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Search Results (145)

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Keywords = iron fortification

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10 pages, 811 KiB  
Article
A Porcine-Derived Heme Iron Powder Restores Hemoglobin in Anemic Rats
by James H. Swain and Logan D. Glosser
Nutrients 2024, 16(23), 4029; https://doi.org/10.3390/nu16234029 - 25 Nov 2024
Viewed by 323
Abstract
Background/Objectives: Iron-fortified foods reduce the incidence of iron deficiency anemia. However, the nutritional efficacy of heme iron fortificants is unclear. Methods: In this study, we determined the hemoglobin regeneration efficiency (HRE) of a porcine-derived heme iron powder (HIP), treating anemic rats (hemoglobin (Hb) [...] Read more.
Background/Objectives: Iron-fortified foods reduce the incidence of iron deficiency anemia. However, the nutritional efficacy of heme iron fortificants is unclear. Methods: In this study, we determined the hemoglobin regeneration efficiency (HRE) of a porcine-derived heme iron powder (HIP), treating anemic rats (hemoglobin (Hb) 3–6 g/dL) with 14-day repletion diets fortified with four different concentrations (12, 24, 36, or 48 mg iron/kg diets) of HIP or a control diet (“no added iron”); n = 9–12/group. Results: Our results demonstrate an inverse association between HRE and increasing dietary iron from the HIP. The HRE ratios of diets containing the HIP powder at 12, 24, 36, or 48 mg iron/kg were 0.508, 0.268, 0.273, and 0.223, respectively. Based on the mean final Hb values at 14 d, the HRE ratio of the 12 mg iron/kg diet was significantly higher (p ≤ 0.05) compared to the other HIP diet groups; however, only the HIP provided in the 36 and 48 mg iron/kg diets restored hemoglobin to high enough levels (mean Hb > 6 g/dL) to correct anemia. Conclusions: Our findings show that HIP at each of the concentrations tested increased Hb; moreover, when present at higher concentrations in the diet, the HIP is capable of restoring hemoglobin to resolve iron deficiency anemia. Full article
(This article belongs to the Section Micronutrients and Human Health)
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<p>(<b>A</b>) Hemoglobin (Hb) gain (g/dL). (<b>B</b>) Hemoglobin iron (Fe) gain in anemic rats fed 12, 24, 36, and 48 mg iron/kg diets in the form of heme iron powder for a 14-day repletion period. Values are mean values ± SEM (<span class="html-italic">n</span> = 9–12/group). Different letters (a–d) are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05) from higher to lower hemoglobin and hemoglobin Fe gain. Hb Fe (mg) = BW (body weight; kg) × 0.067 × Grams Hb per mL × 3.35 mg Fe.</p>
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<p>Hemoglobin (Hb) regeneration efficiency (HRE) in anemic rats fed 12, 24, 36, and 48 mg iron/kg diets in the form of heme iron powder for a 14-day repletion period. Values are mean values ± SEM (<span class="html-italic">n</span> = 9–12/group). Different letters (a–c) are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05) from higher to lower HRE. HRE ratio = [Final Hb Fe (mg) − Initial Hb Fe (mg)]/Fe intake (mg total consumed).</p>
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17 pages, 1549 KiB  
Article
The Utilization of Vegetable Powders for Bread Enrichment—The Effect on the Content of Selected Minerals, Total Phenolic and Flavonoid Content, and the Coverage of Daily Requirements in the Human Diet
by Aleksandra Purkiewicz, Fatma Hazan Gul and Renata Pietrzak-Fiećko
Appl. Sci. 2024, 14(21), 10022; https://doi.org/10.3390/app142110022 - 2 Nov 2024
Viewed by 783
Abstract
The aim of this study was to evaluate the content of selected minerals and total phenolic and flavonoid content of wheat bread and bread enriched with varying amounts of carrot powder (CP) and pumpkin powder (PP). In addition, the coverage of daily requirements [...] Read more.
The aim of this study was to evaluate the content of selected minerals and total phenolic and flavonoid content of wheat bread and bread enriched with varying amounts of carrot powder (CP) and pumpkin powder (PP). In addition, the coverage of daily requirements of selected minerals was evaluated after the consumption of 100 g of each type of bread. The research included seven types of bread: wheat bread (WB) and bread enriched with 10%, 20%, and 30% CP and PP. The vegetable powders were obtained by freeze-drying. The concentrations of minerals—sodium (Na), potassium (K), calcium (Ca), magnesium (Mg), iron (Fe), zinc (Zn), copper (Cu), and manganese (Mn)—were determined by atomic absorption spectroscopy (AAS) method. Coverage of daily requirements after consumption of a serving of bread was determined based on Recommended Daily Allowance (RDA) and Adequate Intake (AI) ratios for minerals, according to the nutritional standards for the Polish population. The addition of 10% PP led to a greater increase in Na, K, Mg, and Cu in the bread compared to CP, while for Ca, Fe, Zn, and Mn a greater increase was observed with the addition of 10% CP than PP. Among macronutrients, the greatest changes in content were recorded for Ca—the addition of 10 and 20% CP and PP resulted in increases of 66, 113, 51 and 59%. Among micronutrients, the addition of CP and PP to wheat bread caused the largest changes in Cu (46–150% increase) and Mn (25–99% increase) content. Additionally, there was a tenfold increase in total phenolic content (TPC) when 30% CP was added to the bread. Consuming 100 g of bread with CP and PP provided the greatest coverage of K (41–60%), Cu (8–17.5%), and Mn (6–17%). These findings suggest that fortification of bread with vegetable powders has the potential to be a useful method of enriching the mineral composition and increasing the proportion of selected minerals in the human diet. Full article
(This article belongs to the Special Issue Innovative Technology in Food Analysis and Processing)
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<p>Production of vegetable powder from carrots and pumpkins.</p>
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<p>The content of individual macro minerals in vegetable powders. Abbreviations: Na—sodium, K—potassium, Ca—calcium, Mg—magnesium, CP—carrot powder, PP—pumpkin powder. Means with * is significantly different at <span class="html-italic">p</span> &lt; 0.05.</p>
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<p>The content of individual macro minerals in vegetable powders. Abbreviations: Fe—iron, Zn—zinc, Cu—copper, Mn—manganese, CP—carrot powder, PP—pumpkin powder. Means with * is significantly different at <span class="html-italic">p</span> &lt; 0.05.</p>
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<p>Total phenolic content (TPC) in each type of bread. Abbreviations: WB—wheat bread, CB10/20/30%—bread with 10/20/30% addition of carrot powder, PB10/20/30—bread with 10/20/30% addition of pumpkin powder. Means with different letters (a, b, c, d, e) are significantly different at <span class="html-italic">p</span> &lt; 0.05. Means a, b, c, d, e specify differences between the total phenolic content (TPC) of wheat bread and bread enriched with 10, 20, and 30% CP and PP.</p>
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<p>Total flavonoid content (TFC) in each type of bread. Abbreviations: WB—wheat bread, CB10/20/30%—bread with 10/20/30% addition of carrot powder, PB10/20/30—bread with 10/20/30% addition of pumpkin powder. Means with different letters (a, b, c) are significantly different at <span class="html-italic">p</span> &lt; 0.05. Means a, b, c specify differences between the total flavonoid content (TFC) of wheat bread and breads enriched with 10, 20, and 30% carrot and pumpkin powder.</p>
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11 pages, 1151 KiB  
Article
An Electrolytic Elemental Iron Powder Effectively Regenerates Hemoglobin in Anemic Rats and Is Relatively Well Absorbed When Compared to Ferrous Sulfate Monohydrate
by James H. Swain, Logan D. Glosser, Caroline J. Jang, Ryan C. Nemeth, Anshul R. Bethi, Eva L. Zheng, Evelyn R. Boron and Hannah M. Fox
Nutrients 2024, 16(17), 2833; https://doi.org/10.3390/nu16172833 - 24 Aug 2024
Cited by 1 | Viewed by 914
Abstract
Elemental iron powders are used as food fortificants to reduce the incidence of iron deficiency anemia. However, many commercially available iron powders are relatively untested in vivo. The purpose of this study was to determine the hemoglobin regeneration efficiency (HRE) and relative iron [...] Read more.
