Table of contents
- The Presence of Pulses within a Meal can Alter Fat-Soluble Vitamin Bioavailability. - March 2019
- VitaminDWiki observation before the second study
- See also web
- Chickpeas reduced Vitamin D bio-availability by half -June 2020 (conference )
- Pulses reduce Vitamin D bio-availability by half - June 2021 (same authors)
- Vitamin D bioavailability in mice reduced by Chickpeas: 62%, meat: 67% - Feb 2023 (same authors)
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Mol Nutr Food Res. 2019 Mar 28:e1801323. doi: 10.1002/mnfr.201801323.
Margier M1, Antoine T 1, Siriaco A 1, Nowicki M 1, Halimi C 1, Maillot M 2, Georgé S 3, Reboul E 1 Emmanuelle.Reboul at univ-amu.fr
1 INSERM, Aix Marseille Univ, C2VN, Marseille, France.
2 MS-Nutrition, Marseille, France.
3 CTCPA, Avignon.
Wonder that a, b mean? - could not quickly find in the PDF
It is widely advised to increase pulse consumption. However, pulses are rich in molecules displaying lipid-lowering properties, including fibers, phytates, saponins and tannins. We thus explored the effects of pulses on fat-soluble vitamin bioavailability.
We assessed vitamin A (β-carotene and retinyl-palmitate), vitamin E (α-tocopherol), vitamin D (cholecalciferol) and vitamin K (phylloquinone) bioaccessibility, i.e. micellarization after in vitro digestion of meals containing either potatoes (control), household-cooked or canned pulses. The obtained mixed micelles were delivered to Caco-2 cells to evaluate vitamin uptake. We then specifically assessed the impact of fibers, phytates, saponins and tannins on both phylloquinone (used as a model vitamin) bioaccessibility and uptake.
The presence of pulses significantly decreased both vitamin
bioaccessibility (up to
- -65% for β-carotene,
- -69% for retinyl-palmitate,
- -45% for cholecalciferol,
- - 53% for α-tocopherol and
- -67% for phylloquinone) and
- -40% for retinyl-palmitate,
- -67% for cholecalciferol,
- -50% for α-tocopherol and
- -57% for phylloquinone).
Effects on bioaccessibility, but not on uptake, were dependent on pulse cooking method. Phylloquinone bioaccessibility was specifically impacted by saponins, tannins and fibers while its uptake was impacted by saponins, fibers and phytates.
Pulses can alter fat-soluble micronutrient bioavailability. Pulses should thus be cooked appropriately and consumed within micronutrient-rich meals. This article is protected by copyright. All rights reserved.
Clipped from PDF
- "It has also been shown that regular consumption of pulses can lead to decreased plasma cholesterol and triglyceride levels , suggesting an impact on lipid absorption and/or metabolism. This impact is likely due to pulse fiber content , but other pulse bioactive compounds such as phytates, saponins or polyphenols may also play important roles in this phenomenon "
- "Fat-soluble vitamin bioaccessibility and uptake are negatively correlated to the presence of fibers, phytates, saponins or tannins"
- "Pulses components are acknowledged to impair mineral bioavailability , as well as to reduce lipid absorption 14"
This study analyzed Vitamin uptake in an artificial intestine
Founder of VitaminDWiki does not recall seeing that pulses restrict
the uptake of Vitamin D or Vitamin K
Wonder if pulses limit Vit D, Vit K in the real gut as well
The vitamins they tested were in olive oil
Suspect increased uptake if micelle or emulsion forms of Vitamins had been used instead
If this study is correct, oil-based Vitamin D should NOT be taken with a pulse meal
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- Vitamin D bioavailability in the gut– review Sept 2017
- Oil-based Vitamin D3 has the worst bioavailability – April 2014
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- 4X more protein than from meat for the same cost
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- Pulses in diet reduced lipids - meta-analysis - May 2014
"Effect of dietary pulse intake on established therapeutic lipid targets for cardiovascular risk reduction: a systematic review and meta-analysis of randomized controlled trials"
Download the PDF from VitaminDWiki
- Calories consumed in Brazil: 13% from pulses
Cited by 11 studies as of Aug 2022
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Evaluation of vitamin D bioaccessibility and iron solubility from test meals containing meat and/or cereals and/or legumes
Proceedings of the Nutrition SocietyVolume 79 Issue OCE2: 13th European Nutrition Conf...
