{"title":"研究食物功能和适口性的基因组学。","authors":"Keiko Abe","doi":"10.1159/000212733","DOIUrl":null,"url":null,"abstract":"<p><p>In the 1980s, Japan proposed the terminology of 'functional food' and its concept [1], and since then the importance of conducting basic and applied studies on food functionality has been emphasized globally. Functional foods in particular as well as common foods in general are constituted with a variety of components including functional factors, and it has been recognized as difficult to evaluate their functionalities by usual chemical, biochemical and physiological methodologies [2]. Against this backdrop, nutrigenomics came into being as a new method of evaluating functional foods, as well as nutrients, in a holistic manner. Meanwhile the endowed chair, Functional Food Genomics, was established at the University of Tokyo with the aegis of 32 food companies in Japan. This academia-industry collaboration has been working well to disclose why and how some particular functional foods elicit their effects in the body. These include soy protein isolate, cocoa polyphenol, sesamin as a lignan of sesame origin, and many others. On the other hand, food safety has been gaining public attention, and we applied genomics for assessment of the wholesomeness of newly developed hypoallergenic wheat flour compared with normal flour. The application of this way of holistic evaluation suggested that the new product was basically the same as the normal product in terms of all-gene expression profiles. The same method was applied to a new sweet protein, neoculin, which resembled toxic lectins in conformation. The result indicated that neoculin had lost its lectin activity, possessing no particular toxic effect. It is thus likely that genomics can be applied to a variety of foods in general for the purpose of simultaneously assessing their functionality.</p>","PeriodicalId":55148,"journal":{"name":"Forum of Nutrition","volume":"61 ","pages":"1-9"},"PeriodicalIF":0.0000,"publicationDate":"2009-01-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://sci-hub-pdf.com/10.1159/000212733","citationCount":"0","resultStr":"{\"title\":\"Genomics for food functionality and palatability.\",\"authors\":\"Keiko Abe\",\"doi\":\"10.1159/000212733\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><p>In the 1980s, Japan proposed the terminology of 'functional food' and its concept [1], and since then the importance of conducting basic and applied studies on food functionality has been emphasized globally. Functional foods in particular as well as common foods in general are constituted with a variety of components including functional factors, and it has been recognized as difficult to evaluate their functionalities by usual chemical, biochemical and physiological methodologies [2]. Against this backdrop, nutrigenomics came into being as a new method of evaluating functional foods, as well as nutrients, in a holistic manner. Meanwhile the endowed chair, Functional Food Genomics, was established at the University of Tokyo with the aegis of 32 food companies in Japan. This academia-industry collaboration has been working well to disclose why and how some particular functional foods elicit their effects in the body. These include soy protein isolate, cocoa polyphenol, sesamin as a lignan of sesame origin, and many others. On the other hand, food safety has been gaining public attention, and we applied genomics for assessment of the wholesomeness of newly developed hypoallergenic wheat flour compared with normal flour. The application of this way of holistic evaluation suggested that the new product was basically the same as the normal product in terms of all-gene expression profiles. The same method was applied to a new sweet protein, neoculin, which resembled toxic lectins in conformation. The result indicated that neoculin had lost its lectin activity, possessing no particular toxic effect. 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引用次数: 0
摘要
20世纪80年代,日本提出了“功能性食品”这一术语及其概念[1],此后,开展食品功能性基础研究和应用研究的重要性在全球得到重视。功能食品和普通食品一样,都是由包括功能因子在内的多种成分组成的,人们认为用常规的化学、生化和生理学方法来评价其功能是很困难的[2]。在此背景下,营养基因组学作为一种综合评价功能食品和营养成分的新方法应运而生。与此同时,在日本32家食品公司的支持下,东京大学(University of Tokyo)成立了功能性食品基因组学(Functional Food Genomics)。这种学术界和工业界的合作一直在很好地揭示某些特定功能食品在体内产生影响的原因和方式。这些包括大豆分离蛋白、可可多酚、芝麻素(源自芝麻的木脂素)等。另一方面,食品安全问题日益受到人们的关注,我们利用基因组学方法对新开发的低过敏性小麦粉与普通面粉的健康性进行了比较。综合评价方法的应用表明,新产品在全基因表达谱方面与正常产品基本相同。同样的方法被应用于一种新的甜蛋白,neoculin,它的构象类似于有毒的凝集素。结果表明,新菌素失去了凝集素活性,没有特别的毒性作用。因此,基因组学很可能可以应用于各种各样的食物,同时评估它们的功能。
In the 1980s, Japan proposed the terminology of 'functional food' and its concept [1], and since then the importance of conducting basic and applied studies on food functionality has been emphasized globally. Functional foods in particular as well as common foods in general are constituted with a variety of components including functional factors, and it has been recognized as difficult to evaluate their functionalities by usual chemical, biochemical and physiological methodologies [2]. Against this backdrop, nutrigenomics came into being as a new method of evaluating functional foods, as well as nutrients, in a holistic manner. Meanwhile the endowed chair, Functional Food Genomics, was established at the University of Tokyo with the aegis of 32 food companies in Japan. This academia-industry collaboration has been working well to disclose why and how some particular functional foods elicit their effects in the body. These include soy protein isolate, cocoa polyphenol, sesamin as a lignan of sesame origin, and many others. On the other hand, food safety has been gaining public attention, and we applied genomics for assessment of the wholesomeness of newly developed hypoallergenic wheat flour compared with normal flour. The application of this way of holistic evaluation suggested that the new product was basically the same as the normal product in terms of all-gene expression profiles. The same method was applied to a new sweet protein, neoculin, which resembled toxic lectins in conformation. The result indicated that neoculin had lost its lectin activity, possessing no particular toxic effect. It is thus likely that genomics can be applied to a variety of foods in general for the purpose of simultaneously assessing their functionality.