Elemental iron powders are used as food fortificants to reduce the incidence of iron deficiency anemia. However, many commercially available iron powders are relatively untested in vivo. The purpose of this study was to determine the hemoglobin regeneration efficiency (HRE) and relative iron bioavailability (RBV) of an electrolytic elemental iron powder (EIP), by treating anemic rats with 14 d iron repletion diets fortified with four different concentrations (12, 24, 36, or 48 mg iron/kg diet) of EIP and bakery-grade ferrous sulfate monohydrate (FS; FeSO4•H2O), or no added iron (control); n = 9–12/group. The HRE of FS was significantly higher (p ≤ 0.05) than EIP at each concentration of dietary iron tested. For EIP, the HREs (ratios) of diets containing 12, 24, 36, and 48 mg iron/kg were 0.356, 0.205, 0.197, and 0.163, respectively. For both EIP and FS, HRE was inversely associated with increasing dietary iron. The RBVs (%) of iron from EIP in diets at 12, 24, 36, and 48 mg iron/kg as compared to FS were 64.5, 59.1, 50.6, and 54.3%, respectively. Overall, findings show that at the concentrations of iron tested, EIP has RBVs greater than 50% and is an effective fortification agent to replenish hemoglobin and correct iron deficiency anemia. Full article
(This article belongs to the Section Micronutrients and Human Health)
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<p>(<b>A</b>) Hemoglobin (Hb) gain (g/dL) and (<b>B</b>) hemoglobin iron (Fe) gain in anemic rats fed graded quantities of ferrous sulfate monohydrate (FeSO<sub>4</sub>•H<sub>2</sub>O) or electrolytic elemental iron powder for a 14-day repletion period (blue and red bars, respectively). Values are mean ± SEM (n = 9–12/group). Different letters are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05), from higher to lower hemoglobin and hemoglobin Fe gain. Hb Fe (mg) = BW (body weight; kg) × 0.067 × Grams Hb per mL × 3.35 mg Fe.</p>
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<p>Hemoglobin (Hb) regeneration efficiency (HRE) in anemic rats fed graded quantities of ferrous sulfate monohydrate (FeSO<sub>4</sub>•H<sub>2</sub>O) and electrolytic elemental iron powder for a 14-day repletion period (blue and red bars, respectively). Values are mean ± SEM (n = 9–12/group). Different letters are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05), from higher to lower HRE. HRE ratio = [Final Hb Fe (mg) − Initial Hb Fe (mg)]/Fe intake (mg total consumed).</p>
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<p>Relative iron bioavailability (RBV) of electrolytic elemental iron powder (EIP) vs. ferrous sulfate monohydrate (FeSO<sub>4</sub>•H<sub>2</sub>O) at different concentrations of dietary iron. Values are mean ± SEM (n = 9–12/group). Different letters are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05), from higher to lower RBV. RBV = percentage (%) HRE relative to ferrous sulfate monohydrate (FS): HRE ratio of EIP/HRE ratio of the FS group × 100 (diet-matched).</p>
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16 pages, 1643 KiB  
Article
Hemoglobin Regeneration Efficiency and Relative Iron Bioavailability of Four Elemental Iron Powders in Rats
by James H. Swain, Ryan C. Nemeth, Anshul R. Bethi, Caroline J. Jang and Eva L. Zheng
Nutrients 2024, 16(14), 2258; https://doi.org/10.3390/nu16142258 - 13 Jul 2024
Cited by 2 | Viewed by 1215
Abstract
Effective food fortification strategies using elemental iron powders (EIPs) are needed to combat iron deficiency anemia. The purpose of this study was to determine hemoglobin regeneration efficiency (HRE) and relative iron bioavailability (RBV) of four food-grade EIPs (El-Lyte (EL), Hi-Sol (HS), H-325 (H3), [...] Read more.
