TW201103899A - New use of histone deacetylase inhibitors in changing MRJP3 protein in royal jelly - Google Patents

New use of histone deacetylase inhibitors in changing MRJP3 protein in royal jelly Download PDF

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TW201103899A
TW201103899A TW098124823A TW98124823A TW201103899A TW 201103899 A TW201103899 A TW 201103899A TW 098124823 A TW098124823 A TW 098124823A TW 98124823 A TW98124823 A TW 98124823A TW 201103899 A TW201103899 A TW 201103899A
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propolis
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TWI369951B (en
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Chung-Yang Huang
Chia-Nan Chen
Wei-Jung Chen
Wei-Jan Huang
Li-Ling Chi
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Naturewise Biotech & Medicals Corp
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Abstract

The invention provides a method of changing a ratio of 68 to 64 kDa protein of MRJP3 in a royal jelly, a method of producing a royal jelly comprising MRJP3 having a changed ratio of 68 to 64 kDa protein relative to a control royal jelly and the royal jelly produced thereform. Also provided is a method of promoting the growth of the larva of a queen bee comprising feeding the larva of the queen bee a royal jelly of the invention. Further provided is a method of producing bee larva, pupa and queen bees with sizes larger than normal.

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201103899 六、發明說明: 【發明所屬之技術領域】 本發明係關於促進蜂王子(蜂王幼蟲)、蜂王蛹、及蜂王 生長之方法’該方法係透過以組織蛋白去乙醯酶抑制劑 (HDACi)或含有(一或多種)HDAC抑制劑之混合物或配方银 飼年fe工蜂。特定言之’經傲飼HDACi之年輕工蜂所分泌 之蜂王乳中,68及64 kDa MRJP3蛋白質間之比例產生改 變。 【先前技術】 萤蜂為現代農業中最具價值之生物種之一,其生產多種 蜂產品,諸如蜂王乳、蜂蜜、蜂膠與花粉,而這些產品提 供給人類豐富的營養來源(Hellner M紂&amp;丨,2〇〇8)。因此,研 九贫蜂之生長、演化、與發育,是相當重要的課題。 蜜蜂的杜會屬於母系社會,而由蜂王所領導。在蜂群&lt; 中,工蜂與蜂王皆由受精卵所孵化而成;而雄蜂則是由4 受精之卵子孵化生長而成(Winston M. L.,1987)。蜂王將單_ 的印產於蜂巢之個別巢房#令,^三至四天内,產下的目 了孵化出幼蟲。孵化出的幼蟲由年輕工蜂負責餵食,並力 巢房中經由數個發育階段成長。當幼蟲進入化蛹期間時 工蜂會封閉巢房的開口。通常蜂王會於16天内自巢房㈣ 而出’而卫蜂及雄蜂各需21及24天。蜂王個體較大,其』 命是—般工蜂的1(M5倍。受精㈣發育為X蜂或蜂王^ 受到蜂群的調控。原訂,-群蜂只會有—f蜂王1 外’蜂王所食用之食物也有別於同_蜂群中之其他蜂隻; I41899.doc 201103899 蜂王終其一生以蜂王乳為食物,而工蜂只在發育初期食用 蜂王乳。部分學者則認為工蜂於發育期仍食用蜂王乳,只 是其所食用之蜂王乳與蜂王所食用之蜂王乳化學組成可能 不同。無論如何,蜂王乳可視為是延續蜂群最重要的物質 (Robinson G. E. et al., 1987) ° 蜂王乳是蜂王子與蜂王最重要的食物及養分來源,其由 年輕工蜂之咽頭腺與大顎腺所分泌。蜂王乳之化學組成可 能會隨著蜂王子之不同發育階段,而有所改變。整體而 言,一般認為前述蜂王乳之成分改變係源自糖類、而非蛋 白質組成之變化(Peiren N. et al.,2005)。 已知蜂王乳包含多種可促進人體健康之物質,並具有多 樣藥理特性(Takaki-Doi S. et al.,2009; Mannoor Μ· K. et al., 2009; and Gasic S. et al.,2007)。因此,蜂王乳已廣泛用於促 進人類健康之保健產品。最近的研究發現,蜂王乳可以促 進免疫調控(Vuecvic D_ et al.,2007)、抗菌(Boukraa L·, 2008)、滋養月甾神經(Hashimoto M. et al·,2005)、抗癌及抗 氧化(Gou H. et al·,2008)。研究發現烽王乳為乳白色漿狀物 質,其組成為:約60-70%的水份、12-15%的蛋白質、ΙΟ-ΐ 2% 的 糖類, 3-5% 的脂肪 、及多 種微量 元素與 礦物質 (Scarselli R. et al.,2005)。在蛋白質成分當中,約有80-90%屬於水溶性蛋白質,而其餘為非水溶性蛋白質。換言 之,蜂王乳中所含蛋白質成分多為水溶性蛋白質。 在上述水溶性蛋白質中,以MRJP(主要蜂王乳蛋白質, Major Royal Jelly Proteins)家族(MRJP 1-9)為主(SchmitzovaJ· 141899.doc 201103899 et al.,1998)。該等MRJP蛋白質之胺基酸序列雖已經分析, 然而,其所負責之作用及功能尚待研究。 MRJP1被發現於蜜蜂腦部,其可能與蜜蜂行為有關。 MRJP 1佔蜂王乳中水溶性蛋白質之44%,且為所有MRJP家 族蛋白質中含量最高者(Malecova B· et al.,2003)。目前針對 MRJP3之研究為大宗,一般認為其與免疫調控有關(Kohno K. et al., 2004)。MRJP3佔蜂王乳中整體水溶性蛋白質的 12%,且其含量佔所有MRJP蛋白質(MRJPs 1-9)中的第二 位。MRJP3之特點在於其抗過敏其抗發炎活性。又,MRJP 之高多型性基因可導致MRJP3蛋白質變異體(諸如60-70 kDa 蛋白質)之生成(Stefan Albert et al·,1999)。 MRJP蛋白質提供豐富必需胺基酸及其他營養成份 (Furusawa T. et al., 2008)。蜂王乳為蜂王子唯一的營養來 源.,而MRJP蛋白質則是蜂王乳中最重要的蛋白質。因此, 研發具特殊組成之蜂王乳為所需者。 【發明内容】 本發明提供一種方法,經該方法培育之蜜蜂幼蟲相較於 正常幼蟲,重量至少大一倍(100%)、甚至大數倍;經該方 法培育之蜂蛹相較於正常蜂蛹,重量至少大50%、甚至大 一至數倍;經該方法培育之蜂王相較於正常蜂王,重量至 少大50%、甚至大一至數倍。 本發明提供一種培育相較於對照組幼蟲,重量至少大一 倍(100%)之蜜蜂幼蟲之方法;該方法包括以一種HDAC抑 制劑或數種HDAC抑制劑之混合物餵飼年輕工蜂,並以該 141899.doc 201103899 等年輕工蜂所分泌之蜂王乳餵飼幼蟲。其中對照組之幼蟲 / 所食用之蜂王乳,係由未餵飼HDAC抑制劑或數種HDAC抑 制劑之混令物之年輕工蜂所分泌。 本發明提供一種培育相較於對照組蜂蛹,重量至少大 50%之蜂蛹、或相較於對照組蜂王,重量至少大50%之蜂王 之方法;該方法包括以一種HDAC抑制劑或數種HDAC抑制 劑之混合物餵飼年輕工蜂,並以該等年輕工蜂所分泌之蜂 王乳餵飼幼蟲,而獲得由該幼蟲所發育而成之蛹或蜂王, 其中對照組之蛹或蜂王係由食用未餵飼HDAC抑制劑或數 種HDAC抑制劑混合物之年輕工蜂所分泌之蜂王乳的蜜蜂 幼蟲發育而成。 本發明另提供一種蜂王乳,其所含68 kDa及64 kDa MRJP3蛋白質之比例相較於對照組蜂王乳有所改變。 本發明另提供一種調控工蜂基因之表觀遺傳 (epigenetics)之方法,其包括以HDAC抑制劑餵飼工蜂以調 控工蜂之基因表現。 【實施方式】 本發明發現餵飼一種HDAC抑制劑或數種HDAC抑制劑混 合物之工蜂所撫育的蜜蜂幼蟲,可快速成長並發育為大個 體之幼蟲、蛹、或蜂王。該蜜蜂幼蟲可具有大於正常幼蟲 至少一倍(100%)甚至數倍之重量;該蛹可具有大於正常蛹 至少50%甚至一至數倍之重量;而該蜂王可具有大於正常 蜂王至少50%甚至一至數倍之重量。 本發明發現一種HDAC抑制劑或數種HDAC抑制劑之混合 141899.doc -6- 201103899 物可透過表觀遺傳方式改變蜂王乳中68及64 kDa肘以”蛋 白質之比例。經餵飼一種HDAC抑制劑或數種hdac抑制劑 之混合物之年輕工蜂可透過表觀遺傳分泌特殊之蜂王乳, 其中該蜂王乳中之68 kDa及64伽蛋白質之比例經改變。 蜂王礼係蜂王子及蜂王之主要食物。本發明發現特殊蜂王 $可促進食用該蜂王乳之蜂王子之生長,並使蜂王子及發 育自該蜂王?的踊及蜂王之重量顯著增加。 旦在一方面,本發明提供一種培育相較於對照組幼蟲,重 量至少大-倍(100%)之蜜蜂幼蟲之方法,·該方法包括以一 種H D A C抑制劑或數種H D A c抑制劑之混合物㈣年輕工 蜂並以該等年輕工蜂所分泌之蜂王乳假飼蜜蜂幼蟲;其 中對照組之幼蟲所食用之蜂王乳’係由未傲飼舰⑽制 T或數種HDAC抑制劑之混合物之年輕工蜂所分泌。根據 ^發明之實施方式之一,蜜蜂幼蟲可由工蜂以其所分泌之 手王礼飯飼,或由人類以收集自工蜂之蜂王乳儀飼。根據 S明之實施方式之一,餵飼以前述蜂王乳之幼蟲重量在 :小時候增加Μ倍以上。較佳地,重量增加約⑴倍。更 ^地’重量增加約3至5倍。根據本發明,上述蜂王乳所包 王Ί音心及64 ^ MRJP3蛋白質比例,相較於對照組蜂 王乳業經改變。 ^本發明’自本發明蜜蜂幼蟲發育而成之蛹及蜂王, 本發日以 蜗及蜂王,分別具有較高之重量。據此, 本發月供&gt; 種讲畜士 B私+ 人 。 父於對照組蜂蛹,重量至少大50% 蜂蜗、或相較於對照組蜂王,重量至少大5。%之蜂王之 141899.doc 201103899 方法;該方法包括以一種HDAC抑制劑或數種HDAC抑制劑 之混合物餵飼年輕工蜂,並以該等年輕工蜂所分泌之蜂王 乳餵飼幼蟲,而獲得由該幼蟲所發育而成之蛹或蜂王;其 中對照組之蛹或蜂王,係由食用未餵飼以一種HDAC抑制 劑或數種HDAC抑制劑混合物之年輕工蜂所分泌之蜂王乳 的蜜蜂幼蟲發育而成。根據本發明之實施方式之一,蜜蜂 幼蟲可由工蜂以其所分泌之蜂王乳餵飼,或由人類以收集 自工蜂之蜂王乳餵飼。 在一方面,本發明提供一種改變蜂王乳中68 kDa及64 kDa MRJP3蛋白質之比例的方法,其包括一種HDAC抑制劑 或數種HDAC抑制劑混合物餵飼年輕工蜂,以生產相較於 對照組蜂王乳,68 kDa及64 kDa MRJP3蛋白質比例經改變 之蜂王乳。 在另一方面,本發明提供一種生產蜂王乳之方法,其中 相較於對照組蜂王乳,該蜂王乳所含68 kDa及64 kDa MRJP3蛋白質之比例經改變,該方法包括以一種HDAC抑制 劑或數種HDAC抑制劑混合物餵飼年輕工蜂,並收集由該 等年輕工蜂所生產之蜂王乳。 在另一方面,本發明提供一種蜂王乳,其所含68 kDa及 64 kDa MRJP3蛋白質之比例相較於對照組蜂王乳經改變。 根據本發明,68 kDa與64 kDa MRJP3蛋白質之比率可增 加約1.5至12倍、1.5至5倍、2-6倍、2-10倍、4-12倍、或2-4 倍(相較於對照組)。更佳地,68 kDa與64 kDa MRJP3蛋白 質之比率可增加約1.5至約5倍、或2至10倍(相較於對照 141899.doc 201103899 組)。更佳地,68 kDa與64 kDa MRJP3蛋白質之比率可增加 約2至4倍、或約4至1〇倍(相較於對照組)。 在另一方面,本發明提供一種調控工蜂^基因之表觀 遺傳之方法,其包括以HDAC抑制劑或數種hdac抑制劑混 合物饒飼工蜂,以調控工蜂之所加基因表現。根據本發 明,前述表觀遺傳可為對DNA曱基化或HDAC之抑制。 DNA甲基化為一種表觀遺傳改變,其不改變dna序列、可 經遺傳、並可改變基因表現。DNA甲基化為可誘發可遺傳 之基因靜默(gene silencing)之共價修飾,其可以兩種方式 之誘發靜默現象。其-,甲基化作用可直接干擾轉錄因 子與DNA上辨識位置間的結合;其二,甲基&lt;?(}結合區域 蛋白質(methyl-CpG binding domain proteins,MBPs)可藉由 聚集補助抑制體(CO-repressor)複合物(其内含組織蛋白去乙 醯酶或組織蛋白曱基轉移酶而強化前述靜默現象(Juile c. Kiefer,2007)。HDAC抑制劑既可改變年輕工蜂之68及64 kDa MRJP3蛋白質之表現,推測HDAC抑制劑可調控組織蛋 白之過度乙醯化(hyperacetylation),並影響年輕工蜂之多 型性mrjp3基因剪接(gene splicing)及轉譯作用。 本文中,用語「烷基」代表直或分支烴鏈;烷基較佳為 Cl-IQ烧基。較佳地’院基之碳數選自由1至8組成之群;更佳 地’其為Ci_6炫基或Cl·4炫基。炫基之實例包括甲基(_Cpj3)、乙 基(-CH2CH3)、丙基(-CH2CH2CH3)、異丙基((CH3)2CH)及丁 基(-C4H9)。 本文中’用語「婦基」代表直或支鏈之不飽和烴基,其中 [5; 141899.doc _9- ^ ' 201103899 不飽和為雙鍵。根據本發明,烯基包括—或多個雙鍵。稀基 較佳為&lt;:2·〗6烯基。更佳地,烯基之碳數選自由2至12組成之 群稀基之貫例包括乙稀基(-CH=CH2)、丙稀基(_ch=chCH3 或 CI^CH CH2) 丁;基(_CH2CH=CHCH3 或 _CH=CHCH2CH3 或_ CH2CH2CH=CH2) . -CH2CH=C(CH3) ch3 . -ch2-ch=ch-ch, CH2-CH=CH-CH3^-CH2-CH=C(CH3)-CH2-CH2-CH=C(CH3)-CH3〇 本文中,用語「環烷基」代表脂肪族環(飽和碳環)。較 佳地,環烷基之碳數選自由3至8組成之群;更佳地,環烷 基之碳數選自由5至6組成之群。環烷基之實例包括環: 基、環丁基、環戊基及環己基。 、本:中:用語「不飽和碳環」包括由碳原子及氫原子組 成,衣取代基,且¥狀部分為不飽和環,例如芳基或環稀 基等。用豸「環烯基」包括屬具有—或多個雙鍵之環烧基 之稀基,例如環丙稀基(如W丙稀基)、環丁稀基(如i環 丁料)、環戊烯基(如b環戊稀小基、2_環戊婦小基、及 3 -環戊烯-1 -基)、環,膝| )衣己烯基(如1-環己烯-i-基、2_環己烯 基、及3-環己烯-1_基)、環 庚烯基(如1-¾庚烯基)、環辛基201103899 VI. Description of the Invention: [Technical Field of the Invention] The present invention relates to a method for promoting the growth of a bee prince (a bee larvae), a bee venom, and a queen bee. The method is a tissue protein deacetylase inhibitor (HDACi). Or a mixture or formula containing one or more HDAC inhibitors. In particular, the ratio between the 68 and 64 kDa MRJP3 proteins was changed in the royal jelly secreted by the young worker bee hung by HDACi. [Prior Art] Fire bee is one of the most valuable species in modern agriculture. It produces a variety of bee products, such as royal jelly, honey, propolis and pollen, which provide a rich source of nutrients for humans (Hellner M纣&amp ;丨, 2〇〇8). Therefore, it is a very important topic to study the growth, evolution, and development of the poor bee. The bee's Duhui belongs to the matriarchal society and is led by the queen bee. In bee colony, worker bees and queen bees are hatched by fertilized eggs; and drones are grown by 4 fertilized eggs (Winston M. L., 1987). The queen bee will print the _ of the individual nest in the hive #令, ^ three to four days, the hatched larvae. The hatched larvae are fed by young worker bees and grow through several developmental stages in the nest. Worker bees will close the opening of the nest when the larva enters the pupation period. Usually, the queen bee will come out of the nest (four) within 16 days, while the guard bee and the drone will take 21 and 24 days each. The queen bee is larger, and its life is 1 (M5 times of the worker bee. Fertilization (4) develops into the X bee or the queen bee ^ is regulated by the bee colony. Originally, the group bee will only have - f queen 1 outside the bee king The foods eaten are also different from other bees in the same group. I41899.doc 201103899 The queen bee always uses royal jelly for food, while worker bees only eat royal jelly at the beginning of development. Some scholars believe that worker bees still eat during development. Royal Jelly, but the chemical composition of the royal jelly that it eats and the queen bee may be different. In any case, royal jelly can be regarded as the most important substance to continue the bee colony (Robinson GE et al., 1987) ° Royal jelly is The most important food and nutrient source of the bee prince and the queen bee is secreted by the pharyngeal glands and the large salivary glands of the young worker bees. The chemical composition of the queen bee may change with the different developmental stages of the bee prince. It is generally believed that the compositional changes of the aforementioned royal jelly are derived from changes in carbohydrates rather than protein composition (Peiren N. et al., 2005). It is known that royal jelly contains a variety of substances that promote human health and Various pharmacological properties (Takaki-Doi S. et al., 2009; Mannoor Μ K. et al., 2009; and Gasic S. et al., 2007). Therefore, royal jelly has been widely used to promote human health care. Products. Recent studies have found that royal jelly can promote immune regulation (Vuecvic D_ et al., 2007), antibacterial (Boukraa L., 2008), nourish the lunar nerve (Hashimoto M. et al., 2005), anti-cancer and Antioxidant (Gou H. et al., 2008). The study found that 烽王乳 is a milky white pulpy substance with a composition of about 60-70% water, 12-15% protein, and ΙΟ-ΐ 2%. Carbohydrates, 3-5% fat, and a variety of trace elements and minerals (Scarselli R. et al., 2005). Among the protein components, about 80-90% are water-soluble proteins, while the rest are water-insoluble proteins. In other words, the protein components contained in the royal jelly are mostly water-soluble proteins. Among the above water-soluble proteins, MRJP (Major King Jelly Proteins) family (MRJP 1-9) is dominant (Schmitzova J. 141899. Doc 201103899 et al., 1998). Amino groups of these MRJP proteins Although the sequence has been analyzed, its role and function are still to be studied. MRJP1 was found in the brain of bees, which may be related to bee behavior. MRJP 1 accounts for 44% of the water-soluble protein in the queen's milk, and is all MRJP The highest content of family proteins (Malecova B. et al., 2003). The current study on MRJP3 is a large-scale study and is generally considered to be involved in immune regulation (Kohno K. et al., 2004). MRJP3 accounts for 12% of the total water-soluble protein in the royal jelly, and its content accounts for the second of all MRJP proteins (MRJPs 1-9). MRJP3 is characterized by its anti-allergic anti-inflammatory activity. Furthermore, the highly polymorphic gene of MRJP can result in the production of MRJP3 protein variants (such as 60-70 kDa protein) (Stefan Albert et al., 1999). The MRJP protein provides a rich essential amino acid and other nutrients (Furusawa T. et al., 2008). Royal Jelly is the only source of nutrition for the bee prince. MRJP protein is the most important protein in the royal jelly. Therefore, the development of a special composition of royal jelly is required. SUMMARY OF THE INVENTION The present invention provides a method in which bee larvae grown by the method are at least twice as large (100%) or even several times larger than normal larvae; the bee stings cultivated by the method are compared with normal bees.蛹, the weight is at least 50%, or even one to several times; the bee king cultivated by this method is at least 50% larger, or even one to several times larger than the normal queen. The present invention provides a method of cultivating bee larvae at least twice as large (100%) as compared to a control larva; the method comprises feeding a young worker bee with a mixture of HDAC inhibitors or several HDAC inhibitors, and The 141899.doc 201103899 and other young worker bees secrete the royal jelly to feed the larvae. The larvae of the control group / the royal jelly consumed by the larvae were secreted by young worker bees who were not fed HDAC inhibitors or a mixture of several HDAC inhibitors. The present invention provides a method for cultivating bee stings having a weight of at least 50% greater than that of a control bee sting, or a bee king having a weight of at least 50% greater than that of a control bee king; the method comprising using an HDAC inhibitor or number a mixture of HDAC inhibitors is fed to young worker bees, and the larvae are fed by the queen bee secreted by the young worker bees to obtain the cockroaches or queen bees developed by the larvae, wherein the control group or the queen is consumed by the larvae Bee larvae of queen bee secreted by young worker bees that are not fed HDAC inhibitors or several HDAC inhibitor mixtures. The present invention further provides a royal jelly having a ratio of 68 kDa and 64 kDa MRJP3 protein which is different from that of the control group. The invention further provides a method of regulating epigenetics of a worker bee gene comprising feeding a worker bee with an HDAC inhibitor to control the gene expression of a worker bee. [Embodiment] The present invention has found that bee larvae bred by worker bees fed a HDAC inhibitor or a mixture of several HDAC inhibitors can rapidly grow and develop into large larvae, pupa, or queen bee. The bee larvae may have a weight that is at least twice (100%) or even several times greater than a normal larva; the cockroach may have a weight greater than at least 50% or even one to several times greater than normal cockroaches; and the queen bee may have at least 50% greater than a normal queen, or even One to several times the weight. The present invention finds that a HDAC inhibitor or a mixture of several HDAC inhibitors 141899.doc -6- 201103899 can change the ratio of protein to 68 and 64 kDa elbow in the royal jelly by epigenetic means. After feeding a HDAC inhibition Young worker bees with a mixture of agents or several hdac inhibitors can secrete special royal jelly by epigenetic, wherein the ratio of 68 kDa and 64 gamma in the royal jelly is changed. The main food of the queen bee prince and queen bee The present invention finds that the special queen bee can promote the growth of the bee prince who is eating the queen bee, and significantly increase the weight of the bee prince and the cockroach and queen bee that develops from the queen bee. In one aspect, the present invention provides a breeding comparison a method for control larvae, at least one-fold (100%) by weight of bee larvae, the method comprising a mixture of an HDAC inhibitor or several HDA c inhibitors (4) young worker bees and secreted by the young worker bees Royal Jelly is a fake bee larvae; the royal jelly of the control larvae is a young worker bee that is not a mixture of T or several HDAC inhibitors. According to one of the embodiments of the invention, the bee larvae can be fed by the worker bees with the hand secreted by the worker bees, or by the human beings with the bee king milk collected from the worker bees. According to one of the embodiments of the invention, the feeding is The weight of the larvae of the aforementioned royal jelly is increased by more than Μ times when it is small. Preferably, the weight is increased by about (1) times. Further, the weight is increased by about 3 to 5 times. According to the present invention, the above-mentioned royal jelly is included in the heart of the king. The ratio of MRJP3 protein was changed compared with the control group. The invention was made from the larvae of the bee larvae of the present invention and the queen bee, which has a higher weight respectively. The present month is for the yaw of the sergeant B private + person. The father is in the control group of bee stings, the weight is at least 50%, the bee worm, or the bee king compared to the control group, the weight is at least 5. 5% of the queen bee 141899.doc 201103899 Method; the method comprises feeding a young worker bee with a mixture of an HDAC inhibitor or a plurality of HDAC inhibitors, and feeding the larva with the royal jelly secreted by the young worker bees to obtain the larvae developed by the larvae Or queen bee; The cockroach or queen bee of the control group is developed by eating bee larvae which are not fed with royal jelly secreted by a young worker bee with an HDAC inhibitor or a mixture of several HDAC inhibitors. According to one of the embodiments of the present invention, The bee larvae can be fed by the worker bees with the royal jelly secreted by the worker bees, or by humans with the royal jelly collected from the worker bees. In one aspect, the present invention provides a method for changing the proportion of 68 kDa and 64 kDa MRJP3 proteins in the royal jelly. It includes an HDAC inhibitor or a mixture of several HDAC inhibitors to feed young worker bees to produce a royal jelly with a modified ratio of 68 kDa and 64 kDa MRJP3 protein compared to the control queen jelly. In another aspect, the present invention provides a method of producing royal jelly, wherein the ratio of the 68 kDa and 64 kDa MRJP3 proteins contained in the royal jelly is changed compared to the control royal jelly, the method comprising an HDAC inhibitor or Several HDAC inhibitor mixtures were fed to young worker bees and the royal jelly produced by the young worker bees was collected. In another aspect, the present invention provides a royal jelly having a ratio of 68 kDa and 64 kDa MRJP3 protein that is altered compared to the control queen bee. According to the present invention, the ratio of 68 kDa to 64 kDa MRJP3 protein can be increased by about 1.5 to 12 times, 1.5 to 5 times, 2 to 6 times, 2 to 10 times, 4 to 12 times, or 2-4 times (compared to Control group). More preferably, the ratio of 68 kDa to 64 kDa MRJP3 protein can be increased by about 1.5 to about 5 times, or 2 to 10 times (compared to the control 141899.doc 201103899 group). More preferably, the ratio of 68 kDa to 64 kDa MRJP3 protein can be increased by about 2 to 4 fold, or about 4 to 1 fold (compared to the control group). In another aspect, the invention provides a method of regulating the epigenetic inheritance of a worker bee gene comprising the use of a HDAC inhibitor or a mixture of several hdac inhibitors to feed worker bees to regulate the gene expression of the worker bees. According to the present invention, the aforementioned epigenetics may be inhibition of DNA thiolation or HDAC. DNA methylation is an epigenetic change that does not alter the DNA sequence, can be inherited, and can alter gene expression. DNA methylation is a covalent modification that induces heritable gene silencing, which can induce silence in two ways. The methylation can directly interfere with the binding between the transcription factor and the recognized position on the DNA; second, the methyl-CpG binding domain proteins (MBPs) can be inhibited by aggregation subsidies. CO-repressor complex (which contains tissue protein deacetylase or tissue protein thiol transferase to enhance the aforementioned silent phenomenon (Juile c. Kiefer, 2007). HDAC inhibitors can change young worker bees 68 and The performance of the 64 kDa MRJP3 protein suggests that HDAC inhibitors can regulate the hyperacetylation of tissue proteins and affect the gene splicing and translation of polymorphic mrjp3 genes in young worker bees. </ RTI> represents a straight or branched hydrocarbon chain; the alkyl group is preferably a Cl-IQ alkyl group. Preferably, the carbon number of the 'housing base is selected from the group consisting of 1 to 8; more preferably 'it is Ci_6 炫 or Cl·4 Examples of glazing groups include methyl (_Cpj3), ethyl (-CH2CH3), propyl (-CH2CH2CH3), isopropyl ((CH3)2CH), and butyl (-C4H9). "Wool" stands for a straight or branched unsaturated hydrocarbon group, of which [5; 141 899.doc _9- ^ ' 201103899 Unsaturated as a double bond. According to the invention, the alkenyl group includes - or a plurality of double bonds. The dilute group is preferably a &lt;: 2 · 6 alkenyl group. More preferably, an alkenyl group Examples of the carbon number selected from the group consisting of 2 to 12 include ethylene (-CH=CH2), acryl (_ch=chCH3 or CI^CH CH2); base (_CH2CH=CHCH3 or _CH= CHCH2CH3 or _CH2CH2CH=CH2) . -CH2CH=C(CH3) ch3 . -ch2-ch=ch-ch, CH2-CH=CH-CH3^-CH2-CH=C(CH3)-CH2-CH2-CH= C(CH3)-CH3〇 As used herein, the term "cycloalkyl" denotes an aliphatic ring (saturated carbocyclic ring). Preferably, the carbon number of the cycloalkyl group is selected from the group consisting of 3 to 8; more preferably, the ring The carbon number of the alkyl group is selected from the group consisting of 5 to 6. Examples of the cycloalkyl group include a ring: a group, a cyclobutyl group, a cyclopentyl group, and a cyclohexyl group. This: The term "unsaturated carbocyclic ring" includes carbon. The atom and the hydrogen atom are composed of a substituent, and the ? moiety is an unsaturated ring, such as an aryl group or a cycloaliphatic group, etc. The "cycloalkenyl group" includes a ring of a cyclized group having one or more double bonds. Base, such as cyclopropyl (such as W propylene), cyclobutyl (such as i ring , cyclopentenyl (such as b cyclopentanyl, 2-cyclopentanyl, and 3-cyclopenten-1-yl), ring, knee |) hexenyl (such as 1-cyclohexene) -i-yl, 2_cyclohexenyl, and 3-cyclohexene-1_yl), cycloheptenyl (such as 1-3⁄4 heptenyl), cyclooctyl

