ weeks and the second week (8%). The measured values of the 2nd week and the 4th week are significantly different between the experimental group and the control group (P&lt;〇. 〇5) 21 110484 200920387 The measurement results of IFN-7 content are shown in f 12 and f 13 . The results of η generation polysaccharides are shown in Fig. 12, and the experimental group has a relatively high point in the second and second weeks, * The IFN-r at week 4 was taken as: (28·1 pg/ml), and the results of the experimental group were significantly different in the i-week (obviously 2 7::: compared with the 4th week, the results of the control group were significantly different) <0. 05). (4) Cavity injection As shown in Fig. 13, the results of the polysaccharides in the experimental group gradually increased. In the third week, the concentration reached the highest concentration. 3 ί 二 Η, and decreased in 4 weeks, the maximum increase rate appeared in the 0th week. Between the brothers and sisters, 7.88%·'s measurements on the 2nd, 3rd, and 4th weeks were significantly different between the experimental group and the control group (ρ&lt;〇.〇5). The experimental results confirmed that the polysaccharide of the present invention can promote the increase of cytokine content in the living body whether it is administered by oral or intraperitoneal injection. Sixth, the anti-cancer effect of the mushroom 蕈 polysaccharide body 1 _ 覃 覃 polysaccharide tumor inhibition test by subcutaneous injection of lxl 〇 V5 〇 microliters of Lewis lung cancer cells (Lewls lung carcin (10) a ceUs) into c57BL/6jNarl small On the back of the mouse. After the mouse was colonized for 24 hours, the mushroom sputum polysaccharide was administered. The oral group was intragastrically administered with 1 ml of gastric tube per day, and the intraperitoneal injection group was intraperitoneally injected with 0.05 ml of polysaccharide injection per day. When the experimental mice were sacrificed, the tumor weight was taken and the tumor inhibition rate was calculated. ^ The viability of the mice before sacrifice was best in the oral polysaccharide group, followed by the intraperitoneal injection group, and the control group was the worst. Observing the appearance of the tumor, the tumor in the control group was the largest, 110484 22 200920387. The intraperitoneal injection group was the second, both tumors formed obvious ellipsoids in the f part of the mouse; the tumor in the oral polysaccharide group was significantly better than the control group. The intraluminal injection group is small, forming only a round lumps at the colony. During anatomy, it was found that there were obvious blood and pus accumulation around the tumor in the control group, and the tumor infiltrated into the muscle tissue, which needs to be separated by scissors; the oral polysaccharide: the tumor is - solid ^ block, only skin and There was no infiltration into the muscles and no significant blood or pus accumulation was observed. The results of the weight-removing tumors in each group were as follows: the tumors in the control group were the heaviest (〇.46g), the intra-abdominal injection of the polysaccharide group (〇.36g), and the oral polysaccharide group (lightest (0.27g)). The oral polysaccharide group and the control group reached a significant difference (P &lt; 0.05). The tumor weight of each group was compared with the control group to calculate the tumor inhibition rate, which was 40.58% in the oral polysaccharide group and 21.01% in the intraperitoneal injection polysaccharide group. The inhibitory effect of the polysaccharide composition of the oral group on the tumor was 40. 58 21. 01 Tumor weight (g) 〇6±~〇7〇5~ 〇. 27+ 〇. 〇1 〇. 36± 〇. 