Effective food fortification strategies using elemental iron powders (EIPs) are needed to combat iron deficiency anemia. The purpose of this study was to determine hemoglobin regeneration efficiency (HRE) and relative iron bioavailability (RBV) of four food-grade EIPs (El-Lyte (EL), Hi-Sol (HS), H-325 (H3), and A-131 (A1)) by treating anemic rats with 14 d iron repletion diets (uncooked and cooked), fortified with a 12, 24, or 36 mg iron/kg diet of the EIPs, ferrous sulfate monohydrate (FS, FeSO4•H2O), or no added iron (control), n = 9–12/group. The ability of EL and HS to maintain hemoglobin for 6 weeks on the 6 mg iron/kg diet was also studied. The dissolution rate of iron from the EIPs was measured in hydrochloric acid at pH 1.0. Compared to FS, the EL, HS, and A1 EIPs had >50% overall RBV, with the following order: HS > A1 > EL > H3 (p ≤ 0.05); the effect of cooking was not significant (p > 0.05). Dissolution testing revealed that the mean RBV of the EIPs was positively associated with the percentage of iron solubility. In the 6-week maintenance study, EL and HS maintained hemoglobin as well as FS. Overall, the findings show that at the concentrations of iron tested, these EIPs are effective fortification agents to replenish hemoglobin and correct iron deficiency anemia. Full article
(This article belongs to the Special Issue Mineral Nutrition on Human Health and Disease)
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<p>Hemoglobin (Hb) regeneration efficiency of ferrous sulfate monohydrate (FeSO<sub>4</sub>•H<sub>2</sub>O, FS) in uncooked and cooked diets (blue and orange bars, respectively). Values are mean ± SEM (n = 9–12/group). Different letters are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05) between different dietary iron (Fe) concentrations (mg Fe/kg diet) of the same treatment (uncooked and cooked). Different numbers are used to designate significant differences (<span class="html-italic">p</span> ≤ 0.05) between uncooked and cooked diets of the same Fe concentration. HRE ratio = [Final Hb Fe (mg) − Initial Hb Fe (mg)]/Fe intake (mg total consumed).</p>
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<p>(<b>A</b>–<b>D</b>) Hemoglobin regeneration efficiency (HRE) and (<b>E</b>–<b>H</b>) relative iron bioavailability (RBV) of the EL (<b>A</b>,<b>E</b>), HS (<b>B</b>,<b>F</b>), H3 (<b>C</b>,<b>G</b>), and A1 (<b>D</b>,<b>H</b>) elemental iron powders (EIPs) in uncooked and cooked diets (blue and red bars, respectively). Values are mean ± SEM (n = 9–12/group). Different letters are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05) between different dietary iron (Fe) concentrations (mg Fe/kg diet) of the same treatment (uncooked and cooked). Different numbers are used to designate significant differences (<span class="html-italic">p</span> ≤ 0.05) between uncooked and cooked diets of the same Fe concentration. HRE ratio = [Final Hb Fe (mg) − Initial Hb Fe (mg)]/Fe intake (mg total consumed). RBV = Percentage (%) HRE relative to ferrous sulfate monohydrate (FS): HRE ratio of EIP/HRE ratio of the FS group × 100 (diet-matched).</p>
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<p>(<b>A</b>) Hemoglobin (Hb) regeneration efficiency (HRE) and (<b>B</b>) relative iron bioavailability (RBV) of the EL, HS, H3, and A1 elemental iron (Fe) powders (EIPs) in uncooked (UC) and cooked (C) diets, with blue, red, and green bars representing 12, 24, and 36 mg Fe/kg diet, respectively. Values are mean ± SEM (n = 9–12/group). Different letters are used to denote significant differences (<span class="html-italic">p</span> ≤ 0.05), from higher to lower HRE and RBV. HRE ratio = [Final Hb Fe (mg) − Initial Hb Fe (mg)]/Fe intake (mg total consumed). RBV is calculated as percentage of HRE relative to ferrous sulfate monohydrate (FS) = HRE ratio of EIP/HRE ratio of the FS group × 100 (diet-matched).</p>
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20 pages, 1909 KiB  
Article
A Comparative Study of Dairy and Non-Dairy Milk Types: Development and Characterization of Customized Plant-Based Milk Options
by Aline Rolim Alves da Silva, Ricardo Erthal Santelli, Bernardo Ferreira Braz, Marselle Marmo Nascimento Silva, Lauro Melo, Ailton Cesar Lemes and Bernardo Dias Ribeiro
Foods 2024, 13(14), 2169; https://doi.org/10.3390/foods13142169 - 9 Jul 2024
Viewed by 2015
Abstract
Plant-based milk has gained considerable attention; however, its high nutritional variation highlights the need for improved formulation designs to enhance its quality. This study aimed to nutritionally compare cow milk with plant-based milk produced from hazelnuts (H), Brazil nuts (BN), cashew nuts (CN), [...] Read more.
Plant-based milk has gained considerable attention; however, its high nutritional variation highlights the need for improved formulation designs to enhance its quality. This study aimed to nutritionally compare cow milk with plant-based milk produced from hazelnuts (H), Brazil nuts (BN), cashew nuts (CN), soybeans (S), and sunflower seeds (SS), and to perform physicochemical and technological characterization. The plant-based milk produced with isolated grains showed a nutritional composition inferior to that of cow milk in almost all evaluated parameters, protein content (up to 1.1 g 100 g−1), lipids (up to 2.7 g 100 g−1), color parameters, minerals, and especially calcium (up to 62.4 mg L−1), which were originally high in cow milk (up to 1030 mg L−1). However, the plant-based milk designed using a blend composition was able to promote nutritional enhancement in terms of minerals, especially iron (Fe) and magnesium (Mg), high-quality lipids (up to 3.6 g 100 g−1), and carbohydrates (3.4 g 100 g−1 using CN, BN, and S). The protein content was 1.3% compared to 5.7 in cow milk, and the caloric value of plant-based milk remained 32.8 at 52.1 kcal, similar to cow milk. Satisfactory aspects were observed regarding the shelf life, especially related to microbiological stability during the 11 d of storage at 4 °C. For the designed plant-based milk to be equivalent to cow milk, further exploration for optimizing the blends used to achieve better combinations is required. Furthermore, analyzing possible fortification and preservation methods to increase shelf life and meet the nutritional and sensory needs of the public would be interesting. Full article
(This article belongs to the Special Issue Functionality and Food Applications of Plant Proteins (Volume II))
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<p>Generic flowchart for characterization of plant-based milk and designed plant-based milk (blends).</p>
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<p>Principal components analysis of the composition and viscosity of plant-based milk substitute (hazelnut (H), Brazil nut (BN), cashew nut (CN), sunflower seed (SS), and soy (S)), whole milk (N, EW, and QW), and skimmed milk (M, ES, and QS). (PC1 × PC2). Active variables (<span style="color:red">●</span>) and observations (<span style="color:#1F4E79">●</span>).</p>
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<p>Phase separation index during 1 day of storage at 4 °C and 24 °C of plant-based milk (BN: Brazil nut; S: soy; CN: cashew nut; H: hazelnut; SS: sunflower seed) and designed plant-based milk (V: 69.57% CN + 17.29% S + 13.04% H; L: 85.71% CN + 9.52% SS + 4.76% BN; F: 57.14% CN + 38.10% BN + 4.76%S).</p>
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<p>Principal components analysis of the composition and viscosity of designed plant-based milk, whole milk, and skimmed milk. (PC1 x PC2). Active variables (<span style="color:red">●</span>) and observations (<span style="color:#1F4E79">●</span>).</p>
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<p>Principal components analysis of plant-based milk and designed plant-based milk. (PC1 x PC2). Active variables (<span style="color:red">●</span>) and observations (<span style="color:#1F4E79">●</span>).</p>
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38 pages, 2592 KiB  
Review
Metals on the Menu—Analyzing the Presence, Importance, and Consequences
by Vedran Milanković, Tamara Tasić, Andreja Leskovac, Sandra Petrović, Miloš Mitić, Tamara Lazarević-Pašti, Mirjana Novković and Nebojša Potkonjak
Foods 2024, 13(12), 1890; https://doi.org/10.3390/foods13121890 - 16 Jun 2024
Cited by 2 | Viewed by 1816
Abstract
Metals are integral components of the natural environment, and their presence in the food supply is inevitable and complex. While essential metals such as sodium, potassium, magnesium, calcium, iron, zinc, and copper are crucial for various physiological functions and must be consumed through [...] Read more.
