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Biofortification: Future Challenges for a Newly Emerging Technology to Improve Nutrition Security Sustainably. [PDF]
Bouis H +12 more
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Technical and Consumer Preferences Integrated for the Development of Cassava Varieties with High Nutritional Quality Adapted to Colombian Caribbean Coast. [PDF]
Rosero A +14 more
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Advances in Synthetic Strategies for Microalgal Carotenoid Enhancement and Emerging Applications. [PDF]
Xu P +5 more
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Chemical Composition, Bioactive Constituents, and Functional Value of Chinese Palm Fruit: Processing Effects, Nutritional Significance, and Industrial Prospects-A Review. [PDF]
Biney E +5 more
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Provitamin A Carotenoid Bioavailability:What Really Matters?
International Journal for Vitamin and Nutrition Research, 2010Micronutrient malnutrition, or hidden hunger, afflicts a large part of the worlds population, with vitamin A deficiency among the most prevalent public health problems. Provitamin A carotenoids in plant foods are a source of vitamin A for humans; however, several factors, including species of carotenoids, host status, and effectors of absorption ...
Sherry A Tanumihardjo, Kevin V Pixley
exaly +3 more sources
2021
Vitamin A insufficiency in food cause serious health issues. For humans, provitamin A carotinoids (pVAC) are mainly derived from plant based food that includes vegetables and fruits having red, orange and yellow color. Of total cartenoids, fruits and vegetables contribute about 80–90%.
Shagufta Perveen +3 more
openaire +1 more source
Vitamin A insufficiency in food cause serious health issues. For humans, provitamin A carotinoids (pVAC) are mainly derived from plant based food that includes vegetables and fruits having red, orange and yellow color. Of total cartenoids, fruits and vegetables contribute about 80–90%.
Shagufta Perveen +3 more
openaire +1 more source
2009
In 1930, Moore discovered that β-carotene (3) could be converted in vivo into vitamin A [1]. Since then, the vitamin A values of β-carotene and other provitamin A carotenoids, particularly α-carotene (7) and β-cryptoxanthin (55), have been investigated by various techniques.
Guangwen Tang, Robert M. Russell
openaire +1 more source
In 1930, Moore discovered that β-carotene (3) could be converted in vivo into vitamin A [1]. Since then, the vitamin A values of β-carotene and other provitamin A carotenoids, particularly α-carotene (7) and β-cryptoxanthin (55), have been investigated by various techniques.
Guangwen Tang, Robert M. Russell
openaire +1 more source

