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Table 4 Changes in physical, chemical, and nutritional properties of foods by the addition of FBPs

From: Trends and challenges of fruit by-products utilization: insights into safety, sensory, and benefits of the use for the development of innovative healthy food: a review

Fruit By-products

Targeted Product

Changes in physical properties

Changes in chemical properties

Changes in nutritional properties

References

Mango peel powder

Bread

– Bread height, specific volume, and weight loss percentage decreased

– Density increased

– Starch digestibility percentage decreased

– Total phenol (mg GAE/100 gm) increased 220.33 ± 8.5 to 757.8 ± 13.5 at 5% incorporation

– Antioxidant activity increased at least 3 times after 5% addition

(Chen et al. 2019; Pathak et al. 2016)

Tortilla chips

– Lowered the required fracture force

– Influenced pore formation

– Ash, fiber, and phenol content increased significantly

– Glycemic index lowered

– Total phenols (mg/g) increased 0.61 ± 0.05 to 3.73 ± 0.14 at 10% incorporation

– Total dietary fiber enhanced almost 3 times than control

(Mayo-Mayo et al. 2020)

cookies

– Decreased the diameter of cookies

– Breaking strength increased

– Fiber, carotenoids, and polyphenolics enhanced

– Carotenoids (mg/g) increased 17 ± 3 to 247 ± 14 at 20% incorporation

– Polyphenolics enhanced almost 5 times and dietary fiber enhanced almost 3 time

(Ajila et al. 2008)

Banana peel extract

Yogurt

– Viscosity increased

– Syneresis percentage slightly increased

– pH value slightly increased

– α-glucosidase inhibition percentage raised 72.11 ± 2.34 to 81.38 ± 3.20 after incorporation

– Phenols and antioxidant activity doubled

(Kabir et al. 2021)

Sweet potato peel flour

Arabic bread

– Roundness of the arabic bread decreased

– Better mineral concentration

– Higher crude fiber and ash content

– Higher phytochemical content

– Total phenol, total flavonoid, and total anthocyanin were almost tripled at 5% incorporation

(Elkatry et al. 2023)

Banana peel powder

Chicken Sausage

– Reduced cohesiveness and increased brittleness

– Water holding capacity increased

– Decreased lipid oxidation

– Dietary fiber almost doubled at 2% incorporation

(Zaini et al. 2020)

Prickly pear peel flour

Bread

– Volume decreased and weight increased

– Cohesiveness and springiness increased

– Moisture content and water activity increased

– Significant increase in total polyphenols

– Phenols and flavonoids activity increased almost eightfold and twofold, respectively, at 20% addition

(Parafati et al. 2020)

Grape juice residue

Ice cream

 

– Carbohydrate, ash, and total phenolic content increased significantly

For 2% addition:

– Total dietary fiber (%) increased 0.27 ± 0.01 to 1.09 ± 0.06

– Total phenolics (GAE mg/100 g) increased from 129.40 ± 0.35 to 197.41 ± 0.18

– Flavonoids (mg CE/100 g) increased from 128.17 ± 0.68 to 184.20 ± 5.38

(Nascimento et al. 2018; Vital et al. 2018)

Carrot pomace powder

Donut

– Specific volume decreased

– Crumb firmness enhanced

– Dietary fiber increased

– Moisture content increased

 

(Nouri et al. 2017)

Pineapple peel

Vienna sausages

– Reduced the release of whey

– Dietary fiber increased

– Water holding capacity increased

– Significant increment in carotenoid and antioxidant capacity

(Montalvo-González et al. 2018)

Watermelon rind powder

Cake, Noodles

– Cake volume decreased

– Cake weight increased

– Moisture content increased in cake

– In noodles total phenolic content (mg GAE/kg dm) increased 82.5 ± 7.63 to 1164.0 ± 6.15 at 15% incorporation

– Crude fiber enhanced almost 24-fold at 15% incorporation

(Ho and Che Dahri 2016; Hoque and Iqbal 2015)

Jackfruit seed powder

Cake

– Protein content enhanced

– Nutritional value improved

– Protein, fiber, and ash content improved significantly at a 1:1 mixture ratio

(Sultana 2017)