(女1_ί衣辛基)等。尤盆I Α κ ,、佳為1_環己烯-1-基、2-環己烯 基、及弘環己烯_1_基。用达「 中至少一戸Α — 方基」包括単一或稠合環(其 /為方⑷’例如笨基、萘基、及四氫莽基。 本文中’用語「5-員或6昌你m if « ^ φ ^ ^ ,—貝雜裱」為5或ό個原子的環狀 衣具中J哀中的至少一他!広7 1 可為芳香或非芳承於甘 雜原子。5·員或6_員雜環 β白:¾非方香私,其 子係選自N、〇及S。雜:或未飽和。較佳地,雜原 '、1长的貫例包括,但不限於,呋喃基 141899.doc 201103899 (如2-呋喃基、3-呋喃基)、噻吩基(如2-嘧吩基、3_p塞吩 基)、吡咯基(如1_吡咯基、2-吡咯基、3-吡咯基)' 咪唑基 (如1 -味β坐基、2 β米》坐基、4 -味β坐基)、p比。坐基(如1 _ p比唾基、 3-吡唑基、4-吡唑基)、三唑基(如丨,2,4_三唑_丨_基、i,2,4三 0坐-3-基、1,2,4-二。坐-4-基)、四u坐基(如1_四π坐基、2_四〇坐 基、5 -四°坐基)、ρ号β坐基(如2 -1»号《坐基、2 - β号。坐基、5 - ρ号ο坐 基)、異噚唑基(如3-異呤唑基、4-異呵唑基、5_異$ D坐 基)' 噻唑基(如2-嘧唑基、4-嶁唑基、5-噻唑基)、噻二唑 基、異嘧唑基(如3-異嘧唑基、4-異嘧唑基、5-異p塞唑基)、 吡啶基(如2-吡啶基、3_吡啶基、4_吡啶基)' 嗒p井基(如3_嗒 畊基、4-嗒畊基)、嘧啶基(如2_嘧啶基、4嘧啶基' 5_嘧啶 基)、呋咕基(如3-呋咕基)、吡畊基(如2_吡畊基)、噚二唑基 (如1,3,4-号二唑_2_基)、丨_吡咯p林基、2_吡咯p林基、弘吡咯 林土 比各唆、2 - p比洛咬基、3 - p比洛唆基、1 -咪唾u林基、2 _ 米坐林基、4-咪哇P林基、^咪峻咬基、2_咪峻咬基、米唾 啶基1_吡唑啉基、3-吡唑啉基、4-吡唑啉基、1-吡哇啶 基3-吡唑啶基、4-吡唑啶基、N_六氫吡啶基、2_六氫吡 氫峨咬基、4_六氫P比咬基、六氫?比畊基、六氯 p比畊基、3 -丄θ # , ,、風P比井基、咪啉基、四氫哌喃基或其類似 物。 木文 Φ ,用語「鹵素」代表氟、氣、溴及碘。 本文中 , ’用語「醫藥上可接受鹽」包括彼等與有機或無 機酸或鹼所&gt;、土 … 形成者。醫藥上可接受酸加成鹽包括彼等與礦 物酸(如氫氣 卜 礼心、虱溴酸、硫酸及磷酸)或有機酸(如檸檬 141899.doc 201103899 酸、酒石酸、乳酸、丙酮酸'乙酸、三氟乙酸、琥珀酸、 草酸、曱酸、反丁烯二酸、蘋果酸、草醋酸、曱烷磺酸、 乙烷磺酸、P-甲笨磺酸、笨磺酸及羥乙基磺酸)形成者。醫 藥上可接受鹼鹽包括銨鹽、鹼金屬鹽(如彼等之鈉及鉀 鹽)、鹼土金屬鹽(如彼等之鈣及鎂鹽)及有基鹼鹽(包括一 級、二級及三級胺鹽)。 本文中,用語「前藥」代表一化合物在身體内轉變(例如 在血液中水解)成其具有醫療效果的活性形式。 本文中,用S吾「溶劑化物」代表包括本發明化合物及溶 劑的複合物,其中他們反應或他們自其沉澱或結晶。 本文中,用語「立體異構物」為異構物分子,其分子連 接相同但分子的空間排列不同β 本文中,用浯「鏡像異構物」代表彼此僅具有鏡像結構 關係但無法令其互相重疊一致的立體異構物,如一個人的 左手及右手是相同但相反的。 本文中’用语「工峰」為缺乏蜂群蜂王的完全繁殖能力 的雌峰;在大部分情況下,其與蜂王的非繁殖活動增加有 關。峰卵個別產卵於臘質蜂巢的巢室中,其由工峰製造並 成型。蜂王子㈣讀食卫蜂生產的蜂王乳,接著傲食蜂蜜 及化粉。&lt;列外為蜂王子緩慢餵食蜂王乳,其㈣育成蜂 王。在巢室内結繭I,蜂玍子進行數次蛻變並變成蛹。雄 蜂自未受精的即孵化出,雌蜂(蜂王及工蜂)自授精即孵化 出。蜂王可選擇使卵授精,通常視產印處的蜂巢而定。年 輕工蜂清潔蜂巢並傲食蜂王子。t蜂王乳生產腺萎縮,他 141899.doc 12 201103899 們開始建造蜂巢室。當他們較年長,他們進行其他蜂群内 的任務,如採花蜜及花粉並捍衛蜂巢。接著,工蜂認巢飛 行,最後離開蜂巢並擔任外勤蜂。 本文中,用語「蜂王乳」為蜜蜂分泌物,用於滋養蜂王 子。其分泌自位於年輕工蜂頭部的下咽頭腺(hypopharyngeal gland)並用於餵食蜂群中的蜂王子。 根據本發明,HDAC為一種酶,其藉由選擇性去乙醯化 位於接近核心組蛋白胺端的離胺酸ε-胺基而影響轉錄。 HDAC抑制劑正成為治療固態及血液惡性疾病的新一類抗 癌劑。本發明未預期地發現HDAC抑制劑影響年輕工蜂生 產的蜂王乳的MRJP3的68 kDa及64 kDa的表現。根據本發 明,HDAC抑制劑包括,但不限於,四類HDAC抑制劑:短 鏈脂肪酸、羥肟酸、苄醯胺及環狀肽,如Medicinal Research Reviews, Vol. 26,No. 4,ρρ· 397-413,2006戶斤報導;如 Journal of the National Cancer Institute, Vol. 92, No. 15, August 2,2000,pp. 1210-1216所提及以經將酸為主的雜合 極性化合物(1^(:);美國第6,174,905號專利、丑? 0847992、 JP 258863/96 及 Japanese Application No. 10138957所述之苄 醯胺衍生物;WO 01/38322中之化合物;苄醯胺M344(Hum Genet,2006,120,ρρ· 101-110) ; 丁酸鈉(sodium butyrate) (Human Molecular Genetics, 2004, Vol. 13, No. 11, pp. 1183-1192) ; Trichostatin A (Molecular Cancer 2006, 5:8 ;此文獻可得 自 http://www.molecular-cancer.eom/content/5/l/8 ;美國第 7,169,801號專利揭露之具有式Z-Q-L-M或Z-L-M的化合物; 141899.doc -13 - 201103899 美國第6,888,027所述包括PXD101之磺醯胺化合物;歐洲第 1 301 184所述之丙戊酸(valproic acid)及其衍生物;Ν,Ν'-六 亞曱基二乙醯胺(hexamethylene bisacetamide,ΗΜΒΑ);美 國第6,087,367及RE 38506所述之與HMBA相關的化合物; 美國第7,399,787所揭露之有關HMBA的化合物,如 suberoylanilide hydroxamic acid (SAHA) ; Blood, 1 October 2003, Vol. 102, No· 7, pp. 2615-2622所報導的 NVP-LAQ824(羥肟酸衍 生物)及 NVP-LAQ824 (4-aminomethylcinnamic hydroxamic acid的衍生物);藉由誘發細胞凋亡誘導生長抑制及腫瘤細 胞株退化並作為抗癌劑進行第一期臨床試驗測試的 LBH589(Blood 105(4): 1768-76 February 15, 2005);美國第 11/855416及12/418373專利申請案提及的化合物;蜂膠;蜂 膠素及美國第20080242648號公開案提及的化合物,包括 pyroxamide、M-carboxycinnamic acid bishydroxamide (CBHA)、 trichostatin A (TSA)、trichostatin C、salicylihydroxamic acid (SBHA)、 azelaic bishydroxamic acid (ABHA) 、azelaic-1 -hydroxamate-9-anilide (AAHA) ' 6-(3-chlorophenylureido) carpoic hydroxamic acid (3Cl-UCHA)、oxamflatin、A-161906、scriptaid、PXD-101、cyclic hydroxamic acid-containing peptide (CHAP)、ITF-2357、MW2796、 MW2996、trapoxin A、FR901228 (FK 228 或 Depsipeptide)、 FR225497、apicidin、CHAP、HC-toxin、WF27082、chlamydocin、 sodium butyrate ' isovalerate ' valerate ' 4-phenylbutyrate (4-PBA) ' 4-phenylbutyrate sodium (PBS)、arginine butyrate 、 propionate、 butyramide ' isobutyramide ' phenylacetate ' 3-bromopropionate ' 141899.doc -14- 201103899 tributyrin ' valproic acid、valproate, CI-994、MS-27-275之3’-胺衍 生物、MGCD0103及Depudecin。此中所引用的公開文獻並 入此中作為參考。 根據本發明之一具體實施例,用於此中的HDAC抑制劑 為下式(I)所代表的化合物:(female 1_ί 衣辛基) and so on.尤盆 I Α κ , preferably 1_cyclohexen-1-yl, 2-cyclohexenyl, and hongcyclohexene-1-yl. The use of at least one of the "squares" includes a condensed or fused ring (its / square (4)' such as stupid, naphthyl, and tetrahydroindenyl. In this article 'the term '5-member or 6 Chang you m if « ^ φ ^ ^ , - 贝 裱 裱 为 为 为 为 为 为 为 为 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少 至少Or 6_member heterocyclic β white: 3⁄4 non-fragrance, whose sub-system is selected from N, 〇 and S. Miscellaneous: or unsaturated. Preferably, the heterogeneous ', 1 long example includes, but not Limited to furyl 141899.doc 201103899 (eg 2-furyl, 3-furyl), thienyl (eg 2-pyrimenyl, 3_p-septyl), pyrrolyl (eg 1-pyrrolyl, 2-pyrrolyl) , 3-pyrrolyl) 'imidazolyl (such as 1-flavored β-spinyl, 2 β-m.), 4-pyranyl β-based, p-ratio. Sit-based (eg, 1 _ p than spyryl, 3-pyridyl) Azolyl, 4-pyrazolyl), triazolyl (such as hydrazine, 2,4-triazole-hydrazine-based, i, 2,4, 3-oxan-3-yl, 1,2,4-di. -4-base), four u sitting bases (such as 1_four π sitting base, 2_four squat base, 5 - four ° sitting base), ρ number β sitting base (such as 2 -1» "sitting base, 2 - β number. Sitting base , 5 - ρ ο 坐 base), isoxazolyl (eg 3-isoxazolyl, 4-isoxazolyl, 5 _$ D sitting) 'thiazolyl (eg 2-pyrazolyl, 4 - carbazolyl, 5-thiazolyl), thiadiazolyl, isoxazolyl (eg 3-isopyrazolyl, 4-isopyrazolyl, 5-iso-pyrazolyl), pyridyl (eg 2 -pyridyl, 3-pyridyl, 4-pyridyl)' 嗒p well (eg, 3 嗒 、, 4-嗒 基), pyrimidinyl (eg 2 -pyrimidinyl, 4 pyrimidinyl 5 -pyrimidine) Base), furazinyl (such as 3-furazyl), pyridinyl (such as 2_pyrroxy), oxadiazolyl (such as 1,3,4-diazole-2-yl), 丨_ Pyrrole p-based, 2_pyrrole p-linyl, pylorium forest, bismuth, 2 - p piroxime, 3 - p than fluorenyl, 1 -mi salivin, 2 _ m , 4-miwa P Linji, ^Mijun biting base, 2_imitonbite, rice succinyl 1_pyrazolyl, 3-pyrazolyl, 4-pyrazolyl, 1-pyridyl Wahridyl 3-pyrazolidinyl, 4-pyrazolidine, N-hexahydropyridyl, 2-hexahydropyridinium, 4-hexahydro-P-bite, hexahydro? Hexachloro-p-ratio, 3 -丄θ # , ,, wind P than well, morpholinyl, tetrahydropyran Or its analogues. Wooden Φ, the term "halogen" stands for fluorine, gas, bromine and iodine. In this article, the term "pharmaceutically acceptable salts" includes those with organic or inorganic acids or bases, soil... Former. Pharmaceutically acceptable acid addition salts include those with mineral acids (such as hydrogen chlorhexidine, guanidine bromate, sulfuric acid, and phosphoric acid) or organic acids (such as lemon 141899.doc 201103899 acid, tartaric acid, lactic acid, pyruvic acid' acetic acid , trifluoroacetic acid, succinic acid, oxalic acid, citric acid, fumaric acid, malic acid, oxalic acid, decanesulfonic acid, ethanesulfonic acid, P-methyl sulfonic acid, sulfonic acid and hydroxyethyl sulfonate Acid) formed. Pharmaceutically acceptable base salts include ammonium salts, alkali metal salts (such as their sodium and potassium salts), alkaline earth metal salts (such as their calcium and magnesium salts), and basic base salts (including primary, secondary and tertiary). Grade amine salt). As used herein, the term "prodrug" means a compound that is converted in the body (e.g., hydrolyzed in blood) into its active form with a medical effect. As used herein, "solvate" refers to a complex comprising a compound of the invention and a solvent wherein they react or they precipitate or crystallize therefrom. In this context, the term "stereoisomers" is an isomer molecule with the same molecular connections but different spatial arrangements of the molecules. In this paper, "mirrible isomers" are used to represent each other with only a mirror structure but not to each other. Overlapping stereoisomers, such as a person's left and right hands are the same but opposite. In this article, the term “gongfeng” is a female peak lacking the complete reproductive capacity of the queen bee colony; in most cases, it is associated with an increase in the non-reproductive activities of the queen bee. The peak eggs are individually laid in the nest of the waxy honeycomb, which is manufactured and formed by Gongfeng. The bee prince (4) reads the royal jelly produced by the food bee, and then eats honey and powder. &lt;Outside the column, the bee prince slowly feeds the royal jelly, and (4) bred the queen. In the nest, I was licked and the scorpion scorpion was transformed several times and turned into cockroaches. The males hatch from the unfertilized, and the female bees (the queen bee and the worker bees) hatch from the insemination. The queen bee can choose to insefine the egg, usually depending on the hive at the print. The light worker bees clean the hive and proud of the bee prince. t Royal jelly produces atrophy of the gland, he 141899.doc 12 201103899 We started to build the hive. When they are older, they perform tasks within other bee colonies, such as collecting nectar and pollen and defending the hive. Then, the worker bees flew to the nest and finally left the hive and served as a field bee. In this article, the term “bee king milk” is a bee secretion used to nourish the queen bee. It is secreted from the hypopharyngeal gland located in the head of the young worker bee and used to feed the bee prince in the bee colony. According to the present invention, HDAC is an enzyme which affects transcription by selectively deacetylating an lysine ε-amine group located near the amine end of the core histone. HDAC inhibitors are emerging as a new class of anticancer agents for the treatment of solid and hematological malignancies. The present invention unexpectedly found that HDAC inhibitors affect the performance of the 68 kDa and 64 kDa of MRJP3 of royal jelly produced by young worker bees. According to the present invention, HDAC inhibitors include, but are not limited to, four classes of HDAC inhibitors: short chain fatty acids, hydroxamic acids, benzinamides, and cyclic peptides, such as Medicinal Research Reviews, Vol. 26, No. 4, ρρ· 397-413, 2006, reported; as mentioned in the Journal of the National Cancer Institute, Vol. 92, No. 15, August 2, 2000, pp. 1210-1216, an acid-based heteropolar compound ( 1^(:); U.S. Patent No. 6,174,905, U.S. Patent No. 0,847,992, JP 258863/96, and Japanese Application No. 10138957; benzamine derivatives; compounds of WO 01/38322; benzamide M344 ( Hum Genet, 2006, 120, ρρ· 101-110); sodium butyrate (Human Molecular Genetics, 2004, Vol. 13, No. 11, pp. 1183-1192); Trichostatin A (Molecular Cancer 2006, 5:8; this document is available from http://www.molecular-cancer.eom/content/5/l/8; a compound of the formula ZQLM or ZLM disclosed in U.S. Patent No. 7,169,801; 141899.doc -13 - 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 038 (valproic acid) and its derivatives; hexamethylene bisacetamide; hexamethylene bisacetamide; oxime; and HMBA-related compounds as described in U.S. Patent No. 6,087,367 and RE 38,506; Compounds related to HMBA, such as suberoylanilide hydroxamic acid (SAHA); Blood, 1 October 2003, Vol. 102, No. 7, pp. 2615-2622, NVP-LAQ824 (hydroxamic acid derivative) and NVP-LAQ824 ( a derivative of 4-aminomethylcinnamic hydroxamic acid); LBH589 (Blood 105(4): 1768-76 February 15) for the first phase of clinical trials by inducing apoptosis-induced growth inhibition and tumor cell line degradation and acting as an anticancer agent. , 2005); the compounds mentioned in the U.S. Patent Application Serial Nos. 11/855,416 and 12/418,373; the propolis; the propolis and the compounds mentioned in the publication No. 20080242648, including pyroxamide, M-carboxycinnamic acid bishydroxamide (CBHA), trichostatin A (TSA), trichostatin C, salicylihydroxamic acid (SBHA), azelaic bishydroxamic acid (ABHA), azelaic-1 -hydroxamate-9-anilide (AAHA) ' 6-(3-chlorophenyl Ureido) carpoic hydroxamic acid (3Cl-UCHA), oxamflatin, A-161906, scriptaid, PXD-101, cyclic hydroxamic acid-containing peptide (CHAP), ITF-2357, MW2796, MW2996, trapoxin A, FR901228 (FK 228 or Depsipeptide ), FR225497, apicidin, CHAP, HC-toxin, WF27082, chlamydocin, sodium butyrate ' isovalerate ' valerate ' 4-phenylbutyrate (4-PBA) ' 4-phenylbutyrate sodium (PBS), arginine butyrate, propionate, butyramide 'isobutyramide ' phenylacetate ' 3-bromopropionate ' 141899.doc -14- 201103899 tributyrin ' valproic acid, valproate, CI-994, MS-27-275 3'-amine derivative, MGCD0103 and Depudecin. The disclosures of which are incorporated herein by reference. According to a specific embodiment of the present invention, the HDAC inhibitor used herein is a compound represented by the following formula (I):