〇9 2. Tumor transfer inhibition test of mushroom 蕈 polysaccharides The Lewis lung cancer cells were implanted into the hind legs of mice of C57BL/6 strain. After seven days, the cancer cells in the legs will proliferate and MA (original cancer); From the last three days, the polysaccharide composition of the mushroom mites was fed twice a day. Each group was treated with cobalt 60 for 7 days after the cancer cells were injected for 5 days, and after each group of mice was observed 2 weeks after the treatment. Leg tumors, and sacrificed small ~ gas to 110484 23 200920387 to observe the tumor particles in the lungs. The results of the experiment are shown in Table 2. The mice in the control group (no polysaccharide composition, no radiation treatment) had tumor metastasis 100%, and the average number of lung tumor particles was 12.3; no polysaccharide composition was taken. But the mice that are treated with radiation, then! Tumor metastasis occurs in the sputum, the number of lung tumors is 13.7; the mice taking the polysaccharide composition but not undergoing radiation...the tumor metastasis rate is reduced and the number of lung tumors is also reduced; taking (four) body composition, and In the case of radiotherapy, the tumor metastasis rate was significantly reduced to 12.5%, while the number of lung tumors was reduced to U5. 110484 24 200920387 Control group (not taking composition, not emitting (not taking composition, taking radiation therapy) (taking composition, no radiation therapy) (taking composition for radiation therapy)

肺部腫瘤數 表2、多醣^^物對腫瘤轉移之如^ iTail^ ~T-7Γ7;--·—抑制效果 轉移比率 上述結果證實了本發明菇蕈多醣 服或注射方式,皆具有抗癌之功效:成物無論以口 降低腫瘤轉移。又,同時使用本 ::瘤生長與 (如:放射治療或#物治療),可使产症控制方法 j便抗癌功效更為提昇。 上述實施例僅例示性說明本發明之组成物與製備方 ^ ’而非用於限制本發明。任何熟習此項技藝之人士均可 背本發明之㈣及範訂,對上述實施例進行修飾 圍所載。 蝴呆爛如後述申請專利範 【圖式簡單說明】 第1圖係說明本發明用於純化菇结 與分離膜系統。 “匕…醣體的陶究膜 鼠, 第2圖係說明經口 其顆粒球細胞的吞嗟 服餵食本發明菇蕈多醣體之小 活性。實驗組為每日口服本發明 110484 25 200920387 &gt;輩多醣體(Μ €升,對照組為每日口服鱗酸緩衝液 (PBS)G.l毫升。*表示實驗組與對照組有顯著差豈, Ρ&lt;〇· 05 (AN0VA)。 、 第3圖係說明,經腹腔注射本發明μ葦多醣體之小 鼠,其顆粒球細胞的吞嗟活性。實驗組為每日腹腔注㈣ 輩多醣體針劑0.05毫升,對照組為每曰腹腔注射鱗酸緩 衝液(PBS)G. G5 $升。*表示實驗組與對照組有顯著差 異,P&lt;〇.05 (AN0VA)。 ί :第4圖係說明經口服餵食本發明菇蕈多醣體之小 氣,其^顆粒球細胞的呑噬指數,以平均螢光強度(fi)表 示。實驗組為每日口服本發明菇蕈多醣體毫升,對 照組為每日口㈣酸緩衝液⑽…毫升。*表示實驗 組與對照組有顯著差異,P&lt;〇〇5 (an〇Va)。 第5圖係說明經腹腔注射本發明菇蕈多醣體之小 鼠,$顆粒球細胞的吞嗟指數,以平均營光強度⑺)表 示L實驗組為每日腹腔注射菇蕈多醣體針劑〇.〇5毫升, 對二、、且為母日腹腔注射鱗酸緩衝液() 〇.的毫升。氺表 示實:組與對照組有顯著差異’ p&lt;〇 〇5⑽圖。 ^第」圖係說明經口服餵食本發明菇蕈多醣體之小 二二單核球細胞的呑嗟指數,以平均螢光強度(F1)表 示貝驗組為每日口服本發明菇蕈多醣體丨毫升,對 照組為每日口服磷酸緩衝液(PBS)O.l毫升。*表示實驗 組與對照組有顯著差異,p&lt;〇· 〇5 (an〇va)。 第7圖係說明經腹腔注射本發明菇蕈多醣體之小 110484 26 200920387 鼠,其單核球細胞的吞噬指數,以平均螢光強度(FI)表 示。實驗組為每日腹腔注射菇蕈多醣體針劑0. 05毫升, 對照組為每日腹腔注射磷酸缓衝液(PBS)O. 05毫升。*表 示實驗組與對照組有顯著差異,p&lt;〇.〇5 (AN0VA)。 第8圖係說明經口服餵食本發明菇蕈多醣體四週之 小鼠,其各週之脾臟自然殺手細胞之毒殺活性。實驗組為 每曰口服本發明菇蕈多醣體0. 1毫升,對照組為每曰口 服磷酸緩衝液(PBS)O.l毫升。*表示實驗組與對照組有 顯著差異,P&lt;〇. 05 (AN0VA)。 第9圖係說明經腹腔注射本發明菇蕈多醣體四週之 小鼠,其各週之脾臟自然殺手細胞之毒殺活性。實驗組為 每曰腹腔注射菇蕈多醣體針劑0. 05毫升,對照組為每曰 腹腔注射磷酸緩衝液(PBS)O. 05毫升。氺表示實驗組與對 照組有顯著差異,Ρ&lt;0· 05 (AN0VA)。 第10圖係說明經口服餵食本發明菇蕈多醣體四週之 小鼠,其各週之血液中TNF - α含量(濃度pg/毫升)。實 驗組為每日口服本發明菇蕈多醣體0. 1毫升,對照組為 每曰口服磷酸缓衝液(PBS)O. 1毫升。*表示實驗組與對 照組有顯著差異,P&lt;0. 05 (AN0VA)。 第11圖係說明經腹腔注射本發明菇蕈多醣體四週之 小鼠,其各週之血液中TNF- α含量(濃度pg/毫升)。實 驗組為每日腹腔注射菇蕈多醣體針劑0. 05毫升,對照組 為每曰腹腔注射磷酸緩衝液(PBS)O. 05毫升。*表示實驗 組與對照組有顯著差異,P&lt;0. 05 (AN0VA)。 27 110484 200920387 第12圖係說明經口服餵食本發明菇蕈多醣體四週之 小鼠,其各週之血液中IFN-γ含量(濃度pg/毫升)。實 驗組為每日口服本發明菇蕈多醣體0. 1毫升,對照組為 每曰口服磷酸缓衝液(PBS)O. 1毫升。*表示實驗組與對 照組有顯著差異,P&lt;0. 05 (AN0VA)。 第13圖係說明經腹腔注射本發明菇簟多醣體四週之 小鼠,其各週之血液中IFN- 7含量(濃度pg/毫升)。實 驗組為每日腹腔注射菇蕈多醣體針劑0. 05毫升,對照組 ^為每日腹腔注射磷酸缓衝液(PBS)O. 05毫升。*表示實驗 組與對照組有顯著差異,P&lt;0. 05 (AN0VA)。 