Metals are integral components of the natural environment, and their presence in the food supply is inevitable and complex. While essential metals such as sodium, potassium, magnesium, calcium, iron, zinc, and copper are crucial for various physiological functions and must be consumed through the diet, others, like lead, mercury, and cadmium, are toxic even at low concentrations and pose serious health risks. This study comprehensively analyzes the presence, importance, and consequences of metals in the food chain. We explore the pathways through which metals enter the food supply, their distribution across different food types, and the associated health implications. By examining current regulatory standards for maximum allowable levels of various metals, we highlight the importance of ensuring food safety and protecting public health. Furthermore, this research underscores the need for continuous monitoring and management of metal content in food, especially as global agricultural and food production practices evolve. Our findings aim to inform dietary recommendations, food fortification strategies, and regulatory policies, ultimately contributing to safer and more nutritionally balanced diets. Full article
(This article belongs to the Section Food Quality and Safety)
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<p>Physiological processes in which the essential metals are involved.</p>
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<p>Potential threats resulting from food contamination with metals.</p>
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14 pages, 2049 KiB  
Article
Anti-Anemic and Anti-Dyspepsia Potential of Yogurt with Carao (Cassia grandis) in Rat Model
by Jhunior Marcia, Manuel de Jesús Álvarez Gil, Héctor Zumbado Fernández, Ismael Montero-Fernández, Daniel Martín-Vertedor, Ajitesh Yadav and Ricardo S. Aleman
Fermentation 2024, 10(4), 199; https://doi.org/10.3390/fermentation10040199 - 8 Apr 2024
Viewed by 1765
Abstract
Iron deficiency anemia is a significant health problem in developing countries and this is rising, particularly in children and pregnant women. Several therapeutic properties have been attributed to Cassia grandis (carao), including the treatment against anemia, a laxative effect, and the reduction of [...] Read more.
Iron deficiency anemia is a significant health problem in developing countries and this is rising, particularly in children and pregnant women. Several therapeutic properties have been attributed to Cassia grandis (carao), including the treatment against anemia, a laxative effect, and the reduction of bleeding. Yogurt is a vehicle for functional ingredients. As a result, this investigation aims to examine the application of Cassia grandis pulp as an anti-anemic and anti-dyspepsia agent in enriched yogurt. Carao pulp powder was added to milk at 0%, 0.5%, 1%, and 3% to produce yogurt. The bioavailability characteristics of iron deficiency anemia were analyzed in albino rats, which were studied for 4 weeks. Other groups of rats were used to set up the dyspepsia model by being fed a high-fat and high-calorie diet. Intestinal propulsion rate, gastric emptying rate, small intestinal contraction, motilin levels, and intestinal muscle tension were analyzed in rats with dyspepsia. Yogurt with 3% carao pulp powder restored ferritin, hemoglobin, total protein and iron at the end of the 4-week feeding period, with significant competition revealed in calcium and zinc absorbance. Furthermore, yogurt with 3% carao pulp powder improved intestinal propulsion rate, gastric emptying rate, small intestinal contraction, motilin levels, and intestinal muscle tension in dyspepsia rats. Carao can be recommended as an anti-anemia supplement in yogurt fortification. Full article
(This article belongs to the Special Issue Recent Trends in Lactobacillus and Fermented Food, 2nd Edition)
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<p>Diagram of induced anemia and dyspepsia in animal models.</p>
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<p>Blood count of RBC (<b>A</b>), HB (<b>B</b>), WBC (<b>C</b>), Neut (<b>D</b>), Lymph/10 (<b>E</b>), Mono (<b>F</b>), Eosino (<b>G</b>), and plt100 (<b>H</b>) as influenced by yogurt fortified by carao. T1, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid; T2, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 0.5% of carao pulp extract; T3, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 1% of carao pulp extract; and T4, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 3% of carao pulp extract. If there no letters, no statistical difference was detected. Carao fortification is shown to improve the blood count of anemic rats. <sup>abcde</sup> Means are statistical different.</p>
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<p>Red cell index of Hct (<b>A</b>), Mkv (<b>B</b>), Mkh (<b>C</b>), and Mkhc (<b>D</b>) as influenced by yogurt fortified by carao. T1, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid; T2, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 0.5% of carao pulp extract; T3, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 1% of carao pulp extract; and T4, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 3% of carao pulp extract. If there no letters, no statistical difference was detected. <sup>abcd</sup> Means are statistical different.</p>
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<p>Iron parameters of rat groups as influenced by yogurt fortified by carao. T1, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid; T2, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 0.5% of carao pulp extract; T3, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 1% of carao pulp extract; and T4, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 3% of carao pulp extract. <sup>ab</sup> Means are statistical different.</p>
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<p>Protein parameters of rat groups as influenced by yogurt fortified by carao. T1, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid; T2, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 0.5% of carao pulp extract; T3, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 1% of carao pulp extract; and T4, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 3% of carao pulp extract. If there no letters, no statistical difference was detected. <sup>abc</sup> Means are statistical different.</p>
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<p>Calcium concentration (<b>A</b>) and Zinc concentration (<b>B</b>) of rat groups as influenced by yogurt fortified by carao. T1, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid; T2, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 0.5% of carao pulp extract; T3, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 1% of carao pulp extract; and T4, fed SFY fortified with 50 mgkg<sup>−1</sup> free ferrous sulfate + 125 mgkg<sup>−1</sup> ascorbic acid + 3% of carao pulp extract. <sup>ab</sup> Means are statistical different.</p>
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20 pages, 2764 KiB  
Systematic Review
The Effect of Oral Iron Supplementation/Fortification on the Gut Microbiota in Infancy: A Systematic Review and Meta-Analysis
by Theoni Karamantziani, Abraham Pouliakis, Theodoros Xanthos, Konstantinos Ekmektzoglou, Styliani Paliatsiou, Rozeta Sokou and Nicoletta Iacovidou
Children 2024, 11(2), 231; https://doi.org/10.3390/children11020231 - 10 Feb 2024
Cited by 1 | Viewed by 2570
Abstract
(1) Background: Iron is an essential metal for the proper growth and neurodevelopment of infants. To prevent and treat iron deficiency, iron supplementation or fortification is often required. It has been shown, though, that it affects the synthesis of gut microbiota. (2) Methods: [...] Read more.
