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植物甾醇向雄烯二酮的生物转化——一项技术展望研究。

Biotransformation of Phytosterols into Androstenedione-A Technological Prospecting Study.

机构信息

By&Bio-By-Products to Bioproducts Lab, Escola de Química, Universidade Federal do Rio de Janeiro, Rio de Janeiro 21941-909, RJ, Brazil.

Centro Universitário SENAI CIMATEC, Salvador 41650-010, BA, Brazil.

出版信息

Molecules. 2022 May 15;27(10):3164. doi: 10.3390/molecules27103164.

Abstract

Androstenedione (AD) is a key intermediate in the body's steroid metabolism, used as a precursor for several steroid substances, such as testosterone, estradiol, ethinyl estradiol, testolactone, progesterone, cortisone, cortisol, prednisone, and prednisolone. The world market for AD and ADD (androstadienedione) exceeds 1000 tons per year, which stimulates the pharmaceutical industry's search for newer and cheaper raw materials to produce steroidal compounds. In light of this interest, we aimed to investigate the progress of AD biosynthesis from phytosterols by prospecting scientific articles (Scopus, Web of Science, and Google Scholar databases) and patents (USPTO database). A wide variety of articles and patents involving AD and phytosterol were found in the last few decades, resulting in 108 relevant articles (from January 2000 to December 2021) and 23 patents of interest (from January 1976 to December 2021). The separation of these documents into macro, meso, and micro categories revealed that most studies (articles) are performed in China (54.8%) and in universities (76%), while patents are mostly granted to United States companies. It also highlights the fact that AD production studies are focused on "process improvement" techniques and on possible modifications of the "microorganism" involved in biosynthesis (64 and 62 documents, respectively). The most-reported "process improvement" technique is "chemical addition" (40%), which means that the addition of solvents, surfactants, cofactors, inducers, ionic liquids, etc., can significantly increase AD production. Microbial genetic modifications stand out in the "microorganism" category because this strategy improves AD yield considerably. These documents also revealed the main aspects of AD and ADD biosynthesis: sp. (basonym: sp.) (40%) and (known previously as ) (32%) are the most recurrent species studied. Microbial incubation temperatures can vary from 29 °C to 37 °C; incubation can last from 72 h to 14 days; the mixture is agitated at 140 to 220 rpm; vegetable oils, mainly soybean, can be used as the source of a mixture of phytosterols. In general, the results obtained in the present technological prospecting study are fundamental to mapping the possibilities of AD biosynthesis process optimization, as well as to identifying emerging technologies and methodologies in this scenario.

摘要

雄烯二酮(AD)是人体类固醇代谢中的关键中间产物,可用作几种类固醇物质的前体,如睾酮、雌二醇、乙炔雌二醇、睾内酯、孕酮、皮质醇、皮质酮、泼尼松和强的松龙。AD 和 ADD(雄烯二酮)的世界市场每年超过 1000 吨,这刺激了制药行业寻找更新、更便宜的原料来生产甾体化合物。鉴于这一兴趣,我们旨在通过探索科学文章(Scopus、Web of Science 和 Google Scholar 数据库)和专利(USPTO 数据库)来调查从植物固醇生物合成 AD 的进展。在过去几十年中,发现了大量涉及 AD 和植物固醇的文章和专利,共涉及 108 篇相关文章(2000 年 1 月至 2021 年 12 月)和 23 项专利(1976 年 1 月至 2021 年 12 月)。将这些文件分为宏观、中观和微观类别,结果表明,大多数研究(文章)是在中国(54.8%)和大学(76%)进行的,而专利大多授予美国公司。这也突显了这样一个事实,即 AD 生产研究主要集中在“工艺改进”技术上,以及可能对生物合成中涉及的“微生物”进行修改(分别有 64 篇和 62 篇文献)。报告最多的“工艺改进”技术是“化学添加”(40%),这意味着添加溶剂、表面活性剂、辅因子、诱导剂、离子液体等可以显著提高 AD 产量。微生物遗传修饰在“微生物”类别中很突出,因为这种策略可以大大提高 AD 的产量。这些文件还揭示了 AD 和 ADD 生物合成的主要方面:(种名: sp.)(40%)和(以前称为)(32%)是研究最多的物种。微生物培养温度可以从 29°C 到 37°C 不等;培养时间可以从 72 小时到 14 天不等;混合物在 140 到 220rpm 之间搅拌;可以使用大豆等植物油作为植物固醇混合物的来源。总的来说,本技术前景研究中获得的结果对于映射 AD 生物合成过程优化的可能性以及识别这一领域的新兴技术和方法具有重要意义。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/81da/9147728/44fa9bf49c3c/molecules-27-03164-g001.jpg

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