R4 R? 其中 1及尺2各自獨立為OH、0C(=0)烷基、〇-烷基' S-烷基、 N-院基、〇-烯基、S-烯基、N-烯基、0-炔基、S-炔基、N-快基、o-c3_8環烷基、S_C3 8環烷基、N_C3 yt烷基、〇_不 飽和5-至10-員單環或雙環、s_不飽和5_至ι〇_員單環或雙 壤、N-不飽和5_至ι〇_員單環或雙環、烷基、烯基、炔基、 C3·8環院基 '不飽和5_至1〇_員單環或雙環或包含至少一個 ^自下列群組之雜原子:N、〇及s的飽和或不飽和5 -至1〇_ 員雜環;或1^及1^2一起形成二氧五環; R3及R4各自獨立為〇H、〇c(=〇)烷基、〇_烷基、s_烷基、 N_燒基、0-烯基、s_烯基、N_烯基、〇_炔基、s_炔基、N_ 块基、〇-(:3.8環燒基、s_c38環烷基、n_C38環烷基、〇_不 飽和5-至1〇_員單環或雙環' S-不飽和5-至10-員單環或雙 141899.doc •15· 201103899 環、N-不飽和5-至1〇_員單環或雙環、烷基、烯基、炔基、 C:3·8環烷基、不飽和5_至1〇•員單環或雙環或包含至少一個 選自下列群組之雜原子:N、〇及8的飽和或不飽和5至1〇_ 員雜環;R4 R? wherein 1 and 2 are each independently OH, 0C(=0)alkyl, 〇-alkyl 'S-alkyl, N-institutional, fluorenyl-alkenyl, S-alkenyl, N-alkenyl , 0-alkynyl, S-alkynyl, N-fast radical, o-c3_8 cycloalkyl, S_C3 8 cycloalkyl, N_C3 yt alkyl, oxime-unsaturated 5- to 10-membered monocyclic or bicyclic, s _Unsaturated 5_ to ι〇_ member single ring or double soil, N-unsaturated 5_ to ι〇_ member monocyclic or bicyclic, alkyl, alkenyl, alkynyl, C3·8 ring yard base 'unsaturated 5_至1〇_ member monocyclic or bicyclic or containing at least one hetero atom from the following groups: N, 〇 and s saturated or unsaturated 5 - to 1 〇 _ member heterocyclic ring; or 1 ^ and 1 ^ 2 together form a dioxane; R3 and R4 are each independently 〇H, 〇c(=〇)alkyl, 〇-alkyl, s-alkyl, N-alkyl, 0-alkenyl, s-alkenyl , N-alkenyl, 〇-alkynyl, s-alkynyl, N-blockyl, 〇-(: 3.8 cycloalkyl, s_c38 cycloalkyl, n_C38 cycloalkyl, 〇_unsaturated 5- to 1 〇 Monocyclic or bicyclic 'S-unsaturated 5- to 10-membered monocyclic or double 141899.doc •15·201103899 Ring, N-unsaturated 5- to 1〇_membered monocyclic or bicyclic, alkyl, alkenyl, Alkynyl, C: 3·8 cycloalkyl, unsaturated 5_ to 1 • membered monocyclic or bicyclic or contain at least one heteroatom selected from the group of: N, square, and a saturated or unsaturated 5- to 8-membered heterocyclic 1〇_;

Rs為C4·,6烷基或(:4·1ό烯基,其中烷基或烯基為未經取代 或經一或多個CN6烷基0Η、鹵素、CN、NO、Ν3、ΝΗ2、 CHO、or9、sr9、NR9 或 C00R9取代; R6為Cm烧基或C2_u烯基,其中烷基或烯基為未經取代 或經一或多個Cu燒基、oh、鹵素、CN、NO、N3、NH2、 CHO、OR9、SR9 或 NR9取代;或 R5或R6之一為氫、鹵素或〇H,另一為Co丨6烷基或C4七伸 炫基,未經取代或經一或多個Cl·6烷基、OH、νη2、齒 素、CN、&gt;10或乂取代; R7或R8各自獨立為氫、鹵素、OH、NH2、COOH、 CHO、CN、NO、未經取代或經oh,NH2,COOH,鹵素, CN ’ NO或CHO取代的〇V6燒基、=〇、〇-烷基、s_烷基、Ν_ 烧基、Ο-烯基' S-稀基' Ν-稀基、〇-快基' S-炔基或Ν-炔 基;或 R7及Rs—起形成雙鍵、C3·6環烷基或包含至少一個選自下 列群組之雜原子:Ν、〇及s的飽和或不飽和5-至1 〇-員雜 玉衣, R9為苯基、C(=〇)R10、c(=〇)〇R10或苄基;及 R10為OH、NHOH、NH2、C〗_6炫基、苯基或苄基; 及其醫藥上可接受鹽’立體異構物,鏡像異構物,前藥 141899.doc • 16 - 201103899 或溶劑合物。 較佳地,式(I)化合物為彼等其中心及!^各自獨立為OH、 OCk烷基、OChCOCu烷基、Ο-苯基或Ο-苄基或Ri及R2 — 起形成二氧五環;R3及R4各自獨立為OH、OChe烷基、 0(:(=0)(^-6烷基、0-苯基或0-苄基;心為Rs is C4,6 alkyl or (:4.1.1 alkenyl, wherein the alkyl or alkenyl group is unsubstituted or via one or more CN6 alkyl groups, halogen, CN, NO, Ν3, ΝΗ2, CHO, Or9, sr9, NR9 or C00R9 substituted; R6 is Cm alkyl or C2_u alkenyl, wherein alkyl or alkenyl is unsubstituted or substituted by one or more Cu, oh, halogen, CN, NO, N3, NH2 Substituting CHO, OR9, SR9 or NR9; or one of R5 or R6 is hydrogen, halogen or hydrazine H, and the other is Co丨6 alkyl or C4 heptyl, unsubstituted or via one or more Cl. 6 alkyl, OH, νη2, dentate, CN, &gt; 10 or hydrazine substituted; R7 or R8 are each independently hydrogen, halogen, OH, NH2, COOH, CHO, CN, NO, unsubstituted or via oh, NH2 ,COOH,halogen, CN 'NO or CHO substituted 〇V6 alkyl, 〇, 〇-alkyl, s_alkyl, Ν-alkyl, Ο-alkenyl 'S-dilute' Ν-dilth, 〇 - a fast radical 'S-alkynyl or fluorenyl-alkynyl; or R7 and Rs together form a double bond, a C3-6 cycloalkyl group or a hetero atom comprising at least one selected from the group consisting of hydrazine, hydrazine and s. Or unsaturated 5- to 1 〇-member jade, R9 is phenyl, C(=〇)R10, c(=〇)〇R10 Benzyl; and R10 are OH, NHOH, NH2, C -6 hexyl, phenyl or benzyl; and pharmaceutically acceptable salts thereof, stereoisomers, mirror image isomers, prodrugs 141899.doc • 16 - 201103899 or a solvate. Preferably, the compounds of formula (I) are at their centers and are each independently OH, OCk alkyl, OChCOCu alkyl, Ο-phenyl or Ο-benzyl or Ri and R2 — Forming dioxane; R3 and R4 are each independently OH, OChe alkyl, 0 (: (=0) (^-6 alkyl, 0-phenyl or 0-benzyl;

Ci.4alkyl\^OvJ οCi.4alkyl\^OvJ ο

phenyl 〇 I ΟPhenyl 〇 I Ο

phenylOphenylO

ΗΗ

,或 141899.doc -17- 201103899 較佳地,式(i)化合物係選自下列群組:, or 141899.doc -17- 201103899 Preferably, the compound of formula (i) is selected from the group consisting of:

NBM-HD-1NBM-HD-1

141899.doc •18· 201103899141899.doc •18· 201103899

141899.doc -19- 201103899141899.doc -19- 201103899

OMe Ο 141899.doc -20- 201103899OMe Ο 141899.doc -20- 201103899

蜂膠素GPropolis G

、及 141899.doc -21 - 201103899 ch3And 141899.doc -21 - 201103899 ch3

OCH,OCH,

CH, ChU OHCH, ChU OH

OHOH

蜂膠素APropolis A

OHOH

蜂膠素B -22- 141899.doc 201103899Propolis B -22- 141899.doc 201103899

OHOH

蜂膠素CPropolis C

CHi CH, OHCHi CH, OH

OHOH

蜂膠素D 141899.doc -23- 201103899Propolis D 141899.doc -23- 201103899

蜂膠素E 141899.docPropolis E 141899.doc

OHOH

蜂膠素FPropolis F

蜂膠素G -24- 201103899Propolis G -24- 201103899

蜂膠素ΗPropolis

OHOH

蜂膠素IPropolis I

蜂膠素J 141899.doc -25- 201103899 根據本發明之另-具體實施例,此#所使用的腦。抑制 劑為下式II代表的化合物:Propolis J 141899.doc -25- 201103899 According to another embodiment of the invention, the brain used by this #. The inhibitor is a compound represented by the following formula II:

其中among them

Ri為乳、烷基、烯基、CM環烷基、5_員或6_員不飽和碳 環或5-員或6員雜環; X為 C、〇、N或 s ; γ為〇、NH或O-Cw烷基; η為0至1〇的整數; m為0至5的整數; R2及R3各自為Cl 6烷基; R4為C5·6環烷基或5_員或6_員不飽和碳環或雜環,其可經 鹵素、cf3、OR74NR7R8取代,其中仏及心各自為氫或c 烷基; h 為H NH2或C5-6環烷基、5_員或6_員不飽和碳環或雜 衣八中°亥裱烷基、碳環及雜環可視需要經鹵素、Nli2、 2 1-6烷氧基、cK6烷硫基、〇r7、;及 R6為H、Ci.1〇烷基,其可經羥基或。2丨。烯基取代,或與 141899.doc -26- 201103899Ri is a milk, alkyl, alkenyl, CM cycloalkyl, 5- or 6-membered unsaturated carbocyclic ring or 5- or 6-membered heterocyclic ring; X is C, 〇, N or s; γ is 〇, NH or O-Cw alkyl; η is an integer from 0 to 1 ;; m is an integer from 0 to 5; R 2 and R 3 are each a C 6 alkyl group; R 4 is a C 5 · 6 cycloalkyl group or a 5 member or 6 _ An unsaturated carbocyclic or heterocyclic ring which may be substituted by halogen, cf3, OR74NR7R8 wherein each of the ruthenium and the heart is hydrogen or c alkyl; h is H NH2 or C5-6 cycloalkyl, 5_ member or 6_ member Unsaturated carbocyclic or octagonal octadecyl, carbocyclic and heterocyclic ring may be optionally halogen, Nli2, 2 1-6 alkoxy, cK6 alkylthio, 〇r7, and R6 are H, Ci .1 alkyl group, which may be via a hydroxyl group. 2丨. Alkenyl substitution, or with 141899.doc -26- 201103899