(1) Background: Iron is an essential metal for the proper growth and neurodevelopment of infants. To prevent and treat iron deficiency, iron supplementation or fortification is often required. It has been shown, though, that it affects the synthesis of gut microbiota. (2) Methods: This paper is a systematic review and meta-analysis of the effect of oral iron supplementation/fortification on the gut microbiota in infancy. Studies in healthy neonates and infants who received per os iron with existing data on gut microbiota were included. Three databases were searched: PUBMED, Scopus, and Google Scholar. Randomized controlled trials (RCTs) were included. Quality appraisal was assessed using the ROB2Tool. (3) Results: A total of six RCTs met inclusion criteria for a systematic review, and four of them were included in the meta-analysis using both the fixed and random effects methods. Our results showed that there is very good heterogeneity in the iron group (I2 = 62%), and excellent heterogeneity in the non-iron group (I2 = 98%). According to the meta-analysis outcomes, there is a 10.3% (95% CI: −15.0–−5.55%) reduction in the bifidobacteria population in the iron group and a −2.96% reduction for the non-iron group. There is a confirmed difference (p = 0.02) in the aggregated outcomes between iron and non-iron supplement, indicative that the bifidobacteria population is reduced when iron supplementation is given (total reduction 6.37%, 95%CI: 10.16–25.8%). (4) Conclusions: The abundance of bifidobacteria decreases when iron supplementation or fortification is given to infants. Full article
(This article belongs to the Special Issue Public Health and Preventive Medicine for Children)
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<p>PRISMA flow chart for the study selection process and outcomes [<a href="#B35-children-11-00231" class="html-bibr">35</a>].</p>
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<p>Forest plot of the number of participants and their age. First column shows the first author, the year of publication, and the country. The second column shows the number of participants. The third column refers to the mean value of their age, and the fourth column shows the standard deviation. The following three columns show the forest plot, the mean value, and the 95% confidence interval. The remaining two columns show the weights for the common and random effect models [<a href="#B10-children-11-00231" class="html-bibr">10</a>,<a href="#B41-children-11-00231" class="html-bibr">41</a>,<a href="#B42-children-11-00231" class="html-bibr">42</a>,<a href="#B43-children-11-00231" class="html-bibr">43</a>,<a href="#B44-children-11-00231" class="html-bibr">44</a>,<a href="#B45-children-11-00231" class="html-bibr">45</a>].</p>
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<p>(<b>a</b>) Forest plot presenting the meta-analysis results for the age of participants per group, using both common effect and random effects models. The first column refers to the first author of the study, the year of publication, and the country of origin. The following three columns refer to the intervention groups, and they show the number of participants, the mean value of their age, and the standard deviation. Respectively, the next three columns refer to the same data for the control groups. The eighth and ninth columns show the graph for the ratio of means—ROM. The last three columns present the 95% confidence interval, the common effect model, and weight for the common and random effect models. (<b>b</b>) The relevant funnel plot for the risk of publication bias. [<a href="#B10-children-11-00231" class="html-bibr">10</a>,<a href="#B41-children-11-00231" class="html-bibr">41</a>,<a href="#B42-children-11-00231" class="html-bibr">42</a>,<a href="#B43-children-11-00231" class="html-bibr">43</a>,<a href="#B44-children-11-00231" class="html-bibr">44</a>,<a href="#B45-children-11-00231" class="html-bibr">45</a>].</p>
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<p>(<b>a</b>) Forest for the population of bifidobacteria per group, using both common and random effects models. The first column refers to the first author, year of publication, and group of participants (intervention or control group, respectively). The next three columns refer to the number of participants, the mean value of the changes in the bifidobacteria population, and the standard deviation. The next two columns show the mean value graph and the mean value. The last three columns present the 95% confidence interval and the common effect model and random effect model weights. At this point, there are certain things that need to be noted: 1. For the results by Simonyte Sjodin et al. [<a href="#B45-children-11-00231" class="html-bibr">45</a>], Krebs et al. [<a href="#B42-children-11-00231" class="html-bibr">42</a>], and Qasem et al. [<a href="#B44-children-11-00231" class="html-bibr">44</a>], the standard deviations of differences were estimated. 2. For the study by Krebs et al. [<a href="#B42-children-11-00231" class="html-bibr">42</a>], the arm involving Fe + Zn was excluded as the introduction of Zn could alter the microbiome. 3. For the paper by Simonyte Sjodin et al. [<a href="#B45-children-11-00231" class="html-bibr">45</a>] and Qasem et al. [<a href="#B44-children-11-00231" class="html-bibr">44</a>], the difference based on the bacteria expression before and after the intervention was calculated. 4. Different arms from the same studies were treated as providing separate results; for instance, the Fe group and the Fe + fruits group in the study by Qasem et al. [<a href="#B44-children-11-00231" class="html-bibr">44</a>], and the MNP only and placebo in the paper by Tang et al. [<a href="#B10-children-11-00231" class="html-bibr">10</a>]. 5. We applied both fixed and random effects models since we were not aware of the underlying phenomena. (<b>b</b>) The corresponding funnel plot for the risk of publication bias.</p>
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<p>Corresponding traffic light plot for the quality appraisal of each study according to RoB2Tool [<a href="#B10-children-11-00231" class="html-bibr">10</a>,<a href="#B41-children-11-00231" class="html-bibr">41</a>,<a href="#B42-children-11-00231" class="html-bibr">42</a>,<a href="#B43-children-11-00231" class="html-bibr">43</a>,<a href="#B44-children-11-00231" class="html-bibr">44</a>,<a href="#B45-children-11-00231" class="html-bibr">45</a>].</p>
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2 pages, 134 KiB  
Abstract
Micronutrient Content of Plant-Based Meat Alternatives Available in the UK and Ireland: Product Audits (2021 and 2023)
by Leona Lindberg, Jayne V. Woodside, Hannah Vogan, Niamh Campbell, Hannah Fitzgerald, Janette Walton and Anne P. Nugent
Proceedings 2023, 91(1), 256; https://doi.org/10.3390/proceedings2023091256 - 5 Feb 2024
Viewed by 1214
Abstract
Knowledge of micronutrient content of commercial plant-based meat alternatives (PBMAs) is limited. This study aimed to identify changes in micronutrient content of PBMAs over time, as well as how micronutrient levels of PBMAs compare to similar meat products using product audit data. An [...] Read more.
Knowledge of micronutrient content of commercial plant-based meat alternatives (PBMAs) is limited. This study aimed to identify changes in micronutrient content of PBMAs over time, as well as how micronutrient levels of PBMAs compare to similar meat products using product audit data. An online audit of PBMAs in Tesco and Sainsbury’s was conducted in 2021 and 2023. On-pack information was extracted and inputted into Excel. Products were categorised, with categories containing on-pack micronutrient content for ≥2 products compared with similar meat products using data from Nutritics software and descriptive statistics applied. Nutrient claim thresholds were used to determine how many PBMAs were eligible to make a ‘source of’ or ‘high in’ claim for vitamin B12 (≥0.38 μg and ≥0.75 μg/100 g, respectively) and iron (≥2.1 mg and ≥4.2 mg/100 g, respectively). Results: Around 7% of products (n = 23/351 in 2021 and n = 22/324 in 2023) reported vitamin B12 content on-pack and 8% of products reported iron content on-pack (n = 28/351 for 2021 and n = 25/324 for 2023). All products contained levels adequate to make a ‘source of’ claim, with around 22% (2021) and 41% (2023) of these products eligible to make a ‘high in vitamin B12’ claim and 14% (2021) and 28% (2023) eligible to make a ‘high in iron’ claim. Median vitamin B12 and iron content/100 g was higher in 2023 products for 5/6 and 4/5 categories, respectively, with no change in the other category. For 2023 data, PBMAs had lower mean vitamin B12 contents/100 g in 4/6 categories compared to meat products (0.6–1.8 μg for PBMAs vs. 0.0–3.0 μg for meat products). For all six categories (burgers, mince, beef, pork, chicken, and lamb), PBMAs had higher mean iron contents/100 g than comparable meat categories (2.8–6.8 mg for PBMAs vs. 0.4–2.7 mg for meat products). Magnesium, zinc, calcium, vitamin A, and folic acid contents were listed on ≤1 product per category. Discussion: Vitamin B12 and iron contents of the PBMAs included in these audits appear to be increasing over time, however, levels of vitamin B12 need to increase to equate to those of red meat. Further fortification represents an option for improving the micronutrient profile of PBMAs to reflect levels in comparable meat products. Full article
(This article belongs to the Proceedings of The 14th European Nutrition Conference FENS 2023)
16 pages, 307 KiB  
Article
Estimated Intake of Potassium, Phosphorus and Zinc with the Daily Diet Negatively Correlates with ADP-Dependent Whole Blood Platelet Aggregation in Older Subjects
by Kamil Karolczak, Agnieszka Guligowska, Bartłomiej K. Sołtysik, Joanna Kostanek, Tomasz Kostka and Cezary Watala
Nutrients 2024, 16(3), 332; https://doi.org/10.3390/nu16030332 - 23 Jan 2024
Cited by 1 | Viewed by 1473
Abstract
The aggregation of blood platelets is the pivotal step that leads to thrombosis. The risk of thrombotic events increases with age. Available data suggest that minerals taken with diet can affect the course of thrombosis. However, little is known about the relationship between [...] Read more.
