• Title/Summary/Keyword: 카로티노이드

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Production of Carotenoids by Bacteria; Carotenoid Productivity and Availability (박테리아에 의한 카로티노이드 생산; 카로티노이드 생산성 및 활용 가능성)

  • Choi, Seong Seok;Kim, Gun-Do
    • Journal of Life Science
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    • v.32 no.5
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    • pp.411-419
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    • 2022
  • Carotenoids are red, orange, and yellow fat-soluble pigments that exist in nature, and are known as physiologically active substances with various functions, such as provitamin A, antioxidant, anti-inflammatory, and anticancer. Because of their physiological activity and color availability, carotenoids are widely used in the food, cosmetics, and aquaculture industries. Currently, most carotenoids used industrially use chemical synthesis because of their low production cost, but natural carotenoids are in the spotlight because of their safety and physiologically active effects. However, the production of carotenoids in plants and animals is limited for economic reasons. Carotenoids produced by bacteria have a good advantage in replacing carotenoids produced by chemical synthesis. Since carotenoids produced from bacteria have limited industrial applications due to low productivity, studies are continuously being conducted to increase the production of carotenoids by bacteria. Studies conducted to increase carotenoid production from bacteria include the activity of enzymes in the bacterial carotenoid biosynthesis pathway, the development of mutant strains using physical and chemical mutagens, increasing carotenoid productivity in strain construction through genetic engineering, carotenoid accumulation through stress induction, fermentation medium composition, culture conditions, co-culture with other strains, etc. The aim of this article was to review studies conducted to increase the productivity of carotenoids from bacteria.

천연 카로티노이드의 생물활성과 이용전망

  • Hong, Sang-Pil
    • Bulletin of Food Technology
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    • v.9 no.1
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    • pp.127-135
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    • 1996
  • 카로티노이드는 동식물계에 널리 분포하고 있는 황, 등, 적 혹은 자색의 대표적인 천연색소군으로서 자연계에서 약 1억톤/년 생산되고 있다. 이와 같이 막대한 량의 카로틴의 저장고는 식품의 잎, 동물플랑크톤, 조류 등이며 따라서 카로틴의 산업적 이용은 대단히 중요하다. 카로티노이드의 종류는 현재 약 600여종 정도 밝혀져 있으며 세계적으로 널리 이용되고 있는 것은 천연과 합성품을 포함하여 $\beta$-카로틴, $\beta$-아포카로테날, 칸타잔신, 아스타잔신 등과 그외 아나토추출물, 인삼유, 옥수수유, 파프리카, 사프란, 토마토추출물, 조류(algae) 등을 들 수 있으며 이들 카로티노이드 소재는 의약품, 식품, 사료등 다양한 용도로 사용되고 있다. 한편 $\beta$-카로틴, 아스타잔신 및 일부 카로티노이드 등은 30년간의 역학적 조사와 최근의 실증실험을 통해 암발생을 억제하는 물질로 규명되고 있으며 강력한 항산화성을 나타내고 있을 뿐만 아니라 동물의 번식 및 성장률 개선, 질병발생 억제, 어육의 색상개선 등 고차기능성을 나타내는 것으로 알려지고 있어 향후 다양한 분야에 이용가능성이 높아지고 있다. 본고에서는 최근 주목을 받고 있는 카로티노이드를 중심으로 생물 기능성 및 향후 이용전망에 대해 다루고자 하였다.

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Influence of Cooking on Carotenoid Contents in Provitamin A-Biofortified Rice (가열조리에 따른 프로비타민 A 강화 쌀의 카로티노이드 함량)

  • Lee, Young-Tack
    • Food Science and Preservation
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    • v.17 no.6
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    • pp.897-902
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    • 2010
  • This study was conducted to investigate the effects of different cooking methods on the carotenoid content in genetically modified(GM) provitamin A-biofortified rice. The proximate components (moisture, protein, lipid, and ash) of GM rice were similar to those of conventional non-GM rice. Provitamin A-biofortified rice was cooked in various ways, including boiling in water and steaming/roasting. Carotenoid composition was determined by HPLC. Total carotenoid contents of provitamin A-biofortified brown and milled rice were $122.79{\mu}g/100g$ and $125.44{\mu}g/100g$, respectively. Compared with raw unprocessed samples, boiling caused approximately 20% carotenoid loss. In contrast, seaming/roasting decreased carotenoid content by 78%.