Ri 一 起為-C2H2-; 及其醫藥上可接受鹽,立體異構物,鏡像異構物,前藥及 溶劑合物。 較佳地,式(II)化合物為彼等其中Ri、R2及R3各自為CN4 烷基;R4為苯基或經鹵素、CF3或OC^烷基取代的苯基; R5為OH、苯基或經NH2取代之苯基及R6為氫。 更佳地,式(II)化合物係選自下列群組:Ri together is -C2H2-; and its pharmaceutically acceptable salts, stereoisomers, mirror image isomers, prodrugs and solvates. Preferably, the compound of formula (II) is wherein each of Ri, R2 and R3 is CN4 alkyl; R4 is phenyl or phenyl substituted by halogen, CF3 or OC^alkyl; R5 is OH, phenyl or The phenyl group substituted with NH2 and R6 are hydrogen. More preferably, the compound of formula (II) is selected from the group consisting of:

NBM-HB-OS01NBM-HB-OS01

141899.doc -27- 201103899141899.doc -27- 201103899

NBM-C-BA-OSOlNBM-C-BA-OSOl

NBM-C-BMA-OSOl 141899.docNBM-C-BMA-OSOl 141899.doc

HO NHO N

NBM-C-BX-OSOl 28- 201103899 141899.doc HO yNH n——rNBM-C-BX-OSOl 28- 201103899 141899.doc HO yNH n——r

NBM-C-BCX-OSOl HO yNH η—nNBM-C-BCX-OSOl HO yNH η-n

NBM-C-BMX-OSOl HO :NH n—nNBM-C-BMX-OSOl HO : NH n-n

NBM-C-BFX-OSOl 29- 201103899 141899.doc HO 'nh η—nNBM-C-BFX-OSOl 29- 201103899 141899.doc HO 'nh η-n

NBM-C-BBX-OSOlNBM-C-BBX-OSOl

NBM-T-BCA-OSOl 30- 201103899NBM-T-BCA-OSOl 30- 201103899

NBM-T-BFA-OSOlNBM-T-BFA-OSOl

NBM-T-BMA-OSOl II NT Η ΟNBM-T-BMA-OSOl II NT Η Ο

NBM-T-BCX-OSOl 141899.doc -31 - 201103899NBM-T-BCX-OSOl 141899.doc -31 - 201103899

Me(Me(

jT Cl NBM-T-L-BCX-OSOljT Cl NBM-T-L-BCX-OSOl

OCH3 NBM-T-BMX-OSOl nOCH3 NBM-T-BMX-OSOl n

Me NBM-UBMX-OSOl 141899.doc πMe NBM-UBMX-OSOl 141899.doc π

NBM-T-L-BMX-OSOl -32- 201103899NBM-T-L-BMX-OSOl -32- 201103899

NBM-T-L-BTX-OSOl ΟNBM-T-L-BTX-OSOl Ο

NBM-T-L-BBX-OSOl 141899.doc -33- 201103899 ΟNBM-T-L-BBX-OSOl 141899.doc -33- 201103899 Ο

NBM-T-BFX-OSOl 141899.docNBM-T-BFX-OSOl 141899.doc

HO NHHO NH

NBM-C-BBX-OSOlNBM-C-BBX-OSOl

HO NHHO NH

NBM-C-BFX-OSOl 34- 201103899NBM-C-BFX-OSOl 34- 201103899

NBM-T-TMX-OSOlNBM-T-TMX-OSOl

HO、HO,

.OH r r- ύ 141899.doc -35- 201103899 NBM-T-I-BMX-OSOl.OH r r- ύ 141899.doc -35- 201103899 NBM-T-I-BMX-OSOl

OO

Θ NBM-T-L-I-BMX-OSO1Θ NBM-T-L-I-BMX-OSO1

NH oneNH one

OHOH

Br NBM-T-I-BBX-OSOlBr NBM-T-I-BBX-OSOl

NBM-T-L-I-BBX-OSOl 141899.doc 36- 201103899 οNBM-T-L-I-BBX-OSOl 141899.doc 36- 201103899 ο