28 110484Number of lung tumors Table 2, polysaccharides and tumors for tumor metastasis such as iTail^ ~T-7Γ7;----Inhibition effect transfer ratio The above results confirmed that the mushroom 蕈 polysaccharides of the present invention or injection method have anticancer The effect: the adult reduces the tumor metastasis by mouth. In addition, the use of this tumor growth and (such as: radiation therapy or #物治疗), can make the disease control method j more effective. The above examples are merely illustrative of the compositions and preparations of the present invention and are not intended to limit the invention. Any person skilled in the art can recite the above embodiments in accordance with (4) and the specifications of the present invention. The patent application is as follows. [Simplified illustration of the drawings] Fig. 1 illustrates the use of the present invention for purifying a mushroom knot and a separation membrane system. "匕...The medicinal scorpion of the saccharide body, Fig. 2 illustrates the small activity of the ruminant granule cells of the present invention to feed the ruminant polysaccharide of the present invention. The experimental group is the daily oral administration of the present invention 110484 25 200920387 &gt; Polysaccharide (Μ liter, control group is daily oral sulphate buffer (PBS) Gl ml. * indicates that the experimental group and the control group have significant difference, Ρ &lt; 〇 · 05 (AN0VA)., Figure 3 The mice were injected intraperitoneally with the μ 苇 polysaccharide of the present invention, and the granule cells were swallowed. The experimental group was intraperitoneally injected with (4) polysaccharide injections of 0.05 ml per day, and the control group was intraperitoneally injected with squaric acid buffer per sputum. (PBS) G. G5 $ liter. * indicates that the experimental group is significantly different from the control group, P &lt; 〇.05 (AN0VA). ί : Figure 4 illustrates the oral administration of the ruminant polysaccharide of the present invention, which is ^ The phagocytic index of the granule cells was expressed by the average fluorescence intensity (fi). The experimental group was orally administered with the rumen of the rumen polysaccharide of the present invention per day, and the control group was the daily oral (tetra) acid buffer (10) ML. * indicates the experimental group Significantly different from the control group, P &lt; 〇〇 5 (an 〇 Va). Figure 5 is a description After intraperitoneal injection of the mushroom sputum polysaccharide of the present invention, the phagocytic index of the granule cells was expressed as the average camp light intensity (7), and the L experimental group was intraperitoneally injected with the sputum sputum polysaccharide injection 〇. 〇 5 ml, Second, and for the mother's day intraperitoneal injection of sulphate buffer () 〇. ml. 氺 indicates that the group and the control group are significantly different 'p &lt; 〇〇 5 (10) map. ^ The first diagram illustrates oral feeding of the present invention The anthraquinone index of the small nucleus mononuclear cells of the mushroom polysaccharide, the average fluorescence intensity (F1) indicates that the shell test group is daily oral administration of the mushroom 蕈 polysaccharide 丨 ml, and the control group is daily oral phosphate buffer. Liquid (PBS) Ol ml. * indicates that the experimental group is significantly different from the control group, p &lt; 〇 · 〇 5 (an〇va). Fig. 7 is a graph showing the phagocytic index of mononuclear cells of a small 110484 26 200920387 mouse injected intraperitoneally with the polysaccharide of the mushroom of the present invention, expressed as mean fluorescence intensity (FI). The experimental group was intraperitoneally injected with 0.05 mg of sputum sputum polysaccharide injection, and the control group was intraperitoneally injected with phosphate buffer (PBS) 0.05 ml per day. * indicates that the experimental group is significantly different from the control group, p&lt;〇.