Microbial Production of Carotenoids: Biological Functions and Commercial Applications (미생물에 의한 카로티노이드 생산; 생물학적 기능성 및 상업적 적용)

  • Seo, Yong Bae;Kim, Gun-Do
    • Journal of Life Science
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    • v.27 no.6
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    • pp.726-737
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    • 2017
  • Carotenoids are isoprenoids with a long polyene chain containing 3 to 15 conjugated double bonds, which determines their absorption spectrum. They typically consist of a $C_{40}$ hydrocarbon backbone often modified by different oxygen-containing functional groups, to yield cyclic or acyclic xanthophylls. Much work has also been focused on the identification, production, and utilization of natural sources of carotenoid (plants, microorganisms and crustacean by-products) as an alternative to the synthetic pigment which currently covers most of the world markets. Nevertheless, only a few carotenoids (${\beta}-carotene$, lycopene, astaxanthin, canthaxanthin, and lutein) can be produced commercially by fermentation or isolation from the small number of abundant natural sources. The market and demand for carotenoids is anticipated to increase dramatically with the discovery that carotenoids exhibit significant anti-carcinogenic activities and play an important role in the prevention of chronic diseases. The increasing importance of carotenoids in the feed, nutraceutical food and pharmaceutical markets has renewed by efforts to find ways of producing additional carotenoid structures in useful quantities. Because microorganisms and plants synthesize hundreds of different complex chemical carotenoid structures and a number of carotenoid biosynthetic pathways have been elucidated on a molecular level, metabolic and genetic engineering of microorganisms can provide a means towards economic production of carotenoid structures that are otherwise inaccessible. The aim of this article is to review our current understanding of carotenoid formation, to explain the perceived benefits of carotenoid in the diet and review the efforts that have been made to increase carotenoid in certain microorganisms.

Changes in Carotenoid Contents of Several Green-Yellow Vegetables by Blanching (녹황색 채소류 중의 카로티노이드 함량과 Blanching에 의한 변화)

  • 조정옥;정인창
    • Korean journal of food and cookery science
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    • v.16 no.1
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    • pp.17-21
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    • 2000
  • Carotenoids in commercial green-yellow vegetables(carrot, mugwort, perilla leaf, leek and water dropwort) were analyzed by HPLC. Carotenoids detected were lutein, ${\alpha}$-carotene, and ${\beta}$-carotene. ${\beta}$-Carotene and lutein were detected in every sample analyzed, but ${\alpha}$-carotene could only be detected in carrot. Blanching vegetables in 3% saline increased the content of carotenoids, however, the components of carotenoids were not changed. This result suggests that blanching increases the amount of available carotenoids.

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Lipoprotein Bound Carotenoids Occurred in the Viscera of Abalone (Haliotis discus hannai) (전복(Haliotis discus hannai) 내장에 함유된 지질 단백질 결합 카로티노이드)

  • Lee, Tae-Young;Lee, Dae-Hyung;Park, Soo-Nam
    • Applied Biological Chemistry
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    • v.27 no.1
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    • pp.1-6
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    • 1984
  • The lipoprotein-bound carotenoids occurred in the viscera of abalone (Haliotis discus hannai) were separated and characterized to be the mixture of fatty acid esters of lutein and free lutein. The main fatty acid components of the esters were lauric (68%) and myristic acid (17%), and indicated the characteristic pattern compared with that of triglycerides and cholesterol esters in abalone. Patterns of carotenoids from the lipoproteins were, simple and this suggested selected metabolisms of various feed-originated carotenoids found in the whole acetone extract of abalone.

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Extraction Method of Carotenoios from Rhodotorula glutinis (Rhodotorula glutinis로 부터 Carotenoios의 추출방법)

  • 김의용;박평규
    • KSBB Journal
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    • v.17 no.1
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    • pp.44-48
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    • 2002
  • An efficient method of extraction for carotenoids in Rhodotorula glutinis KCTC 7989 was developed. Major carotenoids produced were identified as torularhodin of 61.7%, $\beta$-carotene of 28.8%, and torulene of 9.5%. HCI treatment, as a pretreatment on cell, was necessary to carry out together with thermal treatment unlike DMSO pretreatment. The choice of solvent had an important effect on the composition of carotenoids extracted: benzene and chloroform were effective for the extraction of torularhodin, especially. However, diethyl ether was most effective for the extraction of total carotenoids. Freeze dried type cells showed high efficiency value for the extraction of carotenoids, in compared with dried and wet type cells.