NBM-T-I-BCX-OSOlNBM-T-I-BCX-OSOl

NBM-T-I-MCX-OSOl * 根據本發明之另一具體實施例,用於此中的HDAC抑制 劑為SAHA、蜂膠或蜂膠素(如蜂膠素A至J)。較佳地, HDAC抑制劑為台灣綠蜂膠、蜂膠素A、蜂膠素B、蜂膠素 C、蜂膠素D、蜂膠素E、蜂膠素F、蜂膠素G、蜂膠素H、 蜂膠素I、蜂膠素J、SAHA或NBM-HD-1。 141899.doc -37- 201103899 本發明未預期地發現HDAC抑制劑可改變餵食HDAC抑制 劑的工蜂所分泌之蜂王乳的MRJP3的68 kDa蛋白質對64 kDa蛋白質的比例。本發明建議該改變係由表觀遺傳修飾 (epigenetic modification)誘導,其可由 Janet S. Graham 等人 (Janet S. Graham et al.,2009) ' T. J. Walton 等人(T. J. Walton et al., 2008) ' Julie C. Kiefer(Julie C. Kiefer, 2007) 及 Ahmad Miremadi 等人(Ahmad Miremadi et al,, 2007)支 持。餵食上述蜂王乳的蜂王子相較於一般蜂王子,具有較 重的重量及較大的大小,使得他們的發育期較短。發育自 該蜂王子的蜗及蜂王亦具有較重的重量及較大的大小。此 等蜂王具有較高的卵產量使得蜂群的數目及蜂蜜的生產增 加。 實例 實例1:台灣綠蜂膠萃取物及蜂膠素C及G(propolins C and G)之製備 台灣綠蜂膠萃取物 以95%乙醇(250 mLx3)萃取50 g台灣綠蜂膠(TP),以超聲 波震盪處理3小時後,於25 °C靜置21小時。經過濾後於減壓 下乾燥處理乙醇萃取物,以生成黃褐色膠狀物(34.5 g)。將 前述膠狀物保存於-20°C直至需使用時。 蜂膠素C (Proplin C) 以 Sephadex LH-20 管柱(Amersham Pharmacia Biotech AB, Uppsala, Sweden)層析5 g之TP萃取物,以甲醇為溶劑進行 洗脫(elution),而得六個部分(fraction)。於石夕膠管柱進行 141899.doc •38- 201103899 針對所有洗脫物(包括得自後續層折法之部分)進行層析, 並以η-己烧及EtQAe之梯度溶劑系統進行洗脫。藉由反相 (reversed-phase)製備 Μ 高表現液相層析(high perf〇rmance liquid chromatography,HPLC)/UV對活性最高之部分4進行 純化(n-hexane:EtOAc=70:30),隨後收集滯留時間(retenti〇n time)為45分鐘之蜂膠素C部分。所採用之試驗條件如下: 管柱:Luna Phenomenex (C18,25〇 mmxl0 mm)、溶劑系 統:甲醇:水(7:3)、流速:2.5 mL/分鐘、及偵測:uv 28〇 nm。所得之化合物經球認為蜂耀素c ,以HPLC/UV基於峰 區域估計,所得蜂膠素C之純度不低於95%。 蜂膠素G (Propolin G) 以 Sephadex LH-20管柱(Amersham Pharmacia Biotech AB, Uppsala, Sweden)層析5 g之TP萃取物,以曱醇為溶劑進行 洗脫’而得六個部分。於矽膠管柱進行針對所有洗脫物(包 括得自後續層析法之部分)進行層析,並以η-己烷及EtOAc 之梯度溶劑系統進行洗脫。藉由反相製備型高表現液相層 析/UV對活性最高之部分3進行純化(n-hexane:EtOAc=70:30), 隨後收集滯留時間為25分鐘之蜂膠素G部分。所採用之試 驗條件如下:管柱:Luna Phenomenex(C18,250 mmx 10mm)' 溶劑系統:甲醇:水(8.5:1_5)、流速:3.5 1111^/分鐘、及偵 測:UV 280 nm。所得之化合物經確認為蜂膠素G,以 HPLC/UV基於峰區域估計,所得蜂膠素G之純度不低於 95%。 實例2:收集並分析蜂王乳及蜂王子 141899.doc -39- 201103899 篩選MRJP3蛋白質表現量相近之蜂箱進行試驗,而每一 對照組及實驗組各包含兩待測蜂箱。於第一天,先以搖動 方式移除蜂箱内原本含有之蜜,並於接下兩天内各以糖水 假食蜜蜂«pb we/AT'ero)兩次(對照組:普通糖水;實驗 組:特殊糖水)。前述特殊糖水係將配方糖粉以水稀釋1 〇倍 而得。於第三天,將1.5日齡蜂王子(來自相同的蜂王之後 代)移入蜂箱,並餵食1次(對照組:一般糖水;實驗組:特 殊糖水)。24、48、及72小時後,收集20隻蜂王子和此20隻 蜂王子巢内的蜂王乳,以進行定量、定性及蛋白質體之分 析。 在定性分析方面,以蜂王乳與滅菌水重量比1:10萃取蜂 王乳,取水層部分的蛋白質,藉由布拉福染色-結合方法 (Bradford dye-binding method)(Bio-Rad protein assay, Bio-Rad laboratories Inc.)測定蛋白質含量。利用 Elisa Reader (Bio-TEK)於吸光值595 nm進行蛋白質樣本定量,並取10 pg的蛋 白量,利用12.5% SDS-PAGE凝膠(60伏特、30分鐘及120伏 特、2小時)分離不同分子量的蛋白質。接著進行考馬斯藍 (Coomassie blue)染色(Coomassie Brilliant Blue R, Sigma, B0630),15分鐘後再利用去染緩衝劑(曱醇:乙酸: ddH2O=20:7:73)進行退染,至膠體背景透明。 以lx PBS清洗幼蟲,將體表上殘留蜂王乳去除,再進行 蟲體研磨。研磨後,加入適量滅菌水,以進行蛋白質萃 取。如前述方法取水層部分的蛋白質進行蛋白質定量,並 取10 pg的蛋白量,利用12.5% SDS-PAGE凝膠(60伏特、30 141899.doc •40· 201103899 分鐘及120伏特、2小時)分離不同分子量的蛋白質。以考馬 斯藍染色15分鐘後,利用去染緩衝劑(曱醇:乙酸: ddH2O=20:7:73)進行退染,至膠體背景透明。 在定量分析方面,在不同時間點(24、48或72小時)收集 對照組及實驗組各蜂箱中之蜂王乳及蜂王子。將蜂王乳或 蜂王子秤重,並將蜂王子拍照記錄,以進行分析及比較。 在蛋白質體分析與蛋白質鑑定方面,以旋轉減壓濃縮機 (Speed Vac)真空乾燥蜂王乳或蜂王子上清懸浮液,並以復 水缓衝液(rehydration buffer)回溶。以布拉福染色-結合方 法測定蛋白質含量,隨後取10 pg之蜂王乳及1 〇〇 pg之蜂王 子進行二維電泳(two-dimensional electrophoresis,2-DE)分 析;其中所使用步驟如下:先以pH 3至10之條帶藉由等電 焦聚(isoelectric focusing, IEF)分離樣品,平衡後,以十二 烧基硫酸納-聚丙稀醯胺膠體電泳(sodium dodecyl sulfate-polyacrylamide gel electrophoresis, SDS-PAGE)(焦集膠體 (stacking gel): 30% 丙烯醯胺(Bio-Rad)、Tris pH 6.8、10% APS、ddH20、1% SDS ; TEMED ;分離膠體(separating gel): 3 0%丙烯醯胺(Bio-Rad)、Tris pH 8.8、10% APS、ddH20、 1% SDS ; TEMED)進行樣品分離。將膠體進行影像擷取, 並以Image Master 2D Platinum 6.0軟體分析。選取待測色 點,進行膠體内姨蛋白酶水解(In-gel trypsin digestion),並 由LC-ESI-Q-TOFMS/MS執行質譜分析,並以Mascot軟體進 行所得結果與資料庫之比對、及蛋白質身分鑑定。 實例3:台灣綠蜂膠萃取物對誘發蜂王子生長之效果 141899.doc -41 · 201103899 台灣綠蜂膠乙醇萃取物中含ίο種蜂膠素,分別命名為蜂 膠素A-J,其中蜂膠素C、D、F及G為主要種類。以每公斤 糖含1.25、2.5或是5.0公克台灣綠蜂膠萃取物之糖水餵飼蜂 群三次,並分別於移入1.5日齡蜂王子後之24、48及72小 時,收集蜂王子與由工蜂所生產之蜂王乳以進行分析。如 表1及圖1所示,1.25至5.0公克/公斤的台灣綠蜂膠萃取物顯 著促進蜂王子的生長。在24至48小時期間,對照組之蜂王 子由4.73 mg增加到12.26 mg,即重量增加約1.59倍。而於 以高劑量(5g/kg)台灣綠蜂膠萃取物處理之組別當中,蜂王 子由6.78 mg增加到26.72 mg,即重量增加約2.94倍。在48 至72小時期間,對照組之蜂王子由12.26 mg增加到31.70 mg, 重量增加約1.58倍。而以高劑量(5g/kg)台灣綠蜂膠萃取物 處理之組別當中,蜂王子從26.72 mg增加到107.55 mg,重量 增加約3.03倍。 表1 :由餵飼以台灣綠蜂膠萃取物之年輕工蜂所分泌之特殊 蜂王乳,可促進蜂王子之快速生長 平均每隻蜂王子重量(mg) 收集時間 組別 24h 48h 72h 對照組 (U-1 及 2) 4.73±0.54 12.26±0.74 31.70±11.08 台灣綠蜂膠萃取物-低劑量組 (A-1 及 2) (1.25 g/kg) 5.05±2.19 12.43±3.52 60.71 士 6.56 台灣綠蜂膠萃取物-中劑量組 (B-1 及 2) (2.5 g/kg) 6.86 士 1.14 11.77 士 0.97 51.16±11.61 台灣綠蜂膠萃取物-高劑量組 (C-1 及 2) (5.0 g/kg) 6.78 士 1.37 26.72士4_29 107_55 士 3_47 141899.doc -42· 201103899 以上數據顯示,以含台灣綠蜂膠萃取物之糖餵飼蜂群, 可使工蜂生產特殊蜂王乳,而食用該特殊蜂王乳可促進蜂 王子快速生長。 針對前述特殊蜂王乳進行進一步分析,以測定其量與質 是否異於正常蜂王乳。結果顯示,特殊蜂王乳(得自經處理 組)之產量與正常蜂王乳(得自對照組)之產量並無明顯差異 (見表2)。此意味年輕工蜂確實能提供充足之蜂王乳供蜂王 子食用,且依蜂王子大小與食用量調配供應量。 表2 :台灣綠蜂膠萃取物未顯著影響年輕工蜂所生產之蜂王乳量 (g/20 wells) 收集時間 組別 24h 48h 72h 對照組 (U-1 及 2) 3_375±0·7 9.19±1.1 11.96±0.83 台灣綠蜂膠萃取物-低劑量組 (A-1 及 2) (1.25 g/kg) 3.03±0·58 8_30±0.81 12.1±1.0 台灣綠蜂膠萃取物-中劑量組 (B-1 及 2) (2.5 g/kg) 2.04±0.50 6·50±0·69 10.21±1.08 台灣綠蜂膠萃取物-高劑量組 (C-1 及 2) (5.0 g/kg) 3.09±0.59 8.76±1.21 13.12±2.38 比較正常蜂王乳及特殊蜂王乳之水溶性蛋白質含量後發 現無明顯差異(見表3)。結果說明,台灣綠蜂膠萃取物只影 響MRJP3蛋白質中各異型物表現量間之比例,卻不會誘發 新蛋白質之生成;換言之,總蛋白質量未改變。 141899.doc -43- 201103899 表3 :台灣綠蜂膠萃取物未顯著影響年輕工蜂所生產之蜂王乳中 水溶性蛋白質之含量 mg水溶性蛋白質/g蜂王乳 收集時間 組別 24h 48h 72h 對照組 (U-1 及 2) 48.94±0.29 38.37±0.29 41.02±9.20 台灣綠蜂膠萃取物-低劑量組 (A-1 及 2) (1.25 g/kg) 44.47±4.89 29.43±6.04 32.68±1.44 台灣綠蜂膠萃取物-中劑量組 (B-1 及 2) (2.5 g/kg) 46.91 士 3.16 38.78±5.46 34.51±2.30 台灣綠蜂膠萃取物-高劑量組 (C-1 及 2) (5.0 g/kg) 37.76±16.10 33.70±0.57 36.34±2.59 實驗結果亦發現,食用特殊蜂王乳不但可誘發蜂王子之 •1' 快速生長,亦可增進此等蜂王子體内之蛋白質含量(見表 4);其中蛋白質含量似與蜂王子重量以近似之倍數增加。 表4:台灣綠蜂膠萃取物可增加蜂王子體内之蛋白質含量 μ g總蛋白質/蜂王子 收集時間 組別 24h 48h 72h 對照組 (U-1 及 2) 60.9±24.89 383.35±39.24 1595.05±349.24 台灣綠蜂膠萃取物-低劑量組 (A-1 及 2) (1.25 g^g) 80_4 士 14.85 557.7±268.42 1397.55±122.26 台灣綠蜂膠萃取物-中劑量組 (B-1 及 2) (2-5 165.25±9.12 639.5士 61.09 2922.2±776.97 台灣綠蜂膠萃取物-高劑量組 (C-1 及 2) (5.0 g/kg) 193.95±48.01 1393.2±30.55 4679.05士436.50 實例4:蜂膠素C對誘發蜂王子生長之效果 蜂膠素C是台灣綠蜂膠之主成份,是所有蜂膠素中含量 141899.doc -44- 201103899 最高者。藉由進行上述的實驗方法,以50-100 mg/kg劑量 的蜂膠素C處理,可以顯著改變年輕工蜂所分泌蜂王乳的 蛋白組成,造成蜂王子快速生長(見表5及圖2)。由這個結 果得知,蜂膠素C可能需要將劑量調高到300 mg/kg劑量, 才有驅動倍數增加蜂王子生長能力。依結果顯示,在48至 72小時期間,對照組由每隻蜂王子13.45增加到61.60 mg, 約增加3.58倍。而高劑量蜂膠素C( 100 mg/kg)組,從13.48 增加到98.48 mg,約增加6.30倍。 表5 :蜂膠素C影響年輕工蜂分泌特殊蜂王乳造成蜂子生長快速 平均每隻蜂王子重量 (mg) 收集時間 組別 24h 48h 72h 對照組 (U2) 3.52 13.45 61.60 蜂膠素C (C2-1) (50 mg/kg) 2.40 15.2 70.17 蜂膠素C (C2-2) (100 mg/kg) 2.38 13.48 98.48 實例5 :蜂膠素D、F及G對MRJP3蛋白表現及蜂王子生長之效果 蜂膠素D、F及G亦為台灣綠蜂膠活性之主成份。在本研 究中,以每公斤糖含150、300或是600毫克蜂膠素G之糖水 餵飼蜂群三次,並分別於移入1.5日齡蜂王子後之24、48及 72小時,收集蜂王子與由工蜂所生產之蜂王乳以進行分 析。如圖3所示,蜂王乳的水溶性蛋白MRJP3(實驗組)的組 成與一般蜂王乳(對照組)有顯著的改變。在72小時,對照 組在分子量68 kDa與64 kDa的MRJP3比例為2:8 ;然而,在 141899.doc -45· 201103899 中劑量(300 mg/kg)蜂膠素G組,分子量68與64 kDa的MRJP3 比例為6.5:3.5。很顯然的,MRJP3的68 kDa的表現顯著增 加,且64 kDa的表現則顯著降低。 而這類特殊組成之蜂王乳明顯提供較佳營養組成,造成 蜂王子快速生長,在24至48小時期間,對照組由每隻蜂王 子5.23 mg增加到1 3.57 mg,約增加1.60倍。高劑量(5g/kg) 台灣綠蜂膠萃取物組是正對照組,從5.53增加到30.27 mg, 約增加4.47倍;而蜂膠素G (300 mg/kg)組,從3·93 mg增 加到23.80 mg,約增加5.05倍。而在48至72小時期間,對照 組由每隻蜂王子13.57增加到30.07 mg,約增加1.22倍。而 高劑量(5g/kg)台灣綠蜂膠萃取物組,從30.27增加到103.30 mg,約增加2.41倍,而蜂膠素G (300 mg/kg)組,從23.80增 加到161.73 mg,約增加5.79倍(表6)。而propolins D及F也 會造成類似效果,只是活性較PropolinG弱。 表6 :蜂膠素G影響年輕工蜂分泌特殊蜂王乳造成蜂子生長快速 平均每隻蜂王子重量(mg) 收集時間 組別 24h 48h 72h 對照組 (U1) 5.23 13.57 30.07 台灣綠蜂膠抽出物低劑量組 (T1) (5 g/kg) 5.53 30.27 103.30 Propolin G (Gl-l) (150 mg/kg) 5.73 54.2 156.63 Propolin G (G2-1) (300 mg/kg) 3.93 23.80 161.73 Propolin G (G3-1) (600 mg/kg) 2.70 13.67 85.67 141899.doc -46- 201103899 上述數據建議特殊蜂王乳具有較佳的營養組成’且因此 可誘導蜂王子的快速生長》 蜂膠素D及F也會造成類似效果,只是活性較蜂膠素G弱。 實例6 : HDAC抑制劑NBM-HD-1G對MRJP3蛋白表現及蜂 . 王子生長之效果 NBM-HD-1是由台灣綠蜂膠主成份之一:蜂膠素G合成衍 生而得且已知 NBM-HD-1 是一新型 HDAC(histone deacetylase) 抑制劑。藉由進行如上所述的實驗方法,發現50至200 mg/kg劑量的NBM-HD-1處理顯著促進年輕工蜂所分泌蜂王 乳的蛋白組成比例之改變,其中以72小時為例,對照組在 分子量68 kDa與64 kDa的MRJP3比例為4:6。然而,在高劑 量(5 g/kg)台灣綠蜂膠抽出物組為正對照組,分子量68 kDa 與 64 kDa的 MRJP3 比例為 7:3,而 NBM-HD-1 (200 mg/kg)組 在分子量68與64 kDa的MRJP3比例為9:1。如表7所示, NBM-HD-1處理誘導蜂王子的快逮生手。 表7 :画协骑伟4分_鱗王乳造錢王子生長快速 平均每隻蜂王子重量(mg) ------------- 組別 24h ^〜 收集時間 ^1 對照組 2.2^ 48h 72h (U1) 7.8 19.3 台灣綠蜂膠抽出物低劑量組 (T1) (5 g/kg) 2.8 ^^ 12.7 51.9 NBM-HD-1 4.57^〜 (Hl-1) (50 mg/kg) 18.0 37.4 NBM-HD-1 3.5'、 (H2-1) (100 mg/kg) 14.3 79.9 NBM-HD-1 — (H3-1) (200 mg/kg) 17.8 82.6 —---- 141899.doc •47- 201103899 上述數據建議MRJP3蛋白的不同間的蛋白比例改變,會 造成蜂王子體重明顯增加生長快速。 Η 將表現於對照組及實驗組之蜂王子的水溶性蛋白進行分 析’由一維電泳與咼解析質§普分析顯示,NBM-HD-1處理 所培育的蜂王子’會增加MRJPs 1,2及3的蛋白量,其中以 MRJP3最為明顯(參見圖5)。 實例7 : HDAC抑制劑SAHA對MRJP3蛋白表現及蜂王子生長之效果 SAHA是一種有效的HDAC抑制劑,當虛搜n c 田 k 理在 5-15 mg/kg 劑量下’可以顯著促進年輕工蜂所分泌絡 π 牛土孔之蛋白組成 比例之改變。以72小時為例,對照組在公 甘刀于置68 kDa與64 kDa的MRJP3比例為2:8 ;然而,在高劑量(5 g/k幻台灣綠蜂 膠萃取物組與蜂膠素G (150 mg/kg)為正對照紐,Z子量68 kDa與64 kDa的MRJP3比例分別為5.5.4 s r。 •‘及8:2。然而,15 mg/kg SAHA處理組在分子量68咖與64如的難奶比例 為4:6(參見圖6)。而這種特殊蜂王乳提供較 蜂王子體重明顯增加生長快速,如表8所示。S 、 = 表8 : SAHA影響年輕工蜂分泌特殊蜂王乳造成蜂子生長快速 平均每隻蜂王子重量(mg) 組別 對照組 (U1) 台灣綠蜂膠抽出物低劑量組 (T1) (5 g/kg) Propolin G (G-l) (150mg/kg) SAHA (Sl-1) (5 mg/kg)NBM-T-I-MCX-OSOl * According to another embodiment of the present invention, the HDAC inhibitor used herein is SAHA, propolis or propolis (e.g., propolis A to J). Preferably, the HDAC inhibitor is Taiwan green propolis, propolis A, propolis B, propolis C, propolis D, propolis E, propolis F, propolis G, propolis H, propolis I, propolis J, SAHA or NBM-HD-1. 141899.doc -37- 201103899 The present invention unexpectedly finds that HDAC inhibitors can alter the ratio of 68 kDa protein to 64 kDa protein of MRJP3 of royal jelly secreted by worker bees fed HDAC inhibitors. The present invention suggests that this alteration is induced by epigenetic modification by Janet S. Graham et al. (Janet S. Graham et al., 2009) 'TJ Walton et al. (TJ Walton et al., 2008). Supported by Julie C. Kiefer (Julie C. Kiefer, 2007) and Ahmad Miremadi et al. (Ahmad Miremadi et al, 2007). The bee princes fed the above-mentioned royal jelly have a heavier weight and a larger size than the general bee prince, making their development period shorter. The snail and queen bee from the prince of the bee also have a heavier weight and a larger size. These queens have higher egg yields that increase the number of bees and the production of honey. Example 1: Preparation of Taiwan green propolis extract and propolis C and G (propolins C and G) Taiwan green propolis extract 50 g of Taiwan green propolis (TP) was extracted with 95% ethanol (250 mL×3) and treated with ultrasonic vibration. After 3 hours, it was allowed to stand at 25 ° C for 21 hours. After filtration, the ethanol extract was dried under reduced pressure to give a brown brown gum (34.5 g). The gel was stored at -20 ° C until use. Proplin C. 5 g of the TP extract was chromatographed on a Sephadex LH-20 column (Amersham Pharmacia Biotech AB, Uppsala, Sweden) and eluted with methanol as a solvent to obtain six fractions ( Fraction). Performed on a Shixi rubber column 141899.doc •38- 201103899 Chromatography was performed on all eluates (including those obtained from subsequent layer folding) and eluted with a gradient solvent system of η-hexane and EtQAe. The highest activity fraction 4 was purified by reverse-phase preparative high high perf 〇 ance ance liquid chromatography (HPLC)/UV (n-hexane: EtOAc = 70:30), followed by The propolis fraction C was collected for 45 minutes of retenti〇n time. The test conditions used were as follows: Column: Luna Phenomenex (C18, 25 〇 mm x 10 mm), solvent system: methanol: water (7:3), flow rate: 2.5 mL/min, and detection: uv 28 〇 nm. The obtained compound was evaluated by the ball as the zeocin c, and the purity of the obtained propolis C was not less than 95% as estimated by HPLC/UV based on the peak region. Propolis G (Propolin G) 5 g of the TP extract was chromatographed on a Sephadex LH-20 column (Amersham Pharmacia Biotech AB, Uppsala, Sweden) and eluted with methanol as a solvent to give six fractions. Chromatography on all eluates (including fractions from subsequent chromatography) was performed on a ruthenium cartridge and eluted with a gradient solvent system of η-hexanes and EtOAc. The most active fraction 3 was purified by reverse phase preparative high performance liquid chromatography/UV (n-hexane: EtOAc = 70: 30), followed by the fraction of propolis G which was retained for 25 minutes. The test conditions used were as follows: Column: Luna Phenomenex (C18, 250 mm x 10 mm)' Solvent system: methanol: water (8.5:1_5), flow rate: 3.5 1111^/min, and detection: UV 280 nm. The obtained compound was confirmed to be propolis G, and the purity of the obtained propolis G was not less than 95% as determined by HPLC/UV based on the peak region. Example 2: Collection and analysis of royal jelly and bee prince 141899.doc -39- 201103899 Screening of bee hives with similar MRJP3 protein expression was performed, and each control group and experimental group contained two beehives to be tested. On the first day, the honey originally contained in the beehive was removed by shaking, and the bee «pb we/AT'ero) was twitched twice in the next two days (control group: ordinary sugar water; experimental group: Special sugar water). The aforementioned special sugar water system is obtained by diluting the formulated sugar powder by water 1 time. On the third day, 1.5-day-old bee princes (from the same queen bee generation) were transferred to the beehive and fed once (control group: normal sugar water; experimental group: special sugar water). After 24, 48, and 72 hours, 20 bee princes and royal jelly in the nest of 20 bee princes were collected for quantitative, qualitative, and proteosome analysis. In qualitative analysis, the royal jelly is extracted at a weight ratio of royal jelly to sterilized water of 1:10, and the protein of the aqueous layer is taken, by Bradford dye-binding method (Bio-Rad protein assay, Bio- Rad laboratories Inc.) determines the protein content. Protein samples were quantified using Elisa Reader (Bio-TEK) at an absorbance of 595 nm and 10 pg of protein was used to separate different molecular weights using a 12.5% SDS-PAGE gel (60 volts, 30 minutes, and 120 volts, 2 hours). Protein. Next, Coomassie blue staining (Coomassie Brilliant Blue R, Sigma, B0630) was performed, and after 15 minutes, the de-staining buffer (sterol: acetic acid: ddH2O=20:7:73) was used for defection. The colloidal background is transparent. The larvae were washed with lx PBS, the residual royal jelly on the body surface was removed, and the worm body was ground. After grinding, an appropriate amount of sterilized water is added for protein extraction. The protein in the aqueous layer fraction was subjected to protein quantification as described above, and 10 pg of protein was taken, and the separation was performed using a 12.5% SDS-PAGE gel (60 volts, 30 141899.doc • 40·201103899 minutes and 120 volts, 2 hours). Molecular weight protein. After staining with Coomassie blue for 15 minutes, the staining was carried out using a de-staining buffer (sterol: acetic acid: ddH2O = 20:7:73) until the colloidal background was transparent. In terms of quantitative analysis, royal jelly and bee princes in the beehives of the control and experimental groups were collected at different time points (24, 48 or 72 hours). The queen bee or the bee prince is weighed and the bee prince is photographed for analysis and comparison. For proteomic analysis and protein identification, the suspension of royal jelly or bee prince supernatant was vacuum dried using a rotary vacuum concentrator (Speed Vac) and reconstituted with rehydration buffer. The protein content was determined by Brabford staining-binding method, followed by 10 pg of royal jelly and 1 〇〇pg of bee prince for two-dimensional electrophoresis (2-DE) analysis; the steps used were as follows: The sample was separated by isoelectric focusing (IEF) at a pH of 3 to 10, and after equilibration, sodium dodecyl sulfate-polyacrylamide gel electrophoresis (SDS) was used. -PAGE) (Stacking gel: 30% acrylamide (Bio-Rad), Tris pH 6.8, 10% APS, ddH20, 1% SDS; TEMED; separating gel: 30% propylene Sample separation was carried out with Bio-Rad, Tris pH 8.8, 10% APS, ddH20, 1% SDS; TEMED). The gel was imaged and analyzed with Image Master 2D Platinum 6.0 software. The color point to be measured is selected, and the in-gel trypsin digestion is performed, and mass spectrometry is performed by LC-ESI-Q-TOFMS/MS, and the result is compared with the database by Mascot software, and Protein identity identification. Example 3: Effect of Taiwan green propolis extract on the growth of induced bee prince 141899.doc -41 · 201103899 Taiwan green propolis ethanol extract contains γ 蜂 propolis, named propolis AJ, among which propolis C, D, F And G is the main type. The bee colony was fed three times per kilogram of sugar containing 1.25, 2.5 or 5.0 grams of Taiwan green propolis extract, and collected by the bee prince and the worker bee at 24, 48 and 72 hours after being transferred to the 1.5 day old bee prince. Production of royal jelly for analysis. As shown in Table 1 and Figure 1, Taiwan green propolis extract from 1.25 to 5.0 g/kg significantly promoted the growth of the bee prince. During the 24-48 hour period, the control group's queen bee was increased from 4.73 mg to 12.26 mg, which is an increase of about 1.59 times. Among the groups treated with high dose (5g/kg) Taiwan green propolis extract, the queen bee was increased from 6.78 mg to 26.72 mg, which is about 2.94 times the weight increase. During the 48-72 hour period, the bee prince of the control group increased from 12.26 mg to 31.70 mg, and the weight increased by about 1.58 times. Among the groups treated with high dose (5g/kg) Taiwan green propolis extract, the bee prince increased from 26.72 mg to 107.55 mg, and the weight increased by about 3.03 times. Table 1: Special royal jelly secreted by young worker bees fed with Taiwan green propolis extract can promote the rapid growth of bee princes. The weight of each bee prince (mg) Collection time group 24h 48h 72h Control group (U- 1 and 2) 4.73±0.54 12.26±0.74 31.70±11.08 Taiwan Green Propolis Extract - Low Dose Group (A-1 and 2) (1.25 g/kg) 5.05±2.19 12.43±3.52 60.71 ±6.56 Taiwan Green Propolis Extract - Medium dose group (B-1 and 2) (2.5 g/kg) 6.86 ± 1.14 11.77 ± 0.97 51.16 ± 11.61 Taiwan green propolis extract - high dose group (C-1 and 2) (5.0 g / kg) 6.78 ± 1.37 26.72士4_29 107_55士士3_47 141899.doc -42· 201103899 The above data shows that the bee colony can be produced by the honey bee extract containing Taiwan green propolis extract, and the special bee king milk can be used to promote the bee prince. Growing. Further analysis was performed on the aforementioned special royal jelly to determine whether the amount and quality were different from normal royal jelly. The results showed that the yield of the special royal jelly (from the treated group) was not significantly different from that of the normal royal jelly (from the control group) (see Table 2). This means that the young worker bees can indeed provide enough royal jelly for the bee king to eat, and the supply size is adjusted according to the size and consumption of the bee prince. Table 2: Taiwan green propolis extract did not significantly affect the amount of royal jelly produced by young worker bees (g/20 wells) Collection time group 24h 48h 72h Control group (U-1 and 2) 3_375±0·7 9.19±1.1 11.96 ±0.83 Taiwan Green Propolis Extract - Low Dose Group (A-1 and 2) (1.25 g/kg) 3.03±0·58 8_30±0.81 12.1±1.0 Taiwan Green Propolis Extract - Medium Dose Group (B-1 and 2 (2.5 g/kg) 2.04±0.50 6·50±0·69 10.21±1.08 Taiwan Green Propolis Extract - High dose group (C-1 and 2) (5.0 g/kg) 3.09±0.59 8.76±1.21 13.12± 2.38 There was no significant difference between the water-soluble protein content of normal royal jelly and special royal jelly (see Table 3). The results showed that the Taiwan green propolis extract only affected the ratio between the expressions of the various types of MRJP3 proteins, but did not induce the formation of new proteins; in other words, the total protein content did not change. 141899.doc -43- 201103899 Table 3: Taiwan green propolis extract did not significantly affect the content of water-soluble protein in the royal jelly produced by young worker bees mg water-soluble protein / g queen milk collection time group 24h 48h 72h control group (U -1 and 2) 48.94±0.29 38.37±0.29 41.02±9.20 Taiwan green propolis extract-low dose group (A-1 and 2) (1.25 g/kg) 44.47±4.89 29.43±6.04 32.68±1.44 Taiwan green propolis extract - medium dose group (B-1 and 2) (2.5 g/kg) 46.91 ± 3.16 38.78 ± 5.46 34.51 ± 2.30 Taiwan green propolis extract - high dose group (C-1 and 2) (5.0 g / kg) 37.76 ± 16.10 33.70±0.57 36.34±2.59 The experimental results also found that the consumption of special royal jelly not only induces the rapid growth of the bee prince, but also enhances the protein content of these bee princes (see Table 4); The weight of the prince with the bee increases by an approximation. Table 4: Taiwan green propolis extract can increase the protein content of the bee prince. μ g total protein / bee prince collection time group 24h 48h 72h control group (U-1 and 2) 60.9±24.89 383.35±39.24 1595.05±349.24 Taiwan Green Propolis Extract - Low Dose Group (A-1 and 2) (1.25 g^g) 80_4 ± 14.85 557.7 ± 268.42 1397.55 ± 122.26 Taiwan Green Propolis Extract - Medium Dose Group (B-1 and 2) (2-5 165.25±9.12 639.5士61.09 2922.2±776.97 Taiwan green propolis extract-high dose group (C-1 and 2) (5.0 g/kg) 193.95±48.01 1393.2±30.55 4679.05士436.50 Example 4: Propolis C on induced bee prince The effect of growth Propolis C is the main component of Taiwan green propolis, which is the highest in all propolis products 141899.doc -44- 201103899. By performing the above experimental method, the propolis C is dosed at 50-100 mg/kg. Treatment can significantly change the protein composition of the royal jelly secreted by young worker bees, causing the rapid growth of bee princes (see Table 5 and Figure 2). From this result, propolis C may need to increase the dose to 300 mg/kg. Only then can the driving multiple increase the growth ability of the bee prince. According to the results, during the 48-72 hour period, the control group increased from 13.45 per bee prince to 61.60 mg, an increase of 3.58 times, while the high-dose propolis C (100 mg/kg) group increased from 13.48 to 98.48 mg. Increased by 6.30 times. Table 5: Propolis C affects young worker bees to secrete special royal jelly to cause rapid growth of bees. Average weight per bee prince (mg) Collection time group 24h 48h 72h Control group (U2) 3.52 13.45 61.60 Propolis C (C2-1) (50 mg/kg) 2.40 15.2 70.17 Propolis C (C2-2) (100 mg/kg) 2.38 13.48 98.48 Example 5: Propolis D, F and G on MRJP3 protein expression and growth of bee princes The effects of propolis D, F and G are also the main components of Taiwan green propolis activity. In this study, the bee colony was fed three times with 150, 300 or 600 mg of propolis G per kg of sugar, and moved in separately. At 24, 48 and 72 hours after the 1.5-day-old bee prince, the bee prince and the royal jelly produced by the worker bee were collected for analysis. As shown in Fig. 3, the composition and generality of the water-soluble protein MRJP3 (experimental group) of royal jelly There was a significant change in royal jelly (control group). At 72 hours, the control group had a ratio of molecular weight of 68 kDa to 64 kDa of MRJP3 of 2:8; however, at 141899.doc -45·201103899 dose (300 mg/kg) of propolis G group, molecular weight of 68 and 64 kDa The MRJP3 ratio is 6.5:3.5. Obviously, the performance of MRJP3's 68 kDa is significantly increased, and the performance of 64 kDa is significantly reduced. This special composition of royal jelly significantly provided a better nutritional composition, resulting in rapid growth of the bee prince. During the 24-48 hour period, the control group increased from 5.23 mg to 1.57 mg per bee, which was increased by 1.60 times. High dose (5g/kg) Taiwan green propolis extract group was positive control group, increased from 5.53 to 30.27 mg, an increase of 4.47 times; while propolis G (300 mg/kg) group increased from 3.93 mg to 23.80 mg , about 5.05 times more. During the 48-72 hour period, the control group increased from 13.57 to 30.07 mg per bee prince, an increase of 1.22 times. The high dose (5g/kg) Taiwan green propolis extract group increased from 30.27 to 103.30 mg, an increase of 2.41 times, while the propolis G (300 mg/kg) group increased from 23.80 to 161.73 mg, an increase of 5.79 times. (Table 6). Propolins D and F also have similar effects, but the activity is weaker than PropolinG. Table 6: Propolis G affects young worker bees to secrete special royal jelly to cause rapid growth of bees. Average weight per bee prince (mg) Collection time group 24h 48h 72h Control group (U1) 5.23 13.57 30.07 Taiwan green propolis extract low dose group (T1) (5 g/kg) 5.53 30.27 103.30 Propolin G (Gl-l) (150 mg/kg) 5.73 54.2 156.63 Propolin G (G2-1) (300 mg/kg) 3.93 23.80 161.73 Propolin G (G3-1 ) (600 mg/kg) 2.70 13.67 85.67 141899.doc -46- 201103899 The above data suggests that special royal jelly has a better nutritional composition 'and therefore induces the rapid growth of bee princes.' Propolis D and F also have similar effects. , but the activity is weaker than propolis G. Example 6: HDAC inhibitor NBM-HD-1G on MRJP3 protein expression and bee. Effect of prince growth NBM-HD-1 is derived from one of the main components of Taiwan green propolis: propolis G synthesis derived and known as NBM-HD -1 is a novel HDAC (histone deacetylase) inhibitor. By performing the experimental method as described above, it was found that the treatment of NBM-HD-1 at a dose of 50 to 200 mg/kg significantly promoted the change in the protein composition ratio of the royal jelly secreted by young worker bees, of which 72 hours was used as an example, and the control group was The ratio of molecular weight 68 kDa to 64 kDa MRJP3 is 4:6. However, at the high dose (5 g/kg) Taiwan green propolis extract group was a positive control group, the ratio of molecular weight 68 kDa to 64 kDa MRJP3 was 7:3, while the NBM-HD-1 (200 mg/kg) group was The MRJP3 ratio of molecular weight 68 to 64 kDa is 9:1. As shown in Table 7, the NBM-HD-1 treatment induced the rapid recovery of the bee prince. Table 7: Painting Association riding 4 points _ scale king milk money prince growth fast average weight per bee prince (mg) ------------- Group 24h ^ ~ collection time ^ 1 Group 2.2^ 48h 72h (U1) 7.8 19.3 Taiwan green propolis extract low dose group (T1) (5 g/kg) 2.8 ^^ 12.7 51.9 NBM-HD-1 4.57^~ (Hl-1) (50 mg/kg 18.0 37.4 NBM-HD-1 3.5', (H2-1) (100 mg/kg) 14.3 79.9 NBM-HD-1 — (H3-1) (200 mg/kg) 17.8 82.6 —---- 141899. Doc •47- 201103899 The above data suggest that changes in the protein ratio between the different MRJP3 proteins will result in a significant increase in body weight of the bee prince.分析 Analysis of the water-soluble proteins of the bee princes in the control group and the experimental group. 'Analysis of one-dimensional electrophoresis and 咼 咼 显示 显示 显示 显示 显示 NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB NB And the amount of protein of 3, which is most obvious with MRJP3 (see Figure 5). Example 7: Effect of HDAC inhibitor SAHA on MRJP3 protein expression and growth of bee princes SAHA is a potent HDAC inhibitor, which can significantly promote the secretion of young worker bees when the virtual search is at 5-15 mg/kg. The change in the composition ratio of the protein of the π bovine soil. Taking 72 hours as an example, the ratio of MRJP3 in the control group at 68 kDa and 64 kDa was 2:8; however, at high dose (5 g/k phantom green propolis extract group and propolis G (150) Mg/kg) is a positive control, the ratio of ZK 68 kDa to 64 kDa MRJP3 is 5.5.4 sr. • and 8:2. However, the 15 mg/kg SAHA treatment group has a molecular weight of 68 ga and 64 The ratio of uncomfortable milk is 4:6 (see Figure 6). This special royal jelly provides a significant increase in body weight compared to the bee prince, as shown in Table 8. S, = Table 8: SAHA affects young worker bees to secrete special royal jelly Caused the rapid growth of bees. Average weight per bee prince (mg) Group control group (U1) Taiwan green propolis extract low dose group (T1) (5 g/kg) Propolin G (Gl) (150 mg/kg) SAHA ( Sl-1) (5 mg/kg)

