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Conference Open access 2026

Valorization of whey through development of a spray-dried fruit beverage powder: Process optimization and quality assessment

This study aimed to optimize a refreshing whey-based pineapple beverage formulation and convert the optimized formulation into a shelf-stable powder by spray-drying. Whey was produced from milk by heating (85°C for 5 min), coagulation (1.0 % citric acid), filtration, and centrifugation, while pineapple-juice was extracted, filtered, and pasteurized. Whey, juice, and beverages were characterized for physicochemical and functional properties. Whey contained TSS 8.0°B, pH 6.00, 0.77% protein, 4.78% lactose, 0.21% acidity, and TPC 6.39 mg GAE/100 mL, whereas pineapple-juice showed TSS of 10.3°B, pH 3.8, 0.58% acidity, 12.38% carbohydrates, and 84.86% moisture. Increasing pineapple juice (10 to 50%) decreased beverage protein (0.69-0.39%) and pH (5.78−1.90) while increased acidity (0.247–0.395%) and TSS (8.23–9.15°B). 70:30 whey-pineapple formulation achieved the highest overall-acceptability (8.0). This formulation was spray-dried with maltodextrin (2.5–7.5%), inlet-air temperature (150–170°C), and feed-flow (6–10 mL/min) using 17-run BBD to optimize yield, moisture, solubility, and bulk-density. The responses varied as 37.63–46.79% yield, 2.28–4.39% moisture, 91.54–99.04% solubility, and 0.27–0.401 g/cm 3 bulk-density; quadratic-models were highly predictive (R 2 ≈0.984–0.996). Optimal conditions (169°C, 6.6% maltodextrin, 10mL/min) produced powder with 44.84% yield, 3.58% moisture, 97.6% solubility, and 0.393g/cm3 bulk-density, supporting whey valorization into instant beverage-powder with improved handling and potential nutritional utility.

A. Ghorband, Shahaji Kadam, Ditimoni Dutta et al. · 0 citations
Conference Open access 2026

Incorporation of Dragon Fruit Peel and Lemon Zest in Fruit Spread: A Critical Review of Bioactive Composition, Extraction Technologies, Processing Stability, and Functional Food Applications

The growing production of food processing waste brings an environmental challenge and a need for sustainable food innovation. Fruit peels, which are thrown away as agro–industrial waste, are full of bioactive substances that have useful bioactive compounds. This article explores the use of dragon fruit ( Selenicereus spp., formerly Hylocereus spp. ) peel and lemon (Citrus limon) zest in fruit–based spreads to enhance nutritional, functional, and sensory properties. The peel of the dragon fruit, generally regarded as waste, contains a high amount of betalains (betacyanins: 32–80 mg/100 g fresh weight; betaxanthins: 12–40 mg/100 g fresh weight), dietary fibre (up to 46.5%), pectin (yield: 9.4–20.5% by ultrasound– and microwave-assisted extraction, respectively) and phenolic compounds (total phenolics: 2.8–8.9 mg GAE/g dry weight). Similarly, lemon zest is a rich source of fiavonoids (primarily hesperidin and eriocitrin), and D–limonene (59–74% of essential oil) responsible for flavour enhancement and preservation. The combined use of these by–products in fruit spread improves antioxidant potential, fibre content, texture, and sensory characteristics. Therefore, the use of dragon fruit peel and lemon zest added to fruit–based spreads can be considered an effective approach to the green economy, converting agro–industrial waste into value–added functional foods.

Janhavi Ulman, D. Joseph, V. Kele et al. · 0 citations