Carotenoid Metabolic Engineering in Flowering Plants (화색 변경을 위한 카로티노이드 대사공학)

  • Ha, Sun-Hwa;Jeong, Ye-Sol;Lim, Sun-Hyung;Kim, Jae-Kwang;Lee, Dong-Ho;Lee, Jong-Yeol;Kim, Young-Mi
    • Horticultural Science & Technology
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    • v.30 no.2
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    • pp.107-122
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    • 2012
  • In plants, color is a powerful tool to attract insects and herbivores which act as pollinators and vehicles of seed dispersion. In particular, flower color has held key post for human with aesthetic value. Horticultural industry has developed methods to produce new and attractive color varieties in flowering plants. Carotenoids are one of the main pigments being responsible for red, orange, and yellow colors. Their biosynthetic pathway has been considered as a major target of metabolic engineering for color modification of flowers and fruits. Here, we review the diverse efforts to modify pigment phenotype by the control of carotenogenic gene expression and enzyme levels. Recent reports about regulating degradation and storage of carotenoids will be also summarized to help the creation of engineered flower with novel color phenotype which is not existed in nature.

A Simple and Fast Microplate Method for Analysis of Carotenoids Content in Chili Pepper (Capsicum annuum L.) (고추의 카로티노이드 함량 분석을 위한 신속·간편 마이크로플레이트법)

  • Hong, Sun Chul;Han, Jung-Heon;Lee, Jundae;Ahn, Yul Kyun;Yang, Eun-Young;Chae, Soo Young;Kim, Su;Yoon, Jae Bok
    • Horticultural Science & Technology
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    • v.31 no.6
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    • pp.807-812
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    • 2013
  • In this study, we aimed to develop a simple analysis method for measuring the carotenoids content of pepper powder. A 96-wells polystyrene microplate and an ELISA reader were used for analysis. Although ELISA reader with 450 nm filter was applicable to measure carotenoid contents, the surface of microplates were degenerated by acetone used for carotenoids extraction. However, ten-folded dilute of the color extract with methanol did not affect the surface of polystyrene microplate and components of the color extract could be successfully measured by a ELISA reader, showing a high corelation with ASTA-20.1 method. In addition, this method uses 10 fold less acetone than ASTA-20.1 method resulting less acetone waste. The microplate method using ELISA reader has potential power for analyzing a large number of samples which may be very useful to the practical breeding program for high-colored peppers.

Physicochemical characteristics of carotenoid-enriched extract prepared from persimmon peels by ultrasound-assisted extraction with soybean oil solvent (초음파와 대두유 용매를 이용한 감 껍질 추출물의 이화학적 특성 )

  • Hun Sik Chung;Kwang Sup Youn;Soo Won Lee;Hey Kyung Moon;Jong Kuk Kim
    • Food Science and Preservation
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    • v.30 no.1
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    • pp.122-131
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    • 2023
  • Persimmon peels are mostly discared as a by-product of dried persimmon manufacturing, but effective use is required as it contains various functional constituents. This study covers the preparation of carotenoid-enriched oil by ultrasound treatment of persimmon peel in soybean oil solvent, and the investigation of its physicochemical characteristics. Using the Box-Behnken design and response surface methodology, the optimal extraction conditions (temperature, 62℃; time, 32 min; and persimmon peel to oil ratio, 1:3.1) were determined based on the carotenoid concentration of the extract. The physicochemical characteristics of the extract obtained under optimal conditions and the untreated soybean oil (control) were compared. The total carotenoid content of the extract increased. The carotenoid-enriched soybean oils had a lighter color than the controls, but with high redness and yellowness values. The effect of sonication and a component of the persimmon peel on the oxidation and heating stability of soybean oil was weak. The viscosity and activation energy of carotenoid-enriched soybean oil were slightly higher than those of the control. Thus, it was possible to prepare yellow-red carotenoid-enriched soybean oil by applying ultrasonic-soybean oil solvent extraction to persimmon peel. The oil is expected to be useful as an additive as well as a substitute for general edible oils.