4.0 41.2 72h 38.4 194.7 178.6 149.3 149.2 SAHA (S2-1) (15 mg/kg) 141899.doc -48- 201103899 實例8:特殊蜂王的培育 進行實驗研究以飯食台灣綠蜂膠萃取物的年輕工蜂所分 J特殊蜂王乳餵食蜂王子的發育及變態。如前所述,以么 灣綠蜂膠萃取物處理組顯著促進蜂王子的生長。發現食; 台灣蜂膠萃取物組⑷·G g/kg台灣綠蜂膠萃取物處理),明 顯在幼蟲期,彳足;隹絵^ x 2 , 促進蜂王子的生I;並且持續觀察進入蜗 期’在第4至第8天蜂蛹明顯比對照組大(參見圖⑽)。量測 “子及踊的體重’發現在幼蟲期第3天,實驗組台灣蜂膠 萃取物組體重較對照組重⑽%(參見圖9(b))。而進入蜗期 對照組’從帛4天的196.0 mg降至第8天的136 1〇 mg(每隻蜂 蛹的重量)’約下降30%。台灣蜂膠萃取物組,從第4=的 271.30 mg降至第8天的244·53 mg(每隻蜂蛹的重量),約下 降9_8/。(參見圖9(c)) u然的,餵飼台灣蜂膠萃取物組的 蜂踊在進行k g過程中丨肖耗較少的能量。而我們以蜗期 第天來進行比較,也發現餵飼台灣蜂膠萃取物組的蜂蜗, 約比對照組增加約80%的重量倍。大約與幼蟲期相差ι〇〇% 的重量差。 實例9.本發明特殊蜂王乳的生物功能 針對餵g台灣綠蜂膠萃取物的年輕工蜂所分泌蜂王乳的 抗癌功能及腦神經幹細胞的分化。 在抗癌研究中,Hs683細胞(人類gii〇ma細胞)係購自食品 工業發展研究所(台灣’新竹)並培養於RPMI 164〇 (Gibco), 含有2 mM麩胺酸及o.i mM NEAA、100 mg/L丙酮酸鈉、 10% FBS及1%稀釋的盤尼西林及鏈黴素,並維持在37(&gt;c、 141899.doc • 49· 201103899 95%溼度的大氣及5% C02。細胞(每盤3x105)培養於6孔培養 皿持續過夜。接著將細胞轉移至缺乏血清的培養基並以不 同濃度(15及45 pg/mL)的水溶性蜂王乳蛋白處理。發現以 45 pg/mL的蜂王乳蛋白處理48小時,在B1及C1組,顯著抑 制Hs683細胞的生長(參見圖7)。 在分化研究,將腦神經幹細胞培養於含B27(Gibco)的神 經基礎培養基(Gibco)。以10 pg/mL的水溶性蜂王乳蛋白質 處理神經球(neurosphere)。以EGF(5 ng/mL)作為正對照 組。如圖8所示,以10 pg/mL的蜂王乳蛋白處理72小時,於 B 1及C1組,明顯誘導神經幹細胞分化成神經元細胞、神經 膠細胞及寡突細胞。 上述數據建議HDAC抑制劑可影響年輕工蜂的咽頭腺與 大顎腺的染色質重組,因此改變68 kDa及64 kDa MRJP3蛋 白的表現,但不改變其他MRJP蛋白質的表現。68 kDa及64 kDa MRJP蛋白間比例的改變可在每一增大的蜂王子中鑑定 出,且轉變趨向於68 kDa或64 kDa MRJP同源異構體 (isoform)。多型性MRJP3的選擇性剪切可被HDAC抑制劑影 響,其導致68 kDa及64kDa同源異構體表現的改變。兩種同 源異構體蛋白表現的調控決定了蜂王子的生長。 參考資料 【圖式簡單說明】 圖1顯示經台灣綠蜂膠萃取物餵飼之年輕工蜂分泌特殊蜂 王乳,該蜂王乳誘發幼蟲之快速生長。U-1及U-2 :對照 組;A-1及A-2 :經1.25 g/kg之台灣綠蜂膠萃取物處理者; 141899.doc -50- 201103899 Β-l及B-2 :經2.5 0 g/kg之台灣綠蜂膠萃取物處理者;C-1及 C-2 :經5.0 g/kg之台灣綠蜂膠萃取物處理者。 圖2顯示經蜂膠素C餵飼之年輕工蜂分泌特殊蜂王乳,該 蜂王乳誘發幼蟲之快速生長。U-2 :對照組;C1-2 :經50 mg/kg 之蜂膠素C處理者;C2-2 :經100 mg/kg之蜂膠素C處理者。 圖3顯示經蜂膠素G餵飼之年輕工蜂分泌之蜂王乳中所鑑 別出之水溶性蛋白組成。該等樣品係於不同時間點所收集 者。U-1 :對照組;T-1 :經5.0 g/kg台灣綠蜂膠萃取物處理 之正對照組;G1-1 :經150 mg/kg蜂膠素G處理者;G2-1 : 經3 00 mg/kg蜂膠素G處理者;G3-1 :經600 mg/kg蜂膠素G 處理者。 圖4顯示經NBM-HD-1餵飼之年輕工蜂分泌之蜂王乳中所 鑑別出之水溶性蛋白組成。該等樣品係於不同時間點所收 集者。U-1 :對照組;T-1 :經5.0 g/kg台灣綠蜂膠萃取物處 理之正對照組;m-1 :經50 mg/kg NBM-HD-1處理者;H2-1 :經100 mg/kg NBM-HD-1處理者;H3-1 :經 200 mg/kg NBM-HD-1處理者。 圖5顯示二維凝膠電泳分析結果,其目的在於分析於72小 時自經NBM-HD-1處理之組別之幼蟲萃取出之水溶性蛋白 質。L-l : MRJP1 ; L-2 : MRJP3 ; L-3 : MRJP2 ; L-4 : MRJP2 ; L-5:MRJP3 ; L-6 : MRJP3 ; L-7 : MRJP3 ; L-8 : MRJP2。U1-1 :對照組;H3-1 :經 200 mg/kg NBM-HD-1 處 理者。 圖6顯示經SAHA餵飼之年輕工蜂分泌之蜂王乳中所鑑別 141899.doc -51 - 201103899 出之水溶性蛋白組成。該等樣品係於72小時之時間點所收 集者。U-1 :對照組;T-1 :經5.0 g/kg台灣綠蜂膠萃取物處 理之正對照組;G-1 :經150 mg/kg蜂膠素G處理之正對照 組;S1-1 :經5 mg/kg SAHA處理者;S2-1 :經 15 mg/kg SAHA處理者。 圖7顯示台灣綠蜂膠萃取物誘發年輕工蜂分泌特殊.蜂王 乳,該特殊蜂王乳可抑制人類glioma Hs683細胞之增殖。 U1 :對照組;A1 :經1.25 g/kg台灣綠蜂膠萃取物處理者; B1 :經2.5 0 g/kg台灣綠蜂膠萃取物處理者;C1 :經5.0 g/kg 台灣綠蜂膠萃取物處理者。 圖8顯示台灣綠蜂膠萃取物誘發年輕工蜂分泌特殊蜂王 乳,該特殊蜂王乳可誘發老鼠神經幹細胞之分化。U1 :對 照組;A1 :經1.25 g/kg台灣綠蜂膠萃取物處理者;B1 :經 2.50 g/kg台灣綠蜂膠萃取物處理者;C1 :經5.0 g/kg台灣綠 蜂膠萃取物處理者;EGF :正對照。 圖9(a)至(c)顯示台灣綠蜂膠萃取物誘發年輕工蜂分泌特 殊蜂王乳,該特殊蜂王乳可促進蜂王幼蟲之生長及發育。 U :對照組;T :經5.0 g/kg台灣綠蜂膠萃取物處理者。 參考資料 1. Hellner M, Winter D, von Georgi R, Miinstedt K. Apitherapy: usage and experience in german beekeepers. Evid Based Complement Altemat Med. 2008;5(4):475-9。 2. Winston M L. The Biology of the Honeybee. Harvard University Press: Cambridge, MA,1987。 141899.doc -52- 201103899 3. Robinson G E. In Neurobiology and Behavior of Honeybee; Menzel R, Mercer R, Eds.; Springer-Verlag: New Yorl, 1987; pp 266-279 ° 4. Peiren N, Vanrobaeys F, de Graaf DC, Devreese B, Van Beeumen J, Jacobs FJ. The protein composition of honeybee venom reconsidered by a , proteomic approach· Biochim Biophys Acta· 2005; 1752(1): 1-5。 5. Takaki-Doi S, Hashimoto K, Yamamura M, Kamei C. Antihypertensive activities of royal jelly protein hydrolysate and its fractions in spontaneously hypertensive rats. Acta Med Okayama. 2009;63(1):57-64 ° 6. Mannoor MK, Shimabukuro I, Tsukamotoa M, Watanabe H, Yamaguchi K, Sato Y. Honeybee royal jelly inhibits autoimmunity in SLE-prone NZB x NZWFI mice. Lupus. 2009; 18( 1):44-52 o 7. Gasic S, Vucevic D, Vasilijic S, Antunovic M, Chinou I, Colic M. Evaluation of the immunomodulatory activities of royal jelly components in vitro. Immunopharmacol Immunotoxicol. 2007;29(3-4):521-36 ° 8. Vucevic D, Melliou E, Vasilijic S, Gasic S, Ivanovski P, Chinou I, Colic M. Fatty acids isolated from royal jelly modulate dendritic cell-mediated immune response in vitro. Int Immunopharmacol. 2007;7(9): 1211-20。 9. Boukraa L. Additive activity of royal jelly and honey against Pseudomonas aeruginosa. Altem Med Rev. 2008; 13(4):330-3 ° 10. Hashimoto M, Kanda M, Ikeno K, Hayashi Y, Nakamura T, Ogawa Y, Fukumitsu H, Nomoto H, Furukawa S. Oral administration of royal jelly facilitates mRNA expression of glial cell line-derived neurotrophic factor and neurofilament H in the hippocampus of the adult mouse brain. Biosci 14J899.doc -53- 2011038994.0 41.2 72h 38.4 194.7 178.6 149.3 149.2 SAHA (S2-1) (15 mg/kg) 141899.doc -48- 201103899 Example 8: Cultivation of special queens Experimental study of young worker bees with Taiwan green propolis extract The development and metamorphosis of the special queen bee feeding the bee prince. As mentioned earlier, the green bay propolis extract treatment group significantly promoted the growth of bee princes. Found food; Taiwan propolis extract group (4) · G g / kg Taiwan green propolis extract treatment), apparently in the larval stage, lameness; 隹絵 ^ x 2, promote the birth of the bee prince I; and continue to observe into the worm period On days 4 to 8, the bee sting was significantly larger than the control group (see Fig. (10)). The measurement of "body and weight of the cockroach" found that on the third day of the larval stage, the body weight of the propolis extract group in the experimental group was (10)% heavier than that of the control group (see Fig. 9(b)). The day's 196.0 mg dropped to 136 1〇mg (the weight of each bee sting) on day 8 'about 30%. Taiwan propolis extract group, from the 4th = 271.30 mg to the 8th day of the 244.53 Mg (weight of each bee sting) decreased by about 9_8/ (see Figure 9(c)). However, the bee stings fed the Taiwan propolis extract group consumed less energy during the kg process. On the first day of the cosmic period, we also found that the bee worms fed the propolis extract group in Taiwan increased about 80% of the weight of the control group, which is about the difference of the weight difference from the larval stage. 9. The biological function of the special royal jelly of the present invention is directed to the anticancer function and the differentiation of brain neural stem cells secreted by young worker bees fed the green propolis extract of Taiwan. In the anti-cancer study, Hs683 cells (human gii〇ma cells) ) purchased from the Food Industry Development Research Institute (Taiwan 'Hsinchu) and cultivated in RPMI 164〇 (Gibco), including 2 mM glutamic acid and oi mM NEAA, 100 mg/L sodium pyruvate, 10% FBS and 1% diluted penicillin and streptomycin, maintained at 37 (&gt;c, 141899.doc • 49·201103899 95% The atmosphere of humidity and 5% C02. Cells (3x105 per plate) were grown in 6-well culture dishes overnight. The cells were then transferred to serum-deficient medium and water-soluble queen milk protein at different concentrations (15 and 45 pg/mL). Treatment. It was found that treatment with 45 pg/mL of royal milk protein for 48 hours significantly inhibited the growth of Hs683 cells in the B1 and C1 groups (see Figure 7). In differentiation studies, brain neural stem cells were cultured in B27 (Gibco)-containing cells. Neurobasic medium (Gibco). Neurospheres were treated with 10 pg/mL of water-soluble royal jelly protein. EGF (5 ng/mL) was used as a positive control group. As shown in Figure 8, at 10 pg/mL After treatment with royal milk protein for 72 hours, in the B 1 and C1 groups, neural stem cells were induced to differentiate into neuronal cells, glial cells and oligodendrocytes. The above data suggest that HDAC inhibitors can affect the pharyngeal glands and large parotid glands of young worker bees. Chromatin recombination, thus changing the 68 kDa and 64 kDa MRJP3 eggs White performance, but does not alter the performance of other MRJP proteins. Changes in the ratio of the 68 kDa and 64 kDa MRJP proteins can be identified in each of the enlarged bee princes, and the transformation tends to be 68 kDa or 64 kDa MRJP homologous Isoform. Selective cleavage of polymorphic MRJP3 can be affected by HDAC inhibitors, which result in altered expression of 68 kDa and 64 kDa homologues. The regulation of the expression of two homologous isomers determines the growth of the bee prince. References [Simple description of the diagram] Figure 1 shows that young worker bees fed by Taiwan green propolis extract secrete special royal jelly, which induces rapid growth of larvae. U-1 and U-2: control group; A-1 and A-2: treated by 1.25 g/kg of Taiwan green propolis extract; 141899.doc -50- 201103899 Β-l and B-2: via 2.5 0 g/kg of Taiwan green propolis extract processor; C-1 and C-2: treated with 5.0 g/kg of Taiwan green propolis extract. Figure 2 shows that young worker bees fed with propolis C secrete special royal jelly, which induces rapid growth of larvae. U-2: control group; C1-2: treated with 50 mg/kg propolis C; C2-2: treated with 100 mg/kg propolis C. Figure 3 shows the composition of the water-soluble protein identified in the royal jelly secreted by young worker bees fed with propolis G. These samples are collected at different time points. U-1: control group; T-1: positive control group treated with 5.0 g/kg Taiwan green propolis extract; G1-1: treated with 150 mg/kg propolis G; G2-1: 3 000 mg /kg propolis G treatment; G3-1: treated with 600 mg/kg propolis G. Figure 4 shows the composition of the water-soluble protein identified in the royal jelly secreted by young worker bees fed with NBM-HD-1. These samples are collected at different time points. U-1: control group; T-1: positive control group treated with 5.0 g/kg Taiwan green propolis extract; m-1: treated with 50 mg/kg NBM-HD-1; H2-1: 100 Mg/kg NBM-HD-1 processor; H3-1: treated with 200 mg/kg NBM-HD-1. Fig. 5 shows the results of two-dimensional gel electrophoresis analysis for the purpose of analyzing the water-soluble protein extracted from the larvae of the group treated with NBM-HD-1 at 72 hours. L-l : MRJP1 ; L-2 : MRJP3 ; L-3 : MRJP2 ; L-4 : MRJP2 ; L-5 : MRJP3 ; L-6 : MRJP3 ; L-7 : MRJP3 ; L-8 : MRJP2. U1-1: control group; H3-1: treated with 200 mg/kg NBM-HD-1. Figure 6 shows the composition of the water-soluble protein identified in the royal jelly secreted by SAHA-fed young worker bees 141899.doc -51 - 201103899. These samples were collected at the 72 hour time point. U-1: control group; T-1: positive control group treated with 5.0 g/kg Taiwan green propolis extract; G-1: positive control group treated with 150 mg/kg propolis G; S1-1: 5 mg/kg SAHA treatment; S2-1: treated with 15 mg/kg SAHA. Figure 7 shows that Taiwan green propolis extract induces young worker bee to secrete special. Royal jelly, which inhibits the proliferation of human glioma Hs683 cells. U1: control group; A1: treated with 1.25 g/kg Taiwan green propolis extract; B1: treated with 2.5 g/kg Taiwan green propolis extract; C1: treated with 5.0 g/kg Taiwan green propolis extract . Figure 8 shows that Taiwan green propolis extract induces young worker bees to secrete special royal jelly, which can induce differentiation of mouse neural stem cells. U1: control group; A1: treated with 1.25 g/kg Taiwan green propolis extract; B1: treated with 2.50 g/kg Taiwan green propolis extract; C1: treated with 5.0 g/kg Taiwan green propolis extract; EGF: Positive control. Figures 9(a) to (c) show that Taiwan green propolis extract induces young worker bees to secrete special royal jelly, which promotes the growth and development of queen bee larvae. U: control group; T: treated with 5.0 g/kg Taiwan green propolis extract. References 1. Hellner M, Winter D, von Georgi R, Miinstedt K. Apitherapy: usage and experience in german beekeepers. Evid Based Complement Altemat Med. 2008;5(4):475-9. 2. Winston M L. The Biology of the Honeybee. Harvard University Press: Cambridge, MA, 1987. 141899.doc -52- 201103899 3. Robinson G E. In Neurobiology and Behavior of Honeybee; Menzel R, Mercer R, Eds.; Springer-Verlag: New Yorl, 1987; pp 266-279 ° 4. Peiren N, Vanrobaeys F , de Graaf DC, Devreese B, Van Beeumen J, Jacobs FJ. The protein composition of honeybee venom reconsidered by a , proteomic approach· Biochim Biophys Acta· 2005; 1752(1): 1-5. 5. Takaki-Doi S, Hashimoto K, Yamamura M, Kamei C. Antihypertensive activities of royal jelly protein hydrolysate and its fractions in spontaneously hypertensive rats. Acta Med Okayama. 2009;63(1):57-64 ° 6. Mannoor MK , Shimabukuro I, Tsukamotoa M, Watanabe H, Yamaguchi K, Sato Y. Honeybee royal jelly inhibits autoimmunity in SLE-prone NZB x NZWFI mice. Lupus. 2009; 18( 1):44-52 o 7. Gasic S, Vucevic D , Vasilijic S, Antunovic M, Chinou I, Colic M. Evaluation of the immunomodulatory activities of royal jelly components in vitro. Immunopharmacol Immunotoxicol. 2007;29(3-4):521-36 ° 8. Vucevic D, Melliou E, Vasilijic S, Gasic S, Ivanovski P, Chinou I, Colic M. Fatty acids isolated from royal jelly modulate dendritic cell-mediated immune response in vitro. Int Immunopharmacol. 2007;7(9): 1211-20. 9. Boukraa L. Additive activity of royal jelly and honey against Pseudomonas aeruginosa. Altem Med Rev. 2008; 13(4): 330-3 ° 10. Hashimoto M, Kanda M, Ikeno K, Hayashi Y, Nakamura T, Ogawa Y , Fukumitsu H, Nomoto H, Furukawa S. Oral administration of royal jelly facilitats mRNA expression of glial cell line-derived neurotrophic factor and neurofilament H in the hippocampus of the adult mouse brain. Biosci 14J899.doc -53- 201103899