The aggregation of blood platelets is the pivotal step that leads to thrombosis. The risk of thrombotic events increases with age. Available data suggest that minerals taken with diet can affect the course of thrombosis. However, little is known about the relationship between platelet aggregability and mineral intake with diet among elderly people. Thus, we evaluated the associations between the reactivities of platelets to arachidonic acid, collagen or ADP and the estimated quantities of minerals consumed as a part of the daily diet in 246 subjects aged 60–65 years (124 men and 122 women). The found simple (not-adjusted) Spearman’s rank negative correlations are as follows: 1. arachidonate-dependent aggregation and the amounts of potassium, zinc, magnesium, phosphorus, iron, copper and manganese; 2. collagen-dependent aggregation and the amounts of potassium, phosphorus, iron and zinc; and 3. ADP-dependent aggregation and the amounts of potassium, phosphorus and zinc. The negative associations between ADP-dependent platelet reactivity and the amount of potassium, phosphorus and zinc and between collagen-dependent aggregability and the amount of phosphorus were also noted after adjusting for a bunch of cardiovascular risk factors. Overall, in older subjects, the intake of minerals with diet is negatively related to blood platelet reactivity, especially in response to ADP. Diet fortification with some minerals may possibly reduce the thrombotic risk among elderly patients. Full article
(This article belongs to the Section Geriatric Nutrition)
16 pages, 488 KiB  
Article
The Effect of Iron-Fortified Lentils on Blood and Cognitive Status among Adolescent Girls in Bangladesh
by Amy L. Barnett, Michael J. Wenger, Fakir M. Yunus, Chowdhury Jalal and Diane M. DellaValle
Nutrients 2023, 15(23), 5001; https://doi.org/10.3390/nu15235001 - 2 Dec 2023
Viewed by 1985
Abstract
Background: Iron deficiency is highly prevalent in South Asia, especially among women and children in Bangladesh. Declines in cognitive performance are among the many functional consequences of iron deficiency. Objective: We tested the hypothesis that, over the course of a 4-month iron fortification [...] Read more.
Background: Iron deficiency is highly prevalent in South Asia, especially among women and children in Bangladesh. Declines in cognitive performance are among the many functional consequences of iron deficiency. Objective: We tested the hypothesis that, over the course of a 4-month iron fortification trial, cognitive performance would improve, and that improvement would be related to improvements in iron status. Methods: Participants included 359 adolescent girls attending Bangladesh Rural Advancement Committee (BRAC) clubs as a subsample of a larger double-blind, cluster-randomized community trial in which participants were assigned to one of three conditions: a condition in which no lentils were supplied (NL, n = 118, but which had the usual intake of lentils), a control (non-fortified) lentil condition (CL, n = 124), and an iron-fortified lentil condition (FL, n = 117). In the FL and CL conditions, approximately 200 g of cooked lentils were served five days per week for a total of 85 feeding days. In addition to biomarkers of iron status, five cognitive tasks were measured at baseline (BL) and endline (EL): simple reaction time task (SRT), go/no-go task (GNG), attentional network task (ANT), the Sternberg memory search Task (SMS), and a cued recognition task (CRT). Results: Cognitive performance at EL was significantly better for those in the FL relative to the CL and NL conditions, with this being true for at least one variable in each task, except for the GNG. In addition, there were consistent improvements in cognitive performance for those participants whose iron status improved. Although there were overall declines in iron status from BL to EL, the declines were smallest for those in the FL condition, and iron status was significantly better for those in FL condition at EL, relative to those in the CL and NL conditions. Conclusions: the provision of iron-fortified lentils provided a protective effect on iron status in the context of declines in iron status and supported higher levels of cognitive performance for adolescent girls at-risk of developing iron deficiency. Full article
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<p>Flow of participants through the study. Note: CL = control lentil, FL = fortified lentil, NL = no lentil.</p>
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2 pages, 145 KiB  
Abstract
Exploring the Impact of Traditional Processing Techniques on Iron Content and Bio-Accessibility of Six Iron-Rich Ingredients
by Ashi Khare and Amit Arora
Proceedings 2023, 91(1), 89; https://doi.org/10.3390/proceedings2023091089 - 27 Nov 2023
Viewed by 694
Abstract
Iron (Fe) deficiency is a leading cause of anemia among Indian adolescent girls. Supplementation and fortification alone may not effectively reduce the risk of iron deficiency anemia. Therefore, sustainable food-based synergies and processing techniques must be developed to enhance mineral bio-accessibility (BAC) and [...] Read more.