〇5 (AN0VA). Fig. 8 is a view showing the toxicity of the spleen natural killer cells of the mice which were orally fed with the mushroom stalk polysaccharide of the present invention. The experimental group was 0.1 ml of the polysaccharide of the present invention, and the control group was 0.1 ml of phosphate buffer (PBS) per mouth. * indicates that the experimental group is significantly different from the control group, P &lt; 〇. 05 (AN0VA). Fig. 9 is a view showing the toxicity of the spleen natural killer cells of the mice which were peri-injected to the mushroom stalk polysaccharide of the present invention by intraperitoneal injection. The experimental group was injected intraperitoneally with a sputum sputum polysaccharide injection 0.55 ml, and the control group was intraperitoneally injected with phosphate buffer (PBS) O. 05 ml.氺 indicates that the experimental group is significantly different from the control group, Ρ &lt;0· 05 (AN0VA). Fig. 10 is a graph showing the TNF-α content (concentration pg/ml) in blood of mice which were orally fed with the mushroom stalk polysaccharide of the present invention. 1毫升。 The test group was orally administered with 0.1% of the oral phosphate buffer (PBS). * indicates that there is a significant difference between the experimental group and the control group, P &lt; 0.05 (AN0VA). Fig. 11 is a view showing the TNF-? content (concentration pg/ml) in the blood of each week of mice which were intraperitoneally injected with the polysaccharide of the mushroom genus of the present invention. The experimental group was intraperitoneally injected with 0.05 ml of rumen polysaccharide injection, and the control group was intraperitoneally injected with phosphate buffered saline (PBS) 0.05 ml. * indicates that the experimental group was significantly different from the control group, P &lt; 0.05 (AN0VA). 27 110484 200920387 Fig. 12 is a diagram showing the IFN-γ content (concentration pg/ml) in blood of mice peri-weekly fed with the mushroom scorpion polysaccharide of the present invention. 1毫升。 The test group was orally administered with 0.1% of the oral phosphate buffer (PBS). * indicates that there is a significant difference between the experimental group and the control group, P &lt; 0.05 (AN0VA). Fig. 13 is a view showing the IFN-7 content (concentration pg/ml) in the blood of each week of mice which were intraperitoneally injected with the polysaccharide of the mushroom genus of the present invention. The experimental group was daily intraperitoneal injection of mushroom sputum polysaccharide injection 0.55 ml, the control group was daily intraperitoneal injection of phosphate buffer (PBS) O. 05 ml. * indicates that the experimental group was significantly different from the control group, P &lt; 0.05 (AN0VA). 28 110484

Claims (1)

200920387 十、申請專利範圍: 1. 一種具有抗癌效用之益覃多聽體組成物,包括: 載體;及 菇蕈多醣體,其中,該菇蕈係選自裂褶菌 (Schizophy 1 lum com/nue)、巴西塵袋(Agarics blaze)、冬表 l % l Cordyceps sinensis)、H (Ganoderma lucidum) 、 雲芝 (Coriolus versicolor)、棒定(Anthodia camphorate)、桑素 (Phe 11 inus linteus )、珊蝴兹(Pleurotus ci trinopi leatus) ' 香兹{Lent inula edodes') ' 松菇〔Agrocyhe aegen· ta )、猴頭兹 i Hericium erinaceus) ' 杏鮑兹(Pleurotus eryngiig~) ' 花瓣 真八 Sparrasis crispa、、^ l Auricularia auricula、、金努兹{ Flammulina velutipes、反 述兹蕈之組合。 2 _如申請專利範圍第1項所述之組成物,其中,該兹蕈 多醣體包括20至35%萃取自裂褶菌與靈芝之多醣 體;25至45%萃取自冬蟲夏草、樟芝、雲芝與巴西 蘑菇之多醣體;以及20至35%萃取自桑黃、珊瑚兹、 香菇、柳松菇、猴頭菇、杏鮑菇、花瓣茸、木茸與金 針菇之多醣體。 3. 如申請專利範圍第1項所述之組成物,係可以注射或 口服的方式,投予至有需要之對象。 4. 如申請專利範圍第1項所述之組成物,其中該載體為 29 110484 200920387 5. 6. 7. 8. 液態、固態或半固態。 如申請專利範園第]項所述之 κ、、且成物,其中該載體為 水。 一種如申凊專利範圍第1項 贫 I Λ ^姑早多醣體的製備方 法,包括: (a) 將菇覃菌絲體液態醱酵,而得菇蕈菌液; (b) 將步私(a)所知的菇蕈菌液均質化並靜置沈 澱’以取得上清液; (c) 以酒精沈澱該上清液並收集沈澱物; (d) 以水/谷解5玄沈殿物,而得水溶液;及 (e) 以陶瓷膜與分離膜系統透析該水溶液,以 得菇蕈多醣體。 X 如申請專利範圍第6項所述之方法,其中該 均質化後靜置18至24小時。 夜 如申請專利範圍第6項所述之方法,其中該酒精為與 上清液等量且濃度為95%之酒精。 