Biotechnol Biochem. 2005;69(4):800-5。 11. Guo H, Ekusa A, Iwai K, Yonekura M, Takahata Y, Morimatsu F.Royal jelly peptides inhibit lipid peroxidation in vitro and in vivo. J Nutr Sci Vitaminol (Tokyo). 2008;54(3):191-5。 12. Scarselli R, Donadio E, Giuffrida MG, Fortunato D, Conti A, Balestreri Ε» Felicioli R, Pinzauti M, Sabatini AQ Felicioli A. Towards royal jelly proteome. Proteomics· 2005;5(3):769-76 o 13. Schmitzova J, Klaudiny J, Albert S, Schroder W, Schreckengost W, Hanes J, Jiidova J, Simuth J. A family of major royal jelly proteins of the honeybee Apis melliferaL. Cell Mol Life Sci. 1998;54(9): 1020-30 ° 14. Kohno K, Okamoto I, Sano O, Arai N, Iwaki K, Ikeda M, Kurimoto M. Royal jelly inhibits the production of proinflammatory cytokines by activated macrophages. Biosci Biotechnol Biochem. 2004;68(1): 138-45。 15. Malecova B, Ramser J, O'Brien JK, Janitz M, Jiidova J, Lehrach H, Simiith J. Honeybee (Apis mellifera L.) mrjp gene family: computational analysis of putative promoters and genomic structure of mrjpl, the gene coding for the most abundant protein of larval food. Gene. 2003 ;303:165-75 〇 16. Furusawa T, Rakwal R, Nam HW, Shibato J, Agrawal GK, Kim YS, Ogawa Y, Yoshida Y, Kouzuma Y, Masuo Y, Yonekura M. Comprehensive royal jelly (RJ) proteomics using one- and two-dimensional proteomics platforms reveals novel RJ proteins and potential phospho/glycoproteins. J Proteome Res. 2008;7(8):3194-229。 17. Djupedal I, Ekwall K. Epigenetics: heterochromatin meets RNAi. Cell 141899.doc • 54· 201103899Biotechnol Biochem. 2005;69(4):800-5. 11. Guo H, Ekusa A, Iwai K, Yonekura M, Takahata Y, Morimatsu F. Royal chloride peptides inhibit lipid peroxidation in vitro and in vivo. J Nutr Sci Vitaminol (Tokyo). 2008;54(3):191-5 . 12. Scarselli R, Donadio E, Giuffrida MG, Fortunato D, Conti A, Balestreri Ε» Felicioli R, Pinzauti M, Sabatini AQ Felicioli A. Towards royal jelly proteome. Proteomics· 2005;5(3):769-76 o 13 Schmitzova J, Klaudiny J, Albert S, Schroder W, Schreckengost W, Hanes J, Jiidova J, Simuth J. A family of major royal jelly proteins of the honeybee Apis mellifera L. Cell Mol Life Sci. 1998;54(9): 1020-30 ° 14. Kohno K, Okamoto I, Sano O, Arai N, Iwaki K, Ikeda M, Kurimoto M. Royal jelly inhibits the production of proinflammatory cytokines by activated macrophages. Biosci Biotechnol Biochem. 2004;68(1): 138-45. 15. Malecova B, Ramser J, O'Brien JK, Janitz M, Jiidova J, Lehrach H, Simiith J. Honeybee (Apis mellifera L.) mrjp gene family: computational analysis of putative promoters and genomic structure of mrjpl, the gene coding Gene. 2003 ;303:165-75 〇16. Furusawa T, Rakwal R, Nam HW, Shibato J, Agrawal GK, Kim YS, Ogawa Y, Yoshida Y, Kouzuma Y, Masuo Y Yonekura M. Comprehensive royal jelly (RJ) proteomics using one- and two-dimensional proteomics platforms reveals novel RJ proteins and potential phospho/glycoproteins. J Proteome Res. 2008;7(8):3194-229. 17. Djupedal I, Ekwall K. Epigenetics: heterochromatin meets RNAi. Cell 141899.doc • 54· 201103899

Res. 2009;19(3):282-95。 18. Selvi RB, Kundu TK. Reversible acetylation of chromatin: implication in regulation of gene expression, disease and therapeutics. Biotechnol J. 2009;4(3):375-90 » 19. Fiskus W, Buckley K} Rao R, Mandawat A, Yang Y, Joshi R, Wang Y, Balusu R, Chen J, Koul S, Joshi A, Upadhyay S, Atadja P, Bhalla KN. Panobinostat treatment depletes EZH2 and DNMT1 levels and enhances decitabine mediated de-repression of JunB and loss of survival of human acute leukemia cells. Cancer Biol Ther. 2009;8( 10)。 20. Foumel M, Bonfils C, Hou Y, Yan PT, Trachy-Bourget MC, Kalita A, Liu J, Lu AH, Zhou NZ, Robert MF, Gillespie J, Wang JJ, Ste-Croix H, Rahil J, Lefebvre S, Moradei O, Delorme D, Macleod AR, Besterman JM, Li Z. MG.CD0103, a novel isotype-selective histone deacetylase inhibitor, has broad spectrum antitumor activity in vitro and in vivo. Mol Cancer Ther. 2008;7(4):759-68。 21. Charrier C, Roche J, Gesson JP, Bertrand P. Antiproliferative activities of a library of hybrids between indanones and HD AC inhibitor SAHA and MS-275 analogues. Bioorg Med Chem Lett. 2007;17(22):6142-6。 22. Spurling CC, Godman CA, Noonan EJ, Rasmussen TP, Rosenberg DW, Giardina C. HDAC3 overexpression and colon cancer cell proliferation and differentiation. Mol Carcinog. 2008;47(2): 137-47。 23. Shankar S, Srivastava RK. Histone deacetylase inhibitors: mechanisms and clinical significance in cancer: HDAC inhibitor-induced apoptosis. Adv Exp Med Biol. 2008;615:261-98。 is 141899.doc -55- 201103899 24. Wu LP, Wang X, Li L, Zhao Y, Lu S, Yu Y, Zhou W, Liu X, Yang J, Zheng Z, Zhang H, Feng J, Yang Y, Wang H, Zhu WG Histone deacetylase inhibitor depsipeptide activates silenced genes through decreasing both CpG and H3K9 methylation on the promoter. Mol Cell Biol. 2008;28(10):3219-35。 25. Gurvich N, Tsygankova OM, Meinkoth JL, Klein PS. Histone deacetylase is a target of valproic acid-mediated cellular differentiation. Cancer Res. 2004;64(3): 1079-86。 26. Tost J. DNA methylation: an introduction to the biology and the disease-associated changes of a promising biomarker. Methods Mol Biol. 2009;507:3-20。 27. Ghoshal K, Bai S. DNA methyltransferases as targets for cancer therapy. Drugs Today (Bare). 2007;43(6):395-422 e 28. Janet S. Graham, Stanley B. Kaye, Robert Brown. The promises and pitfalls of epigenetic therapies in solid tumours. European Journal of Cancers 45(2009) 1129-1136. 29. T. J. Walton, G. Li, R. Seth, S.E. McArdle, M.C. Bishop, and R.C. Rees. DNA Demthylation and Histone Deacetylation Inhibition Co-Operate to Re-Express Estrogen Recetpor Beta and Induce Apoptosis in Prostate Cancer Cell-Lines. The Prostate 68:210-222 (2008). 30. Julie C. Kiefer. Epigenetics in Development. Developmental Dynamics 236:1144-1156,2007. 31. Ahmad Miremadi, Mikkel Z. Oestergaard, Paul D.P. Pharoah, and CarlosRes. 2009;19(3): 282-95. 18. Selvi RB, Kundu TK. Reversible acetylation of chromatin: implication in regulation of gene expression, disease and therapeutics. Biotechnol J. 2009;4(3):375-90 » 19. Fiskus W, Buckley K} Rao R, Mandawat A, Yang Y, Joshi R, Wang Y, Balusu R, Chen J, Koul S, Joshi A, Upadhyay S, Atadja P, Bhalla KN. Panobinostat treatment depletes EZH2 and DNMT1 levels and enhances decitabine mediated de-repression of JunB and loss Of survival of human acute leukemia cells. Cancer Biol Ther. 2009;8(10). 20. Foumel M, Bonfils C, Hou Y, Yan PT, Trachy-Bourget MC, Kalita A, Liu J, Lu AH, Zhou NZ, Robert MF, Gillespie J, Wang JJ, Ste-Croix H, Rahil J, Lefebvre S , Moradei O, Delorme D, Macleod AR, Besterman JM, Li Z. MG.CD0103, a novel isotype-selective histone deacetylase inhibitor, has broad spectrum antitumor activity in vitro and in vivo. Mol Cancer Ther. 2008;7(4) : 759-68. 21. Charrier C, Roche J, Gesson JP, Bertrand P. Antiproliferative activities of a library of hybrids between indanones and HD AC inhibitor SAHA and MS-275 analogues. Bioorg Med Chem Lett. 2007; 17(22): 6142-6. 22. Spurling CC, Godman CA, Noonan EJ, Rasmussen TP, Rosenberg DW, Giardina C. HDAC3 overexpression and colon cancer cell proliferation and differentiation. Mol Carcinog. 2008;47(2): 137-47. 23. Shankar S, Srivastava RK. Histone deacetylase inhibitors: mechanisms and clinical significance in cancer: HDAC inhibitor-induced apoptosis. Adv Exp Med Biol. 2008;615:261-98. Is 141899.doc -55- 201103899 24. Wu LP, Wang X, Li L, Zhao Y, Lu S, Yu Y, Zhou W, Liu X, Yang J, Zheng Z, Zhang H, Feng J, Yang Y, Wang H, Zhu WG Histone deacetylase inhibitor depsipeptide activates silenced genes through reducing both CpG and H3K9 methylation on the promoter. Mol Cell Biol. 2008;28(10):3219-35. 25. Gurvich N, Tsygankova OM, Meinkoth JL, Klein PS. Histone deacetylase is a target of valproic acid-mediated cellular differentiation. Cancer Res. 2004;64(3): 1079-86. 26. Tost J. DNA methylation: an introduction to the biology and the disease-associated changes of a promising biomarker. Methods Mol Biol. 2009;507:3-20. 27. Ghoshal K, Bai S. DNA methyltransferases as targets for cancer therapy. Drugs Today (Bare). 2007;43(6):395-422 e 28. Janet S. Graham, Stanley B. Kaye, Robert Brown. The promises And pitfalls of epigenetic therapies in solid tumours. European Journal of Cancers 45 (2009) 1129-1136. 29. TJ Walton, G. Li, R. Seth, SE McArdle, MC Bishop, and RC Rees. DNA Demthylation and Histone Deacetylation Inhibition Co-Operate to Re-Express Estrogen Recetpor Beta and Induce Apoptosis in Prostate Cancer Cell-Lines. The Prostate 68:210-222 (2008). 30. Julie C. Kiefer. Epigenetics in Development. Developmental Dynamics 236:1144-1156, 2007. 31. Ahmad Miremadi, Mikkel Z. Oestergaard, Paul DP Pharoah, and Carlos

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Claims (1)