Iron (Fe) deficiency is a leading cause of anemia among Indian adolescent girls. Supplementation and fortification alone may not effectively reduce the risk of iron deficiency anemia. Therefore, sustainable food-based synergies and processing techniques must be developed to enhance mineral bio-accessibility (BAC) and bio-availability from naturally iron-rich foods. Traditional processing techniques that reduce antinutrient content and enhance mineral BAC have the potential to further enhance mineral bioavailability. This study quantifies the impact of traditional processing on Fe content and BAC in Fe-rich foods. It also quantifies the BAC of contaminant Fe from cooking in iron utensils. Three seeds were roasted and boiled in iron and non-iron utensils, and germinated. Three green leafy vegetables (GLVs) were roasted and blanched. Iron content was assessed using ICP-AES and the BAC was determined using dialyzability assay. Statistical analysis was conducted using MINITAB software, and Tukey’s test was used to determine the difference between the means. The Fe content in raw seeds ranged from 5.6 to 6.6 mg/100 g, and GLVs contained 36–77 mg Fe/100 g (d.b). Processing significantly increased Fe content in seeds (p < 0.05), with a maximum increase of 68–258% in samples boiled in an Fe pan. Among the GLVs, only blanching led to a significant reduction (~65%) in Fe content. The BAC of Fe from seeds increased after roasting (46.6–63.6%) and germination (7.9–68%). In GLVs, the maximum increase in Fe BAC was obtained in blanched samples (102–203%). No notable difference in Fe BAC was observed between the seed samples processed in utensils made of Fe and non-Fe materials. The Fe content and its BAC in food are significantly impacted by processing. Iron utensils may increase Fe content, but the contaminant-Fe BAC is limited. Roasting might release Fe from the protein–Fe–phytate complex due to thermal treatment, while germination mobilizes antinutrients, which may improve Fe bioavailability. Blanching works favorably in case of GLVs which may be due to alterations in the soluble and insoluble dietary fiber ratio. These findings suggest that incorporating such processing techniques can be beneficial while formulating products with high Fe bioavailability to combat anemia. Full article
(This article belongs to the Proceedings of The 14th European Nutrition Conference FENS 2023)
13 pages, 932 KiB  
Article
Impact of Mealworm Powder (Tenebrio molitor) Fortification on Ice Cream Quality
by Ewelina Zielińska, Martina Pečová and Urszula Pankiewicz
Sustainability 2023, 15(22), 16041; https://doi.org/10.3390/su152216041 - 17 Nov 2023
Cited by 2 | Viewed by 1421
Abstract
The study’s objective was to characterize the effects of mealworm powder fortification on ice cream’s properties and nutritional value. The approximate composition and the mineral and fatty acid profiles were analyzed. Moreover, the antioxidant activity and physical properties as well as color were [...] Read more.
The study’s objective was to characterize the effects of mealworm powder fortification on ice cream’s properties and nutritional value. The approximate composition and the mineral and fatty acid profiles were analyzed. Moreover, the antioxidant activity and physical properties as well as color were studied. As expected, insect powder substitution increased the protein content from 1.48 ± 0.13% for the control to 3.08 ± 0.22% for the sample with the highest insect substitution. The ash content increased as well. There was also a significant increase in zinc (2.5-fold), magnesium (3-fold), iron (4-fold) and unsaturated fatty acids. The ice cream with the highest percentage of insect powder had the slowest melting rate (0.094 ± 0.04 g/min) but the lowest overrun value (13.10 ± 0.22%) compared with the melting rate (0.145 ± 0.02 g/min) and overrun value (32.58 ± 0.6%) of control ice cream. Moreover, the ice cream turned darker in color. Furthermore, adding mealworm powder caused a significant increase in antioxidant properties as evaluated by ABTS and DPPH scavenging activity. Therefore, using mealworm powder in ice cream gave a product with better characteristics than the control sample, thus demonstrating the possibility of producing high-quality ice cream. Full article
(This article belongs to the Special Issue Just Food System Transformations)
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<p>Melting rate of ice cream.</p>
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<p>FT-IR spectra of the studied ice creams and mealworm powder.</p>
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26 pages, 1682 KiB  
Review
Nutrient Intake and Status in Children and Adolescents Consuming Plant-Based Diets Compared to Meat-Eaters: A Systematic Review
by Nicole Neufingerl and Ans Eilander
Nutrients 2023, 15(20), 4341; https://doi.org/10.3390/nu15204341 - 11 Oct 2023
Cited by 13 | Viewed by 9634
Abstract
Health authorities increasingly recommend sustainable and healthy diets rich in plant foods and with moderate amounts of animal foods. However, there are concerns about whether such diets can meet all nutrient requirements, especially in children and adolescents, who have relatively high nutrient needs [...] Read more.
Health authorities increasingly recommend sustainable and healthy diets rich in plant foods and with moderate amounts of animal foods. However, there are concerns about whether such diets can meet all nutrient requirements, especially in children and adolescents, who have relatively high nutrient needs for growth and development. Therefore, we aimed to evaluate the nutrient intake and status of children and adolescents (2–18 y) consuming plant-based (i.e., vegetarian and vegan) diets compared to those of meat-eating children following a systematic literature review of studies published between 2000 and 2022. Mean intake and status data of nutrients were calculated across studies and benchmarked to dietary reference values and cut-off values for nutrient deficiencies. A total of 30 studies were included (15 in children 2–5 y, 24 in children 6–12 y, and 11 in adolescents 13–18 y). In all diets, there were risks of inadequate intakes of vitamin D and calcium. Children consuming meat had a risk of inadequate folate and vitamin E intake; and mean fiber, SAFA, and PUFA intakes were not in line with the recommendations. Children consuming plant-based diets risked inadequate vitamin B12, iron, and zinc intakes. In contrast to vegans, vegetarian children may not meet the recommended intakes of fiber, SAFA, and possibly PUFA, but their mean intakes were more favorable than in meat-eating children. Although the data are limited and need further validation, our findings indicate that there are risks of nutritional inadequacies in all diet groups. Therefore, increasing consumption of a variety of plant-based foods, in combination with food fortification and supplementation where needed, is recommended for children and adolescents to have sustainable and nutritionally adequate diets. Full article
(This article belongs to the Section Nutrition and Public Health)
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<p>Flow diagram.</p>
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<p>Boxplots represent 25th, 50th, and 75th percentiles of intake with whiskers at the &lt; 1.5 interquartile range (IQR) per dietary pattern. Black dots represent mean intake and white dots outliers with &gt;1.5 IQR: (<b>a</b>) protein; (<b>b</b>) fiber; (<b>c</b>) polyunsaturated fatty acids (PUFA); (<b>d</b>) saturated fatty acids (SAFA). Straight red lines represent the lower level of the acceptable macronutrient distribution range (AMDR) for protein (i.e., 5%E for children ≤ 3 y; 10%E for children &gt; 3 y) and PUFA (i.e., 6%E) and the upper level of the AMDR for SAFA (i.e., 8%E). For fiber, the adequate intake (AI) for the age and gender groups with the lowest (19 g/d) and highest (38 g/d) dietary requirements that were included in the studies is shown. Boxplots are only shown for macronutrients, for which intake data from at least 3 studies were available for at least one of the dietary patterns.</p>