Tiffany Antoine, Giulia Scorrano, Cristèle Icard-Vernière. Charlotte Halimi. Stéphane Georgé. Claire Mouquet-Rivier. Emmanuelle Reboul
Rethinking food systems from production to consumption, in order to provide better nutritional inputs at lower environmental cost, is a priority challenge for a sustainable future. Pulses present benefits that may improve the sustainability of our systems and diets, such as their ability to restore soils in nitrogen and their high contents in proteins, fibers and minerals. However, pulses also contain several bioactive compounds such as phytates or tannins that can negatively affect mineral absorption. Additionally, we recently showed in the laboratory that these bioactives, together with fibers and saponins, could negatively impact fat-soluble vitamin bioavailability. The objective of this study was thus to follow up vitamin D (as a model of fat-soluble vitamin) and iron (as a model of mineral) transfer to the aqueous phase of the bolus during digestion of meal containing or not pulses. To this aim, we performed in vitrodigestion using tests meals made of beef (as a model of meat) and/or semolina (as a model of cereals) and/or chickpeas (as a model of pulses). To identify the compounds responsible for the observed effects, we also performed in vitrodigestion using test meals made of potatoes supplemented or not in fibers, phytates, tannins and saponines. Vitamin D bioaccessibility and iron solubility were expressed as the ratio of vitamin D or iron recovered in the aqueous phase of the digestion on the total amount of vitamin D or iron recovered in the whole digesta, at the end of the digestion.
Our results showed that the presence of chickpeas within a meal induced a significant decrease of both vitamin D bioaccessibility (up to -56%, p < 0.05) and iron solubility (up to -28%, p < 0.05) compared to meals containing only meat and/or semolina. However, this effect was largely compensated for vitamin D by the fact that this vitamin was less stable (loss > 50%, p < 0.05) during the digestion of meal containing meat compared to meals containing only plant-based foods (i.e. semolina and chickpeas). Among the different bioactives, tannins appear to be the most deleterious regarding iron solubility, while both phytates and tannins were responsible for a decreased in vitamin D bioaccessibility.
Our results confirm that in some conditions, the presence of pulses within a meal can be deleterious regarding vitamin D and iron bioavailability. These data thus encourage research to propose dietary and technological solutions to tackle pulse negative effects on micronutrient bioavailability.
Evaluation of vitamin D bioaccessibility and mineral solubility from test meals containing meat and/or cereals and/or pulses using in vitro digestion
Food Chemistry Volume 347, 15 June 2021, 128621 https://doi.org/10.1016/j.foodchem.2020.128621
- Complex test meals containing vitamin D and minerals were digested in vitro.
- Complex test meals were made of meat and/or semolina and/or chickpeas.
- Chickpeas reduced vitamin D and mineral transfer to the aqueous phase during digestion.
- The presence of meat induced a decrease in vitamin D stability.
- Our model can be useful to screen micronutrient bioaccessibility from complex test meals.
In this study, we evaluated vitamin D and mineral (iron, zinc, magnesium) transfer to the bolus aqueous phase during the digestion of meals with/without pulses. We performed in vitro digestions using test meals made either of i) beef and/or semolina and/or chickpeas, or of ii) potatoes supplemented or not with fibers, phytates, tannins and saponins. Chickpea presence led to a decrease in vitamin D bioaccessibility (−56%, p ≤ 0.05) and mineral solubility (−28% for iron, p ≤ 0.05) compared with meals with beef and/or semolina only.
This effect was largely compensated for vitamin D by the fact that this vitamin was more stable during digestion of meals based on plant foods only than of meals with beef. Tannins were the most deleterious compounds for iron solubility, while phytates and tannins decreased vitamin D bioaccessibility. Agronomical or technical solutions to selectively decrease the amount in pulses of compounds that affect micronutrient bioavailability should be further explored.
Impact of pulses, starches and meat on vitamin D and K postprandial responses in mice
Food Chemistry Vol 402, 15 February 2023, 133922, https://doi.org/10.1016/j.foodchem.2022.133922
- Chickpeas reduce vitamin D and K postprandial responses in mice compared to potatoes.
- Meat reduces vitamin D and K postprandial responses in mice compared to potatoes.
- Semolina did not impair vitamin postprandial responses in mice compared to potatoes.
- Chickpeas and meat reduce vitamin D/K intestinal content in mice compared to potatoes.
In vitro experiments showed that i) phytates, tannins and saponins from pulses can alter vitamin D and K bioavailability and ii) meat decreased vitamin D bioaccessibility by impairing its stability during digestion. We aimed to confirm these results in vivo by force-feeding mice with emulsions containing either potatoes or semolina or chickpeas or meat.
Vitamin D and K plasma responses decreased after a gavage with chickpeas or meat compared with potatoes (−62 % and −67 %, respectively for vitamin D, −40 % and −64 %, respectively for vitamin K; p < 0.05). Vitamin D and K intestinal contents were also reduced in mice force-fed with chickpeas or meat compared with potatoes (from −64 to −83 % and from −76 to −84 %, respectively for vitamin D and from −7 to −59 % and from −7 to −90 %, respectively for vitamin K; p < 0.05). The results confirm that chickpea and meat compounds can decrease vitamin D and K bioavailability.
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Cooked dried beans or peas (pulses) reduce uptake of Vitamin D, Vitamin K by half – several studies
289 visitors, last modified 03 Oct, 2022,This page is in the following categories (# of items in each category)Interactions with Vitamin D 109 Vitamin D and Vitamin K 141
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