201103899 七、申請專利範圍: ^ 一種培育相較於對照組幼蟲,重量至少大一倍(100%)之 蛍蜂幼蟲之方法;該方法包括以一種HDAC抑制劑或數 種HDAC抑制劑之混合物餵飼年輕工蜂,並以該等年輕 工蜂所分泌之蜂王乳餵飼蜜蜂幼蟲;其中對照組之幼蟲 所食用之 一 ^ 蜂王乳’係由未银飼HDAC抑制劑或數種HDAC 抑制劑之混合物之年輕工蜂所分泌。 2.如請求項 „ ^ &lt;万法,其中餵飼蜂王乳72小時後的幼蟲重 量增加大於1.5倍。 3 · 如清求項1夕 d 曰、,$丄之方法,其中餛飼蜂王乳72小時後的幼蟲重 里增加約2到5倍。 4·如切求項1之方法,其中餵飼蜂王乳72小時後 量增加約3到5倍。 5·如請求項1之方法’其中蜂王乳中順Ρ3蛋白質的68 kE 對64 kDa的比例改變。 6· ^求項5之方法’其中蜂王乳中嫩阳蛋白質的68 kE ,4 ^的比例,相對於控制組,增加約1.5至12倍-倍、2至6倍、2至1〇倍、4至12倍或2至4倍。 化人ί項1之方法,其f該™^抑制劑係選自下列式(1 1:::之:組或其醫藥上可接受鹽、立體異構物、則 宜般荦上剛樂及浴劑合物’下列式(11)化合物之群㈣ 溶;=可接受鹽、立體異構物、鏡像異構物、前藥及 Η。物’ SAHA,蜂膠及蜂勝素之群組, I41899.doc 201103899201103899 VII. Scope of Application: ^ A method of cultivating a larvae of larvae that is at least twice as large (100%) compared to the control larvae; the method comprises feeding a mixture of HDAC inhibitors or several HDAC inhibitors Feeding young worker bees and feeding the bee larvae with the royal jelly secreted by the young worker bees; one of the larvae of the control group was eaten by a mixture of untreated silver HDAC inhibitors or several HDAC inhibitors. The young worker bee secreted. 2. If the request item „ ^ &lt; 万法, the weight of the larvae after feeding the royal jelly for 72 hours is more than 1.5 times. 3 · For example, the method of clearing the item 1 d d 曰,, 丄 ,, After 72 hours, the larvae increased by about 2 to 5 times. 4. If the method of item 1 is cut, the amount of the royal jelly is increased by about 3 to 5 times after 72 hours. 5. The method of claim 1 The ratio of 68 kE to 64 kDa in the milk 3 protein in milk was changed. 6· ^ Method 5 of the method] The ratio of 68 kE and 4 ^ of the tender protein in the royal jelly was increased by about 1.5 to 12 relative to the control group. Multiply-fold, 2 to 6-fold, 2 to 1-fold, 4 to 12-fold or 2 to 4-fold. The method of the method of 1, wherein the TM^ inhibitor is selected from the following formula (1 1:: :: a group or a pharmaceutically acceptable salt thereof, a stereoisomer, a mixture of a compound of the following formula (11) (4) dissolved; = an acceptable salt, a stereoisomer , mirror image isomers, prodrugs and sputum. 'SAHA, propolis and bee succulent group, I41899.doc 201103899 尺1及112各自獨立為OH、〇c(=〇)烷基、〇_烷基、s-烷 基、N_院基、〇-烯基、S-烯基、N-烯基、〇-炔基、S-炔 基、N_快基' 〇_C3-8環烷基、S-C3.8環烷基、N-C3-8環烷 基、〇-不飽和5-至10-員單環或雙環、s_不飽和5_至1〇_員 單環或雙環、N-不飽和5_至1〇_員單環或雙環、烷基、烯 基、快基、CM環烷基、不飽和5_至ι〇_員單環或雙環或 包含至少一個選自下列群組之雜原子:N、〇及s的飽和 或不飽和5-至10-員雜環;或心及化一起形成二氧五環; R3及R4各自獨立為〇H、〇c(=〇)烷基、〇_烷基、s-烷 基、N-烷基、0-烯基、s_烯基、N_烯基、〇炔基、s炔 基、N-快基、0-C3_8環炫ι基、S_C3 8環烧基、n_C3 8環烷 基、0-不飽和5·至10-員單環或雙環、s_不飽和5至ι〇員 單環或雙環、N-不飽和5_至1〇-員單環或雙環、烷基、烯 基、炔基、C3·8環炫&gt;基、不飽和5_至1〇_員單環或雙環或 包含至少一個選自下列群組之雜原子:N、〇及s的飽和 或不飽和5-至10-員雜環; Rs為C^6烷基或C:4·!6烯基,其中烷基或烯基為未經取 代或經一或多個Cr6烷基〇Η、鹵素、CN、NO、N,、 141899.doc 201103899 NH2、CHO、or9、SR9、NR9 或 COOR9取代; R_6為C2_12烧基或C2_1S烯基,其中烧基或烯基為未經取 代或經一或多個Ci-6烧基、OH、鹵素、CN、NO、N3、 NH2、CHO、OR9、SR9或NR9取代;或 R54R6之一為氫' iS素或〇H,另一為C4_16烷基或C4_16 伸烷基,未經取代或經一或多個Ck烷基' OH、NH2、 鹵素、CN、NO或N3取代; R7或Rs各自獨立為氫、鹵素、OH、NH2、COOH、 CHO、CN、NO、未經取代或經 〇H,NH2,COOH,鹵 素,CN,NO或CHO取代的Ci 6烧基、=〇、〇_烧基、s_ 烷基、N-烷基、〇-烯基、s_烯基、N_烯基、〇_炔基、s_ 炔基或N-炔基;或 R7及Rs—起形成雙鍵、C3 6環烷基或包含至少一個選 自下列群組之雜原子:N、〇及S的飽和或不飽和5_至1 〇_ 員雜環; R9為苯基、C(=0)R10、 R丨0為 OH、NHOH、贿 C(=〇)〇R1Q或苄基;及 !、烷基、苯基或苄基;Each of the scales 1 and 112 is independently OH, 〇c(=〇)alkyl, 〇-alkyl, s-alkyl, N-institutional, fluorenyl-alkenyl, S-alkenyl, N-alkenyl, fluorene- Alkynyl, S-alkynyl, N_fastyl' 〇_C3-8 cycloalkyl, S-C3.8 cycloalkyl, N-C3-8 cycloalkyl, 〇-unsaturated 5- to 10-member Monocyclic or bicyclic, s_unsaturated 5_ to 1〇_membered monocyclic or bicyclic, N-unsaturated 5_ to 1〇_membered monocyclic or bicyclic, alkyl, alkenyl, fast-radical, CM cycloalkyl , unsaturated 5_ to ι〇_ member monocyclic or bicyclic or containing at least one hetero atom selected from the group consisting of: N, 〇 and s saturated or unsaturated 5- to 10-membered heterocyclic ring; or Forming dioxane together; R3 and R4 are each independently 〇H, 〇c(=〇)alkyl, 〇-alkyl, s-alkyl, N-alkyl, 0-alkenyl, s-alkenyl, N-alkenyl, decynyl, synyl, N-fast, 0-C3_8 cyclohexyl, S_C3 8 cycloalkyl, n_C3 8 cycloalkyl, 0-unsaturated 5· to 10-membered single ring Or bicyclic, s_unsaturated 5 to ι 单 member monocyclic or bicyclic, N-unsaturated 5 _ to 1 〇-membered monocyclic or bicyclic, alkyl, alkenyl, alkynyl, C3·8 ring dazzle &gt; , unsaturated 5_ to 1〇_member single or double ring or included to One less heteroatom selected from the group consisting of N, hydrazine and s saturated or unsaturated 5- to 10-membered heterocyclic ring; Rs is C^6 alkyl or C:4·!6 alkenyl, wherein alkyl Or an alkenyl group which is unsubstituted or substituted by one or more Cr6 alkyl hydrazines, halogens, CN, NO, N, 141899.doc 201103899 NH2, CHO, or9, SR9, NR9 or COOR9; R_6 is C2_12 alkyl Or a C2_1S alkenyl group wherein the alkyl or alkenyl group is unsubstituted or substituted with one or more Ci-6 alkyl, OH, halogen, CN, NO, N3, NH2, CHO, OR9, SR9 or NR9; or R54R6 One is hydrogen 'iS or 〇H, the other is C4_16 alkyl or C4_16 alkyl, unsubstituted or substituted by one or more Ck alkyl 'OH, NH2, halogen, CN, NO or N3; R7 Or Rs each independently hydrogen, halogen, OH, NH2, COOH, CHO, CN, NO, unsubstituted or substituted by H, NH2, COOH, halogen, CN, NO or CHO Ci 6 alkyl, = 〇, 〇-alkyl, s_alkyl, N-alkyl, 〇-alkenyl, s-alkenyl, N-alkenyl, 〇-alkynyl, s-alkynyl or N-alkynyl; or R7 and Rs a double bond, a C3 6 cycloalkyl group or a heterogeneous group comprising at least one selected from the group consisting of Sub: N, 〇 and S saturated or unsaturated 5_ to 1 〇 _ member heterocyclic ring; R9 is phenyl, C (=0) R10, R 丨 0 is OH, NHOH, bribe C (= 〇) 〇 R1Q Or benzyl; and !, alkyl, phenyl or benzyl; 141899.doc 201103899 其中 員或6-員不飽和 h為氫、烷基、烯基、Cs 6環烷基、 碳環或5 -員或6員雜環; X為C、Ο、N或s ; Y為Ο、NH或O-Cw烷基; η為0至10的整數; m為0至5的整數; r2及r3各自為Ci 6烷基; R4為C5_6環烷基或5_員或6 婉A冬貝不飽和石厌壞或雜環,其可 ,,工鹵素' CF3、〇R7或nr7r8取朴 、 或C,_6烧基; 代、中心及心各自為氫 或雜環,其中哕产p其. 貝或6_貝不飽和碳環 NH 禮基、&amp;環及雜環可視需要經齒素、 CF3 ;及 丨.6烷敛基、〇R7、nr7r8或 6為H Ci-l〇燒基,其可經麵其戎ρ X y. 、工紅丞或C2-10烯基取代,或 與1—起為-C2H2-。 8· 如請求項1 $古、、土 , 习 、,八中該HDAC抑制劑為台灣綠蜂膠、 =膠素A、蜂膠素B、蜂勝素c'蜂勝素蜂夥素e、蜂 勝素F、蜂膠素G、蜂膠素Η、蜂谬素I、蜂膠素J、SAHA 或 NBM-HEM 〇 9.如請求項1之 、·^万法’其中HDAC抑制劑係選自下列群組: I41899.doc 201103899141899.doc 201103899 A member or a 6-membered unsaturated h is hydrogen, alkyl, alkenyl, Cs 6 cycloalkyl, carbocyclic or 5- or 6-membered heterocyclic ring; X is C, hydrazine, N or s; Y is an anthracene, NH or O-Cw alkyl group; η is an integer from 0 to 10; m is an integer from 0 to 5; r2 and r3 are each a Ci 6 alkyl group; R4 is a C5_6 cycloalkyl group or a 5 member or 6婉A winter shell unsaturated rock annoyed or heterocyclic ring, which can be, the working halogen 'CF3, 〇R7 or nr7r8 is simple, or C, _6 alkyl; the generation, center and heart are each hydrogen or heterocyclic, of which 哕Produce p. Beck or 6_ berylic acid ring NH nucleus, &amp; ring and heterocyclic ring can be seen by dentin, CF3; and 丨.6 alkylene, 〇R7, nr7r8 or 6 is H Ci-l An alkyl group which may be substituted by 戎ρ X y., gonghong or C2-10 alkenyl, or -C2H2-. 8· If the request item 1 $古,,土, 习,,八中, the HDAC inhibitor is Taiwan green propolis, = gelatin A, propolis B, bee shengsin c' bee succulent bee sinus e, bee wins F, propolis G, propolis quinone, beein I, propolis J, SAHA or NBM-HEM 〇 9. As claimed in claim 1, the method of HDAC is selected from the following groups: I41899.doc 201103899 och3Och3 141899.doc 201103899141899.doc 201103899 OMeOMe OMeOMe OMe 141899.doc 201103899OMe 141899.doc 201103899 141899.doc 201103899141899.doc 201103899 OMeOMe 141899.doc 201103899141899.doc 201103899 CHi CH OCH,CHi CH OCH, OCH3 CH, CHi OCH,OCH3 CH, CHi OCH, OCH3 141899.doc 201103899OCH3 141899.doc 201103899 CH. CH. OCHaCH. CH. OCHa 〇CH3 CH, CH,〇CH3 CH, CH, OH 蜂膠素A OHOH propolis A OH 蜂膠素B •10- 141899.doc 201103899 η〇Ύ^/0、 ch3蜂膠素c CH 3 OH O CH, CH, OHPropolis B •10- 141899.doc 201103899 η〇Ύ^/0, ch3 propolis c CH 3 OH O CH, CH, OH OH 蜂膠素D 141899.doc -11 - 201103899OH propolis D 141899.doc -11 - 201103899 蜂膠素E OHPropolis E OH 蜂膠素FPropolis F 蜂膠素G 12- 141899.doc 201103899Propolis G 12- 141899.doc 201103899 蜂膠素Η OHPropolis Η OH 蜂膠素IPropolis I 蜂膠素J 141899.doc ·13- 201103899Propolis J 141899.doc ·13- 201103899 NBM-HB-OSOlNBM-HB-OSOl 141899.doc 14- 201103899141899.doc 14- 201103899 HO ,'NH -nHO , 'NH -n NBM-C-BX-OSOl 141899.doc 15- 201103899 141899.doc HO NHNBM-C-BX-OSOl 141899.doc 15- 201103899 141899.doc HO NH NBM-C-BCX-OSOl HO NNBM-C-BCX-OSOl HO N NBM-C-BMX-OSOl HO :NH n—nNBM-C-BMX-OSOl HO : NH n-n NBM-C-BFX-OSOl 16- 201103899 HO 'nh n—r’NBM-C-BFX-OSOl 16- 201103899 HO 'nh n-r’ NBM-C-BBX-OSOlNBM-C-BBX-OSOl NBM-T-BX-OSOl H3CONBM-T-BX-OSOl H3CO NBM-T-BA-OSOlNBM-T-BA-OSOl 141899.doc 17- 201103899 141899.doc141899.doc 17- 201103899 141899.doc h3coH3co NBM-T-BMA-OSOl OIINBM-T-BMA-OSOl OII NBM-T-BCX-OSOl 18- 201103899NBM-T-BCX-OSOl 18- 201103899 NBM-T-L-BCX-OSOl H3CNBM-T-L-BCX-OSOl H3C o NH och3 NBM-T-BMX-OSOlo NH och3 NBM-T-BMX-OSOl NBM-T-K-BMX-OSOl ONBM-T-K-BMX-OSOl O 141899.doc -19- 201103899141899.doc -19- 201103899 NBM-T-BTX-OSOl πNBM-T-BTX-OSOl π NBM-T 丄-BTX-OSOlNBM-T 丄-BTX-OSOl NBM-T-L-BBX-OSOl 141899.doc •20- 201103899 ΟNBM-T-L-BBX-OSOl 141899.doc •20- 201103899 Ο h3co* NBM-T-BFX-OSOl 141899.doc HO VH3co* NBM-T-BFX-OSOl 141899.doc HO V HO NHHO NH NBM-C-BFX-OSOl •21 - 201103899NBM-C-BFX-OSOl •21 - 201103899 NBM-I-BCX-OSOl ΟNBM-I-BCX-OSOl Ο 141899.doc 22 201103899 NBM-T-I-BMX-OSOl141899.doc 22 201103899 NBM-T-I-BMX-OSOl NBM-T-L-I-BMX-OSOlNBM-T-L-I-BMX-OSOl NBM-T-I-BBX-OSOlNBM-T-I-BBX-OSOl NBM-T-L-I-BBX-OSOl 141899.doc -23- 201103899 οNBM-T-L-I-BBX-OSOl 141899.doc -23- 201103899 ο NBM-T-I-BCX-OSOl ΟNBM-T-I-BCX-OSOl Ο NBM-T-I-MCX-OSOl 10.如請求項1之方法,其中蜜蜂幼蟲可由工蜂餵飼由其分 泌的蜂王乳或由人類餵飼收集自工蜂的蜂王乳。 11 · 一種培育相較於對照組蜂蛹,重量至少大50%之蜂蛹、 或相較於對照組蜂王,重量至少大50%之蜂王之方法; 該方法包括以一種HDAC抑制劑或數種HDAC抑fj劑之混 141899.doc -24- 201103899 合物餵飼年輕工蜂,並以該等年輕工蜂所分泌之蜂王乳 餵飼幼蟲,而獲得由該幼蟲所發育而成之蛹或蜂王,其 中對照組之蛹或蜂王係由食用未餵飼HDAc抑制劑或數 種HDAC抑制劑混合物之年輕工蜂所分泌之蜂王乳的蜜 蜂幼蟲發育而成。 12‘如請求項U之方法’其中蜜蜂幼蟲可由工蜂餵飼由其分 '必的蜂王乳或由人類银飼收集自工蜂的蜂王乳。 13. -種的方法’其包括—種HDAC抑制劑或數種Η·。抑制 劑混合物餵飼年輕工蜂,以生產相較於對照組蜂王乳, 68 kDa及64 kDa MRJP3蛋白質比例經改變之蜂王乳。 14. 如請求項13之方法,其中MR;p3蛋白f的^伽對μ kDa的比例,相對於控制組,增加約15至η倍、1 $至5 倍、2至6倍' 2至1〇倍、4至12倍或2至4倍。 15. 如請求項13之方法,其中制獄抑制劑係、選自根據請 求項7所述之式⑴化合物或其醫藥上可接受鹽、立體異 構物、鏡像異構物、前藥及溶劑合物之群組。 16· ^請求項13之方法’其中㈣獄抑制劑係選自根據請 ,項7所述之式(11)化合物或其醫藥上可接受鹽、立體異 構物、鏡像異構物、前藥及溶劑合物之群組。 請求項13之方法’其中誠㈣抑制劑為台灣綠蜂 ^、蜂踢素A、蜂膠素B、蜂膠素c、蜂膠素β、蜂膠素 、蜂膠素F、蜂膠素G、料素H、蜂膠素t、蜂⑽卜 SAHA 或 NBM-HD-1。 18·如請求項Π之方法,其中_AC抑制劑係選自根據請 141899.doc -25- 201103899 求項1 〇所述之化合物之群組。 19. 一種如請求項13之方法所製得之蜂王乳,包括相對於對 照組蜂王乳,其中68 kDa及64 kDa MRJP3蛋白質之比例 改變。 20. 如請求項19之蜂王乳,其中蜂王乳中MRJP3蛋白質的68 kDa對64 kDa的比例,相對於控制組,增加約1.5至12 倍、1.5至5倍、2至6倍、2至10倍、4至12倍或2至4倍。 21. —種改變蜂王乳中68 kDa及64 kDa MRJP3蛋白質之比例 的方法,其包括一種HDAC抑制劑或數種HDAC抑制劑混 合物餵飼年輕工蜂,以生產相較於對照組蜂王乳,68 kDa及64 kDa MRJP3蛋白質比例經改變之蜂王乳。 22. —種調控工蜂基因之表觀遺傳之方法,其包括以 .HDAC抑制劑或數種HDAC抑制劑混合物餵飼工蜂,以調 控工蜂之wr力基因表現。 23. 如請求項22之方法,其中表觀遺傳為DNA曱基化的抑制 或HDAC活性的抑制。 141899.doc -26-NBM-T-I-MCX-OSOl 10. The method of claim 1, wherein the bee larvae can be fed by the worker bees with the royal jelly secreted by the worker bees or by the human beings feeding the royal jelly collected from the worker bees. 11 · A method of cultivating bee stings that are at least 50% heavier than the control bee stings, or a bee king that is at least 50% heavier than the control queen, including one HDAC inhibitor or several HDAC suppresses the mixture of Fj agents 141899.doc -24- 201103899 The compound feeds the young worker bees, and feeds the larvae with the royal jelly secreted by the young worker bees, and obtains the cockroach or queen bee developed by the larvae, wherein The sputum or queen of the control group was developed from bee larvae of royal jelly secreted by young worker bees who were not fed HDAc inhibitors or several HDAC inhibitor mixtures. 12 'A method of claim U' wherein the bee larvae can be fed by a worker bee by a bee king milk or a bee king milk collected from a worker bee. 13. A method of 'species' includes HDAC inhibitors or several species. The inhibitor mixture was fed a young worker bee to produce a royal jelly with a modified ratio of 68 kDa and 64 kDa MRJP3 protein compared to the control queen bee. 14. The method of claim 13, wherein the ratio of gamma to μ kDa of MR; p3 protein f is increased by about 15 to η times, 1 to 5 times, 2 to 6 times ' 2 to 1 relative to the control group 〇 times, 4 to 12 times or 2 to 4 times. 15. The method of claim 13, wherein the prison inhibitor is selected from the group consisting of the compound of the formula (1) according to claim 7 or a pharmaceutically acceptable salt thereof, a stereoisomer, a mirror image isomer, a prodrug and a solvent. Group of compounds. 16. The method of claim 13 wherein: (4) the prison inhibitor is selected from the group consisting of the compound of the formula (11) according to the item 7, or a pharmaceutically acceptable salt thereof, a stereoisomer, a mirror image isomer, a prodrug And groups of solvates. The method of claim 13 wherein the Cheng (four) inhibitor is Taiwan green bee ^, beexin A, propolis B, propolis c, propolis beta, propolis, propolis F, propolis G, hormone H, propolis Prime t, bee (10) BU SAHA or NBM-HD-1. 18. The method of claim </ RTI> wherein the _AC inhibitor is selected from the group consisting of the compounds described in claim 1 141899.doc -25- 201103899. 19. A royal jelly prepared by the method of claim 13, comprising a ratio of 68 kDa and 64 kDa MRJP3 protein relative to the control group of royal jelly. 20. The royal jelly of claim 19, wherein the ratio of 68 kDa to 64 kDa of MRJP3 protein in royal jelly is increased by about 1.5 to 12 times, 1.5 to 5 times, 2 to 6 times, 2 to 10 relative to the control group. Multiple, 4 to 12 times or 2 to 4 times. 21. A method for altering the ratio of 68 kDa and 64 kDa MRJP3 protein in royal jelly, comprising an HDAC inhibitor or a mixture of several HDAC inhibitors to feed young worker bees to produce 68 kDa compared to the control queen jelly And the 64 kDa MRJP3 protein ratio changed queen bee. 22. A method of regulating epigenetics of a worker bee gene comprising feeding a worker bee with a .HDAC inhibitor or a mixture of several HDAC inhibitors to control the gene expression of the worker bee. 23. The method of claim 22, wherein the epigenetic is inhibition of DNA thiolation or inhibition of HDAC activity. 141899.doc -26-
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