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<p>Boxplots represent 25th, 50th, and 75th percentiles of vitamin intakes from foods only, with whiskers at the &lt;1.5 interquartile range (IQR). Black dots represent mean intake and white dots outliers at the &gt;1.5 IQR: (<b>a</b>) vitamin A; (<b>b</b>) vitamin B1; (<b>c</b>) vitamin B2; (<b>d</b>) vitamin B6; (<b>e</b>) folate; (<b>f</b>) vitamin B12; (<b>g</b>) vitamin C; (<b>h</b>) vitamin D; (<b>i</b>) vitamin E. Straight red lines represent the estimated average requirement (EAR) for the age and gender groups with the lowest and highest dietary requirements that were included in the studies. Boxplots are only shown for nutrients, for which intake data from at least 3 studies were available for at least one of the dietary patterns.</p>
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<p>Boxplots represent 25th, 50th, and 75th percentiles of vitamin intakes from foods only, with whiskers at the &lt;1.5 interquartile range (IQR). Black dots represent mean intake and white dots outliers at the &gt;1.5 IQR: (<b>a</b>) vitamin A; (<b>b</b>) vitamin B1; (<b>c</b>) vitamin B2; (<b>d</b>) vitamin B6; (<b>e</b>) folate; (<b>f</b>) vitamin B12; (<b>g</b>) vitamin C; (<b>h</b>) vitamin D; (<b>i</b>) vitamin E. Straight red lines represent the estimated average requirement (EAR) for the age and gender groups with the lowest and highest dietary requirements that were included in the studies. Boxplots are only shown for nutrients, for which intake data from at least 3 studies were available for at least one of the dietary patterns.</p>
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<p>Boxplots represent 25th, 50th, and 75th percentiles of micronutrient status (<b>a</b>–<b>d</b>) and hemoglobin (<b>e</b>) concentrations per dietary pattern based on all studies (i.e., including and excluding supplement users) with whiskers at the &lt;1.5 interquartile range (IQR). Black dots represent mean biomarker concentrations and white dots outliers at the &gt; 1.5 IQR. Straight red lines represent cut-off levels to indicate nutrient deficiency and anemia, i.e., folate (&lt;10 nmol/L), vitamin B12 (&lt;148 pmol/L), vitamin D (&lt;12 µg/L), and ferritin (&lt;12 µg/L for children &lt; 5 y; &lt;15 µg/L for older children). For anemia, cut-off values were 110 g/L for children &lt; 6–59 months, 115 g/L for children 5–11 y, 120 g/L for children 12–14 y and girls 15 y and older, and 130 g/L for boys 15 y and older. The dotted red line represents the cut-off value for vitamin D insufficiency (&lt;20 µg/L). Boxplots are only shown for nutrients, for which status data from at least 3 studies were available for at least one of the dietary patterns.</p>
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<p>Boxplots represent 25th, 50th, and 75th percentiles of mineral intake based on studies that assessed intake from foods only, with whiskers at the &lt;1.5 interquartile range (IQR). Black dots represent mean intake and white dots outliers at the &gt;1.5 IQR: (<b>a</b>) iron; (<b>b</b>) zinc; (<b>c</b>) calcium; (<b>d</b>) magnesium; (<b>e</b>) phosphorus. Straight red lines represent the estimated average requirement (EAR) for the age and gender groups with the lowest and highest dietary requirements that were included in the studies. Dotted blue lines represent bioavailability-adjusted EAR for iron and zinc for the age and gender groups with the lowest and highest dietary requirements. Boxplots are only shown for nutrients, for which status data from at least 3 studies were available for at least one of the dietary patterns.</p>
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19 pages, 13708 KiB  
Article
Native Potato Starch and Tara Gum as Polymeric Matrices to Obtain Iron-Loaded Microcapsules from Ovine and Bovine Erythrocytes
by Carlos A. Ligarda-Samanez, Elibet Moscoso-Moscoso, David Choque-Quispe, Betsy S. Ramos-Pacheco, José C. Arévalo-Quijano, Germán De la Cruz, Mary L. Huamán-Carrión, Uriel R. Quispe-Quezada, Edgar Gutiérrez-Gómez, Domingo J. Cabel-Moscoso, Mauricio Muñoz-Melgarejo and Wilber César Calsina Ponce
Polymers 2023, 15(19), 3985; https://doi.org/10.3390/polym15193985 - 4 Oct 2023
Cited by 4 | Viewed by 2033
Abstract
Iron deficiency leads to ferropenic anemia in humans. This study aimed to encapsulate iron-rich ovine and bovine erythrocytes using tara gum and native potato starch as matrices. Solutions containing 20% erythrocytes and different proportions of encapsulants (5, 10, and 20%) were used, followed [...] Read more.
Iron deficiency leads to ferropenic anemia in humans. This study aimed to encapsulate iron-rich ovine and bovine erythrocytes using tara gum and native potato starch as matrices. Solutions containing 20% erythrocytes and different proportions of encapsulants (5, 10, and 20%) were used, followed by spray drying at 120 and 140 °C. Iron content in erythrocytes ranged between 2.24 and 2.52 mg of Fe/g; microcapsules ranged from 1.54 to 2.02 mg of Fe/g. Yields varied from 50.55 to 63.40%, and temperature and encapsulant proportion affected moisture and water activity. Various red hues, sizes, and shapes were observed in the microcapsules. SEM-EDS analysis revealed the surface presence of iron in microcapsules with openings on their exterior, along with a negative zeta potential. Thermal and infrared analyses confirmed core encapsulation within the matrices. Iron release varied between 92.30 and 93.13% at 120 min. Finally, the most effective treatments were those with higher encapsulant percentages and dried at elevated temperatures, which could enable their utilization in functional food fortification to combat anemia in developing countries. Full article
(This article belongs to the Special Issue Advances in Sustainable Polymeric Materials II)
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<p>Experimental flow diagram.</p>
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<p>(<b>a</b>) Characterization of native potato starch of the yanapalta variety, (<b>b</b>) characterization of spray-dried tara gum, (<b>c</b>) characterization of spray-dried ovine erythrocytes, and (<b>d</b>) characterization of spray-dried bovine erythrocytes.</p>
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<p>Thermal analysis: (<b>a</b>) DT and DTA curves in native potato starch and tara gum, (<b>b</b>) DSC curves in native potato starch (YPS) and tara gum (TG), (<b>c</b>) DT and DTA curves in ovine and bovine erythrocytes, and (<b>d</b>) DSC curves in ovine (OE) and bovine (BE) erythrocytes.</p>
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<p>PCA study.</p>
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<p>SEM analysis. Where T1O, T2O, T3O, T4O, T5O and T6O are the ovine erythrocyte microcapsules and T1V, T2V, T3V, T4V, T5V and T6V are the bovine erythrocyte microcapsules.</p>
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<p>FTIR analysis: (<b>a</b>) wall materials and erythrocytes and (<b>b</b>) microcapsules.</p>
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<p>Thermal analysis: (<b>a</b>) DT and DTA curves in ovine erythrocyte microcapsules, (<b>b</b>) DSC curves in ovine erythrocyte microcapsules, (<b>c</b>) DT and DTA curves in bovine erythrocyte microcapsules, and (<b>d</b>) DSC curves in bovine erythrocyte microcapsules. Where T1O, T2O, T3O, T4O, T5O and T6O are the ovine erythrocyte microcapsules and T1V, T2V, T3V, T4V, T5V and T6V are the bovine erythrocyte microcapsules.</p>
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<p>Iron released: (<b>a</b>) in microcapsules of the ovine erythrocytes and (<b>b</b>) in microcapsules of the bovine erythrocytes.</p>
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