月共 ]10484 30200920387 X. Patent application scope: 1. A multi-audio composition with anti-cancer effect, including: carrier; and mushroom polysaccharide, wherein the mushroom is selected from Schizophy 1 lum com/ Nue), Agarics blaze, winter watch l % l Cordyceps sinensis, H (Ganoderma lucidum), Coriolus versicolor, Anthodia camphorate, Phe 11 inus linteus, Shan Pleurotus ci trinopi leatus 'Lent inula edodes' ' 'Agrocyhe aegen· ta ), 'He Hericium erinaceus' ' Pleurotus eryngiig~ ' ' Petal Sparrasis crispa, , ^ l Auricularia auricula, Jinnuz { Flammulina velutipes, a combination of anti-reports. The composition according to claim 1, wherein the polysaccharide comprises 20 to 35% of polysaccharides extracted from Schizophyllum and Ganoderma lucidum; 25 to 45% is extracted from Cordyceps sinensis, Antrodia camphorata, and cloud Polysaccharide of Zhizhi and Brazilian mushrooms; and 20 to 35% of polysaccharides extracted from mulberry, coral, mushroom, willow mushroom, Hericium erinaceus, Pleurotus eryngii, petal velvet, wood velvet and enoki mushroom. 3. The composition described in item 1 of the patent application may be administered to a subject in need, either by injection or orally. 4. The composition of claim 1, wherein the carrier is 29 110484 200920387 5. 6. 7. 8. Liquid, solid or semi-solid. For example, the κ, and the composition described in the patent application section, wherein the carrier is water. A method for preparing a polysaccharide body of the first aspect of the invention is as follows: (a) fermenting the mycelium of the mushroom mycelium to obtain the mushroom liquid; (b) a) Knowing the mushroom sputum liquid homogenization and standing sedimentation 'to obtain the supernatant; (c) precipitating the supernatant with alcohol and collecting the sediment; (d) using water/gluten solution 5 Xuan Shen Temple, And obtaining an aqueous solution; and (e) dialyzing the aqueous solution with a ceramic membrane and a separation membrane system to obtain a mushroom polysaccharide. X. The method of claim 6, wherein the homogenization is allowed to stand for 18 to 24 hours. Night The method of claim 6, wherein the alcohol is an alcohol equivalent to the supernatant and having a concentration of 95%. Month total 10848 30
TW96142958A 2007-11-14 2007-11-14 Composition of mushroom beta-glucan for anti-cancer and preparation method thereof TW200920387A (en)

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Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103549386A (en) * 2013-10-24 2014-02-05 江苏神华药业有限公司 Compound Chinese caterpillar fungus-lucid ganoderma composition and preparation method thereof
CN104072631A (en) * 2014-07-15 2014-10-01 江苏阜丰生物科技有限公司 Method for efficiently extracting antradiacomphora mycelia polysaccharides through submerged fermentation production
TWI730244B (en) * 2018-07-20 2021-06-11 金穎生物科技股份有限公司 Method for using glucan and mushroom polysaccharide composition to promote the activity of natural killer cells or to promote the production of IgA or IgM antibodies

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103549386A (en) * 2013-10-24 2014-02-05 江苏神华药业有限公司 Compound Chinese caterpillar fungus-lucid ganoderma composition and preparation method thereof
CN103549386B (en) * 2013-10-24 2015-09-16 江苏神华药业有限公司 A kind of compound Chinese caterpillar fungus-lucid ganoderma composition and preparation method thereof
CN104072631A (en) * 2014-07-15 2014-10-01 江苏阜丰生物科技有限公司 Method for efficiently extracting antradiacomphora mycelia polysaccharides through submerged fermentation production
TWI730244B (en) * 2018-07-20 2021-06-11 金穎生物科技股份有限公司 Method for using glucan and mushroom polysaccharide composition to promote the activity of natural killer cells or to promote the production of IgA or IgM antibodies

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